ABB IRB 6600 - 175/2.55, IRB 6600 - 175/2.8 User Manual

Product Manual
Industrial Robot
IRB 6600 - 225/2.55
IRB 6600 - 175/2.8
IRB 6600 - 175/2.55
IRB 6650 - 200/2.75
IRB 6650 - 125/3.2
M2000A
Product Specification
3HAC 14064-1/M2000/Rev 2
IRB 6600 - 175/2.55
IRB 6600 - 225/2.55
IRB 6600 - 175/2.8
IRB 6650 - 125/3.2
IRB 6650 - 200/2.75
The information in this document is subject to change without notice and should not be construed as a
commitment by ABB Automation Technology Products AB, Robotics. ABB Automation Technology
Products AB, Robotics assumes no responsibility for any errors that may appear in this document.
In no event shall ABB Automation Technology Products AB, Robotics be liable for incidental or
consequential damages arising from use of this document or of the software and hardware described
in this document.
This document and parts thereof must not be reproduced or copied without ABB Automation
Technology Products AB, Robotics’s written permission, and contents thereof must not be imparted to
a third party nor be used for any unauthorized purpose. Contravention will be prosecuted.
Additional copies of this document may be obtained from ABB Automation Technology Products AB,
Robotics at its then current charge.
© Copyright 2001 ABB. All rights reserved.
Article number: 3HAC 14064-1
Issue: M2000/Rev. 2
ABB Automation Technology Products AB
Robotics
SE-721 68 Västerås
Sweden
Product Specification IRB 6600
CONTENTS
Page
1 Description ....................................................................................................................... 3
1.1 Structure.................................................................................................................. 3
Different robot versions ......................................................................................... 4
Definition of version designation........................................................................... 4
1.2 Safety/Standards ..................................................................................................... 6
1.3 Installation .............................................................................................................. 10
External Mains Transformer .................................................................................. 10
Operating requirements.......................................................................................... 10
Mounting the manipulator...................................................................................... 10
1.4 Load diagrams ........................................................................................................ 13
Maximum load and moment of inertia for full and limited axis 5
(centre line down) movement......................................................................... 24
Mounting equipment .............................................................................................. 25
Holes for mounting extra equipment ..................................................................... 26
1.5 Maintenance and Troubleshooting ......................................................................... 30
1.6 Robot Motion.......................................................................................................... 31
Performance according to ISO 9283...................................................................... 34
Velocity .................................................................................................................. 34
1.7 Cooling fan for axis 1-3 motor (option 113-115) ................................................... 34
1.8 SpotPack and DressPack ........................................................................................ 35
Description of DressPack....................................................................................... 37
Description of Water and Air unit.......................................................................... 39
Description of Power Unit ..................................................................................... 40
1.9 Description of Variants and Options for SpotPack................................................. 41
1.10 Examples of SpotPacks ........................................................................................ 59
1.11 Servo Gun (option) ............................................................................................... 62
1.12 Track Motion ........................................................................................................ 68
2 Specification of Variants and Options........................................................................... 69
3 Accessories ....................................................................................................................... 79
4 Index ................................................................................................................................. 81
Product Specification IRB 6600 M2000
1
Product Specification IRB 6600
2
Product Specification IRB 6600 M2000
Description
1 Description
1.1 Structure
A new world of possibilities opens up with ABB’s IRB 6600 robot family. It comes in
five versions, 175kg /2.55m, 225kg /2.55 m, 175kg /2.8m, 125kg/3.2m, and
200kg/2.75m handling capacities.
The IRB 6600 is ideal for process applications, regardless of industry. Typical areas can
be spotwelding, material handling and machine tending.
We have added a range of software products - all falling under the umbrella designation
of Active Safety - to protect not only personnel in the unlikely event of an accident, but
also robot tools, peripheral equipment and the robot itself.
The robot is equipped with the operating system BaseWare OS. BaseWare OS controls
every aspect of the robot, like motion control, development and execution of
application programs, communication etc. See Product Specification S4Cplus.
For additional functionality, the robot can be equipped with optional software for
application support - for example spot welding, communication features - network
communication - and advanced functions such as multi-tasking, sensor control, etc.
For a complete description on optional software, see the Product Specification
RobotWare Options.
Axis 3
Axis 4 Axis 5
Axis 6
Axis 2
Axis 1
Figure 1 The IRB 6600 manipulators have 6 axes.
Product Specification IRB 6600 M2000
3
Description
Different robot versions
The IRB 6600 is available in five versions. The following different robot types are
available:
Standard:
IRB 6600 - 175 kg / 2.55 m
IRB 6600 - 225 kg / 2.55 m
IRB 6600 - 175 kg / 2.8 m
IRB 6650 - 125 kg / 3.2 m
IRB 6650 - 200 kg / 2.75 m
Definition of version designation
IRB 6600 Mounting - Handling capacity / Reach
Prefix
Description
Mounting
-
Floor-mounted manipulator
Handling capacity
yyy
Indicates the maximum handling capacity (kg)
Reach
x.x
Indicates the maximum reach at wrist centre (m)
Manipulator weight
IRB 6600-175/2,55
IRB 6600-225/2,55
IRB 6600-175/2,8
IRB 6650-125/3.2
IRB 6650-200/2.75
Airborne noise level:
The sound pressure level outside
the working space
1700 kg
1700 kg
1700 kg
1725 kg
1700 kg
< 73 dB (A) Leq (acc. to
Machinery directive 98/37/EEC)
Power consumption at max load:
ISO Cube: 2.6 kW
Normal robot movements: 3.8 kW
4
Product Specification IRB 6600 M2000
Description
1142 IRB 6600-2,55 ; IRB 6650-2.75
1392 IRB 6600-2,8
1592 IRB 6650-3.2
IRB 6600
2445 IRB 6650
2240 IRB 6600
1280 IRB 6650
6600-400/2.55
R 580
R 690 with fork lift
Figure 2 View of the manipulator from the side and above (dimensions in mm).
Allow 200 mm behind the manipulator foot for cables.
Product Specification IRB 6600 M2000
5
Description
1.2 Safety/Standards
The robot conforms to the following standards:
EN 292-1
Safety of machinery, terminology
EN 292-2
Safety of machinery, technical specifications
EN 954-1
Safety of machinery, safety related parts of control
systems
EN 60204
Electrical equipment of industrial machines
IEC 204-1
Electrical equipment of industrial machines
ISO 10218, EN 775
Manipulating industrial robots, safety
ANSI/RIA 15.06/1999
Industrial robots, safety requirements
ISO 9787
Manipulating industrial robots, coordinate systems
and motions
IEC 529
Degrees of protection provided by enclosures
EN 50081-2
EMC, Generic emission
EN 61000-6-2
EMC, Generic immunity
ANSI/UL 1740-1996 (option) Standard for Industrial Robots and Robotic
Equipment
CAN/CSA Z 434-94 (option) Industrial Robots and Robot Systems - General
Safety Requirements
The robot complies fully with the health and safety standards specified in the EEC’s
Machinery Directives.
The Service Information System (SIS)
The service information system gathers information about the robot’s usage and by that
determines how hard the robot has been used. The usage is characterised by the speed,
the rotation angles and the load of every axis.
With this data collection, the service interval of every individual robot of this generation
can be predicted, optimising and planning ahead service activities. The collection data is
available via the teach pendant or the network link to the robot.
The Process Robot Generation is designed with absolute safety in mind. It is dedicated
to actively or passively avoid collisions and offers the highest level of safety to the
operators and the machines as well as the surrounding and attached equipment. These
features are presented in the active and passive safety system.
The Active Safety System
The active safety system includes those software features that maintain the accuracy of
the robot’s path and those that actively avoid collisions which can occur if the robot
leaves the programmed path accidentally or if an obstacle is put into the robot’s path.
The Active Brake System (ABS)
All robots run with an active brake system that supports the robots to maintain the
programmed path even in an emergency situation.
6
Product Specification IRB 6600 M2000
Description
The ABS is active during all stop modes, braking the robot to a stop with the power of
the servo drive system along the programmed path. After a specific time the mechanical
brakes are activated ensuring a safe stop even in case of a failure of the drive system or
a power interruption.
The maximal applicable torque on the most loaded axis determines the stopping
distance.
The stopping process is in accordance with a class 1 stop.
While programming the robot in manual mode a class 0 stop, with mechanical brakes
only, applies.
The Self Tuning Performance (STP)
The Process Robot Generation is designed to run at different load configurations, many
of which occur within the same program and cycle.
The robot’s installed electrical power can thus be exploited to lift heavy loads, create a
high axis force or accelerate quickly without changing the configuration of the robot.
Consequently the robot can run in a “power mode” or a “speed mode” which can be
measured in the respective cycle time of one and the same program but with different
tool loads. This feature is based on QuickMoveTM.
The respective change in cycle time can be measured by running the robot in NoMotionExecution with different loads or with simulation tools like RobotStudio.
The Electronically Stabilised Path (ESP)
The load and inertia of the tool have a significant effect on the path performance of a
robot. The Process Robot Generation is equipped with a system to electronically
stabilise the robot’s path in order to achieve the best path performance.
This has an influence while accelerating and braking and consequently stabilises the
path during all motion operations with a compromise of the best cycle time. This feature
is secured through TrueMoveTM.
Over-speed protection
The speed of the robot is monitored by two independent computers.
Restricting the working space
The movement of each axis can be restricted using software limits.
As options there are safeguarded space stops for connection of position switches to
restrict the working space for the axes 1-3.
Axes 1-3 can also be restricted by means of mechanical stops.
Collision detection (option)
In case an unexpected mechanical disturbance occurs, like a collision, electrode sticking, etc., the robot will detect the collision, stop on the path and slightly back off from
its stop position, releasing tension in the tool.
The Passive Safety System
The Process Robot Generation has a dedicated passive safety system that by hardware
construction and dedicated solutions is designed to avoid collisions with surrounding
equipment. It integrates the robot system into the surrounding equipment safely.
Compact robot arm design
The shape of the lower and upper arm system is compact, avoiding interference into the
working envelope of the robot.
Product Specification IRB 6600 M2000
7
Description
The lower arm is shaped inward, giving more space under the upper arm to re-orientate
large parts and leaving more working space while reaching over equipment in front of
the robot.
The rear side of the upper arm is compact, with no components projecting over the edge
of the robot base even when the robot is moved into the home position.
Moveable mechanical limitation of main axes (option)
All main axes can be equipped with moveable mechanical stops, limiting the working
range of every axis individually. The mechanical stops are designed to withstand a
collision even under full load.
Position switches on main axes (option)
All main axes can be equipped with position switches. The double circuitry to the cam
switches is designed to offer personal safety according to the respective standards.
The Internal Safety Concept
The internal safety concept of the Process Robot Generation is based on a two-channel
circuit that is monitored continuously. If any component fails, the electrical power
supplied to the motors shuts off and the brakes engage.
Safety category 3
Malfunction of a single component, such as a sticking relay, will be detected at the next
MOTOR OFF/MOTOR ON operation. MOTOR ON is then prevented and the faulty
section is indicated. This complies with category 3 of EN 954-1, Safety of machinery safety related parts of control systems - Part 1.
Selecting the operating mode
The robot can be operated either manually or automatically. In manual mode, the robot
can only be operated via the teach pendant, i.e. not by any external equipment.
Reduced speed
In manual mode, the speed is limited to a maximum of 250 mm/s (600 inch/min.).
The speed limitation applies not only to the TCP (Tool Centre Point), but to all parts of
the robot. It is also possible to monitor the speed of equipment mounted on the robot.
Three position enabling device
The enabling device on the teach pendant must be used to move the robot when in
manual mode. The enabling device consists of a switch with three positions, meaning
that all robot movements stop when either the enabling device is pushed fully in, or when
it is released completely. This makes the robot safer to operate.
Safe manual movement
The robot is moved using a joystick instead of the operator having to look at the teach
pendant to find the right key.
Emergency stop
There is one emergency stop push button on the controller and another on the teach
pendant. Additional emergency stop buttons can be connected to the robot’s safety chain
circuit.
Safeguarded space stop
The robot has a number of electrical inputs which can be used to connect external safety
equipment, such as safety gates and light curtains. This allows the robot’s safety
functions to be activated both by peripheral equipment and by the robot itself.
8
Product Specification IRB 6600 M2000
Description
Delayed safeguarded space stop
A delayed stop gives a smooth stop. The robot stops in the same way as at a normal
program stop with no deviation from the programmed path. After approx. 1 second the
power supplied to the motors is shut off.
Hold-to-run control
“Hold-to-run” means that you must depress the start button in order to move the robot. When
the button is released the robot will stop. The hold-to-run function makes program testing
safer.
Fire safety
Both the manipulator and control system comply with UL’s (Underwriters Laboratory)
tough requirements for fire safety.
Safety lamp (option)
As an option, the robot can be equipped with a safety lamp mounted on the manipulator. This is activated when the motors are in the MOTORS ON state.
Product Specification IRB 6600 M2000
9
Description
1.3 Installation
All versions of IRB 6600 are designed for floor mounting. Depending on the robot
version, an end effector with max. weight of 175 to 225 kg including payload, can be
mounted on the mounting flange (axis 6). See Load diagram for IRB 6600 generation
robots on page 14, page 16, page 18, page 20 and page 22.
Extra loads (valve packages, transformers) can be mounted on the upper arm with a
maximum weight of 50 kg. On all versions an extra load of 500 kg can also be mounted
on the frame of axis 1. Holes for mounting extra equipment on page 26.
The working range of axes 1-3 can be limited by mechanical stops. Position switches
can be supplied on axes 1-3 for position indication of the manipulator.
External Mains Transformer
The robot system requires a 400 - 475 VAC power supply. Therefore an external
transformer will be included when a mains voltage other than 400-475V is selected.
Operating requirements
Protection standards
Standard and Foundry Manipulator
IP67
Cleanroom standards
Cleanroom class 100 for manipulator according to:
• DIN EN ISO 14644: Cleanrooms and associated controlled environments
• US Federal Standard 209 e - Air-clean-classes
Explosive environments
The robot must not be located or operated in an explosive environment.
Ambient temperature
Manipulator during operation
For the controller: standard
option
+5oC (41oF) to +50oC (122oF)
+45oC (113oF)
+52oC (126oF)
Complete robot during transportation and storage, -25oC (13oF) to +55oC (131oF)
for short periods (not exceeding 24 hours)
up to +70oC (158oF)
Relative humidity
Complete robot during transportation and storage Max. 95% at constant temperature
Complete robot during operation
Max. 95% at constant temperature
Mounting the manipulator
Maximum load in relation to the base coordinate system.
10
Endurance load
in operation
Max. load at
emergency stop
Force xy
Force z
±10.1 kN
18.0 ±13.8 kN
±20.7 kN
18.0 ±22.4 kN
Torque xy
Torque z
±27.6 kNm
±7.4 kNm
±50.6 kNm
±14.4 kNm
Product Specification IRB 6600 M2000
88 ± 0.3
Description
Recommended screws for fastening
the manipulator to a base plate: M24 x 120 8.8 with 4 mm flat washer
Torque value 775 Nm
Figure 3 Hole configuration (dimensions in mm).
Product Specification IRB 6600 M2000
11
Description
B
5
325
D
B
37,5 o
A
C
15
o
A
C
o
10
50
522
1
A
0.1
A
A-A
1.5
B-B
C-C
D
Two guiding pins required, dimensions see Figure 5
Figure 4 Option Base plate (dimensions in mm).
12
Product Specification IRB 6600 M2000
Description
Protected from corrosion
Figure 5 Guide sleeve (dimensions in mm)
1.4 Load diagrams
The load diagrams include a nominal payload inertia, J0 of 15 kgm2, and an extra load of 50 kg
at the upper arm housing, see Figure 6.
At different arm load, payload and moment of inertia, the load diagram will be changed.
For an accurate load diagram, please use the calculation program, ABBLoad for 6600 on:
• inside.abb.com/atrm, click on Products --> Robots --> IRB 6600
or
• http://www.abb.com/roboticspartner, click on Product range --> Robots --> IRB 6600.
Centre of gravity 50 kg
400
200
Figure 6 Centre of gravity for 50 kg extra load at arm housing (dimensions i mm).
Product Specification IRB 6600 M2000
13
Description
Load diagram for IRB 6600-175/2.55
0,80
80 kg
0,70
100 kg
0,60
120 kg
Z-distance (m)
0,50
135 kg
0,40
150 kg
175 kg
0,30
180 kg
185 kg
0,20
200 mm
0,10
0,00
0,00
0,10
0,10
0,20
0,30
0,40
0,50
L-distance (m )
Figure 7 Maximum permitted load mounted on the robot tool flange at different positions
(centre of gravity).
14
Product Specification IRB 6600 M2000
Description
Load diagram for IRB 6600-175/2.55 “Vertical Wrist” (±10o)
L
“Vertical wrist”
Load diagram "Vertical Wrist" (±10°)
10o 10o
IRB 6600 - 175/2.55 Armload: 50kg
Z
200 mm
L-distance (m)
0,0
0,2
0,20
0,4
0,40
0,6
0,60
Pay
load
0,8
0,80
1,0
1,00
1,2
1,20
1,4
1,40
0,0
0,2
0,20
210 kg
190 kg
0,40
0,4
Z-distance (m)
150 kg
0,60
0,6
100 kg
0,80
0,8
75 kg
1,00
1,0
1,20
1,2
1,40
1,4
Figure 8 Maximum permitted load mounted on the robot tool flange at different positions
(centre of gravity) at “Vertical Wrist” (±10o), J0 =15 kgm2.
For wrist down (0o deviation from the vertical line).
Max load = 215 kg, Zmax = 0,310m and Lmax = 0,133m
Product Specification IRB 6600 M2000
15
Description
Load diagram for IRB 6600-225/2.55
0,90
100 kg
0,80
0,70
120 kg
0,60
Z-distance (m)
150 kg
0,50
175 kg
200 kg
0,40
215 kg
220 kg
0,30
225 kg
230 kg
0,20
200 mm
0,10
0,00
0,00
0,10
0,10
0,20
0,20
0,30
0,40
0,50
0,60
L-distance (m)
Figure 9 Maximum permitted load mounted on the robot tool flange at different positions
(centre of gravity).
16
Product Specification IRB 6600 M2000
Description
Load diagram for IRB 6600-225/2.55 “Vertical Wrist” (±10o)
L
“Vertical wrist”
Load diagram "Vertical Wrist" (±10°)
Pay
load
10o 10o
IRB 6600 - 225/2.55 Armload: 50kg
200 mm
Z
L-distance (m)
0,00
0,20
0,40
0,60
0,80
1,00
1,20
1,40
0,00
0,20
260 kg
235 kg
0,40
200 kg
Z-distance (m)
0,60
150 kg
0,80
100 kg
1,00
1,20
1,40
1,60
Figure 10 Maximum permitted load mounted on the robot tool flange at different positions (centre of
gravity) at “Vertical Wrist” (±10o).
For wrist down (0o deviation from the vertical line).
Max load = 270 kg, Zmax = 0,359m and Lmax = 0,124m
Product Specification IRB 6600 M2000
17
Description
Load diagram for IRB 6600-175/2.8
1,10
1,00
80 kg
0,90
100 kg
0,80
Z-distance (m)
0,70
120 kg
0,60
150 kg
0,50
170 kg
0,40
175 kg
0,30
180 kg
185 kg
0,20
200 mm
0,10
0,00
0,00
0,10
0,10
0,20
0,20
0,30
0,40
0,50
0,60
0,70
L-distance (m )
Figure 11 Maximum permitted load mounted on the robot tool flange at different positions
(centre of gravity)..
18
Product Specification IRB 6600 M2000
Description
Load diagram for IRB 6600-175/2.8 “Vertical Wrist” (±10o)
L
“Vertical wrist”
Pay
load
200 mm
10o 10o
L-distance (m )
0,00
0,20
0,40
0,60
0,80
1,00
1,20
1,40
Z
0,00
0,20
210 kg
190 kg
0,40
Z-distance (m)
170 kg
125 kg
0,60
100 kg
0,80
1,00
1,20
Figure 12 Maximum permitted load mounted on the robot tool flange at different positions (centre of
gravity) at “Vertical Wrist” (±10o).
For wrist down (0o deviation from the vertical line)
Max load = 215 kg, Zmax = 0,382m and Lmax = 0,116m
Product Specification IRB 6600 M2000
19
Description
Load diagram for IRB 6650-125/3.2
1,10
1,00
80 kg
0,90
90 kg
0,80
100 kg
0,70
Z-distance (m)
110 kg
0,60
115 kg
0,50
120 kg
0,40
125 kg
0,30
130 kg
0,20
200 mm
0,10
0,00
0,00
0,10
0,20
0,20
0,30
0,40
0,50
0,60
0,70
L-distance (m)
Figure 13 Maximum permitted load mounted on the robot tool flange at different positions
(centre of gravity)..
20
Product Specification IRB 6600 M2000
Description
Load diagram for IRB 6650-125/3.2 “Vertical Wrist” (±10o)
L
“Vertical wrist”
Load diagram "Vertical Wrist" (±10°)
Pay
load
10o 10o
IRB 6650 - 125/3.20 Armload: 50kg
200 mm
L-distance (m)
Z
0,0
0,2
0,20
0,4
0,40
0,6
0,60
0,8
0,80
1,0
1,00
1,2
1,20
1,4
1,40
1,6
1,60
0,0
150 kg
0,20
0,2
135 kg
0,40
0,4
120 kg
Z-distance (m)
110 kg
0,6
0,60
100 kg
0,8
0,80
1,0
1,00
1,2
1,20
1,40
1,4
1,60
1,6
Figure 14 Maximum permitted load mounted on the robot tool flange at different positions (centre of
gravity) at “Vertical Wrist” (±10o).
For wrist down (0o deviation from the vertical line)
Max load = 150 kg, Zmax = 0,462m and Lmax = 0,156m
Product Specification IRB 6600 M2000
21
Description
Load diagram for IRB 6650-200/2.75
0,90
0,80
100 kg
0,70
120 kg
135 kg
0,60
Z-distance (m)
150 kg
0,50
175 kg
195 kg
0,40
200 kg
0,30
205 kg
210 kg
0,20
200 mm
0,10
0,00
0,00
0,10
0,10
0,20
0,30
0,40
0,50
0,60
L-distance (m)
Figure 15 Maximum permitted load mounted on the robot tool flange at different positions
(centre of gravity).
22
Product Specification IRB 6600 M2000
Description
Load diagram for IRB 6650-200/2.75 “Vertical Wrist” (±10o)
L
“Vertical wrist”
Pay
load
10o 10o
Load diagram "Vertical Wrist" (±10°)
IRB 6650 - 200/2.75 Armload: 50kg
Z
200 mm
L-distance (m)
0,0
0,2
0,20
0,4
0,40
0,6
0,60
0,8
0,80
1,0
1,00
1,2
1,20
1,4
1,40
0,0
235 kg
0,20
0,2
210 kg
Z-distance (m)
0,4
0,40
175 kg
0,60
0,6
125 kg
0,80
0,8
100 kg
1,0
1,00
1,2
1,20
1,4
1,40
Figure 16 Maximum permitted load mounted on the robot tool flange at different positions (centre of
gravity) at “Vertical Wrist” (±10o).
For wrist down (0o deviation from the vertical line)
Max load = 245 kg, Zmax = 0,345m and Lmax = 0,098m
Product Specification IRB 6600 M2000
23
Description
Maximum load and moment of inertia for full and limited axis 5 (centre line down)
movement.
Note. Load in kg, Z and L in m and J in kgm2
Full movement of axis 5 (±120o):
Axis 5
Maximum moment of inertia:
Ja5 = Load • ((Z + 0,200)2 + L2) + J0L ≤ 250 kgm2 for: -225/2.55, -175/2.8, -125/3.2 and
-200/2.75
≤ 195 kgm2 for: -175/2.55
Axis 6
Maximum moment of inertia:
Ja6 = Load • L2 + J0Z
≤ 185 kgm2 for: -225/2.55, -175/2.8, -125/3.2 and
-200/2.75
≤ 145 kgm2 for: -175/2.55
Z
X
Centre of gravity
J0L = Maximum own moment of inertia
around the maximum vector in the X-Y-plane
J0Z = Maximum own moment of inertia around Z
Figure 17 Moment of inertia when full movement of axis 5.
Limited axis 5, centre line down:
Axis 5
Maximum moment of inertia:
Ja5 = Load • ((Z + 0,200)2 + L2) + J0L ≤ 275kgm2 for: -225/2.55, -175/2.8, -125/3.2 and
-200/2.75
≤ 215 kgm2 for: -175/2.55
Axis 6
Maximum moment of inertia:
Ja6 = Load • L2 + J0Z
≤ 250 kgm2 for: -225/2.55, -175/2.8, -125/3.2 and
-200/2.75
≤ 195 kgm2 for: -175/2.55
Centre of gravity
J0L = Maximum own moment of inertia
around the maximum vector in the X-Y-plane
J0Z = Maximum own moment of inertia around Z
X
Z
Figure 18 Moment of inertia when axis 5 centre line down.
24
Product Specification IRB 6600 M2000
Description
Mounting equipment
Extra loads can be mounted on the upper arm housing, the lower arm, and on the frame.
Definitions of distances and masses are shown in Figure 19 and Figure 20.
The robot is supplied with holes for mounting extra equipment (see Figure 21).
Maximum permitted arm load depends on centre of gravity of arm load and robot
payload.
Upper arm
Permitted extra load on upper arm housing plus the maximum handling
weight (See Figure 19):
M1 ≤50 kg with distance a ≤500 mm, centre of gravity in axis 3 extension.
/
a
M1
Mass
centre
M1
Figure 19 Permitted extra load on upper arm.
Frame (Hip Load)
Permitted extra load on frame is JH = 200 kgm2
Recommended position (see Figure 20).
JH = JH0 + M4 • R2
where
JH0
R
M4
is the moment of inertia of the equipment
is the radius (m) from the centre of axis 1
is the total mass (kg) of the equipment including
bracket and harness (≤500 kg)
527
457
R
790
1195
View from above
View from the rear
Figure 20 Extra load on the frame of IRB 6600 (dimensions in mm).
Product Specification IRB 6600 M2000
25
Description
Mounting of hip load
The extra load can be mounted on the frame. Holes for mounting see Figure 21 and
Figure 22. When mounting on the frame all the four holes (2x2, ∅16) on one side must
be used.
520 IRB 6600
725 IRB 6650
400 IRB 6600
500 IRB 6650
Holes for mounting extra equipment
Figure 21 Holes for mounting extra equipment on the upper and the lower arm, and the frame
(dimensions in mm).
26
Product Specification IRB 6600 M2000
Description
Figure 22 Holes for mounting of extra load on the upper arm (dimensions in mm).
Product Specification IRB 6600 M2000
27
Description
IRB 6600-175/2.55
1,6
0,04 A
12 H7 Depth 15
A
15
A
2
)
o (12x
30
R
B
B
A
A-A
0,02 CD
99
100 H7 Depth 8 min
160
0,02 A
B-B
M12 ( 11x )
0,2 A B
Figure 23 Robot tool flange (dimensions in mm).
28
Product Specification IRB 6600 M2000
Description
IRB 6600-225/2.55
IRB 6600-175/2.8
IRB 6650-125/3.2
IRB 6650-125/3.2
1
2
0,04 A
1,6
A
12 H7 Depth 15
15
A
1,6
B
B
B
A
0,02 C D
A-A
0,02 A
100 H7 Depth 8 min
M12 ( 11x )
0,2 A B
160
B-B
Figure 24 Robot tool flange (dimensions in mm).
Product Specification IRB 6600 M2000
29
Description
1.5 Maintenance and Troubleshooting
The robot requires only a minimum of maintenance during operation. It has been
designed to make it as easy to service as possible:
- Maintenance-free AC motors are used.
- Oil is used for the gear boxes.
- The cabling is routed for longevity, and in the unlikely event of a failure, its
modular design makes it easy to change.
The following maintenance is required:
- Changing filter for the transformer/drive unit cooling every year.
- Changing batteries every third year.
The maintenance intervals depend on the use of the robot. For detailed information on
maintenance procedures, see Maintenance section in the Product Manual.
30
Product Specification IRB 6600 M2000
Description
1.6 Robot Motion
Type of motion
Range of movement
Axis 1
Axis 2
Axis 3
Axis 4
Axis 5
Axis 6
+180o
+85o
+70o
+300o
+120o
+300o
Rotation motion
Arm motion
Arm motion
Wrist motion
Bend motion
Turn motion
to -180o
to -65o
to -180o
to -300o
to -120o
to -300o
IRB 6600-175/2.55
IRB 6600-225/2.55
Figure 25 The extreme positions of the robot arm specified at the wrist centre (dimensions in mm).
Product Specification IRB 6600 M2000
31
Description
IRB 6600-175/2.8
Figure 26 The extreme positions of the robot arm specified at the wrist centre (dimensions in mm).
32
Product Specification IRB 6600 M2000
Description
IRB 6650-125/3.2
Figure 27 The extreme positions of the robot arm specified at the wrist centre (dimensions in mm).
IRB 6650-200/2.75
Figure 28 The extreme positions of the robot arm specified at the wrist centre (dimensions in mm).
Product Specification IRB 6600 M2000
33
Description
Performance according to ISO 9283
At rated maximum load, maximum offset and 1.6 m/s velocity (for IRB 6600-225/2.55,
1.0 m/s velocity) on the inclined ISO test plane, 1 m cube with all six axes in motion.
Data for IRB 6650 not yet available.
IRB 6600
-175/2.55
Pose accuracy, AP
0.09 mm
Pose repeatability, RP
0.18 mm
Path repeatability, RT
1.05 mm
Pose stabilization time, Pst 0.03 s
-225/2.55
0.11 mm
0.18 mm
0.36 mm
0.55 s*
-175/2.8
0.13 mm
0.20 mm
0.32 mm
0.21 s
* Too close limit
Velocity
Maximum axis speeds.
Axis no.
1
2
3
4
5
6
IRB 6600-175/2.55
IRB 6600-225/2.55
IRB 6600-175/2.8
IRB 6650-200/2.75
IRB 6650-125/3.2
100°/s
90°/s
90°/s
150°/s
120°/s
190°/s
110°/s
90°/s
90°/s
150°/s
120°/s
235°/s
1.7 Cooling fan for axis 1-3 motor (option 113-115)
A motor of the robot needs a fan to avoid overheating if the avarage speed over time
exceeds the value given in Table 1. The maximum allowed avarage speed is depending
on the load.
The average speed can be calculated with the following formula:
Average speed =
Total axis movement, number of degrees, in one cycle
360 x cycle time (minutes) incl. waiting time
The maximum allowed average speed for axis 1-3 at the maximum ambient
temperature of 50oC according to Table 1. IP 54 for cooling fan.
Table 1
Variant
34
Maximum
average speed
axis 1 (rpm)
Maximum
average speed
axis 2 (rpm)
Maximum
average speed
axis 3 (rpm)
IRB 6600-175/2.55
8.1 - 10.5
2.4 - 2.6
4.7 - 6.1
IRB 6600-225/2.55
7.8 - 10.1
2.1 - 2.3
3.1 - 4.0
IRB 6600-175/2.8
7.8 - 10.1
2.1 - 2.3
3.1 - 4.0
IRB 6650-125/3.2
4.9 - 6.3
2.1 - 2.3
3.1 - 4.0
IRB 6650-200/2.75
7.8 - 10.1
2.1 - 2.3
3.1 - 4.0
Product Specification IRB 6600 M2000
Description
1.8 SpotPack and DressPack
The different robot types can be equipped with the option SpotPack for IRB6600/6650.
The SpotPack IRB6600/6650 is designed for spot welding and handling applications.
The function package supplies the transformer gun or the robot gripper with necessary
media, such as compressed air, cooling water and electrical power.
SpotPack IRB6600/6650 can be delivered in three standard versions developed for
three different applications:
• SpotPack IRB6600/6650 Type S is designed for transformer guns carried by the
robot manipulator.
• SpotPack IRB6600/6650 Type HS is designed for transformer guns mounted on a
pedestal.
• SpotPack IRB6600/6650 Type H is designed for material handling, using the same
DressPack as type HS.
SpotPack IRB 6600 / 6650
Robot carried Gun
Type S
Product Specification IRB 6600 M2000
Pedestal Gun
Type HS
Material Handling
Type H
35
Description
The SpotPack for IRB6600/6650 is modular based and contains the main modules
shown in the schematic picture below. Option description specifies different module
combinations.
Robot
gun/gripper
Upper arm
harness
Lower arm
harness
Power
unit
Water and
air unit
Control
Cabinet
Pedestal
gun
Floor
harness
Figure 29 SpotPack IRB6600/6650 main modules.
The modules Upper arm harness, Lower arm harness and Floor harness are in
different combinations described as DressPack. The DressPack for upper and lower
arm harness contains signals, process media (water and air) and power feeding (for
Spotwelding power) for customer use. The floor harness for DressPack contains
customer signals.
To form a complete SpotPack also a Water and Air unit with hoses, Power unit with
power cable and signal cables between these units are required.
36
Product Specification IRB 6600 M2000
Description
Description of DressPack
The DressPack contains the maximum wire and media capacity as described below.
The number of signals that are available in each case depends on the choice of different
option combinations (see option description). The interface connectors for the signals
are also specified under each option description.
Material handling application
The cables and hose which are used to form the DressPack for the Material Handling
application has the following specification and capacity:
Table 2
Type
Pcs
Area
Allowed capacity
Customer Power (CP)
Utility Power
Protective Earth
2+2
1
0,5 mm2
1,0 mm2
500 VAC, 5 A rms
500 VAC
19
4
0,23 mm2
0,23 mm2
50 VAC/DC, 1 A rms
50 VAC/DC, 1 A rms
Customer Bus (CBus)
Bus signals
Bus signals
Bus signals
Bus utility signals
2
2
4
4
0,18 mm2
0,18 mm2
0,18 mm2
0,23 mm2
Profibus 12 Mbit/s spec*
Can/DeviceNet spec*
Interbus spec*
50 VAC/DC, 1 A rms
Media
Air (PROC 1)
1
12,5 mm
inner
diameter
Max. pressure 16 bar / 230
PSI
Customer Signals (CS)
Signals twisted pair
Signals twisted pair and
separate shielded
*
Quad twisted under separate screen. Can also be used for very sinsitive signals
Product Specification IRB 6600 M2000
37
Description
Spot Welding application
The cables and hoses used for the DressPack for the Spot Welding application has the
following specification and capacity:
Table 3
Type
Pcs
Area
Allowed capacity
Customer Power (CP)
Servo motor power
Utility Power
Protective Earth
3
2+2
1
1,5 mm2
0,5 mm2
1,5 mm2
600 VAC, 12 A rms
500 VAC, 5 A rms
500 VAC
19*
4
0,23 mm2
0,23 mm2
50 VAC/DC, 1 A rms
50 VAC/DC, 1 A rms
2
2
4
4
0,18 mm2
0,18 mm2
0,18 mm2
0,23 mm2
Profibus 12 Mbit/s spec**
Can/DeviceNet spec**
Interbus spec**
50 VAC/DC, 1 A rms
2
1
35mm2
35mm2
600 VAC***
2
1
25mm2
25mm2
600 VAC****
3-4
12,5 mm
inner
diameter
Max. air pressure 16 bar /
230 PSI. Max water
pressure 10 bar / 145 PSI
Customer Signals (CS)
Signals twisted pair
Signals twisted pair and
separate shielded
Customer Bus (CBus)
Bus signals
Bus signals
Bus signals
Bus utility signals
Welding power (WELD)
Lower arm harness
Lower arm harness
protective earth
Upper arm harness
Upper arm harness
protective earth
Media
Water/Air (PROC 3-4)
*
If servo gun application (S or HS) is used some signals will be occupied for motor
control.
** Quad twisted under separate screen. Can also be used for very sensitive signals.
*** 150 A rms at + 20°C (68F) ambient temp, 120 A rms at + 50°C (122F) ambient
temp
**** 135 A rms at + 20°C (68F) ambient temp, 100 A rms at + 50°C (122F) ambient
temp
38
Product Specification IRB 6600 M2000
Description
Description of Water and Air unit
The Water and Air unit contains components for water and air distribution and control
within the SpotPack. The water and air unit is via the process software controlled from
the robot controller. Wiring is made via the power unit.
The capacity and functionality depends on the choice of different option combinations,
see option description.
The unit is mounted at the manipulator base. Control cables to the unit has quick
connectors in both ends and has the same cable length as the one specified for the robot
control cable. The unit is only used for the spot welding applications.
Table 4
Type
Pcs
Specification
Connections for media
Incoming water
Outgoing water
Incoming air
Extra air outlet
1
1
1
1
Parker PushLock fitting, M22 (conical angle 24°)*
Parker PushLock fitting, M22 (conical angle 24°)*
Parker PushLock fitting, M22 (conical angle 24°)*
1/2" connection. **
*
Max air pressure 16 bar / 230 PSI, max water pressure 10 bar / 145 PSI. (Parker
Pushlock reference 3C382-15-8BK, brass version)
** Plugged at delivery (to be used for tip-dresser or other equipment). (Fitting 1/2"
BSP 1,5).
Signals for water and air unit:
Electrical connections to robot I/O board are made via the splitbox on the water and air
unit. Total 6 x M12 connections (4 pins) are available. The number in use depends on
option choices but minimum 2 are in use within the SpotPack. Free connections can be
used for customer purpose like tip-dresser control (Max 0,5 amp, 24 DC Volt).
Product Specification IRB 6600 M2000
39
Description
Description of Power Unit
The Power unit contains components for power distribution and control within the
SpotPack. The power unit with the welding controller built in, is controlled from the
robot controller via the process software.. Wiring is made between robot controller
(I/O-board and internal cabling in the DressPack) and the power unit.
The capacity and functionality depends by the choice of different option combinations.
All cables are connected on the left hand side of the power unit.
The unit is placed on top of the robot controller. The unit is only used for the spot
welding applications. Two basic versions are available, Type S for Spotwelding with
robot handled gun and Type HS for Spotwelding with pedestal gun.
Table 5
Type
Pcs
Area
Allowed capacity
Connections for power
unit
Incoming power from line
1
__ VAC, __A 50/60 Hz
Outgoing power to robot
1
Floor cable
Floor cable protective earth
2
1
Cable gland min __ mm/max
__ mm cable*
Cable gland min __ mm/max
__ mm cable*
35mm2
35mm2
Signals
Water and Air unit
Pedestal gun
1
1
Modular Harting connector*** 50 VAC/DC, 1 A rms
Modular Harting connector*** 50 VAC/DC, 1 A rms
*
__ VAC, __A 50/60 Hz
600 VAC**
600 VAC
Incoming power connection made by customer. For incoming power
recommendations see Installation and Maintenance manual.
** 150 A rms at + 20°C (68F) ambient temp and 120 A rms at + 50°C (122F) ambient
temp
*** The connector type at the power unit is Han compact, HD insert..
Protection class for the power unit is IP54.
40
Product Specification IRB 6600 M2000
Description
1.9 Description of Variants and Options for SpotPack
The following specification describes all main parts with main data for the SpotPack
and Dresspack IRB 6600/6650.
Required options for SpotPack IRB 6600/6650 different types
To enable the spot welding function package SpotPack IRB 6600/6650 to perform as
intended, general standard robot options for the three different types are required.
These standard options are described under other chapters but are also mentioned in
this chapter.
SpotPack Type S standard requires the following general robot options:
Option 122
Option 201
Option 251
Option 206
Option 553
No upper cover on robot control cabinet
1pc. Digital 24 VDC I/O 16 inputs/ 16 outputs.
Internal connection of I/O
Internal connection of safety signals
SpotWare (software option for pneumatic guns)
SpotPack Type HS standard requires following general robot options:
Option 122
Option 201
Option 251
Option 206
Option 553
No upper cover on robot control cabinet
1pc. Digital 24 VDC I/O 16 inputs/ 16 outputs.
Internal connection of I/O
Internal connection of safety signals
SpotWare (software option for pneumatic guns)
SpotPack Type H standard requires no general robot options.
1.9.1 Required options for SpotPack IRB 6600/6650 different types with servo gun
To enable the spot welding function package SpotPack IRB 6600/6650 to run with a
servo controlled gun, some additional (additional to those described in chapter 2.1)
servo drive options for the two different types are required. These standard options are
described under other chapters but are also mentioned below in this chapter.
SpotPack Type S with servo requires the following additional options:
Option 381
Option 702
Option 681-684
Option 625
Drive unit type DDU-U
Robot Gun.
Connection of servo gun (7-30 m)
SpotWare Servo (software option for servo guns)
(replaces option 553).
Also option 631, Servo tool change, should be added if servo gun
tool change is required.
(The option 561, Servo Tool Control, could be an alternative to 625
if the application software is designed by the customer. Option 561
is not used in the SpotPack as this is intended to be a ready to use
package).
Product Specification IRB 6600 M2000
41
Description
SpotPack Type HS with servo requires the following additional options:
Option 381
Option 702
Option 686-689
Option 625
42
Drive unit type DDU-U
Stationary Gun.
Connection of servo gun (7 - 30 m)
SpotWare Servo (software option for servo guns)
replaces option 553).
(The option 561, Servo Tool Control, could be an alternative to 625
if the application software is designed by the customer. Option 561 is
not used in the SpotPack as this is intended to be a ready to use
package).
Product Specification IRB 6600 M2000
Description
1.9.2 DressPack options
Dress Pack options includes options for Upper arm harness, Lower arm harness and
Floor harness. These are described separated below but are designed and meant to be
seen as a complete package for either Material handling or Spot welding application.
The Upper Arm Harness consists of a process cable package and supports, clamps,
brackets and a retractor arm. The process cable package contains special designed
cables and hoses that have been long term tested. The cables and hoses are partly
placed in a protective hose to extend the lifetime.
The Upper Arm Harness is designed to follow the robot arm movements and minimise
damages to the harness or the robot manipulator. The interface to the lower arm harness
is located well protected below the motor for axis 3.
The complete harness is tested and proven to be well suited for both spot welding
applications and other applications with the same type of movements and very high
requirements. The cable and hose package has a 1000-mm free length at axis 6 for
connection to a spot welding gun or a gripper. A tension arm unit keeps hose package
in the right position for the robot arm movement approved for the SpotPack. An arm
protection will prevent wear on the protective hose and on the robot itself. Please note
that when the robot is operating, some multiply axis movement might end up with an
overstraining of the hose package. These movements must be avoided.
For more information see the Installation and Maintenance Manual.
Process Cable package
Harness support axis 6
Tension arm unit
Arm protection
Figure 30 Mechanical equipment upper arm harness.
Note. The upper arm harness specification is based on the sselection of lower arm
harness.
The Lower Arm Harness consists of a process cable package and supports, clamps
and brackets. The process cable package, containing special designed cables and hoses,
has been long term tested.
The process cable package is routed along the lower arm to minimise space required
and to give no limitation in the robot working envelope. The cables and hoses are partly
placed in a protective hose to extend the lifetime.
Product Specification IRB 6600 M2000
43
Description
The lower arm harness is connected to the upper arm harness at the connection point
under the axis 3 motor. The interface plate at the manipulator base is the place where
the floor harness and the process media are connected.
The Floor Harness consists of signal cables for customer signals. The floor harness is
connected to the lower arm harness at the interface plate at the manipulator base and to
the left side of the robot control cabinet. The signal connection inside the robot control
cabinet depends on chosen options. As example will servo gun option, bus option and
parallel option mean different connections.
Process cable package
For material handling and spot welding the DressPack can be chosen in different
configurations. The part of the DressPack changing between different options are
basically the process cable package and the brackets etc are the same. Initially general
configurations for the process cable package is specified. With this as a base, the details
of the application signals and media are added.
Option 056 Connection to manipulator
No floor cables for the DressPack are chosen. The connector at the base for interfacing
is specified in installation and maintenance manual. Terminal connections could be
found in the circuit diagrams.
Option 057 Connection to cabinet
Floor cables for the DressPack are chosen. Number of cables and cable type depends
on chosen options. The length of the process cable package at the floor is specified
under the options below:
- Option 675-678 for parallel communication
- Option 660-663 for bus communication with Can/DeviceNet
- Option 665-668 for bus communication with Profibus
- Option 670-673 for bus communication with Interbus
The connection inside the cabinet depends on communication type.
- If parallel communication is chosen, signals are found at terminals inside the
cabinet (XT5.1, XT5.2 and XT6)
- If bus communication is chosen, signals are routed both to valid bus card. The
remaining are found at terminals inside the cabinet (XT5.1, XT5.2 and XT6).
44
Product Specification IRB 6600 M2000
Description
Communication
Option 2063 Parallel communication
The process cable package has been chosen for parallel communication. The number
as well as the type of signals are defined under Material handling application (Option
2204,2205) and Spot welding application (Option 2200).
Option 2064 Bus communication
The process cable package has been chosen for bus communication. This alternative
includes both the signals for the bus communication as well as some parallel signals.
The number as well as the type of signals are defined under Material handling
application (Option 2204,2205) and also Spot welding application (Option 2200). This
option can not be combined with servo gun application. The type of bus are defined by
choice of floor cabling (see also option 057)
Option 2204 Material Handling axis 1 to axis 3
The Lower arm harness for the Material Handling has been chosen. This includes the
process cable package as well as brackets, connectors etc to form a complete dressing
package from manipulator base until connectors on axis 3. Depending on the choice
above the process cable package will have different content. See tables below.
For all process cable packages some of the content is common. These common parts
for Material Handling application are shown in Table 6 below. Unique parts for
different option combinations are shown in Table 7, Table 8, Table 9 and Table 10.
These tables are valid for option 2204 and 2205.
Table for Common content Material Handling (with option 2063/2064)
Table 6
Type
Pcs at
Connection point
Note
Allowed capacity
1
12,5 m inner
diameter
Max pressure 16 bar / 230 PSI
Media
Air (PROC 1)
Product Specification IRB 6600 M2000
45
Description
Table for Material Handling with option 2063 with or without Servo gun option
701
Table 7
Type
Customer Power (CP)
Utility Power
Protective earth
Customer Signals (CS)
Signals twisted pair
Signals twisted pair and
separate shielded
Pcs at
Terminal*
Pcs at Connection
point**
Allowed capacity
2+2
1
2+2
1
500 VAC, 5 A rms
500 VAC
19
4
19
4
50 VAC, 1 A rms
50 VAC, 1 A rms
* Terminals inside the cabinet if option 057 is chosen
** At manipulator base or axis 3 interface (or axis 6 under option 2205)
Table for Material Handling with option 2064 and Can/DeviceNet
Table 8
Type
Customer Power (CP)
Utility Power
Protective earth
Customer Bus (CBus)
Bus signals
Bus signals
Signals twisted pair
Utility signals
Pcs at
Terminal*
Pcs at Connection
point**
Allowed capacity
2+2
1
2+2
1
500 VAC, 5 A rms
500 VAC
4
4
2
2
4
4
Can/DeviceNet spec
50 VAC, 1 A rms
50 VAC, 1 A rms
50 VAC, 1 A rms
* Terminals inside the cabinet if option 057 is chosen
** At manipulator base or axis 3 interface (or axis 6 under option 2205)
46
Product Specification IRB 6600 M2000
Description
Table for Material Handling with option 2064 and Interbus
Table 9
Type
Customer Power (CP)
Utility Power
Protective earth
Customer Bus (CBus)
Bus signals
Bus signals
Signals twisted pair
Utility signals
Pcs at
Terminal*
Pcs at Connection
point**
Allowed capacity
2+2
1
2+2
1
500 VAC, 5 A rms
500 VAC
4
3
4
1
4
3
Interbus spec
50 VAC, 1 A rms
50 VAC, 1 A rms
50 VAC, 1 A rms
* Terminals inside the cabinet if option 057 is chosen
** At manipulator base or axis 3 interface (or axis 6 under option 2205)
Table for Material Handling with option 2064 and Profibus
Table 10
Type
Customer Power (CP)
Utility Power
Protective earth
Customer Bus (CBus)
Bus signals
Bus signals
Signals twisted pair
Utility signals
Pcs at
Terminal*
Pcs at Connection
point**
Allowed capacity
2+2
1
2+2
1
500 VAC, 5 A rms
500 VAC
4
4
2
2
4
4
Profibus 12Mbit/s spec
50 VAC, 1 A rms
50 VAC, 1 A rms
50 VAC, 1 A rms
* Terminals inside the cabinet if option 057 is chosen
** At manipulator base or axis 3 interface (or axis 6 under option 2205)
Option 2205 Material Handling axis 3 to axis 6
The Upper arm harness for the Material Handling has been chosen. This includes the
process cable package as well as brackets, connectors etc to form a complete dressing
package from interface at axis 3 to the connectors at axis 6. Depending on the earlier
choice (see option 2204) the process cable package will have different content.
For content see Table 6, Table 7, Table 8, Table 9 and Table 10.
The connector type at the manipulator base, at axis 3 and axis 6 is specified in the
Installation and maintenance manual.
Product Specification IRB 6600 M2000
47
Description
Option 2200 Spot Welding to axis 3, and option 2201 Spot Welding to axis 6
The Lower arm harness and the Upper arm harness for Spot Welding has been chosen.
This includes the process cable package as well as brackets, connectors etc to form a
complete dressing package from manipulator base to the connectors on axis 6.
Depending on the earlier choice above the process cable package will have different
content. See tables below. For further details see Installation and maintenance manual
and circuit diagrams
For all process cable packages some of the content are common. These common parts
for Spot Welding application are shown in table 11 below. Unique parts for different
option combinations are showed in Table 12, Table 13, Table 14, Table 15 and Table 16.
Table for common content Spot Welding (with option 2063/2064)
Table 11
Type
Welding Power (WP)
Lower arm harness
Lower arm harness
protective earth
Upper arm harness
Upper arm harness
protective earth
Media
Water/Air (PROC 1-3)
Pcs at Connection
point*
Note
Allowed capacity
2
1
35 mm2
35 mm2
600 VAC**
2
1
25 mm2
25 mm2
600 VAC***
3
12,5 mm
inner
diameter
Max. air pressure 16 bar/
230 PSI. Max. water
pressure 10 bar/145 PSI
*
**
At manipulator base or axis 6.
150 A rms at + 20°C (68F) ambient temp, 120 A rms at + 50°C (122F) ambient
temp
*** 135 A rms at + 20°C (68F) ambient temp, 100 A rms at + 50°C (122F) ambient
temp
48
Product Specification IRB 6600 M2000
Description
Table for Spot Welding with option 2063
Table 12
Type
Customer Power (CP)
Utility Power
Protective earth
Customer Signals (CS)
Signals twisted pair
Signals twisted pair and
separate shielded
Pcs at
Terminal*
Pcs at Connection
point**
Allowed capacity
2+2
1
2+2
1
500 VAC, 5 A rms
500 VAC
19*
4*
19*
4*
50 VAC, 1 A rms
50 VAC, 1 A rms
* Terminals inside the cabinet if option 057 is chosen.
** At manipulator base or axis 6.
Table for Spot Welding with option 2063 and servo gun option 702
Table 13
Type
Customer Power (CP)
Servo motor Power
Utility Power
Protective earth
Customer Signals (CS)
Signals twisted pair
Signals twisted pair and
separate shielded
Pcs at
Terminal*
Pcs at Connection
point**
Allowed capacity
2+2
1
3
2+2
1
600 VAC, 12 A rms
500 VAC, 5 A rms
500 VAC
4*
4*
4*
4*
50 VAC, 1 A rms
50 VAC, 1 A rms
*
Terminals inside the cabinet if option 057 is chosen. Signals needed for servo gun
motor control are not specified above.
** At manipulator base or axis 6.
Product Specification IRB 6600 M2000
49
Description
Table for Spot Welding with option 2064 and CAN/DeviceNet
Table 14
Type
Customer Power (CP)
Utility Power
Protective earth
Customer Bus (CBus)
Bus signals
Bus signals
Signals twisted pair
Utility signals
Pcs at
Terminal*
Pcs at Connection
point**
Allowed capacity
2+2
1
2+2
1
500 VAC, 5 A rms
500 VAC
4
4
2
2
4
4
CAN/DeviceNet spec
50 VAC, 1 A rms
50 VAC, 1 A rms
50 VAC, 1 A rms
* Terminals inside the cabinet if option 057 is chosen.
** At manipulator base or axis 6.
Table for Spot Welding with option 2064 and Interbus
Table 15
Type
Customer Power (CP)
Utility Power
Protective arth
Customer Bus (CBus)
Bus signals
Bus signals
Signals twisted pair
Utility signals
Pcs at
Terminal*
Pcs at Connection
point**
Allowed capacity
2+2
1
2+2
1
500 VAC, 5 A rms
500 VAC
4
3
4
1
4
3
Interbus spec
50 VAC, 1 A rms
50 VAC, 1 A rms
50 VAC, 1 A rms
* Terminals inside the cabinet if option 057 is chosen.
** At manipulator base or axis 6.
50
Product Specification IRB 6600 M2000
Description
Table for Spot Welding with option 2064 and Profibus
Table 16
Type
Customer Power (CP)
Utility Power
Protective earth
Customer Bus (CBus)
Bus signals
Bus signals
Signals twisted pair
Utility signals
Pcs at
Terminal*
Pcs at Connection
point**
Allowed capacity
2+2
1
2+2
1
500 VAC, 5 A rms
500 VAC
4
4
2
2
4
4
Profibus 12Mbit/s spec
50 VAC, 1 A rms
50 VAC, 1 A rms
50 VAC, 1 A rms
* Terminals inside the cabinet if option 057 is chosen
** At manipulator base or axis 3 interface (or axis 6 under option 2205)
Option 2065 Extended media
The process cable package from foot to axis 6 can be extended with an extra media
hose. This could only be chosen in combination Spot welding application (with option
2200, all variants shown in Table 12, Table 13, Table 14, Table 15 and Table 16). This
option has the following specification:
- Hose 1/2" (Proc 4) with connection (Parker Pushlock reference 3C382-158BK, brass version) both at foot and at axis 3. At axis 6 with free end.
Option 2070 Connection kit, Axis 6 robot side SW
The process cable package from manipulator base to axis 6 (option 2200) ends with
free end for media and for weld power cable. If this option is chosen a kit for
connections will be supplied. This has to be assembled by the customer when hoses and
power cable has been cut to required length. The kit contains:
- 4 Hose fittings, Parker Push lock type with conical angel 24 Degrees (Parker
Pushlock reference 3C382-15-8BK, brass version).
- 1 Multi contact connector (Female).
Product Specification IRB 6600 M2000
51
Description
1.9.3 Power Unit
The standard Power unit for SpotPack contains the electric components and circuits
needed for spot welding. The power unit cabinet is designed to be placed on top of the
robot control cabinet, see picture below, and secured with four attachment plates. The
power unit should be seen as a main part of the complete SpotPack (type S and HS) and
normally not handled as a separate unit.
The electrical circuits of the power unit consist of weld power circuit and control
circuits to control the welding.
Weld power circuit
The welding power for the welding gun is fed through a circuit breaker and welding
thyristor (for AC welding) or inverter (for MFDC welding) and further out to the welding power cable. The welding power cable is connected directly to the thyristor/
inverter.
Control Circuits
Power 240 V AC and 24 V DC for the control circuits is fed from the robot cabinet.
Also the safety circuits in the robot cabinet is used to interlock the welding timer.
A welding timer (Bosch), integrated with the air cooled thyristor or inverter, controls
the welding current. The welding timer includes control program which gives
possibility to program different weld sequence. The programming is normally done on
a PC that is connected directly to the welding timer. The interface between the robot
system and the welding timer is handled via a digital signal interface. Example of
signals are weld start, weld ready, weld program choice and error.
Also cross connections, of interface signals and interlocking between the robot system
(I/O-boards), the water and air unit, signals to DressPack and pedestal / stationary gun
(type HS), are done within the power unit.
For further information see Installation and Maintenance manual and separate manuals
for the Bosch equipment.
Programming device for the welding timer is not included.
Option 2087 Power unit, AC welding type S
The basic power unit for type S is equipped for a robot handled AC Spotwelding gun
and with the following components:
- Cable gland for incoming power (X100)
- Circuit Breaker type ABB SACE, T1 160 A
- Welding Timer and Thyristor type Bosch PST 6100.100L 76kVA
- Fuse terminal for 24 V distribution
- Connector to Water and air unit, Modular Harting. (XS103)
- Cable gland for outgoing power (X101). (For power cable see option 2095/
2096)
For further information see Installation and Maintenance manual, circuit diagrams and
separate manuals for the Bosch equipment.
52
Product Specification IRB 6600 M2000
Description
Option 2088 Power unit, AC welding type HS
The basic power unit for type HS is equipped for a stationary / pedestal mounted
AC Spotwelding gun and with the following components:
- Cable gland for incoming power (X100)
- Circuit Breaker type ABB SACE, T1160 A
- Welding Timer and Thyristor type Bosch PST 6100.100L76kVA
- Fuse terminal for 24 V distribution
- Connector to Water and air unit, Modular Harting. (XS103)
- Connector to pedestal gun, Modular Harting (XS 104). (For process cables to
Stationary gun see option 2117, 2118 and 2119)
- Cable gland for outgoing power (X101). For power cable (see option 2095/
2096)
For further information see Installation and Maintenance manual, circuit diagrams and
separate manuals for the Bosch equipment.
Option 2090 MFDC welding S and HS
This option replaces the thyristor unit in option 2087 or 2088, with a MFDC inverter
type Bosch PSI 6100.100L. This option requires forced air cooling (option 2091).
Option 2091 Forced air cooling
This option adds a cooling fan with housing placed on the rear of the power unit. This
forces air on the cooling surface for the thyristor or MFDC converter. For the MFDC
converter this is mandatory. For the AC thyristor the need of the forced air cooling
depends on the load and the ambient temperature.
For further information see separate manuals for the Bosch equipment.
Option 2092 Earth fault protection
This option adds an earth fault protection to the circuit breaker. This protection could
be used for AC welding or MFDC welding. The sensitivity of the earth fault protection
could be adjusted. If and earth fault occurs the circuit breaker is tripped.
For further information see Installation and Maintenance manual, circuit diagrams and
separate specifications of the earth fault protection.
Option 2093 Contactor for weld power
This option adds a contactor with necessary wiring and relays inside the power unit.
This contactor could be used to disconnect power to the gun at for example tool change.
Option 2095 Weld power cable, 7m
This option includes floor cable of 7 m length for weld power. This is connected at
terminals inside the control cabinet and with an MC connector at manipulator base. The
cable has an allowed capacity of 150 A rms at + 20°C (68F) ambient temp and 120 A
rms at + 50°C (122F) ambient temp.
Product Specification IRB 6600 M2000
53
Description
Option 2096 Weld power cable, 15 m
This option includes floor cable of 15 m length for weld power. See description for
option 2095.
Option 2117 Process cable to stationary gun, 7m
This option includes floor cable of 7 m length for process signals to the pedestal/
stationary gun.
This cable is connect to the Power unit (option 2088) with a modular harting. The cable
ends also with a modular harting where the customer could connect control signals for
the gun.
For further information about connector and available signals see Installation and
Maintenance manual and circuit diagrams.
Option 2118 Process cable to stationary gun, 15m
This option includes floor cable of 15 m length for weld power. See description for
option 2117.
Option 2119 Process cable to stationary gun, 30m
This option includes floor cable of 30 m length for weld power. See description for
option 2117.
1.9.4 Water and Air Unit
The water and air unit is the connection point for cooling water and compressed air to
the spot welding gun. All standard features and options are the same for types S and
HS. Water and air unit is not included for type H.
The standard water and air unit is mounted at the base of the robot.
The standard water and air unit consists of four main assemblies:
- Water in circuit
- Water return circuit
- Air supply circuit
- Split box
Cables and hoses required for Water and Air unit are defined and described under each
option for water and air unit.
Water in circuit
The function of the water in circuit is to open / close the cooling water supply to the
Spot welding gun. An electrically controlled valve with indication led is used. The
valve is controlled by a digital signal from the robot control system.
The circuit start from left with an Parker Puchlock 33482-8-8BK fitting for ½” hose
(hose assembled by customer), manual shut off valve for the cooling water flow,
electrical shut off valve and ends with a Parker Pushlock adapter. (Suitable for a Parker
Puchlock DIN 20 078 A, we recommend a Parker Pushlock 39C82-15-8BK fitting).
From this point the water is led to the gun/robot.
54
Product Specification IRB 6600 M2000
Description
Water return circuit
The water return circuit monitors the flow of the returning cooling water from the Spot
welding gun. The flow switch detects if the water flow is too low in the cooling water
circuit.
The flow switch gives a digital signal to the robot control system, which automatically
shuts the electrical shut off valve in the water in circuit off if the flow is too low. The
system and the supply of cooling water are then automatically stopped to minimise any
risk of damage to the system.
The water return circuit is delivered with a pre-set flow limit, set to approx. 3,5 litres
per minute.
The water return circuit started from right with a Parker Pushlock adapter (Suitable for
a Parker Puchlock DIN 20 078 A, we recommend a Parker Pushlock 39C82-15-8BK
fitting), flowswitch with a switching point between 2-12 litres per minute.
It’s also equipped with a flow control valve; the flow control can adjust the water flow
to a wanted flow level. The flow-value can be monitored through a small window on
the flow control valve. This will serve as a rough function check in the approximate
flow range of 2-8 litres per minute. The circuit end’s with a check-valve that will stop
any reversing water flow, manual shut off valve and an Parker Puchlock 33482-8-8BK
fitting for ½” hose (hose assembled by customer). From this point the water is led to
the factory water system.
Air supply circuit
The air supply circuit provides the robot and option: proportional valve with air supply.
The air supply circuit started with a Parker Puchlock 39C82-15-8BK fitting (hose
assembled by customer). Manually operated shut off valve to vent the system through
a silencer, air filter 25 microns and a water separator equipped with a metal bowl
protection, distribution block containing plugged air outlet ports.
The air supply circuit ends with a Parker Pushlock adapter. (Suitable for a Parker
Puchlock DIN 20 078 A, we recommend a Parker Pushlock 39C82-15-8BK fitting).
Maximum flow capacity is 3000 litres per minute at 6.3 bar and P = 1.0 bar. Maximum
allowed pressure is 16 bar.
Split box
With the split box, the 24VDC supply and signals are connected and distributed to the
different units on the water and air unit, see picture below. The design makes disconnection of separate items for service and repair on the water and air unit very easy. The
split box has a protection class IP68. Brand: Woodhead, Brad Harrison.
The split box has six connections prepared for the following units.
- Electric water shut off valve
- Flow switch 1
- Flow switch 2 (Option 2177 Second Water Return)
- Pressure switch (Option 2179 Pressure switch and Regulator
for air)
- Proportional valve (Option 2181 Electrical proportional valve for air)
- Spare
Product Specification IRB 6600 M2000
55
Description
The cable and cable length between the Split box and the Power unit has to be specified
(see option 2183, 2184 and 2185).
El. shut off
XS 101.1
Flow switch 1
XS 101.2
Flow switch 2
Air pressure switch
Proportonal Valve
Option
Option
Option
Spare
XS 101.3
XS 101.4
XS 101.5
XS 101.6
24V, parallel interface
Figure 31 Block diagram split box on Water and Air Unit
Option 2174 Water and Air unit, type S
The basic water and air unit for type S is equipped for a robot handled gun and with the
following components:
- Water in circuit
- Water return circuit
- Air supply circuit
- Split box
- 1/2 " hose between air supply circuit and manipulator base (PROC 1)
- 1/2 " hose between water in circuit and manipulator base (PROC 2)
- 1/2 " hose between water return circuit and manipulator base (PROC 3)
Option 2175 Water and Air unit, type HS
The basic water and air unit for type HS is equipped for a pedestal/stationary gun and
with the following components:
- Water in circuit
- Water return circuit
- Air supply circuit
- Split box
- 1/2" hose between air supply circuit and manipulator base (PROC 1)
56
Product Specification IRB 6600 M2000
Description
Hoses between water in circuit and water return circuit are not supplied. These have to
be arranged by the customer.
Option 2177 Second water return
When the water pressure drop is to high because of too long hoses or because of any
other reason, an additional water return circuit can be the best solution to solve this
problem. For this extra water return circuit this option is required. It contains an extra
flow switch to monitor the water coming from the second circuit. Two cooling water
circuits also have the advantage of a more even cooling of the two sides of the
Spotwelding gun compared to a single circuit system. For more information see under
Flow switch in water return circuit.
Please note that this option can not be combined with option 2181, Electrical
proportional valve for air normally used together with a pneumatic robot mounted
welding gun. The additional used water hose in this option is normally used for
compressed air for pneumatic moved welding guns. Additional 1/2" water hose (PROC
4) to manipulator base is included.
Option 2192 Digital flow meter, One water return
If a digital flow meter is requested instead of a flow switch, this option should be
chosen. This option is valid for one water return (if two water return see option 2193).
This option means that the flow switch and the flow control valve with visible flow
indication is replaced by the digital flow meter and a flow control valve without visible
flow indication (not required as adjustments could be seen on the digital flow meter).
The digital flow meter gives the following advantages compared to flow switch:
- The biggest advantage is that the flow switch is mechanical function safe, that
means if something damage the flow switch you will notice that immediacy
- The actual flow could be seen direct on the display
- The flow switch level and the tolerance could be set with high tolerance
- The flow value could been monitored at distance with a remote display.
Option 2193 Digital flow meter, Two water returns
If the option second water return (option 2177) is chosen and the digital flow meter is
requested this option should be chosen. For more information see option 2192.
Option 2179 Pressure switch and regulator for air
Option 2179, Filter regulator and pressure switch includes a manually operated
pressure regulator to set the incoming pressure to the Spot welding gun. The pressure
can be monitored on the included pressure gauge. This option also includes a Pressure
Switch to monitor the air pressure and to give a signal to the control system if the
pressure becomes to low.
The 2179 include same components as Air Supply Circuit except that the filter changes
to a filter regulator plus we add pressure gauge 0-16 bar and pressure Switch with
belonging cable to splitbox.
Product Specification IRB 6600 M2000
57
Description
Option 2181 Electrical proportional valve for air
The option includes a proportional valve with integrated control circuit and connection
cable to the splitbox. The proportional valve controls the pinching force of the
pneumatic spot welding gun and is designed to obtain optimal performance during long
operation time. The proportional valve is controlled by the weldtimer in the Power unit.
The included distribution block can be used for two additional non-regulated
compressed air circuits.
An analogue signal 0-10V, controls the proportional valve and the air pressure is in the
range of 0-12 bar.
Option 2183 Cable to split box, 7m
This option includes floor cable of 7 m length for signals to the split box sitting on the
water and air unit. This cable is connect to the Power unit (option 2087/2088) with a
modular harting (Han Compact with insert type HD). The cable ends also with a quick
connector at the split box end.
Option 2184 Cable to split box, 15m
This option includes floor cable of 15 m length for the split box. See description for
option 2183.
Option 2185 Cable to split box, 30m
This option includes floor cable of 30 m length for the split box. See description for
option 2183.
58
Product Specification IRB 6600 M2000
Description
1.10 Examples of SpotPacks
To support the understanding of how the different options could be combined to
complete SpotPacks some examples are shown below. Note that these are examples of
possible configurations and that each case has to be analysed based on the unique
production conditions.
Example 1: DressPack for Material Handling with Can/DeviceNet
Option no
Name / Note
DressPack options
057
Connection to cabinet.
Includes floor cables with signals to terminals inside controller
2064
Communication, Bus communication
2204
Material Handl. Axis 1 to 3
Lower arm harness to get the signals to axis 3
2205
Material Handl. Axis 3 to 6
Upper arm harness to get the signals to axis 6
660
Connection to cabinet, cable length, CAN/DeviceNet / 7m
Specifies floor cable length and type of bus
Example 2: SpotPack for SpotWelding with pneumatic gun and parallel interface
Option no
Name / Note
General options
122
No upper cover on robot control cabinet
201
1pc. Digital 24 VDC I/O 16 inputs/ 16 outputs
251
Internal connection of I/O
206
Internal connection of safety signals
553
SpotWare (software option for pneumatic guns)
DressPack and SpotPack options
057
Connection to cabinet
Includes floor cables with signals to terminals inside controller
2063
Communication, Parallel communication
2200
SpotWelding to axis 6
Lower arm and Upper arm harness to get the signals to axis 6
2065
Extended media SW
Additional hose for regulated air via option 2181
675
Connection to cabinet, cable length, Parallel / 7m
Specifies floor cable length with parallel interface
Product Specification IRB 6600 M2000
59
Description
2087
Power unit, AC welding type S
AC welding with robot handled gun
2095
Weld power cable / 7m.
Specifies power cable for welding
2174
Water and air unit / Type S
2181
Electrical proportional valve for air
Programmable pressure for pneumatic gun
2183
Cable to split box / 7m
Specifies floor cable length to split box
Example 3: SpotPack for SpotWelding with servo gun gun and parallel interface.
Option no
Name / Note
General options
122
No upper cover on robot control cabinet
201
1pc. Digital 24 VDC I/O 16 inputs/ 16 outputs
251
Internal connection of I/O
206
Internal connection of safety signals
Servo gun options
381
Drive unit type DDU-V
702
Robot Gun
681
Connection of servo gun 7m
625
SpotWare Servo (software option for servo guns)
DressPack and SpotPack options
60
057
Connection to cabinet
Includes floor cables with signals to terminals inside controller
2063
Communication, Parallel communication
2200
SpotWelding to axis 6
Lower arm and Upper arm harness to get the signals to axis 6
675
Connection to cabinet, cable length, Parallel / 7m
Specifies floor cable length with parallel interface
2087
Power unit, AC welding type S
AC welding with robot handled gun
2090
MFDC welding S and HS
Replaces AC welding with MFDC welding
2091
Forced air cooling.
Air cooling of MFDC converter
2095
Weld power cable / 7m
Specifies power cable for welding
Product Specification IRB 6600 M2000
Description
2174
Water and air unit / Type S.
2183
Cable to split box / 7m
Specifies floor cable length to split box
Example 4: SpotPack for SpotWelding with pedestal servo gun and Interbus
interface to robot handled gripper.
Option no
Name / Note
General options
122
No upper cover on robot control cabinet
201
1pc. Digital 24 VDC I/O 16 inputs/ 16 outputs.
251
Internal connection of I/O
206
Internal connection of safety signals
Servo gun options
381
Drive unit type DDU-V
701
Stationary Gun.
686
Stationary Servo gun 7m
625
SpotWare Servo (software option for servo guns)
DressPack and SpotPack options
057
Connection to cabinet
Includes floor cables with signals to terminals inside controller
2064
Communication, Bus communication.
2200
SpotWelding to axis 6
Lower arm and Upper arm harness to get the signals to axis 6
670
Connection to cabinet, cable length, Interbus / 7m
Specifies floor cable length with Interbus interface
248
Interbus Master/Slave,
Copper wire. Interbus board in cabinet
2087
Power unit, AC welding type HS
AC welding with pedestal gun
2095
Weld power cable / 7m
Specifies power cable for welding
2117
Process cable to stationary gun, 7m
Communication cable to stationary/pedestal gun
2175
Water and air unit / Type HS.
2183
Cable to split box / 7m
Specifies floor cable length to split box
Product Specification IRB 6600 M2000
61
Description
1.11 Servo Gun (option)
The robot can be supplied with hardware and software for Stationary Gun, Robot Gun,
Stationary and Robot Gun, Twin Staionary Guns, Stationary Gun and Track Motion or
Robot Gun and Track Motion.
For configuration and specification of hardware and software respectively, see each
section below.
1.11.1 Stationary Gun (SG)
M1
M2
CB1
D1
option 381
D2
DDU-V
(options 641-644)
option 701
M7C1B1.CFG
options 686-689
Figure 32 Configuration of Stationary Gun.
Options according to Table 17 are required to complete the delivery.
For further details see corresponding Product Specification.
Table 17
Option
62
Description
Product Spec.
381
DDU in a separate box and cable to cabinet
S4Cplus
686-689
Cables (7-30m) between DDU and SG
S4Cplus
701
Cables inside the manipulator and manipulator foot to SG
S4Cplus
625
Software SpotWare Servo
RobotWare Options
Product Specification IRB 6600 M2000
Description
1.11.2 Robot Gun (RG)
option 702
M1
M2
CB1
D1
D2
option 381
option 702
options 2063
DDU-V
options 697-699
(options 641-644)
Figure 33 Configuration of Robot Gun.
Options according to Table 18 below are required to complete the delivery.
For further details see corresponding Product Specification.
Table 18
Option
Description
Product Spec.
381
DDU in a separate box and cable to cabinet
S4Cplus
697-699
Extended cables (7-30m) between DDU and RG
S4Cplus
702
Cabling inside the controller and the manipulator
S4Cplus
2063
Parallel communication including Servo
IRB 6600
625
Software SpotWare Servo
RobotWare Options
Product Specification IRB 6600 M2000
63
Description
1.11.3 Stationary and Robot Gun (SG + RG)
M1
M2
CB1
options 697-699
options 2063
D1
M1
M2
CB2
D2
D1
D2
option 382
option 703
DDU-VW
SMB
M7C1B1.CFG
(options 641-644)
options 686-689
Figure 34 Configuration of Stationary and Robot Gun.
Options according to Table 19 below are required to complete the delivery.
For further details see corresponding Product Specification.
Table 19
Option
64
Description
Product Spec.
382
DDU in separate box and cable to the cabinet
S4Cplus
686-689
Cables (7-30m) between DDU and SG
S4Cplus
697-699
Extended cables (7-30m) between DDU and RG
S4Cplus
703
SMB box with cabling
S4Cplus
2063
Parallel communication inclusive of Servo
IRB 6600
625
Software SpotWare Servo
RobotWare Options
Product Specification IRB 6600 M2000
Description
1.11.4 Twin Stationary Guns (SG + SG)
M1
M2
CB1
D1
M1
M2
CB2
D2
D1
option 382
D2
DDU-VW
(options 641-644)
M7C1B1.CFG
SG 1
options 686-689
SMB
SG 2
option 704
Figure 35 Configuration of Twin Stationary Guns.
Options according to Table 20 below are required to complete the delivery.
For further details see corresponding Product Specification.
Table 20
Option
Description
Product Spec.
382
DDU in separate box and cable to the cabinet
S4Cplus
686-689
Cables (7-30m) between DDU and SGs
S4Cplus
704
SMB box with cablings
S4Cplus
625
Software SpotWare Servo
RobotWare Options
Product Specification IRB 6600 M2000
65
Description
1.11.5 Stationary Gun and Track Motion (SG + TM)
M1
M2
M1
CB1
D1
M2
CB2
D2
D1
option 382
D2
DDU-VW
(options 641-644)
SMB
M7C1B1.CFG
options 686-689
option 705
Figure 36 Configuration of Stationary Gun and Track Motion.
Options according to Table 21 below are required to complete the delivery.
For further details see corresponding Product Specification.
Note! Track Motion SMB box and cables to the control cabinet are included in the
IRBT 6003S delivery.
Table 21
Option
66
Description
Product Spec.
382
DDU in separate box and cable to the cabinet
S4Cplus
686-689
Cables (7-30m) between DDU and SG
S4Cplus
705
Cable between the cabinet and TM, and cable between
TM and SG
S4Cplus
Incl. in TM
delivery
SMB box with cablings
Cable between DDU and TM
IRBT 6003S
625
Software SpotWare Servo
RobotWare Options
Product Specification IRB 6600 M2000
Description
1.11.6 Robot Gun and Track Motion (RG + TM)
M1
M2
CB1
D1
M1
M2
CB2
D2
D1
option 382
D2
option 706
options 2063
DDU-VW
SMB
M7C1B1.CFG
(options 641-644)
options 697-699
Figure 37 Configuration of Robot Gun and Track Motion.
Options according to Table 22 below are required to complete the delivery.
For further details see corresponding Product Specification.
Note! Track Motion SMB box, cables to the control cabinet and cable between SMB
and DDU are included in the IRBT 6003S delivery.
Table 22
Option
Description
Product Spec.
382
DDU in a separate box and cable to the cabinet
S4Cplus
697-699
Extended cables (7-30m) between DDU and RG
S4Cplus
706
Cable between the cabinet and TM, and between SMB and
the manipulator
S4Cplus
2063
Parallel communication inclusive of Servo
IRB 6600
Incl. in TM
delivery
SMB box with cablings
Cable between DDU and TM
IRBT 6003S
625
Software SpotWare Servo
RobotWare Options
Product Specification IRB 6600 M2000
67
Description
1.12 Track Motion
The robot can be supplied with a Track Motion, see Product Specification IRBT 6003S.
For configuration and specification of hardware see Figure 38.
M1
M2
CB1
D1
M1
M2
CB2
D2
D1
option 2204 or 2200
or 383
option 383
D2
DDU-W
M7C1B1.CFG
TM delivery
(options 641-644)
Figure 38 Configuration of Track Motion.
Options according to Table 23 below are required to complete the delivery.
For further details see corresponding Product Specification.
Table 23
Option
68
Description
Product Spec.
383
DDU in a separate box and cable to the cabinet
S4Cplus
2204 or 2200
Cable from manipulator foot to SMB 7-axis
IRB 6600
TM delivery
Cable between DDU and TM
IRBT 6003S
Product Specification IRB 6600 M2000
Specification of Variants and Options
2 Specification of Variants and Options
The different variants and options for the IRB 6600 are described below.
The same numbers are used here as in the Specification form. For controller options,
see Product Specification S4Cplus, and for software options, see Product Specification
RobotWare Options.
1 MANIPULATOR
VARIANTS
022
023
024
025
027
IRB 6600-175/2.8
IRB 6600-225/2.55
IRB 6600-175/2.55
IRB 6650-125/3.2
IRB 6650-200/2.75
Manipulator colour
330 Standard
The manipulator is painted in ABB orange.
352 RAL code
Colours according to RAL-codes.
Protection
035 Standard (IP 67)
036 Foundry
Robot adapted for foundry or other harsh environments.
The robot has the FoundryPlus protection which means that the whole manipulator is
steam washable. The excellent corrosion protection is obtained by a
special coating. The connectors are designed for severe environment, and bearings,
gears and other sensitive parts are highly protected.
PROCESS CABLE PACKAGE
For more information see chapter 1.9.2 DressPack options.
2204 Material Handling from base to axis 3
Requires Communication Parallel or Bus option 2063/2064.
See Figure 39, and Description of DressPack on page 37, Table 2, Table 7, Table 8,
Table 9 and Table 10.
2205 Material Handling from axis 3 to axis 6
Requires Material Handling from base to axis 3, option 2204, and Communication
Parallel or Bus, option 2063/2064.
See Figure 39, and Description of DressPack on page 37, Table 2, Table 7, Table 8,
Table 9 and Table 10.
Product Specification IRB 6600 M2000
69
Specification of Variants and Options
2200 Spot Welding from base to axis 3
Requires Communication Parallel or Bus option 2063/2064.
See Figure 40, and Description of DressPack on page 37, Table 3, Table 11, Table 12,
Table 13, Table 14, Table 15 and Table 16.
2201 Spot Welding from axis 3 to axis 6
Requires Spot Welding from base to axis 3, option 2200, and communication Parallel or
Bus, options 2063/2064. See Figure 40, and Description of DressPack on page 37,
Table 3, Table 11, Table 12, Table 13, Table 14, Table 15 and Table 16.
option 2204
option 2205
From base to axis 3
From axis 3 to axis 6
Figure 39 Material Handling from base to axis 3, and Material Handling fromaxis 3 to axis 6.
option 2200
option 2201
Figure 40 Spot Welding from base to axis 3 , and Spot Welding from axis 3 to axis 6.
Communication
2063 Parallel
Includes customer power CP, customer signals CS and Air for MH-process cable
package.
Includes CP, CS, Air and two Media hoses for SW-process cable package.
2064 Bus
Includes CP, CS, Air and CAN/DeviceNet or Interbus for MH-process cable package.
Includes CP, CS, Air, two Media hoses and CAN/DeviceNet or Interbus for SW-cable
package.
70
2065 Extended Media SW
Requires communication Parallel or Bus.
Includes one Media hose.
Only for option 2200 Spot Welding from base to axis 3, and option 2201 Spot Welding
from axis 3 to axis 6.
Product Specification IRB 6600 M2000
Specification of Variants and Options
R1.SW1
R3.FB7
R1.SW2/3
R1.MP
R1.SMB
R1.PROC1 1 x 1/2”
R1.CP/CS
Figure 41 Location of MH connections on the foot.
R2.CP/CS
R2.PROC1 1 x 1/2”
R2.MP 5/6
Figure 42 Location of MH connections on axis 3.
R1.WELD 3 x 35mm2
R1.CP/CS
R1.SW1
R3.FB7
R1.MP
R1.SMB
R1.SW2/3
R1.PROC1-3 3 x 1/2”
Ext. Media SW (option 2065)
Figure 43 Location of SW connections on the base.
Product Specification IRB 6600 M2000
71
Specification of Variants and Options
Connection to
056 Manipulator
The signals are connected directly to the manipulator base to one heavy duty industrial
housing with a Harting modular connector R1.CP/CS see Figure 41 and Figure 43).
The cables from the manipulator base are not supplied.
057 Cabinet
The signals CP/CS are connected to 12-pole screw terminals, Phoenix
MSTB 2.5/12-ST-5.08, in the controller.
The cable between R1.CP/CS and the controller is supplied.
For information about the limited number of signals available,
see chapter 1.9.2 DressPack options.
Connection to cabinet (Cable lengths)
Parallel/CANDeviceNet/Interbus/Profibus
675/660/670/665 7m
676/661/671/666 15m
678/663/673/668 30m
Robot Servo Gun Extended/Stationary Servo Gun
699/686
697/687
698/689
7m
15m
30m
EQUIPMENT
691 Safety lamp
A safety lamp with an orange fixed light can be mounted on the manipulator.
The lamp is active in MOTORS ON mode.
The safety lamp is required on a UL/UR approved robot.
092 Fork lift device
Lifting device on the manipulator for fork-lift handling.
Note. When Cooling Fan for axis 1 motor unit is used, this must be disassembled in order
to use fork lift device.
087 Base plate
Can also be used for IRB 7600. See chapter 1.3 Installation, for dimension drawing.
091 Brake release cover
A cover for the break release buttons.
113 Cooling fan for axis 1 motor (IP 54)
Cannot be combined with Cooling fan for axis 2 motor option 114.
For in use recommendations see 1.7 Cooling fan for axis 1-3 motor (option 113-115).
See Figure 44.
Not for protection Foundry.
72
Product Specification IRB 6600 M2000
Specification of Variants and Options
114 Cooling fan for axis 2 motor (IP 54)
For in use recommendations see 1.7 Cooling fan for axis 1-3 motor (option 113-115).
Not for protection Foundry.
115 Cooling fan for axis 3 motor (IP 54)
For in use recommendations see 1.7 Cooling fan for axis 1-3 motor (option 113-115).
See Figure 44.
Not for protection Foundry.
088 Upper arm covers
Included in protection Foundry.
See Figure 45.
Option 115
Option 113
Figure 44 Cooling fan for axis 1 motor and axis 3 motor.
Option 088
Figure 45 Upper arm covers.
Product Specification IRB 6600 M2000
73
Specification of Variants and Options
089 Insulated tool flange
The electrically insulated tool flange, according to European Standard EN 60204-1, withstands
dangerous voltage (in case of an electrical fault in the spot welding equipment mounted on the
Insulated tool flange) of 500V DC during 30 seconds in non water applications without passing
it further to the electronics in the manipulator and the controller.
Not available together with Protection Foundry, option 036.
Connection holes and all dimensions are the same as for the standard tool flange except for the
distance from c/c 5th axis to the end surface of the Insulated tool flange. The distance is 0,7 mm
longer compared to the standard tool flange, see Figure 46. The countersinked holes for the
fastening bolts to the gear box are larger, and the bolts are insulated from the tool flange, see
Figure 46.
Note
The Insulated tool flange option can be ordered in combination with the Absolute Accuracy
option, and the robot will then be factory calibrated.
When the Insulated tool flange is mounted after the robot delivery, the robot must be re-calibrated
for absolute accuracy.
200,7 0,3
Insulated tool flange
Figure 46 Insulated tool flange (dimensions in mm).
CONNECTION KITS
The connectors fit to the connectors at the manipulator base, axis 3 and 6 respectively.
The kit consists of connectors, pins and sockets.
2220 R1.CP/CS and PROC1
For the Customer Power/Customer Signal connector and one Process connector on the
manipulator base. Sockets for bus communication are included.
2221 R1.WELD and PROC2-4
For the Weld connector and three Process connectors on the manipulator base.
2222 R1.SW1 and SW2/3
For the position switch asis 1 connector and the position axis 2/3 connector on the
manipulator base.
74
Product Specification IRB 6600 M2000
Specification of Variants and Options
2223 R3.FB7
For the 7-axis connector on the manipulator base.
2224 R2.CP/CS and PROC1
For the Customer Power/Customer Signal connector and one Process connector at
axis 3. Pins for bus communication are included.
2225 R2.WELD and PROC2-4
For the Weld connector and three Process connectors at axis 3.
2070 WELD and PROC1-4 axis 6
Weld connector and four Process connectors at axis 6, the manipulator side.
POSITION SWITCHES
Position switches indicating the position of the three main axes. Rails with separate
adjustable cams are attached to the manipulator. The cams, which have to be adapted
to the switch function by the user, can be mounted in any position in the working range
for each switch. No machining operation of the cams is necessary for the adaptation,
simple hand tools can be used.
For axis 1, there are three redundant position zones available, each with two
independent switches and cams. For axes 2 and 3, two chanals position zones are
available, each with two independent switches and cams.
For axis 1 it is possible to mount a second set of position switches, doubling the number
of redundant zones to six.
Each position zone consists of two switches mechanically operated by separate cams.
Each switch has one normally open and one normally closed contact. See Product
Specification S4Cplus.
The design and components fulfill the demands to be used as safety switches.
These options may require external safety arrangements, e.g. light curtains, photocells
or contact mats.
The switches can be connected either to the manipulator base (R1.SW1 and R1.SW2/
3, (see Figure 41 and Figure 43), or to the controller. In the controller the signals are
connected to screw terminal XT8 Phoenix MSTB 2.5/12-ST-5.08.
Switch type Balluff Multiple position switches BNS, according to EN 60947-5-1 and
EN 60947-5-2.
Connection to
075 Manipulator
Connection on the manipulator base with one/two FCI 23-pin connector.
076 Cabinet
Connection on the cabinet wall. Limit switch cables are included.
Not available for second set of position switches, which have to be connected at the
manipulator base.
071 Position switches axis 1
Three redundant position zones are available, each with two independent switches and
cams.
Product Specification IRB 6600 M2000
75
Specification of Variants and Options
Connection of switches axis 1 (cable lengths)
078 7m
079 15m
081 30m
072 Position switches axis 2
Two redundant position zones are available, each with two independent switches and
cams.
073 Position switches axis 3
Two redundant position zones are available, each with two independent switches and
cams.
Connection of switches axes 2 and 3 (cable lengths)
083 7m
084 15m
086 30m
Working Range Limit
To increase the safety of the robot, the working range of axes 1, 2 and 3 can be
restricted by extra mechanical stops.
Axis 1, 7,5 degrees
061 Four stops, two which allow the working range to be restricted in increments of 15o
and two stops of 7,5o.
062 Axis 1, 15 degrees
Two stops which allow the working range to be restricted in increments of 15o.
063 Axis 2
Six stops which allow the working range to be restricted in increments of 15o at both
end positions. Each stop decreases the motion by 15o.
064 Axis 3
Six stops which allow the working range to be restricted in increments of 20o at both
end positions. Each stop decreases the motion by 20o.
SPOTPACK
Power Unit
For more information see chapter 1.9.3 Power Unit
2087 Power unit AC welding type S
2088 Power unit AC welding type HS
2090 MFDC welding S and HS
2091 Forced air cooling
2092 Contactor for welding power
76
Product Specification IRB 6600 M2000
Specification of Variants and Options
Weld power cable
2095 7m
2096 15m
Process cable to Stationary Gun
2117
7m
2118
15m
2119
30m
Water and Air
Fore more information see chapter 1.9.4 Water and Air Unit
2174 Water and Air unit type S
2175 Water and Air unit type HS
2177 Second water return
2192 Digital flow meter, one water return
2193 Digital flow meter, two water returns
2179 Pressure switch and regulator for air
2181 Electrical proportional valve for air
Cable to split box
2183 7m
2184 15m
2185 30m
Product Specification IRB 6600 M2000
77
Specification of Variants and Options
78
Product Specification IRB 6600 M2000
Accessories
3 Accessories
There is a range of tools and equipment available, specially designed for the robot.
Basic software and software options for robot and PC
For more information, see Product Specification S4Cplus, and Product Specification
RobotWare Options.
Robot Peripherals
- Track Motion
- Tool System
- Motor Units
- Spot welding system for transformer gun
Tools
Brake release box
Includes six brake release buttons and 24V battery unit which can be connected to
R1.BU on the manipulator frame. The brake release box can be ordered from
ABB Automation Technology Products, Robotics, department S.
Calibration Cube
This calibration tool can be ordered from ABB Automation Technology Products,
Robotics, department S.
Product Specification IRB 6600 M2000
79
Accessories
80
Product Specification IRB 6600 M2000
Index
4 Index
A
accessories 79
Active Brake System 6
C
Collision detection 7
colours 69
cooling device 4
E
Electronically Stabilised Path 7
emergency stop 8
enabling device 8
equipment
mounting 25
permitted extra load 25
F
fire safety 9
fork lift device 72
motion 31
mounting
extra equipment 25
robot 10
mounting flange 28, 29
N
noise level 4
O
operating requirements 10
options 69
overspeed protection 7
P
Passive Safety System 7
payload 10
position switches 8, 10, 75
protection 69
protection standards 10
R
hold-to-run control 9
hole configuration 11
holes for mounting extra equipment 26
humidity 10
range of movement 31
reduced speed 8
Robot Gun 63
Robot Gun and Track Motion 67
Robot Peripherals 79
robot tool flange 28, 29
robot versions 4
I
S
installation 10
Internal Safety Concept 8
safeguarded space stop 8
delayed 9
safety 6
Safety category 3 8
safety lamp 9, 72
Self Tuning Performance 7
service 30
Service Information System 6
space requirements 4
standards 6
Stationary and Robot Gun 64
Stationary Gun 62
Stationary Gun and Track Motion 66
structure 3
H
L
lifting device 72
limit switches 8, 10, 75
load 10
load diagrams 13
M
maintenance 30
manipulator colour 69
mechanical interface 28, 29
Product Specification IRB 6600 M2000
81
Index
T
temperature 10
troubleshooting 30
Twin Stationary Guns 65
V
variants 69
W
weight 4
working space
restricting 7, 10, 76
Z
zone switches 8
82
Product Specification IRB 6600 M2000
Product Specification S4Cplus
CONTENTS
Page
1 Description ....................................................................................................................... 3
1.1 Structure.................................................................................................................. 3
1.2 Safety/Standards ..................................................................................................... 5
1.3 Operation ................................................................................................................ 7
Operator’s panel ..................................................................................................... 9
1.4 Memory .................................................................................................................. 11
Available memory .................................................................................................. 11
1.5 Installation .............................................................................................................. 12
Operating requirements.......................................................................................... 12
Power supply.......................................................................................................... 12
Configuration ......................................................................................................... 13
1.6 Programming .......................................................................................................... 13
Movements............................................................................................................. 14
Program management ............................................................................................ 14
Editing programs.................................................................................................... 15
Testing programs.................................................................................................... 15
1.7 Automatic Operation .............................................................................................. 15
1.8 The RAPID Language and Environment................................................................ 16
1.9 Exception handling ................................................................................................. 17
1.10 Maintenance and Troubleshooting ....................................................................... 17
1.11 Robot Motion........................................................................................................ 18
Motion concepts..................................................................................................... 18
Coordinate systems ................................................................................................ 18
Stationary TCP....................................................................................................... 20
Program execution ................................................................................................. 20
Jogging ................................................................................................................... 20
Singularity handling............................................................................................... 20
Motion Supervision................................................................................................ 20
External axes .......................................................................................................... 21
Big Inertia .............................................................................................................. 21
Soft Servo............................................................................................................... 21
1.12 External Axes ....................................................................................................... 21
1.13 I/O System ............................................................................................................ 23
Types of connection ............................................................................................... 24
ABB I/O units (node types) ................................................................................... 24
Distributed I/O ....................................................................................................... 25
Signal data.............................................................................................................. 26
Product Specification S4Cplus M2000/BaseWare OS 4.0
1
Product Specification S4Cplus
System signals........................................................................................................ 27
1.14 Communication .................................................................................................... 29
2 Specification of Variants and Options........................................................................... 31
3 Index................................................................................................................................. 51
2
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
1 Description
1.1 Structure
The controller contains the electronics required to control the manipulator, external
axes and peripheral equipment.
The controller also contains the system software, i.e. the BaseWare OS (operating
system), which includes all basic functions for operation and programming.
Controller weight
250 kg
Controller volume:
950 x 800 x 620 mm
Airborne noise level:
The sound pressure level outside
the working space
< 70 dB (A) Leq (acc. to
Machinery directive 98/37/EEC)
Teach pendant
Operator´s panel
Mains switch
Disk drive
Figure 1 The controller is specifically designed to control robots, which means that optimal
performance and functionality is achieved.
Product Specification S4Cplus M2000/BaseWare OS 4.0
3
Description
Air distance to wall
200
200
800
Cabinet extension
800
Option 124
820
Extended cover
500
Option 123
250
950
980 *
Lifting points
for forklift
500
* Castor wheels, Option 126
71
52
623
Figure 2 View of the controller from the front, from above and from the side (dimensions in mm).
4
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
1.2 Safety/Standards
The robot conforms to the following standards:
EN 292-1
Safety of machinery, terminology
EN 292-2
Safety of machinery, technical specifications
EN 954-1
Safety of machinery, safety related parts of control
systems
EN 60204
Electrical equipment of industrial machines
IEC 204-1
Electrical equipment of industrial machines
ISO 10218, EN 775
Manipulating industrial robots, safety
ANSI/RIA 15.06/1999
Industrial robots, safety requirements
ISO 9787
Manipulating industrial robots, coordinate systems
and motions
IEC 529
Degrees of protection provided by enclosures
EN 50081-2
EMC, Generic emission
EN 61000-6-2
EMC, Generic immunity
ANSI/UL 1740-1996 (option) Standard for Industrial Robots and Robotic
Equipment
CAN/CSA Z 434-94 (option) Industrial Robots and Robot Systems - General
Safety Requirements
The robot complies fully with the health and safety standards specified in the EEC’s
Machinery Directives.
The robot controller is designed with absolute safety in mind. It has a dedicated safety
system based on a two-channel circuit which is monitored continuously. If any
component fails, the electrical power supplied to the motors shuts off and the brakes engage.
Safety category 3
Malfunction of a single component, such as a sticking relay, will be detected at the next
MOTOR OFF/MOTOR ON operation. MOTOR ON is then prevented and the faulty
section is indicated. This complies with category 3 of EN 954-1, Safety of machinery
- safety related parts of control systems - Part 1.
Selecting the operating mode
The robot can be operated either manually or automatically. In manual mode, the robot
can only be operated via the teach pendant, i.e. not by any external equipment.
Reduced speed
In manual mode, the speed is limited to a maximum of 250 mm/s (600 inch/min.).
The speed limitation applies not only to the TCP (Tool Centre point), but to all parts of
the robot. It is also possible to monitor the speed of equipment mounted on the robot.
Three position enabling device
The enabling device on the teach pendant must be used to move the robot when in
manual mode. The enabling device consists of a switch with three positions, meaning
that all robot movements stop when either the enabling device is pushed fully in, or
when it is released completely. This makes the robot safer to operate.
Product Specification S4Cplus M2000/BaseWare OS 4.0
5
Description
Safe manual movement
The robot is moved using a joystick instead of the operator having to look at the teach
pendant to find the right key.
Over-speed protection
The speed of the robot is monitored by two independent computers.
Emergency stop
There is one emergency stop push button on the controller and another on the teach
pendant. Additional emergency stop buttons can be connected to the robot’s safety chain
circuit.
Safeguarded space stop
The controller has a number of electrical inputs which can be used to connect external
safety equipment, such as safety gates and light curtains. This allows the robot’s safety
functions to be activated both by peripheral equipment and by the robot itself.
Delayed safeguarded space stop
A delayed stop gives a smooth stop. The robot stops in the same way as at a normal
program stop with no deviation from the programmed path. After approx. 1 second the
power supplied to the motors shuts off.
Collision detection
In case an unexpected mechanical disturbance like a collision, electrode sticking, etc.
occurs, the robot will stop and slightly back off from its stop position.
Restricting the working space
The movement of each axis can be restricted using software limits.
There are safeguarded space stops for connection of limit switches to restrict the working
space.
For some robots the axes 1-3 can also be restricted by means of mechanical stops.
Hold-to-run control
“Hold-to-run” means that you must depress the start button in order to move the robot. When
the button is released the robot will stop. The hold-to-run function makes program testing
safer.
Fire safety
Both the manipulator and control system comply with UL’s (Underwriters Laboratory)
tough requirements for fire safety.
Safety lamp
As an option, the robot can be equipped with a safety lamp mounted on the manipulator.
This is activated when the controller is in the MOTORS ON state.
6
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
1.3 Operation
All operations and programming can be carried out using the portable teach pendant
(see Figure 3) and operator’s panel (see Figure 5).
.
Hold-to-run
Menu keys
Motion keys
Display
P5
P4
7
4
1
Window
keys
1
2
P1
8
5
2
0
9
6
3
Joystick
Enabling
device
P2
P3
Function keys
Emergency stop
button
Navigation keys
Cable 10 m
Figure 3 The teach pendant is equipped with a large display, which displays prompts,
information, error messages and other information in plain English.
Information is presented on a display using windows, pull-down menus, dialogs and
function keys. No previous programming or computer experience is required to learn
how to operate the robot. All operations can be carried out from the teach pendant,
which means that an additional keyboard is not required. All information, including the
complete programming language, is in English or, if preferred, some other major
language. (Available languages, see options on page 35).
Display
Displays all information during programming, to change programs, etc.
16 text lines with 40 characters per line.
Motion keys
Select the type of movement when jogging.
Navigation keys
Used to move the cursor within a window on the display and enter data.
Menu keys
Display pull-down menus, see Figure 4.
Function keys
Select the commands used most often.
Window keys
Display one of the robot’s various windows.
These windows control a number of different functions:
- Jog (manual operation)
- Program, edit and test a program
- Manual input/output management
Product Specification S4Cplus M2000/BaseWare OS 4.0
7
Description
- File management
- System configuration
- Service and troubleshooting
- Automatic operation
User-defined keys (P1-P5)
Five user-defined keys that can be configured to set or reset an output (e.g. open/close
gripper) or to activate a system input.
Hold-to-run
A push button which must be pressed when running the program in manual mode with
full speed.
Enabling device
A push button which, when pressed halfway in, takes the system to MOTORS ON.
When the enabling device is released or pushed all the way in, the robot is taken to the
MOTORS OFF state.
Joystick
The joystick is used to jog (move) the robot manually; e.g. when programming the
robot.
Emergency stop button
The robot stops immediately when the button is pressed in.
Menu keys
File
Edit
View
1 Goto ...
Inputs/Outputs
2 Goto Top
3 Goto Bottom
Name
Value
I/O list
di1
di2
grip1
grip2
clamp3B
feeder
progno
1
1
0
1
0
1
1
13
Menu
4(6)
Line indicator
Cursor
0
Function keys
Figure 4 Window for manual operation of input and output signals.
Using the joystick, the robot can be manually jogged (moved). The user determines the
speed of this movement; large deflections of the joystick will move the robot quickly,
smaller deflections will move it more slowly.
The robot supports different user tasks, with dedicated windows for:
- Production
8
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
- Programming
- System setup
- Service and installation
Operator’s panel
MOTORS ON button
and indicating lamp
Operating mode selector
Emergency stop
If pressed in,
pull to release
Duty time counter
Indicates the operating time for
the manipulator (released brakes)
MOTORS ON
Continuous light
Fast flashing light (4Hz)
= Ready for program execution
= The robot is not calibrated or the revolution counters
are not updated
Note: The motors have been switched on
Slow flashing light (1 Hz) = One of the safeguarded space stops is active
Note: The motors have been switched off
Operating mode selector
Using a key switch, the robot can be locked in two (or three)
different operating modes depending on chosen mode selector:
Automatic mode
= Running production
Manual mode
at reduced speed
= Programming and setup
Max. speed 250 mm/s (600 inches/min.)
Optional:
100% Manual mode
= Testing at full program speed
at full speed
Equipped with this mode,
the robot is not approved
according to ANSI/UL
Figure 5 The operating mode is selected using the operator’s panel on the controller.
Product Specification S4Cplus M2000/BaseWare OS 4.0
9
Description
Both the operator’s panel and the teach pendant can be mounted externally, i.e.
separated from the cabinet. The robot can then be controlled from there.
The robot can be remotely controlled from a computer, PLC or from a customer’s panel,
using serial communication or digital system signals.
For more information on how to operate the robot, see the User’s Guide.
10
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
1.4 Memory
Available memory
The controller has two different memories:
- a fixed DRAM memory of size 32 MB, used as working memory
- a flash disk memory, standard 64 MB, used as mass memory. Optional 128 MB.
The DRAM memory is used for running the system software and the user programs and
it is thus divided into three areas:
- system software
- system software execution data
- user RAPID programs, about 5.5 MB, see Figure 6 (when installing different
options, the user program memory will decrease, at most by about 0.7 MB).
The flash disk is divided into four main areas:
- a base area of 5 MB, with permanent code for booting
- a release area of 20 MB, where all the code for a specific release is stored
- a system specific data area of 10 MB, where all the run time specific data
including the user program for a system is stored at backup
- a user mass memory area which can be used for storing RAPID programs, data,
logs etc.
The flash disk is used for backup, i.e. when a power failure occurs or at power off, all
the system specific data including the user program, see Figure 6, will be stored on the
flash disk and restored at power on. A backup power system (UPS) ensures the
automatic storage function.
DRAM memory
32 MB
Flash disk memory
64/128 MB
Boot 5 MB
System
soft ware
Release storage
20 MB
Data
User RAPID
program 5.5 MB
System data and
user program
10 MB
Power on restore
Power
off store
Mass memory area
available for
the user
Figure 6 Available memory.
Product Specification S4Cplus M2000/BaseWare OS 4.0
11
Description
Several different systems, i.e. process applications, may be installed at the same time
in the controller, of which one can be active. Each such application will occupy another
10 MB of the flash memory for system data. The release storage area will be in common
as long as the process applications are based on the same release. If two different
releases should be loaded, the release storage area must also be doubled.
For RAPID memory consumption, see RAPID Developer’s Manual. As an example, a
MoveL or MoveJ instruction consumes 236 bytes when the robtarget is stored in the
instruction (marked with ‘*’) and 168 bytes if a named robtarget is used. In the latter
case, the CONST declaration of the named robtarget consumes an additional 280 bytes.
Additional software options will reduce the available user program memory, most of
them however only marginally, i.e. the user program area will still be about 5.5 MB.
Only the SpotWare option will reduce memory significantly, i.e. down to about 4.8 MB
depending on the number of simultaneous welding guns.
1.5 Installation
The controller is delivered with a standard configuration for the corresponding
manipulator, and can be operated immediately after installation. Its configuration is
displayed in plain language and can easily be changed using the teach pendant.
Operating requirements
Protection standards
Controller electronics
IEC529
IP54
Explosive environments
The controller must not be located or operated in an explosive environment.
Ambient temperature
Controller during operation
with option 473
Controller during transportation and storage,
for short periods (not exceeding 24 hours)
+5oC (41oF) to +45oC (113oF)
+52oC (125oF)
-25oC (13oF) to +42oC (107oF)
up to +70oC (158oF)
Relative humidity
Transportation, storage and operation
Max. 95% at constant temperature
Vibration
Controller during transportation and storage
Bumps
Controller during transportation and storage
10-55 Hz:
55-150 Hz:
Max. ±0.15 mm
Max. 20 m/s2
Max. 100 m/s2 (4-7 ms)
Power supply
Mains voltage
12
Mains voltage tolerance
200-600 V, 3p (3p + N for certain
options
+10%,-15%
Mains frequency
48.5 to 61.8 Hz
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
Rated power:
IRB 140, 1400, 2400
IRB 340, 14001, 24001,4400, 6400, 940
IRB 6600
IRB 7600
External axes cabinet
Computer system backup capacity
at power interrupt
4.5 kVA (transformer size)
7.8 kVA (transformer size)
6 kVA
7.1 kVA
7.2 kVA (transformer size)
20 sec (rechargeable battery)
Configuration
The robot is very flexible and can, by using the teach pendant, easily be configured to
suit the needs of each user:
Authorisation
Most common I/O
Instruction pick list
Instruction builder
Operator dialogs
Language
Date and time
Power on sequence
EM stop sequence
Main start sequence
Program start sequence
Program stop sequence
Change program sequence
Working space
External axes
Brake delay time
I/O signal
Serial communication
Password protection for configuration and program
window
User-defined lists of I/O signals
User-defined set of instructions
User-defined instructions
Customised operator dialogs
All text on the teach pendant can be displayed in
several languages
Calendar support
Action taken when the power is switched on
Action taken at an emergency stop
Action taken when the program is
starting from the beginning
Action taken at program start
Action taken at program stop
Action taken when a new program is loaded
Working space limitations
Number, type, common drive unit, mechanical
units
Time before brakes are engaged
Logical names of boards and signals, I/O mapping,
cross connections, polarity, scaling, default value at
start up, interrupts, group I/O
Configuration
For a detailed description of the installation procedure, see the Product Manual Installation and Commissioning.
1.6 Programming
Programming the robot involves choosing instructions and arguments from lists of
appropriate alternatives. Users do not need to remember the format of instructions,
since they are prompted in plain English. “See and pick” is used instead of “remember
and type”.
1. Enlarged transformer for external axes
Product Specification S4Cplus M2000/BaseWare OS 4.0
13
Description
The programming environment can be easily customized using the teach pendant.
- Shop floor language can be used to name programs, signals, counters, etc.
- New instructions can be easily written.
- The most common instructions can be collected in easy-to-use pick lists.
- Positions, registers, tool data, or other data, can be created.
Programs, parts of programs and any modifications can be tested immediately without
having to translate (compile) the program.
Movements
A sequence of movements is programmed as a number of partial movements between
the positions to which you want the robot to move.
The end position of a movement is selected either by manually jogging the robot to the
desired position with the joystick, or by referring to a previously defined position.
The exact position can be defined (see Figure 7) as:
- a stop point, i.e. the robot reaches the programmed position
or
- a fly-by point, i.e. the robot passes close to the programmed position. The size
of the deviation is defined independently for the TCP, the tool orientation and
the external axes.
Stop point
Fly-by point
User-definable distance (in mm)
Figure 7 The fly-by point reduces the cycle time since the robot does not have to stop at
the programmed point. The path is speed independent.
The velocity may be specified in the following units:
- mm/s
- seconds (time it takes to reach the next programmed position)
- degrees/s (for reorientation of the tool or for rotation of an external axis)
Program management
For convenience, the programs can be named and stored in different directories.
The mass memory can also be used for program storage. These can then be
automatically downloaded using a program instruction. The complete program or parts
of programs can be transferred to/from the network or a diskette.
The program is stored as a normal PC text file, which means that it can be edited using
14
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
a standard PC.
Editing programs
Programs can be edited using standard editing commands, i.e. “cut-and-paste”, copy,
delete, find and change, undo etc. Individual arguments in an instruction can also be
edited using these commands.
No reprogramming is necessary when processing left-hand and right-hand parts, since
the program can be mirrored in any plane.
A robot position can easily be changed either by
- jogging the robot with the joystick to a new position and then pressing the
“ModPos” key (this registers the new position)
or by
- entering or modifying numeric values.
To prevent unauthorised personnel from making program changes, passwords can be
used.
Testing programs
Several helpful functions can be used when testing programs. For example, it is
possible to
- start from any instruction
- execute an incomplete program
- run a single cycle
- execute forward/backward step-by-step
- simulate wait conditions
- temporarily reduce the speed
- change a position
- tune (displace) a position during program execution.
For more information, see the User’s Guide and RAPID Reference Manual.
1.7 Automatic Operation
A dedicated production window with commands and information required by the
operator is automatically displayed during automatic operation.
The operation procedure can be customised to suit the robot installation by means of
user-defined operating dialogs.
Product Specification S4Cplus M2000/BaseWare OS 4.0
15
Description
Select program to run:
Front A Front B Front C
Other
Service
Figure 8 The operator dialogs can be easily customised.
A special input can be set to order the robot to go to a service position. After service,
the robot is ordered to return to the programmed path and continue program execution.
You can also create special routines that will be automatically executed when the power
is switched on, at program start and on other occasions. This allows you to customise
each installation and to make sure that the robot is started up in a controlled way.
The robot is equipped with absolute measurement, making it possible to operate the
robot directly when the power is switched on. For your convenience, the robot saves
the used path, program data and configuration parameters so that the program can be
easily restarted from where you left off. Digital outputs are also set automatically to the
value prior to the power failure.
1.8 The RAPID Language and Environment
The RAPID language is a well balanced combination of simplicity, flexibility and
powerfulness. It contains the following concepts:
- Hierarchical and modular program structure to support structured programming
and reuse.
- Routines can be Functions or Procedures.
- Local or global data and routines.
- Data typing, including structured and array data types.
- User defined names (shop floor language) on variables, routines and I/O.
- Extensive program flow control.
- Arithmetic and logical expressions.
- Interrupt handling.
- Error handling (for exception handling in general, see Exception handling).
- User defined instructions (appear as an inherent part of the system).
- Backward handler (user definition of how a procedure should behave when
stepping backwards).
- Many powerful built-in functions, e.g mathematics and robot specific.
- Unlimited language (no max. number of variables etc., only memory limited).
Windows based man machine interface with built-in RAPID support (e.g. user defined
pick lists).
16
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
1.9 Exception handling
Many advanced features are available to make fast error recovery possible.
Characteristic is that the error recovery features are easy to adapt to a specific
installation in order to minimise down time. Examples:
- Error Handlers (automatic recovery often possible without stopping
production).
- Restart on Path.
- Power failure restart.
- Service routines.
- Error messages: plain text with remedy suggestions, user defined messages.
- Diagnostic tests.
- Event logging.
1.10 Maintenance and Troubleshooting
The controller requires only a minimum of maintenance during operation. It has been
designed to make it as easy to service as possible:
- The controller is enclosed, which means that the electronic circuitry is
protected when operating in a normal workshop environment.
- There is a supervision of temperature, fans and battery health.
The robot has several functions to provide efficient diagnostics and error reports:
- It performs a self-test when power on is set.
- Computer status LEDs and console (serial channel) for fault tracing support.
- Errors are indicated by a message displayed in plain language.
The message includes the reason for the fault and suggests recovery action.
- Faults and major events are logged and time-stamped. This makes it possible to
detect error chains and provides the background for any downtime. The log can
be read on the teach pendant display, stored in a file or printed on a printer.
- There are commands and service programs in RAPID to test units and
functions.
- LEDs on the panel unit indicate status of the safeguarded switches.
Most errors detected by the user program can also be reported to and handled by the
standard error system. Error messages and recovery procedures are displayed in plain
language.
For detailed information on maintenance procedures, see Maintenance section in the
Product Manual.
Product Specification S4Cplus M2000/BaseWare OS 4.0
17
Description
1.11 Robot Motion
Motion concepts
QuickMoveTM
The QuickMoveTM concept means that a self-optimizing motion control is used. The
robot automatically optimizes the servo parameters to achieve the best possible
performance throughout the cycle - based on load properties, location in working area,
velocity and direction of movement.
- No parameters have to be adjusted to achieve correct path, orientation and
velocity.
- Maximum acceleration is always obtained (acceleration can be reduced, e.g.
when handling fragile parts).
- The number of adjustments that have to be made to achieve the shortest possible
cycle time is minimized.
TrueMoveTM
The TrueMoveTM concept means that the programmed path is followed – regardless of
the speed or operating mode – even after an emergency stop, a safeguarded stop, a
process stop, a program stop or a power failure.
This very accurate path and speed is based on advanced dynamic modelling.
Coordinate systems
BaseWare includes a very powerful concept of multiple coordinate systems that
facilitates jogging, program adjustment, copying between robots, off-line
programming, sensor based applications, external axes co-ordination etc. Full support
for TCP (Tool Centre Point) attached to the robot or fixed in the cell (“Stationary
TCP”).
18
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
Tool Centre Point (TCP)
Y
Tool coordinates
Z
Base coordinates
X
Y
Z
Axis 3
Axis 2
Y
Axis 3
Y
X
Base coordinates
X
Axis 1
Z
X
Axis 1
Y
Tool coordinates
Z
Tool Centre Point (TCP)
Z
X
Z
Z User
coordinates
Object
coordinates
Y
Y
Y
X
World coordinates
X
X
Figure 9 The coordinate systems, used to make jogging and off-line programming easier.
The world coordinate system defines a reference to the floor, which is the starting
point for the other coordinate systems. Using this coordinate system, it is possible to
relate the robot position to a fixed point in the workshop. The world coordinate system
is also very useful when two robots work together or when using a robot carrier.
The base coordinate system is attached to the base mounting surface of the robot.
The tool coordinate system specifies the tool’s centre point and orientation.
The user coordinate system specifies the position of a fixture or workpiece
manipulator.
The object coordinate system specifies how a workpiece is positioned in a fixture or
workpiece manipulator.
The coordinate systems can be programmed by specifying numeric values or jogging
the robot through a number of positions (the tool does not have to be removed).
Each position is specified in object coordinates with respect to the tool’s position and
orientation. This means that even if a tool is changed because it is damaged, the old
program can still be used, unchanged, by making a new definition of the tool.
If a fixture or workpiece is moved, only the user or object coordinate system has to be
redefined.
Product Specification S4Cplus M2000/BaseWare OS 4.0
19
Description
Stationary TCP
When the robot is holding a work object and working on a stationary tool, it is possible
to define a TCP for that tool. When that tool is active, the programmed path and speed
are related to the work object.
Program execution
The robot can move in any of the following ways:
- Joint motion (all axes move individually and reach
the programmed position at the same time).
- Linear motion (the TCP moves in a linear path).
- Circle motion (the TCP moves in a circular path).
Soft servo - allowing external forces to cause deviation from programmed position can be used as an alternative to mechanical compliance in grippers, where imperfection
in processed objects can occur.
If the location of a workpiece varies from time to time, the robot can find its position
by means of a digital sensor. The robot program can then be modified in order to adjust
the motion to the location of the part.
Jogging
The robot can be manually operated in any one of the following ways:
- Axis-by-axis, i.e. one axis at a time.
- Linearly, i.e. the TCP moves in a linear path (relative to one of the coordinate
systems mentioned above).
- Reoriented around the TCP.
It is possible to select the step size for incremental jogging. Incremental jogging can be
used to position the robot with high precision, since the robot moves a short distance
each time the joystick is moved.
During manual operation, the current position of the robot and the external axes can be
displayed on the teach pendant.
Singularity handling
The robot can pass through singular points in a controlled way, i.e. points where two
axes coincide.
Motion Supervision
The behaviour of the motion system is continuously monitored as regards position and
speed level to detect abnormal conditions and quickly stop the robot if something is not
OK. A further monitoring function, Collision Detection, is optional (see option “Load
Identification and Collision Detection”).
20
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
External axes
Very flexible possibilities to configure external axes. Includes for instance high
performance coordination with robot movement and shared drive unit for several axes.
Big Inertia
One side effect of the dynamic model concept is that the system can handle very big
load inertias by automatically adapting the performance to a suitable level. For big,
flexible objects it is possible to optimise the servo tuning to minimise load oscillation.
Soft Servo
Any axis (also external) can be switched to soft servo mode, which means that it will
adopt a spring-like behaviour.
1.12 External Axes
The robot can control up to six external axes. These axes are programmed and moved
using the teach pendant in the same way as the robot’s axes.
The external axes can be grouped into mechanical units to facilitate, for example,
the handling of robot carriers, workpiece manipulators, etc.
The robot motion can be simultaneously coordinated with for example, a linear robot
carrier and a work piece positioner.
A mechanical unit can be activated or deactivated to make it safe when, for example,
manually changing a workpiece located on the unit. In order to reduce investment
costs, any axes that do not have to be active at the same time, can share the same drive
unit.
An external axis is an AC motor (IRB motor type or similar) controlled via a drive unit
mounted in the robot cabinet or in a separate enclosure. See Specification of Variants
and Options.
Resolver
Resolver supply
Connected directly to motor shaft
Transmitter type resolver
Voltage ratio 2:1 (rotor: stator)
5.0 V/4 kHz
Absolute position is accomplished by battery-backed resolver revolution counters in
the serial measurement board (SMB). The SMB is located close to the motor(s)
according to Figure 10.
For more information on how to install an external axis, see the User’s Guide - External
Axes.
External axes for robot types IRB 4400 and IRB 6400X:
When more than one external axis is used, the drive units for external axis 2 and
upwards must be located in a separate cabinet as shown in Figure 10.
Product Specification S4Cplus M2000/BaseWare OS 4.0
21
Description
External axes for robot types IRB 140, IRB 1400, and IRB 2400:
When more than three external axes are used, the drive units for external axis 4 and
upwards must be located in a separate cabinet as shown in Figure 10.
External axes for robot types IRB 6600 and IRB 7600:
The drive units for all external axes must be located in a separate cabinet as shown in
Figure 10.
Not supplied on delivery
Motor channel
Serial signals for
measurement and
drive system
Single External Axes
SMB
Measurement
System 1
Not supplied on delivery
Multiple External Axes
SMB
alt.
Measurement
System 2
Drive System 2
ABB Drives
Figure 10 Outline diagram, external axes.
22
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
1.13 I/O System
A distributed I/O system is used, based on the fieldbus standard CAN/DeviceNet. This
makes it possible to mount the I/O units either inside the cabinet or outside the cabinet
with a cable connecting the I/O unit to the cabinet.
Two independent CAN/DeviceNet buses allow various conditions of I/O handling.
Both channels can be operating as master or slave. One bus, CAN1, is operating with
fixed data rate, and the other, CAN2 (accessible by the software option I/O Plus), with
different data rates.
tap
thick/thin cable
S4Cplus
multiport-tap
R
trunk line
R
node
thick/thin cable
node
node
I/O CPU
node
Daisy chain
node
node
node
node
R = terminating resistor
short drop max. 6m each
Figure 11 Example of a general DeviceNet bus.
A number of different input and output units can be installed:
- Digital inputs and outputs.
- Analog inputs and outputs.
- Gateway (slave) for Allen-Bradley Remote I/O.
- Gateway (slave) for Interbus Slave.
- Gateway (slave) for Profibus DP Slave.
S4Cplus with the option I/O Plus can be configured for fieldbus units from other
suppliers. For more details see the Product Specification RobotWare Options.
The inputs and outputs can be configured to suit your installation:
- Each signal and unit can be given a name, e.g. gripper, feeder.
- I/O mapping (i.e. a physical connection for each signal).
- Polarity (active high or low).
- Cross connections.
- Up to 16 digital signals can be grouped together and used as if they were a
single signal when, for example, entering a bar code.
- Sophisticated error handling.
- Selectable “trust level” (i.e. what action to take when a unit is “lost”).
Product Specification S4Cplus M2000/BaseWare OS 4.0
23
Description
- Program controlled enabling/disabling of I/O units.
- Scaling of analog signals.
- Filtering.
- Polarity definition.
- Pulsing.
- TCP-proportional analog signal.
- Programmable delays.
- Simulated I/O (for forming cross connections or logical conditions without need
the for physical hardware).
- Accurate coordination with motion.
Signals can be assigned to special system functions, such as program start, so as to be
able to control the robot from an external panel or PLC.
The robot can function as a PLC by monitoring and controlling I/O signals:
- I/O instructions are executed concurrent to the robot motion.
- Inputs can be connected to trap routines. (When such an input is set, the
trap routine starts executing. Following this, normal program execution
resumes. In most cases, this will not have any visible effect on the robot motion,
i.e. if a limited number of instructions are executed in the trap routine.)
- Background programs (for monitoring signals, for example) can be
run in parallel with the actual robot program. Requires Multitasking option, see
Product Specification RobotWare.
Manual functions are available to:
- List all the signal values.
- Create your own list of your most important signals.
- Manually change the status of an output signal.
- Print signal information on a printer.
I/O signals can for some robots also be routed parallel or serial to connectors on the
upper arm of the robot.
Types of connection
The following types of connection are available:
- “Screw terminals” on the I/O units
- Industrial connectors on cabinet wall
- Distributed I/O-connections inside or on cabinet wall
For more detailed information, see Chapter 2, Specification of Variants and Options.
ABB I/O units (node types)
Several I/O units can be used. The following table shows the maximum number of
physical signals that can be used on each unit. Data rate is fixed at 500 Kbit/s.
24
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
Digital
Analog
Type of unit
DSQC
Option
no.
In
Out
Digital I/O 24 VDC
328
20x
16
16
Internal/External1
Digital I/O 120 VAC
320
25x
16
16
Internal/External
Analog I/O
355
22x
AD Combi I/O
327
23x
16
16
Relay I/O
332
26x
16
16
Allen-Bradley
Remote I/O Slave
350
241
1282
128
Interbus Slave
351
242-285
642
64
Profibus DP Slave
352
243-287
1282
128
100
100
Simulated I/O3
Encoder interface
unit4
Encoder interface
unit5
354
244
377
249
Voltage
inputs
Voltage
output
4
3
2
Current
output
1
Power supply
Internal
Internal/External1
Internal/External1
30
30
1
1. The digital signals are supplied in groups, each group having 8 inputs or outputs.
2. To calculate the number of logical signals, add 2 status signals for Allen-Bradley Remote I/O unit and 1
for Interbus and Profibus DP.
3. A non physical I/O unit can be used to form cross connections and logical conditions without
physical wiring. No. of signals are to be configured. Some ProcessWares include SIM unit.
4. Dedicated for conveyor tracking only.
5. Only for PickMaster 4.0
Distributed I/O
The maximum number of logical signals is 1024 in total for the CAN/DeviceNet buses
(inputs or outputs, group I/O, analog and digital including field buses)
CAN1
Max. total no of units*
Data rate (fixed)
Max. total cable length
Cable type (not included)
CAN2 (option)
20 (including SIM units)
20
500 Kbit/s
125/250/500 Kbit/s.
100 m trunk + 39m drop
up to 500m
According to DeviceNet specification release 1.2
* Max. four units can be mounted inside the cabinet.
Product Specification S4Cplus M2000/BaseWare OS 4.0
25
Description
Signal data
Permitted customer 24 V DC load
Digital inputs
24 V DC
max. 7,5 A
(option 201/203)
Optically-isolated
Rated voltage:
24 V DC
Logical voltage levels: “1”
15 to 35 V
“0”
-35 to 5 V
Input current at rated input voltage:
6 mA
Potential difference:
max. 500 V
Time delays:
hardware
5−15 ms
software
≤ 3 ms
Time variations:
± 2 ms
Digital outputs (option 201/203)
24 V DC
Optically-isolated, short-circuit protected, supply polarity protection
Voltage supply
19 to 35 V
Rated voltage
24 V DC
Logical voltage levels: “1”
18 to 34 V
“0”
<7V
Output current:
max. 0.5 A
Potential difference:
max. 500 V
Time delays:
hardware
≤ 1 ms
software
≤ 2 ms
Time variations:
± 2 ms
Relay outputs
Digital inputs
120 V AC
26
(option 205)
Single pole relays with one make contact (normally open)
Rated voltage:
24 V DC, 120 VAC
Voltage range:
19 to 35 V DC
24 to 140 V AC
Output current:
max. 2 A
Potential difference:
max. 500V
Time intervals: hardware (set signal)
typical 13 ms
hardware (reset signal) typical 8 ms
software
≤ 4 ms
(option 204)
Optically isolated
Rated voltage
Input voltage range: “1”
Input voltage range: “0”
Input current (typical):
Time intervals: hardware
software
120 V AC
90 to 140 V AC
0 to 45 V AC
7.5 mA
≤ 20 ms
≤ 4 ms
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
Digital outputs
120 V AC
(option 204)
Optically isolated, voltage spike protection
Rated voltage
120 V AC
Output current:
max. 1A/channel, 12 A
16 channels
or
max. 2A/channel, 10 A
16 channels
(56 A in 20 ms)
min. 30mA
Voltage range:
24 to 140 V AC
Potential difference:
max. 500 V
Off state leakage current:
max. 2mA rms
On state voltage drop:
max. 1.5 V
Time intervals: hardware
≤ 12 ms
software
≤ 4 ms
Analog inputs (option 202)
Voltage Input voltage:
+10 V
Input impedance:
>1 Mohm
Resolution:
0.61 mV (14 bits)
Accuracy:
+0.2% of input signal
Analog outputs
Analog outputs
(option 202)
VoltageOutput voltage:
Load impedance:
Resolution:
CurrentOutput current:
Load impedance:
Resolution:
Accuracy:
min.
min.
+10 V
2 kohm
2.44 mV (12 bits)
4-20 mA
800 ohm
4.88 µA (12 bits)
+0.2% of output signal
(option 203)
Output voltage (galvanically isolated):
Load impedance:
min.
Resolution:
Accuracy:
Potential difference:
Time intervals: hardware
software
0 to +10 V
2 kohm
2.44 mV (12 bits)
±25 mV ±0.5% of output
voltage
max. 500 V
≤ 2.0 ms
≤ 4 ms
System signals
Signals can be assigned to special system functions. Several signals can be given the
same functionality.
Digital outputs
Motors on/off
Executes program
Error
Automatic mode
Emergency stop
Restart not possible
Run chain closed
Product Specification S4Cplus M2000/BaseWare OS 4.0
27
Description
Digital inputs
Motors on/off
Starts program from where it is
Motors on and program start
Starts program from the beginning
Stops program
Stops program when the program cycle is ready
Stops program after current instruction
Executes “trap routine” without affecting status of stopped
regular program1
Loads and starts program from the beginning1
Resets error
Resets emergency stop
System reset
Analog output
TCP speed signal
1. Program can be decided when configuring the robot.
For more information on system signals, see User’s Guide - System Parameters.
28
Product Specification S4Cplus M2000/BaseWare OS 4.0
Description
1.14 Communication
The controller has three serial channels for permanent use - two RS232 and one
RS422 Full duplex - which can be used for communication point to point with
printers, terminals, computers and other equipment. For temporary use, like service,
there are two more RS 232 channels.
The serial channels can be used at speeds up to 19,200 bit/s (max. 1 channel with speed
19,200 bit/s).
The controller has two Ethernet channels and both can be used at 10 Mbit/s or
100 Mbit/s. The communication speed is set automatically.
Temporary
Main CPU console
Ethernet 10 Mbit/s
Permanent
Ethernet or serial
Figure 12 Point-to-point communication.
The communication includes TCP/IP with intensive network configuration
possibilities like:
- DNS, DHCP etc. (including multiple gateway)
- Network file system accesses using FTP/NFS client and FTP server
- Control and/or monitoring of controllers with RAP protocol makes it possible
to use OPC, ActiveX, and other APIs for integration with Window applications
- Boot/upgrading of controller software via the network or a portable PC.
Figure 13 Network (LAN) communication.
Product Specification S4Cplus M2000/BaseWare OS 4.0
29
Description
30
Product Specification S4Cplus M2000/BaseWare OS 4.0
Specification of Variants and Options
2 Specification of Variants and Options
The different variants and options for the controller are described below.
The same numbers are used here as in the Specification form.
For manipulator options, see Product Specification respectively, and for software
options, see Product Specification RobotWare Options.
1 SAFETY STANDARDS
EU - Electromagnetic Compatibility
693 The controller complies with the European Union Directive “Electromagnetic
Compatibility” 89/336/EEC. This option is required by law for end users in the
European Union.
UNDERWRITERS LABORATORY
695 UL/CSA
The robot is certified by Underwriters Laboratory to comply with the Safety Standard
ANSI/UL 1740-1996 “Industrial Robots and Robotic Equipment” and
CAN/CSA Z 434-94.
UL/UR certification is required by law in some US states and Canada.
UL (UL/CSA) means certification of complete product and UR (UL recognized
Component) means certification of component or not complete product.
Safety lamp (691) Door interlock (145 or 142) Operating mode selector standard
2 modes (193) are mandatory.
Not with Cabinet height 950 mm no cover (122), Cabinet height 1200 mm (123),
Cabinet height 1750 mm (124), Cabinet variant Prepared for Arcitec (112), Mains
connection type CEE17 connector (132, 133), Service outlet type 230V Europe (412).
696 UR (UL Recognized)
The robot is certified by Underwriters Laboratory to comply with the Safety Standard
UL 1740 “Industrial Robots and Robotic Equipment”. UL/UR certification is required
by law in some US states and Canada. UL (UL listed) means certification of complete
product and UR (UL Recognized Component) means certification of component or not
complete product.
Safety lamp (691), Door interlock (145 or 142), Operating mode selector standard 2
modes (193) are mandatory.
Not with Cabinet variant Prepared for Arcitec (112), Mains connection type CEE17
connector (132, 133), Service outlet type 230V Europe (412).
Product Specification S4Cplus M2000/BaseWare OS 4.0
31
Specification of Variants and Options
2 CONTROL SYSTEM
CABINET
Variant
111 Standard cabinet with upper cover.
112 Prepared for Arcitec
Rotary switch 80A (143) and Circuit breaker standard (147) and Arcitec 4.0 (556) are
mandatory.
Not with Wheels (126) or Mains connection type CEE17 connector (132, 133) or
6HSB (134) or Mains switch Flange disconnector (142) or Servo disconnector (144) or
UL (695) or UR (696).
Cabinet Height (wheels not included in height)
121 Standard cabinet 950 mm with upper cover.
122 Standard cabinet 950 mm without upper cover. To be used when cabinet extension is mounted
on top of the cabinet after delivery.
Not with Door interlock (145) or UL (695) or UR (696).
123 Standard cabinet with 250 mm extension. The height of the cover increases the available space
for external equipment that can be mounted inside the cabinet.
Not with UL (695).
124 Standard cabinet with 800 mm extension. The extension is mounted on top of the standard
cabinet. There is a mounting plate inside. (See Figure 14).
The cabinet extension is opened via a front door and it has no floor. The upper part of
the standard cabinet is therefore accessible.
Not with UL (695) and Servo disconnector (144).
20
665
9 (x4)
690
730
20
705
Figure 14 Mounting plate for mounting of equipment (dimensions in mm)
126 Cabinet on wheels. Increase the height by 30 mm.
Not with Prepared for Arcitec (112).
32
Product Specification S4Cplus M2000/BaseWare OS 4.0
Specification of Variants and Options
OPERATOR’S PANEL
The operator’s panel and teach pendant holder can be installed in different ways.
181 Standard, i.e. on the front of the cabinet.
182 External, i.e. in a separate operator’s unit. (See Figure 15 for required preparation)
All necessary cabling, including flange, connectors, sealing strips, screws, etc., is
supplied.
External enclosure is not supplied.
183 External, mounted in a box. (See Figure 16)
M4 (x4)
M8 (x4)
o
45
Required depth 200 mm
196
193
180 224 240
223
70
62
140
96
Holes for
flange
184
200
Holes for
operator’s panel
External panel enclosure
(not supplied)
Holes for
teach pendant holder
Teach pendant
connection
Connection to
the controller
90
5 (x2)
155
Figure 15 Required preparation of external panel enclosure (all dimensions in mm).
Product Specification S4Cplus M2000/BaseWare OS 4.0
33
Specification of Variants and Options
M5 (x4) for fastening of box
337
Connection flange
370
Figure 16 Operator’s panel mounted in a box (all dimensions in mm).
OPERATOR’S PANEL CABLE
185 15 m
186 22 m
187 30 m
DOOR KEYS
461
462
463
464
466
Standard
Doppelbart
Square outside 7 mm
EMKA DB
Locking cylinder 3524
OPERATING MODE SELECTOR
193 Standard, 2 modes: manual and automatic.
191 Standard, 3 modes: manual, manual full speed and automatic.
Does not comply with UL and UR safety standards.
CONTROLLER COOLING
472 Ambient temperature up to 45oC (113oF)
Standard design. The computer unit is provided with a passive heat exchanger (cooling
fins on the rear part of the box).
473 Ambient temperature up to 52oC (125oF)
The computer unit is provided with an active Peltier cooling equipment (replaces the
cooling fins from option 472.
34
Product Specification S4Cplus M2000/BaseWare OS 4.0
Specification of Variants and Options
TEACH PENDANT
601 Teach pendant with back lighting, connection cable 10 m.
Teach pendant language:
611
612
613
614
615
616
617
618
619
620
621
622
English
Swedish
German
French
Spanish
Portuguese
Danish
Italian
Dutch
Japanese
Czech
Finnish
Extension cable for the teach pendant:
606 10 m
An extension cable can be connected between the controller and the teach pendant.
The total length of cable between the controller and the teach pendant should not
exceed 30 m.
Note that the length of the optional operator’s panel cable must be included in the
limitation.
607 20 m
MAINS VOLTAGE
The control system can be connected to a rated voltage of between 200 V and 600 V,
3-phase and protective earthing. A voltage fluctuation of +10% to -15% is permissible.
151
152
153
154
155
156
157
158
200V
220V
400V
440V
475V
500V
525V
600V
For all robots except for IRB 6600/7600 the voltage range must be specified. This gives
the possibility to select between three different transformers.
162 Voltage range 200, 220, 400, 440V
163 Voltage range 400, 440, 475, 500V
164 Voltage range 475, 500, 525, 600V
The robots IRB 7600 (all versions) and IRB 6650-125/3.2 are supplied with an external
transformer, see Figure 17, except for the option 155. The mains voltage 475V does not
need any drive system transformer.
Product Specification S4Cplus M2000/BaseWare OS 4.0
35
Specification of Variants and Options
560
300
398
Figure 17 Transformer unit (dimensions in mm).
MAINS CONNECTION TYPE
The power is connected either inside the cabinet or to a connector on the cabinet’s left-hand side.
The cable is not supplied. If option 133-136 is chosen, the female connector (cable part) is
included.
131 Cable gland for inside connection. Diameter of cable:
11-12 mm.
132 CEE17-connector 32 A, 380-415 V, 3p + PE (see Figure 18).
Not with Flange disconnector (142) or UL/UR (695/696) or
Service outlet power supply (432).
Not available for IRB 6600/7600.
Figure 18 CEE male connector.
133 32 A, 380-415 V, 3p + N + PE (see Figure 18).
Not with Flange disconnector (142) or UL/UR (695/696).
Not available for IRB 6600/7600.
134 Connection via an industrial Harting 6HSB connector in
accordance with DIN 41640. 35 A, 600 V, 6p + PE (see Figure 19).
Cannot be combined with Flange disconnector (142).
Figure 19 DIN male connector.
MAINS SWITCH
141 Rotary switch 40 A in accordance with the standard in section 1.2 and IEC 337-1,
VDE 0113. Customer fuses for cable protection required.
142 Flange disconnector in accordance with the standard in section 1.2.
Includes door interlock for flange disconnector and a 20A circuit breaker with interrupt capacity
14 kA.
0058 Flange disconnector in accordance with the standard in section 1.2.
Includes door interlock for flange disconnector and a 20A circuit breaker with interrupt
36
Product Specification S4Cplus M2000/BaseWare OS 4.0
Specification of Variants and Options
143
144
145
147
capacity 65 kA at 400V, 25 kA at 600V.
Rotary switch 80 A. Customer fuses for cable protection required.
Included in the option Prepared for Arcitec (112).
Servo disconnector.
This option adds a rotary switch 40 A to the two contactors in the AC power supply for
the drive system. The handle can be locked by a padlock, e.g. in an off position.
Door interlock for rotary switch.
Included in the options UL/CSA/UR (695, 696) and Servo disconnector (144).
Circuit breaker for rotary switch. A 16A (option 163 and 164) or 25A
(option 162) circuit breaker for short circuit protection of mains cables in the
cabinet. Circuit breaker approved in accordance with IEC 898, VDE 0660.
Interrupt capacity 6 kA.
Product Specification S4Cplus M2000/BaseWare OS 4.0
37
Specification of Variants and Options
I/O INTERFACES
The standard cabinet can be equipped with up to four I/O units. For more details, see
page 23.
X6 (CAN 1.2) X7 (CAN 1.3)
X8 (CAN 2)
Base Connector Unit
DSQC 504
CAN 1
NS MS
Ph.5-Pol
X7
CAN 1.3
X10 SIO1
Test
9-Pol D-sub
X15 CAN 1.1
X12 PANEL BOARD
X20 DRIVE
SYSTEM 2
R
E
L
Ä
Ph.5-Pol
8-Pol
DB-44
9-Pol D-sub
X1 I/O COMPUTER
X11 CONSOLE
X9 SIO2
X15 (CAN 1.1)
Ph.5-Pol
15-Pol D-sub
9-Pol D-sub
X9 (COM3, RS422)
X8
CAN 2
Ph.5-Pol
X5 MEASUREMENT SYSTEM 2
X2 AXIS COMPUTER
X6
CAN 1.2
25-Pol D-sub
X10 (COM2, RS232)
CAN 2
NS MS
X4 MEASUREMENT SYSTEM 1
15-Pol D-sub
15-Pol D-sub
15-Pol
Female
FCI
X3 DRIVE SYSTEM 1
X14 EXPANSION BOARD
15-Pol
Male
FCI
25-Pol D-sub
X13 POWER SUPPLY
Cabinet view from above
I/O Units (X4)
Computer system
(COM1, RS232)
XT 31
(24V I/O)
Panel Unit
WARNING
DSQC 509
Manipulator connections
X1-X4
Safety Signals
115/230 VAC
REMOVE JUMPERS BEFORE CONNECTING
ANY EXTERNAL EQUIPMENT
EN
MS NS
ES1 ES2 GS1 GS2 AS1 AS2
X3 X1-X4
CUSTOMER
CONNECTIONS
X1
X2
X4
POWER UNIT / POWER CONTROL
X5
X8
1
XP5
XP58
1
1
1
X9, BASE CONN UNIT
XP6
1
RL2
X7, TEACH PENDANT
XT21
Connection to
Position switches
X6, CONTROL PANEL
RL1
XP8
Connection to
Customer power
Customer signals
Figure 20 I/O unit and screw terminal locations.
38
Product Specification S4Cplus M2000/BaseWare OS 4.0
Specification of Variants and Options
201 Digital 24 VDC I/O: 16 inputs/16 outputs.
202 Analog I/O: 4 inputs/4 outputs.
203 AD Combi I/O: 16 digital inputs/16 digital outputs and 2 analog outputs (0-10V).
204 Digital 120 VAC I/O 16 inputs/16 outputs.
205 Digital I/O with relay outputs: 16 inputs/16 outputs.
Relay outputs to be used when more current or voltage is required from the digital
outputs. The inputs are not separated by relays.
Connection of I/O
251 Internal connection (options 201-204, 221-224, 231-234, 251-254, 261-264)
The signals are connected directly to screw terminals on the I/O units in the upper part
of the cabinet (see Figure 20).
252 External connection
The signals are connected via 64-pole standard industrial connector in accordance
with DIN 43652. The connector is located on the left-hand side of the controller.
Corresponding customer part is included.
208 Prepared for 4 I/O units
The internal CAN/Devicenet cabling to the I/O units exists in two versions, one for up
to two I/O units and one for up to four I/O units. The versions are selected to match
the number of ordered I/O units. By this option it is possible to get the four unit version
even if less than three I/O units are ordered.
SAFETY SIGNALS
206 Internal connection
The signals are connected directly to screw terminals in the upper part of the cabinet
(see Figure 20).
207 External connection
The signals are connected via 64-pole standard industrial connector in accordance
with DIN 43652. The connector is located on the left-hand side of the controller.
Corresponding customer part is included.
FIELD BUS AND COMMUNICATION
245 CAN/DeviceNet
Connection on the left side to two 5-pole female connectors in accordance with ANSI.
(Male connectors are supplied).
240 LAN/Ethernet
RJ45 connector to be used for LAN connector.
(When the connector is not used, a protective hood covers it).
246 Profibus DP Master/Slave
The hardware of the Profibus-DP field bus consists of a master/slave unit, DSQC
510, and distributed I/O units, called slave units. The DSQC 510 unit is mounted in
the S4Cplus computer system where it is connected to the PCI bus while the slave
units are attached to the field bus network.
Product Specification S4Cplus M2000/BaseWare OS 4.0
39
Specification of Variants and Options
The slave units can be I/O units with digital and/or analogue signals. They are all
controlled via the master part of the DSQC 510 unit.
The slave part of the DSQC 510 is normally controlled by an external master on a
separate Profibus-DP network. This network is a different one than the network
holding the slave units for the master part of the board. The slave part is a digital input
and output I/O unit with up to 512 digital input and 512 digital output signals.
The signals are connected to the board front (two 9-pole D-sub). 19 units (internal or
external) can be connected to the cabinet.
Profibus DP M/S CFG Tool (option 270) is
required when setting up the master part or when changing the number of signals for
the slave part. For more information see Product Specification RobotWare Options.
247/248 Interbus Master/Slave
The hardware of the Interbus field bus consists of a Master/Slave unit (DSQC512/529)
and distributed I/O units. The master and the slave units are two separate boards
connected by a flat cable. The DSQC512/529 unit is connected to the S4Cplus robot
controller PCI bus while the I/O units are attached to the field bus net.
The I/O units may be digital or analog modules. They are all controlled by the master
part of the DSQC512/529 unit.
The slave part of the DSQC512/529 unit is normally controlled by an external master
on a separate Interbus network. This network is a different one than the network hold
ing the I/O units for the master part of the board. The slave part is a digital in- and out
put I/O unit with up to 160 digital in- and 160 digital out signals.
Two variants are available:
247 for optical fibre connection (DSQC512)
248 for copper wire connection (DSQC529)
Interbus M/S CFG Tool (option 271) is required when setting up the master part or
when changing the number of signals for the slave part. For more information see
Product Specification RobotWare Options.
GATEWAY UNITS
For more details, see I/O System on page 23.
241 Allen-Bradley Remote I/O
Up to 128 digital inputs and outputs, in groups of 32, can be transferred serially to a
PLC equipped with an Allen Bradley 1771 RIO node adapter. The unit reduces the
number of I/O units that can be mounted in cabinet by one. The field bus cables are
connected directly to the A-B Remote I/O unit in the upper part of the cabinet (see
Figure 20). Connectors Phoenix MSTB 2.5/xx-ST-5.08 or equivalent are included.
242 Interbus Slave
Up to 64 digital inputs and 64 digital outputs can be transferred serially to a PLC
equipped with an InterBus interface. The unit reduces the number of I/O units that
can be mounted in the cabinet by one. The signals are connected directly to the
InterBus slave unit (two 9-pole D-sub) in the upper part of the cabinet.
40
Product Specification S4Cplus M2000/BaseWare OS 4.0
Specification of Variants and Options
243 Profibus DP Slave
Up to 128 digital inputs and 128 digital outputs can be transferred serially to a PLC
equipped with a Profibus DP interface. The unit reduces the number of I/O units that
can be mounted in the cabinet by one. The signals are connected directly to the
Profibus DP slave unit (one 9-pole D-sub) in the upper part of the cabinet.
244 Encoder interface unit for conveyor tracking (DSQC 354)
Conveyor Tracking, RobotWare option 540, is the function whereby the robot follows
a work object which is mounted on a moving conveyor. The encoder and
synchronization switch cables are connected directly to the encoder unit in the upper
part of the cabinet (see Figure 20). Screw connector is included.
This option is also required for the function Sensor Synch, RobotWare option 547.
249 Encoder interface unit for conveyor tracking (DSQC 377)
Only available for IRB 140 and IRB 340, required for PickMaster 4.0.
Physically similar to option 344.
EXTERNAL I/O UNITS
I/O units can be delivered separately. The units can then be mounted outside the cabinet
or in the cabinet extension. These are connected in a chain to a connector
(CAN 3 or CAN 2, see Figure 20) in the upper part of the cabinet. Connectors to the
I/O units and a connector to the cabinet (Phoenix MSTB 2.5/xx-ST-5.08), but no
cabling, is included. Dimensions according to Figure 21 and Figure 22.
For more details, see I/O System on page 23.
221 Digital I/O 24 V DC: 16 inputs/16 outputs.
222 Analog I/O.
223 AD Combi I/O: 16 digital inputs/16 digital outputs and 2 analog outputs (0-10V).
224 Digital I/O 120 V AC: 16 inputs/16 outputs.
225 Digital I/O with relay outputs: 16 inputs/16 outputs.
EXTERNAL GATEWAY UNITS
231 Allen Bradley Remote I/O
232 Interbus Slave
233 Profibus DP Slave
234 Encoder interface unit DSQC 354 for conveyor tracking
235 Encoder interface unit DSQC 377 for conveyor tracking (IRB 140 and IRB 340 only)
Product Specification S4Cplus M2000/BaseWare OS 4.0
41
Specification of Variants and Options
EN 50022 mounting rail
195
203
49
Figure 21 Dimensions for units 221-225.
EN 50022 mounting rail
170
49
115
Figure 22 Dimension for units 231-234.
EXTERNAL AXES IN ROBOT CABINET
(not available for IRB 340, IRB 6400PE, IRB 6600, IRB 7600)
It is possible to equip the controller with drives for external axes. The motors are
connected to a standard industrial 64-pin female connector, in accordance with DIN
43652, on the left-hand side of the cabinet. (Male connector is also supplied.)
391 Drive unit C
The drive unit is part of the DC-link. Recommended motor type see Figure 23.
Not available for IRB 640.
392 Drive unit T
The drive unit is part of the DC-link. Recommended motor type see Figure 23.
Not available for IRB 640, 6400R.
397 Drive unit U
The drive unit is part of the DC-link. Recommended motor types see Figure 23.
Not available for IRB 4400, 6400S, 6400PE, 640.
For IRB 140, 1400 and 2400 the option consists of a larger transformer, DC link DC4U
with integrated U drive unit and one extra axis computer with its connection board.
42
Product Specification S4Cplus M2000/BaseWare OS 4.0
Specification of Variants and Options
No cabling from the drive unit U to cabinet wall is included.
For IRB 6400R the option consists of a DC link DC4U with integrated U drive unit
with cabling to the cabinet wall.
393 Drive unit GT
A separate drive unit including two drives. Recommended motor type see Figure 23.
Not available for IRB 4400, 6400R, 6400S
396 Prepared for drives GT
The same as 393 but without the GT drive module. The preparation includes; larger
transformer, larger DC link DC2, and one additional axis computer with its connection
board.
Not available for IRB 4400, 640, 6400R, 6400S
398 Prepared for drives GT
The same as 396 but without additional axes computer and connection board.
399 Prepared for drives GU
The same as 396 but intended for a GU drive module. The preparation includes: larger
transformer, larger DC link DC4, and one additional axis computer with its connection
board.
Not available for IRB 4400, 640, 6400R, 6400S.
394 Drive unit T+GT
A combination of 392 and 393.
Not available for IRB 4400, 640, 6400R, 6400S
395 Drive unit C+GT
A combination of 391 and 393
Not available for IRB 4400, 640, 6400R, 6400S
365 Trackmotion
A special wiring for the three motor combination 394 (IRB 140, 1400, 2400 only) to
be used when axis 7 is intended for an ABB Trackmotion. The drive unit in the
DC link and the Trackmotion measurement board is then connected to the robot axes
computer 1 while the drive unit and the measurement board for motor 8 and 9 is
connected to axes computer 2. All motor power wiring is routed to one common
connector, XS7.
701-706 Servo gun interfacing (IRB 6400R, IRB 6600 and 7600)
For further information see the Product Specification IRB 6400R chapter Servo Gun
or IRB 6600 chapter Servo Gun (overview), and the Product Specification RobotWare
Options (function description).
701 Stationary gun (SG)
IRB 6400R
The option consists of an encapsulated Serial Measurement Board (SMB) and cabling
inside the controller.
The cabling between SMB and the controller is selected in the option range 686689.
Drive unit 397 is required.
IRB 6600/7600
The option includes cabling inside the controller and the manipulator, and a 7m
resolver cable between the manipulator and the welding gun pedestal. The customer
connector to this cable should be an 8-pin Burndy, wired according to Motor Unit
Product Specification S4Cplus M2000/BaseWare OS 4.0
43
Specification of Variants and Options
specification.
The cable between the controller DDU and the welding gun pedestal is selected in the
option range 686-687 (different lengths). The customer connector to this cable should
be of Industrial Multi-connector type, corresponding to the manipulator CP/CS (see
Product Specification IRB 6600/7600). Besides the necessary motor wiring, it also
contains 12 wires for gun I/O, accessible on screw terminals in the cabinet.
Drive unit 381 (DDU-V) must be selected.
702 Robot Gun (RG)
IRB 6400R
The option consists of an encapsulated SMB and cabling inside the controller.
It also includes bracket for 6400R foot mounting of the SMB box, and cabling between
the SMB box and the manipulator.
The cabling between SMB and the controller is selected in th option range 681-684.
Drive unit option 397 is required.
IRB 6600/7600
The option includes cabling inside the controller and the manipulator. The cable
between the controller and the manipulator is selected in the option range 697-699.
Besides the necessary motor wiring the cable also contains 22 wires for gun I/O and
CAN/DeviceNet fieldbus. The I/O wiring is accessible on screw terminals in the
cabinet.
Drive unit 381 (DDU-V) must be selected.
703 One SG and one RG
IRB 6400R
The option is a combination of 701 and 702. A distributed drive unit (DDU) controls
the SG motor.
The cabling between the SG SMB and the controller is selected in the option range
686-689, and the cabling between the RG SMB and the controller is selected in
the option range 681-684.
Drive unit options 397 (for the RG) and 380 (for the SG) are required.
IRB 6600/7600
The option includes cabling inside the controller and the manipulator. The cable
between the controller and the welding gun pedestal is selected in the option range
686-687. The customer connector to this cable should be of Industrial Multi-connector
type, corresponding to the manipulator CP/CS (see Product Specification IRB 6600/
7600). Besides the necessary motor wiring it also contains 12 wires for gun I/O,
accessible on screw terminals in the cabinet.
The cable between the controller and the manipulator is selected in the option range
697-699. Besides the necessary motor wiring the cable also contains 22 wires for gun
I/O and CAN/DeviceNet fieldbus.
The option also consists of an SMB box for two resolvers, a serial cable between the
box and the controller (the same length as 641-642), and two resolver cables, one 1.5m
for the RG and one 7m for the SG. The customer connector to the SG cable should be
an 8-pin Burndy, wired according to the Motor Unit specification. The SMB box
should be mounted close to the manipulator foot. Dimensions and mounting
information can be found in the Product Specification Motor Unit.
Drive unit 382 (DDU-VW) must be selected.
44
Product Specification S4Cplus M2000/BaseWare OS 4.0
Specification of Variants and Options
704 Twin SG
IRB 6400R
The option is a combination of two options 701. A distributed drive unit controls the
second SG motor.
The cabling between the SG SMBs and the controller is selected in the option range
686-689.
Drive unit options 397 (for one SG) and 380 (for the second SG) are required.
IRB 6600/7600
The option includes cabling inside the controller. The two cables between the
controller and the pedestals are selected in the option range 686-687.
Customer connectors to the cables should be of Industrial Multi-connector type,
corresponding to the manipulator CP/CS (see Product Specification IRB 6600/7600).
Besides the necessary motor wiring, the cables also contain 12 wires for gun I/O,
accessible on screw terminals in the cabinet (SG axis 7), or on the Multi
connector inside (SG axis 8) the DDU.
The option also consists of an SMB box for two resolvers, a serial cable between the
box and the controller (the same length as 686-687), and two 7m resolver cables. The
customer connector to the SG cable should be an 8-pin Burndy, wired according to the
Motor Unit specification.The SMB box should be mounted close to the manipulator
foot.
Dimensions and mounting information can be found in the product Specification
Motor Unit.
Drive unit 382 (DDU-VW) must be selected.
705 SG and Track Motion (T)
IRB 6400R
The option is a combination of 701 and a track motion IRBT 6002S controlled by a
distributed drive unit.
The cabling between the SG SMB and the controller is selected in the option range
686-689.
Drive unit options 397 (for the SG) and 380 (for the T) are required.
IRB 6600/7600
The option includes cabling inside the controller. The cable between the controller and
the welding gun pedestal is selected in the option range 686-687.
The customer connector to the cable should be of Industrial Multi-connector type,
corresponding to the manipulator CP/CS (see Product Specification IRB 6600/7600).
Besides the necessary motor wiring the cable also contains 12 wires for gun I/O,
accessible on screw terminals in the cabinet.
The resolver cable for the SG must be ordered together with the Track Motion.
The customer connector to the cable should be an 8-pin Burndy, wired according to the
Motor Unit specification.
The SMB box and the power cable between the controller and the Track Motion are
included in the Track Motion delivery. The serial measurement cable between the
controller and the Track Motion are included in option 705 (length according to 641642).
Drive unit 382 (DDU-VW) must be selected.
Product Specification S4Cplus M2000/BaseWare OS 4.0
45
Specification of Variants and Options
706 RG and T
IRB 6400R
The option is a combination of 702 and a track motion IRBT 6002S controlled by a
distributed drive unit.
The cabling between the RG SMB and the controller is selected in the option range
681-684.
Drive unit options 397 (for the SG) and 380 (for the T) are required.
IRB 6600/7600
The option includes cabling inside the controller. The RG cable between the controller
and Track Motion is selected in the option range 697-699 except for the track motor
cable which is included in the Track Motion delivery.
Besides the necessary motor wiring, the RG cable also contains 22 wires for gun I/O
and CAN/DeviceNet fieldbus.
The option also consists of a 1.5m resolver cable for the RG to be connected to the
Track Motion mounted SMB box.
Drive unit 382 (DDU-VW) must be selected.
EXTERNAL AXES MEASUREMENT BOARD
(not available for IRB 340, IRB 6400PE)
The resolvers can be connected to a serial measurement board outside the controller.
387 Serial measurement board as separate unit
EXTERNAL AXES - SEPARATE CABINET
(not available for IRB 340, IRB 6400PE)
An external cabinet can be supplied when
there is not space enough in the standard cabinet.
The external cabinet is connected to one
Harting connector (cable length 7 m)
on the left-hand side of the robot controller.
Door interlock, mains connection, mains voltage
and mains filter according to the robot controller.
One transformer and one mains switch are included.
371/372
373
374
375
46
Drive unit GT, for 4 or 6 motors. Recommended motor types see Figure 23.
Drive unit ECB, for 3 or 6 motors. Recommended motor types see Figure 23.
Drive unit GT + ECB
Drive unit GT + GT + ECB
Product Specification S4Cplus M2000/BaseWare OS 4.0
Specification of Variants and Options
Drive unit
identity
Motor max
current Arms
Drive unit rated
current Arms
Suitable motor
type
W
11.5-57
30
XL
V
5.5-26
14.5
XL
U
11 - 55A
24A
M, L
G
6 - 30A
16A
S, M, L
T
7.5-37
20
S, M, L, XL
E
4 - 19A
8,4A
S, M
C
2,5 - 11A
5A
S
B
1,5 - 7A
4A
S
Figure 23 Motor selection table. Motor types according to external axes Motor Unit.
380 Drive unit DDU-U
A separate box (H=500mm W=300mm D=250mm)
including a DC link DC4 and a drive unit GU where
the U part is used (the G part is not connected).
The DDU-U is operated from an additional axis computor,
included in the option.
DDU-U is mainly intended for Servo Gun solutions
according to options 703-706 and is available for IRB 4400
and 6400R.
381 Drive unit DDU-V
(IRB 6600/7600)
382 Drive unit DDU-VW (IRB 6600/7600)
383 Drive unit DDU-W
(IRB 6600/7600)
A separate box (H=500mm, W=300mm, D=250mm) including a DC link DC5
and a drive unit VW.
The box has 4 keyholes on the back of the encapsulation for fastening.
Connection cabling (length 5m) to the controller is included.
The DDU-VW is operated from an additional axis computer
included in the option, while the DDU-V and -W are operated
from the basic robot axes computer.
The options also include appropriate cabling inside the
manipulator for different resolver configurations, see
Product Specification IRB 6600, chapter Servo Gun.
E.g. 7 axes applications utilise the built in 7 resolver SMB.
The DDU-V and VW are mainly intended for Servo Gun
solutions according to options 701-706.
The DDU-W is intended for a Track Motion without
Servo Gun.
Product Specification S4Cplus M2000/BaseWare OS 4.0
47
Specification of Variants and Options
EQUIPMENTManipulator cable, external connectors
653 Standard
Cable length
641
642
643
644
649
7m
15 m, not available for IRB 140
22 m, not available for IRB 140
30 m, not available for IRB 140
3 m, only available for IRB 140
Manipulator connection (only available for IRB 340)
657 External (not for the SA-version i.e. WashDown)
658 Internal
Protection for manipulator cable
845 Each unit length is 2 m. Totally 40 m protection can be specified.
SERVICE OUTLET
Any of the following standard outlets with protective earthing can be chosen for
maintenance purposes.
The maximum load permitted is 500 VA (max. 100 W can be installed inside the
cabinet).
411 120 V in accordance with American standard; single socket, Harvey Hubble.
412 230 V mains outlet in accordance with DIN VDE 0620; single socket suitable for
EU countries.
POWER SUPPLY (to the service outlet)
431 Connection from the main transformer.
The voltage is switched on/off by the mains switch on the front of the cabinet.
432 Connection before mains switch without transformer.
Note this only applies when the mains voltage is 400 V, three-phase with neutral
connection and a 230 V service socket.
Note! Connection before mains switch is not in compliance with some national
standards, NFPL 79 for example.
MEMORY
Removable mass memory
320 Floppy drive
The disk drive normally works well at temperatures up to 40oC (104oF). The disk drive
48
Product Specification S4Cplus M2000/BaseWare OS 4.0
Specification of Variants and Options
will not deteriorate at higher temperatures but there will be an increase in the number
of reading/writing problems as the temperature increases.
Extended mass memory
310 Flash disc 128 Mb. Standard is 64 Mb
Product Specification S4Cplus M2000/BaseWare OS 4.0
49
Specification of Variants and Options
50
Product Specification S4Cplus M2000/BaseWare OS 4.0
Index
3 Index
A
absolute measurement 16
Allen-Bradley Remote I/O 23, 25, 40
analog signals 23, 27
automatic operation 15
B
backup
computer system backup 13
memory 11
base coordinate system 19
Big Inertia 21
bumps 12
C
cabinet wheels 32
CAN/DeviceNet 39
collision detection 6
communication 29
concurrent I/O 24
configuration 12, 13, 23
connection 48
mains supply 36
cooling device 3
coordinate systems 18
cross connections 23
cursor 7
event routine 16
explosive environments 12
extended memory 11
external axes 21
external panel 33
F
fire safety 6
flash disk memory 11
fly-by point 14
function keys 7
H
hold-to-run 8
hold-to-run control 6
humidity 12
I
I/O units 24
I/O-system 23
incremental jogging 20
inputs 23
installation 12
Interbus Slave 23, 25, 40
interrupt 24
J
jogging 20
joystick 8
D
L
diagnostics 17
digital signals 23, 26
display 7
distributed I/O 25
LAN/Ethernet 39
language 13
lighting
connection 48
teach pendant 35
E
editing
position 15
programs 15
emergency stop 6, 7
emergency stop button 8
enabling device 5, 8
display 7
Encoder interface unit 25, 41
M
mains supply 36
mains switch 36
mains voltage 35
maintenance 17
manipulator cable 48
length 48
protection 48
Product Specification S4Cplus M2000/BaseWare OS 4.0
51
Index
mass memory 11
memory
backup 11
extended 11
flash disk 11
mass storage 11
RAM memory 11
menu keys 7
mirroring 15
motion 18
motion keys 7
motion performance 18
Motion Supervision 20
Multitasking 24
N
navigation keys 7
noise level 3
O
object coordinate system 19
operating mode 9
operating mode selector 9, 34
operating requirements 12
operation 7
operator dialogs 13
operator’s panel 9, 33
options 31
outputs 23
over-speed protection 6
P
password 13, 15
performance 18
PLC functionality 24
position
editing 15
execution 20
programming 14, 19
position fixed I/O 24
power supply 12
production window 15
Profibus 39
Profibus DP Slave 23, 25, 41
program
editing 15
testing 15
52
programming 13
protection standards 12
Q
QuickMove 18
R
RAPID Language 16
reduced speed 5
S
safe manual movements 6
safeguarded space stop 6
delayed 6
safety 5
safety lamp 6
serial communication 29
service 17
service outlets 48
signal data 26
singularity handling 20
Soft Servo 21
space requirements 3
standards 5
stationary TCP 20
stop point 14
structure 3
system signals 27
T
TCP 19
teach pendant 7
cable 35
language 35
lighting 35
temperature 12
testing programs 15
tool coordinate system 19
tool’s centre point 19
trap routines 24
troubleshooting 17
TrueMove 18
U
user coordinate system 19
user-defined keys 8
Product Specification S4Cplus M2000/BaseWare OS 4.0
Index
V
variants 31
vibration 12
volume 3
W
window keys 7
windows 7
working space
restricting 6
world coordinate system 19
Product Specification S4Cplus M2000/BaseWare OS 4.0
53
Index
54
Product Specification S4Cplus M2000/BaseWare OS 4.0
Product Specification
RobotWare Options
3HAC 9218-1/Rev.2
BaseWare OS 4.0
The information in this document is subject to change without notice and should not be construed as a
commitment by ABB Automation Technology Products AB, Robotics. ABB Automation Technology
Products AB, Robotics assumes no responsibility for any errors that may appear in this document.
In no event shall ABB Automation Technology Products AB, Robotics be liable for incidental or
consequential damages arising from use of this document or of the software and hardware described
in this document.
This document and parts thereof must not be reproduced or copied without ABB Automation Technology Products AB, Robotics’ written permission, and contents thereof must not be imparted to a third
party nor be used for any unauthorized purpose. Contravention will be prosecuted.
Additional copies of this document may be obtained from ABB Automation Technology Products AB,
Robotics at its then current charge.
© ABB Automation Technology Products AB
Robotics
Article number: 3HAC 9218-1 Rev.2
Issue: BaseWare OS 4.0
ABB Automation Technology Products AB, Robotics
SE-721 68 Västerås
Sweden
Product Specification RobotWare Options
CONTENTS
Page
1 Introduction ..................................................................................................................... 3
2 BaseWare Options ........................................................................................................... 5
[544] Absolute Accuracy ....................................................................................... 5
[541] Load Identification and Collision Detection (LidCode) .............................. 7
[542] ScreenViewer ............................................................................................... 9
[532] Multitasking ................................................................................................. 11
[531] Advanced Motion ......................................................................................... 12
[530] Advanced Functions ..................................................................................... 14
[537] Developer’s Function ................................................................................... 19
[558] Discrete Application ..................................................................................... 22
[540] Conveyor Tracking ....................................................................................... 23
[533] Electronically Linked Motors ....................................................................... 24
[547] Sensor Synchronization ................................................................................ 25
[539] Sensor Interface ............................................................................................ 26
[561] Servo Tool Control ....................................................................................... 27
[631] Servo Tool Change ....................................................................................... 29
[535] RAP Communication ................................................................................... 31
[543] Ethernet Services .......................................................................................... 32
[534] FactoryWare Interface .................................................................................. 33
[271] Interbus Configuration Tool ......................................................................... 34
[270] Profibus DP Configuration Tool ................................................................... 35
[538] I/O Plus ......................................................................................................... 36
3 ProcessWare..................................................................................................................... 37
[551] ArcWare ........................................................................................................ 37
[552] ArcWare Plus ................................................................................................ 40
[556] Arcitec .......................................................................................................... 41
[553] SpotWare ...................................................................................................... 42
[554] SpotWare Plus .............................................................................................. 44
[625] SpotWare Servo ............................................................................................ 46
[626] SpotWare Servo Plus .................................................................................... 49
[569] DispenseWare ............................................................................................... 51
[571] PalletWare .................................................................................................... 53
4 Index ................................................................................................................................. 57
Product Specification RobotWare Options for BaseWare OS 4.0
1
Product Specification RobotWare Options
2
Product Specification RobotWare Options for BaseWare OS 4.0
Introduction
1 Introduction
RobotWare is a family of software products from ABB Automation Technology
Product AB, Robotics, designed to make you more productive and lower your cost of
owning and operating a robot.
ABB Automation Technology Product AB, Robotics has invested many man-years
into the development of these products and they represent knowledge and experience
based on several thousand robot installations.
Within the RobotWare family there are three classes of products:
BaseWare OS - This is the operating system of the robot and constitutes the kernel of
the RobotWare family. BaseWare OS provides all the necessary features for
fundamental robot programming and operation. It is an inherent part of the robot but
can be provided separately for upgrading purposes.
For the description of BaseWare OS, see Product Specification S4Cplus.
BaseWare Options - These products are options that run on top of BaseWare OS of the
robot. They represent functionality for robot users that need additional functionality,
for example run multitasking, transfer information from file to robot, communicate
with a PC, perform advanced motion tasks etc.
ProcessWare - ProcessWare products are designed for specific process applications
like welding, gluing and painting. They are primarily designed to improve the process
result and to simplify installation and programming of applications. These products
also run on top of BaseWare OS.
Product Specification RobotWare Options for BaseWare OS 4.0
3
Introduction
4
Product Specification RobotWare Options for BaseWare OS 4.0
[544] Absolute Accuracy
2 BaseWare Options
[544] Absolute Accuracy
Absolute Accuracy (AbsAcc) is a calibration concept, which ensures a TCP absolute
accuracy of better than ±1 mm in the entire working range.
The user is supplied with robot calibration data (error parameter file) and a certificate
that shows the performance (Birth Certificate).
The difference between an ideal robot and a real robot can be typically 8 mm, resulting
from mechanical tolerances and deflection in the robot structure. Absolute Accuracy
option is integrated in the controller algorithms for compensation of this difference,
and does not need external equipment or calculation.
Features
• Compensation of mechanical tolerances.
• Compensation of deflection due to load (tool, object and equipment on arm).
Applications
Any application where Absolute Accuracy is needed to facilitate:
- Exchangeability of robots
- Off-line programming with minimum touch-up.
- On-line programming with accurate linear movement as well as accurate
reorientation of tool
- Re-use of programs between applications
Controller algorithms
Inherent mechanical tolerances and deflection due to load in the robot structure
decrease the robot’s absolute accuracy. Practical compensation of such errors is a
complex and highly non-linear problem. The ABB solution is to compensate positions
internally in the controller, resulting in a defined and measurable robot TCP (Tool
Center Point) accuracy. A generic robot control model is used for each robot family and
robot individuals are described by a set of error parameters, generated during
calibration at ABB Automation Technology Products, Robotics. Accuracy of each
robot will be ascertained and verified through the “Birth Certificate” which statistically
describes the robot accuracy in a large sample of robot positions.
Product Specification RobotWare Options for BaseWare OS 4.0
5
[544] Absolute Accuracy
Performance
Once the Absolute Accuracy parameter file is loaded and activated, the robot can be
used.
Absolute Accuracy is active in:
- Motion function based on robtarget (MoveJ, MoveL, MoveC and ModPos)
- Reorientation jogging
- Linear jogging (no online compensation as the user defines the physical
location, but absolute coordinates are determined for the active pose and shown
in jogging window)
- Tool definition (4, 5, 6 point tool definition, room fixed TCP, stationary tool)
- Workobject definition
Absolute Accuracy is inactive in:
- Motion function based on a jointtarget (MoveAbsJ). Independent joint
- Joint based jogging
- External axes
- Track motion
- Any feature not listed in “Absolute Accuracy is active in”
For joint based motions, switching to the jogging window and selecting a cartesian jog
mode (Linear, Reorient) will show the correct absolute coordinates. Similarly creation
of a robtarget at a point taught by joint based motion will be absolutely accurate.
Requirements
Each Absolute Accuracy robot is shipped with an error parameter file that is unique to
that robot. This file must be loaded into the controller and subsequently activated in
order to use Absolute Accuracy. Absolute Accuracy functionality may also be
deactivated. Both actions require a cabinet restart.
Supported robot types
Please contact your local ABB office in order to get the latest list of supported robot
types.
RAPID instructions included in this option
No specific RAPID instructions are included.
6
Product Specification RobotWare Options for BaseWare OS 4.0
[541] Load Identification and Collision Detection (LidCode)
[541] Load Identification and Collision Detection (LidCode)
This option is available for the following robot families: IRB 140, IRB 1400,
IRB 2400, IRB 4400, IRB 6400 (not 640) IRB 7600 and for external manipulators IRBP-L,
IRBP-K, IRBP-R and IRBP-A.
Load identification is not available for the hanging variants of IRB 1400 and IRB 2400
robots.
LidCode contains two very useful features:
Load Identification
To manually calculate or measure the load parameters accurately can be very difficult
and time consuming. Operating a robot with inaccurate load parameters can have a
detrimental influence on cycle time and path accuracy.
With LidCode, the robot can carry out accurate identification of the complete load data
(mass, centre of gravity, and three inertia components). If applicable, tool load and
payload are handled separately.
The identification procedure consists of limited predefined movements of axes 3, 5 and
6 during approximately three minutes. The starting point of the identification motion
pattern can be chosen by the user so that collisions are avoided.
The accuracy achieved is normally better than 5%.
Collision Detection
Abnormal torque levels on any robot axis (not external axes) are detected and will
cause the robot to stop quickly and thereafter back off to relieve forces between the
robot and environment.
Tuning is normally not required, but the sensitivity can be changed from Rapid or
manually (the supervision can even be switched off completely). This may be
necessary when strong process forces are acting on the robot.
The sensitivity (with default tuning) is comparable to the mechanical alternative
(mechanical clutch) and in most cases much better. In addition, LidCode has the
advantages of no added stick-out and weight, no need for connection to the e-stop
circuit, no wear, the automatic backing off after collision and, finally, the adjustable
tuning.
Two system outputs reflect the activation and the trig status of the function.
RAPID instructions included in this option
MotionSup
ParIdRobValid
Changing the sensitivity of the collision detection or
activating/deactivating the function.
Checking that identification is available for a specific robot
type.
Product Specification RobotWare Options for BaseWare OS 4.0
7
[541] Load Identification and Collision Detection (LidCode)
ParIdPosValid
LoadId
MechUnitLoad
8
Checking that the current position is OK for identification.
Performing identification.
Definition of payload for external mechanical units.
Product Specification RobotWare Options for BaseWare OS 4.0
[542] ScreenViewer
[542] ScreenViewer
This option adds a user window to display user defined screens with advanced display
functions. The user window can be displayed at any time, regardless of the execution
state of the RAPID programs.
User defined screens
The user defined screens are composed of:
• A fixed background with a size of 12 lines of 40 characters each. These characters
can be ASCII and/or horizontal or vertical strokes (for underlining, separating or
framing).
• 1 to 5 function keys.
• 1 to 4 pop-up menus containing from 1 to 10 choices.
• 1 to 30 display and input fields defined by:
- Their position and size.
- Their type (display, input).
- Their display format (integer, decimal, binary, hexadecimal, text).
- A possible boundary with minimum and maximum limits.
Example of a user defined screen. The ### represent the fields.
SpotTim
Program number: ###
PHASES
SQUEEZE
PREHEAT
COOLING
## HEAT
COLD
LASTCOLD
POSTHEAT
HOLD
Next
View
File
| XT
| ##
| ##
| ##
| ##
| ##
| ##
| ##
| ##
| CURENT (A)
| START | END
|
|
| ####
|
|
| ####
| ####
|
|
|
|
|
| ####
| ####
|
|
Prev.
(Copy)
Heat stepper: ###
interpolated: ##
|
| Tolerance: ###%
| Force: ###daN
| Forge: ###daN
|
| Fire chck: ###
|
| Err allow: ###%
| Numb err: ###
Valid
Advanced Display functions
The user defined screens run independently of the RAPID programs.
Some events occur on a screen (new screen displayed, menu choice selected, function
key pressed, field modified, ...). A list of user screen commands can be associated with
any of these events, then when the event occurs, the command list will be executed.
Product Specification RobotWare Options for BaseWare OS 4.0
9
[542] ScreenViewer
A screen event can occur
- When a new screen is displayed (to initialize the screen contents).
- After a chosen interval (to refresh a screen).
- When a menu choice or a function key is selected (to execute a specific action,
or change the screen).
- When a new value is entered in a field, or when a new field is selected (to execute some specific action).
The commands that can be executed on screen events are
- Reading/writing RAPID or I/O data.
- Reading/writing fields contents.
- Arithmetical (+, -, /, *, div) or logical (AND, OR, NOT, XOR) operations on the
data read.
- Comparing data read (=, <, >) and carrying out a command or not, depending
on the comparison result.
- Displaying a different screen.
Capacities
The user screens can be grouped in a screen package file under a specific name. Up to
8 packages can be loaded at the same time.
A certain amount of memory (approx. 50 kbytes) is reserved for loading these screen
packages.
- The screen package to be displayed is selected using the far right hand menu
“View” (which shows a list of the screen packages installed).
ScreenMaker
ScreenMaker is a complete tool for creating and editing screens for the ScreenViewer
on desktop computers running Windows 95/98 or Windows NT.
See ScreenMaker Product Specification.
10
Product Specification RobotWare Options for BaseWare OS 4.0
[532] Multitasking
[532] Multitasking
Up to 10 programs (tasks) can be executed in parallel with the normal robot program.
- These additional tasks start automatically at power on and will continue until
the robot is powered off, i.e. even when the main process has been stopped and
in manual mode.
- They are programmed using standard RAPID instructions, except for motion
instructions.
- They can be programmed to carry out various activities in manual or automatic
mode, and depending on whether or not the main process is running.
- Communication between tasks is carried out via I/O or global data.
- Priorities can be set between the processes.
Examples of applications:
- The robot is continuously monitoring certain signals even when the robot
program has stopped, thus taking over the job traditionally allocated to a PLC.
- An operator dialogue is required at the same time as the robot is doing, for
example, welding. By putting this operator dialogue into a background task, the
operator can specify input data for the next work cycle without having to stop
the robot.
- The robot is controlling a piece of external equipment in parallel with the
normal program execution.
Performance
When the various processes are programmed in the correct way, no performance
problems will normally occur:
- When the priorities for the various processes are correctly set, the normal
program execution of the robot will not be affected.
- Because monitoring is implemented via interrupts (instead of checking
conditions at regular intervals), processor time is required only when
something actually happens.
- All input and output signals are accessible for each process.
Note that the response time of Multitasking does not match that of a PLC. Multitasking
is primary intended for less demanding tasks. The normal response time is about 5 ms,
but in the worst cases, e.g. when the processor is computing new movements, it can be
up to 120 ms.
The available program memory can be divided up arbitrarily between the processes.
However, each process in addition to the main process will reduce the total memory,
see Product Specification S4Cplus.
Product Specification RobotWare Options for BaseWare OS 4.0
11
[531] Advanced Motion
[531] Advanced Motion
Contains functions that offer the following possibilities:
- Resetting the work area for an axis.
- Independent movements.
- Contour tracking.
- Coordinated motion with external manipulators.
Resetting the work area for an axis
The current position of a rotating axis can be adjusted a number of complete turns
without having to make any movements.
Examples of applications:
- When polishing, a large work area is sometimes needed on the robot axis 4 or
axis 6 in order to be able to carry out final polishing without stopping. Assume
that the axis has rotated 3 turns, for example. It can now be reset using this
function, without having to physically rotate it back again. Obviously this will
reduce cycle times.
- When arc welding, the work object is often fitted to a rotating external axis. If
this axis is rotated more than one turn during welding, the cycle time can be
reduced because it is not necessary to rotate the axis back between welding
cycles.
Coordinated motion with multi-axis manipulators
Coordinated motion with multi-axis manipulators or robot carriers (gantries) requires
the Advanced Motion option. Note that simultaneous coordination with several single
axis manipulators, e.g. track motion and workpiece manipulator, does not require
Advanced Motion.
Note! There is a built-in general method for defining the geometry for a manipulator
comprising two rotating axes (see User’s Guide, Calibration). For other types of
manipulators/robot carriers, comprising up to six linear and/or rotating axes, a special
configuration file is needed. Please contact your nearest local ABB office.
Contour tracking
Path corrections can be made in the path coordinate system. These corrections will take
effect immediately, also during movement between two positions. The path corrections
must be entered from within the program. An interrupt or multitasking is therefore
required to activate the correction during motion.
Example of application:
- A sensor is used to define the robot input for path correction during motion.
The input can be defined via an analog input, a serial channel or similar.
Multitasking or interrupts are used to read this information at specific intervals.
Based on the input value, the path can then be adjusted.
12
Product Specification RobotWare Options for BaseWare OS 4.0
[531] Advanced Motion
Independent movements
A linear or rotating axis can be run independently of the other axes in the robot system.
The independent movement can be programmed as an absolute or relative position.
A continuous movement with a specific speed can also be programmed.
Examples of applications:
- A robot is working with two different stations (external axes). First, a work
object located at station 1 is welded. When this operation is completed, station
1 is moved to a position where it is easy to change the work object and at the
same time the robot welds the work object at station 2. Station 1 is moved
independently of the robot’s movement, which simplifies programming and
reduces the cycle time.
- The work object is located on an external axis that rotates continuously at a
constant speed. In the mean time, the robot sprays plasma, for example, on the
work object. When this is finished the work area is reset for the external axis in
order to shorten the cycle time.
Friction Compensation
During low speed (10-100 mm/s) cutting of fine profiles, in particular small circles, a
friction effect, typically in the form of approximately 0.5 mm “bumps”, can be noted.
Advanced Motion offers a possibility of compensating for these frictional effects.
Typically a 0.5 mm “bump” can be reduced to about 0.1 mm. This, however, requires
careful tuning of the friction level (see User’s Guide for tuning procedure). Note that
even with careful tuning, there is no guarantee that “perfect” paths can always be
generated.
For the IRB 6400 family of robots, no significant effects can be expected by applying
Friction Compensation.
RAPID instructions and functions included in this option
IndReset
IndAMove
IndDMove
IndRMove
IndCMove
IndInpos
IndSpeed
CorrCon
CorrWrite
CorrRead
CorrDiscon
CorrClear
Resetting the work area for an axis
Running an axis independently to an absolute position
Running an axis independently for a specified distance
Running an axis independently to a position within one
revolution, without taking into consideration the number of turns
the axis had rotated earlier
Running an axis continuously in independent mode
Checking whether or not an independent axis has reached the
programmed position
Checking whether or not an independent axis has reached the
programmed speed
Activating path correction
Changing path correction
Read current path correction
Deactivating path correction
Removes all correction generators
Product Specification RobotWare Options for BaseWare OS 4.0
13
[530] Advanced Functions
[530] Advanced Functions
Includes functions making the following possible:
- Information transfer via serial channels or files.
- Setting an output at a specific position.
- Checking signal value at a specific position.
- Executing a routine at a specific position.
- Defining forbidden areas within the robot´s working space.
- Automatic setting of output when the robot is in a user-defined area.
- Robot motion in an error handler or trap routine, e.g. during automatic error
handling.
- Cross connections with logical conditions.
- Interrupts from analog input or output signals.
Transferring information via serial channels
Data in the form of character strings, numeric values or binary information can be
transferred between the robot and other peripheral equipment, e.g. a PC, bar code
reader, or another robot. Information is transferred via an RS232 or RS485 serial
channel.
Examples of applications:
- Printout of production statistics on a printer connected to the robot.
- Reading part numbers from a bar code reader with a serial interface.
- Transferring data between the robot and a PC.
The transfer is controlled entirely from the robot’s work program. When it is required
to control the transfer from a PC, use the option RAP Communication or FactoryWare
Interface.
Data transfer via files
Data in the form of character strings, numerical values or binary information can be
written to or read from files on a diskette or other type of mass storage/memory.
Examples of applications:
- Storing production statistics on a diskette or flashdisk. This information can
then be read and processed by an ordinary PC.
- The robot’s production is controlled by a file. This file may have been created
in a PC, stored on a diskette, and read by the robot at a later time.
14
Product Specification RobotWare Options for BaseWare OS 4.0
[530] Advanced Functions
Fixed position output
The value of an output (digital, analog or a group of digitals) can be ordered to change
at a certain distance before or after a programmed position. The output will then change
at the same place every time, irrespective of the robot’s speed.
Consideration can also be given to time delays in the process equipment. By specifying
this time delay, the output is set at the corresponding time before the robot reaches the
specified position.
The distance can also be specified as a certain time before the programmed position.
This time (max. 500 ms) must be within the deceleration time when approaching that
position.
Examples of applications:
- Handling press work, to provide a safe signalling system between the robot and
the press, which will reduce cycle times. Just as the robot leaves the press, an
output is set that starts the press.
- Starting and finishing process equipment. When using this function, the start
will always occur at the same position irrespective of the speed. For dispensing
and sealing, see DispenseWare.
Fixed position IO check
The value of an input/output signal (digital, analog or group) can be checked at a certain
distance before or after a programmed position. The signal will then be checked at the
same place every time, irrespective of the robot's speed.
The distance can also be specified as a certain time (max 500 ms) before the
programmed position.
The data being checked is compared with a certain programmed value and if the
comparison is false, the robot will stop and an interrupt routine will be executed. In the
interrupt routine appropriate error handling can be executed.
Examples of applications:
- A robot is used for extraction of parts from a die casting machine. Before entering the machine the robot can check, in the fly, if the gate is open. If not, the
robot will stop and, in the interrupt routine, wait for the gate to open.
Fixed position procedure call
A procedure call can be carried out when the robot passes the middle of a corner zone.
The position will remain the same, irrespective of the robot’s speed.
Example of application:
- In the press example above, it may be necessary to check a number of logical
conditions before setting the output that starts the press. A procedure which
takes care of the complete press start operation is called at a position just outside
the press.
Product Specification RobotWare Options for BaseWare OS 4.0
15
[530] Advanced Functions
World Zones
A spherical, cylindrical or cubical volume can be defined within the working space.
When the robot reaches this volume it will either set an output or stop with the error
message “Outside working range”, both during program execution and when the robot
is jogged into this area. The areas, which are defined in the world coordinate system,
can be automatically activated at start-up or activated/deactivated from within the
program.
Examples of applications:
- A volume is defining the home position of the robot.
When the robot is started from a PLC, the PLC will check that the robot is
inside the home volume, i.e. the corresponding output is set.
- The volume is defining where peripheral equipment is located within the
working space of the robot.
This ensures that the robot cannot be moved into this volume.
- A robot is working inside a box.
By defining the outside of the box as a forbidden area, the robot cannot run into
the walls of the box.
- Handshaking between two robots both working in the same working space.
When one of the robots enters the common working space, it sets an output and
after that enters only when the corresponding output from the other robot is
reset.
Movements in interrupt routines and error handlers
This function makes it possible to temporarily interrupt a movement which is in
progress and then start a new movement which is independent of the first one. The
robot stores information about the original movement path which allows it to be
resumed later.
Examples of applications:
- Cleaning the welding gun when a welding fault occurs. When a welding fault
occurs, there is normally a jump to the program’s error handler. The welding
movement in progress can be stored and the robot is ordered to the cleaning
position so that the nozzle can be cleaned. The welding process can then be
restarted, with the correct parameters, at the position where the welding fault
occurred. This is all automatic, without any need to call the operator. (This
requires options ArcWare or ArcWare Plus.)
- Via an input, the robot can be ordered to interrupt program execution and go to
a service position, for example. When program execution is later restarted
(manually or automatically) the robot resumes the interrupted movement.
Cross-connections with logical conditions
Logical conditions for digital input and output signals can be defined in the robot’s
system parameters using AND, OR and NOT. Functionality similar to that of a PLC
can be obtained in this way.
16
Product Specification RobotWare Options for BaseWare OS 4.0
[530] Advanced Functions
Example:
- Output 1 = Input 2 AND Output 5.
- Input 3 = Output 7 OR NOT Output 8.
Examples of applications:
- Program execution to be interrupted when both inputs 3 and 4 become high.
- A register is to be incremented when input 5 is set, but only when output 5=1
and input 3=0.
Interrupts from analog input or output signals
An interrupt can be generated if an analog input (or output) signal falls within or outside
a specified interval.
RAPID instructions and functions included in this option
Open
Close
Write
WriteBin
WriteStrBin
ReadNum
ReadStr
ReadBin
Rewind
WriteAnyBin
ReadAnyBin
ReadStrBin
ClearIOBuff
WZBoxDef
WZCylDef
WZLimSup
WZSphDef
WZDOSet
WZDisable
WZEnable
WZFree
StorePath
RestoPath
TriggC
TriggL
TriggJ
TriggIO
TriggEquip
TriggCheckIO
TriggInt
MoveCSync
MoveLSync
Opens a file or serial channel
Closes a file or serial channel
Writes to a character-based file or serial channel
Writes to a binary file or serial channel
Writes a string to a binary serial channel
Reads a number from a file or serial channel
Reads a string from a file or serial channel
Reads from a binary file or serial channel
Rewind file position
Write data to a binary serial channel or file
Read data from a binary serial channel or file
Read a string from a binary serial channel or file
Clear input buffer of a serial channel
Define a box shaped world zone
Define a cylinder shaped world zone
Activate world zone limit supervision
Define a sphere shaped world zone
Activate world zone to set digital output
Deactivate world zone supervision
Activate world zone supervision
Erase world zone supervision
Stores the path when an interrupt or error occurs
Restores the path after an interrupt/error
Position fix output/interrupt during circular movement
Position fix output/interrupt during linear movement
Position fix output/interrupt during joint movement
Definition of trigger conditions for one output
Definition of trigger conditions for process equipment with
time delay
Definition of trigger condition for check of signal value
Definition of trigger conditions for an interrupt
Position fix procedure call during circular movement
Position fix procedure call during linear movement
Product Specification RobotWare Options for BaseWare OS 4.0
17
[530] Advanced Functions
MoveJSync
ISignalAI
ISignalAO
18
Position fix procedure call during joint movement
Interrupts from analog input signal
Interrupts from analog output signal
Product Specification RobotWare Options for BaseWare OS 4.0
[537] Developer’s Function
[537] Developer’s Function
This option is intended to be used by application developers requiring more advanced
functions than normally available for an end user. The package includes a detailed
reference manual on the RAPID language kernel and a number of instruction and
function groups useful for different application development as listed below.
The groups are:
- Bit Functions
- Data Search Functions
- RAPID Support Functions
- Power Failure Functions
- Trigg Functions
- File Operation Functions
RAPID Kernel Reference Manual
The manual describes the RAPID language syntax and semantics in detail concerning
the kernel, i.e. all general language elements which are not used to control robot or
other equipment. In addition to this the manual includes descriptions on:
- Built-in Routines
- Built-in Data Objects
- Built-in Objects
- Intertask Objects
- Text Files
- Storage allocation for RAPID objects
Bit Functions
This is a package for handling, i.e. setting, reading and clearing, individual bits in a
byte. The instructions/functions are:
byte
BitSet
BitClear
BitCheck
BitAnd
BitOr
BitXOr
BitNeg
BitLSh
BitRSh
Data type for a byte data
Set a specified bit in a byte
Clear a specified bit in a byte
Check if a specified bit in a byte is set
Logical bitwise AND operation on byte
Logical bitwise OR operation on byte
Logical bitwise XOR operation on byte
Logical bitwise NEGATION operation on byte
Logical bitwise LEFT SHIFT operation on byte
Logical bitwise RIGHT SHIFT operation on byte
Product Specification RobotWare Options for BaseWare OS 4.0
19
[537] Developer’s Function
Data Search Functions
With these functions it is possible to search all data in a RAPID program, where the
name or the data type is given as a text string. This might be useful for instance in the
following examples:
- A common problem is to check if a data with a certain name is declared in the
system, and in such case what is its value, e.g.a robtarget
- Another problem is to list all variables of a certain datatype, which are declared
in the system, and write their values on the screen, e.g. all weld data.
The following instructions/functions are included in the package:
SetDataSearch
Define the search criteria
GetNextSym
Search next data and get its name as a string
GetDataVal
Get the value of a data, specified with a string for the name
SetDataVal
Set the value of a data, specified with a string for the name
RAPID Support Functions
This package includes a number of miscellaneous instructions etc., which are used in
application development.
User defined data typesThis will make it possible to create your own data types, like a
record definition
20
AliasIO
Instruction used to define a signal of any type with an alias
(alternative) name. The instruction can be used to make
generic modules work together with site specific I/O, without
changing the program code.
ArgName
Function used inside a routine to get the name of a data object,
which is referenced as argument in the call of the routine. The
name is given as a string. The function can also be used to convert the identifier of a data into a string.
BookErrNo
Instruction used to book a new RAPID system error number.
This should be used to avoid error number conflicts if different
generic modules are combined in a system.
TextTabGet
Function used to get the text table number of a user defined
text table during runtime.
TextGet
Function used to get a text string from the system text tables
(installed at cold start).
TextTabInstall
Instruction used to install a text table in the system.
TextTabFreeToUse
Function to test whether the text table name (text resource
string) is free to use.
IsSysId
Function used to test the system identity.
SetSysData
Instruction which will activates the specified system data (tool
or workobject). With this instruction it is possible to change
the current active tool or workobject.
Product Specification RobotWare Options for BaseWare OS 4.0
[537] Developer’s Function
IsStopStateEvent
Function which will return information about the movement of
the Program Pointer (PP).
ReadCfgData
Read system configuration data.
WriteCfgData
Write system configuration data.
Power Failure Functions
The package is used to get I/O signal values before power failure and to reset them at
power on. The following instructions are included and are normally used in the power
on event routine:
PFIOResto
Restore the values of all digital output signals.
PFDOVal
Get the value of the specified digital output signal at the time
for power failure.
PFGOVal
Get the value of the specified digital output group at the time
for power failure.
PFRestart
Check if path has been interrupted.
Trigg Functions
TriggSpeed
Instruction to define conditions and actions for control of an
analog output signal with an output value proportional to the
actual TCP speed.
Note that this instruction must be used in combination with a
TriggL/C/J instruction (see [530] Advanced Functions).
StepBwdPath
Instruction used to move backward on its path in a RESTART
event routine.
TriggStopProc
Generation of restart data at program stop or emergency stop.
File Operation Functions
The package includes instructions and functions to work with directories and files on
mass memory like floppy disc, flash disc or hard disc. It can be used when creating
application packages, using RAPID, where RAPID programs and modules should be
loaded or stored. It can also be used to search for all files in different directories and
e.g. list them on the teach pendant.
The following instructions and functions are available:
dir
MakeDir
OpenDir
CloseDir
RemoveDir
ReadDir
RemoveFile
IsFile
Datatype for variables referencing a directory
Create a new directory
Open a directory to read the underlaying files or subdirectories
Close a directory
Delete a directory
Read next object in a directory, file or subdirectory
Delete a file
Check the type of a file
Product Specification RobotWare Options for BaseWare OS 4.0
21
[537] Developer’s Function
FileSize
FSSize
22
Get the size of a file
Get the size of a file system
Product Specification RobotWare Options for BaseWare OS 4.0
[558] Discrete Application
[558] Discrete Application
Discrete Applications Platform (DAP) is a software platform for time critical
applications, where certain actions shall be performed at specific robot positions.
Target users are advanced application software engineers and system integrators, e.g.
for spot welding, drilling, measuring, quality control. The main advantages are
achieved in the following areas:
- Development time
- Program execution time.
- RAPID- program memory needed
- Similar “look and feel” between applications
- Tested kernel software
Features
• Specialized RAPID instructions and datatypes.
• A single instruction for motion and process execution.
• Combination of fine point positioning with execution of up to 4 parallel processes.
• Specialized process for monitoring of external process devices, like spot welding
controllers.
• Supports encapsulation of the process and motion, in shell-routines provided to the
end-user.
• The Advanced Functions option is included in DAP.
Application
Creation of software for advanced applications with a discrete behaviour, such as spot
welding, drilling, measuring, quality control.
Performance
C-code kernel and RAPID calls.
The DAP platform is designed to have an internal kernel, administrating the fast and
quality secured process sequence skeleton. The kernel calls RAPID routines, which are
prepared by the application writer to fulfil the specific tasks. The application developer
regulates the degree of flexibility of the end-user.
Requirements
There are no other requirements than S4CPlus cabinet and BaseWare.
Rapid instructions included in this option
See RAPID Discrete Application Platform User’s Guide.
22
Product Specification RobotWare Options for BaseWare OS 4.0
[540] Conveyor Tracking
[540] Conveyor Tracking
Conveyor Tracking (also called Line Tracking) is the function whereby the robot
follows a work object which is mounted on a moving conveyor. While tracking the
conveyor, the programmed TCP speed relative to the work object will be maintained,
even when the conveyor speed is changing slowly.
Note that hardware components for measuring the conveyor position are also necessary
for this function. Please refer to the Product Specification for your robot.
Conveyor Tracking provides the following features:
- A conveyor can be defined as either linear or circular.
- It is possible to have four conveyors connected simultaneously and to switch
between tracking the one or the other.
- Up to 254 objects can reside in an object queue which can be manipulated by
RAPID instructions.
- It is possible to define a start window in which an object must be before tracking can start.
- A maximum tracking distance may be specified.
- If the robot is mounted on a parallel track motion, then the system can be configured such that the track will follow the conveyor and maintain the relative
position to the conveyor.
- Tracking of a conveyor can be activated “on the fly”, i.e. it is not necessary to
stop in a fine point.
Performance
At 150 mm/s constant conveyor speed, the TCP will stay within ±2 mm of the path as
seen with no conveyor motion. When the robot is stationary relative to the conveyor,
the TCP will remain within 0.7 mm of the intended position.
These values are valid as long as the robot is within its dynamic limits with the added
conveyor motion and they require accurate conveyor calibration.
RAPID instructions included in this option
WaitWObj
DropWObj
Connects to a work object in the start window
Disconnects from the current object
Product Specification RobotWare Options for BaseWare OS 4.0
23
[533] Electronically Linked Motors
[533] Electronically Linked Motors
This option is used to make master/slave configurations of motors, which are defined
as external axes. The main application is to replace mechanical driving shafts of Gantry
machines, but the option can be used to control any other set of motors as well.
Features
• Up to 4 master motors.
• Up to 11 motors total (masters and followers).
• Jogging and calibration routines.
• Replacement of mechanical driving shafts.
• Arm/Motor position available on the TPU.
• Possibility to activate/deactivate link during process.
• Automatic calibration at startup.
Application
Gantry machines: to replace mechanical driving shafts.
Requirements
There are no software or hardware requirements for this option.
Performance
- When jogging, the electronically linked motors will follow the master motor
- Calibration – running follower motors independent of the master - is performed
through a RAPID calibration program, to ensure high personnel safety
- At startup, a routine will automatically set the master- and follower motors at
the start position, through a safe maneuver
RAPID instruction included in this option
There are no RAPID instructions included in this option.
24
Product Specification RobotWare Options for BaseWare OS 4.0
[547]Sensor Synchronization
[547] Sensor Synchronization
Sensor Synchronization adjusts the robot speed to an external moving device (e.g. a
press or conveyor) with the help of a sensor. This option simplifies programming and
improves productivity of any loading /unloading application since it provides
automatic sensor status check and speed adjustment.
The robot TCP speed will be adjusted in correlation to the sensor output so that the
robot will reach the programmed robtargets at the same time as the external device
reaches their programmed positions. The synchronization is started/stopped with a new
instruction, SyncToSensor, combined with movement instructions (fine points or
corner zones).
Note that hardware components for measuring the sensor output are needed for this
function. The same hardware as for Conveyor Tracking is used: encoder and canbus
boards. Please refer to the Product Specification for your robot.
Features
• Up to 4 sensors/robot.
• “On-the-fly” activation.
• Valid for any type of movement.
• RAPID access to sensor and queue data.
• Object queue: the same functionality as conveyor tracking.
Applications
Press synchronization
“Side robot”or “Top_Robot “ (1 plane work robot NOFAC), paint application
Performance
The TCP will stay within ±50ms delay of the teached sensor position with linear sensor
and constant sensor speed.
Rapid instructions included in this option
SyncToSensor
WaitSensor
DropSensor
Start/stop synchronization
Connect to an object in the start window
Disconnect from current object
Product Specification RobotWare Options for BaseWare OS 4.0
25
[539] Sensor Interface
[539] Sensor Interface
The Sensor Interface option can be used to integrate sensor equipment for adaptive
control, like path correction or process tuning. The option includes a driver for serial
communication with the sensor system using a specific link protocol (RTP1) and a
specific application protocol (LTAPP). The communication link makes it easy to
exchange data between the robot controller and the sensor system, using predefined
numbers for different data like x,y,z offset values, gap between sheets, time stamp etc.
Features
• Interrupt routines, based on sensor data changes.
• Read/write sensor data from/to sensors using RAPID functions.
• Store/retrieve sensor data as a block to/from a mass memory.
• Seam tracking functionality, when combined with option Advanced Motion, based
on using the contour tracking (path correction) functionality.
Application
In any application where it is wanted to read/control a sensor during execution, and to
react on changes in certain data, like path offset or process supervisory data, thus
making adaptive seam tracking and process control possible.
Requirements
External sensors communicating with the robot controller via serial links.
RAPID instruction included in this option
IVarValue
ReadBlock
ReadVar
WriteBlock
WriteVar
26
Used to order and enable an interrupt when the value of a
variable accessed via the serial sensor interface has been
changed
Used to read a block of data from a device connected to the
serial sensor interface
Used to read a variable from a device connected to the serial
sensor interface
Used to write a block of data to a device connected to the serial
sensor interface
Used to write a variable to a device connected to the serial
sensor interface
Product Specification RobotWare Options for BaseWare OS 4.0
[561] Servo Tool Control
[561] Servo Tool Control
The Servo Tool Control is a general and flexible software platform for controlling an
integrated servo tool from S4CPlus. For additional features, like control of external
processes, or control of several ServoGuns in parallel, please refer to the option
SpotWare Servo.
Target users are advanced system integrators who want to develop customer specific
application software, such as spotwelding packages.
As a “quick-start”, the option includes an example code package. This package can be
used as a base for application development.
Features
• Position control (gap).
• Force control.
• Dynamic and kinematic model (tool configured as external axis).
• Example code package.
Application
Spot Welding with Servo Guns: The option provides advanced control functionality for
Servo Guns. Communication with Weld timers and other process control functionality
needs to be implemented outside this option. For a total spot welding package, please
refer to the option SpotWare Servo.
Performance
The tool is configured as an external axis, which ensures optimal performance,
regarding path following and speed. (Dynamic and kinematic model.)
The option Servo Tool Change can be added to the system in order to allow a switch
between two or more servo tool, which will then utilize the same drive unit and
measurement board.
Requirements
• Motion parameter file
A specific servo tool parameter file has to be installed in the controller, for each
servo tool. The parameter file is optimized for each system, concerning system
behaviour and motion/process performance.
• Drive Module & Measurement board
See User’s Guide External Axes.
Product Specification RobotWare Options for BaseWare OS 4.0
27
[561] Servo Tool Control
Rapid instructions included in this option
STClose
STOpen
STCalib
STTune
STTuneReset
STIsClosed
STIsOpen
STCalcTorque
STCalcForce
28
Close a Servo Tool with a predefined force and thickness
Open a Servo Tool
Calibrate a Servo Tool
Tune motion parameters for a Servo Tool
Reset tuned motion parameters
Test if a Servo Tool is closed
Test if a Servo Tool is open
Calculate the motor torque for a Servo Tool
Calculate the programmable force for a Servo Tool
Product Specification RobotWare Options for BaseWare OS 4.0
[631] Servo Tool Change
[631] Servo Tool Change
Servo Tool Change enables an on-line change of tools (external axes), for a certain drive- and
measurement system. The control is switched between the axes by switching the motor cables
from one servo motor to another. The switch is performed on-line, during production.
The main advantages are:
- Flexibility in the production process
One robot handles several tools
- Minimized equipment
A single drive-measurement system shared by many tools
Features
• On-line change of tools.
• Up to 8 different tools.
Application
Servo gun changing; Robot held servo guns, designed for different reach and weld
forces, equipped with different brands and sizes of servo motors, may be held and
operated by a robot, switching from one servo gun to another.
Servo Tool Change can be used as an independent option, or as an addition to the
SpotWare Servo or Servo Toool Control options.
Requirements
Servo Tool Change requires a mechanical wrist interface, a Tool Changer.
A MOC service parameter, Disconnect deactive = YES (Types: Measurement
channel), must be set for each tool (external axis) used with this function.
Performance
When switching tools, the following steps are performed (switching from Axis 1 to
Axis 2):
- Axis 1 is deactivated using the RAPID instruction DeactUnit.
- Axis 1 is disconnected from the motor cables.
- Axis 2 is connected to the motor cables.
- Axis 2 is activated using RAPID instruction ActUnit.
After activation, Axis 2 is ready to run.
Product Specification RobotWare Options for BaseWare OS 4.0
29
[631] Servo Tool Change
The motor position at the moment of deactivation of one axis is saved and restored next
time the axis is activated. Note: The motor position must not change more than half a
motor revolution, when the axis is disconnected. In SpotWare Servo, there is a
calibration routine, which handles larger position changes.
RAPID instructions included in this option
There are no specific RAPID instructions included in this option.
30
Product Specification RobotWare Options for BaseWare OS 4.0
[535] RAP Communication
[535] RAP Communication
This option is required for all communication with a superior computer, where none of
the WebWare products are used. It includes the same functionality described for the
option Factory Ware Interface.
It also works for the WebWare products. There is no difference from the FactoryWare
Interface (except that the price is higher).
Note that both FactoryWare Interface and RAP Communication can be installed
simultaneously.
Product Specification RobotWare Options for BaseWare OS 4.0
31
[543] Ethernet Services
[543] Ethernet Services
FTP
This option includes the same functionality as described for Ethernet Services NFS
except that the protocol used for remote mounted disc functionality is FTP.
The aspect of authorization differs between NFS and FTP.
Examples of applications:
- All programs for the robot are stored in the PC. When a new part is to be
produced, i.e. a new program is to be loaded, the program can be read directly
from the hard disk of the PC. This is done by a manual command from the teach
pendant or an instruction in the program. If the option RAP Communication or
FactoryWare Interface is used, it can also be done by a command from the PC
(without using the ramdisk as intermediate storage).
- Several robots are connected to a PC via Ethernet. The control program and the
user programs for all the robots are stored on the PC. A software update or a
program backup can easily be executed from the PC.
NFS
Information in mass storage, e.g. the hard disk in a PC, can be read directly from the
robot using the NFS protocol. The robot control program can also be booted via
Ethernet instead of using diskettes. This requires Ethernet hardware in the robot.
32
Product Specification RobotWare Options for BaseWare OS 4.0
[534] FactoryWare Interface
[534] FactoryWare Interface
This option enables the robot system to communicate with a PC. FactoryWare Interface
serves as a run-time license for WebWare, i.e. the PC does not require any license
protection when executing a WebWare based application.
Factory Ware Interface includes the Robot Application Protocol (RAP). The Robot
Application Protocol is used for computer communication. The following functions are
supported:
- Start and stop program execution
- Transfer programs to/from the robot
- Transfer system parameters to/from the robot
- Transfer files to/from the robot
- Read the robot status
- Read and write data
- Read and write output signals
- Read input signals
- Read error messages
- Change robot mode
- Read logs
RAP communication is available both for serial links and network, as illustrated by the
figure below.
RAP
RPC (Remote Procedure Call)
TCP/IP
Standard protocols
SLIP
Ethernet
RS232/RS422
Examples of applications:
- Production is controlled from a superior computer. Information about the robot
status is displayed by the computer. Program execution is started and stopped
from the computer, etc.
- Transferring programs and parameters between the robot and a PC. When many
different programs are used in the robot, the computer helps in keeping track of
them and by doing back-ups.
RAPID instruction included in this option
SCWrite
Sends a message to the computer (using RAP)
Product Specification RobotWare Options for BaseWare OS 4.0
33
[271] Interbus-S Configuration Tool
[271] Interbus Configuration Tool
The Interbus Configuration Tool is used to configure the communication channels of
the DSQC 512 board. (See ‘I/O Interfaces’, in the S4Cplus Product Specification.)
The tool consists of standard PC software. The tool creates a bus configuration, which
is used by the controller.
34
Product Specification RobotWare Options for BaseWare OS 4.0
[270] Profibus DP Configuration Tool
[270] Profibus DP Configuration Tool
The Profibus Configuration Tool is used to configure the master channel of the
Profibus DP DSQC 510 board. (See ‘I/O Interfaces’, in the S4Cplus Product
Specification.)
The tool consists of standard PC software. The tool creates a bus configuration, which
is used in the robot controller.
Note: This tool is NOT needed for configuration and use of other channels than the
master channel of the DSQC 510 board.
Product Specification RobotWare Options for BaseWare OS 4.0
35
[538] I/O Plus
[538] I/O Plus
I/O Plus enables the S4Cplus to use non-ABB I/O units. The following units are
supported:
- Wago modules with DeviceNet fieldbus coupler, item 750-306 revision 3.
- Lutze IP67 module DIOPLEX-LS-DN 16E 744-215 revision 2
(16 digital input signals).
- Lutze IP67 module DIOPLEX-LS-DN 8E/8A 744-221 revision 1
(8 digital input signals and 8 digital output signals).
For more information on any of these units, please contact the supplier.
The communication between these units and S4Cplus has been verified (this does not,
however, guarantee the internal functionality and quality of the units). Configuration
data for the units is included.
In I/O Plus there is also support for a so-called “Welder”. This is a project specific spot
welding timer, and is not intended for general use.
In addition to the above units, the I/O Plus “Generic Driver” also opens up the
possibility to use other digital I/O units that conform with the DeviceNet specification.
ABB does not assume any responsibility for the functionality or quality of such units.
The user must provide the appropriate configuration data.
I/O Plus also opens up the use of the second DeviceNet channel named CAN2, the
configuration of the second channel is automatic if you have I/O Plus.
I/O Plus also opens up the DeviceNet Slave functionality, which allow the S4Cplus
controller to act as a slave unit towards another DeviceNet master, the configuration
data for the slave unit is included.
36
Product Specification RobotWare Options for BaseWare OS 4.0
[551] ArcWare
3 ProcessWare
[551] ArcWare
ArcWare comprises a large number of dedicated arc welding functions, which make the
robot well suited for arc welding. It is a simple yet powerful program since both the
positioning of the robot and the process control and monitoring are handled in one and
the same instruction.
I/O signals, timing sequences and weld error actions can be easily configured to meet
the requirements of a specific installation.
ArcWare functions
A few examples of some useful functions are given below.
Adaptation to different equipment
The robot can handle different types of weld controllers and other welding equipment.
Normally communication with the welding controller uses parallel signals but a serial
interface is also available.
Advanced process control
Voltage, wire feed rate, and other process data can be controlled individually for each
weld or part of a weld. The process data can be changed at the start and finish of a
welding process in such a way that the best process result is achieved.
Testing the program
When testing a program, welding, weaving or weld guiding can all be blocked. This
provides a way of testing the robot program without having the welding equipment
connected.
Automatic weld retry
A function that can be configured to order one or more automatic weld retries after a
process fault.
Weaving
The robot can implement a number of different weaving patterns up to 10 Hz
depending on robot type. These can be used to fill the weld properly and in the best
possible way. Weaving movement can also be ordered at the start of the weld in order
to facilitate the initial striking of the arc.
Product Specification RobotWare Options for BaseWare OS 4.0
37
[551] ArcWare
Wire burnback and rollback
These are functions used to prevent the welding wire sticking to the work object.
Fine adjustment during program execution
The welding speed, wire feed rate, voltage and weaving can all be adjusted whilst
welding is in progress. This makes trimming of the process much easier because the
result can be seen immediately on the current weld. This can be done in both manual
and automatic mode.
Seam finding and tracking
Seam finding and tracking can be implemented using a number of different types of
sensors. Please contact your nearest local ABB office for more information.
Interface signals
The following process signals are, if installed, handled automatically by ArcWare. The
robot can also support dedicated signals for workpiece manipulators and sensors.
38
Digital outputs
Power on/off
Gas on/off
Wire feed on/off
Wire feed direction
Weld error
Error information
Weld program number
Description
Turns weld on or off
Turns gas on or off
Turns wire feed on or off
Feeds wire forward/backward
Weld error
Digital outputs for error identification
Parallel port for selection of program number, or
3-bit pulse port for selection of program number, or
Serial CAN/Devicenet communication
Digital inputs
Arc OK
Voltage OK
Current OK
Water OK
Gas OK
Wire feed OK
Manual wire feed
Weld inhibit
Weave inhibit
Stop process
Wirestick error
Supervision inhibit
Torch collision
Description
Arc established; starts weld motion
Weld voltage supervision
Weld current supervision
Water supply supervision
Gas supply supervision
Wire supply supervision
Manual command for wire feed
Blocks the welding process
Blocks the weaving process
Stops/inhibits execution of arc welding instructions
Wirestick supervision
Program execution without supervision
Torch collision supervision
Analog outputs
Voltage
Wire feed
Current
Voltage adjustment
Current adjustment
Description
Weld voltage
Velocity of wire feed
Weld current
Voltage synergic line amplification
Current synergic line amplification
Product Specification RobotWare Options for BaseWare OS 4.0
[551] ArcWare
Analog inputs (cont.)
Description (cont.)
Voltage
Weld voltage measurement for monitoring and
supervision
Weld current measurement for monitoring and
supervision
Current
RAPID instructions included in this option
ArcL
ArcC
ArcKill
ArcRefresh
Arc welding with linear movement
Arc welding with circular movement
Aborts the process and is intended to be used in error
handlers
Updates the weld references to new values
Product Specification RobotWare Options for BaseWare OS 4.0
39
[552] ArcWare Plus
[552] ArcWare Plus
ArcWare Plus contains the following functionality:
- ArcWare, see previous chapter.
- Arc data monitoring.
Arc data monitoring with adapted RAPID instructions for process supervision.
The function predicts weld errors.
- Contour tracking during welding.
Path corrections during welding, i.e. when executing ArcL or ArcC
instructions, can be made relative to the path using external sensors like Serial
Weld Guide or Laser Track. Such corrections will take effect immediately, also
during movement between two positions. The correction data are sent from the
sensor system to the controller using a serial link and will automatically affect
the path through built in functionality.
Please note, that this option is compulsory for Serial Weld Guide systems
(AWC) or Laser Track systems (M-Spot 90).
- Contour tracking in normal movements (path corrections)
Path corrections can also be activated when running normal movements like
MoveL using specific RAPID path correction instructions.
This functionality is also a part of option Advanced Motion, see this option for
more information.
- Adaptive process control for e.g. sensors like LaserTrak and Serial Weld Guide
systems. The sensor can for instance provide the robot system with changes in
the shape of the seam. These values can then be used to adapt the process
parameters, like voltage or wire feed, to the current shape. (See option Sensor
Interface for more information)
RAPID instructions and functions included in this option
CorrCon
CorrWrite
CorrRead
CorrDiscon
CorrClear
SpcCon
SpcWrite
SpcDump
SpcRead
SpcDiscon
IVarValue
ReadBlock
ReadVar
WriteBlock
WriteVar
40
Activating path correction
Changing path correction
Read current path correction
Deactivating path correction
Removes all correction generators
Activates statistical process supervision
Provides the controller with values for statistical process supervision
Dumps statistical process supervision data to a file or on a
serial channel
Reads statistical process supervision information
Deactivates statistical process supervision
Orders a variable interrupt
Read a block of data from the sensor device
Read a variable from the sensor device
Write a block of data to the sensor device
Write a variable to the sensor device
Product Specification RobotWare Options for BaseWare OS 4.0
[556] Arcitec
[556] Arcitec
This option is intended to be used in combination with the Arcitec power sources.
It shall only be ordered by the supplying unit of Arcitec.
The package is a special software, used together with the ArcWare package, to be able
to control not only the robot program but also the set up, configuration and
programming of the power source. Thus the robot teach pendant will be used for
programming and tuning both the robot and the power source.
The package also includes a special aid for easy welding programming, i.e. the synergic
function. This means that there is a pre-programmed relationsship between the wire
feed rate and all other data components in the power source, making it easy to control
the entire welding process, just by tuning the wire feed rate.
Product Specification RobotWare Options for BaseWare OS 4.0
41
[553] SpotWare
[553] SpotWare
The Spotweld options are general and flexible software platforms for creation of
customized and easy to use function packages for different types of spotweld systems
and process equipments.
The SpotWare option is used for sequential welding with one or several pneumatic gun
equipments. If welding with several pneumatic guns at the same time is desired then
the SpotWare Plus option has to be used instead.
The SpotWare option provides dedicated spotweld instructions for fast and accurate
positioning combined with gun manipulation, process start and supervision of the weld
equipment.
Communication with the welding equipment is normally carried out by means of
digital inputs and outputs but a serial interface is also available for some type of weld
timers.
It should be noted that the SpotWare options are general and can be extensively
customized. They have a default “ready to use” functionality directly after install but it
is intended that some configuration data, RAPID data and RAPID routines has to be
changed during the customizing.
SpotWare features
Some examples of useful functions are given below:
- Fast and accurate positioning using the unique QuickMove and TrueMove
concept.
- Gun pre-closing.
- Quick start after a weld.
- Handling of an on/off gun with two strokes.
- Dual/single gun.
- Manual actions for welding and gun control.
- Simulation possibilities for test purposes.
- Reverse execution with gun control.
- Spot counters.
- User-defined supervision and error recovery. Weld error recovery with
automatic rewelding.
- User-defined continuous supervision of the weld equipment, such as weld
current signal and water cooling start. Note: This feature requires the
MultiTasking option.
- Wide customizing possibilities.
42
Product Specification RobotWare Options for BaseWare OS 4.0
[553] SpotWare
Principles of SpotWare
The SpotWare functions will be controlled by separate internal program processes,
which will run in parallel. For instance the robot movements, the continuous supervision and the spot welding will be handled in different independent processes. This
means that if for instance the program execution and thus the robot movements is
stopped, then the welding and supervision will continue until they come to a well
defined process stop. For example, the welding process will carry on and finish the
weld and open the gun, although the program has been stopped during the weld phase.
For well defined points in the welding sequence and movements, calls to user routines
offer adaptations to the plant environment. A number of predefined parameters are also
available to shape the behaviour of the SpotWare instructions.
Programming principles
Both the robot movement and the control of the spot weld equipment are embedded in
the basic spot weld instructions SpotL and SpotJ.
The spot welding process is specified by:
- Spotdata: spot weld process data
- Gundata: spot weld equipment data
- The system modules SWUSRC and SWUSRF: RAPID routines and global data
for changing of process and test behaviour.
- System parameters: the I/O Signal configuration.
Spot welding instructions
Instruction
Used to:
SpotL
Control the motion, gun closure/opening and the welding
process.
Move the TCP along a linear path and perform a spot welding
at the end position.
SpotJ
Control the motion, gun closure/opening and the welding
process.
Move the TCP along a non-linear path and perform a spot
welding at the end position.
Spot welding data
Data type
Used to define:
spotdata
The spot weld process
gundata
The spot weld equipment
Product Specification RobotWare Options for BaseWare OS 4.0
43
[554] SpotWare Plus
[554] SpotWare Plus
The SpotWare Plus package provides support for sequential welding with one or
several pneumatic on/off gun equipments, as the SpotWare package, but also welding
and full individual monitoring of up to four separate gun equipments at the same time.
SpotWare Plus features
The SpotWare Plus package contains the same features as SpotWare
but with following feature in addition:
- Possibility to weld with up to four guns at the same time.
Principles of SpotWare Plus
As in SpotWare the spotweld functions will be controlled by separate internal program
processes, which will run in parallel. For instance the robot movements, the continuous
supervision and each spotweld process will be handled in different independent program processes. This means that if for instance the program execution and thus the
robot movements is stopped, then the weld processes and supervision will continue
until they come to a well defined process stop. For example, the welding processes will
carry on and finish the welds and open the guns, although the program has been stopped
during the weld phase.
For well defined points in the welding sequence, calls to user routines offer adaptations
to the plant environment. A number of predefined parameters are also available to
shape the behaviour of the SpotWare instruction.
The opening and closing of the guns are always executed by RAPID routines. These
gun routines may be changed from the simple on/off default functionality to a more
complex gun control and they may contain additional gun supervision.
SpotWarePlus is based on the DAP (Discrete Application Platform).
Programming principles
Both the robot movement and control of up to four spot weld processes are embedded
in the basic spot weld instructions for multiple welding, SpotML and SpotMJ.
Each spot welding process is specified by:
- Spotmdata: spot weld process data
- Gunmdata: spot weld equipment data
- The system modules SWUSRF and SWUSRC: RAPID routines and global data
for customizing purposes and data for changing of process and test behaviour.
- System parameters: the I/O Signal configuration.
44
Product Specification RobotWare Options for BaseWare OS 4.0
[554] SpotWare Plus
Spot welding instructions
Instruction
Used to:
SpotML
Control the motion, gun closure/opening and 1 - 4 welding
processes.
Move the TCP along a linear path and perform spot welding
with 1 - 4 gun equipments at the end position.
SpotMJ
Control the motion, gun closure/opening and 1 - 4 welding
processes.
Move the TCP along a non-linear path and perform spot welding with 1 - 4 gun equipments at the end position.
Spot welding data
Data type
Used to define:
spotmdata
The spot weld process
gunmdata
The spot weld equipment
Product Specification RobotWare Options for BaseWare OS 4.0
45
[625] SpotWare Servo
[625] SpotWare Servo
The Spotweld options are general and flexible software platforms for creation of
customized and easy to use function packages for different types of spotweld systems
and process equipments.
The SpotWare Servo option is used for sequential welding with one or two servo gun
equipments. If also welding with two servo guns at the same time is desired then the
SpotWare Servo Plus option has to be used instead.
The SpotWareServo option provides dedicated spotweld instructions for fast and
accurate positioning combined with gun manipulation, process start and supervision of
the different gun equipments.
Communication with the welding equipment is carried out by means of digital inputs
and outputs.
It should be noted that the SpotWare options are general and can be extensively
customized. They have a default “ready to use” functionality directly after install but it
is intended that some configuration data, RAPID data and RAPID routines has to be
changed during the customizing.
SpotWare Servo features
The SpotWare Servo package contains the following features:
- Fast and accurate positioning using the unique QuickMove and TrueMove
concept.
- Gun pre-closing, i.e having the gun closing synchronized with weld position.
- Gun equalizing, i.e. having the gun “floating” around the weld position.
- Constant tip force during welding.
- Manual actions for welding and gun control.
- Several simulation possibilities for test purposes.
- Reverse execution with gun control.
- Weld error recovery with automatic rewelding.
- User-defined supervision and error recovery.
- User-defined autonomous supervision, such as weld current signal and water
cooling start.
- Wide customizing possibilities.
- Default “ready to use” functionality directly after install.
- Detecting of missing or improper plates.
- Gun calibration functions.
- Spot counters and tip wear data for each used gun.
46
Product Specification RobotWare Options for BaseWare OS 4.0
[625] SpotWare Servo
- Fast switch between two servo guns with a tool changer. Note: This feature
requires the Servo Tool Change option.
Principles of SpotWare Servo
The SpotWare functions will be controlled by separate internal program processes,
which will run in parallel. For instance the robot movements, the continuous
supervision and the spotwelding will be handled in different independent processes.
This means that if for instance the program execution and thus the robot movements is
stopped, then the welding and supervision will continue until they come to a well
defined process stop. For example, the welding process will carry on and finish the
weld and open the gun, although the program has been stopped during the weld phase.
For well defined points in the welding sequence and movements, calls to user routines
offer adaptations to the plant environment. A number of predefined parameters are also
available to shape the behaviour of the SpotWare instructions.
Programming principles
Both the robot movement and the control of the spot weld equipment are embedded in
the basic spot weld instructions SpotL and SpotJ.
The spot welding process is specified by:
- Spotdata: spot weld process data
- Gundata: spot weld equipment data
- The system modules SWDEFINE and SWDEFUSR: RAPID routines and
global data for customizing purposes e.g. adaptations for a specific process
equipment.
- The system module SWUSER: RAPID routines and global data for changing
of process and test behaviour.
- System parameters: the I/O Signal configuration and the Manipulator
configuration.
Product Specification RobotWare Options for BaseWare OS 4.0
47
[625] SpotWare Servo
Spot welding instructions
Instruction
Used to:
SpotL
Control the motion, gun closure/opening and the welding
process.
Move the TCP along a linear path and perform a spot welding
at the end position.
SpotJ
Control the motion, gun closure/opening and the welding
process.
Move the TCP along a non-linear path and perform a spot
welding at the end position.
SetForce
Close the gun a predefined time then open the gun.
CalibL
Calibrate the gun during linear movement to the programmed
position.
CalibJ
Calibrate the gun during non-linear movement to the
programmed position.
Calibrate
Calibrate the gun in current position without movement.
STTune
Tune motion parameters for the servo gun.
STTuneReset
Reset tuned motion parameters for the servo gun.
Spot welding data
48
Data type
Used to define:
spotdata
The spot weld process
gundata
The spot weld equipment
forcedata
The SetForce process
simdata
Simulation modes
Product Specification RobotWare Options for BaseWare OS 4.0
[626] SpotWare Servo Plus
[626] SpotWare Servo Plus
The SpotWare Servo Plus package provides support for sequential welding with one
or several servo gun equipments, as the SpotWare Servo package, but also welding
with two servo guns at the same time.
SpotWare Servo Plus features
The SpotWare Servo Plus package contains the same features as SpotWareServo
but with following feature in addition:
- Possibility to weld with two servo guns at the same time.
Principles of SpotWare Servo Plus
As in SpotWare Servo the SpotWare functions will be controlled by separate internal
program processes, which will run in parallel. For instance the robot movements, the
continuous supervision and the spotwelding will be handled in different independent
processes. This means that if for instance the program execution and thus the robot
movements is stopped, then the weld processes and supervision will continue until they
come to a well defined process stop. For example, the welding processes will carry on
and finish the weld and open the guns, although the program has been stopped during
the weld phase.
Programming principles
Both the robot movement and the control of the spot weld equipments are embedded
in the basic spot weld instructions. SpotL and SpotJ are used for sequential welding.
With SpotML or SpotMJ it is possible to weld with several guns simultaneously.
Each spot welding process is specified by:
- Spotdata: spot weld process data
- Gundata: spot weld equipment data
- The system modules SWDEFINE and SWDEFUSR: RAPID routines and
global data for customizing purposes e.g. adaptations for a specific process
equipment.
- The system module SWUSER: RAPID routines and global data for changing
of process and test behaviour.
- System parameters: the I/O Signal configuration and the Manipulator
configuration.
Spot welding instructions
The SpotWare Servo Plus package contains the same instructions as SpotWareServo
plus following instructions in addition:
Product Specification RobotWare Options for BaseWare OS 4.0
49
[626] SpotWare Servo Plus
50
Instruction
Used to:
SpotML
Control the motion, gun closure/opening and 1 - 2 welding
processes.
Move the TCP along a linear path and perform spot welding
with 1 - 2 gun equipments at the end position.
SpotMJ
Control the motion, gun closure/opening and 1 - 2 welding
processes.
Move the TCP along a non-linear path and perform spot
welding with 1 - 2 gun equipments at the end position.
Product Specification RobotWare Options for BaseWare OS 4.0
[569] DispenseWare
[569] DispenseWare
The DispenseWare package provides support for different types of dispensing
processes such as gluing and sealing.
The DispenseWare application provides fast and accurate positioning combined with a
flexible process control.
Communication with the dispensing equipment is carried out by means of digital and
analog outputs.
DispenseWare is a package that can be extensively customized. The intention is that
the user adapts some user data and routines to suit a specific dispensing equipment and
the environmental situation.
Dispensing features
The DispenseWare package contains the following features:
- Fast and accurate positioning.
- Handling of on/off guns as well as proportional guns.
- Speed proportional or constant analog outputs.
- Up to five different guns can be handled simultaneously, controlled by 1 - 5
digital output signals (for gun on/off control) and 1 - 2 analog output signals
(for flow control).
- Four different gun equipment, each controlled by 1 - 5 digital output signals
and 1 - 2 analog output signals, can be handled in the same program.
- Possibility to use different anticipated times for the digital and analog signals.
- Possibility to use equipment delay compensation for the TCP speed
proportional analog signals.
- Global or local flow rate correction factors.
- Dispensing instructions for both linear and circular paths.
- Dispensing in wet or dry mode.
- Wide opportunities of customizing the functionality to adapt to different types
of dispensing equipment.
- Possibility to restart an interrupted dispense sequence.
Programming principles
Both the robot’s movement and the dispensing process control are embedded in the
instructions, DispL and DispC respectively.
Product Specification RobotWare Options for BaseWare OS 4.0
51
[569] DispenseWare
The gluing process is specified by:
- Bead specific dispensing data. See Data types - beaddata.
- Equipment specific dispensing data. See Data types - equipdata.
- RAPID routines and global data for customizing purposes. See Predefined Data
and Programs - System Module DPUSER.
- The I/O configuration. See System Parameters - DispenseWare
Dispensing instructions
Instruction
Used to:
DispL
Move the TCP along a linear path and perform dispensing with
the given data
DispC
Move the TCP along a circular path and perform dispensing
with the given data
Dispensing data
52
Data type
Used to define:
beaddata
Dispensing data for the different beads.
equipdata
Dispensing data for the equipment in use.
Product Specification RobotWare Options for BaseWare OS 4.0
[571] PalletWare
[571] PalletWare
General
PalletWare is a ready-to-use software package for the S4Cplus controller, focused on
palletizing. PalletWare imports data created with PalletWizard, the included off-line
PC-tool, to execute the defined palletizing cycles. PalletWare has a predefined
interface for connecting PLC (Programmable Logic Controller), which is the most
common way to control external equipment such as infeeders, outfeeders and sensor
equipment. The standard package includes software components such as priority and
scheduling routines that are ready to use. The package also includes components that
can be customized, e.g. grip tool control routines.
PalletWare supports system integrators who want to customize the system, by
presenting a standardized interface.
What is included
Included in the PalletWare package is software components to control robot motion,
and to communicate with the user and external equipment.
In order to minimize commissioning time, PalletWare is equipped with a standardized
set of modules, referred to as the Standard Package Add-On. Advanced users can
replace these modules with their own if special customizing is needed. PalletWare is
also delivered with template user routines that handles the most common solutions.
PalletWare offers a standardized interface where to connect all external equipment
such as infeeders, PLC, signal board, grip tool, sensor equipment etc. The package
includes a set of predefined signals connected to a simulated board. The integrator has
to implement the signal board and connect the signals. The configuration file for the
signals has also to be modified depending on what type of board is used. Because of
the large amount of signals, it is recommended to use a field bus such as for example
Profibus.
PalletWare features
PalletWare offers for example following functionality:
- Multiplacing
- Parallel processing, up to 5 stations simultaneously
- Multistationary production
- User dialogue interface with Screen Viewer
- On-line tuning of geometrical data
- Safety functionality
- Prepared PLC interface
- Prepared MMI interface
Product Specification RobotWare Options for BaseWare OS 4.0
53
[571] PalletWare
- Tool control
- Standardized error handling
- Predefined user routines
Programming principles
PalletWare is added to the BaseWare system. PalletWare consists of predefined motion
principles and communication routines for communicating with external equipment. It
is not necessarily needed to implement any RAPID code. However, the system supports
integrators for customizing by standardized functions and instructions.
Customizing PalletWare
PalletWare can be up-and-running without any need for implementing RAPID code,
but it must be adapted to the current robot cell and its physical lay-out. For instance,
there are a number of steps which are compulsory, e.g:
- Connect external equipment such as infeeders, tool, PLC etc., via the predefined
interface.
- Connect safety equipment such as emergency stop, safety fences etc.
- Define tooldata if the tool does not match the templates
- Check the set-up in the configuration module PAL_CFG.
- Define/teach work objects to the stations
- Define/teach robtarget with tool in zero orientation
- Create and load pallet cycles with PalletWizard.
In addition to this, PalletWare offers a great deal of customizing possibilities for
advanced users, e.g.
- Using tools with suction cups or mechanical gripper
- Sliding uppermost layer to gain pallet height
- Controlling orientation on infeeder
- Add or skip safety height movements between stations
- Set priority when working with several pallet cycles in parallel.
- Etc.
Pallet Wizard
Pallet Wizard is a complete and easy to use stand alone tool running on a PC under
Windows 95/98 or Windows NT, for off line programming of palletizing or
depalletizing processes. It is delivered as a part of the PalletWare option package.
In PalletWizard the complete cell with its different components like the products, the
tools, the in/out feeders and pallet stations as well as the pallet cycles with the layers
and the pattern descriptions can be defined.
54
Product Specification RobotWare Options for BaseWare OS 4.0
[571] PalletWare
PalletWizard offers for example the following features:
- Detailed On-line help
- Wizards for defining the products, tools, cell definition, station configurations,
pallet composition and the pallet cycles
- Automatic pick- and place definition
- Automatic calculating of grip zones to be used for the tool
- Software based collision detection
- Library of predefined patterns
Several different pallet cycles can be combined into a production cycle and saved into
a file, which can be downloaded to the robot. At the robot the operator can then select
what specific pallet cycle to run and on which infeeder and pallet station.
Product Specification RobotWare Options for BaseWare OS 4.0
55
Index
INDEX
4 Index
A
AbsAcc 5
Absolute Accuracy 5
Advanced functions 14
arc welding 37, 40
Arcitec 41
ArcWare 37
ArcWare Plus 40
B
BaseWare 5
BaseWare Options 3
BaseWare OS 3
C
Collision Detection 7
communication
robot and PC 33
continuous movement 13
Contour tracking 12
Conveyor Tracking 23, 27, 29
coordinated motion 12
cross-connection
locigal conditions 16
output 15
procedure call 15
Friction Compensation 13
FTP 32
I
I/O Plus 36
independent movement 13
input or output signals
interrupts 17
Interbus Configuration Tool 34
interrupt routine movement 16
interrupts
from analog input or output signals 17
L
Load Identification 7
logical conditions
cross connections 16
N
NFS 32
O
output
in fixed position 15
P
D
data
read and write 14, 33
transfer 14
Discrete Applications Platform 22
DispenseWare 51
E
electronically linked motors 24
error handler movement 16
Ethernet Services 32
F
file
read and write 14, 33
fixed position
PalletWare 53
parallel processing 11
PLC functionality 16
printout 14
ProcessWare 3, 37
Profibus Configuration Tool 35
Profibus DP 35
program
back-up 33
transfer 33
R
RAP Communication 31
read
data 14
file 14
Product Specification RobotWare Options for BaseWare OS 4.0
57
Index
Reset the work area 12
S
Sensor Interface 26
Sensor Synchronization 25
serial channel 14
Servo Tool Change 29
Servo Tool Control 27
SpotWare Servo 46
SpotWare Servo Plus 49
T
transfer
data 14, 33
file 33
program 33
W
World Zones 16
write
data 14
file 14
58
Product Specification RobotWare Options for BaseWare OS 4.0
Installation Manual, IRB 6600/6650, M2000A
3HAC 16245-1
Revision A
The information in this manual is subject to change without notice and
should not be construed as a commitment by ABB. ABB assumes no responsibility for any errors that may appear in this manual.
In no event shall ABB be liable for incidental or consequential damages
arising from use of this manual and products described herein.
This manual and parts thereof must not be reproduced or copied without
ABB’s written permission, and contents thereof must not be imparted to
a third party nor be used for any unauthorized purpose. Contravention
will be prosecuted.
Additional copies of this manual may be obtained from ABB at its then
current charge.
©Copyright 2002 ABB All rights reserved.
ABB Automation Technology Products AB
Robotics
SE-721 68 Västerås
Sweden
Table of Contents
0.0.1 Overview . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .5
0.0.2 Product Documentation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7
Chapter 1: Safety, service
9
1.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9
Section 1.1: General information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 10
1.1.1 Safety, service - General . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.1.2 Limitation of Liability . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.1.3 Related information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
Section 1.2: Safety risks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11
1.2.1 Safety risks related to gripper. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11
1.2.2 Safety risks related to tools/workpieces . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11
1.2.3 Safety risks related to pneumatic/hydraulic systems . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11
1.2.4 Safety risks during operational disturbances . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11
1.2.5 Safety risks during installation and service . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .12
1.2.6 Risks associated with live electric parts. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .12
Section 1.3: Safety actions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .14
1.3.1 Safety fence dimensions. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .14
1.3.2 Fire extinguishing. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .14
1.3.3 Emergency release of the manipulator’s arm . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .14
1.3.4 Brake testing. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .14
1.3.5 Risk of disabling function "Reduced speed 250 mm/s". . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15
1.3.6 Safe use of the Teach Pendant Unit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15
1.3.7 Work inside the manipulator’s working range . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15
Chapter 2: Reference information
17
2.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .17
Section 2.1: Reference information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .18
2.1.1 Applicable Safety Standards . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .18
2.1.2 Screw joints . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .19
2.1.3 Weight specifications . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21
2.1.4 Standard toolkit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .22
2.1.5 Special tools . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .23
2.1.6 Performing a leak-down test . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .25
2.1.7 Lifting equipment and lifting instructions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .26
Chapter 3: Unpacking
27
3.0.1 Pre-installation procedure . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .27
3.0.2 Working range, IRB 6600 - 175/2.55 and IRB 6600 - 225/2.55 . . . . . . . . . . . . . . . . . . . . . . .30
3.0.3 Working range, IRB 6600 - 175/2.8. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .31
3.0.4 Working range, IRB 6650 - 125/3.2. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .32
3.0.5 Working range, IRB 6650 - 200/2.75. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 33
3.0.6 Risk of tipping/Stability . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .34
Chapter 4: On-site Installation
35
Section 4.1: On-site installation, manipulator. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .36
4.1.1 Lifting manipulator with fork lift . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .36
4.1.2 Lifting manipulator with roundslings. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .41
4.1.3 Lifting manipulator with lifting slings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .42
4.1.4 Manually releasing the brakes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .44
4.1.5 Lifting the base plate . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .49
4.1.6 Securing the base plate. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .50
4.1.7 Orienting and securing the manipulator . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .53
4.1.8 Fitting equipment on manipulator . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .56
4.1.9 Loads . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .60
3HAC 16245-1
i
Table of Contents
Section 4.2: Restricting the working range. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 61
4.2.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 61
4.2.2 Mechanically restricting the working range of axis 1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62
4.2.3 Mechanically restricting the working range of axis 2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64
4.2.4 Mechanically restricting the working range of axis 3 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
4.2.5 Position switches . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 68
Section 4.3: On-site installation, controller cabinet. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 73
4.3.1 Lifting the controller cabinet . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 73
4.3.2 Required installation space, control cabinet . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 74
Chapter 5: Electrical connections
75
Section 5.1: Signal/Power cables. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 76
5.1.1 Connecting the manipulator to the control cabinet . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 76
5.1.2 Connection of manipulator cables to control cabinet, S4Cplus M2000A . . . . . . . . . . . . . . . . 79
5.1.3 Connection of mains power to control cabinet, S4Cplus M2000A . . . . . . . . . . . . . . . . . . . . . 80
Section 5.2: Signal connections . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 82
5.2.1 Signal Classes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 82
5.2.2 Selecting Cables. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 83
5.2.3 Interference elimination . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 84
5.2.4 Connection types . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 85
5.2.5 Connections to screw terminals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 86
5.2.6 Connections to connectors (option) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 87
Section 5.3: Customer connections on manipulator . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 88
5.3.1 Signal connections, SpotWelding Specification . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 88
5.3.2 Signal connections, Material Handling Specification . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 89
Section 5.4: Customer connections on controller . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 90
5.4.1 The MOTORS ON/MOTORS OFF circuit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 90
5.4.2 External customer connections on panel X1 - X4 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 95
5.4.3 Connection of external safety relay . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 98
Section 5.5: Supplies . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 100
5.5.1 External 24V supply . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 100
5.5.2 24V I/O supply. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 101
5.5.3 115/230 VAC supply . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 102
Section 5.6: Buses. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 103
5.6.1 Connection of the CAN bus . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 103
5.6.2 Interbus-S, slave DSQC 351 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 106
5.6.3 Profibus-DP, slave DSQC 352. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 110
Section 5.7: I/O units . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 113
5.7.1 Distributed I/O units . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 113
5.7.2 Distributed I/O, digital sensors . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 114
5.7.3 Distributed I/O, digital I/O DSQC 328 (option) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 115
5.7.4 AD Combi I/O, DSQC 327 (optional) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 118
5.7.5 Analog I/O, DSQC 355 (optional) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 121
5.7.6 Encoder interface unit, DSQC 354 (optional) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 125
Section 5.8: Communication . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 129
5.8.1 Allen-Bradley, general. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 129
5.8.2 RIO, remote I/O for Allen-Bradley PLC DSQC 350. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 130
5.8.3 Communication, serial links . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 133
5.8.4 Communication, Ethernet . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 136
5.8.5 External operator’s panel . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 138
Chapter 6: Start-up
139
6.0.1 Inspection before start-up . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 139
6.0.2 Start-up. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 140
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3HAC 16245-1
Table of Contents
Chapter 7: Installation of controller software
141
7.0.1 Loading system software . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .141
7.0.2 RobotWare CD-ROM . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .143
7.0.3 Installing new Robot Controller Software with RobInstall . . . . . . . . . . . . . . . . . . . . . . . . . .144
7.0.4 Create a new Robot Controller System . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .146
7.0.5 Update the Robot Controller image . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .150
7.0.6 Transfer Robot Controller System using Ethernet connection. . . . . . . . . . . . . . . . . . . . . . . .151
7.0.7 Transfer Robot Controller System using floppy disks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .154
7.0.8 RobInstall preferences . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .156
Chapter 8: Robot controller
157
8.0.1 BootImage . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .157
8.0.2 Start window . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .158
8.0.3 Reboot Window . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .159
8.0.4 Boot Disk Window. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .160
8.0.5 LAN Settings Window . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .161
8.0.6 Service Settings Window . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .162
8.0.7 System selection window . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .163
8.0.8 How to perform a Restart . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .164
8.0.9 How to Start in Query Mode . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .167
Chapter 9: System directory structure
169
9.0.1 Media pool in the PC . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .169
9.0.2 System pool in the PC . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .170
9.0.3 File structure in the robot controller mass storage memory. . . . . . . . . . . . . . . . . . . . . . . . . .171
9.0.4 Preparation of S4Cplus software to be installed . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .172
9.0.5 Handling mass memory storage capacity. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .173
Chapter 10: Calibration
175
Section 10.1: General . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .175
10.1.1 Types of calibration procedures . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .175
10.1.2 How to calibrate the robot system . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .176
10.1.3 Calibration, prerequisites . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .178
10.1.4 Calibration pendulum kit, contents . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .179
Section 10.2: Preliminaries . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .181
10.2.1 Checking the calibration position. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .181
10.2.2 Updating the revolution counter. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .183
10.2.3 Calibration procedure on TPU . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .185
10.2.4 Initialization of calibration pendulum . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .186
Section 10.3: Calibration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .188
10.3.1 Calibration sensor mounting positions. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .188
10.3.2 Calibration scales . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .194
10.3.3 Calibration, all axes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .195
10.3.4 Calibrating axes 3-4, IRB 7600/2.3/500. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .197
Section 10.4: After calibration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .198
10.4.1 Post calibration procedure . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .198
Section 10.5: Alternative calibration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .199
10.5.1 Alternative calibration position . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .199
10.5.2 Alternative calibrating . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .200
10.5.3 New calibration position, axis 1. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .201
10.5.4 New calibration offset, axis 1. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .202
10.5.5 Retrieving offset values . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .203
3HAC 16245-1
iii
Table of Contents
Chapter 11: Decommissioning
205
11.0.1 Balancing device, IRB 7600 and IRB 6600/6650 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 205
iv
3HAC 16245-1
0.0.1 Overview
0.0.1 Overview
About This
Manual
This information product is a manual containing instructions for installing the complete robot
system, mechanically as well as electrically.
Usage
This manual should be used during installation, from lifting the manipulator to its work site
thru installing application software in the robot controller, making the robot ready for operation.
Who Should Read
This Manual?
This manual is intended for:
Prerequisites
The reader should...
•
•
Organization of
Chapters
installation personnel on the installation site.
have the required knowledge of mechanical as well as electrical
installation work.
The information product is organized in the following chapters:
Chapter
Contents
1
Safety, Service
2
Reference Information
3
Unpacking
4
On-site Installation
5
Electrical connections
6
Start-up
7
Installation of controller software
8
Robot controller
9
System directory structure
10
Calibration
11
Decommissioning
References
3HAC 16245-1
Reference
Document Id
Circuit Diagram, manipulator
3HAC 13347-1
Circuit Diagram, controller
3HAC 14189-2
A
5
0.0.1 Overview
Revisions
Revision
Description
-
First edition
A
6
•
Various corrections in text and in figures due to reconstructions, new options, etc.
•
Manual completed with references to pagenumbers and
numbering of sections (manipulator sections).
•
Manual completed with version IRB 6650.
A
3HAC 16245-1
0.0.2 Product Documentation
0.0.2 Product Documentation
General
The complete product documentation kit for the robot, including controller, manipulator and
any hardware option, consists of the manuals listed below:
Installation and
Commissioning
Manual
The Installation and Commissioning Manual contains the following information:
Repair Manual
Maintenance
Manual
•
Safety, Service
•
Reference Information
•
Unpacking
•
On-site Installation
•
Electrical connections
•
Start-up
•
Installation of controller software
•
System directory structure
•
Calibration
•
If there is any, model specific information
The Repair Manual contains the following information:
•
Safety, Service
•
Reference Information
•
Remove/Refitting instructions for all manipulator details considered spare parts
•
Remove/Refitting instructions for all controller cabinet details considered spare parts
•
If there is any, model specific information
The Maintenance Manual contains the following information:
•
Safety, Service
•
Reference Information
•
Maintenance schedules
•
Instructions for all maintenance activities specified in the maintenance schedule, for
example cleaning, lubrication, inspection etc.
•
If there is any, model specific information
The information is generally divided into separate chapters for the manipulator and the controller, respectively.
Software manuals
The software documentation consists of a wide range of manuals, ranging from manuals for
basic understanding of the operating system to manuals for entering parameters during operation.
A complete listing of all available software manuals is available from ABB Robotics.
3HAC 16245-1
A
7
0.0.2 Product Documentation
Hardware option
manual
Each hardware option is supplied with its own documentation. Each document set contains
the types of information specified above:
•
Installation information
•
Repair information
•
Maintenance information
In addition, spare part information is supplied for the complete option.
8
A
3HAC 16245-1
1 Safety, service
1.0.1 Introduction
Chapter 1: Safety, service
1.0.1 Introduction
Definitions
This chapter details safety information for service personnel i.e. personnel performing installation, repair and maintenance work.
Sections
The chapter "Safety, service" is divided into the following sections:
1. General information contains lists of:
• Safety, service -general
• Limitation of liability
• Referenced documents
2. Safety risks lists dangers relevant when servicing the robot system. The dangers are split into different categories:
• Safety risks related to gripper/end effector
• Safety risks related to tools/workpieces
• Safety risks related to pneumatic/hydraulic systems
• Safety risks during operational disturbances
• Safety risks during installation and service
• Risks associated with live electric parts
3. Safety actions details actions which may be taken to remedy or avoid dangers.
• Safety fence dimensions
• Fire extinguishing
• Emergency release of the manipulator´s arm
• Brake testing
• Risk of disabling function "Reduced speed 250 mm/s"
• Safe use of the Teach Pendant Unit enabling device
• Work inside the manipulator´s working range
3HAC 16245-1
A
9
1 Safety, service
1.1.1 Safety, service - General
Section 1.1: General information
1.1.1 Safety, service - General
Validity and
responsibility
The information does not cover how to design, install and operate a complete system, nor
does it cover all peripheral equipment, which can influence the safety of the total system. To
protect personnel, the complete system must be designed and installed in accordance with the
safety requirements set forth in the standards and regulations of the country where the robot
is installed.
The users of ABB industrial robots are responsible for ensuring that the applicable safety laws
and regulations in the country concerned are observed and that the safety devices necessary
to protect people working with the robot system have been designed and installed correctly.
Personnel working with robots must be familiar with the operation and handling of the industrial robot, described in the applicable documents, e.g. User’s Guide and Product Manual.
Connection of
external safety
devices
Apart from the built-in safety functions, the robot is also supplied with an interface for the
connection of external safety devices. Via this interface, an external safety function can interact with other machines and peripheral equipment. This means that control signals can act on
safety signals received from the peripheral equipment as well as from the robot.
In the Product Manual - Installation and Commissioning, instructions are provided for connecting safety devices between the robot and the peripheral equipment.
1.1.2 Limitation of Liability
General
Any information given in this information product regarding safety, must not be construed as
a warranty by ABB Robotics that the industrial robot will not cause injury or damage even if
all safety instructions have been complied with.
1.1.3 Related information
General
The list below specifies documents which contain useful information:
Documents
10
Type of information
Detailed in document
Installation of safety devices
Installation and Commissioning
Manual
Changing robot modes
User’s Guide
Start-up
Restricting the working space
Installation and Commissioning
Manual
On-site installation Manipulator
A
Section
3HAC 16245-1
1 Safety, service
1.2.1 Safety risks related to gripper
Section 1.2: Safety risks
1.2.1 Safety risks related to gripper
Ensure that a gripper is prevented from dropping a workpiece, if such is used.
1.2.2 Safety risks related to tools/workpieces
Safe handling
It must be possible to turn off tools, such as milling cutters, etc., safely. Make sure that guards
remain closed until the cutters stop rotating.
It should be possible to release parts by manual operation (valves).
Safe design
Grippers/end effectors must be designed so that they retain workpieces in the event of a power
failure or a disturbance of the controller.
1.2.3 Safety risks related to pneumatic/hydraulic systems
General
Residual energy
Safe design
Special safety regulations apply to pneumatic and hydraulic systems.
•
Residual energy may be present in these systems so, after shutdown, particular care
must be taken.
•
The pressure in pneumatic and hydraulic systems must be released before starting to
repair them.
•
Gravity may cause any parts or objects held by these systems to drop.
•
Dump valves should be used in case of emergency.
•
Shot bolts should be used to prevent tools, etc., from falling due to gravity.
1.2.4 Safety risks during operational disturbances
General
Qualified personnel
Extraordinary
risks
3HAC 16245-1
•
The industrial robot is a flexible tool which can be used in many different industrial
applications.
•
All work must be carried out professionally and in accordance with the applicable
safety regulations.
•
Care must be taken at all times.
•
Remedial action must only be carried out by qualified personnel who are familiar with
the entire installation as well as the special risks associated with its different parts.
If the working process is interrupted, extra care must be taken due to risks other than those
associated with regular operation. Such an interruption may have to be rectified manually.
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11
1 Safety, service
1.2.5 Safety risks during installation and service
1.2.5 Safety risks during installation and service
General risks during installation
and service
Nation/region
specific regulations
Non-voltage
related risks
To be observed
by the supplier of
the complete system
•
The instructions in the Product Manual - Installation and Commissioning must always
be followed.
•
Emergency stop buttons must be positioned in easily accessible places so that the
robot can be stopped quickly.
•
Those in charge of operations must make sure that safety instructions are available
for the installation in question.
•
Those who install the robot must have the appropriate training for the robot system in
question and in any safety matters associated with it.
To prevent injuries and damage during the installation of the robot system, the regulations
applicable in the country concerned and the instructions of ABB Robotics must be complied
with.
•
Safety zones, which have to be crossed before admittance, must be set up in front of
the robot's working space. Light beams or sensitive mats are suitable devices.
•
Turntables or the like should be used to keep the operator out of the robot's working
space.
•
The axes are affected by the force of gravity when the brakes are released. In addition
to the risk of being hit by moving robot parts, you run the risk of being crushed by the
tie rod.
•
Energy, stored in the robot for the purpose of counterbalancing certain axes, may be
released if the robot, or parts thereof, is dismantled.
•
When dismantling/assembling mechanical units, watch out for falling objects.
•
Be aware of stored heat energy in the controller.
•
Never use the robot as a ladder, i.e. do not climb on the robot motors or other parts
during service work. There is a serious risk of slipping because of the high temperature of the motors or oil spills that can occur on the robot.
•
The supplier of the complete system must ensure that all circuits used in the safety
function are interlocked in accordance with the applicable standards for that function.
•
The supplier of the complete system must ensure that all circuits used in the emergency stop function are interlocked in a safe manner, in accordance with the applicable standards for the emergency stop function.
1.2.6 Risks associated with live electric parts
Voltage related
risks, general
Voltage related
risks, controller
12
•
Although troubleshooting may, on occasion, have to be carried out while the power
supply is turned on, the robot must be turned off (by setting the mains switch to OFF)
when repairing faults, disconnecting electric leads and disconnecting or connecting
units.
•
The mains supply to the robot must be connected in such a way that it can be turned
off outside the robot’s working space.
A danger of high voltage is associated with the following parts:
•
Be aware of stored electrical energy (DC link) in the controller.
A
3HAC 16245-1
1 Safety, service
1.2.6 Risks associated with live electric parts
•
Units inside the controller, e.g. I/O modules, can be supplied with power from an external source.
•
The mains supply/mains switch
•
The power unit
•
The power supply unit for the computer system (230 VAC)
•
The rectifier unit (400-480 VAC and 700 VDC. Note: Capacitors!)
•
The drive unit (700 VDC)
•
The service outlets (115/230 VAC)
•
The power supply unit for tools, or special power supply units for the machining process
•
The external voltage connected to the control cabinet remains live even when the
robot is disconnected from the mains.
•
Additional connections
Voltage related
risks, manipulator
A danger of high voltage is associated with the manipulator in:
Voltage related
risks, tools, material handling
devices, etc
Tools, material handling devices, etc., may be live even if the robot system is in the OFF
position. Power supply cables which are in motion during the working process may be damaged.
3HAC 16245-1
•
The power supply for the motors (up to 800 VDC)
•
The user connections for tools or other parts of the installation (max. 230 VAC, see
Installation and Commissioning Manual)
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13
1 Safety, service
1.3.1 Safety fence dimensions
Section 1.3: Safety actions
1.3.1 Safety fence dimensions
General
Fit a safety fence or enclosure around the robot to ensure a safe robot installation.
Dimensioning
Dimension the fence or enclosure to enable it to withstand the force created if the load being
handled by the robot is dropped or released at maximum speed. Determine the maximum
speed from the maximum velocities of the robot axes and from the position at which the robot
is working in the work cell (see Product Specification - Description, Robot Motion).
Also consider the maximum possible impact caused by a breaking or malfunctioning rotating
tool or other device fitted to the manipulator.
1.3.2 Fire extinguishing
Use a CARBON DIOXIDE (CO 2 ) extinguisher in the event of a fire in the robot (manipulator
or controller)!
1.3.3 Emergency release of the manipulator’s arm
Description
In an emergency situation, any of the manipulator’s axes may be released manually by pushing the brake release buttons on the manipulator or on an optional external brake release unit.
How to release the brakes is detailed in section "Manually releasing the brakes".
The manipulator arm may be moved manually on smaller robot models, but larger models
may require using an overhead crane or similar.
Increased injury
Before releasing the brakes, make sure that the weight of the arms does not increase the
pressure on the trapped person, which may further increase any injury!
1.3.4 Brake testing
When to test
During operation the holding brakes of each axis motor wear normally. A test may be performed to determine whether the brake can still perform its function.
How to test
The function of each axis’ motor holding brakes may be checked as detailed below:
1. Run each manipulator axis to a position where the combined weight of the manipulator arm and any load is maximized (max. static load).
2. Switch the motor to the MOTORS OFF position with the Operating mode selector
on the controller.
3. Check that the axis maintains its position.
If the manipulator does not change position as the motors are switched off, then the brake
function is adequate.
14
A
3HAC 16245-1
1 Safety, service
1.3.5 Risk of disabling function "Reduced speed 250 mm/s"
1.3.5 Risk of disabling function "Reduced speed 250 mm/s"
Do not change "Transm gear ratio" or other kinematic parameters from the Teach Pendant Unit
or a PC. This will affect the safety function Reduced speed 250 mm/s.
1.3.6 Safe use of the Teach Pendant Unit
The enabling device is a push button located on the side of the Teach Pendant Unit (TPU)
which, when pressed halfway in, takes the system to MOTORS ON. When the enabling device
is released or pushed all the way in, the robot is taken to the MOTORS OFF state.
To ensure safe use of the Teach Pendant Unit, the following must be implemented:
The enabling device must never be rendered inoperative in any way.
During programming and testing, the enabling device must be released as soon as there is no
need for the robot to move.
The programmer must always bring the Teach Pendant Unit with him/her, when entering the
robot’s working space. This is to prevent anyone else taking control over the robot without the
programmer knowing.
1.3.7 Work inside the manipulator’s working range
If work must be carried out within the robot’s work envelope, the following points must be
observed:
- The operating mode selector on the controller must be in the manual mode position to render
the enabling device operative and to block operation from a computer link or remote control
panel.
- The robot’s speed is limited to max. 250 mm/s when the operating mode selector is in position
< 250 mm/s. This should be the normal position when entering the working space. The position
100% ”full speed”may only be used by trained personnel who are aware of the risks that this
entails.
- Pay attention to the rotating axes of the manipulator! Keep a distance to the axes in order not
to get entangled with hair or clothing. Also be aware of any danger that may be caused by
rotating tools or other devices mounted on the manipulator or inside the cell.
- Test the motor brake on each axis, according to section Brake testing on page 14.
3HAC 16245-1
A
15
1 Safety, service
1.3.7 Work inside the manipulator’s working range
16
A
3HAC 16245-1
2 Reference information
2.0.1 Introduction
Chapter 2: Reference information
2.0.1 Introduction
General
3HAC 16245-1
This chapter presents generic pieces of information, complementing the more specific information in the following chapters.
A
17
2 Reference information
2.1.1 Applicable Safety Standards
Section 2.1: Reference information
2.1.1 Applicable Safety Standards
Standards,
general
Standards,
robot cell
18
The robot is designed in accordance with the requirements of:
•
EN 775 - Robot safety.
•
EN 292-1 - Basic terminology.
•
EN 292-2 - Technical principles.
•
EN 418 - Emergency stop.
•
EN 563 - Temperatures of surfaces.
•
EN 954-1 - Safety related parts of control systems.
•
EN 60204-1 - Electrical equipment of machines.
•
EN 1050 - Principles for risk assessment.
•
ANSI/RIA 15.06-1999 - Industrial robots, safety requirements.
•
DIN 19258 - Interbus-S, International Standard
The following standards are applicable when the robot is part of a robot cell:
•
EN 953 - Fixed and moveable guards
•
EN 811 - Safety distances to prevent danger zones being reached by the lower limbs.
•
EN 349 - Minimum gaps to avoid crushing of parts of the human body.
•
EN 294 - Safety distances to prevent danger zones being reached by the upper limbs.
•
EN 1088 - Interlocking devices
•
EN 999 - The positioning of protective equipment in respect of approach speeds of the
human body.
•
ISO 11 161 - Industrial automation systems - Safety of intergrated manufacturing systems.
A
3HAC 16245-1
2 Reference information
2.1.2 Screw joints
2.1.2 Screw joints
General
This section details how to tighten the various types of screw joints on the manipulator as well
as the controller.
The instructions and torque values are valid for screw joints comprising metallic materials
and do not apply to soft or brittle materials.
Any instructions given in the repair, maintenance or installation procedure description override any value or procedure given here, i.e. these instruction are only valid for standard type
screw joints.
UNBRAKO
screws
UNBRAKO is a special type of screw recommended by ABB in certain screw joints. It features special surface treatment (Gleitmo as described below), and is extremely resistant to
fatigue.
Whenever used, this is specified in the instructions and in such cases no other type of replacement screw is allowed. Using other types of screw will void any warranty and may potentially
cause serious damage or injury!
Gleitmo treated
screws
Gleitmo is a special surface treatment to reduce the friction when tightening the screw joint.
Screws treated with Gleitmo may be reused 3-4 times before the coating disappears. After this
the screw must be discarded and replaced with a new one.
When handling screws treated with Gleitmo, protective gloves of nitrile rubber type should
be used.
Screws lubricated
in other ways
Screws lubricated with Molycote 1000 (or another lubricant) should only be used when specified in the repair, maintenance or installation procedure descriptions.
In such cases, proceed as follows:
1. Lubricate the thread of the screw.
2. Lubricate between the plain washer and screw head.
3. Tighten to the torque specified in section "Tightening torque" below. Screw dimensions
of M8 or larger must be tightened with a torque wrench. Screw dimensions of M6 or
smaller may be tightened without a torque wrench if this is done by trained and qualified personnel.
3HAC 16245-1
Lubricant
Art. no.
Molycote 1000 (molybdenum disulphide grease)
1171 2016-618
A
19
2 Reference information
2.1.2 Screw joints
Tightening torque
Screws with slotted or cross
recess head
Below are tables specifying the torque values for different screw joint types:
Dimension
Tightening torque (Nm)
Class 4.8 "dry"
M2.5
0.25
M3
0.5
M4
1.2
M5
2.5
M6
5.0
Screws with
hexagon socket
head, “dry”
Screws with
hexagon socket
head, lubricated
20
Dimension
Tightening
torque (Nm)
Class 8.8 "dry"
Tightening
Tightening
torque (Nm)
torque (Nm)
Class 10.9 "dry" Class 12.9 "dry"
M5
6
-
-
M6
10
-
-
M8
24
34
40
M10
47
67
80
M12
82
115
140
M16
200
290
340
Dimension
Tightening torque (Nm)
Class 10.9
Tightening torque (Nm)
Class 12.9
M8
28
34
M10
55
66
M12
96
115
M16
235
280
A
3HAC 16245-1
2 Reference information
2.1.3 Weight specifications
2.1.3 Weight specifications
Definition
In all repair and maintenance instructions, weights of the components handled are sometimes
specified. All components exceeding 22 kg (50 lbs) are high-lighted in this way.
ABB recommends the use of lifting equipment when handling components with a weight
exceeding 22 kg to avoid inflicting injury. A wide range of lifting tools and devices is available for each manipulator model.
Example
Below is an example of how a weight specification is presented:
The motor weighs 65 kg! All lifting equipment used must be dimensioned accordingly!
3HAC 16245-1
A
21
2 Reference information
2.1.4 Standard toolkit
2.1.4 Standard toolkit
General
All service (repairs, maintenance and installation) instructions contain lists of tools required
to perform the specified activity.
All special tools required are listed directly in the instructions while all the tools that are
considered standard are gathered in the Standard toolkit and defined in the table below.
In this way, the tools required are the sum of the Standard Toolkit and any tools listed in the
instruction.
Contents,
standard toolkit,
3HAC 15571-1
22
Qty
Tool
Rem.
1
Ring-open-end spanner 8-19mm
1
Socket head cap 5-17mm
1
Torx socket no:20-60
1
Box spanner set
1
Torque wrench 10-100Nm
1
Torque wrench 75-400Nm
1
Ratchet head for torque wrench 1/2
2
Hexagon-headed screw M10x100
1
Socket head cap no:14, socket 40mm bit L 100mm
1
Socket head cap no:14, socket 40mm bit L 20mm
1
Socket head cap no:6, socket 40mm bit L 145mm
A
To be shorted to 12mm
3HAC 16245-1
2 Reference information
2.1.5 Special tools
2.1.5 Special tools
General
All service (repairs, maintenance and installation) instructions contain lists of tools required
to perform the specified activity. The required tools are a sum of standard tools, defined in
section Standard toolkit on page 22, and of special tools, listed directly in the instructions and
also gathered in the table below.
Special tools, IRB
6600/6650/7600
The table below is an overview of all the special tools required when performing service
activities on the IRB 6600/6650/7600. The tools are gathered in two kits: Basic Toolkit
(3HAC 15571-3) and Extended Toolkit (3HAC 15571-2).
The special tools are also listed directly in the current instructions.
3HAC 16245-1
Description
IRB 66X0/Qty IRB 7600/Qty Art. no.
Angel bracket
a
a
68080011-LP
Bolts (M16 x 60) for Mech stop ax 3 2
-
3HAB 3409-86
Bolts (M16 x 80) for Mech stop ax 3 -
2
3HAB 3409-89
Cal. tool
a
a
68080011-GM
Calibration bracket
a
-
3HAC 13908-9
Calibration tool ax1
a
a
3HAC 13908-4
CalPen (Calibration Pendulum)
1
1
3HAC 15716-1
Extension 300mm for bits 1/2"
1
1
3HAC 12342-1
Fixture lower arm
1
-
3HAC 13659-1
Fixture lower arm
-
1
3HAC 13660-1
Gearbox crank
1
-
3HAC 16488-1
Guide pins M12 x 150
2
-
3HAC 13056-2
Guide pins M12 x 200
2
-
3HAC 13056-3
Guide pins M12 x 250
1
-
3HAC 13056-4
Guide pins M8 x 100
2
-
3HAC 15520-1
Guide pins M8 x 150
2
-
3HAC 15520-2
Guide pins sealing
-
b
3HAC 14445-1
Guide pins sealing
b
-
3HAC 14446-1
Guide pins M10 x 100
2
2
3HAC 15521-1
Guide pins M10 x 150
2
2
3HAC 15521-2
Guide pins M16 x 150
-
2
3HAC 13120-2
Guide pins M16 x 200
-
2
3HAC 13120-3
Guide pins M16 x 250
-
1
3HAC 13120-4
Guide pins M16 x 300
2
2
3HAC 13120-5
Guide pins sealing ax 2, 3, 100mm
1
-
3HAC 14628-2
Guide pins sealing ax 2, 3, 80mm
1
-
3HAC 14628-1
Guide pins sealing ax 2, 3, 100mm
-
1
3HAC 14627-3
Guide pins sealing ax 2, 3, 80mm
-
1
3HAC 14627-2
Hydraulic cylinder
1
1
3HAC 11731-1
Hydraulic pump 80Mpa
1
1
3HAC 13086-1
A
23
2 Reference information
2.1.5 Special tools
Description
IRB 66X0/Qty IRB 7600/Qty Art. no.
Hydraulic pump 80Mpa (Glycerin)
b
b
3HAC 13086-2
Levelmeter 2000 kit
a
a
6369901-348
Lifting device, base
1
1
3HAC 15560-1
Lifting device, manipulator
1
1
3HAC 15607-1
Lifting device, upper arm
1
-
3HAC 15994-1
Lifting device, upper arm
-
1
3HAC 15536-1
Lifting eye VLBG M12
1
1
3HAC 16131-1
Lifting eye M12
2
2
3HAC 14457-3
Lifting eye M16
2
2
3HAC 14457-4
Lifting tool (chain)
1
1
3HAC 15556-1
Lifting tool, gearbox ax 2
1
-
3HAC 13698-1
Lifting tool, gearbox ax 2
-
1
3HAC 12731-1
Lifting tool, lower arm
b
b
3HAC 14691-1
Lifting tool, motor ax 1, 4, 5
1
1
3HAC 14459-1
Lifting tool, motor ax 2, 3, 4
1
1
3HAC 15534-1
Lifting tool, wrist unit
1
-
3HAC 13605-1
Lifting tool, wrist unit
-
1
3HAC 12734-1
Measuring pin
a
-
3HAC 13908-5
Mech stop ax 3
2
-
3HAC 12708-1
Mech stop ax 3
-
2
3HAC 12708-2
Press tool, ax 2 bearing
1
-
3HAC 13527-1
Press tool, ax 2 bearing
-
1
3HAC 13453-1
Press tool, ax 2 shaft
1
1
3HAC 13452-1
Press tool, balancing device shaft
1
1
3HAC 17129-1
Press tool, balancing device
1
1
3HAC 15767-1
Puller tool, balancing device shaft
1
1
3HAC 12475-1
Removal tool, wheel unit
-
1
3HAC 15814-1
Removal tool, motor M10x
2
2
3HAC 14972-1
Removal tool, motor M12x
2
2
3HAC 14631-1
Removal tool, motor M12x
2
2
3HAC 14973-1
Rotation tool
1
1
3HAC 17105-1
Sensor plate
a
1
3HAC 0392-1
Support, base
1
1
3HAC 15535-1
Sync. adapter
a
a
3HAC 13908-1
Tool set balancing device
1
-
3HAC 15943-2
Tool set balancing device
-
1
3HAC 15943-1
Turn disk fixture
a
a
3HAC 68080011GU
Washers for Mech stop axis 3
2
2
3HAA 1001-186
Note a) Calibration tools for IRB 6600/6650/7600 when CalPen is not used (standard).
Note b) Special tools that may be rent from ATRP/S.
24
A
3HAC 16245-1
2 Reference information
2.1.6 Performing a leak-down test
2.1.6 Performing a leak-down test
General
After refitting any motor and any gearbox, the integrity of all seals enclosing the gearbox oil
must be tested. This is done in a leak-down test.
Required equipment
Equipment, etc.
Spare part no. Art. no.
Leakdown tester
Note
3HAC 0207-1
Leak detection spray
Procedure
Step
3HAC 16245-1
Action
Note/Illustration
1.
Finish the refitting procedure of the motor or
gear in question.
2.
Remove the topmost oil plug on the gear in
question, and replace it with the leakdown
tester .
Adapters may be required, which are included
in the leakdown tester kit.
3.
Apply compressed air, and raise the pressure Recommended value: 0.2 - 0.25
with the knob until the correct value is shown on bar (20 - 25 kPa)
the manometer.
4.
Disconnect the compressed air supply.
5.
Wait for approx. 8-10 minutes. No pressure loss If the compressed air is signifimust be detected.
cantly colder or warmer than the
gearbox to be tested, a slight pressure increase or decrease respectively may occur. This is quite
normal.
6.
Was any pressure drop evident?
Localize the leak as detailed below.
Remove the leakdown tester, and refit the oil
plug. The test is complete.
7.
Spray suspected leak areas with leak detection Art. no. specified above!
spray .
Bubbles indicate a leak.
8.
When the leak has been localized: take the necessary measures to correct the leak.
A
Art. no. specified above!
25
2 Reference information
2.1.7 Lifting equipment and lifting instructions
2.1.7 Lifting equipment and lifting instructions
General
Many repair and maintenance activities require different pieces of lifting equipment, which
are specified in each activity instruction.
However, how to use each piece of lifting equipment is not detailed in the activity instruction,
but in the instruction delivered with each piece of lifting equipment.
This implies that the instructions delivered with the lifting equipment should be stored for
later reference.
26
A
3HAC 16245-1
3 Unpacking
3.0.1 Pre-installation procedure
Chapter 3: Unpacking
3.0.1 Pre-installation procedure
General
This instruction is primarily intended for use when unpacking and installing the manipulator
(mechanical robot) for the first time. It also contains information useful during later re-installation of the manipulator.
Checking the prerequisites for
installation
The checklist below details what must be observed before proceeding with the actual installation of the manipulator:
1. Make sure only qualified installation personnel conforming to all national and local
codes are allowed to perform the installation.
2. Make sure the manipulator has not been damaged, by visually inspecting the
manipulator and control cabinet exterior.
3. Make sure the lifting device to be used is dimensioned to handle the weight of the
manipulator as specified in Weight, manipulator on page 27.
4. If the manipulator is not to be installed directly, it must be stored as described in
Storage conditions, manipulator on page 28.
5. Make sure the expected operating environment of the manipulator conforms to
the specifications as described in Operating conditions, manipulator on page 28.
6. Before taking the manipulator to its installation site, make sure the site conforms
to Loads on foundation, manipulator, Requirements on foundation, manipulator
on page 28 and Protection classes, manipulator on page 29.
7. Before moving the manipulator, please observe Risk of tipping/Stability on page
34 regarding risk of tipping!
8. When these prerequisites have been met, the manipulator may be taken to its
installation site as described in Lifting manipulator with fork lift on page 36.
Weight, manipulator
3HAC 16245-1
The table below shows the weights of the different models:
Manipulator model
Weight
IRB 6600 - 175/2.55
1700 kg
IRB 6600 - 225/2.55
1700 kg
IRB 6600 - 175/2.8
1700 kg
IRB 6650 - 125/3.2
1725 kg
IRB 6650 - 200/2.75
1700 kg
A
27
3 Unpacking
3.0.1 Pre-installation procedure
Loads on foundation, manipulator
The table below shows the various forces and torques working on the manipulator during
different kinds of operation.
NOTE! These forces and torques are extreme values that are rarely encountered during operation. The values also never reach their maximum simultaneously!
Requirements on
foundation,
manipulator
Storage conditions, manipulator
Operating conditions, manipulator
28
Force
Endurance load
(in operation)
Max. load
(at emergency stop)
Force xy
±10.1 kN
±20.7 kN
Force z
18.0 ±13.8 kN
18.0 ±22.4 kN
Torque xy
±27.6 kNm
±50.6 kNm
Torque z
±7.4 kNm
±14.4 kNm
The table below shows the requirements for the foundation where the manipulator is to be
fitted:
Requirement
Value
Min. levelity
0.5 mm
Max. tilt
5°
Min. resonance frequency
22 Hz
Note
The limit for the maximum payload on the
manipulator is reduced if the manipulator is
tilted from 0°.
Contact ABB for further information about
acceptable payload.
The table below shows the allowed storage conditions for the manipulator:
Parameter
Value
Min. ambient temperature
-25°C
Max. ambient temperature
+55°C
Max. ambient temperature (less than 24 hrs)
+70°C
Max. ambient humidity
Max. 95% at constant temperature
The table below shows the allowed operating conditions for the manipulator:
Parameter
Value
Min. ambient temperature
+5°C
Max. ambient temperature
+50°C
Max. ambient humidity
Max. 95% at constant temperature
A
3HAC 16245-1
3 Unpacking
3.0.1 Pre-installation procedure
Protection
classes, manipulator
3HAC 16245-1
The table below shows the protection class of the manipulator:
Equipment
Protection class
Manipulator, IRB 6600/6650
IP 67
A
29
3 Unpacking
3.0.2 Working range, IRB 6600 - 175/2.55 and IRB 6600 - 225/2.55
3.0.2 Working range, IRB 6600 - 175/2.55 and IRB 6600 - 225/2.55
Illustration
The illustration below shows the unrestricted working range of IRB 6600 - 175/2.55 and IRB
6600 - 225/2.55:
IR B 6600-175/2,55
IR B 6600-225/2,55
903
1119
1814
2550
xx0200000025
30
A
3HAC 16245-1
3 Unpacking
3.0.3 Working range, IRB 6600 - 175/2.8
3.0.3 Working range, IRB 6600 - 175/2.8
Illustration
The illustration below shows the unrestricted working range of IRB 6600 - 175/2.8:
IR B 6600-175/2,8
1004
1324
2061
2800
xx0200000026
3HAC 16245-1
A
31
3 Unpacking
3.0.4 Working range, IRB 6650 - 125/3.2
3.0.4 Working range, IRB 6650 - 125/3.2
Illustration
The illustration below shows the unrestricted working range of IRB 6650 - 125/3.2:
IRB 6650-125/3.2
xx0200000338
32
A
3HAC 16245-1
3 Unpacking
3.0.5 Working range, IRB 6650 - 200/2.75
3.0.5 Working range, IRB 6650 - 200/2.75
Illustration
The illustration below shows the unrestricted working range of IRB 6650 - 200/2.75:
RB 6650-200/2.75
xx0200000339
3HAC 16245-1
A
33
3 Unpacking
3.0.6 Risk of tipping/Stability
3.0.6 Risk of tipping/Stability
Risk of tipping
When the manipulator is not fastened to the floor and standing still, the manipulator is not
stable in the whole working area. Moving the arms will displace the centre of gravity, which
may cause the manipulator to tip over. DO NOT change the manipulator position before
securing it to the foundation.
Stabililty
The figure below shows the manipulator in its shipping position, which also is its most stable
position.
°
50
m
xx0100000103
1. DO NOT change the manipulator position before securing it to its foundation. The
shipping position is the most stable.
34
A
3HAC 16245-1
4 On-site Installation
Chapter 4: On-site Installation
3HAC 16245-1
A
35
4 On-site Installation
4.1.1 Lifting manipulator with fork lift
Section 4.1: On-site installation, manipulator
4.1.1 Lifting manipulator with fork lift
General
The manipulator may be moved using a fork lift. Special aids are available.
This section applies to the IRB 7600 as well as IRB 6600.
Different designs
There are two different versions of the fork lift that fit one design of the frame respectevily.
The different designs of the frame and of the fork lift attachments are shown in the figure
below. Determine which fork lift set fits the current manipulator.
Note! The distance between the attachment holes for the fork lift pockets, shown in the figure
below, are different depending on the design of the frame. This means that the fork lift sets
are unique for one type of frame, they are in other words not compatible!
Except for the shorter distance between the attachment holes, the later design of the frame
also includes an extra oil plug, located as shown in the figure below.
C
1
2
A
B
xx0200000386
1
Frame version without oil plug on the side (C), fork lift set to be used: 3HAC 0604-2
2
Frame version with oil plug on the side (C), fork lift set to be used: 3HAC 0604-1
A
Attachment holes, fork lift 3HAC 0604-2
B
Attachment holes, fork lift 3HAC 0604-1
C
Oil plug
Required equipment
36
Equipment, etc.
Art. no.
Note
Fork lift set, incl. all required
hardware
3HAC 0604-2
See Illustration, 3HAC 0604-2 on page 37.
Fork lift set, incl. all required
hardware
3HAC 0604-1
See Illustration, 3HAC 0604-1 on page 38.
A
3HAC 16245-1
4 On-site Installation
4.1.1 Lifting manipulator with fork lift
Illustration, 3HAC
0604-2
Equipment, etc.
Art. no.
Note
Standard toolkit
3HAC 15557-1 The contents are defined in section Standard toolkit on page 18.
The figure below shows how to attach the fork lift set, 3HAC 0604-2, to the manipulator.
A
C
B
xx0100000102
3HAC 16245-1
A
Securing screws (2x4 pcs)
B
Fork lift pockets (2 pcs)
C
Spacer (2 pcs)
A
37
4 On-site Installation
4.1.1 Lifting manipulator with fork lift
Illustration, 3HAC
0604-1
The figure below shows how to attach the fork lift set, 3HAC 0604-1, to the manipulator.
D
E
C
A
B
C
A
xx0200000379
Lifting the manipulator with fork lift
A
Fork lift pocket (2 pcs, different from each other)
B
Spacer (2 pcs)
C
Securing screws (2x4 pcs), not oil lubricated
D
Securing screws (2 pcs), oil lubricated
E
Attachment point for spacer
The section below details how to secure the fork lift set to the manipulator in order to lift and
move the manipulator using the fork lift ONLY!
The IRB 6600/6650 manipulator weighs 1725 kg! All lifting equipment used must be dimensioned accordingly!
The IRB 7600 manipulator weighs 2550 kg! All lifting equipment used must be dimensioned
accordingly!
The shorter fork lift pocket weighs 22 kg while the longer version weighs 60 kg! Use a suitable
lifting device to avoid injury to personnel!
38
A
3HAC 16245-1
4 On-site Installation
4.1.1 Lifting manipulator with fork lift
No personnel must under any circumstances be present under the suspended load!
Step
Info/Illustration
Make sure the manipulator is posiRelease the brakes if required as detailed in
tioned as shown in the figure to the
Manually releasing the brakes on page 44.
right. If it is not, position it that way.
Note! Depending on which fork lift set
50°
is used, the manipulator may or may
not be equipped with a load, see figures on the right!
10°
1.
Action
m
xx0200000079
When using fork lift set 3HAC 0604-2, no
load is permitted on the manipulator!
10°
50°
m
xx0200000387
When using fork lift set 3HAC 0604-1, a
load is permitted on the manipulator!
3HAC 16245-1
2.
Fit the two spacers to the manipulator Shown in the figures Illustration, 3HAC
and secure.
0604-2 on page 37 or Illustration, 3HAC
0604-1 on page 38!
3.
Secure the fork lift pocket horizontally Shown in the figure Illustration, 3HAC 0604to the spacers with four washers and 2 on page 37 or Illustration, 3HAC 0604-1
securing screws.
on page 38!
Notice the tightening torques! All the 4 pcs; M16x60; tightening torque: 60 Nm
securing screws are identical, but
±12 Nm (not oil lubricated screws).
they are secured with different tight- Make sure the original screws are always
ening torques!
used (or replacements of equivalent quality:
M16, quality 12.9)!
A
39
4 On-site Installation
4.1.1 Lifting manipulator with fork lift
Step
4.
Action
Info/Illustration
Secure the fork lift pocket vertically by Shown in the figure Illustration, 3HAC 0604fastening the two washers and oil
1 on page 38!
lubricated securing screws to the
2 pcs; M16x60; tightening torque: 300 Nm
frame (only in fork lift set 3HAC 0604- ±45 Nm.
1!).
Make sure the original screws are always
used (or replacements of equivalent quality:
M16, quality 12.9)!
5.
Secure the second fork lift pocket on Shown in figure Illustration, 3HAC 0604-2
the other side of the manipulator with on page 37 or Illustration, 3HAC 0604-1 on
securing screws.
page 38!
4 pcs; M16x60; tightening torque: 60 Nm
±12 Nm (not oil lubricated screws).
Make sure the original screws are always
used (or replacements of equivalent quality:
M16, quality 12.9)!
6.
Double-check that the pockets are
properly secured to the manipulator!
Insert the fork lift forks into the pockets and carefully lift the manipulator.
xx0200000380
Reposition the harness, if any, before using
a fork lift!
7.
40
Lift the manipulator and move it to its
installation site.
A
3HAC 16245-1
4 On-site Installation
4.1.2 Lifting manipulator with roundslings
4.1.2 Lifting manipulator with roundslings
General
The manipulator may be lifted with roundslings according to the illustration below. The illustration is the same as the label attached to the manipulator´s lower arm.
L IF T ING OF R OB OT
HE B E N DE S R OB OT E R S
L E VAGE DU R OB OT
Roundsling, 2000kg
Do not strech!
Rundschlingen, 2000kg
Nicht gespannt!
Élingue ronde, 2000kg
Ne doivent pas etre sous tension!
IRB 6600:
m=1700kg, 3750lbs
50
m
.
10
700-725 3x Chain sling with shortener,
4250kg, 0.47m, 0.54m, 0.76m.
3x Anschlagketten mit Verkürzer,
4250kg, 0.47m, 0.54m, 0.76m.
3x Chaîne avec crochet
raccourcisseur, 4250kg, 0.47m,
0.54m, 0.76m.
3x Roundsling, 2000kg, 2m.
3x Rundschlingen, 2000kg, 2m.
3x Élingue ronde, 2000kg, 2m.
3HAC 16487-1
xx0200000282
-
3HAC 16245-1
Label for lifting of robot, IRB 6600
A
41
4 On-site Installation
4.1.3 Lifting manipulator with lifting slings
4.1.3 Lifting manipulator with lifting slings
General
The section below applies to IRB 7600 as well as IRB 6600.
Illustration, lifting
slings
The figure below shows how to lift the complete manipulator with lifting slings.
Note the recommended manipulator position shown in the following figure and in the instruction! Attempting to lift a manipulator in any other position may result in the manipulator
tipping over, causing severe damage or injury!
A
D
C
D
F
C
E
I
L
B
xx0200000153
42
A
Load hook
B
Swivelling lifting eyes, 4 pcs
C
Shortening hook
D
Chain
E
M12 lifting eye
F
Lifting device´s eye
I
Lifting slings, 4 pcs
L
Hook
A
3HAC 16245-1
4 On-site Installation
4.1.3 Lifting manipulator with lifting slings
Required equipment
Equipment
Art. no.
Lifting device, manipulator 3HAC 15607-1, includes instruction, 3HAC 15971-2,
for how to use the lifting device.
Slings attached
directly onto
manipulator
The section below details how to lift and move the manipulator using lifting slings when these
are to be attached directly onto the manipulator frame.
The IRB 6600/6650 manipulator weighs 1725 kg! All lifting equipment used must be dimensioned accordingly!
The IRB 7600 manipulator weighs 2550 kg! All lifting equipment used must be dimensioned
accordingly!
No personnel must under any circumstances be present under the suspended load!
Step
Action
Note
1.
Run the overhead crane to a position
above the manipulator.
2.
Make sure the manipulator is positioned Release the brakes if required as
as shown in the figure on the right. If it is detailed in Manually releasing the
not, position it that way.
brakes on page 44.
°
50
m
xx0100000103
3HAC 16245-1
3.
Fit the lifting device, manipulator to the
robot as described in the enclosed
instruction!
4.
Raise the overhead crane to lift the robot. Make sure all hooks and attachments
maintain their correct positions while lifting the manipulator!
Always move the manipulator at very low
speeds, making sure it does not tip.
A
Art. no. specified in Required equipment
on page 43!
43
4 On-site Installation
4.1.4 Manually releasing the brakes
4.1.4 Manually releasing the brakes
General
The section below details how to release the holding brakes of each axis motor. It applies to
IRB 7600 as well as IRB 6600/6650. Differences between the versions are highlighted in the
affected sections.
The brakes may be released by:
•
Internal brake release unit: using push buttons on the manipulator. This requires either
that the controller is connected or that power is supplied to the R1.MP connector (on
manipulator base), 0V on pin 12 and 24V on pin 11.
•
IRB 7600: External brake release unit: using push-buttons on an external brake
release unit. This does NOT require the controller to be connected. The external unit
is used when there are no push-buttons on the manipulator.
Supplying power on the wrong pins may cause all brakes on the manipulator to be released!
Illustration, IRB
6600/6650
The internal brake release unit on the IRB 6600/6650 is located at the frame, as shown in the
figure below.
6
5
4
3
2
1
xx0300000044
-
44
Internal brake release unit with push buttons, located on the manipulator frame
A
3HAC 16245-1
4 On-site Installation
4.1.4 Manually releasing the brakes
Illustration, IRB
7600 base
The internal brake release unit on the IRB 7600 is located either at the base or at the frame.
The figure below shows the unit located at the base.
xx0200000375
-
Illustration, IRB
7600 frame
Internal brake release unit with push buttons, located on the manipulator base
The internal brake release unit on the IRB 7600 is located either at the base or at the frame.
The figure below shows the unit located at the frame.
6 5 4
3 2 1
xx0200000376
-
3HAC 16245-1
Internal brake release unit with push buttons, located on the manipulator frame
A
45
4 On-site Installation
4.1.4 Manually releasing the brakes
Internal brake
release unit,
releasing the
brakes
The procedure below details how to release the holding brakes when the robot is equipped
with an internal brake release unit.
When relasing the holding brakes, the manipulator axes may move very quickly and sometimes in unexpected ways! Make sure no personnel is near the manipulator arm!
Step
Illustration, IRB
7600 external
brake release unit
connections
Action
Info/Illustration
1.
The internal brake release unit is equipped with
six buttons for controlling the axes brakes. The
buttons are numbered according to the numbers of the axes.
The buttons are located according
to one of the figures
-Illustration, IRB 6600/6650 on
page 44,
- Illustration, IRB 7600 base on
page 45 or
- Illustration, IRB 7600 frame on
page 45.
2.
Release the holding brake on a particular
manipulator axis by pressing the corresponding button on the internal brake release panel.
The brake will function again as soon as the
button is released.
The illustration below shows where to connect the external brake release unit in order to
release the manipulator’s holding brakes.
B
A
C
D
xx0100000104
46
A
Connector R1.BU
B
Rear connector plate
C
Rear cover plate
D
External brake release unit
A
3HAC 16245-1
4 On-site Installation
4.1.4 Manually releasing the brakes
Illustration IRB
7600, external
brake release unit
connectors
The illustration below shows the connectors on the manipulator and on the external brake
release unit.
A
B
C
D
E
xx0200000081
A
Rear connector plate
B
Connector R1.MP
C
Connector R1.BU
D
External brake release unit
E
Connect to R1.BU
Required equipment
External brake
release unit (only
IRB 7600)
Equipment
Art. no.
External brake release unit
3HAC 12987-1
This section details how to release the holding brakes when the robot is equipped with an
external brake release unit (only IRB 7600).
When releasing the holding brakes, the manipulator axes may move very quickly and sometimes in unexpected ways! Make sure no personnel is near the manipulator arm!
Step
1.
3HAC 16245-1
Action
Info/Illustration
Remove the rear cover plate on the base of Shown in Illustration, IRB 7600 exterthe manipulator by unscrewing its attachnal brake release unit connections on
ment screws and plain washers
page 46!
A
47
4 On-site Installation
4.1.4 Manually releasing the brakes
Step
48
Action
Info/Illustration
2.
Locate the free connector, connected to the Shown in Illustration IRB 7600, exterrear of connector R1.MP behind the rear
nal brake release unit connectors on
connector plate.
page 47!
Make sure it is designated R1.BU.
3.
Connect the external brake release unit to
connector R1.BU.
4.
Release the holding brake of each manipulator axis by pressing the respective button
on the external brake release unit.
5.
Disconnect the external brake release unit.
6.
Refit the rear cover plate with its attachment
screws.
A
Art. no. specified in section Required
equipment on page 47!
Shown in Illustration IRB 7600, external brake release unit connectors on
page 47!
3HAC 16245-1
4 On-site Installation
4.1.5 Lifting the base plate
4.1.5 Lifting the base plate
General
This section details how to lift the base plate
Equipment
Spare part no. Art. no.
Note
Standard toolkit
3HAC 15571-1 The contents are defined in section
Standard toolkit on page 18!
Lifting eye, M16
3HAC 14457-4 Use three lifting eyes.
For lifting the base plate.
Lifting slings
Use three slings.
Length: approx. 2 m
Hole
configuration
A
xx0200000096
A
Attachment holes for lifting eyes (x3)
The base plate weighs 335 kg! All lifting equipment used must be dimensioned accordingly!
Lifting the base
plate
Step
3HAC 16245-1
Action
Info/Illustration
1.
Fit lifting eyes in the three lifting holes. Shown in the figure Hole configuration on
page 49!
2.
Fit lifting slings to the eyes and to the
lifting device.
A
49
4 On-site Installation
4.1.6 Securing the base plate
4.1.6 Securing the base plate
General
This section details how to secure the base plate.
Base plate,
dimensions
2x 503
2x 453
2x 247
2x 182
2x 90 2x 90
2x 451
2x 407
2x 321
2x 273
D
B
B
455
A
A
540
480
A-A
B- B
D
xx0100000105
50
A
3HAC 16245-1
4 On-site Installation
4.1.6 Securing the base plate
Base plate,
grooves and
holes
The illustration below shows the orienting grooves and guide sleeve holes in the base plate.
B
A
B
A
B
xx0300000045
A
Guide sleeve holes
B
Orienting grooves in the base plate
Required equipment
Equipment
Spare part no. Art. no.
Base plate
3HAC 12937-7 Includes all required guide
sleeves, screws and washers.
A drawing of the base plate
itself may be ordered from ABB
Robotics!
Guide sleeves, 2 pcs
(between guide plate
and manipulator)
3HAC 12937-3 Included in Base plate, 3HAC
12937-7.
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to
these procedures in
the step-by-step
instructions below.
3HAC 16245-1
Note
These procedures include references to the tools required.
A
51
4 On-site Installation
4.1.6 Securing the base plate
Base plate
This section details how to secure the base plate to the foundation.
The table specifies any recommendations made by ABB:
Variable
Recommendation
Recommended foundation quality 1
Steel fibre reinforced concrete foundation, 30 kg/m3,
class K30, t=250 mm
Recommended foundation quality 2
Sturdy concrete foundation, double reinforced by
ø10 mm steel bars, distance 140 mm, class K25,
t=250
Recommended bolt quality and dimen- Hilti HDA-P, M20 x 200
sion
The base plate weighs 335 kg! All lifting equipment used must be dimensioned accordingly!
Step
52
Action
Info/illustration
1.
Make sure the foundation is level.
2.
Orient the base plate in relation to the
robot work location using the three
grooves in the base plate.
3.
Lift the base plate to its mounting position. Detailed in Lifting the base plate on
page 49.
4.
Use the base plate as a template and drill If possible, observe the recommenda16 attachment holes as required by the
tions specified in the table above. ABB
selected bolt dimension.
does not assume any responsibility for
other foundation qualities, due to great
variations in the foundation properties.
5.
Fit the base plate and use the levelling
bolts to level the base plate.
6.
If required, fit strips of sheet metal underneath the base plate to fill any gaps.
7.
Secure the base plate to the foundation
with screws and sleeves.
8.
Recheck the four manipulator contact sur- Max. allowed deviation: 0.5 mm
faces on the base plate to make sure they
are level and flat.
If they are not, pieces of sheet metal or
similar may be used to bring the base plate
to a level position.
A
Shown in Base plate, grooves and
holes on page 51.
3HAC 16245-1
4 On-site Installation
4.1.7 Orienting and securing the manipulator
4.1.7 Orienting and securing the manipulator
General
This section details how to orient and secure the manipulator to the base plate after fitting it
to the foundation, in order to run the robot safely. The requirements made on the foundations
are shown in the following tables and figures.
The section below applies to IRB 7600 as well as IRB 6600/6650. The only difference
between these robot models is that IRB 7600 is secured using 12 attachment bolts while IRB
6600/6650 uses 8 attachment bolts.
Illustration,
manipulator fitted
to base plate
The illustration below shows the IRB 7600 manipulator base fitted to the base plate. The IRB
6600/6650 manipulator base does not have the attachment holes A (4 pcs).
A B
C
D
B
xx0100000107
Attachment
screws
3HAC 16245-1
A
Manipulator attachment bolts and washers, 4 pcs M24 x 120 (IRB 7600 only)
B
Manipulator attachment bolts and washers, 8 pcs M24 x 120
C
Levelling screws
D
Base plate attachment screws
The table below specifies the type of securing screws and washers to be used for securing the
manipulator to the base plate/foundation.
Suitable screws, lightly lubricated:
M24 x 120
Quality
Quality 8.8
Suitable washer:
Thickness: 4 mm
Outer diameter: 44 mm
Inner diameter: 25 mm
Tightening torque:
775 Nm
A
53
4 On-site Installation
4.1.7 Orienting and securing the manipulator
Securing the
manipulator
The procedure below details how to secure the manipulator to the base plate after fitting the
plate to the foundation.
Step
Hole configuration, IRB 6600/
6650
Action
Info/Illustration
1.
Lift the manipulator.
Detailed in Lifting manipulator with fork
lift on page 36or Lifting manipulator with
lifting slings on page 42.
2.
Move the manipulator to the vicinity of its
installation location.
3.
Fit two guide sleeves to the guide sleeve Shown in Base plate, grooves and holes
holes in the base plate.
on page 51.
Note that one of the guide sleeve holes
is elongated!
4.
Guide the manipulator gently using two
M24 screws while lowering it into its
mounting position.
Make sure the manipulator base is correctly fitted onto the guide sleeves!
5.
Fit the bolts and washers in the base
attachment holes.
Specified in Attachment screws on page
53.
Shown in the figure Illustration, manipulator fitted to base plate on page 53!
Note! Lightly lubricate the 8 or 12
screws before assembly!
6.
Tighten the bolts in a criss-cross pattern
to ensure that the base is not distorted.
The illustration below shows the hole configuration used when securing the manipulator, IRB
6600.
R400
4
x
°
15
7,5°
4x3
xx0200000029
54
A
3HAC 16245-1
4 On-site Installation
4.1.7 Orienting and securing the manipulator
Hole configuration, IRB 7600
The illustration below shows the hole configuration used when securing the manipulator, IRB
7600.
4x
10
4
4
5 .5
x1 x7
4x
37.5
xx0300000046
Cross section,
guide sleeve hole
The illustration below shows the cross section of the guide sleeve holes.
xx0100000109
3HAC 16245-1
A
55
4 On-site Installation
4.1.8 Fitting equipment on manipulator
4.1.8 Fitting equipment on manipulator
General
The manipulator features mounting holes for additional equipment.
Access to any of the following mounting holes may be obstructed by any additional cabling,
equipment etc, fitted by the robot user. Make sure the required mounting holes are accessible
when planning the robot cell.
Under certain conditions, mounting holes may be added on the manipulator.
Illustration, fitting
extra equipment
on lower arm
The illustration below shows the mounting holes available for fitting extra equipment on the
lower arm.
Make sure not to damage the manipulator cabling on the inside of the lower arm when fitting
extra equipment. Always use the appropriate attachment screws!
202
207,5*
282
154
M12 (4x)
80
125 25
110* 40*
5, 35*
75
150
53
354, 369*
xx0200000195
*
Illustration, fitting
extra equipment
on upper arm
IRB 6650
The illustration below shows the mounting holes available for fitting extra equipment on the
upper arm.
M12 (4x)
190
xx0200000196
56
A
3HAC 16245-1
4 On-site Installation
4.1.8 Fitting equipment on manipulator
Illustration, fitting
extra equipment
on frame
The illustration below shows the mounting holes available for fitting extra equipment on the
frame.
75
200
45
240
4x M16
790
1195
xx0200000198
3HAC 16245-1
A
57
4 On-site Installation
4.1.8 Fitting equipment on manipulator
Illustration, fitting
on mounting
flange
The illustrations below show the mounting holes available for fitting equipment on the
mounting flange. There are two different versions of the mounting flange, as shown in illustrations below.
A
30° (11x)
15
Ø12 H7 Depth 15
B
B
A
A-A
Ø100 H7Depth 8 min
Ø 160
B -B
xx0200000197
-
58
Mounting flange for robot version 225/2.55, 175/2.8, 125/3.2 and 200/2.75
A
3HAC 16245-1
4 On-site Installation
4.1.8 Fitting equipment on manipulator
A
30° (12 x)
15
Ø12 H7 Depth 15
B
B
A
Ø100H7 Depth 8min
Ø160
xx0200000397
-
Fastener quality
3HAC 16245-1
Mounting flange for robot version 175/2.55
When fitting tools on the mounting flange (see the figures above), use only screws with quality 12.9. When fitting other equipment, standard screws with quality 8.8 can be used.
A
59
4 On-site Installation
4.1.9 Loads
4.1.9 Loads
General
Any loads mounted on the manipulator must be defined correctly and carefully (with regard
to the position of center of gravity and inertia factor) in order to avoid jolting movements and
overloading the motors. If this is not done correctly operational stops may result.
References
Load diagrams, permitted extra loads (equipment) and their positions are specified in the
Product Specification. The loads must also be defined in the software as detailed in User’s
Guide.
Stop time and
braking distances
Manipulator motor brake performance depends on any loads attached. For further information about brake performance, please contact ABB Robotics.
60
A
3HAC 16245-1
4 On-site Installation
4.2.1 Introduction
Section 4.2: Restricting the working range
4.2.1 Introduction
General
The working range of the manipulator may be limited to eliminate the risk of collisions. The
following axes may be restricted:
•
Axis 1, hardware (mechanical stop) and software (signal from adjustable position
switch)
•
Axis 2, hardware (mechanical stop) and software (signal from adjustable position
switch)
•
Axis 3, hardware (mechanical stop) and software (signal from adjustable position
switch)
This section describes the utilization of the mechanical stops and the position switches.
3HAC 16245-1
A
61
4 On-site Installation
4.2.2 Mechanically restricting the working range of axis 1
4.2.2 Mechanically restricting the working range of axis 1
General
The working range of axes 1 is limited by fixed mechanical stops and can be reduced by
adding additional mechanical stops giving 7.5 or 15 graduation in both directions.
Mechanical
stops, axis 1
The illustration below shows the mounting position of the mechanical stops on axis 1.
A
B
xx0300000049
A
Additional mechanical stop
B
Fixed mechanical stop
Required equipment
Equipment, etc.
62
Spare part no. Art. no.
Note
7.5°, mechanical stop for axis 1
3HAC 11076-1 Includes attachment
screws.
15°, mechanical stop for axis 1
3HAC 11076-2 Includes attachment
screws.
Standard toolkit
3HAC 15571-1 The contents are
defined in the section
Standard toolkit on
page 18.
A
3HAC 16245-1
4 On-site Installation
4.2.2 Mechanically restricting the working range of axis 1
Installation,
mechanical stops
axis 1
The procedure below details how to mount the mechanical stops on axis 1. An assembly
drawing is also enclosed with the product.
The addititonal mechanical stop must be replaced after a hard collision if the mechanical stop
has been deformed!
Step
3HAC 16245-1
Action
Note/Illustration
1.
Mount the additional mechanical stop on the frame
according to the figure Mechanical stops, axis 1 on
page 62.
Tightening torque: 115 Nm.
2.
The software working range limitations must be
amended to correspond to the changes in the mechanical limitations of the working range.
A
63
4 On-site Installation
4.2.3 Mechanically restricting the working range of axis 2
4.2.3 Mechanically restricting the working range of axis 2
General
The working range of axis 2 is limited by fixed mechanical stops and can be reduced by
adding up to six additional mechanical stops with 15 graduation in respective direction.
Mechanical
stops, axis 2
The illustration below shows the mounting position of the mechanical stops on axis 2.
A
B
xx0300000047
A
Additional mechanical stops
B
Fixed mechanical stop
Required equipment
Equipment, etc.
64
Spare part no. Art. no.
Note
Mechanical stop set,
axis 2 IRB 6600/6650
3HAC 13787-1 Includes six stops, 3HAC 137861, each one restricting the working range by 15°.
Includes attachment screws.
Mechanical stop set,
axis 2 IRB 7600
3HAC 11077-1 Includes six stops, 3HAC 114071, each one restricting the working range by 15°.
Includes attachment screws.
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18.
A
3HAC 16245-1
4 On-site Installation
4.2.3 Mechanically restricting the working range of axis 2
Installation,
mechanical stops
axis 2
The procedure below details how to mount the mechanical stops on axis 2. An assembly
drawing is also enclosed with the product.
The addititonal mechanical stop must be replaced after a hard collision if the mechanical stop
has been deformed!
Step
3HAC 16245-1
Action
Note/Illustration
1.
Mount and tighten the additional stops in a row, Tightening torque: 115 Nm.
starting from the fixed stop.
Shown in the figure Mechanical
stops, axis 2 on page 64.
2.
The software working range limitations must be
amended to correspond to the changes in the
mechanical limitations of the working range.
A
65
4 On-site Installation
4.2.4 Mechanically restricting the working range of axis 3
4.2.4 Mechanically restricting the working range of axis 3
General
The working range of axis 3 is limited by fixed mechanical stops and can be reduced by
adding additional mechanical stops with 20 graduation in respective direction.
Mechanical
stops, axis 3
The illustration below shows the mounting position of the mechanical stops on axis 3.
A
B
xx0300000048
A
Additional mechanical stops
B
Fixed mechanical stop
Required equipment
Equipment, etc.
66
Spare part no. Art. no.
Note
Mechanical stop set,
axis 3, IRB 6600/6650
3HAC 13128-1 Includes six stops, one with
80°restriction, 3HAC 12708-3
(use when limitation angle
>=80), and five with 20°, 3HAC
12708-1.
Includes attachment screws.
Mechanical stop set,
axis 3, IRB 7600
3HAC 13128-3 Includes six stops, one with
80°restriction, 3HAC 12708-4
(use when limitation angle
>=80), and five with 20°, 3HAC
12708-2.
Includes attachment screws.
Standard toolkit
3HAC 15571-1 The contents are defined in the
section Standard toolkit on
page 18.
A
3HAC 16245-1
4 On-site Installation
4.2.4 Mechanically restricting the working range of axis 3
Installation,
mechanical stops
axis 3
The procedure below details how to mount the mechanical stops on axis 3. An assembly
drawing is also enclosed with the product.
The addititonal mechanical stop must be replaced after a hard collision if the mechanical stop
has been deformed!
Step
3HAC 16245-1
Action
Note/Illustration
1.
Mount and tighten the additional stops in a row,
starting from the fixed stop.
Shown in the figure Mechanical
stops, axis 3 on page 66
Tightening torque: 115 Nm.
2.
The software working range limitations must be
amended to correspond to the changes in the
mechanical limitations of the working range.
A
67
4 On-site Installation
4.2.5 Position switches
4.2.5 Position switches
General
Position switches can be installed on axes 1-3. The position switches include cams as shown
in the figures below (all illustrations show IRB 7600 unless otherwise stated).
The position switch kits may be delivered in one of two ways:
Axis 1
•
Fitted by ABB Robotics on delivery. In this case, the cams must still be fitted and
locked by the user. For axis 1, the cover for the cams must also be fitted.
•
As kits to be completely fitted to the manipulator and adjusted by the user.
Description
Art. no.
Position switch, axis 1 complete
3HAC 14118-1
Position switch, axis 2 complete
3HAC 15710-1
Position switch, axis 3 complete
3HAC 15709-1
The illustration below shows the position switch for axis 1:
A
F
C
D
B
E
xx0100000158
68
A
Position switch, axis 1
B
Cam
C
Set screw, cam (cam stop)
D
Protection sheet
E
Rail
F
Rail attachment
A
3HAC 16245-1
4 On-site Installation
4.2.5 Position switches
Axis 2
The illustration below shows the position switch for axis 2:
E
B
A
C
F
xx0100000159
3HAC 16245-1
A
Position switch, axis 2
B
Cam
C
Set screw, cam (cam stop)
E
Rail
F
Rail Attachment
A
69
4 On-site Installation
4.2.5 Position switches
Axis 3
The illustration below shows the position switch for axis 3:
F
E
C
B
A
xx0100000160
Specifications
Connections
70
A
Position switch, axis 3
B
Cam
C
Set screw, cam (cam stop)
E
Rail
F
Rail attachment
Maximum voltage/current for the position switches:
Parameter
Value
Voltage
Max. 50 V DC
Current
Max. 1 A
The position switches may be connected to different points on the robot system:
•
R1.SW1 at the manipulator base. Customer connection kit is recommended! Also see
"Customer Connection Kit"!
•
R1.SW2/3 at the manipulator base. Customer connection kit is recommended! Also
see "Customer Connection Kit"!
•
XT8, screw terminal in the controller cabinet
A
3HAC 16245-1
4 On-site Installation
4.2.5 Position switches
Fitting and
adjusting cams
and stops
The instruction below details how to fit and adjust the parts of the position switches:
Step
Illustration,
adjust and secure
cams
Action
Info/Illustration
1.
Cut the cam to a suitable length.
Use a sharp knife and rubber hammer or similar.
2.
Cut the edge of the cam edge to max 30°!
Shown in Illustration, cutting the
cam on page 72.
If the angle is larger, this may damage the position switch!
3.
Cut the part of the cam running in the profile to
90°! Also see Illustration, cutting the cam on
page 72 below!
4.
Make sure the ends of the profile are chamfered to enable the cam to run through the profile.
5.
Fit the cam with the M5 screw and nut. Tighten Shown in Illustration, adjust and
the M5 screw to secure the cam.
secure cams on page 71.
The illustration below show how to adjust and secure the position switch cams and profiles.
C
30°
A
B
xx0100000113
3HAC 16245-1
A
Cam stop, M5 nut and M5 x 6 set screw
B
Adjustable cam
C
Profile
A
71
4 On-site Installation
4.2.5 Position switches
Illustration, cutting the cam
The illustration below show how to cut the position switch cam.
A
o
30
o
90
xx0100000114
A
72
Remove the gray section
A
3HAC 16245-1
4 On-site Installation
4.3.1 Lifting the controller cabinet
Section 4.3: On-site installation, controller cabinet
4.3.1 Lifting the controller cabinet
Lifting device
Use the four lifting devices on the cabinet or a fork lift when lifting the controller cabinet
S4Cplus M2000A as shown below.
60°
xx0100000153
3HAC 16245-1
A
Min. 60°when lifting with straps
B
Fork lift
A
73
4 On-site Installation
4.3.2 Required installation space, control cabinet
4.3.2 Required installation space, control cabinet
Dimensions
The figure below shows the required installation space for the S4Cplus M2000A control cabinet:
A
A
xx0100000156
A
Dimensions
Min. distance from wall
The figure below shows the bolt pattern for the S4Cplus M2000A control cabinet:
720
400
xx0100000157
74
A
3HAC 16245-1
5 Electrical connections
Chapter 5: Electrical connections
3HAC 16245-1
A
75
5 Electrical connections
5.1.1 Connecting the manipulator to the control cabinet
Section 5.1: Signal/Power cables
5.1.1 Connecting the manipulator to the control cabinet
General
Connect the manipulator and control cabinet to each other after securing them to the foundation. The lists below specify which cables to be used in each application.
Location of connectors
XS
Application interface
XS20
I/O connections
XS8
External axes in separate cabinet
X13/X5
Operator’s panel
XS78
Safety signals, external connections
XS77/X7
DeviceNet
LAN/XTDF
Mains connection
X24VE/VS
External axes
IBS
Position switches
XS41
Manipulator cables
XS58
XS2
Ext. contr. panel
Main cable
categories
All cables between manipulator and control cabinet are divided into the following categories:
Cable category
Description
Manipulator cables
Handles power supply to and control of the manipulator’s
motors as well as feedback from the serial measurement
board.
Position switch cables (option) Handles supply to and feedback from any position switches
and cooling fans on the manipulator.
76
Customer cables (option)
Handles communication with equipment fitted on the manipulator by the customer, including databus communication,
low voltage signals and high voltage power supply + protective earth.
External axes cables (option)
Handles power supply to and control of the external axes’
motors as well as feedback from the servo system.
A
3HAC 16245-1
5 Electrical connections
5.1.1 Connecting the manipulator to the control cabinet
These categories are divided into sub-categories which are specified below:
Manipulator
cables
These cables are included in the standard delivery. They are completely premanufactured and ready to plug in.
Cable subcategory
Connection Connection
point,
point,
cabinet
manipulator
Description
Manipulator
cable, power
Transfers drive power from the drive
XP1
units in the control cabinet to the manipulator motors.
R1.MP
Manipulator
cable, signals
Transfers resolver data from the serial
measurement board and power supply
to the SMB.
R1.SMB
XP2
Manipulator
cable, power
Cable
Article number
Manipulator cable, power, 7 m
3HAC 11818-1
Manipulator cable, power, 15 m
3HAC 11818-2
Manipulator cable, power, 30 m
3HAC 11818-4
Cable
Article number
Manipulator cable, signal, shielded, 7 m
3HAC 7998-1
Manipulator cable, signal, shielded, 15 m
3HAC 7998-2
Manipulator cable, signal, shielded, 30 m
3HAC 7998-4
Manipulator
cable, signals
Position switch
cables
3HAC 16245-1
These cables are not included in the standard delivery, but can be included in the delivery if
the Position switch option is ordered. (The position switches can also be ordered without
cables.) The cables are completely pre-manufactured and ready to plug in.
Cable
Article
number
Connection Connection
point,
point,
cabinet
manipulator
Position switch cable, axis 1, 7 m
3HAC 13175-1
XP8
R1.SW
Position switch cable, axis 1, 15 m
3HAC 13175-2
XP8
R1.SW
Position switch cable, axis 1, 30 m
3HAC 13175-4
XP8
R1.SW
Position switch cable, axes 2 and 3, 7 m 3HAC 13176-1
XP58
R1.SW2/3
Position switch cable, axes 2 and 3, 15 m 3HAC 13176-2
XP58
R1.SW2/3
Position switch cable, axes 2 and 3, 30 m 3HAC 13176-4
XP58
R1.SW2/3
A
77
5 Electrical connections
5.1.1 Connecting the manipulator to the control cabinet
Customer cables
External axes
cables
These cables are not included in the standard delivery, but can be included in the delivery of
each specific option. The cables are not ready to plug in, but requires connection to terminals
inside the control cabinet as well as keying. These activities are detailed in Customer Connection Kit.
Connection
point,
cabinet
Connection
point,
manipulator
3HAC 13173-1
XT/XP5.1
XT/XP6
XS6
R1.CP/CS
Fieldbus cable, CAN, 15 m
3HAC 13173-2
XT/XP5.1
XT/XP6
XS6
R1.CP/CS
Fieldbus cable, CAN, 30 m
3HAC 13173-4
XT/XP5.1
XT/XP6
XS6
R1.CP/CS
Fieldbus cable, Profibus, 7 m
3HAC 13174-1
XT/XP5.1
XT/XP6
DP/M
R1.CP/CS
Fieldbus cable, Profibus, 15 m
3HAC 13174-2
XT/XP5.1
XT/XP6
DP/M
R1.CP/CS
Fieldbus cable, Profibus, 30 m
3HAC 13174-4
XT/XP5.1
XT/XP6
DP/M
R1.CP/CS
Cable
Article number
Fieldbus cable, CAN, 7 m
These cables are not included in the standard delivery, but can be included if the External
axes option is ordered. The cables are ready to plug in.
Cable sub-category Description
78
Connection Connection
point,
point,
cabinet
manipulator
External axes cable,
power
Transfers drive power from the
XP7
drive units in the control cabinet to
the externa axes motors.
XS45
External axes cable,
signals
Transfers resolver data from the
serial measurement board and
power supply to the SMB.
XS47
A
XP41
3HAC 16245-1
5 Electrical connections
5.1.2 Connection of manipulator cables to control cabinet, S4Cplus M2000A
5.1.2 Connection of manipulator cables to control cabinet, S4Cplus M2000A
General
Section "Connecting the manipulator to the control cabinet" specifies which cables to use and
to which connectors these are to be connected in order to to connect the controller to the
manipulator.
Connections to
the cabinet
All control cabinet connectors are shown in the figure below.
xx0100000247
The connections on the manipulator are located on the rear of the robot base.
3HAC 16245-1
A
Manipulator cable (Power)
B
Manipulator cable (Signal)
A
79
5 Electrical connections
5.1.3 Connection of mains power to control cabinet, S4Cplus M2000A
5.1.3 Connection of mains power to control cabinet, S4Cplus M2000A
General
Connect the power supply either inside the cabinet, or to a optional socket on the left-hand
side of the cabinet or the lower section of the front. The cable connector is supplied but not
the cable.
Dimension the mains supply cables and fuses in accordance with the rated power and line
voltage, see rating plate on the controller.
Connections to
the mains switch
Also see the Circuit Diagram.
The instruction below details how to make all required connections to the mains switch:
xx0100000248
A
Connector Q1 (L1, L2, L3)
B
Cable gland
C
Protective Earth connection PE
Step Action
80
Info/Illustration
1.
Remove the left cover plate under the top lid.
2.
Pull the mains cable (outer diam. 10.2 mm) through
the gland located on the left cabinet wall.
3.
Release the connector from the knob by pushing the
release buttons located on the side of the connector.
A
Shown in the figure above!
3HAC 16245-1
5 Electrical connections
5.1.3 Connection of mains power to control cabinet, S4Cplus M2000A
Step Action
4.
Connection
through a power
socket
Info/Illustration
Connect phase:
• 1 to L1 (Not dependent on phase sequence)
•
2 to L2
•
3 to L3
•
0 to XT26.N (line neutral is needed only for
option 432)
•
and protective earth to theprotective earth
connection.
5.
Snap the breaker on to the knob again and check that
it is fixed properly in the correct position.
6.
Tighten the cable gland.
7.
Fasten the cover plate.
Shown in the figure above!
NOTE! Max. conductor size is
6 mm2 (AWG 10). Tighten to
a torque of 2.3-2.5 Nm.
Retighten after approx. 1
week.
It is also possible to connect the mains supply through an optional wall socket of type 3x32A
or 4x32A or via an industrial Harting connector (DIN 41 640). See the figure below. Cable
connectors are supplied (option 132 - 134).
A
xx0100000162
A
3HAC 16245-1
DIN connector
A
81
5 Electrical connections
5.2.1 Signal Classes
Section 5.2: Signal connections
5.2.1 Signal Classes
Overview
Signals
82
Different rules apply to the different classes when selecting and laying cable. Signals from
different classes must not be mixed.
•
Power Signals: Supplies external motors and brakes.
•
Control signals: Digital operating and data signals (digital I/O, safety stops, etc.).
•
Measuring signals: Analog measuring and control signals (resolver and analog I/O).
•
Data communication signals: Gateway (Field bus) connection, computer link.
A
3HAC 16245-1
5 Electrical connections
5.2.2 Selecting Cables
5.2.2 Selecting Cables
Controller cables:
All cables laid in the controller must be capable of withstanding 70o C. In addition.
Power Signal:
Shielded cable with an area of at least 0.75mm2 or AWG 18.
Note that any local standards and regulations concerning insulation and area must always be
complied with.
Control signals:
Shielded cables.
Measuring
signals:
Shielded cable with twisted pair conductors.
Data communication signals:
Shielded cable with twisted pair conductors.
A specific cable should be used for Gateway (Fiel bus) connections.
CAN bus with
DeviceNet for distributing I/O units:
Thin cable according to DeviceNet specification release 1.2, must be used, e.g. ABB article
no. 3HAB 8277-1. The cable is shielded and has four conductors, two for electronic supply
and two for signal transmission.
Note that a separate cable for supply of I/O loads is required.
Allen-Bradley
Remote I/O:
Cables according to Allen-Bradley specification, e.g. "Blue hose", should be used for connections between DSQC 350 and the Allen-Bradley PLC bus.
Interbus-S:
Cables according to Phönix specification, e.g. "Green type", should be used for connections
between the DSQC 351 and external Interbus-S bus.
Profibus DP:
Cables according to Profibus DP specification should be used for connections between the I/
O unit DSQC 352 and the external Profibus DP bus.
Ethernet:
Shielded twisted pair conductors (10 Base T STP).
3HAC 16245-1
A
83
5 Electrical connections
5.2.3 Interference elimination
5.2.3 Interference elimination
External units
External relay coils, solenoids, and other units that will be connected to the controller must
be neutralized. The figure below illustrates how this can be done.
The turn-off time for DC relays increases after neutralisation, especially if a diode is connected
across the coil. Varistors give shorter turn-off times. Neutralising the coils lengthens the life of
the switches that control them
Clamping with a
diode
The diode should be be dimensioned for the same current as the relay coil, and a voltage of
twice the supply voltage.
+24V
0V
xx0100000163
Clamping with a
varistor
The varistor should be be dimensioned for the same current as the relay coil, and a voltage of
twice the supply voltage.
+24V
0V
xx0100000164
Clamping with an
RC circuit
R 100 ohm, 1W C 0.1 - 1 mF. >500V max. voltage, 125V nominal voltage.
+24V DC,
or AC voltage
R
C
0V
xx0100000165
84
A
3HAC 16245-1
5 Electrical connections
5.2.4 Connection types
5.2.4 Connection types
General
I/O, external emergency stops, safety stops, etc. can be supplied on screw connections or as
industrial connectors.
Connections
3HAC 16245-1
Designation
Connection type
X(T)
Screw terminal
XP
Pin (male)
XS
Sockets (female)
A
85
5 Electrical connections
5.2.5 Connections to screw terminals
5.2.5 Connections to screw terminals
Overview
This section describes how to connect conductors to screw terminals. Detailed information
about connection location and functions will be found in the circuit diagram (Service Manual).
Installation
The installation should comply with the IP54 (NEMA 12) protective standard.
1. Bend unused conductors backwards and attach them to the cable using a clasp,
or similar.
To prevent interference, ensure that unused conductors are not connected at the other end of
the cable (antenna effect)
In environments with much interference, disconnected conductors should be grounded (0V) at
both ends.
86
A
3HAC 16245-1
5 Electrical connections
5.2.6 Connections to connectors (option)
5.2.6 Connections to connectors (option)
Location of connectors
The industrial connectors can be found on the front of the control cabinet. See the figure
below and the figure in section "Control cabinet connections manipulator"!
The manipulator arm is equipped with round Burndy/Framatome connectors (customer connector not included).
xx0100000249
XS
Application interface
XS20
I/O connections
XS8
External axes in separate cabinet
X13/X5
Operator’s panel
XS78
Safety signals, external connections
XS77/X7
DeviceNet
LAN/XTDF
Mains connection
X24VE/VS
External axes
IBS
Position switches
XS41
Manipulator cables
XS58
XS2
Ext. contr. panel
Connectors,
description
Each industrial connector has accomodations for four rows of 16 conductors with a maximum
conductor area of 1.5 mm 2 . The pull-relief clamp must be used when connecting the shield
to the case.
Making the connection
The section below details how to crimp cable connections to pins:
1. Using a special crimp tool, crimp a pin or socket on to each non-insulated conductor.
When two conductors are be connected to the same pin or socket, both of them must be
crimped into the same pin or socket. A maximum of two conductors may be crimped into
the same pin or socket.
2. Snap the pin into the connector housing.
3. Push the pin into the connector until it locks.
4. When removing pins or sockets from industrial connectors, a special extractor
tool must be used.
3HAC 16245-1
A
87
5 Electrical connections
5.3.1 Signal connections, SpotWelding Specification
Section 5.3: Customer connections on manipulator
5.3.1 Signal connections, SpotWelding Specification
General
The section below specifies the signal connections on manipulator arm housing for material
handling.
Customer Power
(CP)
Servo motor power
3
600 VAC, 12A rms, min. 1, 5 mm 2
Utility power
4
600 VAC, 5A rms, min. 0,5 mm 2
Protective earth
1
min. 1,5 mm 2
Signals
20
50 VAC/DC, 1A rms, min. AWG 24 tw.pairs
Sensitive signals
10
50 VAC/DC, 1A rms, min. AWG 24 tw.pairs + extra
screening
Bus signals
2
Profibus 12 Mbit/s spec*
Bus signals
2
CAN/DeviceNet spec*
Bus signals
4
Interbus spec*
Bus utility signals
4
50 VAC/DC, 1A rms, min. AWG 24 tw.pairs
Fibre Optics
2
1 mm Polymer fibre, wavelength 660 mm
Hose
5
Inner diameter 12,5 mm, max. working pressure 16 bar
Weld power
2
35 mm 2 , 600 VAC, Frequency 50-1000 Hz 150A rms
at +20°(68 F) ambient temp.
120 A rms at +50°(122 F) ambient temp.
Protective earth
1
35 mm 2
Customer Signal
(CS)
Customer BUS
(CBUS)
Air/Water (PROC)
Welding power
(WELD)
Further
information
88
See Circuit Diagram in the "Repairs Manual, part 2" for further information.
A
3HAC 16245-1
5 Electrical connections
5.3.2 Signal connections, Material Handling Specification
5.3.2 Signal connections, Material Handling Specification
General
The section below specifies the signal connections on manipulator arm housing for material
handling.
Customer Power
(CP)
Servo motor power
3
600 VAC, 12A rms, min. 1, 5 mm 2
Utility power
4
600 VAC, 5A rms, min. 0,5 mm 2
Protective earth
1
min. 1,5 mm 2
Signals
20
50 VAC/DC, 1A rms, min. AWG 24 tw.pairs
Sensitive signals
10
50 VAC/DC, 1A rms, min. AWG 24 tw.pairs + extra
screening
Bus signals
2
Profibus 12 Mbit/s spec*
Bus signals
2
CAN/DeviceNet spec*
Bus signals
4
Interbus spec*
Bus utility signals
4
50 VAC/DC, 1A rms, min. AWG 24 tw.pairs
Fibre Optics
2
1 mm Polymer fibre, wavelength 660 mm
Customer Signal
(CS)
Customer BUS
(CBUS)
* Twisted pair under separate screen. Can also be used for very sensitive signals.
Air/Water (PROC)
Hose
Further
information
3HAC 16245-1
1
Inner diameter 12,5 mm, max. working pressure 16 bar
See Circuit Diagram in the "Repairs Manual, part 2" for further information.
A
89
5 Electrical connections
5.4.1 The MOTORS ON/MOTORS OFF circuit
Section 5.4: Customer connections on controller
5.4.1 The MOTORS ON/MOTORS OFF circuit
Outline diagram
The MOTORS ON/MOTORS OFF circuit is made up of two identical chains of switches.
The diagram shows the available customer connections, AS, GS and ES.
A
E
C
D
B
G
F
H
J
R
S
T
M
K
L
N
P
xx0100000174
Function of the
MOTORS ON/
MOTORS OFF
circuit
90
A
ES (emergency stop)
B
LS (Limit switch)
C
Solid state switches
D
Contactor
E
Mains
F
Drive unit
G
Second chain interlock
H
GS (general mode safeguarded space stop)
J
AS (Automatic mode safeguarded space stop)
K
ED (TPU enabling device)
L
Manual mode
M
Motor
N
Automatic mode
P
Operating mode selector
R
RUN
S
EN1
T
EN2
The circuit monitors all safety related equipment and switches. If any of the switches is
opened, the MOTORS ON/MOTORS OFF circuit switches the power to the motors off.
As long as the two chains are not identical, the robot will remain in MOTORS OFF mode.
A
3HAC 16245-1
5 Electrical connections
5.4.1 The MOTORS ON/MOTORS OFF circuit
Connection of
safety chains
The diagram below shows the two-channel safety chain.
Supply from internal 24V (X3/X4:12) and 0 V (X3/X4:7) is displayed. When external supply
of GS and AS, X3/X4:10,11 is connected to 24V and X3/X4:8,9 is connected to external 0V.
Connection tables for X1-X4 are given in "External customer connections on panel X1 - X4".
24V
X3:12
X4:12
Ext LIM1
24V
K1
0V
X1:11 12
X3:10
ES1
8
Opto GS1
isol.
TPU En1
&
11
Opto AS1
isol.
9
Auto1
K1
EN
Run
Intern
locking
K2
Man1
External contactors
0V
24 V
X3:3
X4:3
0V
Ext LIM2
X2:11 12
4
4
CONT1
CONT2
K2
X4:10
ES2
8
Opto GS2
isol.
TPU En2
Drive Unit
&
11
9
24 V
M
Opto AS2
isol.
Auto2
Man2
xx0100000166
Technical data per chain
Connection of
ES1/ES2 on panel
unit
3HAC 16245-1
Limit switch
Load: 300 mV. Max. voltage drop: 1 V
External connectors
Load: 10 mA. Max. voltage drop: 4 V
GS/AS load at 24 V
25 mA
GS/AS closed "1"
>18 V
GS/AS open "0"
<5V
External supply of GS/AS
Max. + 35 VDC
Min. - 35 VDC
Max. potential in relation to the cabinet
earthing and other signal groups
300 V
Signal class
Control signals
The diagram below shows the terminals for the emergency circuits.
Supply from internal 24V (X1/X2:10) and 0V (X1/X2:10) is displayed. When ext. supply,
X1/X2:3 is connected to ext. 24V and X1/X2:8 is connected to ext. 0V (dotted lines).
A
91
5 Electrical connections
5.4.1 The MOTORS ON/MOTORS OFF circuit
A
24V 0V
B
C
D
X1:3
1:4
X1:7
X1:10
X1:9
X1:8
X1:1
X1:2
24V
X1:6
E
24V
G
24V 0V
F
B
D
C
2:4
X2:7
X2:8
X2:1
X2:2
24V
X2:6
H
24V
X2:4
X2:5
J
xx0100000191
A
Internal
F
Run chain 1 top
B
Ext shop
G
Internal
C
TPU
H
ES2 internal
D
Cabinet
J
Run chain 2 top
E
ES1 internal
Technical data
92
ES1 and ES2 max output voltage
120 VAC or 48 VDC
ES1 and ES2 max output current
120 VAC: 4 A
48 VDC L/R: 50 mA
24 VDC L/R: 2 A
24 VDC R load: 8 A
External supply of ES relay
Min. 22 V between terminals X1:9, 8 and X2:9 ,8
respectively
Rated current per chain
40 mA
Max. potential in relation to the cabinet
earthing and other signal groups
300 V
Signal class
Control signals
A
3HAC 16245-1
5 Electrical connections
5.4.1 The MOTORS ON/MOTORS OFF circuit
Connection to
MOTORS ON/
MOTORS OFF
contactor
The diagram below shows the connection of terminals for customer use.
A
B
X3:2
1
X4:2
1
xx0100000193
A
K1 (Motor on/off 1)
B
K1 (Motor on/off 2)
Technical data
Max. voltage
48 VDC
Max. current
4A
Max. potential in relation to the cabinet earthing and other signal groups 300 V
Signal class
Connection to
operating mode
selector
Control signals
The diagram below shows the connection of terminals for customer use.
S1.1.x1 8
A
7
6
5
B
S1.1.x1 4
D
C
3
2
1
E
F
xx0100000197
A
Auto 1
B
MAN1
C
100 % (Option)
D
Auto 2
E
MAN2
F
100% (Option)
Technical data
3HAC 16245-1
Max. voltage
48 VDC
Max. current
4A
A
93
5 Electrical connections
5.4.1 The MOTORS ON/MOTORS OFF circuit
Technical data
Connection to
brake contactor
Max. potential in relation to the cabinet
earthing and other signal groups
300 V
Signal class
Control signals
The diagram below shows the connection of terminals for customer use.
A
X4:5
6
xx0100000199
A
K3 (Brake)
Technical data
94
Max. voltage
48 VDC
Max. current
4A
Max. potential in relation to the cabinet
earthing and other signal groups
300 V
Signal class
Control signals
A
3HAC 16245-1
5 Electrical connections
5.4.2 External customer connections on panel X1 - X4
5.4.2 External customer connections on panel X1 - X4
Outline diagram
The diagram shows the customer connections X1 - X4 located on the panel unit
WARNING
REMOVE JUMPERS BEFORE CONNECTING
ANY EXTERNAL EQUIPMENT
xx0100000205
grey field Jumper
Connection of X1:
12-pole type
Phoenix COMBICON connector
Connection of X2:
12-pole type
Phoenix COMBICON connector
3HAC 16245-1
The table below shows the signal descriptions for X1
The signal names refer to the Circuit Diagram.
Signal
Terminal
Comment
number
ES1 out: A
1
Emergency stop out chain 1
ES1 out: B
2
Emergency stop out chain 1
ES1 top
3
Top of emergency stop chain 1
24 V panel
4
+ 24 V emergency stop chain 1 and run chain 1
Run ch1 top
5
Top of run chain 1
ES1 internal
6
Internal signal from emergency stop relay chain 1
Sep. ES1: A
7
Separated emergency stop chain 1
Sep. ES1: B
8
Separated emergency stop chain 1
ES1 bottom
9
Bottom of emergency stop chain 1
0V
10
0 V emergency stop chain 1
Ext. LIM1: A
11
External limit switch chain 1
Ext. LIM1: B
12
External limit switch chain 1
The table below shows the signal descriptions for X2
The signal names refer to the Circuit Diagram.
Signal
Terminal
Comment
number
ES2 out: A
1
Emergency stop out chain 2
A
95
5 Electrical connections
5.4.2 External customer connections on panel X1 - X4
Connection of X3:
12-pole type
Phoenix COMBICON connector
Connection of X4:
12-pole type
Phoenix COMBICON connector
96
Signal
Terminal
Comment
number
ES2 out: B
2
Emergency stop out chain 2
ES2 top
3
Top of emergency stop chain 2
0V
4
0 V emergency stop chain 2
Run ch2 top
5
Top of run chain 2
ES2 internal
6
Internal signal from emergency stop relay chain 2
Sep. ES2: A
7
Separated emergency stop chain 2
Sep. ES2: B
8
Separated emergency stop chain 2
ES2 bottom
9
Bottom of emergency stop chain 2
24 V panel
10
+ 24 V emergency stop chain 1 and run chain 2
Ext. LIM2: A
11
External limit switch chain 2
Ext. LIM2: B
12
External limit switch chain 2
The table below shows the signal descriptions for X2
The signal names refer to the Circuit Diagram.
Signal
Terminal
Comment
number
Ext. MON 1: A
1
Motor contactor 1
Ext. MON 1: B
2
Motor contactor 1
0V
3
External contactor 1 0 V
CONT1
4
External contactor 1
5
No connection
6
No connection
0V
7
0 V to auto stop (AS) and general stop (GS)
GS1-
8
General stop minus chain 1
AS1-
9
Auto stop minus chain 1
GS1+
10
General stop plus chain 1
AS1+
11
Auto stop plus chain 1
24 V panel
12
24 V to auto stop and general stop
The table below shows the signal descriptions for X2
The signal names refer to the Circuit Diagram.
Signal
Terminal
Comment
number
Ext. MON 2: A
1
Motor contactor 2
Ext. MON 2: B
2
Motor contactor 2
24 V panel
3
External contactor 2 24 V
CONT2
4
External contactor 2
Ext. BRAKE A
5
Contactor for external brake
Ext. BRAKE B
6
Contactor for external brake
A
3HAC 16245-1
5 Electrical connections
5.4.2 External customer connections on panel X1 - X4
3HAC 16245-1
Signal
Terminal
Comment
number
0V
7
0 V to auto stop (AS) and general stop (GS)
GS2-
8
General stop minus chain 2
AS2-
9
Auto stop minus chain 2
GS2+
10
General stop plus chain 2
AS2+
11
Auto stop plus chain 2
24 V panel
12
24 V to auto stop and general stop
A
97
5 Electrical connections
5.4.3 Connection of external safety relay
5.4.3 Connection of external safety relay
Description
The motor contactors K1 and K2 in the controller can operate with external equipment if
external relays are used.
The figure below shows two examples of how to connect the external safety relays:
Connection
examples
A
B
X4:4
CONT 2
24 V X4:3
E xt MON 2
X4:2
0V
K2
X4:1
X3:2
K1
E xt MON 1
X3:1
24 V
0 V X3:3
CONT 1 X3:4
C
D
E
AS
AS
GS
F
GS
F
G
E
K
H
J
xx0100000246
98
A
Panel unit
B
Relays with positive action
C
Robot 1
D
Robot 2
E
External supply
F
ES (emergency stop) out
G
Safety relay
A
3HAC 16245-1
5 Electrical connections
5.4.3 Connection of external safety relay
3HAC 16245-1
H
To other equipment
J
Safety gate
K
Cell ES (emergency stop)
A
99
5 Electrical connections
5.5.1 External 24V supply
Section 5.5: Supplies
5.5.1 External 24V supply
When is an external supply recommended?
How to connect
the external supply
An external supply is recommended to make use of the advantages offered by the galvanic
insulation on the I/O units or on the panel unit.
An external supply must be used in the following cases:
•
When the internal supply is insufficient
•
When the emergency stop circuits must be independent of whether or not the robot
has power on, for example.
•
When there is a risk that major interference can be carried over into the internal 24V
supply.
The external supply neutral wire must be connected to the chassis such that the maximum
permitted potential difference in the chassis earth is not exceeded. For example, a neutral wire
can be connected to the chassis earth of the controller, or some other common earthing point.
Technical data
100
Potential difference to chassis earth
Max. 60 V continuously
Max. 500 V during 1 minute
Permitted supply voltage
I/O units 19 VDC - 35 VDC incl. ripple
Panel unit 20.6 VDC - 30 VDC incl. ripple
A
3HAC 16245-1
5 Electrical connections
5.5.2 24V I/O supply
5.5.2 24V I/O supply
General
The 24V I/O is not galvanically separated from the rest of the controller voltages.
24 VDC supply for
internal and
external use
Voltage
24.0 - 26.4V
Ripple
Max. 0.2V
Permitted customer load
Max. 7A
Current limit
13,5 ~0A.
24 VDC supply
available at XT 31
3HAC 16245-1
24V I/O available for customer connections at XT 31 is shown in the figure in "Connections
to screw terminals".
XT.31.2
24 V (through a 2 A fuse)
XT.31.1
for own fuses
XT.31.4
0 V (connected to cabinet structure)
A
101
5 Electrical connections
5.5.3 115/230 VAC supply
5.5.3 115/230 VAC supply
General
115/230 VAC supply for internal
and external use
115/230 VAC supply available at XT
21
102
This voltage is used in the robot for supplying optional service outlets. The AC supply is not
galvanically separated from the rest of the controller voltages.
Voltage
115 VAC or 230 VAC
Permitted customer load
Max. 500 VA
Fuse size, 115 V
6.3 A
Fuse size, 230 V
3.15 A
115 VAC/230 VAC available for customer connections at XT 21 is shown in the figure in
"Connection to screw terminals".
FU2 - 201
230 VAC
FU1 - 202
115 VAC
N - 203
N (connected to cabinet structure)
A
3HAC 16245-1
5 Electrical connections
5.6.1 Connection of the CAN bus
Section 5.6: Buses
5.6.1 Connection of the CAN bus
Illustration
The illustration below shows an example of how to connect the CAN bus:
C
A
D
D
D
X15 CAN1.1 (Internal I/O)
B
X6 CAN1.2
X7 CAN1.3
G
D
D
D
D
D
D
E
X15, X6, X7
1.
2.
3.
4.
5.
1. 0V_CAN
2. CAN_L
3. drain
4. CAN_H
5. 24V_I/O
F
xx0100000241
A
Base connector unit
E
Termination of last unit
B
CAN bus
F
120 ohm, 1%, 0.25 W metal film resistor
C
Control cabinet
G
See figure in section "CAN 2" below!
D
I/O
CAN 1.1
Used for internal I/O unit mounted inside the cabinet. No terminating resistor is to be
mounted on CAN 1.1 regardless of whether any I/O units are used or not. CAN 1.1 is connected to socket X15 on the Base connector unit (see Connection of the CAN bus).
CAN 1.2
If CAN 1.2 is not used, a terminating resistor must be connected to the X6 socket (exceptional
case see below!).
3HAC 16245-1
A
103
5 Electrical connections
5.6.1 Connection of the CAN bus
If CAN 1.2 is used, the terminating resistor should be moved to the last I/O unit on the CAN
1.2 chain.
If CAN 1.2, for example, is not connected in the end of any CAN chain but somewhere between
the end points of the chain, then no terminating resistor should be mounted in CAN 1.3. This
is in accordance with the basic rule, i.e. the CAN chain should be terminated in both end points.
CAN 1.3
If CAN 1.3 is unused, a terminating resistor must be connected to the X7 socket.
If CAN 1.3 is used, the terminating resistor should be moved to the last I/O unit on the CAN
1.3 chain.
If CAN 1.2, for example, is not connected in the end of any CAN chain but somewhere between
the end points of the chain, then no terminating resistor should be mounted in CAN 1.3. This
is in accordance with the basic rule, i.e. the CAN chain should be terminated in both end points.
Termination
resistors in CAN
bus
The CAN chain must be terminated with terminating resistors in each end!
CAN 2
The illustration below shows an example of how to connect the CAN 2 bus:
If CAN 1.2, for example, is not connected in the end of any CAN chain but somewhere
between the end points of the chain, then no terminating resistor should be mounted in CAN
1.3.
A
C
B
D
X8 CAN 2
D
D
E
X8
1. 0V_CAN
2. CAN_L
3. drain
4. CAN_H
5. 24V_I/O
1. 0V_CAN
2. CAN_L
3. drain
4. CAN_H
5. 24V_I/O
1.
2.
3.
4.
5.
F
xx0100000242
104
A
Controller
B
Base connector unit
C
See figure in section "Illustration" above!
D
I/O
E
Termination of last unit
F
120 ohm, 1%, 0.25 W metal film resistor
A
3HAC 16245-1
5 Electrical connections
5.6.1 Connection of the CAN bus
The illustration below shows CAN connections on base connector unit:
A
B
C
D
xx0100000243
3HAC 16245-1
A
X6 CAN 1.2 (external I/O)
B
X7 CAN 1.3 (external I/O)
C
X8 CAN 2 (external I/O)
D
X15 CAN 1.1 (internal I/O)
A
105
5 Electrical connections
5.6.2 Interbus-S, slave DSQC 351
5.6.2 Interbus-S, slave DSQC 351
General
The unit can be operated as a slave for a Interbus-S system.
Supply
The Interbus-S slave must be fed externally to avoid shutting down the Interbus-S net if a
robot cell is switched off. The 24V power supply must be fed from outside the control cabinet
and be connected to pin 2 Phoenix connector located on the Interbus-S card’s front panel
marked 24V.
Technical data
Also see the Interbus-S specification.
Further information
For setup parameters, see User’s Guide - System Parameters, Topic: Controller. Also see the
Circuit Diagram.
Unit ID
Unit ID to be entered in the Interbus-S master is 3. The length code depends on the selected
data. Width between 1 and 4.
Layout, DSQC
351
The figure below show the layout of the DSQC 351 board:
X20
X21
X5
X3
xx0100000225
106
X3
Power connector
X5
DeviceNet connector
X20
Interbus-S, input
X21
Interbus-S, output
A
3HAC 16245-1
5 Electrical connections
5.6.2 Interbus-S, slave DSQC 351
Communication
concept
The Interbus-S system is able to communicate with a number of external devices, depending
on the number of process words occupied by each unit. The robot may be equipped with one
or two DSQC 351. The Interbus-S inputs and outputs are accessible in the robot as general
inputs and outputs.
For application data, refer to Interbus-S, International Standard, DIN 19258.
Below is shown an outline diagram of the communication concept:
E
A
F
B
In
C
Out
In
*1
D
Out
In
Out
*1
xx0100000224
A
Master PLC
B
Robot 1, word 1:3
C
Robot 1, word 4:7
D
Robot 2, word 8:11
E
128 inputs/128 outputs
F
64 inputs/64 outputs
*1
Termination link
A link is connected between pins 5 and 9 in the plug on the interconnection cable connected
to the OUT connector of each unit. The link informs the Interbus-S unit that more units are
connected further out in the chain. (The last unit in the chain does not have a cable connected
and therefore no link).
Connections, X5
DeviceNet connectors
See DeviceNet Connectors.
Connections,
connector X20,
Interbus-S IN
The figure below shows the pin configuration of the connector:
5
1
6
9
xx0100000220
The table below show the connections to connector X20, Interbus-S IN:
3HAC 16245-1
Signal name
X20 pin
Function
TPDO1
1
Communication line TPDO1
TPDI1
2
Communication line TPDI1
GND
3
Ground connection
NC
4
Not connected
A
107
5 Electrical connections
5.6.2 Interbus-S, slave DSQC 351
Connections,
connector X21,
Interbus-S OUT
Signal name
X20 pin
Function
NC
5
Not connected
TPDO1-N
6
Communication line TPDO1-N
TPDI1-N
7
Communication line TPDI1-N
NC
8
Not connected
NC
9
Not connected
The figure below shows the pin configuration of the connector:
5
1
6
9
xx0100000220
The table below show the connections to connector X21, Interbus-S OUT:
Connections,
connector X3
Signal name
X21 pin
Function
TPDO2
1
Communication line TPDO2
TPDI2
2
Communication line TPDI2
GND
3
Ground connection
NC
4
Not connected
+5V
5
+ 5 VDC
TPDO2-N
6
Communication line TPDO2-N
TPDI2-N
7
Communication line TPDI2-N
NC
8
Not connected
RBST
9
Synchronization
The figure below shows the pin configuration of the connector:
5
1
xx0100000221
The table below show the connections to connector X3:
Bus status LEDs
Signal name
X3 pin
Function
0 VDC
1
External supply of Interbus-S
NC
2
Not connected
GND
3
Ground connection
NC
4
Not connected
+ 24 VDC
5
+ 24 VDC
The designations refer to LEDs shown in the figure in section "Layout, DSQC 352" above.
The figure and table below show the location and significance of the the LEDs on the board.
108
A
3HAC 16245-1
5 Electrical connections
5.6.2 Interbus-S, slave DSQC 351
3HAC 16245-1
Designation
Color
Description
POWER-24 VDC
Green
Indicates that a supply voltage is present, and has a level
above 12 VDC.
NS/MS
Green/red
See section "CAN bus status LED description".
CAN Tx/CAN Rx
Green/red
See section "CAN bus status LED description".
POWER- 5 VDC
Green
Lit when both 5 VDC supplies are within limits, and no
reset is active.
RBDA
Red
Lit when this Interbus-S station is last in the Interbus-S network.
If it is not (which is required), check parameter setup.
BA
Green
Lit when Interbus-S is active.
If there is no light, check network, nodes and connections.
RC
Green
Lit when Interbus-S communication runs without errors.
A
109
5 Electrical connections
5.6.3 Profibus-DP, slave DSQC 352
5.6.3 Profibus-DP, slave DSQC 352
General
The unit can be operated as a slave for a Profibus-DP system.
Supply
The Profibus does not need any external power feed. All the robot cells are connected to the
trunk cable through a special D-sub connector which works as a very short drop cable.
Because of this the profibus will work correctly even if a robot cell is turned off.
Technical data
Also see the Profibus-DP specification, Internation Standard DIN E 19245 part 3.
Further
information
For setup parameters, see User’s Guide - System Parameters, Topic: I/O Signals. Also see the
Circuit diagram.
Layout, DSQC
352
The figure below show the layout of the DSQC 352 board:
X20
X5
X3
xx0100000223
Communication
concept
X3
Power connector
X5
DeviceNet connector
X20
Profibus connection
The Profibus-DP system is able to communicate with a number of external devices, depending on the number of process words occupied by each unit. The robot may be equipped with
one or two DSQC 352. The Profibus-DP inputs and outputs are accessible in the robot as
general inputs and outputs.
Below is shown an outline diagram of the communication concept:
E
A
B
F
C
D
xx0100000222
110
A
3HAC 16245-1
5 Electrical connections
5.6.3 Profibus-DP, slave DSQC 352
A
Master PLC
B
Robot 1, word 1:8
C
Robot 1, word 9:16
D
Robot 2, word 17:24
E
256 inputs/256 outputs
F
128 inputs/128 outputs
Termination
The Profibus cable must be terminated in both ends.
Connections, X5
DeviceNet
connectors
See "Device Net Connectors".
Connections,
connector X20,
Profibus-DP
The figure below shows the pin configuration of the connector:
5
1
6
9
xx0100000220
The table below show the connections to connector X20, Interbus-S IN:
Connections,
connector X3
Signal name
X20 pin
Function
Shield
1
Cable screen
NC
2
Not connected
RxD/TxD-P
3
Receive/Transmit data P
Control-P
4
GND
5
+5 VDC
6
NC
7
Not connected
RxD/TxD-N
8
Receive/Transmit data N
NC
9
Not connected
Ground
The figure below shows the pin configuration of the connector:
5
1
xx0100000221
The table below show the connections to connector X3:
3HAC 16245-1
Signal name
X3 pin
Function
0 VDC
1
External supply of Profibus-DP
A
111
5 Electrical connections
5.6.3 Profibus-DP, slave DSQC 352
Bus status LEDs
Signal name
X3 pin
Function
NC
2
Not connected
GND
3
Ground connection
NC
4
Not connected
+ 24 VDC
5
External supply of Profibus-DP
The figure and table below show the location and significance of the the LEDs on the board.
The designations refer to LEDs shown in the figure in section "Layout, DSQC 352" above.
Designation
Color
Description
Profibus active
Green
Lit when the node is communicating with the master.
If there is no light, check system messages in robot and in
Profibus net.
NS/MS
Green/red
See section "CAN bus status LED description".
CAN Tx/CAN Rx
Green/red
See section "CAN bus status LED description".
POWER, 24 VDC Green
112
Indicates that a supply voltage is present, and has a level
above 12 VDC.
If there is no light, check that voltage is present in power
unit and in the power connector. If not, check cables and
connectors.
If power is applied to the unit but it does not work, replace
the unit.
A
3HAC 16245-1
5 Electrical connections
5.7.1 Distributed I/O units
Section 5.7: I/O units
5.7.1 Distributed I/O units
General
Up to 20 units can be connected to the same controller but only four of these can be installed
inside the controller. Normally a distributed I/O unit is placed outside the controller.
Connection
The maximum total length of the distributed I/O cable is 100 m (from one end of the chain to
the other end).
The controller can be one of the end points or be placed somewhere in the middle of the chain.
Parameter setup
3HAC 16245-1
For setup parameters, see User’s Guide, section System Parameters, Topic: I/O Signals.
A
113
5 Electrical connections
5.7.2 Distributed I/O, digital sensors
5.7.2 Distributed I/O, digital sensors
General
Digital sensors are connected to one optional digital unit.
Technical data
See Product Specification for Controller S4Cplus.
Allowed types of
digital sensors
The table below shows the allowed types of digtal sensors to be used, and their signal levels
respectively:
114
Sensor type
Signal level
Digital one bit sensor
High, "1"
Low, "0"
Digital two bit sensor
High, "01"
No signal, "00"
Low, "10"
Error status, "11" (stop program running)
A
3HAC 16245-1
5 Electrical connections
5.7.3 Distributed I/O, digital I/O DSQC 328 (option)
5.7.3 Distributed I/O, digital I/O DSQC 328 (option)
General
The digital I/O unit handles digital communication between the robot system and any external
systems.
Technical data
No. of inputs
16 (divided into two groups of 8, galvanically isolated from each
other)
No. of outputs
16 (divided into two groups of 8, galvanically isolated from each
other)
Supply voltage
24 VDC
Supply source
24 V I/O or separate external supply
Also see Product Specification for controller S4Cplus.
Further information
For setup parameters, see Users Guide - System Parameters, Topic: Controller. Also see the
Circuit Diagram.
Layout, DSQC
328
The figure below shows the layout of the DSQC328 board:
A
1
2
3
4
5
6
7
8
OUT
MS
IN
NS
X1
X3
9
10
11
12
13
14
15
16
OUT
IN
X2
1
1
10
1
10
X4
1
10
10
1
12
X5
xx0100000240
A
Connections,
connector X1
Status LEDs
If supervision of the supply voltage is required, a bridge connection can be made to an
optional digital input. The supervision instruction must be written in the RAPID program.
This is described in the User’s Guide.
The table below show the connections to connector X1:
3HAC 16245-1
Unit function
Signal name
X1 pin
Optically isolated output
Out ch 1
1
Optically isolated output
Out ch 2
2
Optically isolated output
Out ch 3
3
Optically isolated output
Out ch 4
4
A
115
5 Electrical connections
5.7.3 Distributed I/O, digital I/O DSQC 328 (option)
Connections,
connector X2
Unit function
Signal name
X1 pin
Optically isolated output
Out ch 5
5
Optically isolated output
Out ch 6
6
Optically isolated output
Out ch 7
7
Optically isolated output
Out ch 8
8
Optically isolated output
0 V for outputs 1-8
9
Optically isolated output
24 V for outputs 1-8
10
If supervision of the supply voltage is required, a bridge connection can be made to an
optional digital input. The supervision instruction must be written in the RAPID program.
This is described in the User’s Guide.
The table below show the connections to connector X2:
Connections,
connector X3
Unit function
Signal name
X2 pin
Optically isolated output
Out ch 9
1
Optically isolated output
Out ch 10
2
Optically isolated output
Out ch 11
3
Optically isolated output
Out ch 12
4
Optically isolated output
Out ch 13
5
Optically isolated output
Out ch 14
6
Optically isolated output
Out ch 15
7
Optically isolated output
Out ch 16
8
Optically isolated output
0 V for outputs 9-16
9
Optically isolated output
24 V for outputs 9-16
10
The table below show the connections to connector X3:
Unit function
Signal name
X3 pin
Optically isolated input
In ch 1
1
Optically isolated input
In ch 2
2
Optically isolated input
In ch 3
3
Optically isolated input
In ch 4
4
Optically isolated input
In ch 5
5
Optically isolated input
In ch 6
6
Optically isolated input
In ch 7
7
Optically isolated input
In ch 8
8
Optically isolated input
0 V for inputs 1-8
9
Optically isolated input
Not used
10
The input current is 5.5 mA (at 24V) on the digital inputs. A capacitor connected to ground,
to prevent disturbances, causes a short rush of current when setting the input.
When connecting outputs, sensitive to pre-oscillation current, a series resistor (100 W) may
be used.
116
A
3HAC 16245-1
5 Electrical connections
5.7.3 Distributed I/O, digital I/O DSQC 328 (option)
Connections,
connector X4
The table below show the connections to connector X4:
Unit function
Signal name
X4 pin
Optically isolated input
In ch 9
1
Optically isolated input
In ch 10
2
Optically isolated input
In ch 11
3
Optically isolated input
In ch 12
4
Optically isolated input
In ch 13
5
Optically isolated input
In ch 14
6
Optically isolated input
In ch 15
7
Optically isolated input
In ch 16
8
Optically isolated input
0 V for inputs 9-16
9
Optically isolated input
Not used
10
The input current is 5.5 mA (at 24V) on the digital inputs. A capacitor connected to ground,
to prevent disturbances, causes a short rush of current when setting the input.
When connecting outputs, sensitive to pre-oscillation current, a series resistor (100 W) may
be used.
3HAC 16245-1
A
117
5 Electrical connections
5.7.4 AD Combi I/O, DSQC 327 (optional)
5.7.4 AD Combi I/O, DSQC 327 (optional)
General
The digital I/O unit handles digital and analog communication between the robot system and
any external systems.
Technical data
No. of digital inputs
16 (divided into two groups of 8, galvanically isolated from each
other)
No. of digital outputs
16 (divided into two groups of 8, galvanically isolated from each
other)
No. of analog outputs
2 (galvanically isolated from the controller electronics)
Supply voltage
24 VDC
Supply source, digital I/O
24 V I/O or separate external supply
Supply source, analog I/O 24 V_CAN (with galvanically isolated DC/AC converter)
Also see Product Specification for controller S4Cplus.
Further information
For setup parameters, see Userss Guide - System Parameters, Topic: Controller. Also see the
Circuit Diagram.
Layout, DSQC
327
The figure below show the layout of the DSQC327 board:
A
1
2
3
4
5
6
7
8
OUT
MS
IN
NS
X1
X3
OUT
9
10
11
12
13
14
15
IN
X2
1
10
1
X4
10
1
X6
1
10
16
1
6
10
1
12
X5
xx0100000239
A
Status LEDs
Connector X5 is a CAN connector further described in section "Connection and address keying of the CAN bus".
Connections,
connector X1
If supervision of the supply voltage is required, a bridge connection can be made to an
optional digital input. The supervision instruction must be written in the RAPID program.
This is described in the User’s Guide.
The table below show the connections to connector X1:
118
A
3HAC 16245-1
5 Electrical connections
5.7.4 AD Combi I/O, DSQC 327 (optional)
Connections,
connector X2
Unit function
Signal name
X1 pin
Optically isolated output
Out ch 1
1
Optically isolated output
Out ch 2
2
Optically isolated output
Out ch 3
3
Optically isolated output
Out ch 4
4
Optically isolated output
Out ch 5
5
Optically isolated output
Out ch 6
6
Optically isolated output
Out ch 7
7
Optically isolated output
Out ch 8
8
Optically isolated output
0 V for outputs 1-8
9
Optically isolated output
24 V for outputs 1-8
10
If supervision of the supply voltage is required, a bridge connection can be made to an
optional digital input. The supervision instruction must be written in the RAPID program.
This is described in the User’s Guide.
The table below show the connections to connector X2:
Connections,
connector X3
3HAC 16245-1
Unit function
Signal name
X2 pin
Optically isolated output
Out ch 9
1
Optically isolated output
Out ch 10
2
Optically isolated output
Out ch 11
3
Optically isolated output
Out ch 12
4
Optically isolated output
Out ch 13
5
Optically isolated output
Out ch 14
6
Optically isolated output
Out ch 15
7
Optically isolated output
Out ch 16
8
Optically isolated output
0 V for outputs 9-16
9
Optically isolated output
24 V for outputs 9-16
10
The table below show the connections to connector X3:
Unit function
Signal name
X3 pin
Optically isolated input
In ch 1
1
Optically isolated input
In ch 2
2
Optically isolated input
In ch 3
3
Optically isolated input
In ch 4
4
Optically isolated input
In ch 5
5
Optically isolated input
In ch 6
6
Optically isolated input
In ch 7
7
Optically isolated input
In ch 8
8
Optically isolated input
0 V for inputs 1-8
9
Optically isolated input
Not used
10
A
119
5 Electrical connections
5.7.4 AD Combi I/O, DSQC 327 (optional)
Connections,
connector X4
Connections,
connectors X6
The table below show the connections to connector X4:
Unit function
Signal name
X4 pin
Optically isolated input
In ch 9
1
Optically isolated input
In ch 10
2
Optically isolated input
In ch 11
3
Optically isolated input
In ch 12
4
Optically isolated input
In ch 13
5
Optically isolated input
In ch 14
6
Optically isolated input
In ch 15
7
Optically isolated input
In ch 16
8
Optically isolated input
0 V for inputs 9-16
9
Optically isolated input
Not used
10
The table below show the connections to connectors X6:
Signal name
X6 pin
Explanation
AN_ICH1
1
For test purposes only
AN_ICH2
2
For test purposes only
0V
3
0 V for In channels 1-2
0 VA
4
0 V for Out channels 1-2
AN_OCH1
5
Out channels 1
AN_OCH2
6
Out channels 2
The input current is 5.5 mA (at 24V) on the digital inputs. A capacitor connected to ground,
to prevent disturbances, causes a short rush of current when setting the input.
When connecting outputs, sensitive to pre-oscillation current, a series resistor (100 W) may
be used.
120
A
3HAC 16245-1
5 Electrical connections
5.7.5 Analog I/O, DSQC 355 (optional)
5.7.5 Analog I/O, DSQC 355 (optional)
General
The analog I/O unit handles communication between the robot system and any external systems through analog sensors.
Technical data
No. of analog inputs
4 (-10 V/+10 V)
No. of analog outputs
3 (-10 V/+10 V)
1 (4-20 mA))
No. of analog outputs
2 (galvanically isolated from the controller electronics)
Supply voltage
24 VDC
Also see Product Specification for controller S4Cplus.
Further information
For setup parameters, see User’s Guide - System Parameters, Topic: Controller. Also see the
Circuit Diagram.
Layout, DSQC
355
The figure below show the layout of the DSQC 355 board:
X7
X8
X7
X8
Bus s tatus
S2S3
X2
X5 X3
Analog I/O
DS QC 355
X5
AB B F lexible Automation
X3
xx0100000238
3HAC 16245-1
X3
Not used
X5
DeviceNet input and ID connector
X7
Analog outputs
X8
Analog inputs
A
121
5 Electrical connections
5.7.5 Analog I/O, DSQC 355 (optional)
Connections,
connectors X7
analog output
The figure below shows the pin configuration of the connector:
1
13
2
2
xx0100000236
The table below show the connections to connector X7:
Signal name
X7 pin
Explanation
ANOUT_
1
Analog output 1, -10 V/+10 V
ANOUT_
2
Analog output 2, -10 V/+10 V
ANOUT_
3
Analog output 3, -10 V/+10 V
ANOUT_
4
Analog output 4, 4-20 mA
Not used
5
Not used
6
Not used
7
Not used
8
Not used
9
Not used
10
Not used
11
Not used
12
Not used
13
Not used
14
Not used
15
Not used
16
Not used
17
Not used
18
GND
19
Analog output 1, 0 V
GND
20
Analog output 2, 0 V
GND
21
Analog output 3, 0 V
GND
22
Analog output 4, 0 V
GND
23
GND
24
The input current is 5.5 mA (at 24V) on the digital inputs. A capacitor connected to ground,
to prevent disturbances, causes a short rush of current when setting the input.
Connect a resistor (100 W) in series when connecting outputs, sensitive to pre-oscillation
current.
122
A
3HAC 16245-1
5 Electrical connections
5.7.5 Analog I/O, DSQC 355 (optional)
Connections,
connectors X8
analog input
The figure below shows the pin configuration of the connector:
1
1
6
3
xx0100000237
The table below show the connections to connector X8:
3HAC 16245-1
Signal name
X7 pin
Explanation
ANIN_1
1
Analog input 1, -10 V/+10 V
ANIN_2
2
Analog input 2, -10 V/+10 V
ANIN_3
3
Analog input 3, -10 V/+10 V
ANIN_4
4
Analog input 4, -10 V/+10 V
Not used
5
Not used
6
Not used
7
Not used
8
Not used
9
Not used
10
Not used
11
Not used
12
Not used
13
Not used
14
Not used
15
Not used
16
+24 V out
17
+24 VDC supply
+24 V out
18
+24 VDC supply
+24 V out
19
+24 VDC supply
+24 V out
20
+24 VDC supply
+24 V out
21
+24 VDC supply
+24 V out
22
+24 VDC supply
+24 V out
23
+24 VDC supply
+24 V out
24
+24 VDC supply
GND
25
Analog input 1, 0 V
GND
26
Analog input 2, 0 V
GND
27
Analog input 3, 0 V
GND
28
Analog input 4, 0 V
GND
29
GND
30
GND
31
A
123
5 Electrical connections
5.7.5 Analog I/O, DSQC 355 (optional)
Signal name
X7 pin
GND
32
Explanation
The input current is 5.5 mA (at 24V) on the digital inputs. A capacitor connected to ground,
to prevent disturbances, causes a short rush of current when setting the input.
Connect a resistor (100 W) in series when connecting outputs, sensitive to pre-oscillation
current.
Bus status LEDs
The figure and table below show the location and significance of the the LEDs on the board.
Designation
Color
Description
NS/MS
Green/red
See section 4.1.
RS232 Rx
Green
Indicates the state of the RS232 Rx line.
LED is active when receiving data. If there is no light,
check communication line and connections.
RS232 Tx
Green
Indicates the state of the RS232 Tx line. LED is active
when transceiving data.
If there is no light when transmission is expected, check
error messages and check also system boards in rack.
Green
Indicates that supply voltage is present and at correct
level.
If there is no light, check that voltage is present on
power unit and that power is present in power connector. If not, check cables and connectors.
If power is applied to the unit but it does not work,
replace the unit.
A
3HAC 16245-1
+5VDC / +12VDC /
-12VDC
124
5 Electrical connections
5.7.6 Encoder interface unit, DSQC 354 (optional)
5.7.6 Encoder interface unit, DSQC 354 (optional)
General
The encoder interface unit handles communication with external conveyor:
•
One encoder input (synchronisation of conveyor position with robot movements). The
encoder is supplied with 24 V and 0 V, and sends position information in two channels.
This information is computed by the on-board computer using quadrature decoding
(QDEC) to determine position and direction.
•
One digital input (external start signal/conveyor synchronisation point)
Technical data
No. of encoder inputs
1
No. of digital inputs
1 (24 VDC)
Supply voltage
24 VDC
Supply source
24 V I/O or external supply
Also see Product Specification for controller S4Cplus.
Further information
User reference Description Conveyor Tracking. For setup parameters, see User’s Guide - System Parameters, Topic: Controller. Also see the Circuit Diagram.
Layout, DSQC
354
The figure below show the layout of the DSQC 354 board:
X20
X5
X3
xx0100000233
3HAC 16245-1
X3
Not used
X5
DeviceNet input and ID connector
X20
Conveyor connection
A
125
5 Electrical connections
5.7.6 Encoder interface unit, DSQC 354 (optional)
Encoder
connections
The figure below show the encoder connections:
AF
AA
AB
24 VDC
0V
AC
A
B
24 VDC
AD
0V
AE
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
Opto
Opto
Opto
Opto
Opto
Opto
AG
xx0100000234
Connections,
connectors X20
encoder and
digital input
connections
126
AA
24 V I/O or external supply
AB
0 V I/O or external supply
AC
Encoder
AD
Sync switch
AE
10-16 not used
AF
Encoder unit
AG
Galvanic isolation
The table below show the connections to connector X20:
Signal name
X20 pin
Explanation
24 VDC
1
24 VDC supply
0V
2
0V
ENC
3
Encoder 24 VDC
ENC
4
Encoder 0 VDC
ENC_A
5
Encoder phase A
ENC_B
6
Encoder phase B
DIGIN
7
Synchronization switch 24 VDC
DIGIN
8
0V
DIGIN
9
Synchronization switch digital input
Not used
10
Not used
11
Not used
12
A
3HAC 16245-1
5 Electrical connections
5.7.6 Encoder interface unit, DSQC 354 (optional)
Signal name
X20 pin
Not used
13
Not used
14
Not used
15
Not used
16
Explanation
The figure below show the layout of the pins in connector X20:
1
16
xx0100000235
Bus status LEDs
The figure and table below show the location and significance of the the LEDs on the board.
Designation
Color
Description
POWER, 24 VDC Green
Indicates that a supply voltage is present, and has a level
above 12 VDC.
If there is no light, check that voltage is present on power unit
and in connector X20. If not, check cables and connectors.
If power is applied to the unit but it does not work, replace the
unit.
NS/MS
Green/red
See section "CAN bus status LED description".
CAN Tx/CAN Rx Green/red
See section "CAN bus status LED description".
ENC 1A/1B
Indicates phase 1 and 2 from encoder. Flashes at each
Encoder pulse. At frequencies higher than a few Hz, flashing
can no longer be observed (light will appear weaker).
If there is no light, there is an error due to one or more of the
following reasons:
• Faulty power supply for input circuit (internal or
external).
Green
•
Defective input circuit on board.
•
Short circuit or broken wire in external wiring or connectors.
•
Internal error in unit.
Constant light indicates constant high level on input and vice
versa.
No light on one LED indicates fault in one encoder phase.
3HAC 16245-1
A
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5 Electrical connections
5.7.6 Encoder interface unit, DSQC 354 (optional)
128
Designation
Color
Description
DIGIN1
Green
Digital input. Lit when digital input is active. The input is used
for external start signal/conveyor synchronisation point.
If there is no light, there is an error due to one or more of the
following reasons:
• Faulty power supply for input circuit (internal or
external).
A
•
Faulty limit switch, photocell etc.
•
Short circuit or broken wire in external wiring or connectors.
•
Defective input circuit on board.
3HAC 16245-1
5 Electrical connections
5.8.1 Allen-Bradley, general
Section 5.8: Communication
5.8.1 Allen-Bradley, general
General
The robot may communicate with the Allen Bradley system only, or be used in combination
with the I/O system in the robot. For example, the inputs to the robot may come from the
Allen Bradley system while the outputs from the robot control external equipment via general
I/O addresses and the Allen Bradley system only reads the outputs as status signals.
Definitions
The Allen Bradley system can communicate with up to 64 external systems. Each of these
systems is called a Rack and is given a Rack Address 0-63. Basically, each robot connected
to the Allen Bradley system will occupy one rack.
Each rack is divided into four sections called Quarters. Each quarter provides 32 inputs and
32 outputs and a rack will subsequently provide 128 inputs and 128 outputs. A rack may also
be shared by 2, 3, or 4 robots. Each of these robots will then have the same rack address, but
different starting quarters must be specified.
Illustration
The following illustration shows a block diagram of the Allen-Bradley system, where Robot
1 uses a full rack while robot 2 and robot 3 share one rack. The rack address, starting quarter,
and other required parameters such as baud rate, LED status etc. are entered in the configuration parameters.
Allen Bradley
control system
Robot 1 - 128 in / 128 out
Quarter 1
Quarter 2
Robot 2 - 64 in / 64 out
Quarter 1
128 in / 128 out
Quarter 3
Quarter 4
Rack ID 12 (example)
Rack size 4
Starting quarter 1
64 in / 64 out
Other systems
Quarter 1
Quarter 2
Quarter 2
Rack ID 13 (example)
Rack size 2
Starting quarter 1
Quarter 3
Quarter 4
Robot 3 - 64 in / 64 out
Quarter 3
64 in / 64 out
Quarter 4
Rack ID 13 (example)
Rack size 2
Starting quarter 3
en0100000255
3HAC 16245-1
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5 Electrical connections
5.8.2 RIO, remote I/O for Allen-Bradley PLC DSQC 350
5.8.2 RIO, remote I/O for Allen-Bradley PLC DSQC 350
General
The unit handles communication between the robot system and the Allen Bradley system.
Technical data
No. of digital inputs
Unit is programmable for 32, 64, 96 or 128 digital inputs
No. of digital outputs
Unit is programmable for 32, 64, 96 or 128 digital outputs
Also see the Allen-Bradley RIO specification.
Further information
For setup parameters, see User’s Guide - System Parameters, Topic: I/O Signals. Also see
Circuit Diagram.
Connection
The RIO-unit should be connected to an Allen-Bradley PLC using a screened, two conductor
cable.
Layout, DSQC
350
The figure below show the layout of the DSQC 350 board:
X5
X9
X3
X8
DS QC 350
ABB F lexible Automation
xx0100000226
Connections,
connector X8
X3
Not used
X5
DeviceNet and ID connector
X8
RIO in
X9
RION out
The figure below shows the pin configuration of the connector:
5
1
xx0100000221
130
A
3HAC 16245-1
5 Electrical connections
5.8.2 RIO, remote I/O for Allen-Bradley PLC DSQC 350
The table below shows the connections to connector X8:
Connections,
connector X9
Signal name
X8 pin
Function
LINE1 (blue)
1
Remote I/O in
LINE2 (clear)
2
Remote I/O in
Shield
3
Remote I/O in
Cabinet ground
4
Remote I/O in
The figure below shows the pin configuration of the connector:
5
1
xx0100000221
The table below show the connections to connector X9:
Signal name
X9 pin
Function
Blue
1
Remote I/O out
Clear
2
Remote I/O out
Shield
3
Remote I/O out
Cabinet ground
4
Remote I/O out
Termination
When the robot is last in a RIO loop, the loop must be terminated with a termination resistor
according to Allen-Bradley’s specification.
Warranty
This product incorporates a communications link which is licensed under patents and proprietary technology of Allen-Bradley Company, Inc. Allen-Bradley Company, Inc. does not
warrant or support this product. All warranty and support services for this product are the
responsibility of and provided by ABB Flexible Automation.
Bus status LEDs
The figure and table below show the location and significance of the the LEDs on the board.
The designations refer to LEDs shown in the figure in section "Layout, DSQC 350" above.
Designation
Color
Description
POWER-24 VDC Green
NS/MS
Indicates that a supply voltage is present, and has a level
above 12 VDC.
If there is no light, check that voltage is present on power unit
and in power connector. If not, check cables and connectors.
If power is applied to the unit but it does not work, replace the
unit.
Green/red See section "CAN bus status LED description".
CAN Tx/CAN Rx Yellow
3HAC 16245-1
See section "CAN bus status LED description".
A
131
5 Electrical connections
5.8.2 RIO, remote I/O for Allen-Bradley PLC DSQC 350
132
Designation
Color
Description
NAC STATUS
Green
Steady green indicates RIO link in operation.
If there is no light, check network, cables and connections.
Also check that PLC is operational.
Flashing green indicates that communication is established,
but the INIT_COMPLETE bit is not set in NA chip, or configuration, rack size etc. does not match configuration set in
PLC.
If LED keeps flashing continuously, check setup.
A
3HAC 16245-1
5 Electrical connections
5.8.3 Communication, serial links
5.8.3 Communication, serial links
General
T he robot has three serial channels, which can be used by the customer to communicate with
printers, terminals, computers, and other equipment (see the figure in "Connections" below).
Further
information
•
COM1 (computer system) - RS 232 115 kbps. This was formerly referred to as Com2.
•
COM2 - RS 232 with RTS-CTS-control and support for XON/XOFF, transmission
speed 300 - 38 400 b/s. This was formerly referred to as SIO1.
•
COM3 - RS 422 full duplex TXD4, TXD4-N, RXD4, RXD4-N, transmission speed 300 38 400 b/s. This was formerly referred to as SIO2.
•
For temporary use : MC/CONSOLE - RS 232 115 kb/s. This was formerly referred to
as Com1.
•
For setup parameters, see User's Guide - System Parameters, Topic: I/O Signals.
•
Circuit Diagram.
•
Location in the cabinet (see figure in section "Connection to screw terminals").
Technical data
See Product Specification for controller S4Cplus. Separate documentation is included when
the option RAP Serial link is ordered.
Connections
The figure below shows the connection of serial channels:
A
xx0100000219
A
External computer
Customer terminals, on base connector board: X10 (COM2) and X9 (COM3), see section
"Connection to screw terminals".
Connections on
DSQC 504, COM1
Standard RS232 port.
The figure below shows the pin configuration of the connector:
5
1
6
9
xx0100000220
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5 Electrical connections
5.8.3 Communication, serial links
The table below shows the signals from the COM1 (RS232):
Connections on
DSQC 504, D-sub
connector X10,
COM2
Signal
Pin
Description
DCD
1
Data carrier Detect
RX
2
Receive Data
TX
3
Transmit Data
DTR
4
Data Terminal Ready
GND
5
Signal Ground
DSR
6
Data Set Ready
RTS
7
Request To Send
CTS
8
Clear To Send
RI
9
Ring Indicator
NC
10
Not Connected
The figure below shows the pin configuration of the connector:
5
1
6
9
xx0100000220
The table below shows the connections to connector X10:
COM2 Signal name
X10 pin
1
RxD (Receive Data)
2
TxD (Transmit Data)
3
DTR (Data Terminal Ready)
4
0V
5
DSR (Data Ready Set)
6
RTS N (Request To Send N)
7
CTS (Clear To Send)
8
9
Connections on
DSQC 504, D-sub
connector X9,
COM3
The figure below shows the pin configuration of the connector:
5
1
6
9
xx0100000220
The table below shows the connections to connector X9:
134
COM3 Signal name
X9 socket
TxD (Transmit Data)
1
TxD N (Transmit Data N)
2
A
3HAC 16245-1
5 Electrical connections
5.8.3 Communication, serial links
Connections to
MC/CONSOLE
COM3 Signal name
X9 socket
RxD (Receive Data)
3
RxD N (Receive data N)
4
0V
5
DATA (Data Signals in Half Duplex Mode)
6
DATA N (Data Signals in Half Duplex Mode N)
7
DCLK (Data Transmission Clock)
8
DCLK N (Data Transmission Clock N)
9
The figure below shows the MC/CONSOLE connection behind the service hatch:
A
xx0100000218
A
External computer
Standard RS232 port intended for temporary use, e.g. connection of laptop/PC.
The table below shows the signals on the MC/CONSOLE (RS232):
3HAC 16245-1
Signal
Pin
Description
RX
2
Receive Data
TX
3
Transmit Data
GND
5
Signal Ground
A
135
5 Electrical connections
5.8.4 Communication, Ethernet
5.8.4 Communication, Ethernet
General
Connection of
LAN (Main computer)
The robot has two Ethernet channels available:
•
LAN (connected to the Main computer)
•
Service (connected to the I/O computer)
The figure below shows an outline diagram of the Ethernet TCP/IP:
A
B
C
E thernet hub
xx0100000217
A
External computer
B
Controller Robot 1
C
Controller Robot 2
Used for connection of shielded twisted-pair Ethernet (TPE), or as defined in IEEE 802.3: 10/
100 BASE-T. Maximum node-to-node distance 100 meter. The main computer board has no
termination for a cable shield. The cable shield must be grounded at the cabinet wall with a
cable gland. 10BASE-T is a point-to-point net, connected via a HUB, see the figure above.
Signal
X1 Pin
Description
TX+
1
Transmit data line +
TX-
2
Transmit data line -
RX+
3
Receive data line +
NC
4
Not Connected
NC
5
Not Connected
RX-
6
Receive data line -
NC
7
Not Connected
NC
8
Not Connected
The figure below shows the main computer board front:
136
A
3HAC 16245-1
5 Electrical connections
5.8.4 Communication, Ethernet
1
8
X1
LAN
PWR
HDD
STATUS
X2
xx0100000216
Connection of
Service
(I/O Computer)
Used for connection of a laptop to the service outlet on cabinet front (behind service hatch)
on the controller.
The figure below shows how to connect a laptop to the service outlet:
E thernet
xx0100000215
For setup parameters, see User’s Guide - System Parameters, Topic: I/O Signals. Also see the
Circuit Diagram. Separate documentation is included when the option Ethernet services is
ordered.
3HAC 16245-1
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5 Electrical connections
5.8.5 External operator’s panel
5.8.5 External operator’s panel
General
All necessary components are supplied, except for the external enclosure.
Dimensions for
installation
Install the assembled panel in a housing which satisfies protection class, IP 54, in accordance
with IEC 144 and IEC 529!
The following figure shows the main dimensions of the external operator’s panel:
A
B
M8 (x4)
M4 (x4)
62
C
45°
70
140
184
200
D
E
90
ø5 (x2)
155
F
G
xx0100000214
138
A
Holes for operator’s panel
B
Holes for flange
C
Required depth: 200 mm
D
External panel enclosure (option)
E
Holes for teach pendant unit (TPU) holder
F
Teach pendant unit (TPU) connector
G
Connection to the controller
A
3HAC 16245-1
6 Start-up
6.0.1 Inspection before start-up
Chapter 6: Start-up
6.0.1 Inspection before start-up
General
Perform the following checks before starting up the robot system:
Check:
1. The controller mains section is protected with fuses.
2. The electrical connections are correct and correspond to the identification plate
on the controller.
3. The teach pendant and peripheral equipment are properly connected.
4. That limiting devices that establish the restricted space (when utilised) are
installed.
5. The physical environment is as specified.
6. The operating mode selector on the operator’s panel is in the Manual mode position.
7. When external safety devices are used, check that these have been connected
or that the following circuits in either XS3 (connector on the outside left cabinet
wall) or X1-X4 (screw terminals on the panel unit) are strapped:
3HAC 16245-1
Device
XS3
Panel unit
External limit switches
A5-A6, B5-B6
X1.3-4, X2.3-4
External emergency stop
A3-A4, B3-B4
X1.9-10, X2.9-10
External emergency stop internal 24 V
A1-A2, B1-B2
X1.7-8, X2.7-8
General stop +
A11-A12, B11-B12
X3.10-12, X4.10-12
General stop -
A13-A14, B13-B14
X3.7-8, X4.7-8
Auto stop +
A7-A8, B7-B8
X3.11-12, X4.11-12
Auto stop -
A9-A10, B9-10
X3.7-9, X4.7-9
Motor off clamping
A15-A16, B15-16
X1.5-6, X2.5-6
A
139
6 Start-up
6.0.2 Start-up
6.0.2 Start-up
General
1. Switch on the mains switch on the cabinet.
2. The robot performs its self-test on both the hardware and software, which takes
approximately 1 minute.
3. If the robot is not supplied with the software already installed, install the software
as described in section "Robot Controller".
A welcome message is shown on the Teach Pendant Unit display.
4. To switch from MOTORS OFF to MOTORS ON, press the enabling device on the
teach pendant.
5. Update the revolution counters as described in "Updating the revolution
counters".
6. Check the calibration position as described in "Checking the calibration position".
7. When the controller, with the manipulator electrically connected, is powered up
for the first time, ensure that the power supply is connected for at least 36 hours
continuously, in order to fully charge the batteries for the serial measurement
board. It takes approx. 4 hours to fully charge a computer system battery.
8. After having checked the above, verify that:
• the start, stop and mode selection (including the key lock switches) control devices
work as intended.
• each axis moves and is restricted as intended.
• emergency stop and safety stop (where included) circuits and devices are functional.
• it is possible to disconnect and isolate the external power sources.
• the teach and playback facilities work correctly.
• the safeguarding is in place.
• at reduced speed, the robot operates properly and has the capability to handle the
product or workpiece.
• in automatic (normal) operation, the robot operates properly and has the capability to
perform the intended task at the rated speed and load.
9. The robot is now ready for operation.
Operating the
robot
140
Starting and operating the robot is described in the User’s Guide. Before start-up, make sure
that the robot cannot collide with any other objects in the working space.
A
3HAC 16245-1
7 Installation of controller software
7.0.1 Loading system software
Chapter 7: Installation of controller software
7.0.1 Loading system software
General
The robot system may delivered with or without system software. When the system is not
delivered with software, this must be downloaded in one of a number of ways.
Software installed
on delivery
If the robot controller is ordered with the software installed on delivery, the controller software and settings are already stored in the storage memory and the system is ready to use.
Software not
installed on
delivery
If the robot controller is ordered and delivered without software or if you want to reconfigure
your system, the RobInstall tool must be used to install the controller software. The RobInstall tool is included on the RobotWare CD-ROM (see section "RobotWare CD-ROM"). The
RobInstall tool can be used both for creation of the controller software and for downloading
it to the controller system.
Types of software
loading
Rob Install
A
B
D
C
E
xx0100000192
A
RobotWare CD-ROM to install RobInstall and System Pack on PC
B
Floppy Disks
C
IOC Ethernet (service) with delivered boot cable UTP-X
D
Connected to IOC
E
MC Ethernet (LAN) network in workshop
When downloading, the controller software can be transferred to the controller storage memory in three ways as shown in the figure above.
3HAC 16245-1
•
using floppy disks,
•
using Ethernet connected direct to the IO computer (IOC) service outlet on the front of
the controller cubicle,
•
using Ethernet connected via a local area network (LAN) to the main computer (MC).
A
141
7 Installation of controller software
7.0.1 Loading system software
Boot Image
The transfer and installation of the controller software to the controller storage memory via
Ethernet or floppy disks is executed by a basic program named Boot Image.
This basic program must always be in the storage memory. At start-up of the controller, without any controller software installed, Boot Image will start and ask the operator for controller
software installation instructions. If the controller software is already installed and a warm
start is performed, Boot Image is not used. The installed controller software can be deleted
by cold start and then the Boot Image will be reactivated.
142
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3HAC 16245-1
7 Installation of controller software
7.0.2 RobotWare CD-ROM
7.0.2 RobotWare CD-ROM
The CD contains all the System software and should therefore be treated and stored carefully.
RobotWare
CD-ROM contents
Installation of the
RobotWare on the
PC (except FTP
Client)
The RobotWare CD-ROM contains the following:
Contents
Description
1.
RobInstall
A PC tool used to create and install the controller operating
system in the robot control system.
2.
Documentation
On-line documentation for the RobInstall application and
the Controller Operating System Package.
3.
Controller OS Package
Controller Operating System Package for S4Cplus. This
package includes all the software needed to create the controller operating system with any ordered options. Please
note that it is possible to install different releases with different versions of the same system package (see section
"Media Pool in the PC").
4.
Test Signal Viewer
A tool (created in LabView) for viewing MotionTest Signals
(oscilloscope function) and also for logging these signals.
5.
FTP Client
On the CD is also included a so called FTP client named
Voyager. Please note that this is not an ABB product but a
shareware program, which means that it can be installed
and used for a limited time, but that it has to be registered
for permanent use. Registering means that a certain fee
must be paid to the vendor.
The FTP client is used to transport files manually between
the PC and the robot controller storage memory. These
actions are carried out in the same way as in a file manager
or in Windows Explorer.
This section describes how to install the software delivered on the RobotWare CD-ROM onto
a PC hard drive, to be transferred to the robot system.
1. Insert the CD in your reader.
1. The Install Shield will automatically start and guide you through the install process
(if it does not start, double-click the CD icon on your PC). When the setup type
window is presented, it is recommended to select the Custom button. Then Next
button will open the Select Components window, where normally all the four
options, RobInstall, Documentation, Controller OS Package and Test Signal
Viewer should be marked as selected.
Installation of the
FTP Client on the
PC
This section describes how to install the FTP Client onto a PC hard drive.
1. In the Explorer, select and open the directory "ftp" on the CD.
2. Double-click the file ftpvsetup.exe.
The Install Shield for the FTP client will start and guide you through the installation. Please
read the "Readme" file for information about license regulations.
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7 Installation of controller software
7.0.3 Installing new Robot Controller Software with RobInstall
7.0.3 Installing new Robot Controller Software with RobInstall
General
Nomenclature
How to use
RobInstall
Since most systems have the operating system installed already on delivery, the RobotWare
CD-ROM is normally not needed. However it should be used when:
•
creating a new controller operating system,
•
changing the current operating system configuration, e.g. concerning included
options.
In the text dealing with RobInstall, the following nomenclature is used:
Concept
Means
System pack
This is the RobotWare Controller Operating System Package for
S4Cplus, including all options, even if they are not ordered and activated.
Key
This is a text string, or a special file with the text string, which is used
to define and open both the BaseWare and all ordered RobotWare
options.
System
This is a complete controller software, i.e. controller operating system, based on the system pack and the key. It can also include any
user files to be added to the home directory on the controller storage
memory.
Robinstall is used to create and install the controller software in the S4Cplus robot controller.
With RobInstall, you can:
•
create a new system,
•
update an existing system,
•
download a system to the controller using the Ethernet connection,
•
create Boot Disks to transfer the system to the Controller.
Step Action
144
Illustration/Info
1.
Make sure RobInstall is installed. If
not, install it according to the
instructions in section "Installation
of the RobotWare on the PC".
2.
Click the start button on your PC
and select programs/ABB Robotics/RobInstall/RobInstall.
A
3HAC 16245-1
7 Installation of controller software
7.0.3 Installing new Robot Controller Software with RobInstall
Step Action
3.
Illustration/Info
The RobInstall start window will
open.
xx0100000185
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7 Installation of controller software
7.0.4 Create a new Robot Controller System
7.0.4 Create a new Robot Controller System
Setting up the
system
Step Action
Illustration/info
1.
Start RobInstall as described in
section "How to use Robinstall".
2.
Choose New to create a new
Robot Controller system as
shown in the figure.
3.
Enter a name for the new controller system. Select a saving location or use the default directory,
normally "Program Files\ABB
Robotics\system" (see the figure
below, position 1).
4.
Enter the RobotWare key or add
from file. If added from a file, files
with the extension .kxt should be
used (see the figure above, position 2).
5.
Press OK . The configured system
will be displayed in the next window (see the figure below).
xx0100000179
xx0100000180
xx0100000181
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3HAC 16245-1
7 Installation of controller software
7.0.4 Create a new Robot Controller System
Step Action
6.
Illustration/info
If no external options or parameters are to be added or changed,
press Finish to create the new
controller system. Otherwise
press Next to continue to "Additional Keys" (see section "Add or
remove external options").
Add or remove
external options
Step Action
1.
Illustration(info
To add or remove external
options, press Next in the screen
shown in the last figure in section
"Setting up the system" or click on
"Additional Keys" in the menu to
the left.
xx0100000182
Add or remove
additional system
parameters
2.
Enter the key string for the
selected option and press Add
Key to list, or pressAdd key from
file to select a key string file.
3.
To remove additional keys, select
the key in the Included Additional
Keys list and press Remove Key .
4.
Press Finish to create the controller system or press Next to continue to "Parameter Data" (see
section "Add or remove additional
system parameters).
Step Action
1.
Illustration/Info
To add or remove additional
parameters, press Next in the
screen shown in the last figure in
section "Add or remove external
options" or click on "Parameter
Data" in the menu to the left.
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7 Installation of controller software
7.0.4 Create a new Robot Controller System
Step Action
Change options
or system pack
revision
Illustration/Info
2.
Press Add to load manipulator
calibration data (see the figure
above, position 1). This is the
calib.cfg file delivered on the
Manipulator Parameter disk (see
section "The manipulator parameter disk").
3.
To remove manipulator calibration
data, press Remove .
4.
Press Add to load additional system parameters, see pos. 2. All
system parameter files added
here will be automatically loaded
together with the system, when
the controller is restarted with the
new system.
5.
To remove additional parameters,
select the parameter in the
"Loaded Additional Parameters"
list and press Remove .
6.
Press Finish to create the controller system or press Next to continue to "Options" (see section
"Change options or system pack
revision").
Step Action
1.
Illustration/Info
To change the option configuration, press Next in the screen
shown in the figure below or click
on "Options" in the menu to the
left.
xx0100000184
148
2.
To change the Teach Pendant Unit
language, robot type, or software
options, press Options (see the
figure above, position 1).
3.
Normally the latest release or revision of all system packages and
option packages stored in the
media pool (see section "Media
Pool in the PC") will be used. If an
earlier revision should be used,
uncheck the check mark and
press Rev. Select (see the figure
above, position 2). In the new window select the system package to
use and press OK .
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7 Installation of controller software
7.0.4 Create a new Robot Controller System
Step Action
3HAC 16245-1
Illustration/Info
4.
If you want the system to start up
in query mode, put a mark in the
query mode selection square. For
further details of the query mode,
see section "Start in Query Mode".
5.
Press Finish to create the controller system or press Next to view
the current configuration.
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7 Installation of controller software
7.0.5 Update the Robot Controller image
7.0.5 Update the Robot Controller image
Actions
Step Action
1.
Illustration/Info
To update an existing controller
system, press Update , see the
figure below.
xx0100000189
2.
Select a system in the system
list and press OK , see the figure
above. Please note that a pop up
menu can be shown by clicking
right mouse button. With this
menu Copy, Rename or Delete
can be selected for the marked
system.
3.
The window displaying the current configuration of the system
will be shown. Follow the
instructions in sections "Add or
remove external options", "Add
or remove additional system
parameters" or "Change options
or system pack revision" to modify the system.
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7 Installation of controller software
7.0.6 Transfer Robot Controller System using Ethernet connection
7.0.6 Transfer Robot Controller System using Ethernet connection
Selecting type of
set-up
Before a system can be downloaded to a robot controller using the RobInstall tool some preparations and set up must be done. This may be done in one of two ways:
...then see instructions in
section:
If you are using:
a direct connection between "If using a direct connection
PC and IOC service outlet on between PC and IOC service
controller
outlet on controller" below!
If using a direct
connection
between PC and
IOC service outlet
on controller
...and continue in
section:
"Download Robot Controller System" below!
Network Intranet
connection with fixed IP
addresses
"If using Network Intranet con"Download Robot Controlnection with fixed IP addresses " ler System" below!
below!
Network Intranet
connection with DHCP
(Dynamic Host
Configuration Protocol)
"If using Network Intranet connection with DHCP " below!
Step Action
"Download Robot Controller System" below!
Illustration/Info
1.
Connect a patch-cable between
the Ethernet connection on the
front of the controller and the corresponding connection on the PC/
Laptop.
2.
Make sure that the Network protocol is set for TCP/IP properties.
3.
Change the TCP/IP Properties in
accordance with the following
table and figure:
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7 Installation of controller software
7.0.6 Transfer Robot Controller System using Ethernet connection
If using
Network Intranet
connection with
fixed IP
addresses
If using Network
Intranet connection with DHCP
Step Action
Illustration/Info
1.
Make sure that the Network protocol is set for TCP/IP
properties.
2.
Change the TCP/IP Properties in accordance with the
values to be used for IP address, Subnet mask and Gateway.
3.
Perform a X-START (see section "x-START") or CSTART (see section "C-start") on the S4Cplus controller.
4.
Configure the IP address to be used for the robot controller from the TPU.
Step Action
1.
Illustration/Info
Read Ethernet MAC-id on the Teach Pendant Unit (see
section "LAN settings").
Download Robot
Controller
System
Before downloading, check the following:
Make sure there is at least 25 Mb free disk space on the controller mass storage memory. For
information on how to perform a manual storage capacity check, see section "Check Storage
Capacity".
Make sure that the robot controller displays the Start Window on the Teach Pendant Unit (see
section "Start window").
Step Action
1.
Illustration/Info
To download a controller system,
press Download as in the figure
below:
xx0100000176
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7 Installation of controller software
7.0.6 Transfer Robot Controller System using Ethernet connection
Step Action
Illustration/Info
2.
Select a target system as in the fig- If a direct connection is used with the patch
ure, position 1.
cable between the PC and the controller front,
then just select the default IP address
(192.168.125.1) and "Direct" option.
In other cases, write the correct IP address for
the robot controller and select "Hostname or IPaddress". RobInstall will store already used IP
addresses, which can later be selected with the
down arrow.
3.
Type your username and password
if required by the robot controller as
in the figure below, position 2.
4.
Test the connection by pressing
Test Connection and press OK if a
connection is established.
5.
Select a system in the list on the left
and press OK as in the figure
below. Please note that it is possible to select another system pool
than the shown one (in such case
be sure to select the system pool
directory, not the system itself on
the lower level).
6.
RobInstall will now create a system After downloading it is possible to restart the
file and download it to the controller. controller with the new downloaded controller
system. Otherwise, the controller may be
restarted from the Teach Pendant Unit as
detailed in section "Reboot".
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xx0100000175
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7 Installation of controller software
7.0.7 Transfer Robot Controller System using floppy disks
7.0.7 Transfer Robot Controller System using floppy disks
Before downloading, make sure:
there is at least 25 Mb free disk space on the controller mass storage memory. For information
on how to perform a manual storage capacity check, see section "Check Storage Capacity".
that the robot controller displays the Start Window on the Teach Pendant Unit (see section
"Start Window").
an optional floppy disk drive is installed in the robot controller.
Create Boot
Diskettes from
RobInstall
Step Action
1.
Illustration/Info
Press Create Boot Disk as in the
figure below.
xx0100000173
2.
Select a system in the list on the
left and press OK as in the figure
below.
RobInstall will now create an
image file and estimate the number of disks needed.
xx0100000175
xx0100000188
154
3.
Insert a formatted 1.44 Mb diskette into the disk drive.
4.
Press Continue to start copy the
Robot Controller System image
to the disks.
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7 Installation of controller software
7.0.7 Transfer Robot Controller System using floppy disks
Step Action
5.
3HAC 16245-1
Illustration/Info
Use the finished floppy disks to
boot your system as described in
section "Boot Disks".
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7 Installation of controller software
7.0.8 RobInstall preferences
7.0.8 RobInstall preferences
Customizing RobInstall
RobInstall may be customized to suit particular requirements.
Step Action
1.
Illustration/Info
To customise RobInstall for new
programs and optional products,
press Preferences as shown in the
figure. See also chapter "System
Directory Structure".
xx0100000186
2.
To select another media pool (see
section "Media Pool in the PC"),
press Select Media Pool as shown
in the figure, position 1.
xx0100000187
3.
156
To add a new system package or
option package to the media pool,
press Import Program as shown in
the figure, position 2. Also see
chapter "System Directory Structure".
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8 Robot controller
8.0.1 BootImage
Chapter 8: Robot controller
8.0.1 BootImage
General
The BootImage is a basic program which is used to start up the system from "scratch".
Purpose of the
program
This program is already installed in the controller at delivery and is used to:
3HAC 16245-1
•
restart the system
•
load the system from boot disks or network connections
•
set or check network settings
•
choose a system from the mass storage memory.
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8 Robot controller
8.0.2 Start window
8.0.2 Start window
When is it
shown?
xx0100000168
The start window displays the start menu and will appear in the following cases:
•
When no controller operating system is installed at power on.
•
After X-START (see section "X-start").
•
After C-START (see section "C-start").
Possible actions
From this window you can choose to do one of the following:
Restart the
system, Reboot
The BootImage will be re-executed, used to apply changes in the system settings (see section
"Reboot").
Load a system
from diskettes,
Boot Disks
(See section 4.4)
Set the network
settings, Network
Settings
Set network settings for Main Computer or check how to configure your PC (see section
"Network Settings").
Choose a system
from the mass
storage memory,
Select System
If there are one or more systems in the mass storage memory, you can choose to activate one
of them (see section "Select System).
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8.0.3 Reboot Window
8.0.3 Reboot Window
When is it
shown?
The Reboot window will be displayed if any of the system settings are changed or when
Reboot is pressed in the Start window as shown in the figure below:.
xx0100000169
3HAC 16245-1
Button
Function
YES
Restarts the system
NO
Returns to the start window
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8 Robot controller
8.0.4 Boot Disk Window
8.0.4 Boot Disk Window
When is it
shown?
The Boot Disk window will be displayed when Boot Disks is pressed in the Start window as
shown in the figure in section "Start window".
How to create
boot disks
Information on how to create boot disks from RobInstall can be found in section "Create Boot
Diskettes from Robinstall".
Load the system
Step Action
1.
Illustration/Info
Insert the correct diskette in the
floppy disk drive and press OK . If
the diskette is alright, the system
will be loaded.
CANCEL removes all previously
loaded data and returns to the
Start window as shown in the figure in section "Start window".
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8 Robot controller
8.0.5 LAN Settings Window
8.0.5 LAN Settings Window
When is it
shown?
The LAN Settings window will be displayed when LAN Settings is pressed in the Network
Settings window as shown in the figure in section "Network Settings".
en0100000256
NONE
will, after the system is rebooted, remove the IP settings.
CANCEL
returns to the Start window, as shown in the figure in section "Start Window", without changing any settings.
Parameter
Type
Description
MAC ID
Node identification
The Main Computer’s ethernet address.
Current IP
Node identification
The Main Computer’s current IP address. This row
is blank if the LAN Settings has not been defined.
IP
Network setting
Space for typing a new IP address, for the Main
Computer or the DHCP server. See Configure for
fixed IP network and Configure for DHCP distributed IP network below.
(Subnet mask)
Network setting
Shows the subnet mask of the network.
Only visible when configured for fixed IP.
(Gateway)
Network setting
Shows the gateway IP for the network.
Only visible when configured for fixed IP.
Node
identification
Configure for
fixed IP network
1. Press FIX IP .
2. Fill in the assigned IP address for the Main Computer, and the Subnet Mask and
Gatway for the Network and press OK .
You will be asked to reboot the system.
3. Press YES to make the new setting take effect.
Configure for
DHCP distributed
IP network
1. Press DHCP .
2. The value for IP will change to DHCP.
3. Press OK.
You will be asked to reboot the system.
4. Press YES to make the new setting take effect.
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8 Robot controller
8.0.6 Service Settings Window
8.0.6 Service Settings Window
When is it
shown?
The Service Settings window will be displayed when Service Settings is pressed in the Network Settings window as shown in the figure in section "Network Settings".
en0100000257
OK
returns to the Start window as shown in the figure in section "Start Window".
Parameter
Description
Service Setting
IP (service setting) The IP Address for the I/O Computer
162
IP
Required to configure your PC’s network settings for
communication between RobInstall and the I/O Computer.
Subnet mask
Required to configure your PC’s network settings for
communication between RobInstall and the I/O Computer.
Gateway
Required to configure your PC’s network settings for
communication between RobInstall and the I/O Computer.
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8 Robot controller
8.0.7 System selection window
8.0.7 System selection window
When is it
shown?
The Select System window will be displayed when Select System is pressed in the Start
window as shown in the figure in section "Start Window".
xx0100000171
CANCEL
How to select
system
returns to the Start window as shown in the figure in section "Start Window".
The window shows all systems installed on the controller mass storage memory.
Step Action
1.
Illustration/Info
Select by moving the X to a
desired system and press OK .
The system will reboot with the
new system and then present the
Welcome window as shown in the
figure.
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8 Robot controller
8.0.8 How to perform a Restart
8.0.8 How to perform a Restart
General
Performing a restart may be done in a number of ways. These are detailed below:
Reboot (Warm
start), apply
changed settings
When executing a Warm start, the system reboots with the current system, e.g. to make new
or changed settings take effect.
Step Action
Illustration/Info
1.
Press the button Miscellaneous and select Service window or System Parameter window
2.
Select Restart from the File menu and press OK .
The system reboots and returns to the Welcome window
as shown in the second figure in section "Select System".
Miscellaneous button:
xx0100000194
P-START, reinstallation of RAPID
A P-Start will warm start the current system, with a reinstallation of the RAPID language and
all auto loaded modules. This means that all RAPID program and system modules currently
loaded in the working memory will be closed, and thus have to be reloaded again after the PStart, with exception for such modules which are automatically loaded, due to settings in the
System Parameters/Controller/Task Modules.
Step Action
1.
Illustration/info
Press the button Miscellaneous and select Service window .
Miscellaneous button:
xx0100000194
X-START, change
active controller
system
2.
Select Restart from the File menu.
3.
Enter the numbers: 2_5_8 (the fifth function key changes
to P-START)
4.
Press P-START .
The system will reboot, reinstall RAPID and its auto
loaded modules, and return to the Welcome window as
shown in the second figure in section "Select System".
An X-start will exit the running system, store system data on the mass storage memory, and
then execute the BootImage to present the Start window. Any system stored in the mass storage memory, may then be selected as described in section "Select System".
When performing an X-Start all stored system data will be restored (similar to performing a
warm start).
Step Action
1.
Illustration/Info
Press the button Miscellaneous and select Service win- Miscellaneous button:
dow.
xx0100000194
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8 Robot controller
8.0.8 How to perform a Restart
Step Action
I-START, start in
Query mode
Illustration/Info
2.
Select Restart from the File menu.
3.
Enter the numbers: 1_5_9 (the fifth function key changes
to X-START)
4.
Press X-START .
The system will reboot and return to the Start window as
shown in the figure in section "Start Window".
If "Use Query Mode at System Boot" was selected when creating the running system in RobInstall (see section "Change options or system pack revision"), an I-Start can be done. An IStart will restart the current system and give the opportunity to set some values at start-up,
e.g. language, IRB type (within the same model) or options (see section "Start in Query
Mode").
Step Action
Illustration/Info
1.
Press the button Miscellaneous and selectService win- Miscellaneous button:
dow.
2.
Select Restart from the File menu.
3.
Enter the numbers: 1_4_7 (the fifth function key changes
to I-START).
4.
Press I-START .
The system will start to reboot, then pause to ask for
Silent, Easy, or Query mode. For more information on the
different modes, continue to section "Start in Query
Mode".
xx0100000194
C-START (Cold
start), delete the
active system
When executing a C-Start, the system exits the running system and deletes it from the mass
storage memory. The BootImage is then executed and the Start window as shown in the figure
in section "Start Window" is presented.
Use C-start with caution. Since it deletes the current system, it should not be used to just
switch between installed systems. For this purpose, use X-Start (see section "X-start").
It will take quite some time to implement a Cold start. Just wait until the robot shows the Start
window. When the Start window is shown, a new system can be selected if available in the
mass storage memory (see section "Select System) or a new system can be down loaded and
started (see section "Transfer Robot Controller System using Ethernet connection" or "Transfer Robot Controller System using floppy disks").
Do not touch any key, joystick, enable device, or emergency stop during the cold start until the
Start window is shown as in the figure in section "Start Window".
Step Action
1.
Illustration/Info
Press the button Miscellaneous and selectService win- Miscellaneous button:
dow.
xx0100000194
2.
3HAC 16245-1
Select Restart from the File menu.
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8 Robot controller
8.0.8 How to perform a Restart
Step Action
166
Illustration/Info
3.
Enter the numbers: 1_3_4_6_7_9 (the fifth function key
changes to C-START)
4.
Press C-START .
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8 Robot controller
8.0.9 How to Start in Query Mode
8.0.9 How to Start in Query Mode
Preconditions for
selecting Query
Mode start
It is possible to set some values, e.g. language, IRB type (within the same model) or options,
at the first start-up of the system, using a C-Start (see section "C-start"), or later on when
performing an I-Start (see section "I-start") if "Use Query Mode at System Boot" was
selected when creating the system in RobInstall (see section "Change options or system pack
revision").
Types of Query
Mode
The first question from the system is what Query Mode to start. Depending on your needs,
you should select one of the following three:
Easy Query Mode
•
Silent Mode, pushbutton Silent . If Silent Mode is selected, the operating system will
be installed with the system configured as defined in RobInstall.
•
Easy Query Mode, pushbutton Easy Query . In Easy Query Mode you can change
language, remove selected options and select service or standard mode (see section
"Easy Query Mode").
•
Query Mode, pushbutton Query . In Query Mode you can, on top of the things in Easy
Query, select DC-link, change Robot type (within the same family) and for IRB 7600,
select balancing unit (see section "Query Mode").
If Easy Query was chosen as start-up query mode, the following steps will be required to start
the system:
Step Action
Query Mode
Illustration/Info
1.
Select Service/Standard motion param. Choose between
standard or service motion parameters (pushbutton
Stand / pushbutton Service ).
2.
Choose TP Language. If there was another language
than English selected in RobInstall (see section "Change
options or system pack revision"), it will be possible to
choose language (pushbutton English /pushbutton
"Other" ).
3.
Install xxx? For every option that was selected in RobInstall (see section "Change options or system pack revision") it is now possible to select Yes to keep the option,
or No to remove it from the system.
If Query Mode was chosen as start-up query mode, the following steps will be required to
start the system:
Step Action
3HAC 16245-1
Illustration/info
1.
Select Service/Standard motion param. See section
"Easy Query Mode", step 1.
2.
Choose TP Language. See section "Easy Query Mode",
step 2.
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8.0.9 How to Start in Query Mode
Step Action
3.
Illustration/info
Select external axes config.
You can find the article number of the DC-link used on the
unit inside the controller, then use the table below to find
out the configuration ID for that DC-link.
168
4.
Select xxxx model. Choose Robot model type within in
the same family, e.g. 1400, 6400 etc. If there are more
than three options, press pushbutton SCAN to view
them.
5.
Install xxx? See section "Easy Query Mode", step 3.
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3HAC 16245-1
9 System directory structure
9.0.1 Media pool in the PC
Chapter 9: System directory structure
9.0.1 Media pool in the PC
Directory
All RobotWare System Packages and Option Packages are stored in a media pool directory
as shown in the table below.
Two revisions of the same system package may exist in the pool. By default, after having
installed RobInstall, a directory "MediaPool" will be found in the directory Program
Files\ABB Robotics\, and will also be the current one. However any directory in the structure
can be set up as the current media pool in the Preference window (see section "Robinstall
Preferences").
xx0200000156
Naming
conventions
3HAC 16245-1
Art. no./folder
name
Description
3HAXaaaa-1.00
RobotWare System Pack 3HAXaaaa-1, rev 00
3HAXbbbb-1.02
RobotWare System Pack 3HAXbbbb-1, rev 02
3HAXcccc-1.01
ABB Robotics external option program 3HAXcccc-1, rev 01
3HYZdddd-1.00
OEM customer external option program 3XYZdddd-1, rev 00
Each package is stored in a directory, the name of which is an article number ending with the
sub-number and with the revision number as shown in the table above. All the system packs
and option packs in one media pool must have the correct revision numbers in their directory
names. Thus a later revision can be loaded into the program pool, to be added to the old one,
without changing the article number.
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9 System directory structure
9.0.2 System pool in the PC
9.0.2 System pool in the PC
Directory
All systems created with the RobInstall will be stored in a system pool. The default name of
such a system pool is "system" as shown below. Each system stored in the system pool is a
directory with the name of the system as shown in the table below.
By default, after installing RobInstall, a directory "system" will be found in Program
Files\ABB Robotics\ and will also be the current one. However any directory in the structure
can be set up as the current system directory in the Create New System window or Select
System window.
File system
requirements
170
Directory view
Folder "System 1"
xx0100000260
xx0100000261
The system directory must hold these files and directories to allow software installation:
•
key.id (encrypted key file for the actual controller)
•
program.id (file with paths to selected programs in the media pool)
•
A syspar directory containing .cfg files to be included in the software installation procedure. All system parameter files, included when creating a system with RobInstall,
are stored in this syspar directory as shown in the table in section "System Pool Directory".
•
A directory called Home. In this home directory the user can include any file or files,
which should be downloaded to the controller together with the operating system.
Such files will then be placed in the home directory of the system in the controller.
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9 System directory structure
9.0.3 File structure in the robot controller mass storage memory
9.0.3 File structure in the robot controller mass storage memory
Files in root
directory, hd0a
The root directory of the mass storage memory is called hd0a. This includes several components:
File name
Description
E.g. 3HAC6811-1.00
Control system package, named as an article number
bin
BootImage code
BootRom.sys
System configuration and description file for the mass storage
memory
MC.cfg
Network configuration for the main computer
ctrl.bin
Holds e.g. revolution counter values
system.dir
Holds information on the current system
system directories
Different systems stored in the mass storage memory
Directories and
subdirectories
Each system directory holds a number of subdirectories, defining for instance language,
options, robots, etc.
"Home" directory
The system directory is the "home" directory for the system. When using the address "home:"
in the RAPID program, this directory will be addressed.
"Bin"
subdirectory
The subdirectory bin, containing the storage area for all system data, e.g. at power break. This
means that at warm start, in addition to restoring the operating system from the control system
package, all system data is restored from this directory and reloaded into the working memory.
Never change
these directories!
Never delete or change the \bin or BootRom.sys directories in the root directory. If this is
done, the controller cannot be restarted and the mass storage memory will be impossible to
use.
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9 System directory structure
9.0.4 Preparation of S4Cplus software to be installed
9.0.4 Preparation of S4Cplus software to be installed
Illustration
Media pool
S ys tem Pack in
/3haxbbbb-1.nn
*.* s ignature no
S ys tem pool
E xt Option in
/3haxcccc-1.nn
*.* relkey.txt
E xternal option from
dis k or CD-R OM
ys tem Pack from
obotWare CD-R OM
Created files
key.id
program.id
My s ys tem
/s ys tem_n
key.id
program.id
keys tr.txt
/s ys par
*.cfg
Ins erted key s trings
are s aved in keys tr.txt
R obotWare keys trings define the options
to be included from the S ys tem Pack
they belong to and E xt opt keys trings define
added external option packages .
All keys mus t have the s ame s erial number.
xx0100000262
Files to be
prepared
172
The list details what happens during preparation:
•
RobInstall creates a file named Key.id from the key strings specifying the options to
be installed from the System Pack and the external option programs to be installed.
•
Unless deselected in RobInstall, the latest revision of the System Pack and External
Option Programs is selected as default (see section "Change options or system pack
revisions").
•
These are copied from the media pool and concatenated into one target file that also
holds the key.id and the syspar directory. This may then be downloaded to the controller via Ethernet or a set of diskettes. The target file is temporarily stored in the system
directory before downloading or creating diskettes.
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9 System directory structure
9.0.5 Handling mass memory storage capacity
9.0.5 Handling mass memory storage capacity
General
In some cases it is very important that there is enough free space in the mass storage memory,
before attempting to download new system software. How to check its capacity, and if
required increase it, is detailed below.
A manual check on the free space can be done in one of the following ways:
Checking storage
capacity from the
Teach Pendant
Unit
Checking storage
capacity through
connection to the
MC/CONSOLE
port
1. Press the button Miscellaneous to select Service window .
2. Select Storage Capacity from the System Info menu. The Mass Storage
Memory is called hd0a .
1. Connect a console to the MC/CONSOLE outlet on the controller and execute the
command dosFsShow .
There should always be at least 25 Mb free disk space on the controller mass storage memory
before attempting to download a new system. For information on how to increase storage
capacity, see below!
Increasing
storage capacity
If the capacity of the mass storage memory is less than 25 Mb when a new controller system
is to be downloaded, storage memory must be released by removing old systems from the
mass storage memory. This can be done in one of the following ways:
1. Boot up on the system you would like to remove and then make a C-START (see
section "C-start").
2. Use the FileManager in the Teach Pendant Unit, see User’s Guide - File Manager,
for more information on how to use the FileManager.
3. Use a third-party "ftp" client (like FTPVoyager supplied on the RobotWare CD).
Removing systems using the FileManager or FTP-client may be hazardous since the \bin and
BootRom.sys directories the must be kept intact.
Proceed with utmost care to avoid accidentally removing such files or directories!
3HAC 16245-1
A
173
9 System directory structure
9.0.5 Handling mass memory storage capacity
174
A
3HAC 16245-1
10 Calibration
10.1.1 Types of calibration procedures
Chapter 10: Calibration
Section 10.1: General
10.1.1 Types of calibration procedures
When to calibrate
Calibrate the measurement system carefully if any of the resolver values has been
changed. This may occur when parts affecting the calibration position have been
replaced on the robot.
Calibrate the system roughly as detailed in section Updating the revolution
counter on page 183 if the contents of the revolution counter memory are lost.
This may occur when:
3HAC 16245-1
•
the battery is discharged
•
a resolver error occurs
•
the signal between a resolver and measurement board is interrupted
•
a robot axis has been moved with the control system disconnected
A
175
10 Calibration
10.1.2 How to calibrate the robot system
10.1.2 How to calibrate the robot system
General
This section provides an overview of the procedure required when calibrating the robot system. Many of the steps in the procedure are detailed in other sections to which references are
given.
Procedure
Step
176
Action
Illustration
1.
Install the robot.
Detailed in the "Installation Manual".
2.
Check that all required hardware is available for calibrating the robot.
Required hardware is specified in the
calibrating procedures for each axis.
3.
Connect the calibration equipment to the
robot controller and initialize it.
Specified in Initialization of calibration
pendulum on page 186.
4.
Manually, run the robot axes to be caliUse the calibration scales fitted to each
brated to a position close to the correct cal- robot axis to locate this position.
ibration position.
5.
Start the calibration program.
Detailed in Calibration procedure on
TPU on page 185.
6.
Calibrate each axis or several axes in a
sequence.
Detailed in each axis’ calibration
instruction.
7.
Verify that the calibration was successfully Detailed in Post calibration procedure
carried out.
on page 198.
A
3HAC 16245-1
10 Calibration
10.1.2 How to calibrate the robot system
Additional information
In addition to the basic calibration procedure detailed above, a number of calibration related
actions may be performed:
Action
Detailed in section:
How to update the robot revolution counter without per- Updating the revolution counter on
forming a complete calibration
page 183
How to manually check the current calibration position Checking the calibration position on
page 181
An alternative calibration position for axis 1 may be
defined
Alternative calibration position on
page 199
How to perform the alternative calibration
Alternative calibrating on page 200
How to change to a new offset value for the alternative New calibration offset, axis 1 on
calibration position
page 202
How to retrieve a new calibration offset for the alterna- Retrieving offset values on page
tive calibration position
203
How to change to a new calibration position
3HAC 16245-1
A
New calibration position, axis 1 on
page 201
177
10 Calibration
10.1.3 Calibration, prerequisites
10.1.3 Calibration, prerequisites
General
The calibration procedure may be described as comparing the direction of two sensors, the
reference sensor and the calibration sensor, while running the robot to its calibration position,
thus reducing the sensor difference to close to zero.
All article numbers of relevant equipment are specified in their instructions respectively.
Peripheral equipment
The robot must be free from any peripheral equipment during calibration. Fitted welding guns
and similar will cause erroneous calibration positions.
Calibration order
The axes must be adjusted in increasing sequence, i.e. 1 - 2 - 3 - 4 - 5 - 6.
Calibration movement direction
When calibrating, the axis must consistently be run towards the calibration position in the
same direction, in order to avoid position errors caused by backlash in gears etc. Positive
directions are shown in the figure below.
This is normally handled by the robot calibration software.
NOTE The figure shows an IRB 7600, but the positive direction is the same for all robots!
6+
4+
5+
3+
2+
1+
xx0200000089
Location of sensors
The positions where the calibration sensor and reference sensor should be fitted during calibration, are specified in Calibration sensor mounting positions on page 188.
Location of calibration marks/
plates
Where to find the calibration sensor and reference sensor respectively during calibration in
Calibration scales on page 194.
178
A
3HAC 16245-1
10 Calibration
10.1.4 Calibration pendulum kit, contents
10.1.4 Calibration pendulum kit, contents
General
The calibration pendulum kit contains all required hardware to calibrate all robot models
(except IRB 6400R) using the calibration pendulum method.
These kits may be rented from ABB at this time, but not purchased.
Contents of calibration pendulum
kit 3HAC 15716-1
3HAC 16245-1
Qty
Contents
Art. no.
2
Inclinometer, Wyler Zerotronic
3HAC 12837-7
1
Cable set Wyler
3HAC 15144-1
1
Leveltronic NT/41
3HAC 15732-1
1
Calibration pendulum
3HAC 4540-1
1
Turning disk adapter
3HAC 16423-1
May be turned both ways to fit
IRB 140, IRB 1400, IRB 2400
and IRB 4400.
Includes all guide pins and
attachment screws.
Also see illustration below!
1
Adapter, turning disk
3HAC 14034-1
Fits IRB 6600 and IRB 7600
Includes all guide pins and
attachment screws.
Also see illustration below!
4
Batteries
For battery supply of "Leveltronic
NT/41"
1
Thread tap, M8
For repairing any damaged protective cover attachment holes
5
Protective covers and attachment
screws
For replacing any damaged protective covers
1
Location pin
3HAC 14137-1
58 mm long
For IRB 6600 and IRB 7600, axis
1
1
Location pin
3HAC 14137-2
68 mm long
For IRB 140, IRB 1400, IRB
2400 and IRB 4400, axis 1
1
User documentation
A
Rem.
All required cables
179
10 Calibration
10.1.4 Calibration pendulum kit, contents
Illustration, turning disk adapter
May be turned both ways to fit IRB 140, IRB 1400, IRB 2400 and IRB 4400.
xx0200000276
Illustration,
adapter turning
disk
A
Guide pin, 8 mm
B
Guide pin, 6 mm
C
Screw, M10
D
Screw, M6
Fits IRB 6600 and IRB 7600
xx0200000278
180
A
Locating shaft
B
Hand wheel
C
Turning disk, robot
A
3HAC 16245-1
10 Calibration
10.2.1 Checking the calibration position
Section 10.2: Preliminaries
10.2.1 Checking the calibration position
General
Using the program CALxxxx in
the system software
3HAC 16245-1
Check the calibration position before any programming of the robot system can begin. This
may be done in one of two ways:
•
Using the program CALxxxx in the system software (xxxx signifying the robot type;
IRB xxxx)
•
Using the Jogging window on the teach pendant
Step
Action
Button
1.
Run the program \SYSTEM\UTILITY\SERVICE\CALIBRAT\CALxxxx in the system and follow the instructions displayed on the teach
pendant.
2.
Switch to MOTORS OFF when the robot stops.
Check that the calibration marks for that particular
axis align correctly. If they do not, update the revolution counters.
3.
Check that resolver offset values in the system
parameters match those on the parameter disk
delivered with the robot or those established when
calibrating the robot (after a repair, etc).
A
Calibration marks shown in
Calibration scales on page 194.
Detailed in Updating the revolution counter on page 183.
181
10 Calibration
10.2.1 Checking the calibration position
Using the Jogging window on
the teach pendant
Step
Action
Illustration
1.
Open the Jogging window.
2.
Choose running axis-by-axis.
3.
Manually, run the robot axis to a position
where the resolver offset value read, is equal
to zero.
4.
Check that the calibration marks for that particular axis align correctly. If they do not,
update the revolution counters !
xx0100000195
xx0100000196
182
A
Shown in Calibration scales on
page 194.
Detailed in Updating the revolution
counter on page 183.
3HAC 16245-1
10 Calibration
10.2.2 Updating the revolution counter
10.2.2 Updating the revolution counter
Manually running
the manipulator
to the calibration
position
This section details the first step when updating the revolution counter; manually running the
manipulator to the calibration position.
Step
3HAC 16245-1
Action
Illustration
1.
Select axis-by-axis motion mode
2.
Press the enabling device on the teach pendant and, using Shown in Calibration
the joystick, move the robot manually so that the calibra- scales on page 194.
tion marks lie within the tolerance zone.
3.
Note that axis 6 does not have any mechanical stop and
can thus be calibrated at the wrong faceplate revolution.
Do not operate axis 6 manually before the robot has been
calibrated.
4.
When all axes have been positioned as above, store the
revolution counter settings using the Teach Pendant Unit
as detailed below:
A
183
10 Calibration
10.2.2 Updating the revolution counter
Storing the revolution counter
setting
This section details the second step when updating the revolution counter; storing the revolution counter setting.
If a revolution counter is incorrectly updated, it will cause incorrect robot positioning, which in
turn may cause damage or injury!
Step
1.
Action
Illustration
Press the button "Miscellaneous".
xx0100000194
2.
Select the Service window by pressing
ENTER.
xx0100000200
3.
Select Calibration from the View
menu.
The Calibration window appears.
xx0100000201
4.
Select the desired unit and choose Rev
Counter Update from the Calib
menu.
The Revolution Counter Update window
appears.
5.
Select the desired axis and press Incl to
include it (it will be marked with an x) or
press All to select all axes.
6.
Press OK when all axes that are to be
updated are marked with an x.
CANCEL returns to the Calibration window.
7.
Press OK again to confirm and start the
update.
CANCEL returns to the Revolution Counter
Update window.
8.
At this point, it is recommended that the
revolution counter values are saved to a
diskette.
Not required.
9.
Recheck the calibration position.
Detailed in Checking the calibration
position on page 181
xx0100000202
184
A
3HAC 16245-1
10 Calibration
10.2.3 Calibration procedure on TPU
10.2.3 Calibration procedure on TPU
General
This section details how to use the Teach Pendant Unit (TPU) when calibrating the robot
using the calibration pendulum method.
Procedure
Step
Action
Illustration
1.
Press the "Program" button on the TPU.
2.
Select "Special", and then "Call service routine".
3.
Start the program: "Calpendulum.rutin".
4.
Select the required calibration procedure by
pressing "START".
5.
Enter the value for your choice of which robot
axes to calibrate.
Press OK .
xx0300000009
xx0200000188
xx0200000190
Default value: All axes
In this example, axis 1 was
selected.
3HAC 16245-1
6.
Press "0" to acknowledge the selection made.
Press OK .
7.
Proceed to calibrate the individual robot axes. Detailed in the calibration instructions for the robot axes.
A
185
10 Calibration
10.2.4 Initialization of calibration pendulum
10.2.4 Initialization of calibration pendulum
General
Whenever calibration pendulum is used for calibrating the robot, the equipment must first be
initialized as detailed below.
The Levelmeter 2000 is shown for reference below:
+
0000000
00000
Port/Sensor
° oo
GON
A
A°oo mRAD mm/m DEG
"1/12" "1/10" "/REL" mm/REL
A
50
B
BATT
LEVELMETER 2000
+
ON/MODE
ZERO SELECT
ENTER
SEND/ESC
HOLD
WYLER
A
B
OUT
C
C
D
xx0200000126
Overview
A
Connect sensor A here
B
Connect sensor B here
C
Connect SIO 1 in controller here
D
Selection pointer
E
Measuring unit
Shown below is an outline of how to initialize the Levelmeter 2000. Detailed procedures are
specified in the manual supplied by the manufacturer.
Step
186
Action
Info/Illustration
1.
Make sure the Levelmeter 2000 has reached normal
operating temperature before connecting it to anything.
Also switch the power on for a couple of minutes
before operating the unit.
2.
Connect the Levelmeter 2000 to the COM2 port in the Shown in the figure in seccontrol cabinet through the connector marked OUT . tion General on page 186.
3.
Connect sensors A and B.
4.
Calibrate the robot!
A
Detailed in Connection of
sensors on page 187.
3HAC 16245-1
10 Calibration
10.2.4 Initialization of calibration pendulum
Address
Step
1.
Action
Info/Illustration
Make sure the sensors have different
Detailed in the documentation supplied
addresses. Any addresses will do, as long by sensor manufacturer.
as they differ from each other.
Found in the calibration kit box.
Connection of
sensors
Step
Result
3HAC 16245-1
Action
Info/Illustration
1.
Connect the sensor to the Sensor connection points. Marked A and B .
Shown in the figure in section
General on page 186.
2.
Press ON/MODE .
3.
Press ON/MODE until the dot flashes under SENSOR .
4.
Press ENTER.
5.
Press ZERO/SELECT arrows until a flashing "A B"
is shown.
6.
Press ENTER.
Wait until the "A B" flashes again.
7.
Press ENTER.
The Levelmeter 2000 is now initialized and ready for service.
A
187
10 Calibration
10.3.1 Calibration sensor mounting positions
Section 10.3: Calibration
10.3.1 Calibration sensor mounting positions
Introduction
This section specifies the mounting positions and directions of all calibration sensors on all
robot systems using the Calibration Pendulum method.
Additional information on calibration, alternative calibration positions etc, may be found in
the Installation Manual.
Reference sensor
The illustrations below show the mounting position and direction for the reference sensor :
IRB 6600, IRB
7600
A
xx0200000183
A
188
Calibration pendulum in reference sensor position NOTE! The pendulum is only fitted
in one position at a time!
A
3HAC 16245-1
10 Calibration
10.3.1 Calibration sensor mounting positions
Axis 1
The illustrations below show the mounting position and direction for the calibration sensor,
axis 1:
IRB 6600, IRB
7600
B
A
C
xx0200000177
3HAC 16245-1
A
Calibration pendulum NOTE! The pendulum is only fitted in one position at a time!
B
Calibration pendulum attachment screw
C
Locating pin
A
189
10 Calibration
10.3.1 Calibration sensor mounting positions
Axis 2
The illustrations below show the mounting position and direction for the calibration sensor,
axis 2:
IRB 6600, IRB
7600
A
xx0200000178
A
190
Calibration pendulum, axis 2
A
3HAC 16245-1
10 Calibration
10.3.1 Calibration sensor mounting positions
Axis 3
The illustrations below show the mounting position and direction for the calibration sensor,
axis 3:
IRB 6600, IRB
7600
A
xx0200000179
A
Calibration sensor, axis 3 NOTE! The pendulum is only fitted in one position at a time!
NOTE! The IRB 7600/2.3/500 version requires a slightly different sensor mounting position
than the other versions, the sensor being turned 90°. This is shown in the following figure.
A
xx0300000016
Any special considerations to be taken when calibrating this robot version is detailed in section Calibrating axes 3-4, IRB 7600/2.3/500 on page 197.
3HAC 16245-1
A
191
10 Calibration
10.3.1 Calibration sensor mounting positions
Axis 4
The illustrations below show the mounting position and direction for the calibration sensor,
axis 4:
IRB 6600, IRB
7600
A
xx0200000179
A
Calibration sensor, axis 4 NOTE! The pendulum is only fitted in one position at a time!
NOTE! The IRB 7600/2.3/500 version requires a slightly different sensor mounting position
than the other versions, the sensor being turned 90°. This is shown in the figure below.
A
xx0300000016
Any special considerations to be taken when calibrating this robot version is detailed in section Calibrating axes 3-4, IRB 7600/2.3/500 on page 197.
192
A
3HAC 16245-1
10 Calibration
10.3.1 Calibration sensor mounting positions
Axis 5
The illustrations below show the mounting position and direction for the calibration sensor,
axis 5:
IRB 6600, IRB
7600
A
B
xx0200000180
Axis 6
A
Calibration sensor, axis 5 NOTE! The pendulum is only fitted in one position at a time!
B
Adapter, turning disk
The illustrations below show the mounting position and direction for the calibration sensor,
axis 6:
IRB 6600, IRB
7600
A
B
xx0200000180
3HAC 16245-1
A
Calibration sensor, axis 6 NOTE! The pendulum is only fitted in one position at a time!
B
Adapter, turning disk
A
193
10 Calibration
10.3.2 Calibration scales
10.3.2 Calibration scales
Introduction
This section specifies the calibration scale positions for all robot models.
IRB 6600
The illustration below show the calibration scale positions:
A
B
C
xx0200000176
IRB 7600
A
Sync scale, axis 1
B
Sync scale, axes 2-5
C
Sync scale, axis 6
The illustration below show the calibration scale positions:
A
B
C
xx0100000198
194
A
Sync scale, axis 1
B
Sync scale, axes 2-5
C
Sync scale, axis 6
A
3HAC 16245-1
10 Calibration
10.3.3 Calibration, all axes
10.3.3 Calibration, all axes
General
This section is valid for all robot models using the calibration pendulum procedure except
IRB 6400R.
It details how to perform the actual fine calibration of each axis using special calibration
equipment. The position to fit calibration sensors differ between different models and different axes.
Sensor mounting
positions
Equipment
Article no.
Note
Calibration pendulum,
complete set
3HAC 15716-1
Contains all hardware required for calibration of all
robot versions except IRB 6400R.
The contents are specified in Calibration pendulum kit, contents on page 179.
Turning disk adapter
3HAC 16423-1
May be turned both ways to fit IRB 140, IRB 1400,
IRB 2400 and IRB 4400.
Included in the complete set.
Adapter, turning disk
3HAC 14034-1
Fits IRB 6600 and IRB 7600
Included in the complete set.
Isopropanol
1177 1012-208
For cleaning the sensor attachment points
The position of the calibration sensors are shown in Calibration sensor mounting positions
on page 188.
Procedure
Step
3HAC 16245-1
Action
Illustration
1.
Run the robot manually to the calibration
position of the axis to be calibrated.
2.
Make a rough calibration.
3.
Turn the calibration equipment on, to allow it
to reach operating temperature and stabilize
for a couple of minutes.
4.
Remove any protective covers from the reference sensor, calibration sensor and locating
pin attachment points.
The same calibration pendulum is used as a
"calibration sensor" and as a "reference sensor" depending on its function at the time. In
the instruction below, the pendulum will be
called "calibration sensor" or reference sensor" depending on the function.
5.
Clean the reference sensor, calibration sensor and locating pin attachment points with
isopropanol .
Art. no. specified in section General
on page 195.
6.
Valid for axis 1 only!
Fit the locating pin to the manipulator base.
Make sure the attachment surface is clean
and free from any nicks and burrs.
Shown in Calibration sensor mounting positions on page 188.
A
Detailed in Updating the revolution
counter on page 183.
195
10 Calibration
10.3.3 Calibration, all axes
Step
7.
Action
Illustration
Connect the measurement cable from the calibration sensor to the Levelmeter 2000 unit.
+
00 0 0 0 0 0 0 0 0 0
° oo
GON
Port/Sensor
A° o o
"1/12"
mRAD
"1/10"
mm/m
"/REL"
DEG
mm/REL
A
50
A
B
B AT T
LE V E LM E T E R 2 00 0
+
Z E R O
O N /M O D E
S E LE C T
E N TE R
S E N D /E S C
H O L D
W YL ER
A
B
O U T
C
C
D
xx0200000126
•
A: Connect sensor A here
•
B: Connect sensor B here
•
C: Connect SIO 1 in controller here
•
D: Measuring unit
•
E: Selection pointer
8.
Start the calibration program from the TPU,
The position where to fit the referand follow the instructions given, incl. fitting ence sensor and calibration sensor
the calibration sensor when requested.
respectively, are shown in CalibraNOTE! After fitting the sensor on the manipu- tion sensor mounting positions on
page 188.
lator as specified on the TPU, clicking OK
NOTE that no additional tool is
will start manipulator movement !
Make sure no personnel is within the working required for fitting the calibration
pendulum for axes 1-3!
range of the robot!
Fitting the pendulum to the turning
disk requires an adapter (included in
the complete set). NOTE that there
are two adapters! Article number
specified in section General on page
195.
The way of handling the calibration
program prior to the actual calibration of each axis is detailed in Calibration procedure on TPU on page
185.
9.
Click OK .
A number of menus will flash by briefly on the
TPU, but no action is required on behalf of the
operator until a specific action is displayed.
10. Confirm the position of all calibrated axes
Detailed in Post calibration procewhen the calibration has been performed sat- dure on page 198.
isfactorily.
11. Disconnect all calibration equipment and refit
all protective covers.
196
A
3HAC 16245-1
10 Calibration
10.3.4 Calibrating axes 3-4, IRB 7600/2.3/500
10.3.4 Calibrating axes 3-4, IRB 7600/2.3/500
General
Due to the fact that the upper arm tube is slightly shorter on the version than on others, the
calibration sensor position on the upper arm is changed. This applies to calibrating axes 3 and
4 of the IRB 7600/2.3/500 only.
A
xx0300000020
A
Cable holder attachment point
Procedure
Step
3HAC 16245-1
Action
Info/Illustration
1.
Remove any cable holders by unscrew- Shown in the figure in section General on
ing their respective attachment screws. page 197.
This is to facilitate fitting the calibration
sensor.
2.
Perform the calibration procedure as
with any other version. The system software automatically compensates for the
sensor being turned 90°.
A
197
10 Calibration
10.4.1 Post calibration procedure
Section 10.4: After calibration
10.4.1 Post calibration procedure
General
Perform the following procedure after calibrating any manipulator axes. The procedure is
intended to verify that all calibration positions are correct.
Procedure
Step
198
Action
Illustration
1.
Run the calibration home position program
twice.
Do not change the position of the manipulator
axes after running the program!
Detailed in Checking the calibration position on page 181.
2.
Check all calibration positions .
Detailed in Checking the calibration position on page 181.
3.
Repeat the check as above.
4.
Adjust the calibration marks when the calibration is done.
5.
The system parameters will be saved to the
storage memory at power off.
6.
Change the values on a new label and stick it on
top of the label located on the lower arm.
7.
Remove any calibration equipment from the
manipulator.
A
Shown in Calibration scales on
page 194.
3HAC 16245-1
10 Calibration
10.5.1 Alternative calibration position
Section 10.5: Alternative calibration
10.5.1 Alternative calibration position
General
The manipulator may be calibrated in any of three positions.
The regular calibration instructions detailed for each axis are intended for calibration position
0, i.e. the normal position. Calibration instructions for positions Right (1) and Left (2) are
detailed in Alternative calibrating on page 200.
Illustration
The illustration shows the three available calibrating positions.
Y
A
B
X
C
xx0100000258
3HAC 16245-1
A
Calibration position 2 +90°, left (1.570796)
B
Calibration position 0
C
Calibration position 1 -90°, right (-1.570796)
A
199
10 Calibration
10.5.2 Alternative calibrating
10.5.2 Alternative calibrating
General
The manipulator may be calibrated in any of three positions, shown in Alternative calibration
position on page 199.
Procedure
Step
200
Action
Illustration
1.
Calibrate the robot in position 0 for all axes.
Set an alternative calibration position before installation if the final
installation makes it impossible to reach the calibration 0 position.
2.
Run the calibration program CALxxx in the system\SYSTEM\UTILITY\SERVICE\CALIBRAT\.
(xxx = robot version, e.g. CAL6400)
3.
Select Normal position, and check the calibration marks for each
axis.
4.
Run the calibration program again and select the desired calibration position (Left or Right) as shown in Alternative calibration
position on page 199.
5.
Change to the new calibration offset for axis 1, as detailed in New
calibration offset, axis 1 on page 202.
6.
Note the new calibration offset on the label, located on the frame
to the left of motor axis 1 (remove the cover between axes 2 and
3). The new calibration offset values can be found as detailed in
Retrieving offset values on page 203.
7.
Change to the new calibration position on axis 1 as detailed in
New calibration position, axis 1 on page 201.
8.
Restart the robot by selecting Restart from the File menu.
9.
Move the sync marks for axis 1 on the base to the new position.
10.
The system parameters will be saved to the storage memory at
power off.
A
3HAC 16245-1
10 Calibration
10.5.3 New calibration position, axis 1
10.5.3 New calibration position, axis 1
Procedure
Use this instruction to change to a new calibration position for axis 1 during definition of a
new calibration position.
Step
1.
Action
Illustration
Press the "Miscellaneous" button
xx0100000194
2.
Select the System parameters window by pressing ENTER.
3.
Select Manipulator from the Topics menu.
4.
Select Arm from the Types menu.
5.
Select axis 1.
6.
Change Cal pos to 1.570796 or -1.570796 depending on the
selected calibration position. The angle is measured in radians
as shown in Alternative calibration position on page 199.
xx0100000200.
3HAC 16245-1
A
201
10 Calibration
10.5.4 New calibration offset, axis 1
10.5.4 New calibration offset, axis 1
Procedure
Use this instruction when changing to a new calibration offset for axis 1 during definition of
a new calibration position.
Step
Action
Illustration
1.
Press the "Miscellaneous" button.
2.
Select the Service window by pressing
ENTER.
xx0100000194
xx0100000200
3.
Select Calibration from the View menu.
The calibration window appears.
4.
Select Calibrate from the Calib menu.
5.
Select axis 1 (no other axes).
6.
Confirm by pressing OK twice.
xx0100000201
202
A
3HAC 16245-1
10 Calibration
10.5.5 Retrieving offset values
10.5.5 Retrieving offset values
Procedure
Use this instruction when retrieving new offset values for axis 1 during definition of a new
calibration position.
Step
Action
Illustration
1.
Press the "Miscellaneous" button.
2.
Select the System parameters window by pressing ENTER.
3.
Select Motor from the Types menu.
4.
Select axis 1 and press ENTER.
5.
Note the Cal offset value.
xx0100000194
xx0100000200
xx0100000200
3HAC 16245-1
A
203
10 Calibration
10.5.5 Retrieving offset values
204
A
3HAC 16245-1
11 Decommissioning
11.0.1 Balancing device, IRB 7600 and IRB 6600/6650
Chapter 11: Decommissioning
11.0.1 Balancing device, IRB 7600 and IRB 6600/6650
General
This information is valid for all versions of IRB 6600/6650 as well as IRB 7600!
There is much energy stored in the balancing device. Therefore a special procedure is
required to dismantle it. The coil springs inside the balancing device exert a potentially lethal
force unless dismantled properly.
Required equipment
Equipment, etc.
Spare part no. Art. no.
Standard toolkit
3HAC 15571-1
Note
The contents are defined in
section Standard toolkit on
page 22!
Cutting torch
For opening housing and cutting coils
Other tools and procedures may be required.
See references to
these procedures in the
step-by-step instructions below.
These procedures include references to the tools required.
Do not under any circumstances, deal with the balancing device in any other way than that
detailed in the product documentation! For example, attempting to open the balancing device
is potentially lethal!
Procedure
The instruction below details how to cut open the balancing device housing and removing the
tension in the coil springs before opening the device.
Step
3HAC 16245-1
Action
Info/Illustration
1.
Remove the balancing device from the
manipulator.
Detailed in "Removal of balancing
device" in the Repair Manual.
2.
Place it on a workbench or similar. Make
sure it is clamped in position with a vice
or similar.
A
205
11 Decommissioning
11.0.1 Balancing device, IRB 7600 and IRB 6600/6650
Step
3.
Action
Info/Illustration
Open a hole in the side of the housing as Use a cutting torch.
shown in the figure.
450-500 mm
450-500 mm
450 mm = IRB 6600
500 mm = IRB 7600
xx0200000082
4.
206
Cut the coils of the three springs inside
the housing as specified below:
• Outer spring: cut at least five (5)
coils!
•
Middle spring: cut at least four (4)
coils!
•
Inner spring: cut at least four (4)
coils!
5.
After double-checking the number of coils
cut, remove the end cover of the balancing device.
6.
Dismantle the balancing device and sort
its parts for the recycling plant.
A
Use a cutting torch.
3HAC 16245-1
Repair Manual, part 1
Industrial Robot
IRB 6600 - 225/2.55
IRB 6600 - 175/2.8
IRB 6600 - 175/2.55
IRB 6650 - 200/2.75
IRB 6650 - 125/3.2
M2000A
Repair Manual, part 1, IRB 6600/6650, M2000A
3HAC 16247-1
Revision A
The information in this manual is subject to change without notice and
should not be construed as a commitment by ABB. ABB assumes no responsibility for any errors that may appear in this manual.
In no event shall ABB be liable for incidental or consequential damages
arising from use of this manual and products described herein.
This manual and parts thereof must not be reproduced or copied without
ABB’s written permission, and contents thereof must not be imparted to
a third party nor be used for any unauthorized purpose. Contravention
will be prosecuted.
Additional copies of this manual may be obtained from ABB at its then
current charge.
©Copyright 2003 ABB All rights reserved.
ABB Automation Technology Products AB
Robotics
SE-721 68 Västerås
Sweden
Table of Contents
0.0.1 Overview . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1
0.0.2 Product Documentation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .3
Chapter 1: Safety, service
5
1.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .5
Section 1.1: General information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6
1.1.1 Safety, service - General . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .6
1.1.2 Limitation of Liability . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .6
1.1.3 Related information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .6
Section 1.2: Safety risks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7
1.2.1 Safety risks related to gripper. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7
1.2.2 Safety risks related to tools/workpieces . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7
1.2.3 Safety risks related to pneumatic/hydraulic systems . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7
1.2.4 Safety risks during operational disturbances . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7
1.2.5 Safety risks during installation and service . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .8
1.2.6 Risks associated with live electric parts. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .8
Section 1.3: Safety actions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.3.1 Safety fence dimensions. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.3.2 Fire extinguishing. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.3.3 Emergency release of the manipulator’s arm . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.3.4 Brake testing. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.3.5 Risk of disabling function "Reduced speed 250 mm/s". . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11
1.3.6 Safe use of the Teach Pendant Unit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11
1.3.7 Work inside the manipulator’s working range . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11
Chapter 2: Reference information
13
2.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .13
Section 2.1: Reference information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .14
2.1.1 Applicable Safety Standards . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .14
2.1.2 Screw joints . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15
2.1.3 Weight specifications . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .17
2.1.4 Standard toolkit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .18
2.1.5 Special tools, IRB 6600/6650/7600 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .19
2.1.6 Performing a leak-down test . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21
2.1.7 Lifting equipment and lifting instructions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .22
Chapter 3: Repair activities, manipulator
23
3.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .23
Section 3.1: Complete manipulator . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .24
3.1.1 Removal of cable harness. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .24
3.1.2 Refitting of cable harness. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .30
3.1.3 Removal of complete arm system . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .36
3.1.4 Refitting of complete arm system . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .39
Section 3.2: Upper arm . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .42
3.2.1 Removal of turning disk. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .42
3.2.2 Refitting of turning disk . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .44
3.2.3 Removal of complete wrist unit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .47
3.2.4 Refitting of complete wrist unit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .50
3.2.5 Removal of upper arm . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .54
3.2.6 Refitting of upper arm . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .57
Section 3.3: Lower arm . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .62
3.3.1 Removal of complete lower arm . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .62
3.3.2 Refitting of complete lower arm . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .67
3HAC 16247-1
i
Table of Contents
Section 3.4: Frame and base . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 73
3.4.1 Removal of SMB related equipment . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 73
3.4.2 Refitting of SMB related equipment . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 75
3.4.3 Removal of brake release unit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 78
3.4.4 Refitting of brake release unit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 80
3.4.5 Removal of balancing device. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 82
3.4.6 Refitting of balancing device . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 85
3.4.7 Unloading the balancing device. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 89
3.4.8 Restoring the balancing device . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 91
Section 3.5: Motors . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 93
3.5.1 Removal of motor, axis 1. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 93
3.5.2 Refitting of motor, axis 1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 95
3.5.3 Removal of motor axis 2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 97
3.5.4 Refitting of motor axis 2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 100
3.5.5 Removal of motor, axis 3. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 103
3.5.6 Refitting of motor, axis 3 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 106
3.5.7 Removal of motor, axis 4. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 109
3.5.8 Refitting of motor, axis 4 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 111
3.5.9 Removal of motor, axis 5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 114
3.5.10 Refitting of motor, axis 5 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 117
3.5.11 Removal of motor, axis 6. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 120
3.5.12 Refitting of motor, axis 6 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 122
Section 3.6: Gearboxes. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 125
3.6.1 Removal of gearbox, axis 1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 125
3.6.2 Refitting of gearbox, axis 1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 128
3.6.3 Removal of gearbox axis 2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 132
3.6.4 Refitting of gearbox axis 2. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 137
3.6.5 Removal of gearbox, axis 3 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 142
3.6.6 Refitting of gearbox, axis 3 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 145
3.6.7 Removal of gearbox, axis 6 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 149
3.6.8 Refitting of gearbox, axis 6 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 151
Chapter 4: Repair activities, controller cabinet
155
4.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 155
Section 4.1: Complete controller cabinet . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 156
4.1.1 Replacement of battery unit, controller . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 156
4.1.2 Replacement of I/O and gateway units . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 158
4.1.3 Replacement of bleeder resistor. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 160
4.1.4 Putting the computer unit in the service position. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 162
4.1.5 Replacement of mass storage memory . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 165
4.1.6 Replacement of internal cooling fan . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 168
4.1.7 Replacement of drive units and rectifier . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 171
4.1.8 Replacement of system fan unit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 174
4.1.9 Replacement of power supply unit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 176
4.1.10 Replacement of Peltier Cooler power supply . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 178
Chapter 5: Appendix 1: Part Lists
181
5.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 181
Section 5.1: Part List, Manipulator IRB 6600/6650 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 182
5.1.1 Mechanical stop ax 1, 3HAC 12812-2. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 183
5.1.2 Base incl frame ax 1, 3HAC 12685-1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 183
5.1.3 Axis 3-4, (robot v. 175/2.55), 3HAC 10746-3. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 184
5.1.4 Axis 3-4, (robot v. 225/2.55, 175/2.8, 125/3.2, 200/2.75), 3HAC 10746-1 . . . . . . . . . . . . . 184
5.1.5 Axis 3-4, Foundry (robot v. 175/2.55), 3HAC 10746-5 . . . . . . . . . . . . . . . . . . . . . . . . . . . . 185
5.1.6 Axis 3-4, Foundry (robot v. 225/2.25, 175/2.8, 125/3.2, 200/2.75), 3HAC 10746-4 . . . . . . 185
ii
3HAC 16247-1
Table of Contents
5.1.7 Wrist (robot v. 175/2.55) 3HAC 8114-1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .189
5.1.8 Wrist (robot v. 225/2.55, 175/2.8, 125/3.2, 200/2.75) 3HAC 8114-3 . . . . . . . . . . . . . . . . . .189
5.1.9 Wrist Foundry (robot v. 175/2.55) 3HAC 8114-6 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .189
5.1.10 Wrist Foundry (robot v. 225/2.55, 175/2.8, 125/3.2, 200/2.75) 3HAC 8114-5 . . . . . . . . . .190
5.1.11 Material set manipulator, 3HAC 13263-1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .194
5.1.12 Mtrl.set ax 1-2, 3HAC 13264-1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .195
5.1.13 Mtrl set balancing device, 3HAC 13265-1. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .198
5.1.14 Arm extension set, 250 mm, 3HAC 12311-4. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .199
5.1.15 Arm extension set, 450 mm, 3HAC 12311-5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .199
Chapter 6: Appendix 2: Foldouts
201
6.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .201
6.0.2 Base incl. Frame. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .203
6.0.3 Frame-Lower arm 1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .205
6.0.4 Frame-Lower arm 2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .207
6.0.5 Upper arm. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .209
6.0.6 Wrist complete . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .211
3HAC 16247-1
iii
Table of Contents
iv
3HAC 16247-1
0.0.1 Overview
0.0.1 Overview
About This
Manual
This information product is a manual containing instructions for repairing the complete robot
system, mechanically as well as electrically.
Usage
This manual should be used during repair work.
Who Should Read
This Manual?
This manual is intended for:
Prerequisites
Organization of
Chapters
•
repair personnel in the user's organization.
•
repair personnel in other organizations.
The reader should...
•
be a trained repair craftsman
•
have the required knowledge of mechanical repair work OR
•
have the required knowledge of electrical repair work.
The information product is organized in the following chapters:
Chapter
Contents
1
Safety
2
Reference information
3
Manipulator
4
Controller
6
Appendix
References
Reference
Document Id
Circuit Diagrams, Manipulator
3HAC 13347-1
Circuit Diagrams, Controller
3HAC 14189-2
Revisions
Revision
Description
0
First edition
A
3HAC 16247-1
•
Various corrections in text and in figures due to reconstructions, new spare part numbers, new tools, etc.
•
Manual completed with references to pagenumbers and numbering of sections (manipulator sections).
•
Manual completed with version IRB 6650.
A
1
0.0.1 Overview
2
A
3HAC 16247-1
0.0.2 Product Documentation
0.0.2 Product Documentation
General
The complete product documentation kit for the robot, including controller, manipulator and
any hardware option, consists of the manuals listed below:
Installation and
Commissioning
Manual
The Installation and Commissioning Manual contains the following information:
Repair Manual
Maintenance
Manual
•
Safety, Service
•
Reference Information
•
Unpacking
•
On-site Installation
•
Electrical connections
•
Start-up
•
Installation of controller software
•
System directory structure
•
Calibration
•
If there is any, model specific information
The Repair Manual contains the following information:
•
Safety, Service
•
Reference Information
•
Remove/Refitting instructions for all manipulator details considered spare parts
•
Remove/Refitting instructions for all controller cabinet details considered spare parts
•
If there is any, model specific information
The Maintenance Manual contains the following information:
•
Safety, Service
•
Reference Information
•
Maintenance schedules
•
Instructions for all maintenance activities specified in the maintenance schedule, for
example cleaning, lubrication, inspection etc.
•
If there is any, model specific information
The information is generally divided into separate chapters for the manipulator and the controller, respectively.
Software manuals
The software documentation consists of a wide range of manuals, ranging from manuals for
basic understanding of the operating system to manuals for entering parameters during operation.
A complete listing of all available software manuals is available from ABB Robotics.
3HAC 16247-1
A
3
0.0.2 Product Documentation
Hardware option
manual
Each hardware option is supplied with its own documentation. Each document set contains
the types of information specified above:
•
Installation information
•
Repair information
•
Maintenance information
In addition, spare part information is supplied for the complete option.
4
A
3HAC 16247-1
1 Safety, service
1.0.1 Introduction
Chapter 1: Safety, service
1.0.1 Introduction
Definitions
This chapter details safety information for service personnel i.e. personnel performing installation, repair and maintenance work.
Sections
The chapter "Safety, service" is divided into the following sections:
1. General information contains lists of:
• Safety, service -general
• Limitation of liability
• Referenced documents
2. Safety risks lists dangers relevant when servicing the robot system. The dangers are split into different categories:
• Safety risks related to gripper/end effector
• Safety risks related to tools/workpieces
• Safety risks related to pneumatic/hydraulic systems
• Safety risks during operational disturbances
• Safety risks during installation and service
• Risks associated with live electric parts
3. Safety actions details actions which may be taken to remedy or avoid dangers.
• Safety fence dimensions
• Fire extinguishing
• Emergency release of the manipulator´s arm
• Brake testing
• Risk of disabling function "Reduced speed 250 mm/s"
• Safe use of the Teach Pendant Unit enabling device
• Work inside the manipulator´s working range
3HAC 16247-1
A
5
1 Safety, service
1.1.1 Safety, service - General
Section 1.1: General information
1.1.1 Safety, service - General
Validity and
responsibility
The information does not cover how to design, install and operate a complete system, nor
does it cover all peripheral equipment, which can influence the safety of the total system. To
protect personnel, the complete system must be designed and installed in accordance with the
safety requirements set forth in the standards and regulations of the country where the robot
is installed.
The users of ABB industrial robots are responsible for ensuring that the applicable safety laws
and regulations in the country concerned are observed and that the safety devices necessary
to protect people working with the robot system have been designed and installed correctly.
Personnel working with robots must be familiar with the operation and handling of the industrial robot, described in the applicable documents, e.g. User’s Guide and Product Manual.
Connection of
external safety
devices
Apart from the built-in safety functions, the robot is also supplied with an interface for the
connection of external safety devices. Via this interface, an external safety function can interact with other machines and peripheral equipment. This means that control signals can act on
safety signals received from the peripheral equipment as well as from the robot.
In the Product Manual - Installation and Commissioning, instructions are provided for connecting safety devices between the robot and the peripheral equipment.
1.1.2 Limitation of Liability
General
Any information given in this information product regarding safety, must not be construed as
a warranty by ABB Robotics that the industrial robot will not cause injury or damage even if
all safety instructions have been complied with.
1.1.3 Related information
General
The list below specifies documents which contain useful information:
Documents
6
Type of information
Detailed in document
Installation of safety devices
Installation and Commissioning
Manual
Changing robot modes
User’s Guide
Start-up
Restricting the working space
Installation and Commissioning
Manual
On-site installation Manipulator
A
Section
3HAC 16247-1
1 Safety, service
1.2.1 Safety risks related to gripper
Section 1.2: Safety risks
1.2.1 Safety risks related to gripper
Ensure that a gripper is prevented from dropping a workpiece, if such is used.
1.2.2 Safety risks related to tools/workpieces
Safe handling
It must be possible to turn off tools, such as milling cutters, etc., safely. Make sure that guards
remain closed until the cutters stop rotating.
It should be possible to release parts by manual operation (valves).
Safe design
Grippers/end effectors must be designed so that they retain workpieces in the event of a power
failure or a disturbance of the controller.
1.2.3 Safety risks related to pneumatic/hydraulic systems
General
Residual energy
Safe design
Special safety regulations apply to pneumatic and hydraulic systems.
•
Residual energy may be present in these systems so, after shutdown, particular care
must be taken.
•
The pressure in pneumatic and hydraulic systems must be released before starting to
repair them.
•
Gravity may cause any parts or objects held by these systems to drop.
•
Dump valves should be used in case of emergency.
•
Shot bolts should be used to prevent tools, etc., from falling due to gravity.
1.2.4 Safety risks during operational disturbances
General
Qualified personnel
Extraordinary
risks
3HAC 16247-1
•
The industrial robot is a flexible tool which can be used in many different industrial
applications.
•
All work must be carried out professionally and in accordance with the applicable
safety regulations.
•
Care must be taken at all times.
•
Remedial action must only be carried out by qualified personnel who are familiar with
the entire installation as well as the special risks associated with its different parts.
If the working process is interrupted, extra care must be taken due to risks other than those
associated with regular operation. Such an interruption may have to be rectified manually.
A
7
1 Safety, service
1.2.5 Safety risks during installation and service
1.2.5 Safety risks during installation and service
General risks during installation
and service
Nation/region
specific regulations
Non-voltage
related risks
To be observed
by the supplier of
the complete system
•
The instructions in the Product Manual - Installation and Commissioning must always
be followed.
•
Emergency stop buttons must be positioned in easily accessible places so that the
robot can be stopped quickly.
•
Those in charge of operations must make sure that safety instructions are available
for the installation in question.
•
Those who install the robot must have the appropriate training for the robot system in
question and in any safety matters associated with it.
To prevent injuries and damage during the installation of the robot system, the regulations
applicable in the country concerned and the instructions of ABB Robotics must be complied
with.
•
Safety zones, which have to be crossed before admittance, must be set up in front of
the robot's working space. Light beams or sensitive mats are suitable devices.
•
Turntables or the like should be used to keep the operator out of the robot's working
space.
•
The axes are affected by the force of gravity when the brakes are released. In addition
to the risk of being hit by moving robot parts, you run the risk of being crushed by the
tie rod.
•
Energy, stored in the robot for the purpose of counterbalancing certain axes, may be
released if the robot, or parts thereof, is dismantled.
•
When dismantling/assembling mechanical units, watch out for falling objects.
•
Be aware of stored heat energy in the controller.
•
Never use the robot as a ladder, i.e. do not climb on the robot motors or other parts
during service work. There is a serious risk of slipping because of the high temperature of the motors or oil spills that can occur on the robot.
•
The supplier of the complete system must ensure that all circuits used in the safety
function are interlocked in accordance with the applicable standards for that function.
•
The supplier of the complete system must ensure that all circuits used in the emergency stop function are interlocked in a safe manner, in accordance with the applicable standards for the emergency stop function.
1.2.6 Risks associated with live electric parts
Voltage related
risks, general
Voltage related
risks, controller
8
•
Although troubleshooting may, on occasion, have to be carried out while the power
supply is turned on, the robot must be turned off (by setting the mains switch to OFF)
when repairing faults, disconnecting electric leads and disconnecting or connecting
units.
•
The mains supply to the robot must be connected in such a way that it can be turned
off outside the robot’s working space.
A danger of high voltage is associated with the following parts:
•
Be aware of stored electrical energy (DC link) in the controller.
A
3HAC 16247-1
1 Safety, service
1.2.6 Risks associated with live electric parts
•
Units inside the controller, e.g. I/O modules, can be supplied with power from an external source.
•
The mains supply/mains switch
•
The power unit
•
The power supply unit for the computer system (230 VAC)
•
The rectifier unit (400-480 VAC and 700 VDC. Note: Capacitors!)
•
The drive unit (700 VDC)
•
The service outlets (115/230 VAC)
•
The power supply unit for tools, or special power supply units for the machining process
•
The external voltage connected to the control cabinet remains live even when the
robot is disconnected from the mains.
•
Additional connections
Voltage related
risks, manipulator
A danger of high voltage is associated with the manipulator in:
Voltage related
risks, tools, material handling
devices, etc
Tools, material handling devices, etc., may be live even if the robot system is in the OFF
position. Power supply cables which are in motion during the working process may be damaged.
3HAC 16247-1
•
The power supply for the motors (up to 800 VDC)
•
The user connections for tools or other parts of the installation (max. 230 VAC, see
Installation and Commissioning Manual)
A
9
1 Safety, service
1.3.1 Safety fence dimensions
Section 1.3: Safety actions
1.3.1 Safety fence dimensions
General
Fit a safety fence or enclosure around the robot to ensure a safe robot installation.
Dimensioning
Dimension the fence or enclosure to enable it to withstand the force created if the load being
handled by the robot is dropped or released at maximum speed. Determine the maximum
speed from the maximum velocities of the robot axes and from the position at which the robot
is working in the work cell (see Product Specification - Description, Robot Motion).
Also consider the maximum possible impact caused by a breaking or malfunctioning rotating
tool or other device fitted to the manipulator.
1.3.2 Fire extinguishing
Use a CARBON DIOXIDE (CO 2 ) extinguisher in the event of a fire in the robot (manipulator
or controller)!
1.3.3 Emergency release of the manipulator’s arm
Description
In an emergency situation, any of the manipulator’s axes may be released manually by pushing the brake release buttons on the manipulator or on an optional external brake release unit.
How to release the brakes is detailed in section "Manually releasing the brakes".
The manipulator arm may be moved manually on smaller robot models, but larger models
may require using an overhead crane or similar.
Increased injury
Before releasing the brakes, make sure that the weight of the arms does not increase the
pressure on the trapped person, which may further increase any injury!
1.3.4 Brake testing
When to test
During operation the holding brakes of each axis motor wear normally. A test may be performed to determine whether the brake can still perform its function.
How to test
The function of each axis’ motor holding brakes may be checked as detailed below:
1. Run each manipulator axis to a position where the combined weight of the manipulator arm and any load is maximized (max. static load).
2. Switch the motor to the MOTORS OFF position with the Operating mode selector
on the controller.
3. Check that the axis maintains its position.
If the manipulator does not change position as the motors are switched off, then the brake
function is adequate.
10
A
3HAC 16247-1
1 Safety, service
1.3.5 Risk of disabling function "Reduced speed 250 mm/s"
1.3.5 Risk of disabling function "Reduced speed 250 mm/s"
Do not change "Transm gear ratio" or other kinematic parameters from the Teach Pendant Unit
or a PC. This will affect the safety function Reduced speed 250 mm/s.
1.3.6 Safe use of the Teach Pendant Unit
The enabling device is a push button located on the side of the Teach Pendant Unit (TPU)
which, when pressed halfway in, takes the system to MOTORS ON. When the enabling device
is released or pushed all the way in, the robot is taken to the MOTORS OFF state.
To ensure safe use of the Teach Pendant Unit, the following must be implemented:
The enabling device must never be rendered inoperative in any way.
During programming and testing, the enabling device must be released as soon as there is no
need for the robot to move.
The programmer must always bring the Teach Pendant Unit with him/her, when entering the
robot’s working space. This is to prevent anyone else taking control over the robot without the
programmer knowing.
1.3.7 Work inside the manipulator’s working range
If work must be carried out within the robot’s work envelope, the following points must be
observed:
- The operating mode selector on the controller must be in the manual mode position to render
the enabling device operative and to block operation from a computer link or remote control
panel.
- The robot’s speed is limited to max. 250 mm/s when the operating mode selector is in position
< 250 mm/s. This should be the normal position when entering the working space. The position
100% ”full speed”may only be used by trained personnel who are aware of the risks that this
entails.
- Pay attention to the rotating axes of the manipulator! Keep a distance to the axes in order not
to get entangled with hair or clothing. Also be aware of any danger that may be caused by
rotating tools or other devices mounted on the manipulator or inside the cell.
- Test the motor brake on each axis, according to section Brake testing on page 10.
3HAC 16247-1
A
11
1 Safety, service
1.3.7 Work inside the manipulator’s working range
12
A
3HAC 16247-1
2 Reference information
2.0.1 Introduction
Chapter 2: Reference information
2.0.1 Introduction
General
3HAC 16247-1
This chapter presents generic pieces of information, complementing the more specific information in the following chapters.
A
13
2 Reference information
2.1.1 Applicable Safety Standards
Section 2.1: Reference information
2.1.1 Applicable Safety Standards
Standards, general
Standards, robot
cell
14
The robot is designed in accordance with the requirements of:
•
EN 775 - Robot safety.
•
EN 292-1 - Basic terminology.
•
EN 292-2 - Technical principles.
•
EN 418 - Emergency stop.
•
EN 563 - Temperatures of surfaces.
•
EN 954-1 - Safety related parts of control systems.
•
EN 60204-1 - Electrical equipment of machines.
•
EN 1050 - Principles for risk assessment.
•
ANSI/RIA 15.06-1999 - Industrial robots, safety requirements.
•
DIN 19258 - Interbus-S, International Standard
The following standards are applicable when the robot is part of a robot cell:
•
EN 953 - Fixed and moveable guards
•
EN 811 - Safety distances to prevent danger zones being reached by the lower limbs.
•
EN 349 - Minimum gaps to avoid crushing of parts of the human body.
•
EN 294 - Safety distances to prevent danger zones being reached by the upper limbs.
•
EN 1088 - Interlocking devices
•
EN 999 - The positioning of protective equipment in respect of approach speeds of the
human body.
•
ISO 11 161 - Industrial automation systems - Safety of intergrated manufacturing systems.
A
3HAC 16247-1
2 Reference information
2.1.2 Screw joints
2.1.2 Screw joints
General
This section details how to tighten the various types of screw joints on the manipulator as well
as the controller.
The instructions and torque values are valid for screw joints comprising metallic materials
and do not apply to soft or brittle materials.
Any instructions given in the repair, maintenance or installation procedure description override any value or procedure given here, i.e. these instruction are only valid for standard type
screw joints.
UNBRAKO
screws
UNBRAKO is a special type of screw recommended by ABB in certain screw joints. It features special surface treatment (Gleitmo as described below), and is extremely resistant to
fatigue.
Whenever used, this is specified in the instructions and in such cases no other type of replacement screw is allowed. Using other types of screw will void any warranty and may potentially
cause serious damage or injury!
Gleitmo treated
screws
Gleitmo is a special surface treatment to reduce the friction when tightening the screw joint.
Screws treated with Gleitmo may be reused 3-4 times before the coating disappears. After this
the screw must be discarded and replaced with a new one.
When handling screws treated with Gleitmo, protective gloves of nitrile rubber type should
be used.
Screws lubricated
in other ways
Screws lubricated with Molycote 1000 (or another lubricant) should only be used when specified in the repair, maintenance or installation procedure descriptions.
In such cases, proceed as follows:
1. Lubricate the thread of the screw.
2. Lubricate between the plain washer and screw head.
3. Tighten to the torque specified in section "Tightening torque" below. Screw dimensions
of M8 or larger must be tightened with a torque wrench. Screw dimensions of M6 or
smaller may be tightened without a torque wrench if this is done by trained and qualified personnel.
3HAC 16247-1
Lubricant
Art. no.
Molycote 1000 (molybdenum disulphide grease)
1171 2016-618
A
15
2 Reference information
2.1.2 Screw joints
Tightening torque
Screws with slotted or cross
recess head
Below are tables specifying the torque values for different screw joint types:
Dimension
Tightening torque (Nm)
Class 4.8 "dry"
M2.5
0.25
M3
0.5
M4
1.2
M5
2.5
M6
5.0
Dimension
Tightening torque
(Nm)
Class 8.8 "dry"
Tightening torque
(Nm)
Class 10.9 "dry"
Tightening torque
(Nm)
Class 12.9 "dry"
M5
6
-
-
M6
10
-
-
M8
24
34
40
M10
47
67
80
M12
82
115
140
M16
200
290
340
Dimension
Tightening torque (Nm)
Class 10.9
Tightening torque (Nm)
Class 12.9
M8
28
34
M10
55
66
M12
96
115
M16
235
280
Screws with
hexagon socket
head, “dry”
Screws with
hexagon socket
head, lubricated
16
A
3HAC 16247-1
2 Reference information
2.1.3 Weight specifications
2.1.3 Weight specifications
Definition
In all repair and maintenance instructions, weights of the components handled are sometimes
specified. All components exceeding 22 kg (50 lbs) are high-lighted in this way.
ABB recommends the use of lifting equipment when handling components with a weight
exceeding 22 kg to avoid inflicting injury. A wide range of lifting tools and devices is available for each manipulator model.
Example
Below is an example of how a weight specification is presented:
The motor weighs 65 kg! All lifting equipment used must be dimensioned accordingly!
3HAC 16247-1
A
17
2 Reference information
2.1.4 Standard toolkit
2.1.4 Standard toolkit
General
All service (repairs, maintenance and installation) instructions contain lists of tools required
to perform the specified activity.
All special tools required are listed directly in the instructions while all the tools that are
considered standard are gathered in the Standard toolkit and defined in the table below.
In this way, the tools required are the sum of the Standard Toolkit and any tools listed in the
instruction.
Contents,
standard toolkit,
3HAC 15571-1
18
Qty
Art. no.
Tool
Rem.
1
-
Ring-open-end spanner 8-19mm
1
-
Socket head cap 5-17mm
1
-
Torx socket no:20-60
1
-
Box spanner set
1
-
Torque wrench 10-100Nm
1
-
Torque wrench 75-400Nm
1
-
Ratchet head for torque wrench 1/2
2
-
Hexagon-headed screw M10x100
1
-
Socket head cap no:14, socket 40mm bit L 100mm
1
-
Socket head cap no:14, socket 40mm bit L 20mm To be shorted to
12mm
1
-
Socket head cap no:6, socket 40mm bit L 145mm
A
3HAC 16247-1
2 Reference information
2.1.5 Special tools, IRB 6600/6650/7600
2.1.5 Special tools, IRB 6600/6650/7600
General
All service (repairs, maintenance and installation) instructions contain lists of tools required
to perform the specified activity. The required tools are a sum of standard tools, defined in
section Standard toolkit on page 18, and of special tools, listed directly in the instructions and
also gathered in the table below.
Special tools, IRB
6600/6650/7600
The table below is an overview of all the special tools required when performing service
activities on the IRB 6600/6650/7600. The tools are gathered in two kits: Basic Toolkit
(3HAC 15571-3) and Extended Toolkit (3HAC 15571-2).
The special tools are also listed directly in the current instructions.
3HAC 16247-1
Description
IRB 66X0/ IRB 7600/
Art. no.
Qty
Qty
Angel bracket
a
a
68080011-LP
Bolts (M16 x 60) for Mech stop axis 3
2
-
3HAB 3409-86
Bolts (M16 x 80) for Mech stop axis 3
-
2
3HAB 3409-89
Cal. tool
a
a
68080011-GM
Calibration bracket
a
-
3HAC 13908-9
Calibration tool ax1
a
a
3HAC 13908-4
CalPen (Calibration Pendulum)
1
1
3HAC 15716-1
Extension 300mm for bits 1/2"
1
1
3HAC 12342-1
Fixture lower arm
1
-
3HAC 13659-1
Fixture lower arm
-
1
3HAC 13660-1
Gearbox crank
1
-
3HAC 16488-1
Guide pins M12 x 150
2
-
3HAC 13056-2
Guide pins M12 x 200
2
-
3HAC 13056-3
Guide pins M12 x 250
1
-
3HAC 13056-4
Guide pins M8 x 100
2
-
3HAC 15520-1
Guide pins M8 x 150
2
-
3HAC 15520-2
Guide pins sealing
-
b
3HAC 14445-1
Guide pins sealing
b
-
3HAC 14446-1
Guide pins M10 x 100
2
2
3HAC 15521-1
Guide pins M10 x 150
2
2
3HAC 15521-2
Guide pins M16 x 150
-
2
3HAC 13120-2
Guide pins M16 x 200
-
2
3HAC 13120-3
Guide pins M16 x 250
-
1
3HAC 13120-4
Guide pins M16 x 300
2
2
3HAC 13120-5
Guide pins sealing ax 2, 3, 100mm
1
-
3HAC 14628-2
Guide pins sealing ax 2, 3, 80mm
1
-
3HAC 14628-1
Guide pins sealing ax 2, 3, 100mm
-
1
3HAC 14627-3
Guide pins sealing ax 2, 3, 80mm
-
1
3HAC 14627-2
Hydraulic cylinder
1
1
3HAC 11731-1
A
19
2 Reference information
2.1.5 Special tools, IRB 6600/6650/7600
Description
IRB 66X0/ IRB 7600/
Art. no.
Qty
Qty
Hydraulic pump 80Mpa
1
1
3HAC 13086-1
Hydraulic pump 80Mpa (Glycerin)
b
b
3HAC 13086-2
Levelmeter 2000 kit
a
a
6369901-348
Lifting device, base
1
1
3HAC 15560-1
Lifting device, manipulator
1
1
3HAC 15607-1
Lifting device, upper arm
1
-
3HAC 15994-1
Lifting device, upper arm
-
1
3HAC 15536-1
Lifting eye VLBG M12
1
1
3HAC 16131-1
Lifting eye M12
2
2
3HAC 14457-3
Lifting eye M16
2
2
3HAC 14457-4
Lifting tool (chain)
1
1
3HAC 15556-1
Lifting tool, gearbox ax 2
1
-
3HAC 13698-1
Lifting tool, gearbox ax 2
-
1
3HAC 12731-1
Lifting tool, lower arm
b
b
3HAC 14691-1
Lifting tool, motor ax 1, 4, 5
1
1
3HAC 14459-1
Lifting tool, motor ax 2, 3, 4
1
1
3HAC 15534-1
Lifting tool, wrist unit
1
-
3HAC 13605-1
Lifting tool, wrist unit
-
1
3HAC 12734-1
Measuring pin
a
-
3HAC 13908-5
Mech stop ax 3
2
-
3HAC 12708-1
Mech stop ax 3
-
2
3HAC 12708-2
Press tool, ax 2 bearing
1
-
3HAC 13527-1
Press tool, ax 2 bearing
-
1
3HAC 13453-1
Press tool, ax 2 shaft
1
1
3HAC 13452-1
Press tool, balancing device shaft
1
1
3HAC 17129-1
Press tool, balancing device
1
1
3HAC 15767-1
Puller tool, balancing device shaft
1
1
3HAC 12475-1
Removal tool, wheel unit
-
1
3HAC 15814-1
Removal tool, motor M10x
2
2
3HAC 14972-1
Removal tool, motor M12x
2
2
3HAC 14631-1
Removal tool, motor M12x
2
2
3HAC 14973-1
Rotation tool
1
1
3HAC 17105-1
Sensor plate
a
1
3HAC 0392-1
Support, base
1
1
3HAC 15535-1
Sync. adapter
a
a
3HAC 13908-1
Tool set balancing device
1
-
3HAC 15943-2
Tool set balancing device
-
1
3HAC 15943-1
Turn disk fixture
a
a
3HAC 68080011-GU
Washers for Mech stop axis 3
2
2
3HAA 1001-186
Note a) Calibration tools for IRB 6600/6650/7600 when CalPen is not used (standard).
Note b) Special tools that may be rent from ATRP/S.
20
A
3HAC 16247-1
2 Reference information
2.1.6 Performing a leak-down test
2.1.6 Performing a leak-down test
General
After refitting any motor and any gearbox, the integrity of all seals enclosing the gearbox oil
must be tested. This is done in a leak-down test.
Required equipment
Equipment, etc.
Spare part no. Art. no.
Leakdown tester
Note
3HAC 0207-1
Leak detection spray
Procedure
Step
3HAC 16247-1
Action
Note/Illustration
1.
Finish the refitting procedure of the motor or
gear in question.
2.
Remove the topmost oil plug on the gear in Art. no. specified above!
question, and replace it with the leakdown
tester .
Adapters may be required, which are
included in the leakdown tester kit.
3.
Apply compressed air, and raise the pres- Recommended value: 0.2 - 0.25 bar
sure with the knob until the correct value is (20 - 25 kPa)
shown on the manometer.
4.
Disconnect the compressed air supply.
5.
Wait for approx. 8-10 minutes. No pressure If the compressed air is significantly
loss must be detected.
colder or warmer than the gearbox to
be tested, a slight pressure increase or
decrease respectively may occur. This
is quite normal.
6.
Was any pressure drop evident?
Localize the leak as detailed below.
Remove the leakdown tester, and refit the
oil plug. The test is complete.
7.
Spray suspected leak areas with leak
detection spray .
Bubbles indicate a leak.
8.
When the leak has been localized: take the
necessary measures to correct the leak.
A
Art. no. specified above!
21
2 Reference information
2.1.7 Lifting equipment and lifting instructions
2.1.7 Lifting equipment and lifting instructions
General
Many repair and maintenance activities require different pieces of lifting equipment, which
are specified in each activity instruction.
However, how to use each piece of lifting equipment is not detailed in the activity instruction,
but in the instruction delivered with each piece of lifting equipment.
This implies that the instructions delivered with the lifting equipment should be stored for
later reference.
22
A
3HAC 16247-1
3 Repair activities, manipulator
3.0.1 Introduction
Chapter 3: Repair activities, manipulator
3.0.1 Introduction
Definitions
This chapter details all repair activities recommended for the manipulator, including for any
external units of the manipulator.
It is made up of separate units, each detailing a specific repair activity, e.g. Removal or Refitting of a certain component on the manipulator. Each unit contains all information required
to perform the activity, e.g. spare parts numbers, required special tools and materials.
The chapter is divided into:
3HAC 16247-1
•
Removal/refitting instructions for all the spare parts on the manipulator
•
Remaining instructions for all the spare parts in e.g. the manipulators external units, if
any.
A
23
3 Repair activities, manipulator
3.1.1 Removal of cable harness
Section 3.1: Complete manipulator
3.1.1 Removal of cable harness
Location complete cable harness
The cable harness is located throughout the manipulator as shown in the figure below.
E
H
J
G
F
O
C
B
K
A
D
L
M
N
xx0200000210
24
A
Connector at manipulator base, R1.MP and R1.SMB
B
Connectors at motor 1; R2.FB1 and R2.MP1
C
Connectors at motor 2; R2.FB2 and R2.MP2
D
Connectors at serial measurement board; R1.SMB1-3, R1.SMB4-6, R1.SMB1.7,
R2.FB7 and R2.SMB. Battery connector X3 R1.G and R2.G. Connectors at brake
release unit X8, X9 and X10.
E
Connectors at motor 3; R2.FB3 and R2.MP3 and for signal lamp R2.H1 and R2.H2
F
Connectors at motor 4; R2.FB4 and R2.MP4
G
Connectors at cable harness separation; R2.M5/6
H
Connectors at cable harness division, inside of upper arm tube; R3.FB5 and R3.MP5.
Connectors at motor 5; R4.FB5 and R4.MP5.
J
Connectors at motor 6; R3.FB6 and R3.MP6
K
Rear cover plate
L
Connector R1.MP
M
Connector R1.SMB
N
Connection of earth cable
O
Velcro strap that secures the cable harness to the arm house
A
3HAC 16247-1
3 Repair activities, manipulator
3.1.1 Removal of cable harness
Required equipment
Equipment, etc.
Spare part no. Art. no.
Circuit Diagram
3HAC 13347-1 Included in Repair Manual, part
2.
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to
these procedures in the
step-by-step instructions below.
Removal, cable
harness, axes 1-4
Note
These procedures include references to the tools required.
The procedure below details how to remove the cable harness, axes 1-4.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
The cable harnesses are sensitive to mechanical damage! They must be handled with care,
especially the connectors, in order to avoid damaging them!
Step
1.
3HAC 16247-1
Action
Note/Illustration
In order to facilitate refitting of cable harness, Axes 2 and 3 may be tilted slightly to
run the manipulator to the specified position: improve access.
• Axis 1: 0 °
•
Axis 2: 0 °
•
Axis 3: 0 °
•
Axis 4: 0 °
•
Axis 5: +90 °
•
Axis 6: no significance
2.
Remove the rear cover plate on the manipulator by unscrewing its attachment screws.
3.
Disconnect the earth cable.
4.
Disconnect connectors R1.MP and R1.SMB.
5.
Pull the cable and connectors up through the
center of the frame.
6.
Disconnect all connectors at motor 1 and
motor 2.
A
Shown in the figure Location complete cable harness on page 24!
Specified in the figure Location complete cable harness on page 24!
25
3 Repair activities, manipulator
3.1.1 Removal of cable harness
Step
Action
Note/Illustration
7.
Open the SMB cover carefully.
The cable between the battery and the SMBunit may stay connected, in order to avoid
recalibration of the robot. Be careful not to let
the weight of the cover strain the cable!
In order to remove the cover completely, the
connector R1.G must be disconnected! This
causes a necessary recalibration of the
robot!
8.
Disconnect connectors R2.SMB, R1.SMB13, R1.SMB4-6. Disconnect X8, X9 and X10.
R 2.S MB
R 1.S MB1-3
R 1.S MB4-6
R 1.G
X8, X9, X10
R 2.G
xx0200000118.wmf
9.
Unscrew the four screws securing the cable
gland.
This releases the cable harness from
the frame.
10. Remove the adapter plate from the harness
by removing its two attachment screws and
the velcro strap.
Note! Different manipulator versions
are fitted with different plate versions.
Make sure the correct one is used to
avoid cable failure.
11. Remove the bracket securing the cables
inside the lower arm by unscrewing the nuts
from the stud bolts securing the clamp to the
lower arm.
FB3 FB4
FB5 FB6
MP3
MP4
MP5
MP6
xx0100000142.wmf
12. Remove the upper bracket securing the
cables to the arm house by unscrewing its
two attachment screws.
MP6
MP3
FB6
FB5
MP5
MP
FB3
FB4
xx0100000143.wmf
13. Disconnect connector R2.M5/6 at the rear
cable division point.
Shown in the figure Location complete cable harness on page 24!
14. Disconnect all connectors at motor 3 and
motor 4.
Specified in the figure Location complete cable harness on page 24!
15. Gently pull the cable harness out.
26
A
3HAC 16247-1
3 Repair activities, manipulator
3.1.1 Removal of cable harness
Location of cable
harness ax 5-6
The location of the cable harness, axes 5-6, is shown in the figure below.
B
A
F
G
H
C
D
xx0200000213
3HAC 16247-1
A
Cable bracket, wrist unit
B
Cable bracket, upper arm tube
C
Connectors at motor axis 5; R4.FB5 and R4.MP5
D
Connectors in upper arm tube; R3.FB5 and R3.MP5
F
Cable attachment, rear
G
Connectors at cable harness division point; R2.M5/6
H
Connectors at motor, axis 6; R3.FB6 and R3.MP6
A
27
3 Repair activities, manipulator
3.1.1 Removal of cable harness
Removal, cable
harness, axes 5-6
The procedure below details how to remove the upper cable harness. The separate cable that
goes from the connection point inside of the upper arm tube to the motor, axis 5, is not
included in this procedure. The removal of that cable is described further down in section
Removal, cable harness, axis 5 on page 29.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
The cable harnesses are sensitive to mechanical damage! They must be handled with care,
especially the connectors, in order to avoid damaging them!
Axis 5 must be oriented in the correct position (+90 °) to allow opening the motor 6 cover!
Step
1.
Action
Note/Illustration
Remove the cover, wrist unit and the cover,
upper arm tube.
A
B
xx0200000214
•
A: cover, wrist unit
•
B: cover, upper arm tube
2.
Remove the cover of motor, axis 6 and dis- Specified in the figure Location of cable
connect all connectors beneath.
harness ax 5-6 on page 27!
3.
Loosen the cable bracket on top of the
Shown in the figure Location of cable
wrist unit by unscrewing the three attach- harness ax 5-6 on page 27!
ment screws.
Two of the attachment screws are located C
visible at the rear attachment and the third
B
is located at the bottom of the cable
bracket, in the center.
xx0200000254
28
•
B: Attachment screws, rear of
cable bracket, 2 pcs
•
C: Attachment screw, bottom of
cable bracket, 1 pc
4.
Pick out the cabling from motor, axis 6.
5.
Loosen the cable bracket in the upper arm Shown in the figure Location of cable
tube by unscrewing the two screws on top harness ax 5-6 on page 27!
of the tube.
6.
Disconnect the two connectors (R3.FB5
and R3.MP5) in the tube.
7.
Remove eventual cable straps from the
harness.
A
Shown in the figure Location of cable
harness ax 5-6 on page 27!
3HAC 16247-1
3 Repair activities, manipulator
3.1.1 Removal of cable harness
Step
Action
Note/Illustration
8.
Remove the cable attachment, rear.
Shown in the figure Location of cable
harness ax 5-6 on page 27!
9.
Disconnect connectors R2.M5/6 at the
cable harness division point.
Shown in the figure Location of cable
harness ax 5-6 on page 27!
10. Gently pull the cable harness out.
Removal, cable
harness, axis 5
The procedure below details how to remove the cable, axis 5.
Step
3HAC 16247-1
Action
Note/Illustration
1.
Remove the complete wrist unit.
Detailed in Removal of complete
wrist unit on page 47.
2.
Remove the cover of motor, axis 5.
3.
Disconnect all connectors at motor, axis 5.
4.
Remove the cable gland cover at the cable exit
by unscrewing its two attachment screws.
5.
Remove the cable, axis 5.
A
29
3 Repair activities, manipulator
3.1.2 Refitting of cable harness
3.1.2 Refitting of cable harness
Location of cable
harness
The cable harness is located throughout the manipulator as shown in the figure below.
E
H
J
G
F
O
C
B
K
A
D
L
M
N
xx0200000210
30
A
Connector at manipulator base, R1.MP and R1.SMB
B
Connectors at motor 1; R2.FB1 and R2.MP1
C
Connectors at motor 2; R2.FB2 and R2.MP2
D
Connectors at serial measurement board; R1.SMB1-3, R1.SMB4-6, R1.SMB1.7,
R2.FB7 and R2.SMB. Battery connector X3 R1.G and R2.G. Brake release unit connectors X8, X9 and X10
E
Connectors at motor 3; R2.FB3 and R2.MP3 and for signal lamp R2.H1 and R2.H2
F
Connectors at motor 4; R2.FB4 and R2.MP4
G
Connectors at cable harness separation; R2.M5/6
H
Connectors at cable harness division, inside of upper arm tube; R3.FB5 and R3.MP5.
Connectors at motor 5; R4.FB5 and R4.MP5.
J
Connectors at motor 6; R3.FB6 and R3.MP6
K
Rear cover plate
L
Connector R1.MP
M
Connector R1.SMB
N
Connection of earth cable
O
Velcro strap that secures the cable harness to the arm house
A
3HAC 16247-1
3 Repair activities, manipulator
3.1.2 Refitting of cable harness
Required equipment
Equipment, etc.
Spare part no. Art. no.
Note
Cable harness, axes 1-4
3HAC 14940-1
IRB 6600
Cable harness, axes 1-4
3HAC 16331-1
IRB 6650
Cable harness, axes 5-6
3HAC 14140-1
Cable harness, axis 5
3HAC 14139-1
Circuit Diagram
3HAC 13347-1
Included in the Repair
Manual, part 2.
Standard toolkit
3HAC 15571-1
The contents are defined
in section Standard toolkit
on page 18!
Other tools and procedures
may be required. See references to these procedures
in the step-by-step instructions below.
Refitting, cable
harness, axes 1-4
These procedures include
references to the tools
required.
The procedure below details how to refit the cable harness, axes 1-4.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
The cable harnesses are sensitive to mechanical damage! They must be handled with care,
especially the connectors, in order to avoid damaging them!
Step
1.
3HAC 16247-1
Action
Note/Illustration
In order to facilitate refitting of cable harness, Axes 2 and 3 may be tilted slightly to
run the manipulator to the specified position: improve access.
• Axis 1: 0 degrees
•
Axis 2: 0 degrees
•
Axis 3: 0 degrees
•
Axis 4: 0 degrees
•
Axis 5: +90 degrees
•
Axis 6: no significance
2.
Pull the cable and connectors down through Make sure the cables are not twisted
the center of the frame.
with each other or with eventual customer harnesses!
Make a note of the correct positions
of the connectors!
3.
Reconnect connectors R1.MP and R1.SMB
at the rear cover plate.
Make a note of the correct positions
of the connectors!
4.
Reconnect the earth cable.
Shown in the figure Location of cable
harness on page 30!
A
31
3 Repair activities, manipulator
3.1.2 Refitting of cable harness
Step
Action
Note/Illustration
5.
Refit the rear cover plate on the manipulator
with its attachment screws.
6.
Reconnect all connectors at motor 1 and
motor 2.
7.
Secure the gland plate with four attachment
screws from inside the SMB recess.
Specified in the figure Location of
cable harness on page 30!
MP2 MP1
MP4
SMB
MP3
MP5 MP6
xx0100000141
8.
Reconnect connectors R2.SMB, R1.SMB13, R1.SMB4-6. Reconnect X8, X9 and X10.
Reconnect R1.G if it has been disconnected.
X8, X9, X10
R2.S MB
R1.S MB1-3
R1.S MB4-6
R1.G
R 2.G
xx0200000118
9.
Secure the SMB cover with its attachment
screws.
10.
Secure the correct adapter plate to the harness with its two attachment screws.
11.
Pull the cable harness through the lower arm.
12.
Refit the bracket securing the cables inside
the lower arm.
Note! Different manipulator versions are fitted with different plate
versions. Make sure the correct one
is used to avoid cable failure.
FB3 FB4
FB5 FB6
MP3
MP4
MP5
MP6
xx0100000142
13.
Refit the bracket securing the cables to the
arm house.
Make sure not to twist the harness!
MP6
MP3
FB6
FB5
MP5
MP
FB3
FB4
xx0100000143
14.
32
Reconnect all connectors at motor 3 and
motor 4.
A
Specified in the figure Location of
cable harness on page 30!
3HAC 16247-1
3 Repair activities, manipulator
3.1.2 Refitting of cable harness
Step
Location of cable
harness axes 5-6
Action
Note/Illustration
15. Reconnect connector R2.M5/6 gently at the
rear cable division point.
Be careful not to bend the attachment plate
when fastening the screws!
Shown in the figure Location of cable
harness on page 30!
M6, 2 pcs.
16. Secure the cable harness to the arm house
with a velcro strap.
Shown in the figure Location of cable
harness on page 30!
The cable harness of the axes 5-6 is located as shown in the figure below.
B
A
F
G
H
C
D
xx0100000145
Refitting, cable
harness, axes 5-6
3HAC 16247-1
A
Cable bracket, wrist unit
B
Cable bracket, upper arm tube
C
Connectors at motor axis 5; R4.FB5 and R4.MP5
D
Connectors in upper arm tube; R3.FB5 and R3.MP5
F
Cable attachment, rear
G
Connectors at cable harness division point; R2.M5/6
H
Connectors at motor, axis 6; R3.FB6 and R3.MP6
The procedure below details how to refit the upper arm cable harness. The separate cable that
goes from the connection point inside of the upper arm tube to the motor, axis 5, is not
included in this procedure. The refitting of that cable is described further down in section
Refitting, cable harness axis 5 on page 35.
A
33
3 Repair activities, manipulator
3.1.2 Refitting of cable harness
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
The cable harnesses are sensitive to mechanical damage! They must be handled with care,
especially the connectors, in order to avoid damaging them!
Axis 5 must be oriented in the correct position (+90 °) to allow opening the motor 6 cover!
Step
1.
Action
Note/Illustration
The manipulator is required to be positioned
in the following position:
• Axis 4: 0 degrees
•
Axis 5: +90 degrees
•
Axis 6: no significance
2.
Gently insert the cable harness from the rear
into the upper arm.
3.
Connect the two connectors inside the upper Shown in the figure Location of cable
arm tube, R3.FB5 and R3.MP5 and secure harness axes 5-6 on page 33!
the cable bracket with the two attachment
screws to the tube.
4.
Place the cabling to motor, axis 6, correctly
on the upper arm and gently pull the connectors through the hole on top of wrist unit to
motor, axis 6.
A
xx0200000185
•
5.
In case of excess cable
length: put a loop of cable in
this area with cable straps
(A). The cables are longer in
order to fit different upper
arm lengths.
Fasten the cable bracket, wrist unit with
Also shown in the figure Location of
three attachment screws, two of them visible cable harness axes 5-6 on page 33!
at the rear attachment point and the third
located on the bottom of the cable bracket, in C
the center.
B
xx0200000254
6.
34
•
B: Attachment screws, rear of
cable bracket.
•
C: Attachment screw, bottom
of cable bracket.
Reconnect the connectors to motor, axis 6
and refit the motor cover.
A
3HAC 16247-1
3 Repair activities, manipulator
3.1.2 Refitting of cable harness
Step
7.
Action
Note/Illustration
Refit the cover, upper arm and the cover,
wrist unit.
Make sure the cabling is placed correctly
when refitting the covers, and does not get
jammed.
A
B
xx0200000214
Refitting, cable
harness axis 5
•
A: cover, wrist unit
•
B: cover, upper arm tube
8.
Refit eventually removed cable straps to the
harness.
9.
Refit the cable attachment, rear.
10.
Reconnect connector R2.M5/6 gently at the Shown in the figure Location of cable
rear cable division point with two screws, M6. harness axes 5-6 on page 33!
Be careful not to bend the attachment plate
when fastening the screws!
Shown in the figure Location of cable
harness axes 5-6 on page 33!
The procedure below details how to refit the cable, axis 5.
Step
Action
Note/Illustration
1.
Reconnect all connectors at motor, axis 5.
2.
Refit the cable gland cover at the cable exit with
its two attachment screws.
3.
Refit the cover of motor, axis 5.
4.
Refit the complete wrist unit.
Detailed in section Refitting of
complete wrist unit on page 50.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
3HAC 16247-1
A
35
3 Repair activities, manipulator
3.1.3 Removal of complete arm system
3.1.3 Removal of complete arm system
Location of arm
system
The complete arm system is defined as the complete manipulator except for the base and
gearbox axis 1, i.e. the upper and lower arms, balancing device and frame. This is shown in
the figure below.
A
B
C
F
G
D
H
E
xx0200000224
A
Upper arm
B
Lower arm
C
Frame
D
Gearbox, axis 1
E
Base attachment screws
F
Balancing device
G
Block for calibration
H
Motor axis 1
Required equipment
Equipment, etc.
Spare part no. Art. no.
Lifting device, manipulator
36
Note
3HAC 15607-1 Instruction 3HAC 15971-2
enclosed!
A
3HAC 16247-1
3 Repair activities, manipulator
3.1.3 Removal of complete arm system
Equipment, etc.
Spare part no. Art. no.
Standard toolkit
Note
3HAC 15571-1 The contents are defined
in section Standard toolkit
on page 18!
Other tools and procedures
may be required. See references to these procedures
in the step-by-step instructions below.
Removal, arm
system
These procedures include
references to the tools
required.
The procedure below details how to lift and remove the complete arm system.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
The complete arm system weighs 1300 kg! All lifting equipment used must be dimensioned
accordingly!
Step
1.
Action
Note/Illustration
Make sure the manipulator is posiManually releasing the brakes is detailed in
tioned as shown in figure to the right. If "Manually releasing the brakes" in the
it is not, position it that way.
Installation Manual.
50
°
m
xx0100000103
3HAC 16247-1
2.
Drain the oil from gearbox axis 1.
Detailed in "Oil change, gearbox axis 1" in
the Maintenance Manual.
3.
Remove the motor, axis 1.
Detailed in section Removal of motor, axis
1 on page 93.
4.
Run the overhead crane to a position
above the manipulator.
A
37
3 Repair activities, manipulator
3.1.3 Removal of complete arm system
Step
38
Action
Note/Illustration
5.
Fit the lifting device and adjust it as
detailed in enclosed instruction.
Art. no. specified in Required equipment on
page 36!
Make sure the lift is done completely level!
How to adjust the lift is described in the
enclosed instruction to the lifting device!
Follow the instructions before continuing the lift!
6.
Remove the block for calibration from Shown in the figure Location of arm system
the bottom of the frame.
on page 36!
7.
Remove the arm system from the base Shown in the figure Location of arm system
by unscrewing its 24 attachment
on page 36!
screws.
8.
Lift the arm system and secure it in a
safe area.
A
Make sure all hooks and attachments
maintain in correct position while lifting the
manipulator!
Always move the manipulator at very low
speeds, making sure it does not tip.
3HAC 16247-1
3 Repair activities, manipulator
3.1.4 Refitting of complete arm system
3.1.4 Refitting of complete arm system
Location of arm
system
The complete arm system is defined as the complete manipulator except for the base and
gearbox axis 1, i.e. the upper and lower arms, balancing device and frame. This is shown in
the figure below.
A
B
C
F
G
D
H
E
xx0200000224
A
Upper arm
B
Lower arm
C
Frame
D
Gearbox, axis 1
E
Base attachment screws and washers (24 pcs)
F
Balancing device
G
Block for calibration
H
Motor axis 1
Required equipment
Equipment, etc.
Spare part no. Art. no.
Lifting device, manipulator
3HAC 16247-1
Note
3HAC 15607-1 Instruction 3HAC 15971-2
enclosed!
A
39
3 Repair activities, manipulator
3.1.4 Refitting of complete arm system
Equipment, etc.
Spare part no. Art. no.
Note
Guide pins, M12 x 130
Used to guide the complete
arm system when refitting.
Always use the guide pins
in pairs!
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures
may be required. See references to these procedures
in the step-by-step instructions below.
Refitting, arm
system
These procedures include
references to the tools
required.
The procedure below details how to lift and refit the complete arm system.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
The complete arm system weighs 1300 kg! All lifting equipment used must be dimensioned
accordingly!
Step
Action
Note/Illustration
1.
Fit the lifting device as detailed in enclosed Art. no. specified in Required equipinstruction.
ment on page 36!
2.
Lift the complete arm system and move it Make sure all the hooks and attachat very low speed, making sure it does not ments maintain in correct position
tip!
while lifting the manipulator!
Make sure the lift is done completely level,
adjust the length of the chains as detailed
in enclosed instruction!
3.
Fit two guide pins, M12 x 130, to the frame
attachment holes, as shown in the figure to
the right.
Fit one guide pin next to the guiding hole
(for the spring pin in the gearbox) and the
other guide pin straight across the frame.
A
A
B
xx0300000070
The figure above shows the frame, with
a view from below.
• A: Attachment holes for the
guide pins, M12.
•
40
A
B: Guiding hole for the spring
pin located in the gearbox, axis
1.
3HAC 16247-1
3 Repair activities, manipulator
3.1.4 Refitting of complete arm system
Step
Action
Note/Illustration
4.
Look through the empty mounting hole of This is a complex task to be performed
motor 1 to assist in aligning the assembly with utmost care in order to avoid injury
during refitting of the arm system.
or damage!
The guiding pin in the gearbox must be fitted to the guiding hole of the frame.
Lower the arm system with guidance from
the guide pins previously fitted to the
frame.
5.
Refit 22 of the 24 attachment screws
before the arm system is completely lowered.
6.
Remove the guide pins and secure the arm Shown in the figure Location of arm
system to the base with its 24 attachment system on page 39!
screws and washers.
M12 x 70, 12.9 quality UNBRAKO,
tightening torque: 115 Nm.
Reused screws may be used, providing they are lubricated as detailed in
Screw joints on page 15 before fitting.
7.
Refit the block for calibration at the bottom Shown in the figure Location of arm
of the frame.
system on page 39!
8.
Refit the motor axis 1.
9.
Refill the gearbox axis 1 with lubricating oil. Detailed in "Oil change, gearbox axis
1" in the Maintenance Manual.
10. Recalibrate the robot.
Detailed in section Refitting of motor,
axis 1 on page 95.
Detailed in "Calibration" in the Installation Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
3HAC 16247-1
A
41
3 Repair activities, manipulator
3.2.1 Removal of turning disk
Section 3.2: Upper arm
3.2.1 Removal of turning disk
Location of turning disk
The turning disk is located in the front of the wrist housing, as shown in the figure below. The
two different robot versions result in different designs of the turning disks.
A more detailed view of the component and its position may be found in the Foldout section
Wrist complete on page 211.
B
B
A
A
E2
E1
D
C
xx0200000217
A
Turning disk
B
Wrist unit
C
Oil plug, draining
D
Oil plug, filling
E1
Attachment screws, turning disk for robot version 175/2.55 (6 pcs)
E2
Attachment screws, turning disk for robot version 225/2.55, 175/2.8, 125/3.2 or 200/
2.75 (12 pcs)
Required equipment
Equipment, etc.
Spare part no. Art. no.
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
42
Note
These procedures include references to the tools required.
A
3HAC 16247-1
3 Repair activities, manipulator
3.2.1 Removal of turning disk
Removal, turning
disk
The procedure below details how to remove the turning disk.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Step
3HAC 16247-1
Action
Note/Illustration
1.
Remove any equipment fitted to the turning
disk.
2.
Run the robot to a position where the oil
Shown in the figure Location of turnplug, draining of axis 6 gearbox faces down- ing disk on page 42!
wards.
3.
Drain the oil from gearbox 6.
Detailed in "Oil change, gearbox axis
6" in the Maintenance Manual.
4.
Remove the turning disk by unscrewing its
attachment screws .
Shown in the figure Location of turning disk on page 42!
A
43
3 Repair activities, manipulator
3.2.2 Refitting of turning disk
3.2.2 Refitting of turning disk
Location of turning disk
The turning disk is located in the front of the wrist housing, as shown in the figure below. The
two different robot versions result in different designs of the turning disks.
A more detailed view of the component and its position may be found in the Foldout section
Wrist complete on page 211.
B
B
A
A
E2
E1
D
C
xx0200000217
44
A
Turning disk
B
Wrist housing
C
Oil plug, draining
D
Oil plug, filling
E1
Attachment screws, turning disk for robot version 175/2.55 (6 pcs)
E2
Attachment screws, turning disk for robot version 225/2.55, 175/2.8, 125/3.2 or 200/
2.75 (12 pcs)
A
3HAC 16247-1
3 Repair activities, manipulator
3.2.2 Refitting of turning disk
Required equipment
Equipment, etc.
Spare part no. Art. no.
Note
Turning disk, dia 200
3HAC 9744-5
For robot version 175/2.55.
O-rings are not included!
Turning disk, dia 200
3HAC 13752-1
For robot version 225/2.55, 175/
2.8, 125/3.2 or 200/2.75.
O-rings are not included!
O-ring
3HAB 3772-65
(1 pc)
2152 0431-20
(6 pcs)
For robot v. 175/2.55.
Must be replaced when replacing the turning disk!
O-ring
3HAB 3772-64
(1 pc)
3HAB 3772-61
(12 pcs)
For robot v. 225/2.55, 175/2.8,
125/3.2 or 200/2.75.
Must be replaced when replacing the turning disk!
Grease
3HAB 3537-1
Used to lubricate the o-rings.
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be
required. See references to these procedures in the step-bystep instructions
below.
Refitting, turning
disk
These procedures include references to the tools required.
The procedure below details how to refit the turning disk.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
3HAC 16247-1
A
45
3 Repair activities, manipulator
3.2.2 Refitting of turning disk
Step
1.
Action
Note/Illustration
Lubricate the turning disk o-ring
Art. no. specified in Required equipment on
with grease.
page 45!
Fit the o-ring to the rear of the turning disk.
Fit also the 6 or 12 pcs of o-rings
(depending on robot version),
when refitting the attachment
screws.
xx0200000218
•
A: Sealing surface, o-ring
2.
Secure the turning disk with its
attachment screws.
Robot v. 175/2.55: 6 pcs, M14 x 25, tightening
torque: 175 Nm.
Robot v. 225/2.55, 175/2.8, 125/3.2 or 200/
2.75: 12 pcs, M12 x 30, 12.9 quality
UNBRAKO, tightening torque: 100 Nm.
Reused screws may be used, providing they
are lubricated as detailed in Screw joints on
page 15 before fitting.
3.
Refill the gearbox 6 with oil.
Detailed in "Oil change, gearbox axis 6" in the
Maintenance Manual.
4.
Refit any equipment removed during disassembly, to the turning
disk.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
46
A
3HAC 16247-1
3 Repair activities, manipulator
3.2.3 Removal of complete wrist unit
3.2.3 Removal of complete wrist unit
Location of wrist
unit
The wrist unit is located in the frontmost part of the upper arm as shown in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Wrist complete on page 211.
A
H
I
B
C
G
D
E
F
xx0200000184
3HAC 16247-1
A
Wrist unit
B
Turning disk
C
Cover, wrist unit
D
Cover, upper arm tube
E
Connectors, upper arm tube, with cable bracket (R3.FB5, R3.MP5)
F
Cable bracket, cables motor axis 6
G
Suffusion to lifting tool, wrist unit
H
Wrist unit attachment screws and washers
I
Upper arm tube
A
47
3 Repair activities, manipulator
3.2.3 Removal of complete wrist unit
Required equipment
Equipment etc.
Spare part no. Art. no.
Lifting tool, wrist unit
3HAC 13605-1
Circuit diagram
3HAC 13347-1
Included in Repair Manual,
part 2
Standard toolkit
3HAC 15571-1
The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the step-bystep instructions below.
Removal, wrist
unit
Note
These procedures include
references to the tools
required.
The procedure below details how to remove the complete wrist unit.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Axis 5 must be oriented in the correct position (+90 °) to allow opening the motor 6 cover!
The complete wrist unit weighs 165 kg! All lifting equipment used must be dimensioned
accordingly!
Step
48
Action
Note/Illustration
1.
Remove all equipment fitted to the turning disk.
2.
Turn axis 4 to a position where the cover, upper Shown in the figure Location of
arm tube and wrist unit, faces upwards. Also wrist unit on page 47!
turn axis 5 so that the turning disc faces to the
side in order to allow access to the motor 6
cover.
3.
Remove the cover, wrist unit, on top of the
wrist unit.
Shown in the figure Location of
wrist unit on page 47!
4.
Remove the cover, upper arm tube.
Shown in the figure Location of
wrist unit on page 47!
5.
Remove the cover of motor, axis 6 and disconnect all connectors beneath.
A
3HAC 16247-1
3 Repair activities, manipulator
3.2.3 Removal of complete wrist unit
Step
6.
Action
Note/Illustration
Loosen the cable bracket on top of the wrist by Shown in the figure Location of
unscrewing the three attachment screws.
wrist unit on page 47!
Two of the attachment screws are located visiC
ble at the rear of the bracket (B) and the third
located at the bottom of the cable bracket, in
B
the center (C), shown in the figure to the right.
xx0200000254
•
B: Attachment screws, rear
of cable bracket, 2 pcs
•
C: Attachment screw, bottom of cable bracket, 1 pc
7.
Pick out the cabling from motor, axis 6 and
place it safely on the tube.
8.
Loosen the cable bracket in the upper arm tube
by unscrewing the two screws on top of the
tube.
Shown in the figure Location of
wrist unit on page 47!
9.
Disconnect the motor axis 5 by disconnecting
the two connectors in the upper arm tube
(R3.FB5, R3.MP5).
Shown in the figure Location of
wrist unit on page 47!
10. Fit the lifting device to the wrist unit.
Art. no. specified in Required
equipment on page 48!
11. Slightly raise the wrist unit to unload the screw
joint, facilitating removing the attachment
screws.
12. Remove the wrist unit attachment screws and
washers .
Shown in the figure Location of
wrist unit on page 47!
13. Pull the wrist unit out, lift it away and place it on
a secure surface.
3HAC 16247-1
A
49
3 Repair activities, manipulator
3.2.4 Refitting of complete wrist unit
3.2.4 Refitting of complete wrist unit
Location of wrist
unit
The wrist unit is located in the frontmost part of the upper arm as shown in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Wrist complete on page 211.
A
H
I
B
C
G
D
E
F
xx0200000184
50
A
Wrist unit
B
Turning disk
C
Cover, wrist unit
D
Cover, upper arm tube
E
Connectors, upper arm tube, with cable bracket (R3.FB5, R3.MP5)
F
Cable bracket, cables motor axis 6
G
Suffusion to lifting tool, wrist unit
H
Attachment screws and washers, wrist unit
I
Upper arm tube
A
3HAC 16247-1
3 Repair activities, manipulator
3.2.4 Refitting of complete wrist unit
Required equipment
Refitting, wrist
unit
Equipment etc.
Spare part no. Art. no.
Note
Wrist, 175/2.55
3HAC 16627-1
Includes complete axis 6,
3HAC 9744-1/3HAC 16032-1
(Foundry).
Includes rotational motor incl.
gearbox, 3HAC 7941-29.
Wrist, 225/2.55, 175/2.8, 3HAC 16626-1
125/3.2 or 200/2.75
Includes complete axis 6,
3HAC 13890-1/2 (Foundry).
Includes rotational motor incl.
gearbox, 3HAC 7941-30.
Guide pin M12 x 200
3HAC 13056-3 Always use guide pins in
pairs!
Lifting tool, wrist unit
3HAC 13605-1
Standard toolkit
The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
These procedures include references to the tools required.
The procedure below details how to refit the complete wrist unit.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Axis 5 must be oriented in the correct position (+90 °) to allow opening the motor 6 cover!
The complete wrist unit weighs 165 kg! All lifting equipment used must be dimensioned
accordingly!
Step
3HAC 16247-1
Action
Note/Illustration
1.
Fit two guide pins, M12 in the upper arm
tube, in two of the wrist unit attachment
screw holes.
Art. no. specified in Required equipment on page 51!
Shown in the figure Location of wrist
unit on page 50!
2.
Fit the lifting tool to the wrist unit.
Art. no. specified Location of wrist unit
on page 50!
A
51
3 Repair activities, manipulator
3.2.4 Refitting of complete wrist unit
Step
Action
Note/Illustration
3.
Lift the wrist unit and guide it to the upper
arm tube with help of the guide pins.
Make sure the cabling from motor, axis 5 is
safely run into the arm tube and doesn´t get
into a scrape.
4.
Secure the wrist unit with 10 of the 12 attach- Shown in the figure Location of wrist
ment screws and washers.
unit on page 50!
12 pcs: M12 x 50, 12.9 quality
UNBRAKO, tightening torque: 115
Nm.
Reused screws may be used, providing they are lubricated as detailed in
Screw joints on page 15 before fitting.
5.
Remove the guide pins and secure the two
remaining attachment screws as detailed
above.
6.
Remove the lifting tool from the wrist unit.
7.
Reconnect the motor axis 5 by connecting
the two connectors inside the upper arm
tube (R3.FB5, R3.MP5) and secure the
cable bracket with the two attachment
screws to the tube.
8.
In order to have access to motor 6 cover, the
axis 5 must be positioned +90 degrees.
Place the cabling to motor, axis 6, correctly
on the upper arm and gently pull the connectors through the hole on top of wrist unit to
motor, axis 6.
Shown in the figure Location of wrist
unit on page 50!
A
xx0200000185
Put a loop of cable in this area with
cable straps (A), if necessary. The
cables are longer to fit to different
upper arm lengths.
9.
Fasten the cable bracket at top of wrist unit Shown in the figure Location of wrist
with three attachment screws. Two of them unit on page 50!
are visible at the rear attachment point (B)
and the third is located on the bottom of the C
cable bracket, right in the center (C), shown
B
in the figure to the right.
xx0200000254
•
B: Attachment screws, rear of
cable bracket
•
C: Attachment screw, bottom
of cable bracket
10. Reconnect the connectors to motor, axis 6
and refit the motor cover.
52
11. Refit the cover, upper arm tube.
Shown in the figure Location of wrist
unit on page 50!
12. Refit the cover, wrist unit.
Shown in the figure Location of wrist
unit on page 50!
A
3HAC 16247-1
3 Repair activities, manipulator
3.2.4 Refitting of complete wrist unit
Step
Action
Note/Illustration
13. Recalibrate the robot!
Detailed in "Calibration" in the Installation Manual.
14. Refit any equipment previously removed
from the turning disk.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
3HAC 16247-1
A
53
3 Repair activities, manipulator
3.2.5 Removal of upper arm
3.2.5 Removal of upper arm
Location of upper
arm
The upper arm is located on top of the manipulator as shown in the figure below. The complete upper arm includes the wrist unit but this instruction also describes how to remove the
upper arm when there is no wrist unit mounted.
Note! The lifting device is attached differently depending on whether the wrist unit is
mounted on the upper arm or not. The attachment points are shown in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Upper arm on page 209.
B
A
H
G
B
F
E
C
D
xx0200000163
54
A
3HAC 16247-1
3 Repair activities, manipulator
3.2.5 Removal of upper arm
A
Attachment hole for lifting eye, M12
B
Attachment for lifting device, upper arm (2 pcs if there is no wrist unit mounted)
C
Oil plug, draining, gearbox axis 3
D
Connectors at cable harness division; R2.M5/6
E
Motor, axis 3
F
Motor, axis 4
G
Attachment screws and washers, upper arm
H
Sealing, axis 2/3 (between lower arm and gearbox axis 3)
Required equipment
Equipment
Spare part no. Art. no.
Lifting eye, VLBG M12
3HAC 16131-1
Lifting device, upper
arm
3HAC 15994-1
Lifting tool (chain)
3HAC 15556-1
To be used together with lifting
eye, M12 and lifting device,
upper arm.
Standard toolkit
3HAC 15571-1
The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be
required. See references to these procedures in the step-bystep instructions
below.
Removal, upper
arm
Note/Illustration
These procedures include references to the tools required.
The procedure below details how to remove the upper arm.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
The complete upper arm weighs 380 kg without any additional equipment fitted! Use a suitable
lifting device to avoid injury to personnel!
Step
3HAC 16247-1
Action
Note/Illustration
1.
Remove all equipment fitted to turning disk.
2.
Move the manipulator arm to a horisontal position. Shown in the figure Location of
Run axis 4 so that the attachment hole for lifting eye upper arm on page 54!
is faced upwards!
A
55
3 Repair activities, manipulator
3.2.5 Removal of upper arm
Step
56
Action
Note/Illustration
3.
Fit the lifting eye, VLBG M12 to the attachment hole
on the upper arm, if the wrist unit is mounted.
Art. no. specified in Required
equipment on page 55!
Shown in the figure Location of
upper arm on page 54!
4.
Upper arm including wrist unit: Fit one of the
pieces included in lifting device, upper arm to the
attachment for lifting device on the upper arm.
Art. no. specified in Required
equipment on page 55!
Fasten the lifting device on the
front attachment, as shown in
the figure above!
5.
Upper arm without wrist unit: Fit the lifting
device, upper arm to the attachments for lifting
device .
Art. no. specified in Required
equipment on page 55!
The attachments are shown in
the figure Location of upper
arm on page 54!
6.
Fasten the lifting tool (chain) onto the lifting eye,
the lifting device and an overhead crane.
Art. no. specified in Required
equipment on page 55!
7.
Drain the oil from gearbox axis 3.
Detailed in "Oil change, gearbox axis 3" in the Maintenance
Manual.
8.
Disconnect connector R2.M5/6 at the cable harShown in the figure Location of
ness division as well as all remaining connections upper arm on page 54!
to the upper arm.
9.
Remove the cover on top of the motors, axis 3 and
4 and disconnect all connectors inside motors.
10.
Remove all brackets securing cabling to the upper
arm by unscrewing their attachment screws
respectively.
11.
Raise the lifting equipment to take the weight of the
upper arm.
12.
Carefully remove the attachment screws and wash- Shown in the figure Location of
ers, upper arm.
upper arm on page 54!
13.
Lift the upper arm and place it on a secure surface.
Make sure the lift is done completely level! In case
of necessary adjustments, use the shortening
loops on the lifting tool (chain), but make sure to
place the chain the right way through the loops!
14.
Remove the sealing, axis 2/3 from the lower arm. Shown in the figure Location of
upper arm on page 54!
A
3HAC 16247-1
3 Repair activities, manipulator
3.2.6 Refitting of upper arm
3.2.6 Refitting of upper arm
Location of upper
arm
The upper arm is located on top of the manipulator as shown in the figure below. The complete upper arm includes the wrist unit but this instruction also describes how to refit the
upper arm when there is no wrist unit mounted.
Note! The lifting device is attached differently depending on whether the wrist unit is
mounted on the upper arm or not. The attachment points are shown in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Upper arm on page 209.
B
A
H
G
B
F
E
C
D
xx0200000163
3HAC 16247-1
A
57
3 Repair activities, manipulator
3.2.6 Refitting of upper arm
A
Attachment hole for lifting eye, M12
B
Attachment for lifting device, upper arm (2 pcs if there is no wrist unit mounted)
C
Oil plug, draining, gearbox axis 3
D
Connectors at cable harness division; R2.M5/6
E
Motor, axis 3
F
Motor, axis 4
G
Attachment screws and washers, upper arm
H
Sealing, axis 2/3 (between lower arm and gearbox axis 3)
Required equipment
Equipment
Spare part no. Art. no.
Sealing, axis 2/3
3HAC 12443-2
Always use a new sealing
when reassembling!
Washer, axis 3 (3 pcs)
3HAC 12703-1
To be replaced if damaged.
Lifting eye, VLBG M12
3HAC 16131-1
Lifting device, upper
arm
3HAC 15994-1
Lifting tool (chain)
3HAC 15556-1
To be used together with lifting
eye, M12 and lifting device,
upper arm.
Guide pins, sealing axis
2/3 80 mm
3HAC 14628-1
For guiding "Sealing, axis 2/3".
Guide pins, sealing axis
2/3 100 mm
3HAC 14628-2
For guiding "Sealing, axis 2/3".
Power supply
24 VDC, max 1,5A.
For releasing the brakes.
Rotation tool, motor
3HAC 17105-1
Used to rotate the motor shaft
beneath the motor cover,
when brakes are released with
24 VDC power supply.
Standard toolkit
3HAC 15571-1
The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
Refitting, upper
arm
Note
These procedures include references to the tools required.
The procedure below details how to refit the upper arm.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
58
A
3HAC 16247-1
3 Repair activities, manipulator
3.2.6 Refitting of upper arm
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
The complete upper arm weighs 380 kg without any additional equipment fitted! Use a suitable
lifting device to avoid injury to personnel!
Step
1.
Action
Note/Illustration
Fit the two guide pins, sealing axis 2/3 in Always use a new sealing when reastwo of the attachment screw holes on
sembling!
gearbox 3, see figure beside.
Art. no. specified in Required equipGuide the new sealing, axis 2/3 into posi- ment on page 58!
tion with the guide pins, on gearbox 3.
A
B
C
xx0200000166
3HAC 16247-1
•
A: Holes for guide pins on the
gearbox.
•
B: Holes in the gearbox, axis 3,
for the attachment screws,
upper arm (33 pcs).
•
C: Gearbox attachment screws
(not affected in this instruction).
2.
Fit the lifting eye, VLBG M12 to the attach- Art. no. specified in Required equipment hole on the upper arm, if there is a ment on page 58!
wrist unit mounted.
Shown in the figure Location of upper
arm on page 57!
3.
Upper arm including wrist unit: Fit one
of the pieces included in the lifting device,
upper arm to the attachment for the lifting
device on the upper arm.
Fasten the lifting device on the front
attachment, as shown in figure above!
4.
Upper arm without wrist unit: Fit the lift- Art. no. specified in Required equiping device, upper arm to the attachments ment on page 58!
for the lifting device on the upper arm.
Shown in the figure Location of upper
arm on page 57!
5.
In order to release the brake, connect the Connect to connector R2.MP3
24 VDC power supply to motor axis 3,
• +: pin 2
after removing the motor cover.
• -: pin 5
A
Art. no. specified in Required equipment on page 58!
Shown in the figure Location of upper
arm on page 57!
59
3 Repair activities, manipulator
3.2.6 Refitting of upper arm
Step
Action
Note/Illustration
6.
Fasten the lifting tool (chain) onto the lift- Art. no. specified in Required equiping eye, the lifting device and an overhead ment on page 58!
crane.
7.
Lift the upper arm and run to its mounting
position.
Make sure the lift is done completely level!
8.
Fit in the gearbox attachment holes with
the attachment holes on the lower arm
with the guide pins.
It may be necessary to turn the gear by
rotating the motor pinion with a rotation
tool, motor beneath the motor cover.
Art. no. specified in Required equipment on page 58!
A
xx0200000165
The rotation tool is used beneath the
motor cover, directly on the motor shaft
as shown in figure above.
• A: Rotation tool
60
9.
Fit the three washers to be placed
beneath the attachment screws.
Shown in the figure Location of upper
arm on page 57!
10.
Insert 31 of the 33 attachment screws,
upper arm into the attachment holes in
the lower arm.
Do not remove the guide pins until the
attachment screws are tightened as
detailed below.
Shown in the figure Location of upper
arm on page 57!
Removing the plastic mechanical stops
may be required before fitting the upper
arm.
If guide pins are removed before the
screws are tightened, the sealing can
be involuntarily moved into wrong position.
11.
Secure the lower arm to gearbox axis 3,
with the attachment screws.
33 pcs: M12 x 50; 12.9 quality
UNBRAKO, tightening torque: 120 Nm.
Reused screws may be used, providing
they are lubricated as detailed in Screw
joints on page 15 before fitting.
12.
Remove the guide pins and fit the two
remaining attachment screws. Tighten
them as detailed above!
13.
Disconnect the brake release voltage and
remove the rotation tool from the motor.
14.
Remove the lifting devices.
15.
Refit any cabling removed during the
removal process.
16.
Reconnect all connectors inside motors,
axis 3 and 4. Refit the motor covers.
17.
Reconnect connector R2.M5/6 gently at
the cable harness division point, with 2
screws, M6.
Be careful not to bend the attachment
plate when fastening the screws!
A
3HAC 16247-1
3 Repair activities, manipulator
3.2.6 Refitting of upper arm
Step
Action
Note/Illustration
18.
Perform a leakdown test.
Detailed in Performing a leak-down test
on page 21.
19.
Refill the gearbox with oil.
Detailed in "Oil change, gearbox axis 3"
in the Maintenance Manual.
20.
Recalibrate the robot.
Detailed in "Calibration" in the Installation Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
3HAC 16247-1
A
61
3 Repair activities, manipulator
3.3.1 Removal of complete lower arm
Section 3.3: Lower arm
3.3.1 Removal of complete lower arm
Location of lower
arm
The lower arm is located as shown in the figure below.
A more detailed view of the component and its position may be found in the Foldout section
Frame-Lower arm 2 on page 207.
A
D
B
C
xx0200000255
62
A
Lower arm
B
Pivot point, axis 2
C
Front shaft, balancing device, including securing screw
D
Attachment for lifting eye, M12, balancing device
A
3HAC 16247-1
3 Repair activities, manipulator
3.3.1 Removal of complete lower arm
Attachment
points, lower arm
The lower arm attachment points are located as shown in the figure below:
•
The figure (1) shows gearbox axis 3, but the location of sealing axis 2/3 in relation to
the gearbox is identical for axis 2.
•
The figure (2) shows a cut view through the lower arm pivot point in axis 2 (item B in
the figure above!).
201
A
B
(1)
(2)
C
404
401
202
204
406
402
403
D
405
409
E
xx0200000031
3HAC 16247-1
A
Gear box
B
Lower arm
C
Balancing device piston rod ear
D
Frame
E
Shaft hole
201
Sealing, axis 2/3
202
Attachment screw
204
Washer
401
Bearing
402
Thrust washer
403
Bushing
404
Retaining ring
405
Shaft
406
Protection plug
409
Protection washer
A
63
3 Repair activities, manipulator
3.3.1 Removal of complete lower arm
Required equipment
Equipment, etc.
Spare part no. Art. no.
Lifting tool, lower arm
3HAC 14691-1 Tool that may be rent from
ATRP/S.
Press tool, axis 2 shaft
3HAC 13452-1
Lifting eye, M12
3HAC 14457-3 Used to lift the balancing
device.
Puller tool, balancing
device shaft
3HAC 12475-1 Used to pull out the shaft from
the balancing device front ear.
Hydraulic pump 80Mpa
3HAC 13086-1 To be used together with the
press tool, axis 2 shaft and the
puller tool.
Hydraulic pump 80 Mpa
(Glycerin)
3HAC 13086-2 To be used together with the
press tool, axis 2 shaft and the
puller tool.
Retaining ring plier
-
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
Removal, lower
arm
Note
These procedures include references to the tools required.
The procedure below details how to remove the complete lower arm.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
The lower arm weighs 160 kg! All lifting equipment used must be dimensioned accordingly!
Do not under any circumstances, deal with the balancing device in any other way than that
detailed in the product documentation! For example, attempting to open the balancing device
is potentially lethal!
Step
64
Action
Note/Illustration
1.
Remove the upper arm.
Detailed in section Removal of upper arm
on page 54.
2.
Disconnect and remove the cables from Detailed in section Removal of cable harinside the lower arm.
ness on page 24.
Release any cable attachments.
A
3HAC 16247-1
3 Repair activities, manipulator
3.3.1 Removal of complete lower arm
Step
Action
Note/Illustration
3.
Apply the lifting eye to the balancing
device and raise to unload the device.
Art. no. specified in Required equipment
on page 64.
Attachment shown in the figure Location
of lower arm on page 62.
4.
Unload the balancing device in order to Detailed in section Unloading the balancmake the piston rod and front ear adjust- ing device on page 89.
able when pulling the front shaft out.
5.
Remove the securing screw from the
balancing device front shaft.
6.
Apply the shaft puller tool to the shaft
through the hole in the frame.
The shaft has a M20 thread diameter
and a 35 mm depth of thread, as shown
35
in the figure to the right.
xx0300000056
Pull the shaft out using the puller tool
Note! The dimension of the shaft puller
and the hydraulic pump.
tool is M20. Do not mix up with the shaft
press tool used when mounting the shaft.
Art. no. specified in Required equipment
on page 64.
7.
Lower the balancing device until it rests
safely against the bottom of the frame.
8.
Move the lower arm backwards to the
lowest position possible.
9.
Apply the lifting tool to the lower arm.
Shown in the figure Location of lower arm
on page 62.
xx0300000015
10. Drain the oil from gearbox 2.
11.
3HAC 16247-1
Art. no. specified in Required equipment
on page 64!
Detailed in "Oil change, gearbox 2" in the
Maintenance Manual.
Raise the tool to unload the lower arm.
12. Remove the protection plug.
Shown in the figure Attachment points,
lower arm on page 63!
13. Remove the protection washer and the
retaining ring.
Shown in the figure Attachment points,
lower arm on page 63!
Use a plier for the retaining ring.
A
65
3 Repair activities, manipulator
3.3.1 Removal of complete lower arm
Step
Action
Note/Illustration
14.
Fit the press (/puller) tool to the shaft as Art. no. specified in Required equipment
shown in the figure to the right and
on page 64!
mount the hydraulic pump to it.
15.
Pull the shaft out.
16.
Remove the lower arm attachment
screws and washers that attaches the
lower arm to the gearbox 2.
17.
Lift the lower arm down and place it on a
secure surface.
18.
Remove the bearing and thrust washer
from the shaft hole in the lower arm.
19.
Remove the sealing from the lower arm. Shown in the figure Attachment points,
lower arm on page 63!
On reassembly a new sealing must be
used!
xx0300000010
66
A
Shown in the figure Attachment points,
lower arm on page 63!
Shown in the figure Attachment points,
lower arm on page 63!
On reassembly a new bearing must be
used!
3HAC 16247-1
3 Repair activities, manipulator
3.3.2 Refitting of complete lower arm
3.3.2 Refitting of complete lower arm
Location of lower
arm
The lower arm is located as shown in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Frame-Lower arm 2 on page 207
A
D
B
C
xx0200000255
3HAC 16247-1
A
Lower arm
B
Pivot point, axis 2
C
Front shaft, balancing device, including securing screw
D
Attachment for lifting eye, M12, balancing device
A
67
3 Repair activities, manipulator
3.3.2 Refitting of complete lower arm
Attachment
points, lower arm
The lower arm attachment points are located as shown in the figure below:
•
The figure (1) shows gearbox axis 3, but the location of sealing axis 2/3 in relation to
the gearbox is identical for axis 2.
•
The figure (2) shows a cut view through the lower arm pivot point in axis 2 (item B in
the figure above!).
201
A
B
(1)
(2)
C
404
401
202
204
406
402
403
D
405
409
E
xx0200000031
68
A
Gear box
B
Lower arm
C
Balancing device piston rod ear
D
Frame
E
Shaft hole
201
Sealing, axis 2/3
202
Attachment screw
204
Washer
401
Bearing
402
Thrust washer
403
Bushing
404
Retaining ring
405
Shaft
406
Protection plug
409
Protection washer
A
3HAC 16247-1
3 Repair activities, manipulator
3.3.2 Refitting of complete lower arm
Required equipment
Equipment, etc.
Spare part no. Art. no.
Bearing
3HAC 12441-2
Always use a new bearing when
reassembling!
Sealing, axis 2/3
3HAC 12443-2
Always use a new sealing when
reassembling!
VK-cover VK 120 x 12 3HAA 2166-23
Mount on new lower arm or
replace if damaged.
Lifting tool, lower arm
3HAC 14691-1
Tool to be rent from ATRP.
Two guidings, 3HAC 14446-1,
must be used for guiding the
sealing, axis 2/3.
Guidings
3HAC 14446-1
For guiding the sealing axis 2/3.
Rotation tool, motor
3HAC 17105-1
Used to rotate the motor pinion
and gear if necessary, when
brakes are released.
Power supply
24 VDC, 1.5 A.
For releasing the brakes.
Press tool, axis 2
shaft
3HAC 13452-1
Press tool, axis 2
bearing
3HAC 13453-1
Hydraulic pump 80
Mpa
3HAC 13086-1
To be used together with the
press tools.
Hydraulic pump 80
Mpa (Glycerin)
3HAC 13086-2
To be used together with the
press tools.
Tool that may be rent from
ATRP/S.
Retaining ring plier
-
Grease
3HAB 3537-1
Isopropanol
1177 1012-208 For cleaning the shaft.
Standard toolkit
3HAC 15571-1
Other tools and procedures may be
required. See references to these procedures in the step-bystep instructions
below.
Refitting, lower
arm
Note
For lubricating shaft hole.
The contents are defined in section Standard toolkit on page 18!
These procedures include references to the tools required.
The procedure below details how to refit the complete lower arm.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
3HAC 16247-1
A
69
3 Repair activities, manipulator
3.3.2 Refitting of complete lower arm
The lower arm weighs 160 kg! All lifting equipment used must be dimensioned accordingly!
Step
Action
Note/Illustration
1.
Fit a new VK-cover on a new lower arm Part no. specified in Required equipment
or replace the existing if damaged.
on page 69!
2.
Fit two guidings in the attachment holes Art no. specified in Required equipment
of the lower arm.
on page 69!
A
xx0200000262
A: Attachment holes for the two guidings
3.
Fit the new sealing, axis 2/3 on the
guidings.
Always use a new sealing when reassembling!
Art no. specified in Required equipment
on page 69!
4.
Apply the lifting tool to the lower arm.
Art no. specified in Required equipment
on page 69!
5.
Lift the lower arm and run it to its mounting position.
6.
In case the holes of the lower arm and Connect power supply to connector
the ones of the gearbox axis 2 doesn´t R2.MP2
match, use power supply to release the
• +: pin 2
motor axis 2 brakes and rotate the pin• -: pin 5
ion and gear with the rotational tool.
A
xx0200000165
The rotation tool (A) is used beneath the
motor cover, directly on the motor shaft as
shown in figure above.
Art no. specified in Required equipment
on page 69!
7.
70
Secure the lower arm with 31 of the 33
attachment screws and washers in
gearbox 2.
A
33 pcs: M12 x 50, 12.9 quality UNBRAKO,
tightening torque: 120 Nm.
Reused screws may be used, providing
they are lubricated as detailed in Screw
joints on page 15 before fitting.
Shown in the figure Attachment points,
lower arm on page 68!
3HAC 16247-1
3 Repair activities, manipulator
3.3.2 Refitting of complete lower arm
Step
Action
Note/Illustration
8.
Remove the guidings and secure the
two remaining screws as detailed
above!
9.
Clean the shaft with isopropanol.
10. Apply grease to the shaft hole.
11.
Art no. specified in Required equipment
on page 69!
Art no. specified in Required equipment
on page 69!
Push the shaft in by hand.
D
E
F
A B
C
xx0300000014
•
A: Retaining ring
•
B: Protection washer
•
C: Bearing
•
D: Thrust washer
•
E: Shaft
•
F: Protection plug
12. Apply the press tool, axis 2 shaft
against the shaft.
Art no. specified in Required equipment
on page 69!
13. Tighten the M16 nut.
Tightening torque: 20 Nm.
14. Set the indicator to zero and press the Approx. force: 30-50 kN.
shaft in with the hydraulic cylinder of the
press tool.
15. Increase the pressure of the glycerin
pump to 50 kN.
16. Check the measurement dial readout.
Correct value: 2.45 mm ±0.15 mm.
17. Remove the press tool, axis 2 shaft.
Release the pressure from the glycerin
pump first, then from the hydraulic cylinder (approximately 1/2 minute after), in
order to avoid movement of the shaft.
18. Refit the thrust washer to the shaft.
Shown in the figure Attachment points,
lower arm on page 68!
19. Apply grease to the location of the shaft Art no. specified in Required equipment
where the bearing is to be mounted.
on page 69!
20. Press the bearing in with the press tool, Always use a new bearing when reassemaxis 2 bearing.
bling!
Art no. specified in Required equipment
on page 69!
3HAC 16247-1
21. Refit the protection washer and the
retaining ring.
Shown in the figure Attachment points,
lower arm on page 68!
22. Refit the protection plug.
Shown in the figure Attachment points,
lower arm on page 68!
A
71
3 Repair activities, manipulator
3.3.2 Refitting of complete lower arm
Step
Action
Note/Illustration
23.
Refit and restore the balancing device.
Detailed in section Refitting of balancing
device on page 85.
24.
Refit the upper arm.
Detailed in section Refitting of upper arm
on page 57.
25.
Perform a leak-down test.
Detailed in section Performing a leakdown test on page 21.
26.
Refill the gearbox with oil.
Detailed in section "Oil change, gearbox
axis 2" in the Maintenance Manual.
27.
Refit and reconnect all cables inside the Detailed in section Refitting of cable harlower arm.
ness on page 30.
Resecure any cable attachments.
28.
Recalibrate the robot!
Detailed in "Calibration" in the Installation
Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
72
A
3HAC 16247-1
3 Repair activities, manipulator
3.4.1 Removal of SMB related equipment
Section 3.4: Frame and base
3.4.1 Removal of SMB related equipment
Location of SMB
related equipment
The SMB related equipment (SMB = serial measurement board) is located on the left hand
side of the frame as shown in the figure below. (IRB 7600 shown.)
Note that the manipulator is shown with the SMB cover already removed!
A B C D
E F G
H
xx0200000203
A
Attachment screw, SMB battery cover
B
SMB battery cover
C
SMB battery
D
Cable, battery/SMB board
E
SMB cover
F
Attachment screw, SMB cover
G
SMB unit
H
Pins
Required equipment
Equipment, etc. Spare part. no. Art. no.
Removal, battery
Note
Standard toolkit
3HAC 15571-1 The contents are defined in section
Standard toolkit on page 18!
Circuit Diagram
3HAC 13347-1 Included in Repair Manual, part 2
The procedure below details how to remove the SMB battery.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
3HAC 16247-1
A
73
3 Repair activities, manipulator
3.4.1 Removal of SMB related equipment
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Follow these instruction to prevent the unit to be damaged from ESD:
The unit is sensitive to electrostatic discharge. It will be destroyed if subjected to electrostatic
voltages.
Before handling, make sure you are connected to earth through a special ESD wrist bracelet
or similar.
Step
Removal, SMB
unit
Action
Note/Illustration
1.
Remove the SMB battery cover by unscrew- Shown in the figure Location of
ing its attachment screws.
SMB related equipment on page 73!
2.
Disconnect the cable, battery/SMB board
from the battery.
3.
Remove the SMB battery.
Shown in the figure Location of
Battery includes protection circuits. Replace it SMB related equipment on page 73!
only with the specified spare part or with an
ABB approved eqvivalent.
Shown in the figure Location of
SMB related equipment on page 73!
The procedure below details how to remove the SMB unit.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Follow these instruction to prevent the unit to be damaged from ESD:
The unit is sensitive to electrostatic discharge. It will be destroyed if subjected to electrostatic
voltages.
Before handling, make sure you are connected to earth through a special ESD wrist bracelet
or similar.
Step
74
Action
Note/Illustration
1.
Remove the SMB cover by unscrewing Shown in the figure Location of SMB
its attachment screws.
related equipment on page 73!
2.
Remove the connectors X8, X9 and X10
from the brake release board, if need of
more space.
3.
Remove the locknut and washer from
the pins securing the board.
4.
Gently disconnect the connectors from Connectors R1.SMB1-3, R1.SMB4-6 and
the SMB unit when pulling the board out. R2.SMB
5.
Disconnect the battery cable from the
SMB unit.
A
Shown in the figure Location of SMB
related equipment on page 73!
3HAC 16247-1
3 Repair activities, manipulator
3.4.2 Refitting of SMB related equipment
3.4.2 Refitting of SMB related equipment
Location of SMB
related equipment
The SMB related equipment (SMB = serial measurement board) is located on the left hand
side of the frame as shown in the figure below. (IRB 7600 shown.)
Note that the manipulator is shown with the SMB cover already removed!
A B C D
E F G
H
xx0200000203
A
Attachment screw, SMB battery cover
B
SMB battery cover
C
SMB battery
D
Cable, battery/SMB board
E
SMB cover
F
Attachment screw, SMB cover
G
SMB unit
H
Pins
Required equipment
Equipment, etc. Spare part no. Art. no.
3HAC 16247-1
SMB Unit
3HAC 13149-1
SMB Battery
3HAC 16831-1
Note
Battery includes protection circuits.
Replace it only with given spare
part no. or an ABB approved eqvivalent.
Cable, battery/SMB
board
3HAC 13151-1
Circuit Diagram
3HAC 13347-1 Included in Repair Manual, part 2
Standard toolkit
3HAC 15571-1 The contents are defined in section
Standard toolkit on page 18!
A
75
3 Repair activities, manipulator
3.4.2 Refitting of SMB related equipment
Refitting, battery
The procedure below details how to refit the SMB battery.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Follow these instruction to prevent the unit to be damaged from ESD:
The unit is sensitive to electrostatic discharge. It will be destroyed if subjected to electrostatic
voltages.
Before handling, make sure you are connected to earth through a special ESD wrist bracelet
or similar.
Step
Refitting, SMB
unit
Action
Note/Illustration
1.
Reconnect the cable, battery/SMB board to Art. no. is specified in Required equipthe battery and fit the SMB battery.
ment on page 75!
Shown in the figure Location of SMB
related equipment on page 75!
2.
Secure the SMB battery cover with its
attachment screws .
Shown in the figure Location of SMB
related equipment on page 75
3.
Recalibrate the robot.
Detailed in "Calibration" in the Installation Manual.
The procedure below details how to refit the SMB unit.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Follow these instruction to prevent the unit to be damaged from ESD:
The unit is sensitive to electrostatic discharge. It will be destroyed if subjected to electrostatic
voltages.
Before handling, make sure you are connected to earth through a special ESD wrist bracelet
or similar.
Step
76
Action
Note/Illustration
1.
Connect the battery cable to the SMB
board.
2.
Fit the SMB unit onto the pins and con- Art. no. is specified in Required equipment
nect all connectors to the board.
on page 75!
Shown in the figure Location of SMB
related equipment on page 75!
R1.SMB1-3, R1.SMB4-6 and R2.SMB
3.
Secure the SMB unit to the pins with
the locknut and washer.
A
3HAC 16247-1
3 Repair activities, manipulator
3.4.2 Refitting of SMB related equipment
Step
Action
Note/Illustration
4.
If disconnected, reconnect the connectors X8, X9 and X10 to the brake
release board.
5.
Secure the SMB cover with its attach- Shown in the figure Location of SMB
ment screws.
related equipment on page 75!
6.
Recalibrate the robot!
Detailed in "Calibration" in the Installation
Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
3HAC 16247-1
A
77
3 Repair activities, manipulator
3.4.3 Removal of brake release unit
3.4.3 Removal of brake release unit
Location of brake
release unit
The brake release unit is located together with the SMB unit on the left hand side of the frame,
right below the gearbox, axis 2, as shown in figure below (IRB 7600 shown).
Some of the early designs are equipped with a separate box on the frame, with the brake
release unit inside, not shown in the figure.
B
A
C
E
F
D
xx0200000226
A
Brake release unit
B
Attachment screws, brake release unit (4 pcs)
C
Buttons
D
SMB battery pack
E
SMB cover
F
Attachment screws, SMB cover
Required equipment
Equipment, etc.
Spare part no. Art. no.
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
78
Note
These procedures include
references to the tools
required.
A
3HAC 16247-1
3 Repair activities, manipulator
3.4.3 Removal of brake release unit
Removal, brake
release unit
The procedure below details how to remove the brake release unit.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Follow these instruction to prevent the unit to be damaged from ESD:
The unit is sensitive to electrostatic discharge. It will be destroyed if subjected to electrostatic
voltages.
Before handling, make sure you are connected to earth through a special ESD wrist bracelet
or similar.
Step
Action
Note/Illustration
1.
Open the SMB cover by unscrewing the
attachment screws.
Let the battery stay connected, to avoid
the need of synchronization of the robot!
Shown in the figure Location of brake
release unit on page 78!
2.
Disconnect the connectors X8, X9 and
X10 from the brake release unit.
B
A
2
2
2
1
1
1
C
xx0200000129
•
A: Connector X8
•
B: Connector X9
•
C: Connector X10
Location of brake release unit shown in
the figure Location of brake release unit
on page 78!
3HAC 16247-1
3.
Unscrew the four attachment screws,
brake release unit.
4.
Remove the brake release unit from the
plate.
A
Shown in the figure Location of brake
release unit on page 78!
79
3 Repair activities, manipulator
3.4.4 Refitting of brake release unit
3.4.4 Refitting of brake release unit
Location of brake
release unit
The brake release unit is located together with the SMB unit on the left hand side of the frame,
right below the gearbox, axis 2, as shown in figure below (IRB 7600 shown).
Some early designs are equipped with a separate box on the frame, with the brake release unit
inside, not shown in the figure.
B
A
C
E
F
D
xx0200000226
A
Brake release unit
B
Attachment screws, brake release unit (4 pcs)
C
Buttons
D
SMB battery pack
E
SMB cover
F
Attachment screws, SMB cover
Required equipment
Equipment, etc.
80
Spare part no. Art. no.
Note
Brake release unit with
buttons
3HAC 16035-1 Located together with the
SMB-unit at the left hand side
of the frame.
Brake release circuit
3HAC 14301-1 The early version, where
brake release unit is located in
a separate box on the frame.
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
A
3HAC 16247-1
3 Repair activities, manipulator
3.4.4 Refitting of brake release unit
Equipment, etc.
Spare part no. Art. no.
Note
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
Refitting, brake
release unit
These procedures include references to the tools required.
The procedure below details how to refit the brake release unit.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Follow these instruction to prevent the unit to be damaged from ESD:
The unit is sensitive to electrostatic discharge. It will be destroyed if subjected to electrostatic
voltages.
Before handling, make sure you are connected to earth through a special ESD wrist bracelet
or similar.
Step
Action
Note/Illustration
1.
Fasten the brake release unit on the plate Shown in the figure Location of brake
with the attachment screws.
release unit on page 80!
Art. no. specified in Required equipment on page 80!
2.
Connect the connectors X8, X9 and X10 to
the brake release unit.
B
A
2
2
2
1
1
1
C
xx0200000129
3.
Close the SMB cover with attachment
screws.
If the battery has been disconnected the
robot must be synchronized.
•
A: Connector X8
•
B: Connector X9
•
C: Connector X10
Shown in the figure Location of brake
release unit on page 80!
Eventual synchronization detailed in
"Calibration" in the Installation Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
3HAC 16247-1
A
81
3 Repair activities, manipulator
3.4.5 Removal of balancing device
3.4.5 Removal of balancing device
Location of balancing device
The balancing device is located on rear top of the frame as shown in the figure below.
A C
I,J
D, E
H
G
B
L
K
F
xx0200000223
A
Balancing device
B
Hole for lower arm locking screw
C
Attachment hole for lifting eye
D
Rear cover
E
Support shaft inside (included in balancing device 3HAC 14678-1)
F
Attachment screws, rear cover
G
Balancing device front eye, including shaft and securing screw
H
Hole in the frame through which shaft puller tool is to be inserted
I
Bearing attachment
J
Parallel pin (inside bearing attachment)
K
Plug
L
Attachment screws, bearing attachments
Required equipment
Equipment, etc
82
Spare part no. Art. no.
Note
Locking screw
3HAA 1001-266 M16 x 60.
For securing the lower arm.
Lifting eye, M12
3HAC 14457-3
Press tool, balancing
device
3HAC 15767-1
Puller tool, balancing
device shaft
3HAC 12475-1
A
3HAC 16247-1
3 Repair activities, manipulator
3.4.5 Removal of balancing device
Equipment, etc
Removal, balancing device
Spare part no. Art. no.
Note
Hydraulic cylinder
3HAC 11731-1
To be used with press tool
3HAC 15767-1.
Hydraulic pump
3HAC 13086-1
To be used with hydraulic cylinder, 3HAC 11731-1.
Securing screw
9ADA 183-66
M12 x 35, 2 pcs required.
For securing the bearing
attachments to the balancing
device when lifting.
Guide pin, M16 x 300
3HAC 13120-5
Always use guide pins in pairs
Standard toolkit
3HAC 15571-1
The contents are defined in
section Standard toolkit on
page 18!
The procedure below details how to remove the balancing device.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Do not under any circumstances, deal with the balancing device in any other way than that
detailed in the product documentation! For example, attempting to open the balancing device
is potentially lethal!
The balancing device weighs 210 kg! All lifting equipment used must be dimensioned accordingly!
Step
Action
Note/Illustration
1.
Run the lower arm to a position close to
the calibration position.
2.
Secure the lower arm to the frame by
inserting the locking screw (1) into the
hole.
1
xx0200000454
Art. no. specified in Required equipment on page 82!
3.
3HAC 16247-1
Apply lifting eye to the balancing device,
and raise to unload the device.
A
Art. no. specified in Required equipment on page 82!
83
3 Repair activities, manipulator
3.4.5 Removal of balancing device
Step
84
Action
Note/Illustration
4.
Unload the balancing device with the
press tool in order to make the piston rod
and front ear adjustable when pulling the
shaft out.
Art. no. specified in Required equipment on page 82!
Detailed in Unloading the balancing
device on page 89.
5.
Remove the securing screw from the
shaft.
Shown in the figure Location of balancing device on page 82!
6.
Apply the shaft puller tool to the shaft
through the hole in the frame.
The shaft has a M20 thread diameter and
a 35 mm depth of thread, as shown in the
35
figure to the right.
xx0300000056
Pull the shaft out using the puller tool and
Note! The dimension of the shaft puller
the hydraulic pump.
tool is M20. Do not mix up with the shaft
press tool used when mounting the
shaft.
Art. no. specified in Required equipment on page 82!
The hole in the frame is shown in the
figure Location of balancing device on
page 82!
7.
Restore the balancing device.
8.
Secure the two bearing attachments to the Shown in the figure Location of balancbalancing device by replacing the plug on ing device on page 82!
the outside of each attachment, with a
2pcs: M12 x 35.
screw.
9.
Remove the two bearing attachments from Shown in the figure Location of balancthe frame by unscrewing their four attach- ing device on page 82!
ment screws.
Make sure the parallel pins inside are
not lost!
10.
Fit two guide pins, through the upper
holes of the bearing attachments, to the
frame.
11.
Lift the balancing device gently backwards Note! Make sure not to burden the
to a secure area, allowing the bearing
guide pins with the weight of the balattachments to slide on the guide pins.
ancing device!
A
Detailed in Restoring the balancing
device on page 91.
Art. no. specified in Required equipment on page 82!
3HAC 16247-1
3 Repair activities, manipulator
3.4.6 Refitting of balancing device
3.4.6 Refitting of balancing device
Location of balancing device
The balancing device is located on rear top of the frame as shown in the figure below.
A C
I,J
D, E
H
G
B
L
K
F
xx0200000223
A
Balancing device
B
Hole for lower arm locking screw
C
Attachment hole for lifting eye
D
Rear cover
E
Support shaft inside (included in balancing device 3HAC 14678-1)
F
Attachment screws, rear cover
G
Balancing device front eye shaft, including securing screw
H
Hole through which shaft puller tool is to be inserted
I
Bearing attachment
J
Parallel pin (inside bearing attachment)
K
Plug
L
Attachment screws, bearing attachments
Required equipment
3HAC 16247-1
Equipment
Spare part no. Art. no.
Note
Balancing device
3HAC 16198-1
IRB 6600.
Includes balancing device 3HAC
14678-1!
Includes o-rings 3HAB 3772-44.
Balancing device
3HAC 16907-1
IRB 6650.
Includes balancing device 3HAC
16189-1!
Includes o-rings 3HAB 3772-44.
A
85
3 Repair activities, manipulator
3.4.6 Refitting of balancing device
Equipment
Spare part no. Art. no.
O-ring
3HAB 3772-44
Locking screw
3HAA 1001-266 M16 x 60.
For securing the lower arm.
Securing screw
9ADA 183-66
M12 x 35, 2 pcs required.
For securing the bearing attachments to the balancing device
when lifting.
Bearing grease
3HAB 3537-1
For lubricating the o-rings and the
shaft.
Grease
3HAA 1001-294 80 ml, Optimol PDO.
For lubrication of spherical roller
bearing in ear, in case of new balancing device.
3 pcs, to be replaced if damaged!
Locking liquid
Loctite 243.
To apply to the securing screw in
the shaft.
Grease pump
To lubricate spherical roller bearing.
Guide pin, M16 x
300
3HAC 13120-5
Lifting eye, M12
3HAC 14457-3
Press tool, balancing device
3HAC 15767-1
Press tool, balancing device shaft
3HAC 17129-1
Hydraulic cylinder
3HAC 11731-1
To be used with press tool 3HAC
15767-1 and press tool, shaft
3HAC 17129-1.
Hydraulic pump
3HAC 13086-1
To be used with hydraulic cylinder
3HAC 11731-1.
Standard toolkit
3HAC 15571-1
The contents are defined in section
Standard toolkit on page 18!
Other tools and
procedures may
be required. See
references to
these procedures
in the step-by-step
instructions below.
Refitting, balancing device
Note
Always use guide pins in pairs.
These procedures include references to the tools required.
The procedure below details how to refit the balancing device.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
86
A
3HAC 16247-1
3 Repair activities, manipulator
3.4.6 Refitting of balancing device
Do not under any circumstances, deal with the balancing device in any other way than that
detailed in the product documentation! For example, attempting to open the balancing device
is potentially lethal!
The balancing device weighs 210 kg! All lifting equipment used must be dimensioned accordingly!
Step
1.
Action
Note/Illustration
Secure the lower arm to the frame by inserting the locking screw into the hole (1).
1
xx0200000454
Art. no. specified in Required equipment on page 85!
3HAC 16247-1
2.
Secure the bearing attachments to the bal- Shown in the figure Location of balancing device with two screws, on the out- ancing device on page 85!
side of the attachments.
M12 x 35, 2 pcs.
3.
Refit the two parallel pins in the frame.
4.
Fit two guide pins to the upper holes in the
frame, where the bearing attachments are to
be attached.
5.
Fit the lifting eye to the balancing device.
6.
Lift the balancing device and bring it forward, Note! Make sure not to burden the
gliding the bearing attachments on to the
guide pins with the weight of the balguide pins (upper holes).
ancing device!
7.
Remove the guide pins.
8.
Secure the rear of the balancing device by Shown in the figure Location of balfastening the two bearing attachments to the ancing device on page 85!
frame with their four attachment screws.
4 pcs, M16x70, 12.9 quality
UNBRAKO, tightening torque: 300
Nm ±45 Nm.
Reused screws may be used, providing they are lubricated as detailed in
Screw joints on page 15 before fitting.
9.
Remove the screws from outside of the
bearing attachments and refit the plugs.
10.
Raise the balancing device to a position
where the front shaft may be inserted
through the piston shaft front eye.
A
Shown in the figure Location of balancing device on page 85!
Art. no. specified in Required equipment on page 85!
87
3 Repair activities, manipulator
3.4.6 Refitting of balancing device
Step
Action
Note/Illustration
11.
Unload the balancing device with the press
tool.
Detailed in Unloading the balancing
device on page 89.
Art. no. specified in Required equipment on page 85!
For an easier reassembling of the
shaft, the piston rod may be pressed
out more than necessary and then
pressed in when fitting the shaft.
12.
Lubricate the shaft with grease.
Art. no. specified in Required equipment on page 85!
13.
Apply the shaft press tool to the lubricatedshaft through the hole in the frame.
Fit the shaft using the shaft press tool and
the hydraulic pump.
The shaft and the hole in the frame
are shown in the figure Location of
balancing device on page 85!
Art. no. specified in Required equipment on page 85!
Note! Make sure the shaft is pressed
all the way to the bottom.
14.
Refit the securing screw in to the shaft using M16x180, tightening torque: 50 Nm.
locking liquid.
Locking liquid specified in Required
equipment on page 85!
15.
When assembling a new device:
Lubricate the bearing in the ear with grease
through the lubricating nipple, with a grease
pump.
Fill until excessive grease pierces between
the shaft and the sealing spacer.
Art. no. and amount specified in
Required equipment on page 85!
Lubrication further detailed in "Lubrication, balancing device bearing" in
the Maintenance Manual.
16.
Restore the balancing device.
Detailed in Restoring the balancing
device on page 91.
17.
Remove the locking screw (1) that secures
the lower arm to the frame.
1
xx0200000454
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
88
A
3HAC 16247-1
3 Repair activities, manipulator
3.4.7 Unloading the balancing device
3.4.7 Unloading the balancing device
Press tool and
hydraulic cylinder
This section implies that the lower arm is already secured according to the instruction for the
current repair activity, e.g removal of the balancing device.
The figure below shows the hydraulic cylinder mounted on the press tool.
A
C
B
1
0
D
xx0200000174
A
Bolt (4 pcs)
B
Hydraulic cylinder
C
Fix plate
D
Moving pin with marking
Required equipment
Equipment, etc.
3HAC 16247-1
Spare part no. Art. no.
Note
Press tool, balancing
device
3HAC 15767-1
Hydraulic cylinder
3HAC 11731-1 To be used with press tool
3HAC 15767-1.
Hydraulic pump
3HAC 13086-1 To be used with hydraulic cylinder, 3HAC 11731-1.
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18.
A
89
3 Repair activities, manipulator
3.4.7 Unloading the balancing device
Unloading the
balancing device
The procedure below details how to unload the balancing device, using the press tool 3HAC
15767-1. How to remove the press tool, is detailed in section Restoring the balancing device
on page 91.
Do not under any circumstances, deal with the balancing device in any other way than that
detailed in the product documentation! For example, attempting to open the balancing device
is potentially lethal!
Step
1.
Action
Note/Illustration
Remove the rear cover of the balancing
device, by unscrewing the attachment
screws (E).
E
xx0200000175
•
90
E: Rear cover attachment screws
(4 pcs)
2.
Remove the support shaft.
3.
Remove the o-ring.
4.
Mount the press tool, balancing device
to the rear of the balancing device with
enclosed bolts. Tighten them properly!
Art. no. specified in Required equipment
on page 89!
See the figure Press tool and hydraulic
cylinder on page 89!
5.
Fit the hydraulic cylinder to the press
tool.
Art. no. specified in Required equipment
on page 89!
See the figure Press tool and hydraulic
cylinder on page 89!
6.
Connect the hydraulic pump to the cylinder.
Art. no. specified in Required equipment
on page 89!
7.
Increase the pressure and press until
See the figure Press tool and hydraulic
the marking on the moving pin indicates cylinder on page 89!
the correct position (flushed with the sur- Do not apply more pressure than necesface).
sary, it could damage bearings and sealings at the shaft.
8.
Turn the fix plate to position 1 in order to See the figure Press tool and hydraulic
lock the tool in loaded condition.
cylinder on page 89!
9.
Unload the hydraulic cylinder.
10.
The hydraulic cylinder may now be
removed from the tool, when necessary.
A
3HAC 16247-1
3 Repair activities, manipulator
3.4.8 Restoring the balancing device
3.4.8 Restoring the balancing device
Press tool and
hydraulic cylinder
Restoration is done after repair work that has included the unloading of the balancing device.
The figure below shows the hydraulic cylinder mounted on the press tool.
A
C
B
1
0
D
xx0200000174
A
Bolt (4 pcs)
B
Hydraulic cylinder
C
Fix plate
D
Moving pin with marking
Required equipment
Equipment, etc. Spare part no. Art. no.
3HAC 16247-1
Note
Hydraulic cylinder
3HAC 11731-1 To be used with press tool 3HAC
15767-1.
Hydraulic pump
3HAC 13086-1 To be used with hydraulic cylinder,
3HAC 11731-1.
Standard toolkit
3HAC 15571-1 The contents are defined in section
Standard toolkit on page 18.
A
91
3 Repair activities, manipulator
3.4.8 Restoring the balancing device
Restoring the balancing device
The procedure below details how to restore the balancing device, i.e. removing the press tool
3HAC 15767-1.
Do not under any circumstances, deal with the balancing device in any other way than that
detailed in the product documentation! For example, attempting to open the balancing device
is potentially lethal!
Step
92
Action
Note/Illustration
1.
Refit the hydraulic cylinder to the press
tool, in case it has been removed.
Shown in the figure Press tool and
hydraulic cylinder on page 91!
2.
Press with the cylinder and the hydraulic Shown in the figure Press tool and
pump until the fix plate is movable again. hydraulic cylinder on page 91!
Turn the fix plate to position 0.
Do not apply more pressure than necessary, it could damage bearings and sealings at the shaft.
3.
Unload the cylinder and make sure the
moving pin indicates that the tool has
returned to its starting position.
4.
Remove the hydraulic cylinder.
5.
Remove the press tool by unscrewing the Shown in the figure Press tool and
bolts.
hydraulic cylinder on page 91!
6.
Lubricate and refit the o-ring at the rear of
the balancing device.
7.
Refit the support shaft and the lubricated Make sure the o-rings are seated propo-ring.
erly!
8.
Refit the rear cover to the balancing
device with its attachment screws.
A
Shown in the figure Press tool and
hydraulic cylinder on page 91!
4 pcs: M10x30, tightening torque: 50 Nm.
Reused screws may be used, providing
they are lubricated as detailed in Screw
joints on page 15 before fitting.
3HAC 16247-1
3 Repair activities, manipulator
3.5.1 Removal of motor, axis 1
Section 3.5: Motors
3.5.1 Removal of motor, axis 1
Location of motor
The motor axis 1 is located on the left hand side of the manipulator as shown in the figure
below.
xx0200000200
A
Motor, axis 1
B
Motor attachment screws and washers
Required equipment
Equipment, etc.
Spare part no. Art. no.
Lifting tool, motor axis 1, 4, 5
3HAC 14459-1
Removal tool, motor M12
3HAC 14631-1 Always use the removal
tools in pairs!
Power supply
3HAC 16247-1
Note
24 VDC, 1.5 A.
For releasing the brakes.
Circuit Diagram
3HAC 13347-1 Included in Repair Manual, part 2.
Standard toolkit
3HAC 15571-1 The contents are defined
in section Standard toolkit on page 18!
A
93
3 Repair activities, manipulator
3.5.1 Removal of motor, axis 1
Removal
The procedure below details how to remove motor, axis 1.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
Step Action
Note/Illustration
1. Remove the cover for connector access on
top of the motor by unscrewing its four attachment screws.
2. Remove the cable gland cover at the cable
exit by unscrewing its two attachment screws.
xx0200000199
•
A: Cable gland cover
Make sure the gasket is not damaged!
3. Disconnect all connectors beneath the motor
cover.
4. Apply lifting tool, motor axis 1, 4, 5 to the
motor.
Art. no. specified in Required equipment on page 93!
5. In order to release the brakes, connect the 24 Connect to connector R2.MP1
VDC power supply.
• +: pin 2
•
6. Remove the motor by unscrewing its four
attachment screws and plain washers.
-: pin 5
Shown in the figure Location of motor
on page 93!
7. If required, press the motor out of position by Art. no. specified in Required equipfitting removal tool, motor to the motor attach- ment on page 93!
ment screw holes.
Always use the removal tools in pairs!
8. Lift the motor to get the pinion away from the
gear and disconnect the brake release voltage.
9. Remove the motor by gently lifting it straight
up.
94
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.2 Refitting of motor, axis 1
3.5.2 Refitting of motor, axis 1
Location of motor
The motor axis 1 is located on the left hand side of the manipulator as shown in the figure
below.
xx0200000200
A
Motor, axis 1
B
Motor attachment screws and washers
Required equipment
Equipment, etc.
Spare part no. Art. no.
Note
Motor, axis 1
3HAC 15879-1
Includes motor 3HAC 14673-6.
Includes pinion 3HAC 11350-1.
Includes o-ring 2152 2012-430.
O-ring
2152 2012-430 Must be replaced when reassembling motor!
Grease
3HAB 3537-1
Lifting tool, motor axis
1, 4, 5
3HAC 14459-1
Power supply
3HAC 16247-1
Used to lubricate the o-ring.
24 VDC, max. 1,5 A.
For releasing the brakes.
Circuit Diagram
3HAC 13347-1 Included in the Repair Manual,
part 2.
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18!
A
95
3 Repair activities, manipulator
3.5.2 Refitting of motor, axis 1
Equipment, etc.
Spare part no. Art. no.
Other tools and procedures may be required.
See references to
these procedures in
the step-by-step
instructions below.
Refitting, motor
Note
These procedures include references to the tools required.
The procedure below details how to refit motor, axis 1.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
Step
Action
Note/Illustration
1.
Make sure the o-ring on the circumference of the Art no. specified in Required
motor is seated properly. Lightly lubricate the o- equipment on page 95!
ring with grease.
2.
Apply lifting tool, motor axis 1, 4, 5 to the motor. Art no. specified in Required
equipment on page 95!
3.
In order to release the brake, connect the 24
VDC power supply.
Connect to connector R2.MP1
• +: pin 2
•
-: pin 5
4.
Fit the motor, making sure the motor pinion is
properly mated to gearbox of axis 1.
Make sure the motor is turned
the right way, i.e. connections
forwards.
Make sure the motor pinion does
not get damaged!
5.
Secure the motor with four attachment screws
and plain washers.
M10 x 40, tightening torque: 50
Nm.
6.
Disconnect the brake release voltage.
7.
Reconnect all connectors beneath the motor
cover.
8.
Refit the cable gland cover at the cable exit with Make sure the cover is tightly
its two attachment screws.
sealed!
9.
Refit the motor cover with its four attachment
screws.
Make sure the cover is tightly
sealed!
10.
Recalibrate the robot!
Detailed in "Calibration" in the
Installation Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
96
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.3 Removal of motor axis 2
3.5.3 Removal of motor axis 2
Location of motor
The motor axis 2 is located on the left hand side of the manipulator as shown in the figure
below.
B
D
A
C
xx0200000169
A
Motor axis 2
B
Hole for lock screw
C
Cable gland cover (located on the lower side of the motor)
D
Motor attachment holes (4 pcs)
Required equipment
Equipment etc.
Spare part no. Art. no.
Locking screw
3HAA 1001-266 M16 x 60.
For securing the lower arm.
Lifting tool, motor
axis 2, 3, 4
3HAC 15534-1
Power supply
3HAC 16247-1
Note
24 VDC, 1.5 A.
For releasing the brakes.
Removal tool, motor
M12
3HAC 14631-1
Always use the removal tools in
pairs!
Guide pin, M10 x 150
3HAC 15521-2
For guiding the motor.
Guides are to be used in pairs!
A
97
3 Repair activities, manipulator
3.5.3 Removal of motor axis 2
Equipment etc.
Spare part no. Art. no.
Circuit diagram
3HAC 13347-1
Included in the Repair Manual,
part 2.
Standard toolkit
3HAC 15571-1
The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be
required. See references to these procedures in the stepby-step instructions
below.
Removal, motor
Note
These procedures include references to the tools required.
The procedure below details how to remove the motor, axis 2.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
The motor weighs 27 kg! All lifting equipment used must be dimensioned accordingly!
Step
Action
Note/Illustration
1.
Run the manipulator to a position close enough to Shown in the figure Location of
its calibration position, to allow the lock screw to motor on page 97!
be inserted into the hole for lock screw.
2.
Lock the lower arm by inserting the lock screw into Art. no. specified in Required
the hole.
equipment on page 97!
3.
Drain the oil from gearbox, axis 2.
4.
Remove the cover on top of the motor by
unscrewing its four attachment screws.
5.
Remove the cable gland cover at the cable exit by Shown in the figure Location of
unscrewing its two attachment screws.
motor on page 97!
Make sure the gasket is not
damaged!
6.
Disconnect all connectors beneath the motor
cover.
7.
In order to release the brake, connect the 24 VDC Connect to connector R2.MP2
power supply.
• +: pin 2
Detailed in "Oil change, gearbox axis 2" in the Maintenance
Manual.
•
8.
98
-: pin 5
Remove the motor by unscrewing its four attachment screws and plain washers.
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.3 Removal of motor axis 2
Step
3HAC 16247-1
Action
Note/Illustration
9.
Fit the two guide pins in the two lower motor
attachment holes.
Art. no. specified in Required
equipment on page 97!
Shown in the figure Location of
motor on page 97!
10.
If required, press the motor out of position by fitting removal tool, motor to the remaining motor
attachment holes.
Art. no. specified in Required
equipment on page 97!
Shown in the figure Location of
motor on page 97!
Always use the removal tools in
pairs!
11.
Remove the removal tools and fit the lifting tool,
motor axis 2, 3, 4 to the motor.
Art. no. specified in Required
equipment on page 97!
12.
Lift the motor to get the pinion away from the gear. Make sure the motor pinion
does not get damaged!
13.
Remove the motor by gently lifting it straight out
and place it on a secure surface. Disconnect the
brake release voltage.
A
99
3 Repair activities, manipulator
3.5.4 Refitting of motor axis 2
3.5.4 Refitting of motor axis 2
Location of motor
The motor, axis 2, is located on the left hand side of the manipulator as shown in the figure
below.
B
D
A
C
xx0200000169
A
Motor axis 2
B
Hole for lock screw
C
Cable gland cover (located on the lower side of the motor)
D
Motor attachment holes (4 pcs)
Required equipment
100
Equipment, etc.
Spare part no. Art. no.
Note
Motor axis 2, 175/
2.55
3HAC 15882-1
Includes motor 3HAC 14673-6.
Includes pinion 3HAC 10122-15.
Includes o-ring 2152 2012-430
Motor axis 2, 225/
2.55, 175/2.8, 125/
3.2 and 200/2.75
3HAC 15885-1
Includes motor 3HAC 14673-9.
Includes pinion 3HAC 10122-15.
Includes o-ring 2152 2012-430.
O-ring
2152 2012-430
Must be replaced when reassembling motor!
Grease
3HAB 3537-1
For lubricating the o-ring!
Guide pin, M10 x
150
3HAC 15521-2
For guiding the motor.
Guides are to be used in pairs!
Lifting tool, motor
axis 2, 3, 4
3HAC 15534-1
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.4 Refitting of motor axis 2
Equipment, etc.
Spare part no. Art. no.
Note
Power supply
24 VDC, 1.5 A.
For releasing the brakes.
Rotation tool, motor
pinion
3HAC 17105-1
Used to rotate the motor pinion
when mating it to the gear, when
brakes are released with 24VDC
power supply.
Circuit diagram
3HAC 13347-1
Included in the Repair Manual,
part 2.
Standard toolkit
3HAC 15571-1
The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be
required. See references to these procedures in the stepby-step instructions
below.
Refitting, motor
These procedures include references to the tools required.
The procedure below details how to refit the motor axis 2.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
The motor weighs 27 kg! All lifting equipment used must be dimensioned accordingly!
Step
3HAC 16247-1
Action
Note/Illustration
1.
Make sure the o-ring on the circumference of Art. no. specified in Required equipthe motor is seated properly. Lightly lubricate ment on page 100!
the o-ring with grease.
2.
In order to release the brake, remove the
Connect to connector R2.MP2
cover on top of the motor and connect the 24
• +: pin 2
VDC power supply.
• -: pin5
3.
Fit the lifting tool, motor axis 2, 3, 4 to the
motor.
Art. no. specified in Required equipment on page 100!
4.
Fit the two guide pins in the two lower motor
attachment holes.
Art. no. specified in Required equipment on page 100!
Shown in the figure Location of
motor on page 100!
5.
Lift the motor and guide it on to the guide pins,
as close to the correct position as possible
without pushing the motor pinion into the gear.
See that the motor is turned the right direction,
i.e. the cables facing downwards.
A
101
3 Repair activities, manipulator
3.5.4 Refitting of motor axis 2
Step
Action
Note/Illustration
6.
Remove the lifting tool and allow the motor to
rest on the guide pins.
7.
Use the rotation tool in order to rotate the
Art. no. specified in Required equipmotor pinion when mating it to the gear (see ment on page 100!
figure beside).
Fit the motor, making sure the motor pinion is
A
properly mated to the gear of gearbox axis 2
and that it doesn´t get damaged.
xx0200000165
The rotation tool is used beneath
the motor cover, directly on the
motor shaft as shown in figure
above.
• A: Rotation tool
8.
Remove the guide pins.
9.
Secure the motor with four attachment screws M10 x 40, tightening torque: 50 Nm.
and plain washers.
Reused screws may be used, providing they are lubricated as
detailed in Screw joints on page 15
before fitting.
10.
Remove the lifting tool.
11.
Disconnect the brake release voltage.
12.
Reconnect all connectors beneath the motor
cover.
Connect in accordance with markings on connectors.
13.
Refit the cable gland cover at the cable exit
with its two attachment screws.
Shown in the figure Location of
motor on page 100!
14.
Refit the cover on top of the motor with its four Make sure the cover is tightly
attachment screws.
sealed!
15.
Remove the lock screw from the hole for lock Shown in the figure Location of
screw.
motor on page 100!
16.
Perform a leak down test.
Detailed in Performing a leak-down
test on page 21.
17.
Refill the gearbox with oil.
Detailed in "Oil change, gearbox
axis 2" in the Maintenance Manual.
18.
Recalibrate the robot.
Detailed in "Calibration" in the
Installation Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
102
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.5 Removal of motor, axis 3
3.5.5 Removal of motor, axis 3
Location of motor
The motor axis 3 is located on the left hand side of the manipulator as shown in the figure
below.
A
B
C
xx0200000186
A
Motor, axis 3
B
Cable gland cover, motor axis 3
C
Attachment screws and washers (4 pcs)
Required equipment
Equipment, etc.
Spare part no. Art. no.
Power supply
3HAC 16247-1
Note
24 VDC, 1.5 A.
For releasing the brakes.
Removal tool, motor
M12
3HAC 14631-1
Always use the removal tools in
pairs!
Guide pin, M10 x 150
3HAC 15521-2
For guiding the motor.
Always use guide pins in pairs.
Mech stop axis 3
3HAC 12708-1
Used to fix axis 3 (one method of
three, see step one in the
removal procedure).
Use attachment screws 3HAB
3409-86 (M16 x 60).
Washers for Mech
stop axis 3
3HAA 1001-186
Circuit Diagram
3HAC 13347-1
A
Included in the Repair Manual,
part 2.
103
3 Repair activities, manipulator
3.5.5 Removal of motor, axis 3
Equipment, etc.
Spare part no. Art. no.
Standard toolkit
Note
3HAC 15571-1
The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be
required. See references to these procedures in the stepby-step instructions
below.
Removal, motor
These procedures include references to the tools required.
The procedure below details how to remove motor, axis 3.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
The motor weighs 27 kg! All lifting equipment used must be dimensioned accordingly!
Step
1.
Action
Note/Illustration
Unload the manipulator upper arm by either:
• Use a fork lift to rest the upper arm
onto.
•
Use lifting slings and an overhead
crane to rest the upper arm.
•
Use a mechanical stop to rest the
upper arm. Fit the mechanical stop in
the attachment hole (A) with tightening
torque: 115 Nm.
B
A
xx0300000051
The upper arm must be positioned as horizon- Fit the mechanical stop to the third
tal as possible!
and final attachment hole (A),
below the fixed stop (B) in the upper
arm. See the figure above!
104
2.
Drain the oil from gearbox axis 3.
3.
Remove any equipment hindering access to
motor axis 3.
4.
Remove the cover on top of the motor by
unscrewing its four attachment screws.
5.
Remove the cable gland cover at the cable
exit by unscrewing its two securing screws.
6.
Disconnect all connectors beneath the motor
cover.
A
Detailed in "Oil change, gearbox
axis 3" in the Maintenance Manual.
Shown in the figure Location of
motor on page 103!
Make sure the gasket is not damaged!
3HAC 16247-1
3 Repair activities, manipulator
3.5.5 Removal of motor, axis 3
Step
Action
Note/Illustration
7.
Release the brake by connecting the 24 VDC Connect to connector R2.MP3
power supply.
• +: pin 2
Make sure the weight of the complete upper
• -: pin 5
arm rests safely on the mechanical stops, the
fork lift or the lifting slings before removing the
motor.
8.
Unscrew the motors four attachment screws
and plain washers .
Shown in the figure Location of
motor on page 103!
9.
Fit the two guide pins in the two lower motor
attachment screw holes.
Art. no. specified in Required equipment on page 103!
10. Press the motor out of position by fitting
removal tool, motor to the motor attachment
screw holes.
Art. no. specified in Required equipment on page 103!
Always use the removal tools in
pairs!
11. Apply the lifting tool, motor axis 2 ,3, 4 to the
motor.
Art. no. specified in Required equipment on page 103!
12. Lift the motor to get the pinion away from the
gear.
13. Remove the motor by gently lifting it straight
Make sure the motor pinion is not
out and disconnect the brake release voltage. damaged!
3HAC 16247-1
A
105
3 Repair activities, manipulator
3.5.6 Refitting of motor, axis 3
3.5.6 Refitting of motor, axis 3
Location of motor
The motor axis 3 is located on the left hand side of the manipulator as shown in the figure
below.
A
B
C
xx0200000186
A
Motor axis 3
B
Cable gland cover, motor axis 3
C
Motor attachment holes (4 pcs)
Required equipment
106
Equipment, etc.
Spare part no. Art. no.
Note
Motor axis 3, 175/
2.55
3HAC 15882-1
Includes motor 3HAC 14673-6.
Includes pinion 3HAC 10122-15.
Includes o-ring 2152 2012-430.
Motor axis 3, 225/
2.55, 175/2.8, 125/
3.2 and 200/2.75
3HAC 15885-1
Includes motor 3HAC 14673-9.
Includes pinion 3HAC 10122-15.
Includes o-ring 2152 2012-430.
O-ring
2152 2012-430 Must be replaced when reassembling motor!
Grease
3HAB 3537-1
Guide pin, M10 x 100
3HAC 15521-1 For guiding the motor.
Guide pin, M10 x 150
3HAC 15521-2 For guiding the motor.
Rotation tool, motor
pinion
3HAC 17105-1 Used to rotate the motor pinion
when mating it to the gear, when
brakes are released with 24 VDC
power supply.
A
For lubricating the o-ring.
3HAC 16247-1
3 Repair activities, manipulator
3.5.6 Refitting of motor, axis 3
Equipment, etc.
Spare part no. Art. no.
Note
Power supply
24 VDC, max. 1.5 A.
For releasing the brakes.
Circuit Diagram
3HAC 13347-1 Included in the Repair Manual,
part 2.
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be
required. See references to these procedures in the step-bystep instructions
below.
Refitting, motor
These procedures include references to the tools required.
The procedure below details how to refit motor, axis 3.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
The motor weighs 27 kg! All lifting equipment used must be dimensioned accordingly!
Step
Action
Note/Illustration
1.
Make sure the o-ring on the circumference of the motor is seated properly.
Lightly lubricate it with grease .
Art no. specified in Required equipment
on page 106!
2.
Fit the lifting tool, motor axis 2, 3, 4 to the Art no. specified in Required equipment
motor.
on page 106!
3.
Fit the two guide pins in the two lower
motor attachment holes.
4.
Lift the motor and guide it onto the guide
pins, as close to the correct position as
possible without pushing the motor pinion
into the gear.
5.
Remove the lifting tool and allow the
motor stay on the guide pins.
6.
In order to release the brake, connect the Connect to connector R2.MP3
24 VDC power supply.
• +: pin 2
Art no. specified in Required equipment
on page 106!
Shown in the figure Location of motor
on page 106!
•
3HAC 16247-1
A
-: pin 5
107
3 Repair activities, manipulator
3.5.6 Refitting of motor, axis 3
Step
7.
Action
Note/Illustration
Use the rotation tool in order to rotate the
motor pinion when mating it to the gear!
Fit the motor, making sure the motor pinion is properly mated to the gear of gearbox, axis 3.
Art no. specified in Required equipment
on page 106!
Make sure the motor pinion does not
get damaged!
Make sure the motor is turned the right
direction, i.e. the cables facing forwards.
A
xx0200000165
The rotation tool is used beneath the
motor cover, directly on the motor shaft
as shown in figure above.
• A: Rotation tool.
8.
Remove the guide pins.
9.
Secure the motor with four attachment
screws and plain washers.
10.
Disconnect the brake release voltage.
11.
Reconnect all connectors beneath the
motor cover.
Connect in accordance with markings
on connectors.
12.
Refit the cable gland cover at the cable
exit with its two attachment screws.
Make sure the cover is tightly sealed!
Shown in the figure Location of motor
on page 106!
13.
Refit the cover on top of the motor with its Make sure the cover is tightly sealed!
four attachment screws.
14.
Remove the equipment used to unload
the upper arm:
• Fork lift
•
Lifting slings
•
Mech stop
4 pcs: M10 x 40, tightening torque: 50
Nm.
15.
Perform a leak-down test.
Detailed in section Performing a leakdown test on page 21.
16.
Refill the gearbox with oil.
Detailed in "Oil change, gearbox axis 3"
in the Maintenance Manual.
17.
Recalibrate the robot!
Detailed in "Calibration" in the Installation Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
108
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.7 Removal of motor, axis 4
3.5.7 Removal of motor, axis 4
Location of motor
The motor axis 4 is located on the left hand side of the upper arm as shown in the figure below.
C
A
B
xx0200000202
A
Motor, axis 4
B
Cable gland cover, motor axis 4
C
Motor attachment screws and washers
Required equipment
Equipment, etc.
Spare part no. Art. no.
Power supply
24 VDC, 1.5 A.
For releasing the brakes.
Removal tool, motor
M10
3HAC 14972-1 Always use the removal tools in
pairs!
Guide pin, M8 x 150
3HAC 15520-2 For guiding the motor.
Always use the guide pins in
pairs.
Circuit Diagram
3HAC 13347-1 Included in the Repair Manual,
part 2.
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be
required. See references to these procedures in the stepby-step instructions
below.
3HAC 16247-1
Note
These procedures include references to the tools required.
A
109
3 Repair activities, manipulator
3.5.7 Removal of motor, axis 4
Removal, motor
The procedure below details how to remove motor, axis 4.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
Step
Action
Note/Illustration
1.
Run the robot to a position where the upper arm
is pointed straight up.
This position enables the motor to be replaced
without draining the gear oil, which in turn saves
time.
2.
Remove the cable gland cover at the cable exit Shown in the figure Location of
of the motor by unscrewing its two attachment
motor on page 109!
screws.
Make sure the gasket is not damaged!
3.
Remove the cover on top of the motor by
unscrewing its four attachment screws.
4.
Disconnect all connectors beneath the motor
cover.
5.
In order to release the brake, connect the 24
VDC power supply.
Connect to connector R2.MP4
• +: pin 2
•
110
-: pin 5
6.
Unscrew the motors four attachment screws and Shown in the figure Location of
plain washers.
motor on page 109!
7.
Fit the two guide pins, M8 in two of the motor
attachment screw holes.
8.
If required, press the motor out of position by fit- Art. no. specified in Required
ting removal tool, motor M10 to the motor attach- equipment on page 109!
ment screw holes.
Always use the removal tools in
pairs!
9.
Lift the motor to get the pinion away from the
gear and disconnect the brake release voltage.
10.
Remove the motor by gently lifting it straight out. Make sure the motor pinion is not
damaged!
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.8 Refitting of motor, axis 4
3.5.8 Refitting of motor, axis 4
Location of motor
The motor axis 4 is located on the left hand side of the upper arm as shown in the figure below.
C
A
B
xx0200000202
A
Motor, axis 4
B
Cable gland cover, motor axis 4
C
Motor attachment holes (4 pcs)
Required equipment
Equipment, etc.
Spare part no. Art. no.
Note
Motor axis 4, 175/
2.55
3HAC 15887-1
Includes motor 3HAC 14673-7.
Includes pinion 3HAC 12260-1.
Includes o-ring 2152 2012-430.
Motor axis 4, 225/
2.55, 175/2.8, 125/
3.2 and 200/2.75
3HAC 15889-1
Includes motor 3HAC 14673-10.
Includes pinion 3HAC 12260-1.
Includes o-ring 2152 2012-430.
O-ring
2152 2012-430 Must be replaced when reassembling motor!
Grease
3HAC 3537-1
Used to lubricate the o-ring.
Guide pin, M8 x 100
3HAC 15520-1
For guiding the motor.
Guide pin, M8 x 150
3HAC 15520-2
For guiding the motor.
Rotation tool, motor
pinion
3HAC 17105-1
Used to rotate the motor pinion
when mating it to the gear, when
brakes are released with 24 VDC
power supply.
Power supply
24 VDC, max. 1,5 A.
For releasing the brakes.
Circuit Diagram
3HAC 16247-1
3HAC 13347-1
A
Included in the Repair Manual,
part 2.
111
3 Repair activities, manipulator
3.5.8 Refitting of motor, axis 4
Equipment, etc.
Spare part no. Art. no.
Standard toolkit
Note
3HAC 15571-1
The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be
required. See references to these procedures in the stepby-step instructions
below.
Refitting, motor
These procedures include references to the tools required.
The procedure below details how to refit motor, axis 4.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
Step
Action
Note/Illustration
1.
Make sure the o-ring on the circumference Art. no. specified in Required equipof the motor is seated properly. Lightly lubri- ment on page 111!
cate the o-ring with grease .
2.
In order to release the brakes, connect the Connect to connector R2.MP4
24 VDC power supply.
• +: pin 2
•
112
-: pin 5
3.
Fit the two guide pins, M8 in two of the
motor attachment holes.
Art. no. specified in Required equipment on page 111!
Shown in the figure Location of motor
on page 111!
4.
Fit the motor, with guidance of the pins,
making sure the motor pinion is properly
mated to the gear of gearbox 4.
Make sure the motor pinion does not
get damaged!
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.8 Refitting of motor, axis 4
Step
5.
Action
Note/Illustration
Use the rotation tool in order to rotate the
motor pinion when mating it to the gear!
Fit the motor, making sure the motor pinion
is properly mated to the gear, axis 4.
Art. no. specified in Required equipment on page 111!
Make sure the motor pinion does not
get damaged!
Make sure the motor is turned the right
direction, i.e. the cables facing forwards.
A
xx0200000165
The rotation tool is used beneath the
motor cover, directly on the motor shaft
as shown in figure above.
• A: Rotation tool.
6.
Remove the guide pins.
7.
Secure the motor with four attachment
screws and plain washers.
8.
Disconnect the brake release voltage.
9.
Reconnect all connectors beneath the
motor cover.
10. Refit the cover on top of the motor with its
four attachment screws.
11.
4 pcs: M8 x 25, tightening torque: 24
Nm.
Make sure the cover is tightly sealed!
Refit the cable gland cover at the cable exit Shown in the figure Location of motor
with its two attachment screws.
on page 111!
12. Perform a leak-down test if gearbox has
been drained.
Detailed in section Performing a leakdown test on page 21.
13. Refill the gearbox with oil if drained.
Detailed in "Oil change, axis 4 gearbox" in the Maintenance Manual.
14. Recalibrate the robot!
Detailed in "Calibration" in the Installation Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
3HAC 16247-1
A
113
3 Repair activities, manipulator
3.5.9 Removal of motor, axis 5
3.5.9 Removal of motor, axis 5
Location of motor
The motor axis 5 is located inside the upper arm tube, but attached to the wrist unit, as shown
in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Wrist complete on page 211.
C
B
A
xx0200000204
A
Motor, axis 5
B
Upper arm tube
C
Wrist unit
Required equipment
Equipment, etc.
Spare part no. Art. no.
Power supply
24 VDC, 1.5 A.
For releasing the brakes.
Removal tool, motor M10
3HAC 14972-1 Always use the removal tools
in pairs!
Measuring tool
6896 134-GN
Guide pin, M8 x 100
motor
3HAC 15520-1 For guiding the motor.
Guide pin, M8 x 150
motor
3HAC 15520-2 For guiding the motor.
Nipple
6896 134-AA
TREDO-washer
114
Note
For pressing out the pinion,
motor 5.
Use as a seal when pressing
out the pinion, motor 5.
Nipple
6896 901-282
For pressing out the pinion,
motor 5.
Oil injector
6369 901-280
For pressing out the pinion,
motor 5.
Circuit Diagram
3HAC 13347-1 Included in the Repair Manual, part 2
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.9 Removal of motor, axis 5
Equipment, etc.
Spare part no. Art. no.
Standard toolkit
Note
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
Removal, motor
These procedures include
references to the tools
required.
The procedure below details how to remove motor, axis 5.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
Step
Action
Note/Illustration
1.
Drain the oil from gearbox axis 5.
Detailed in "Oil change, gearbox axis 5"
in the Maintenance Manual.
2.
Remove the wrist unit.
Detailed in section Removal of complete
wrist unit on page 47.
3.
Place the wrist unit safely on a workbench, in a fixture or similar.
4.
Remove the cover on top of the motor by
unscrewing its four attachment screws.
5.
Remove the cable gland cover at the
cable exit by unscrewing its two attachment screws.
6.
Disconnect all connectors beneath the
motor cover and remove the separate
cable of the axis 5 motor.
7.
In order to release the brake, connect the Connect to either:
24 VDC power supply.
- connector R4.MP5 (in the motor):
• + : pin 2
•
- : pin 5
- connector R3.MP5 (on the separate
cable, if not removed):
• +: pin C
•
3HAC 16247-1
-: pin D
8.
Remove the motor by unscrewing its four
attachment screws and plain washers.
9.
Fit the two guide pins in two of the motor Art. no. specified in Required equipment
attachment screw holes.
on page 114!
A
115
3 Repair activities, manipulator
3.5.9 Removal of motor, axis 5
Step
116
Action
Note/Illustration
10.
If required, press the motor out of position Art. no. specified in Required equipment
by fitting removal tool, motor, M10 to the on page 114!
motor attachment screw holes.
Always use the removal tools in pairs
and diagonally!
11.
Lift the motor to get the pinion away from Make sure the motor pinion is not damthe gear and disconnect the brake
aged!
release voltage.
12.
Remove the motor by gently lifting it
straight out.
13.
Measure the distance between the motor Art. no. specified in Required equipment
flange, included eventual shims, and the on page 114!
outer surface of the pinion, with measur- Make a note of the distance.
ing tool.
14.
Press out the pinion from the dismounted
motor, with equipment specified in table
above.
The pinion is matched with the beveral
gear for axis 5. When the motor is
replaced the pinion must be removed
from the dismounted motor and mounted
onto the new motor shaft.
If the pinion is damaged the complete
wrist unit must be replaced!
A
Keep track of the shims between the
motor flange and the wrist housing.
Replacing the complete wrist unit is
detailed in sections Removal of complete wrist unit on page 47 /Refitting of
complete wrist unit on page 50.
3HAC 16247-1
3 Repair activities, manipulator
3.5.10 Refitting of motor, axis 5
3.5.10 Refitting of motor, axis 5
Location of motor
The motor axis 5 is located inside the upper arm tube, but attached to the wrist unit, as shown
in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Wrist complete on page 211.
C
B
A
xx0200000204
A
Motor, axis 5
B
Upper arm tube
C
Wrist unit
Required equipment
Equipment, etc.
3HAC 16247-1
Spare part no. Art. no.
Note
Motor axis 5, 175/2.55 3HAC 14673-7
Does not include pinion. Use the
pinion from the motor to be
replaced.
Includes o-ring 2152 2012-430.
Motor axis 5, 225/
3HAC 14673-10
2.55, 175/2.8, 125/3.2
and 200/2.75
Does not include pinion. Use the
pinion from the motor to be
replaced.
Includes o-ring 2152 2012-430.
Set of shim, motor
3HAC 7941-28 Used to obtain the correct distance between motor flange and
outer surface of motor pinion.
O-ring
2152 2012430
Must be replaced when reassembling motor!
Grease
3HAC 3537-1
For lubricating the o-ring.
Isopropanol
1177 1012-208 For cleaning motor pinion and
motor pinion hole.
Mineral oil
CS 320
For lubrication of pinion shaft and
pinion hole.
Press fixture
3HAC 4850-1
For pressing the pinion on to the
new motor.
A
117
3 Repair activities, manipulator
3.5.10 Refitting of motor, axis 5
Equipment, etc.
Spare part no. Art. no.
Note
Measuring tool
6896 134-GN
Guide pin, M8 x 100
3HAC 15520-1 For guiding the motor.
Guide pin, M8 x 150
3HAC 15520-2 For guiding the motor.
Power supply
24 VDC, 1.5 A.
For releasing the brakes.
Circuit Diagram
3HAC 13347-1 Included in the Repair Manual,
part 2.
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be
required. See references to these procedures in the step-bystep instructions
below.
Refitting, motor
These procedures include references to the tools required.
The procedure below details how to refit motor, axis 5.
Please observe the following before commencing any repair work on the manipulator:
Motors and gears are HOT after running the robot! Burns may result from touching the motors
or gears!
Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. securing the lower arm with fixtures before removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
Step
118
Action
Note/Illustration
1.
Make sure the o-ring on the circumference Art. no. specified in Required equipof the motor is seated properly. Lightly lubri- ment on page 117!
cate the o-ring with grease.
2.
Clean the motor pinion and the motor pinion Art. no. specified in Required equiphole in the motor, with isopropanol.
ment on page 117!
3.
Apply a thin film of mineral oil to the pinion Art. no. specified in Required equipshaft and the pinion hole in order to make
ment on page 117!
the pinion run smoothly and to achieve an
even friction torque when assembling the
pinion.
4.
Place the motor and pinion in the press fixture.
Art. no. specified in Required equipment on page 117!
5.
Press the pinion onto the new motor and
check the pressing force.
For an axis diameter of 15.5 mm, use min.
pressing force: 18.5 kN and max. pressing
force: 39.5 kN.
If the pressing force is outside the
given range or if the pinion "jumps" in
bit by bit, it must be dismounted,
checked, cleaned and oiled before it
is assembled once again!
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.10 Refitting of motor, axis 5
Step
Action
Note/Illustration
6.
Measure the distance between the motor
flange and the outer surface of the pinion
with the measuring tool.
Modify the distance with shims in order to
obtain the same distance as measured
when dismounting the old motor (+ 0-0,05
mm).
7.
In order to release the brake, connect the 24 Connect to either:
VDC power supply.
- connector R4.MP5 (in the motor):
• +: pin 2
•
-: pin 5
- connector R3.MP5 (on the separate
cable, if not removed):
• +: pin C
•
- : pin D
8.
Fit the two guide pins in two of the motor
attachment holes.
Art. no. specified in Required equipment on page 117!
9.
Fit the motor, with guidance from the pins,
making sure the motor pinion is properly
mated to the gear of axis 5.
Make sure the motor pinion does not
get damaged!
10. Secure the motor with four attachment
screws and plain washers.
11.
4 pcs: M8 x 25; tightening torque: 24
Nm.
Disconnect the brake release voltage.
12. Refit the separate cable of the axis 5 motor
and reconnect all connectors beneath the
motor cover.
13. Refit the cable gland cover at the cable exit
with its two attachment screws.
14. Refit the cover on top of the motor with its
four attachment screws.
Make sure the cover is tightly sealed!
15. Refit the wrist unit.
Detailed in section Refitting of complete wrist unit on page 50.
16. Perform a leak-down test.
Detailed in Performing a leak-down
test on page 21.
17. Refill the gear with oil.
Detailed in "Oil change, gearbox axis
5" in the Maintenance Manual.
18. Recalibrate the robot.
Detailed in "Calibration" in the Installation Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
3HAC 16247-1
A
119
3 Repair activities, manipulator
3.5.11 Removal of motor, axis 6
3.5.11 Removal of motor, axis 6
Location of motor
The motor axis 6 is located in the center of the wrist unit as shown in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Wrist complete on page 211.
A
B
xx0200000222
A
Wrist unit
B
Motor, axis 6
Required equipment
Equipment, etc.
Spare part no. Art. no.
Power supply
120
Note
24 VDC, 1.5 A.
For releasing the brakes.
Removal tool, motor M10
3HAC 14972-1 Always use the removal tools
in pairs!
Circuit Diagram
3HAC 13347-1 Included in the Repair Manual, part 2.
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.11 Removal of motor, axis 6
Equipment, etc.
Spare part no. Art. no.
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
Removal, motor
Note
These procedures include references to the tools required.
The procedure below details how to remove the motor, axis 6.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
Step
Action
Note/Illustration
1.
Run the robot to a position where the motor in axis
6 is pointed straight up. This position enables the
motor to be replaced without draining the gear oil,
which in turn saves time.
2.
Remove the rear motor cover by unscrewing six
attachment screws.
3.
Disconnect all connectors beneath the cover.
4.
In order to release the brake, connect the 24 VDC Connect to connector R3.MP6
power supply.
• +: pin 2
•
3HAC 16247-1
-: pin 5
5.
Remove the motor by unscrewing its four attachment screws and plain washers.
6.
If required, press the motor out of position by fitting Art. no. specified in Required
removal tool, motor to the motor attachment screw equipment on page 120!
holes.
Always use the removal tools
in pairs!
7.
Lift the motor carefully to get the pinion away from Make sure the motor pinion is
the gear and disconnect the brake release voltage. not damaged!
8.
Remove the motor by gently lifting it straight out.
A
121
3 Repair activities, manipulator
3.5.12 Refitting of motor, axis 6
3.5.12 Refitting of motor, axis 6
Location of motor
The motor axis 6 is located in the center of the wrist unit as shown in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Wrist complete on page 211.
A
B
xx0200000222
A
Wrist unit
B
Motor, axis 6
Required equipment
Equipment, etc.
122
Spare part no. Art. no.
Note
Motor axis 6, 175/2.55 3HAC 15990-1
Includes motor 3HAC 14673-8.
Includes pinion 3HAC 10122-24.
Includes o-ring 2152 2012-430.
Motor axis 6, 225/
3HAC 15991-1
2.55, 175/2.8, 125/3.2
and 200/2.75
Includes motor 3HAC 14673-8.
Includes pinion 3HAC 11173-3.
Includes o-ring 2152 2012-430.
O-ring
2152 2012-430 Must be replaced when reassembling motor!
Guide pin, M8 x 100
3HAC 15520-1
For guiding the motor.
Guide pin, M8 x 150
3HAC 15520-2
For guiding the motor.
A
3HAC 16247-1
3 Repair activities, manipulator
3.5.12 Refitting of motor, axis 6
Equipment, etc.
Spare part no. Art. no.
Note
Power supply
24 VDC, 1.5 A.
For releasing the brakes.
Grease
3HAB 3537-1
For lubricating the o-ring
Circuit Diagram
3HAC 13347-1
Included in Repair Manual, part
2.
Standard toolkit
3HAC 15571-1
The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be
required. See references to these procedures in the step-bystep instructions
below.
Refitting, motor
These procedures include references to the tools required.
The procedure below details how to refit motor, axis 6.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
Step
Action
Note/Illustration
1.
Make sure the o-ring on the circumference of Art. no. specified in Required equipthe motor is seated properly. Lightly lubricate ment on page 122!
the o-ring with grease.
2.
In order to release the brake, connect the 24
VDC power supply.
Connect to connector R3.MP6
• +: pin 2
•
3HAC 16247-1
-: pin 5
3.
Fit the two guide pins in two of the motor
attachment holes.
Art. no. specified in Required equipment on page 122!
4.
Fit the motor, with guidance from the pins,
making sure the motor pinion is properly
mated to the gear of gearbox, axis 6.
Make sure the pinion on the motor
shaft is not damaged!
5.
Remove the guide pins.
6.
Secure the motor with four attachment screws 4 pcs: M8 x 25, tightening torque:
and plain washers.
24 Nm.
7.
Disconnect the brake release voltage.
8.
Reconnect all connectors beneath the motor
cover.
9.
Refit the cover on top of the motor with its six Make sure the cover is tightly
attachment screws.
sealed!
10.
Recalibrate the robot.
A
Detailed in "Calibration" in the
Installation Manual.
123
3 Repair activities, manipulator
3.5.12 Refitting of motor, axis 6
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
124
A
3HAC 16247-1
3 Repair activities, manipulator
3.6.1 Removal of gearbox, axis 1
Section 3.6: Gearboxes
3.6.1 Removal of gearbox, axis 1
Location of gearbox
The axis 1 gearbox is located between the frame and base as shown in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Base incl. Frame on page 203.
B
A
C
xx0300000015
A
Gearbox, axis 1
B
Frame
C
Base
-
Attachment screws, base to gearbox (not shown in figure)
Required equipment
Equipment, etc.
3HAC 16247-1
Spare part no. Art. no.
Note
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Support, base and gear 1
3HAC 15535-1
Lifting device, base and
gear 1
3HAC 15560-1
Lifting tool (chain)
3HAC 15556-1
A
125
3 Repair activities, manipulator
3.6.1 Removal of gearbox, axis 1
Equipment, etc.
Spare part no. Art. no.
Note
Other tools and procedures
may be required. See references to these procedures
in the step-by-step instructions below.
Removal, gearbox
These procedures include
references to the tools
required.
The procedure below details how to remove gearbox, axis 1.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
The gear box weighs 155 kg! All lifting equipment used must be dimensioned accordingly!
The base (without gearbox 1) weighs 263 kg! All lifting equipment used must be dimensioned
accordingly!
Step
1.
Action
Note/Illustration
Move the robot to its most stable
position, shown in the figure to the
right.
.
xx0300000022
126
2.
Drain the oil from gearbox 1.
3.
Disconnect all cabling in the rear of
the manipulator base and remove
the cable support plate underneath
the inside of the base.
4.
Pull the disconnected cabling up
through the center of gearbox 1.
5.
Remove the complete arm system. Detailed in section Removal of complete arm
system on page 36.
A
Detailed in "Oil change, gearbox, axis 1" in the
Maintenance Manual.
3HAC 16247-1
3 Repair activities, manipulator
3.6.1 Removal of gearbox, axis 1
Step
Action
Note/Illustration
6.
Remove the manipulator’s attachment screws to unfasten the base
from the foundation.
7.
Attach the lifting device, base and
gear 1 and theand lifting tool
(chain) , to the gearbox.
Art. no. specified in Required equipment on
page 125!
8.
Lift the manipulator base to allow
fitting the support, base and gear 1
on each sides of the base.
Art. no. specified in Required equipment on
page 125!
9.
Fit the support, base.
Make sure the base remains in a
stable position before performing
any work underneath the base!
10.
Unscrew the 18 attachment screws
(B), and remove the 3 washers (C),
shown in the figure to the right.
A
B
C
xx0200000227
A view from below.
• A: Oil drain hose
11.
•
B: Gearbox 1 attachment screws, 18
pcs
•
C: Washers, 3 pcs
Remove the cable guide in the center of gearbox 1 by unscrewing its
attachment screws.
A
xx0200000256
•
12.
3HAC 16247-1
A: Location for attachment screws,
cable guide (cable guide removed in
figure)
Lift the gearbox away with the
already mounted lifting tools.
A
127
3 Repair activities, manipulator
3.6.2 Refitting of gearbox, axis 1
3.6.2 Refitting of gearbox, axis 1
Location of gearbox
The axis 1 gearbox is located between the frame and base as shown in the figure below.
A more detailed view of the component may be found in Foldout section Base incl. Frame on
page 203.
B
A
C
xx0300000015
A
Gearbox, axis 1
B
Frame
C
Base
-
Attachment screws, base to gearbox (not shown in figure)
Required equipment
128
Equipment, etc.
Spare part no. Art. no.
Note
Gearbox, axis 1
3HAC 10828-8
Includes gearbox 3HAC
10828-3.
Includes all o-rings and sealing
rings!
O-ring
3HAB 3772-54
Replace only when damaged!
O-ring
3HAB 3772-55
Replace only when damaged!
Sealing ring
3HAC 11581-4
Replace only when damaged!
Grease
3HAC 3537-1
For lubricating the o-rings
Support, base and
gear 1
3HAC 15535-1
A
3HAC 16247-1
3 Repair activities, manipulator
3.6.2 Refitting of gearbox, axis 1
Equipment, etc.
Spare part no. Art. no.
Note
Lifting device, base
and gear 1
3HAC 15560-1
Lifting tool (chain)
3HAC 15556-1
Standard toolkit
3HAC 15571-1
Other tools may be
required as detailed in
sections to which references are made!
Refitting, gearbox
The contents are defined in
section Standard toolkit on
page 18!
These procedures include references to the tools required.
The procedure below details how to refit gearbox, axis 1.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
The gear box weighs 155 kg! All lifting equipment used must be dimensioned accordingly!
The base (without gearbox 1) weighs 263 kg! All lifting equipment used must be dimensioned
accordingly!
Step
1.
3HAC 16247-1
Action
Note/Illustration
If the base is not supported with Support, Mounting of the Support, base and
base and gear 1, this should be done first. gear 1 is detailed in section Removal of
gearbox, axis 1 on page 125.
A
129
3 Repair activities, manipulator
3.6.2 Refitting of gearbox, axis 1
Step
2.
Action
Note/Illustration
Make sure the two o-rings (C, D) on the cir- Art no. specified in Required equipcumference of the gearbox are seated
ment on page 128!
properly in their grooves respectively.
Lightly lubricate the o-rings with grease .
Make sure the small o-ring around the oil
hole is fitted properly!
E
A
D
C
xx0200000055
3.
•
A: Guide pin
•
C: O-ring 3HAB 3772-54
•
D: O-ring 3HAB 3772-55
•
E: Sealing ring 3HAC 11581-4
Refit the cable guide in the center of gearbox 1 with its attachment screws.
A
xx0200000256
•
130
A: Location for attachment
screws, cable guide (cable
guide removed in figure)
4.
Fit the lifting device, base and the lifting tool Art no. specified in Required equip(chain) to the gearbox.
ment on page 128!
5.
Lift the gearbox to its mounting position in
the center of the base.
6.
Make sure the guide pin in the bottom face Shown in the figure xx0200000055
of the gearbox is properly aligned with the above!
base.
A
3HAC 16247-1
3 Repair activities, manipulator
3.6.2 Refitting of gearbox, axis 1
Step
7.
Action
Note/Illustration
Secure the gearbox and the three washers M16 x 70, 12.9 quality UNBRAKO,
with the 18 attachment screws, base to
tightening torque: 300 Nm.
gearbox (B).
Reused screws may be used, providing they are lubricated as detailed in
"Screw joints" before fitting.
A
B
C
xx0200000227
A view from below.
• A: Oil drain hose
8.
Lift the manipulator base and gearbox 1 to
allow removing the support, base and gear.
9.
Secure the base to the mounting site.
10. Refit the complete arm system.
11.
•
B: Attachment screws, base to
gearbox, 18 pcs
•
C: Washers, 3 pcs
Detailed in "Orienting and securing the
manipulator" in the Installation Manual.
Detailed in section Refitting of complete arm system on page 39.
This is a complex task to be performed
with utmost care in order to avoid injury
or damage!
Refit the cable support plate underneath
the inside of the base and reconnect the
cabling in the rear of the manipulator base.
12. Perform a leak-down test.
Detailed in Performing a leak-down
test on page 21.
13. Refill the gearbox with oil.
Detailed in "Oil change, gearbox axis
1" in the Maintenance Manual.
14. Recalibrate the robot.
Detailed in "Calibration" in the Installation Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
3HAC 16247-1
A
131
3 Repair activities, manipulator
3.6.3 Removal of gearbox axis 2
3.6.3 Removal of gearbox axis 2
Different designs
Between the axis 2 motor and gearbox there is a motor attachment which exists in two different designs.
•
The early design of the motor attachment is attached directly to the gearbox, with the
front gearbox attachment screws.
•
The later design of the motor attachment is attached directly to the frame. This design
also includes an additional cover that overlaps the motor attachment and holds the oil
plugs.
The service work differ some between the designs. Be aware of the differences made in the
instruction.
Location of gearbox
The gearbox, axis 2, is located in the lower arm rotational center, underneath the motor attachment.
The figure below shows the later design of the motor attachment.
A more detailed view of the component and its location may be found in the Foldout section
Frame-Lower arm 1 on page 205.
D
A
B
J
H
I
E
F
C
G
xx0200000171
132
A
Gearbox axis 2 (behind motor attachment, not shown in figure )
B
Attachment hole for locking screw, lower arm
C
Attachment holes inside of frame for fixture lower arm
D
Attachment holes for fixture lower arm
E
Balancing device
F
Motor axis 2
G
Rear gearbox attachment screws
A
3HAC 16247-1
3 Repair activities, manipulator
3.6.3 Removal of gearbox axis 2
H
Attachment screws, motor attachment
I
Additional cover
J
Motor attachment
Required equipment
Equipment etc.
Spare part no. Art. no.
Fixture, lower arm
3HAC 13659-1
Locking screw, lower
arm
3HAA 1001-266 M16 x 60.
Accompanying the fixture.
Lifting tool, gearbox
axis 2
3HAC 13698-1
Guide pins, M12 x 150
3HAC 13056-2
For guiding the gearbox.
Guide pins, M12 x 250
3HAC 13056-4
For guiding the gearbox.
Press tool, balancing
device
3HAC 15767-1
Hydraulic cylinder
3HAC 11731-1
To be used with the press tool
and the hydraulic pump, when
unloading the balancing
device.
Hydraulic pump
3HAC 13086-1
To be used with the press tool
and the hydraulic cylinder,
when unloading the balancing
device.
Standard toolkit
3HAC 15571-1
The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
Removal, gearbox
Note
Includes locking screw for
securing the lower arm.
These procedures include references to the tools required.
The procedure below details how to remove the gearbox, axis 2.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
The gear box weighs 52 kg! All lifting equipment used must be dimensioned accordingly!
3HAC 16247-1
A
133
3 Repair activities, manipulator
3.6.3 Removal of gearbox axis 2
Step
Action
Note/Illustration
1.
Remove any equipment fitted to the turning
disk.
2.
Run the robot to the calibration position. The
upper arm can be directed in three different
ways, shown in the figure to the right.
The lowered position, as in figure A, is recommended as it gives the least load on the
tool.
A
B
C
xx0200000260
3.
If the manipulator is fitted with moveable
mechanical stops on axis 2 (not stock equipment), these must be removed at this point.
The attachment holes of the mechanical
stops are used to attach the fixture, lower
arm.
4.
The locking screw for the lower arm is
Art. no. specified in Required equipattached to the fixture tool, remove it from ment on page 133!
there (positioned as A in figure below).
Shown in the figure Location of gearSecure the lower arm to the frame by insert- box on page 132!
ing the locking screw into a specific attachment hole.
5.
Fit the fixture, lower arm to prevent the lower
arm from falling.
• Make sure that both adjusters (B) on
the fixture are screwed back.
•
•
Art. no. specified in Required equipment on page 133!
Attachment holes for the fixture are
shown in the figure Location of gearbox on page 132!
Align the fixture with the frame and
Make sure the fixture is pressed
lower arm.
tightly against the lower arm before
Tighten the four M16 bolts (C) on the
securing with screws!
inside of the frame, in attachment
E
A B D
holes , with tightening torque: 220
Nm.
•
Screw in the two adjusters (B) until
they rest against the flats on the
lower arm. Tighten by hand.
•
Lock, using the two ring nuts (D).
•
Tighten the two M12 bolts (E) in the
attachment holes, fixture lower arm
with tightening torque: 91 Nm.
C
xx0200000261
134
A
•
A: Locking screw, lower arm
•
B: Adjusters
•
C: M16 bolts (4 pcs)
•
D: Ring nuts (2 pcs)
•
E: M12 bolts (2 pcs)
3HAC 16247-1
3 Repair activities, manipulator
3.6.3 Removal of gearbox axis 2
Step
Action
Note/Illustration
6.
Unload the balancing device shaft by using
press tool, balancing device.
Art. no. specified in Required equipment on page 133!
Detailed in section Unloading the balancing device on page 89!
7.
Drain the gearbox, axis 2.
Notice! Time-consuming activity!
Detailed in "Oil change, gearbox axis
2" in Maintenance Manual.
8.
Remove the motor, axis 2.
Detailed in section Removal of motor
axis 2 on page 97.
9.
Remove the 33 rear gearbox attachment
screws from inside the lower section of the
lower arm.
Shown in the figure Location of gearbox on page 132!
10. Remove the motor attachment.
Read more about the variations in
In the early design this is done by unscrew- design in Different designs on page
ing the 24 front gearbox attachment screws. 132.
In the later design this is done by unscrew- Shown in the figure Location of gearing the 15 attachment screws, motor attach- box on page 132!
ment.
11. If the robot is equipped with the later design
of the motor attachment; now remove the 24
front gearbox attachment screws (C), shown
in the figure to the right.
A
B
C
xx0200000166
•
A: Holes for guide pins, sealing ax 2/3
•
B: Rear gearbox attachment
screws (33 pcs)
•
C: Front gearbox attachment
screws (24 pcs)
12. Fit two guide pins in 180°relation to each
Art. no. specified in Required equipother in the empty holes of the front gearbox ment on page 133!
attachment screws.
3HAC 16247-1
A
135
3 Repair activities, manipulator
3.6.3 Removal of gearbox axis 2
Step
Action
Note/Illustration
13. If required, apply two M12 screws to the
holes (A), shown in the figure to the right, to
press it free.
A
A
xx0200000172
•
A: M12 holes for pressing the
gearbox out.
14. Fit the lifting tool, gearbox axis 2 to the gear- Art. no. specified in Required equipbox.
ment on page 133!
15. Remove the gearbox axis 2 using an overhead crane or similar, with guidance from the
mounted guide pins.
16. Remove the friction washer and clean it.
17. Remove the sealing from the lower arm.
136
A
3HAC 16247-1
3 Repair activities, manipulator
3.6.4 Refitting of gearbox axis 2
3.6.4 Refitting of gearbox axis 2
Different designs
Between the axis 2 motor and gearbox there is a motor attachment which exists in two different designs.
•
The early design of the motor attachment is attached directly to the gearbox, with the
front gearbox attachment screws.
•
The later design of the motor attachment is attached directly to the frame. This design
also includes an additional cover that overlaps the motor attachment and holds the oil
plugs.
The service work differ some between the designs. Be aware of the differences made in the
instruction.
Location of gearbox
The gearbox, axis 2, is located in the lower arm rotational center, underneath the motor attachment.
The figure below shows the later design of the motor attachment.
A more detailed view of the gearbox may be found in the Foldout section Frame-Lower arm
1 on page 205.
D
A
B
J
H
I
E
F
C
G
xx0200000171
3HAC 16247-1
A
Gearbox axis 2 (behind motor attachment, not shown in figure )
B
Attachment hole for locking screw, lower arm
C
Attachment holes inside of frame for fixture, lower arm
D
Attachment holes for fixture, lower arm
E
Balancing device
F
Motor axis 2
G
Rear gearbox attachment screws
A
137
3 Repair activities, manipulator
3.6.4 Refitting of gearbox axis 2
H
Attachment screws, motor attachment
I
Additional cover
J
Motor attachment
Required equipment
Equipment
Spare part no. Art. no.
Note
Gear, axis 2
3HAC 10828-12
Includes gearbox 3HAC 1082811 and all o-rings!
Does not include "Sealing, axis
2/3"!
O-ring
3HAB 3772-68 2 pcs
O-ring
3HAB 3772-69 O-rings in the additional cover.
3HAB 3772-70 Should be replaced if damaged!
Sealing, axis 2/3
3HAC 12443-2 A new sealing must be used on
each assembly!
Grease
3HAB 3537-1
Lifting tool, gearbox
axis 2
3HAC 13698-1
Guide pin, M12 x 150
3HAC 13056-2
Guide pin, M12 x 200
3HAC 13056-3
Guide pin, sealing
axis 2/3, 80 mm
3HAC 14628-1 For guiding the sealing!
Guide pin, sealing
axis 2/3, 100 mm
3HAC 14628-2 For guiding the sealing!
Gearbox crank
3HAC 16488-1 Used to turn the gear in correct
position.
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be
required. See references to these procedures in the step-bystep instructions
below.
Refitting, gearbox
For lubricating o-rings.
These procedures include references to the tools required.
The procedure below details how to refit gearbox axis 2.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
138
A
3HAC 16247-1
3 Repair activities, manipulator
3.6.4 Refitting of gearbox axis 2
The gear box weighs 52 kg! All lifting equipment used must be dimensioned accordingly!
Step
1.
Action
Note/Illustration
Make sure the both o-rings (A) are fitted to
the gearbox as shown in the figure to the
right. Lightly lubricate them with grease.
Art. no. specified in Required equipment on page 138!
A
xx0200000173
•
2.
Fit the lifting tool, gearbox axis 2 to the
gearbox.
3.
Fit the guide pins, sealing axis 2/3 on the
gearbox, axis 2.
Use the attachment holes (A) shown in the
figure to the right!
A: O-rings (2 pcs), gearbox
axis 2.
Art. no. specified in Required equipment on page 138!
A
B
C
xx0200000166
3HAC 16247-1
A
•
A: Holes for guide pins, sealing axis 2/3 on the gearbox.
•
B: The gearboxes rear attachment screws (33 pcs)
•
C: The gearboxes front
attachment screws (24 pcs)
139
3 Repair activities, manipulator
3.6.4 Refitting of gearbox axis 2
Step
140
Action
Note/Illustration
4.
Fit the new sealing, axis 2/3 on the gearArt. no. specified in Required equipbox, axis 2, and on to the guide pins.
ment on page 138!
Do not remove the guide pins for the sealing
until the rear gearbox attachment screws
are secured.
5.
Fit two guide pins, M12 in 180°relation to Art. no. specified in Required equipeach other in the frame, in the screw holes ment on page 138!
for the gearboxes front attachment screws.
6.
Fit the cleaned friction washer onto the
guide pins, M12.
7.
Lift the gearbox to its mounting position and
slide it onto the guiding pins attached in the
frame, through the front attachment screw
holes.
8.
Align the gearbox attachment screw holes
to the hole patterns in the lower arm, with
help from the guide pins, sealing axis 2/3.
If necessary, use a gearbox crank to turn
the gear!
Use the gearbox crank with caution! The
gearbox may be damaged if the crank is
inserted too far into the gear!
9.
Fit the gearbox with guidance from the
guide pins and slide it into position.
If necessary, use the front gearbox attachment screws to press the gearbox into
place.
10.
Remove the lifting tool from the gearbox
Choose correct instruction depending
and continue refitting the motor attachment on which motor attachment the robot
as described below.
is equipped with. Read more about
the variations in Different designs on
page 137.
11.
Early design of motor attachment: Lift the
motor attachment and slide it on to the
guide pins.
If necessary, use a plastic mallet to knock
the motor attachment into place.
12.
Insert and secure 22 of the 24 front gearbox Shown in the figure xx0200000166
attachment screws.
above!
Tightening torque: 115 Nm.
13.
Remove the guide pins, M12 and tighten the
two remaining screws as detailed above.
14.
Later design of the motor attachment:
Art. no. specified in Required equipLubricate the o-ring at the rear of the motor ment on page 138!
attachment with grease.
Replace if damaged.
15.
Later design of the motor attachment:
Refit the motor attachment by pressing it
against the frame.
16.
Later design of the motor attachment: Refit Shown in the figure Location of gearthe attachment screws, motor attachment. box on page 137.
15 pcs: M8 x 25, tightening torque: 24
Nm.
A
Art. no. specified in Required equipment on page 138!
3HAC 16247-1
3 Repair activities, manipulator
3.6.4 Refitting of gearbox axis 2
Step
Action
Note/Illustration
17.
Insert and secure 31 of the 33 rear gearbox Shown in the figure Location of gearattachment screws on the inside of the
box on page 137!
lower arm.
M12 x 50, 12.9 quality UNBRAKO,
tightening torque: 115 Nm.
Reused screws may be used, providing they are lubricated as detailed in
Screw joints on page 15 before fitting.
18.
Remove the guide pins, sealing axis 2/3,
and tighten the two remaining screws as
detailed above.
19.
Refit the motor.
Detailed in section Refitting of motor
axis 2 on page 100.
20.
Perform a leak-down test.
Detailed in section Performing a leakdown test on page 21.
21.
Refill the gearbox with oil.
Detailed in "Oil change, gearbox axis
2" in the Maintenance Manual.
22.
Restore the balancing device.
Detailed in section Restoring the balancing device on page 91!
23.
Remove the fixture, lower arm.
24.
Remove the locking screw, lower arm, and
re-attach it to the fixture tool.
25.
Refit any mechanical stops if such were
removed during disassembly.
26.
Refit any equipment to the turning disc if
such was removed during disassambly.
27.
Recalibrate the robot.
Detailed in "Calibration" in the Installation Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
3HAC 16247-1
A
141
3 Repair activities, manipulator
3.6.5 Removal of gearbox, axis 3
3.6.5 Removal of gearbox, axis 3
Location of gearbox
The axis 3 gearbox is located in the upper arm rotational center as shown in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Upper arm on page 209.
A
C
D
B
xx0200000194
A
Gearbox, axis 3 (sealing, axis 2/3 between lower arm and gearbox 3)
B
Motor, axis 3
C
Upper arm
D
Gearbox attachment screws (24 pcs)
Required equipment
Equipment, etc.
142
Spare part no. Art. no.
Mech stop axis 3
3HAC 12708-1
Washers for Mech
stop axis 3
3HAA 1001-186
A
Note
Used to secure the upper arm.
Use attachment screws 3HAB
3409-86 (M16 x 60).
3HAC 16247-1
3 Repair activities, manipulator
3.6.5 Removal of gearbox, axis 3
Equipment, etc.
Spare part no. Art. no.
Guide pin, M12 x 200
3HAC 13056-3
For guiding the gearbox.
Guides are to be used in pairs.
Guide pin, M12 x 250
3HAC 13056-4
For guiding the gearbox.
Guides are to be used in pairs.
Lifting eye, M12
3HAC 14457-3
Standard toolkit
3HAC 15571-1
Other tools and procedures may be
required. See references to these procedures in the step-bystep instructions
below.
Removal, gearbox
Note
The contents are defined in section Standard toolkit on page 18!
These procedures include references to the tools required.
The procedure below details how to remove gearbox, axis 3.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
The gear box weighs 52 kg! All lifting equipment used must be dimensioned accordingly!
Step
1.
Action
Note/Illustration
Secure the upper arm in a horizontal posi- Art. no. specified in Required equiption using a mechanical stop.
ment on page 142.
Fit the mechanical stop to the third and
final attachment hole (A), below the fixed
mechanical stop (B) in the upper arm,
shown in the figure to the right.
Tightening torqure: 115 Nm.
B
A
xx0300000051
3HAC 16247-1
2.
Remove the motor, axis 3.
Detailed in section Removal of motor,
axis 3 on page 103.
Note! When removing the motor axis
3, the brake on axis 3 is released. Make
sure the upper arm is secured and
enabled to move!
3.
Remove the upper arm.
Detailed in section Removal of upper
arm on page 54.
A
143
3 Repair activities, manipulator
3.6.5 Removal of gearbox, axis 3
Step
Action
Note/Illustration
4.
Remove the sealing, axis 2/3 between
gearbox and lower arm.
On reassembly a new sealing must be
used!
5.
Place the upper arm safely on a workbench, in a fixture or similar.
6.
Remove the gearbox attachment screws.
7.
Fit the two guide pins, M12 in 180°relation Art. no. specified in Required equipto each other in the gearbox attachment ment on page 142!
screw holes.
8.
If required, apply M12 screws to the holes
(A) shown in the figure to the right to press
the gearbox free.
Shown in the figure Location of gearbox
on page 142!
A
C
A
B
xx0200000201
144
9.
Fit the lifting eye, M12 to the gearbox, in
one of the upper attachment screw holes
that attaches the gearbox to the lower
arm.
10.
Remove the gearbox, with guidance from
the guide pins, using an overhead crane or
similar.
A
•
A: M12 holes for pressing the
gearbox out
•
B: Gearbox attachment screw
holes
•
C: Upper attachment screw
holes, gearbox - lower arm
Art. no. specified in Required equipment on page 142!
3HAC 16247-1
3 Repair activities, manipulator
3.6.6 Refitting of gearbox, axis 3
3.6.6 Refitting of gearbox, axis 3
Location of gearbox
The axis 3 gearbox is located in the upper arm rotational center as shown in the figure below.
A more detailed view of the component and its location may be found in the Foldout section
Upper arm on page 209.
A
C
D
B
xx0200000194
A
Gearbox, axis 3 (sealing, axis 2/3 between lower arm and gearbox 3)
B
Motor, axis 3
C
Upper arm
D
Gearbox attachment screws
Required equipment
Equipment, etc.
Spare part no. Art. no.
Note
Gearbox, axis 3
3HAC 10828-12
Includes gearbox 3HAC
10828-11
Includes all o-rings!
Does not include "Sealing, axis
2/3"!
O-ring
3HAC 16247-1
3HAB 3772-68 2 pcs.
A
145
3 Repair activities, manipulator
3.6.6 Refitting of gearbox, axis 3
Equipment, etc.
Spare part no. Art. no.
Note
Grease
3HAB 3537-1
Sealing, axis 2/3
3HAC 12443-2 A new sealing must be used on
each assembly!
Lifting eye, M12
3HAC 14457-3
Guide pin, M12 x 200
3HAC 13056-3 For guiding the gearbox.
Guides are to be used in pairs.
Guide pin, M12 x 250
3HAC 13056-4 For guiding the gearbox.
Guides are to be used in pairs.
Guide pin, sealing axis
2/3, 80 mm
3HAC 14628-1 For guiding "Sealing, axis 2/3".
Guides are to be used in pairs.
Guide pin, sealing axis
2/3, 100 mm
3HAC 14628-2 For guiding "Sealing, axis 2/3".
Guides are to be used in pairs.
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
Refitting, gearbox
For lubricating the o-rings.
These procedures include references to the tools required.
The procedure below details how to refit gearbox, axis 3.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
The gear box weighs 52 kg! All lifting equipment used must be dimensioned accordingly!
Step
146
Action
Note/Illustration
1.
Turn the upper arm in such a position that
the gear mating surface faces upwards.
2.
Fit two guide pins in 180°relation to each
Art. no. is specified in Required equipother in the gearbox attachment holes in the ment on page 145!
upper arm.
3.
Fit the lifting eye, M12 to the gearbox.
A
Art. no. is specified in Required equipment on page 145!
3HAC 16247-1
3 Repair activities, manipulator
3.6.6 Refitting of gearbox, axis 3
Step
4.
Action
Note/Illustration
Make sure the o-rings are fitted to the gear- Art. no. is specified in Required equipbox. Apply grease to the o-rings to make
ment on page 145!
sure they stick in their grooves during
A
assembly.
xx0100000136
•
A: O-rings, gearbox ax 3
5.
Lift the gearbox to its mounting position.
6.
Turn the gearbox to align the attachment
screw holes with those in the upper arm.
7.
Fit the gearbox onto the guide pins and slide Make sure the gearbox and o-ring are
it into position.
seated properly and correctly oriented!
8.
Remove the lifting tool.
9.
Secure the gearbox with 22 of the 24 gearbox attachment screws.
Remove the guide pins and tighten the
remaining two screws.
24 pcs: M12 x 60.
Tightening torque: 115 Nm.
Reused screws may be used, providing they are lubricated as detailed in
Screw joints on page 15 before fitting.
10. Refit the upper arm with a new sealing, axis Art. no. is specified in Required equip2/3 .
ment on page 145!
Detailed in section Refitting of upper
arm on page 57!
11. Refit the motor.
Detailed in section Refitting of motor,
axis 3 on page 106.
12. Remove the mechanical stop used to secure
the upper arm.
3HAC 16247-1
13. Recalibrate the robot!
Detailed in "Calibration" in the Installation Manual.
A
147
3 Repair activities, manipulator
3.6.6 Refitting of gearbox, axis 3
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
148
A
3HAC 16247-1
3 Repair activities, manipulator
3.6.7 Removal of gearbox, axis 6
3.6.7 Removal of gearbox, axis 6
Location of gearbox
The axis 6 gearbox is located in the center of the wrist unit as shown in the figure below.
The different robot versions result in two different designs of the gearbox.
A more detailed view of the component and its location may be found in the Foldout section
Wrist complete on page 211.
A
A
D
B2
B1
C
xx0200000219
A
Gearbox, axis 6
B1
Attachment screws and washers, gearbox for robot version 175/2.55 (8 pcs)
B2
Attachment screws and washers, gearbox for robot version 225/2.55, 175/2.8, 125/
3.2 and 200/2.75 (18 pcs)
C
Oil plug, draining
D
Oil plug, filling
-
O-ring (not shown in figure)
Required equipment
Equipment, etc.
Spare part no. Art. no.
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be required.
See references to
these procedures in
the step-by-step
instructions below.
3HAC 16247-1
Note
These procedures include references to the tools required.
A
149
3 Repair activities, manipulator
3.6.7 Removal of gearbox, axis 6
Removal, gearbox
The procedure below details how to remove gearbox, axis 6.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Whenever parting/mating motor and gearbox, the gears may be damaged if excessive force
is used!
Step
Action
Note/Illustration
1.
Drain the oil from gearbox, axis 6.
Detailed in "Oil change, gearbox
axis 6" in the Maintenance Manual.
2.
Remove the turning disc.
Detailed in section Removal of
turning disk on page 42.
3.
Remove the gearbox by unscrewing its 8 or 18 Shown in the figure Location of
attachment screws and washers (amount
gearbox on page 149!
depends on robot version).
4.
If required, apply M8 screws to the holes shown
in the figure beside to press the gearbox out
(not available in robot version 175/2.55).
A
A
xx0200000220
•
5.
150
A: M8 holes for pressing
the gearbox out
Remove the gearbox axis 6 by lifting it out care- Be careful not to damage the motor
fully.
pinion!
A
3HAC 16247-1
3 Repair activities, manipulator
3.6.8 Refitting of gearbox, axis 6
3.6.8 Refitting of gearbox, axis 6
Location of gearbox
The axis 6 gearbox is located in the center of the wrist unit as shown in the figure below.
The different robot versions result in two different designs of the gearbox.
A
A
D
B2
B1
C
xx0200000219
A
Gearbox, axis 6
B1
Attachment screws and washers, gearbox for robot version 175/2.55 (8 pcs)
B2
Attachment screws and washers, gearbox for robot version 225/2.55, 175/2.8, 125/
3.2 and 200/2.75 (18 pcs)
C
Oil plug, draining
D
Oil plug, filling
-
O-ring (not shown in figure)
Required equipment
3HAC 16247-1
Equipment, etc.
Spare part no. Art. no.
Note
Gear axis 6, 175/2.25
3HAC 10828-10
Includes o-ring 3HAB 377258.
Gear axis 6, 225/2.55,
175/2.8, 125/3.2 and
200/2.75
3HAC 10828-13
Includes o-ring 3HAB 377257.
Washers
3HAA 1001-172
O-ring
3HAB 3772-58/57 Must be replaced when reassembling gearbox!
Grease
3HAB 3537-1
A
Not included in gearbox!
Replace only when damaged!
For lubricating o-ring.
151
3 Repair activities, manipulator
3.6.8 Refitting of gearbox, axis 6
Equipment, etc.
Spare part no. Art. no.
Standard toolkit
Note
3HAC 15571-1
Other tools and procedures may be required.
See references to
these procedures in the
step-by-step instructions below.
Refitting, gearbox
The contents are defined in
section Standard toolkit on
page 18!
These procedures include
references to the tools
required.
The procedure below details how to refit gearbox, axis 6.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Step
1.
Action
Note/Illustration
Make sure the o-ring is fitted to the Art. no. specified in Required equipment on
rear of the gearbox. Lightly lubricate page 151!
the o-ring with grease.
A
xx0100000132
•
2.
152
Insert the gearbox, axis 6 into the
wrist unit.
A
A: O-ring, gearbox axis 6
Art. no. specified in Required equipment on
page 151!
Shown in the figure Location of gearbox on
page 151!
Make sure the gears of the gearbox mate with
those of the motor!
3HAC 16247-1
3 Repair activities, manipulator
3.6.8 Refitting of gearbox, axis 6
Step
Action
Note/Illustration
3.
Secure the gearbox with the attach- Shown in figure above!
ment screws and washers.
8 pcs or 18 pcs (depending on robot version):
M8 x 40, 12.9 quality UNBRAKO, tightening
torque: 30 Nm.
Reused screws may be used, providing they
are lubricated as detailed in Screw joints on
page 15 before fitting.
4.
Refit the turning disc.
Detailed in section Refitting of turning disk on
page 44.
5.
Perform a leak-down test.
Detailed in section Performing a leak-down
test on page 21.
6.
Refill the gearbox with oil.
Detailed in "Oil change, gearbox axis 6" in the
Maintenance Manual.
7.
Recalibrate the robot.
Detailed in "Calibration" in the Installation
Manual.
When performing the first test run after a service activity (repair, installation or maintenance),
it is vital that:
- all the service tools and other foreign objects are removed from the manipulator!
- all normal safety equipment is installed properly, e.g. TPU enabling device.
- all personnel is standing at a safe distance from the manipulator, i.e. out of its reach behind
any safety fences, etc.
- special attention is paid to the function of the part previously serviced.
3HAC 16247-1
A
153
3 Repair activities, manipulator
3.6.8 Refitting of gearbox, axis 6
154
A
3HAC 16247-1
4 Repair activities, controller cabinet
4.0.1 Introduction
Chapter 4: Repair activities, controller cabinet
4.0.1 Introduction
Definitions
This chapter details all repair activities recommended for the controller.
It is made up of separate units, each detailing a specific repair activity, e.g. Removal or Refitting of a certain component in the controller. Each unit contains all information required to
perform the activity, e.g. spare parts numbers, required special tools and materials.
The chapter is divided into:
3HAC 16247-1
•
Removal instructions for all components
•
Refitting instructions for all components
•
Remaining instructions
A
155
4 Repair activities, controller cabinet
4.1.1 Replacement of battery unit, controller
Section 4.1: Complete controller cabinet
4.1.1 Replacement of battery unit, controller
Location of battery unit
The battery unit is located at the bottom of the controller.
X1
X1
X1
X1
X2
X2
X2
X2
X1
X2
X3
Rectifier
A0
A
xx0200000103
A
Battery unit
Required equipment
Equipment, etc.
Spare part no. Art no.
Note
Battery unit
3HAC 5393-2
To be replaced as a complete
unit
Standard toolkit
3HAC 15571-1 The contents are defined in
section "Standard toolkit"!
Other tools and procedures may be required.
See references to
these procedures in the
step-by-step instructions below.
Removal, battery
unit
These procedures include references to the tools required.
The procedure below details how to remove the battery unit.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
156
A
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.1 Replacement of battery unit, controller
Step Action
Note/Illustration
1. Remove the battery unit by unscrewing
its attachment screws (1).
X1
X1
X1
X1
X2
X2
X2
X2
X1
X2
X3
Rectifier
A0
xx0200000004
2. Pull the battery unit out.
3. Disconnect the three cables from the
battery unit.
xx0200000005
Refitting, battery
unit
The procedure below details how to refit the battery unit.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
3HAC 16247-1
Note/Illustration
1. Place the battery unit close to its position.
Art. no. is specified above!
See illustration above!
2. Reconnect the cables and push the unit into position.
See illustration above!
3. Secure it with the attachment screws.
See illustration above!
A
157
4 Repair activities, controller cabinet
4.1.2 Replacement of I/O and gateway units
4.1.2 Replacement of I/O and gateway units
Location of I/O
and gateway units
The I/O and gateway units are located as shown in the figure below.
I/O-4
I/O-3
I/O-1
I/O-2
xx0200000009
A
I/O and gateway units located on the panel shutter on the left side of the cabinet.
B
Four available slots for I/O and gateway units
Required equipment
Equipment, etc.
158
Spare part no. Art. no.
Note
Digital 24 VDC I/O
3HAB 7229-1
DSQC 328
Analog I/O
3HNE 00554-1
DSQC 355
AD Combi I/O
3HAB 7230-1
DSQC 327
Digital 120 VAC I/O
3HAB 7231-1
DSQC 320
Digital I/O with relays
3HAB 9669-1
DSQC 332
Gateway for Allen-Bradley, RIO
3HNE00025-1
DSQC 350
Gateway for Interbus-S
3HNE00006-1
DSQC 351
Gateway for Profibus DP, slave
unit
3HNE00009-1
DSQC 352
Standard toolkit
3HAC 15571-1
The contents are
defined in section
"Standard toolkit"!
A
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.2 Replacement of I/O and gateway units
Removal
The procedure below details how to remove an I/O or gateway board.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Disconnect any connectors from the unit. The actual number of connectors vary
Note which connector goes where, to facil- depending on type of unit.
itate reassembly.
2. Lift the unit until the upper claw, that holds
the unit to the rail, is released. Use:
• a screwdriver when replacing I/O
units (position 2a in the figure).
•
1
2a
3a
1
2b
3b
by hand when replacing a gateway
unit (position 2b in the figure).
xx0200000010
3. With the upper claw released, tip the unit
away from the mounting rail and remove it
(positions 3a and 3b in the figure).
Refitting
The procedure below details how to refit an I/O or gateway board.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Hook the unit back onto the mounting rail and snap it gently
in position.
2. Reconnect all connectors disconnected during removal.
3HAC 16247-1
A
159
4 Repair activities, controller cabinet
4.1.3 Replacement of bleeder resistor
4.1.3 Replacement of bleeder resistor
Location of
bleeder resistor
The bleeder resistor is located behind the air outlet device, as shown in the figure below.
A
B
xx0200000007
A
Bleeder resistor unit
B
Air outlet device
Required equipment
Removal
Equipment, etc.
Spare part no. Art. no.
Bleeder resistor
3HAC 4560-5
Note
The procedure below details how to remove the bleeder resistor.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Remove the air outlet divice in the back of
the controller by loosening the six M5
screws (pos B).
160
A
B
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.3 Replacement of bleeder resistor
Step Action
Note/Illustration
2. Disconnect the cable secured on top of
the bleeder resistor unit (see position 1 in
the figure).
1
xx0200000015
3. Push down and pull out the bleeder resistor unit to release the bleeder resistor unit
from the enclosure. (see position 2 and 3
in the figure).
1
2
Refitting
The procedure below details how to refit the bleeder resistor.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Fit the bleeder resistor into position and secure it with
the spring.
Art. no. is specified above!
Also see the figure above!
2. Secure the cable disconnected during disassembly.
3. Refit the air outlet device.
4. Tightening the M5 screws.
3HAC 16247-1
A
161
4 Repair activities, controller cabinet
4.1.4 Putting the computer unit in the service position
4.1.4 Putting the computer unit in the service position
Location of computer unit
The computer unit is located as shown in the figure below.
X1
X1
X1
X1
X2
X2
X2
X2
X1
X2
X3
Rectifier
A0
A
xx0200000105
A
Opening
Computer unit
The procedure below details how to open the computer unit.
Please observe the following before commencing any repair work on the manipulator:
Motors and gears are HOT after running the robot! Burns may result from touching the motors
or gears!
Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. securing the lower arm with fixtures before removing motor, axis 2.
Step Action
Note/Illustration
1. Make sure the ESD-wrist band is worn
and connected to ground.
2. Turn the exenter to the left to release the See following figure.
computer unit.
162
A
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.4 Putting the computer unit in the service position
1
3. Push the locking device on the front of the
computer unit to the right (see position 1
in the figure).
1
4. Pull the computer unit out of the cabinet
until locked in its end position. Then swing
it to the left as shown in the figure.
xx0200000018
5. If work is to be performed on the computer
unit while in the service position, it must
be locked in this position. This is done by
placing the puck (located on the lower left
side) on the metal bar. Alternatively, the
computer unit may be lifted straight up
and placed on a work bench.
3HAC 16247-1
A
163
4 Repair activities, controller cabinet
4.1.4 Putting the computer unit in the service position
Closing
The procedure below details how to close the computer unit.
Please observe the following before commencing any repair work on the manipulator:
Motors and gears are HOT after running the robot! Burns may result from touching the motors
or gears!
Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. securing the lower arm with fixtures before removing motor, axis 2.
Step Action
Note/Illustration
1. Swing the computer unit back into position and
secure it by swinging the exenter to th right.
164
A
See the figure above!
Also see the procedure above!
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.5 Replacement of mass storage memory
4.1.5 Replacement of mass storage memory
Location of mass
storage memory
The mass storage memory is located in the computer system, which is shown in the figure
below.
X1
X1
X1
X1
X2
X2
X2
X2
X1
X2
X3
Rectifier
A0
A
xx0200000105
A
Computer system
Required equipment
Equipment, etc.
Spare part no. Art. no.
Mass storage memory, 64 MB
3HAC 7519-2
Note
Mass storage memory, 128 MB 3HAC 7519-3
Standard toolkit
3HAC 15571-1 The contents are
defined in section
"Standard toolkit"!
Other tools and procedures may
be required. See references to
these procedures in the step-bystep instructions below.
Removal
These procedures
include references to
the tools required.
The procedure below details how to remove the mass storage memory.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Put the computer unit in service position.
3HAC 16247-1
A
Detailed in section "Putting the computer in the service position".
165
4 Repair activities, controller cabinet
4.1.5 Replacement of mass storage memory
Step Action
Note/Illustration
2. Open the cover on the right side of the computer system by unsnapping the two snaps
(item 1 in the figure).
1
xx0200000019
3. Disconnect the connectors X1 and X2 from
the front of the mass storage memory (items
2 and 3 in the figure).
1
2
3
4. Remove the mass storage memory by
unscrewing its M4 attachment screws as
shown in the figure (item 1 in the figure).
Refitting
See figure above!
The procedure below details how to refit the mass storage memory.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Fit the mass storage memory in position and Art. no. is specified above!
secure it with its M4 attachment screw (item
1 in the figure)
1
3
2
xx0200000019
2. Reconnect connectors X1 and X2 to the front See the figure above!
of the computer unit (items 2 and 3 in the figure).
166
A
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.5 Replacement of mass storage memory
Step Action
Note/Illustration
3. Close the cover on the right side of the computer unit and secure it with the snaps (item
1 in the figure).
1
4. Put the computer system back in regular
operation position.
3HAC 16247-1
A
Detailed in section "Putting the computer in the service position".
167
4 Repair activities, controller cabinet
4.1.6 Replacement of internal cooling fan
4.1.6 Replacement of internal cooling fan
Location of internal cooling fan
The internal cooling fan is located in the computer system, which is shown in the figure
below.
X1
X1
X1
X1
X2
X2
X2
X2
X1
X2
X3
A0
A
xx0200000105
A
Computer system
Required equipment
Equipment, etc.
Spare part no. Art. no.
Note
Internal cooling fan
3HAC 6655-1
Two fans required
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
Removal
These procedures include references to the tools required.
The procedure below details how to remove the internal cooling fan.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Put the computer unit in service position.
168
A
Detailed in "Putting the computer in
the service position".
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.6 Replacement of internal cooling fan
Step Action
Note/Illustration
2. Disconnect the connector E5 or E6 respectively, depending on which fan is to be
replaced.
A
D
C
B
E
xx0200000020
3. Remove the internal cooling fan inwards by
gently pressing the locking tabs upwards.
Refitting
•
A: Upper fan
•
B: Lower fan
•
C: Locking tabs
•
D: Connector E5
•
E: Connector E6
See the figure above!
The procedure below details how to refit the internal cooling fan.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
3HAC 16247-1
A
169
4 Repair activities, controller cabinet
4.1.6 Replacement of internal cooling fan
Step Action
Note/Illustration
1. Tip the internal cooling fan with its top towards the cabinet wall and fit it into the hole (see the figure). Art. no.
specified above!
A
A
xx0200000021
•
A: Push direction
2. With the wall between the upper lock spring hooks, push See the figure above!
the fan unit up and in until the locking tab snaps to the
wall.
3. Reconnect the connector E5 or E6 respectively, depending on which fan was replaced.
4. Put the computer unit back in regular operation position. Detailed in "Putting the
computer in the service
position".
170
A
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.7 Replacement of drive units and rectifier
4.1.7 Replacement of drive units and rectifier
Location of drive
units and rectifier
The drive units and rectifier are located as shown in the figure below.
B
A
C
xx0200000007
A
Rectifier (drive unit)
B
Drive units
C
Power supply unit
Required equipment
Equipment, etc.
Spare part no. Art. no.
Note
Drive unit (rectifier)
3HAB 8101-17
DSQC 545A
Drive unit, axes 1-6
3HAB 8101-18
DSQC 546A
Other tools and procedures may be required.
See references to
these procedures in the
step-by-step instructions below.
Removal
These procedures include references to the tools required.
The procedure below details how to remove the drive units.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
3HAC 16247-1
A
171
4 Repair activities, controller cabinet
4.1.7 Replacement of drive units and rectifier
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Swing the panel shutter out of the way.
(pos A in figure).
A
2. Disconnect connectors X1 and X2,
four connectors each (see position 1 in
the figure).
X1
X1
X1
X1
X2
X2
X2
X2
1
X1
2
X2
X3
X2
1
A0
Rectifier
xx0200000013
3. Remove the power supply bar in front See figure above!
of the drive units (see position 2 in the
figure).
4. Lift the spring to release the drive unit
and pull it slightly outwards (see position 3 in the figure).
3
4
xx0200000014
5. Tip it out and remove it (see position 4 See figure above!
in the figure).
Refitting
The procedure below details how to refit the drive units.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
172
A
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.7 Replacement of drive units and rectifier
Step Action
Note/Illustration
1. Fit the unit into position and secure it with the spring.
Also see figure above!
2. Refit the power bar in front of the unit.
3. Reconnect all connectors X1 and X2.
4. Swing the power supply unit back into position.
3HAC 16247-1
A
Detailed in section
"Replacement of power
supply unit"
173
4 Repair activities, controller cabinet
4.1.8 Replacement of system fan unit
4.1.8 Replacement of system fan unit
Location of system fan unit
The system fan unit is located under the bleeder resistor unit, in the back of the controller as
shown in the figure below.
xx0200000007
A
Air outlet device
B
Bleeder resistor unit
C
System fan unit
Required equipment
Equipment, etc.
Spare part no. Art. no.
System fan unit
3HAC 15449-1
Other tools and procedures may be
required. See references to these
procedures in the step-by-step
instructions below.
Removal
Note
These procedures
include references
to the tools required.
The procedure below details how to remove the system fan unit.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
174
Note/Illustration
1. Remove the Air outlet device.
Pos. A in previous illustration.
2. Remove the bleeder resistor unit.
Detailed in
"Replacement of bleeder resistor".
A
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.8 Replacement of system fan unit
Step Action
Note/Illustration
3. Disconnect the cable (see position 1 in
the figure).
1
2
A0
Rectifier
2
1
xx0200000008
4. Pull the back of the system fan unit
upwards to free it and then tip it out of
the enclosure (see position 2 in the figure).
Refitting
The procedure below details how to refit the system fan unit.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Fit the system fan unit into position and secure it (see
position 2 in the figure above).
Art. no. is specified above!
2. Reconnect the cable disconnected during disassembly
(see position 1 in the figure above).
3HAC 16247-1
3. Refit the bleeder resistor unit.
Detailed in section
"Replacement of bleeder
resistor".
4. Refit the Air outlet device.
Pos. A in previous illustration.
A
175
4 Repair activities, controller cabinet
4.1.9 Replacement of power supply unit
4.1.9 Replacement of power supply unit
Location of power
supply unit
The power supply unit is located as shown in the figure below.
xx0200000011
A
Power supply unit
B
Power supply unit locking spring
Required equipment
Equipment, etc.
Spare part no. Art. no.
Note
Power supply unit
3HAB 4297-1
DSQC 506
Other tools and procedures
may be required. See references to these procedures in
the step-by-step instructions
below.
Removal
These procedures
include references to
the tools required.
The procedure below details how to remove the power supply unit.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Push the locking spring to the right to free the panel Shown in previous figure!
shutter, and Swing it out of the way.
176
2. Remove the M5 Torx screw.
See pos. 2 in previous figure.
3. Disconnect the connectors.
See pos. 1 in previous figure.
A
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.9 Replacement of power supply unit
Step Action
Note/Illustration
4. Lift the unit straight up to release it from the hooks
in the back and remove it outwards.
Refitting
The procedure below details how to refit the power supply unit.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supply to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Fit the power supply unit into position onto its hooks and Art. no. is specified above!
secure it with the attachment screw (see position 2 in the
section Removal).
2. Reconnect all connectors disconnected during removal. See position 1 in figure.
3. Swing the panel shutter back in possition and secure it
with the locking spring.
3HAC 16247-1
A
177
4 Repair activities, controller cabinet
4.1.10 Replacement of Peltier Cooler power supply
4.1.10 Replacement of Peltier Cooler power supply
Location of power
supply unit
The Peltier cooler power supply unit is located as shown in the figure below.
1
2
3
1
Cover
2
M5 screw
3
Extended Power supply
Required equipment
Equipment, etc.
Spare part no. Art. no.
Extended Power supply
3HAB 13398-1
Other tools and procedures
may be required. See references to these procedures
in the step-by-step instructions below.
Removal
Note
These procedures include
references to the tools
required.
The procedure below details how to remove the power supply unit.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Remove the M5 Torx screw.
See pos. 2 in previous illustration.
2. Remove the cover
See pos. 1 in previous illustration.
3. Disconnect the wires.
178
A
3HAC 16247-1
4 Repair activities, controller cabinet
4.1.10 Replacement of Peltier Cooler power supply
Step Action
Note/Illustration
4. Remove the Power supply from the mounting
rail.
Refitting
See pos. 3 in previous illustration.
The procedure below details how to refit the power supply unit.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Fit the power supply unit onto the mounting rail.
2. Reconnect the wires disconnected during removal.
3. Refit the cover and secure with M5 screws.
3HAC 16247-1
A
See pos. 1 and pos. 3. in
previous illustration.
179
4 Repair activities, controller cabinet
4.1.10 Replacement of Peltier Cooler power supply
180
A
3HAC 16247-1
5 Appendix 1: Part Lists
5.0.1 Introduction
Chapter 5: Appendix 1: Part Lists
5.0.1 Introduction
This chapter is an appendix to the manual and contains part lists with item numbers, refering
to the Appendix 2: Foldouts.
The part list for the manipulator sometimes differ for robot versions 225/2.25- 175/2.8 and
175.2.25. In case of difference, the version is stated in the title.
3HAC 16247-1
A
181
5 Appendix 1: Part Lists
5.0.1 Introduction
Section 5.1: Part List, Manipulator IRB 6600/6650
182
Item Qty
Art. number
Description
Dimension/Note
5
1
3HAC 12812-2
Mechanical stop ax 1,
assembly
See Mechanical stop ax 1,
3HAC 12812-2 on page 183.
101
1
3HAC 12685-1
Base incl frame ax 1
See “Base incl frame ax 1,
3HAC 12685-1” on page 183.
102
1
3HAC 10746-3
Axis 3-4, (175/2.55)
See “Axis 3-4, (robot v. 175/
2.55), 3HAC 10746-3” on
page 184.
102
1
3HAC 10746-1
Axis 3-4, (225/2.55, 175/2.8, See “Axis 3-4, (robot v. 225/
125/3.2, 200/2.75)
2.55, 175/2.8, 125/3.2, 200/
2.75), 3HAC 10746-1” on
page 184.
102
1
3HAC 10746-5
Axis 3-4, Foundry (175/
2.55)
102
1
3HAC 10746-4
Axis 3-4, Foundry (225/2.55, See Axis 3-4, Foundry (robot
175/2.8, 125/3.2, 200/2.75) v. 225/2.25, 175/2.8, 125/3.2,
200/2.75), 3HAC 10746-4 on
page 185.
103
1
3HAC 8114-1
Wrist (175/2.55)
See “Wrist (robot v. 175/2.55)
3HAC 8114-1” on page 189.
103
1
3HAC 8114-3
Wrist (225/2.55, 175/2.8,
125/3.2, 200/2.75)
See “Wrist (robot v. 225/2.55,
175/2.8, 125/3.2, 200/2.75)
3HAC 8114-3” on page 189.
103
1
3HAC 8114-6
Wrist Foundry (175/2.55)
See Wrist Foundry (robot v.
175/2.55) 3HAC 8114-6 on
page 189.
103
1
3HAC 8114-5
Wrist Foundry (225/2.55,
175/2.8, 125/3.2, 200/2.75)
See Wrist Foundry (robot v.
225/2.55, 175/2.8, 125/3.2,
200/2.75) 3HAC 8114-5 on
page 190.
104
1
3HAC 14678-1
Balancing Device F (175/
2.55, 225/2.55, 175/2.8 )
104
1
3HAC 16189-1
Balancing Device G (125/
3.2, 200/2.75)
104
1
3HAC 17117-2
Balancing Device A (175/
2.55, 225/2.55, 175/2.8 )
104
1
3HAC 17117-3
Balancing Device B (125/
3.2, 200/2.75)
105
1
3HAC 10141-1
Lower arm (175/2.55, 225/
2.55, 175/2.8 )
105
1
3HAC 13940-1
Lower arm (125/3.2, 200/
2.75)
106
1
3HAC 14940-1
Cable harness, man. ax1-4
(175/2.55, 225/2.55, 175/2.8
)
106
1
3HAC 16331-1
Cable harness, man ax 1-4
(125/3.2, 200/2.75)
108
1
3HAC 13263-1
Material set manipulator
A
See Axis 3-4, Foundry (robot
v. 175/2.55), 3HAC 10746-5
on page 185.
See “Material set manipulator, 3HAC 13263-1” on
page 194.
3HAC 16247-1
5 Appendix 1: Part Lists
5.1.1 Mechanical stop ax 1, 3HAC 12812-2
Item Qty
Art. number
Description
Dimension/Note
109
1
3HAC 13264-1
Material set ax 1-2
See “Mtrl.set ax 1-2, 3HAC
13264-1” on page 195.
110
1
3HAC 13265-1
Mtrl.set balancing device
See “Mtrl set balancing
device, 3HAC 13265-1” on
page 198.
111
1
3HAC 12311-4
Arm extension set 250mm
(175/2.8)
See “Arm extension set, 250
mm, 3HAC 12311-4” on
page 199.
111
1
3HAC 12311-5
Arm extension set 450mm
(125/3.2)
See “Arm extension set, 450
mm, 3HAC 12311-5” on
page 199.
112
2
3HAC 12129-1
Cover plate
t=1,5 mm
112
1
3HAC 12129-1
Cover plate
t=1,5 mm
113
8
9ADA 618-56
Torx pan head screw
M6x16
113
4
9ADA 618-56
Torx pan head screw
M6x16
114
1
3HAC 13416-1
Protection cover
Shell size 16
5.1.1 Mechanical stop ax 1, 3HAC 12812-2
Item
Qty
Art. number
Description
5.1
1
3HAC 12812-1
Mech stop
5.2
1
9ABA 142-92
Spring pin, slotted
Dimension
10x30
5.1.2 Base incl frame ax 1, 3HAC 12685-1
Item
Qty Art. number
Description
Dimension/Note
101.1
1
3HAC 13054-2
Base machining
See Base, machining, 3HAC
13054-2 on page 183!
101.2
1
3HAC 12684-1
Frame incl ax 1 gearbox
See Frame incl ax 1 gearbox,
3HAC 12684-1 on page 184!
101.3
3
3HAC 11732-2
Washer
T=3
101.4
18
3HAB 7700-5
Hex socket head cap screw M16x70
101.5
1
3HAC 11529-1
Rubber lined clip D=28
101.6
1
3HAC 14453-1
Hose with flange
101.7
1
3HAC 14453-2
Plug
101.8
1
3HAC 4428-2
Hose Clip
D=23-27
101.9
1
9ADA 618-56
Torx pan head screw
M6x16
Item
Qty
Base, machining,
3HAC 13054-2
3HAC 16247-1
Art. number
Description
101.1.1 1
3HAC 13054-1 Base, casting
101.1.2 5
3HAC 4836-7
A
Protection plug
Dimension
16x12,3x9x7
183
5 Appendix 1: Part Lists
5.1.3 Axis 3-4, (robot v. 175/2.55), 3HAC 10746-3
Item
Frame incl ax 1
gearbox, 3HAC
12684-1
Qty
Art. number
Description
101.1.3 1
3HAC 1383-2
Protection Cover compl.
101.1.4 1
3HAC 14024-1 Protection screw
Item
Art. number
Description
101.2.1 1
3HAC 15866-1
Frame machining
101.2.2 1
3HAC 10828-8
RV 320C-224,26 assembly
101.2.3 24
3HAB 7700-73
Hex socket head cap screw
101.2.4 24
3HAA 1001-134 Washer
Qty
Dimension
Dimension
M12x70
13x19x1,5
5.1.3 Axis 3-4, (robot v. 175/2.55), 3HAC 10746-3
Item Qty
Art. number
Description
Note
102.1 1
3HAC 13350-1
Material set ax 4
See Material set ax 4, 3HAC
13350-1 on page 185!
102.2 1
3HAC 10139-1
Tube shaft 2,55
See Tube shaft 2,55, 3HAC
10139-1 on page 187!
102.3 1
3HAC 13351-2
Axis 3
See Axis 3, 3HAC 13351-2/1
on page 187!
102.4 1
3HAC 14753-1
Rot ac motor incl gearbox
See Rot ac motor incl gearbox, 3HAC 14753-1 on page
188!
5.1.4 Axis 3-4, (robot v. 225/2.55, 175/2.8, 125/3.2, 200/2.75), 3HAC 10746-1
184
Item Qty
Art. number
Description
Note
102.1 1
3HAC 13350-1
Material set ax 4
See Material set ax 4, 3HAC
13350-1 on page 185!
102.2 1
3HAC 10139-1
Tube shaft 2,55
See Tube shaft 2,55, 3HAC
10139-1 on page 187!
102.3 1
3HAC 13351-1
Axis 3
See Axis 3, 3HAC 13351-2/1
on page 187!
102.4 1
3HAC 14752-1
Rot ac motor incl gearbox
See Rot ac motor incl gearbox, 3HAC 14752-1 on page
189.
A
3HAC 16247-1
5 Appendix 1: Part Lists
5.1.5 Axis 3-4, Foundry (robot v. 175/2.55), 3HAC 10746-5
5.1.5 Axis 3-4, Foundry (robot v. 175/2.55), 3HAC 10746-5
Item Qty
Art. number
Description
Note
102.1 1
3HAC 13350-1
Material set ax 4
See Material set ax 4, 3HAC
13350-1 on page 185!
102.2 1
3HAC 15859-1
Tube shaft 2,55 foundry
102.3 1
3HAC 13351-2
Axis 3
102.4 1
3HAC 14753-1
Rot ac motor incl gearbox See Rot ac motor incl gearbox, 3HAC 14753-1 on page
188.
See Axis 3, 3HAC 13351-2/1
on page 187!
5.1.6 Axis 3-4, Foundry (robot v. 225/2.25, 175/2.8, 125/3.2, 200/2.75), 3HAC 10746-4
Item Qty
Art. number
Description
Note
102.1 1
3HAC 13350-1
Material set ax 4
See Material set ax 4, 3HAC
13350-1 on page 185!
102.2 1
3HAC 15859-1
Tube shaft 2,55 foundry
102.3 1
3HAC 13351-1
Axis 3
See Axis 3, 3HAC 13351-2/1
on page 187!
102.4 1
3HAC 14752-1
Rot ac motor incl gearbox
See Rot ac motor incl gearbox, 3HAC 14752-1 on page
189!
Material set ax 4,
3HAC 13350-1
3HAC 16247-1
Item
Qty
Art. number Description
Dimension/Note
102.1.1
1
3HAC 12261-1 Gear Z4 /4
102.1.3
8
9ADA 183-37
Hex socket head cap screw
M8x25
102.1.4
8
9ADA 312-7
Plain washer
8,4x16x1,6
102.1.5
1
3HAC 12259-1 Wheel unit ax4 225kg
102.1.6
3
3HAA 1001-99 Wedge
102.1.7
3
3HAC 12560-1 Stud bolt
M8x65
102.1.8
12
9ADA 334-7
Spring washer, conical
8,4x18x2
102.1.9
3
9ADA 267-7
Hexagon nut
M8
See Wheel unit ax 4, 225
kg, 3HAC 12259-1 on page
186!
102.1.10 3
3HAB 3409-63 Hex socket head cap screw
M10x110
102.1.11 3
9ADA 334-8
10,5x23x2,5
102.1.12 1
3HAC 13564-1 Damper axis 4
102.1.13 1
3HAA 1001-17 Stop, Axis 4, Casting
A
Spring washer, conical
See Damper axis 4, 3HAC
13564-1 on page 187!
185
5 Appendix 1: Part Lists
5.1.6 Axis 3-4, Foundry (robot v. 225/2.25, 175/2.8, 125/3.2, 200/2.75), 3HAC 10746-4
Item
Qty
Art. number Description
Dimension/Note
102.1.14 1
3HAC 11925-1 Mechanical stop head
102.1.15 2
3HAB 3409-81 Hex socket head cap screw
M16x35
102.1.16 1
3HAA 1001-98 Gasket
T=1
102.1.17 1
3HAC 12149-4 Cover ax4 with sealing
See Cover axis 4 with sealing, 3HAC 12149-4 on
page 187!
102.1.18 14
9ADA 618-56
M6x16
102.1.20 1
3HAC 12126-1 Set of shims
102.1.21 1
3HAC 12060-1 Thrust washer
102.1.22 1
9ABA 135-45
Retaining ring, shaft
170
102.1.23 2
2213 253-5
Ball bearing
170x215x22
102.1.24 1
2216 261-18
Sealing
170x200x15
102.1.25 1
2216 0086-4
Sealing (Nilos)
180x215x4
102.1.26 1
3HAB 4317-1
SEALING
102.1.27 1
3HAC 3774-7
Spacer ring
102.1.28 1
3HAB 3772-27 O-ring
170x5
102.1.29 1
9ABA 107-56
10x20
Torx pan head screw
Parallel pin
102.1.30 8100 1171 2016-604 Lubricating oil
ml
Wheel unit ax 4,
225 kg, 3HAC
12259-1
102.1.31 30 g
3HAB 3537-1
Bearing grease
102.1.32 1 ml
3HAB 7116-1
Locking liquid
102.1.33 1 ml
3HAB 7116-2
Locking liquid
102.1.34 1
3HAC 16721-1 Magnetic plug
Item
Art. number
Description
102.1.5.1 1
3HAC 11742-1
Intermediate hub, machine
102.1.5.2 1
3HAC 12259-2
Gear unit Z2, 3/4
See Gear unit Z2, 3/4,
3HAC 12259-2 on page
186!
102.1.5.3 1
2126 2851-104
Lock nut
M20X1
102.1.5.4 1
2213 3802-11
Taper roller bearing
40x68x19
102.1.5.5 1
3HAA 1001-129
Taper Roller Bearing
102.1.5.6 1 ml
3HAB 7116-2
Locking liquid
Qty
R 1/2”
Dimension/Note
Gear unit Z2, 3/4,
3HAC 12259-2
186
Item
Qty
Art. number
Description
102.1.5.2.0
1
3HAC 12259-3
Pinion Z3 /4
102.1.5.2.0
1
3HAC 12259-4
Gear Z2 /4
A
Dimension
3HAC 16247-1
5 Appendix 1: Part Lists
5.1.6 Axis 3-4, Foundry (robot v. 225/2.25, 175/2.8, 125/3.2, 200/2.75), 3HAC 10746-4
Damper axis 4,
3HAC 13564-1
Cover axis 4 with
sealing, 3HAC
12149-4
Item
Qty Art. number
Description
102.1.12.2
2
Plate for damper
Item
Qty Art. number
Description
102.1.17.1
1
3HAC 12149-3
Cover ax4 with gasket
102.1.17.2
1
3HAA 1001-628 Sealing
3HAC 13564-2
Dimension
Dimension
Tube shaft 2,55,
3HAC 10139-1
Item
Protection Cover
compl., 3HAC
1383-2
Qty
Art. number
Description
102.2.1 1
3HAC 10139-2 Tube shaft 2,55, casting
102.2.2 1
3HAC 1383-2
Protection Cover compl.
Note
See Protection Cover
compl., 3HAC 1383-2 on
page 187!
Item
Qty Art. number Description
Dimension
102.2.2.1
1
9ADA 624-69
M8x20
102.2.2.2
1
3HAB 3772-66 O-ring
102.2.2.3
1
3HAC 1383-1
Protection Cover
102.2.2.4
1
3HAC 1383-3
Gasket
Item
Qty
Art. number
Description
102.3.1
1
3HAC 10133-1
Axis 4 housing
102.3.2
1
3HAC 10828-12 RV 410F-270,176
assembly
See RV 410F-270, 176
assembly, 3HAC 1082812 on page 188!
102.3.3
24
3HAB 3409-71
M12x60
102.3.4
24
3HAA 1001-134 Washer
13x19x1,5
102.3.5
1
3HAC 14750-1
Rot ac motor incl pinion
(225/2.55, 175/2.8, 125/
3.2, 200/2.75)
See “Rot ac motor incl pinion, 3HAC 14750-1” on
page 188.
102.3.5
1
3HAC 14751-1
Rot ac motor incl pinion,
(175/2.55)
See “Rot ac motor incl pinion, 3HAC 14751-1” on
page 188.
Torx counters. head screw
8x2
Axis 3, 3HAC
13351-2/1
3HAC 16247-1
A
Hex socket head cap
screw
Dimension/Note
187
5 Appendix 1: Part Lists
5.1.6 Axis 3-4, Foundry (robot v. 225/2.25, 175/2.8, 125/3.2, 200/2.75), 3HAC 10746-4
Item
Qty
Art. number
Description
Dimension/Note
102.3.6
4
3HAB 3409-50
Hex socket head cap
screw
M10x40
102.3.7
4
3HAB 4233-1
Washer
102.3.8
1
3HAC 16721-1
Magnetic plug
102.3.9
2500 ml 3HAC 16843-1
102.3.10 1
RV 410F-270, 176
assembly, 3HAC
10828-12
Rot ac motor incl
pinion, 3HAC
14751-1
Rot ac motor incl
pinion, 3HAC
14750-1
Rot ac motor incl
gearbox, 3HAC
14753-1
188
R 1/2”
Lubricating oil, RMO 150
9ABA 142-92
Spring pin, slotted
10x30
Description
Dimension
Item
Qty
Art. number
102.3.2.1
1
3HAC 10828-11 RV 410F, i=270,176
102.3.2.2
1
3HAB 3772-68
O-ring
Item
Qty
Art. number
Description
102.3.5.1
1
3HAC 14673-6
Rotational ac motor M6
102.3.5.2
1
3HAC 10122-15 Input gear RV 410F-270,17
102.3.5.3
0
2152 2012-430
O-ring
89,5x3
102.3.5.4
1
9ADA 183-444
Hex socket head cap screw
M8x130
102.3.5.5
3 ml
3HAB 7116-1
Locking liquid
Item
Qty
Art. number
Description
102.3.5.1
1
3HAC 14673-9
Rotational ac motor M6
102.3.5.2
1
3HAC 10122-15 Input gear RV 410F-270,17
102.3.5.3
0
2152 2012-430
O-ring
89,5x3
102.3.5.4
1
9ADA 183-444
Hex socket head cap screw
M8x130
102.3.5.5
3 ml
3HAB 7116-1
Locking liquid
Item
Qty
Art. number
Description
102.4.1 1
3HAC 14673-7
Rotational ac motor M7
102.4.2 1
3HAC 12260-1
Pinion Z1 /4
102.4.3 0
2152 2012-430
O-ring
A
276 x 3,53
Dimension
Dimension
Dimension
89,5x3
3HAC 16247-1
5 Appendix 1: Part Lists
5.1.7 Wrist (robot v. 175/2.55) 3HAC 8114-1
Rot ac motor incl
gearbox, 3HAC
14752-1
Item
Qty
Art. number
Description
102.4.1 1
3HAC 14673-10 Rotational ac motor M10
102.4.2 1
3HAC 12260-1
Pinion Z1 /4
102.4.3 0
2152 2012-430
O-ring
Dimension
89,5x3
5.1.7 Wrist (robot v. 175/2.55) 3HAC 8114-1
Item
Qty
Art. number Description
Dimension/Note
103.1
1
3HAC 8114-4
Material set
See Material set, 3HAC
8114-4 on page 190!
103.2
1
3HAC 7941-29 Rot ac motor incl gearbox
See Rot ac motor incl.
gearbox, 3HAC 7941-29
on page 192!
103.3
8
3HAB 3409-89 Hex socket head cap screw
M16x80
103.4
1
3HAC 9744-1
See Axis 6 complete,
3HAC 9744-1/16032-1 on
page 192!
103.5
1
3HAC 12732-1 Label
Axis 6 complete
5.1.8 Wrist (robot v. 225/2.55, 175/2.8, 125/3.2, 200/2.75) 3HAC 8114-3
Item
Qty
Art. number Description
Dimension/Note
103.1
1
3HAC 8114-4
See Material set, 3HAC
8114-4 on page 190!
103.2
1
3HAC 7941-30 Rot ac motor incl gearbox
See !
103.3
8
3HAB 3409-89 Hex socket head cap screw
M16x80
103.4
1
3HAC 13890-1 Axis 6 complete
See !
103.5
1
3HAC 12732-3 Label
Material set
5.1.9 Wrist Foundry (robot v. 175/2.55) 3HAC 8114-6
3HAC 16247-1
Item
Qty
Art. number Description
Dimension/Note
103.1
1
3HAC 8114-4
Material set
See Material set, 3HAC
8114-4 on page 190!
103.2
1
3HAC 7941-29 Rot ac motor incl gearbox
See Rot ac motor incl.
gearbox, 3HAC 7941-29 on
page 192!
A
189
5 Appendix 1: Part Lists
5.1.10 Wrist Foundry (robot v. 225/2.55, 175/2.8, 125/3.2, 200/2.75) 3HAC 8114-5
Item
Qty
Art. number Description
Dimension/Note
103.3
8
3HAB 3409-89 Hex socket head cap screw
M16x80
103.4
1
3HAC 16032-1 Axis 6 complete Foundry
See Axis 6 complete,
3HAC 9744-1/16032-1 on
page 192!
103.5
1
3HAC 12732-2 Label
5.1.10 Wrist Foundry (robot v. 225/2.55, 175/2.8, 125/3.2, 200/2.75) 3HAC 8114-5
Item
Qty
Art. number Description
Dimension/Note
103.1
1
3HAC 8114-4
See Material set, 3HAC
8114-4 on page 190!
103.2
1
3HAC 7941-30 Rot ac motor incl gearbox
See Rot ac motor incl.
gearbox, 3HAC 7941-29 on
page 192!
103.3
8
3HAB 3409-89 Hex socket head cap screw
M16x80
103.4
1
3HAC 13890-2 Axis 6 complete Foundry
See Axis 6 complete,
3HAC 13890-2/1 on page
193!
103.5
1
3HAC 12732-1 Label
Material set
Material set,
3HAC 8114-4
190
Item
Qty
Art. number Description
103.1.1
1
3HAC 7956-1
103.1.2
1
3HAC 7941-28 Set of shim, motor
103.1.3
1
3HAC 7941-19 Set of shim, bevel gear
103.1.4
8
9ADA 183-37
Hex socket head cap
screw
M8x25
103.1.5
8
9ADA 312-7
Plain washer
8,4x16x1,6
103.1.6
1
3HAA 2166-11 VK-Cover
D=80 B=10
103.1.7
1
3HAC 4334-3
50x90x20
103.1.8
4
3HAC 12560-1 Stud bolt
103.1.9
1
3HAB 7116-2
Locking liquid
103.1.10
16
9ADA 334-7
Spring washer, conical
8,4x18x2
103.1.11
4
9ADA 267-7
Hexagon nut
M8
103.1.12
4
3HAA 1001-99 Wedge
103.1.13
1
3HAB 7299-1
103.1.14
1
3HAA 2166-23 VK-Cover
D=120, B=12
103.1.15
1
3HAC 7941-32 Support shaft inc bearing
See Support shaft incl.
bearing, 3HAC 7941-32 on
page 191!
103.1.16
6
9ADA 183-39
Hex socket head cap
screw
M8x35
103.1.17
2
3HAB 4337-2
Damper axis 5
103.1.18
1
3HAC 9953-1
Syncplate with nonie
A
Dimension/Note
Wrist housing, 225kg
Cylindrical roll. bearing
Sealing
M8x65
Di=115 Dy=140 B=12
T=1,5
3HAC 16247-1
5 Appendix 1: Part Lists
5.1.10 Wrist Foundry (robot v. 225/2.55, 175/2.8, 125/3.2, 200/2.75) 3HAC 8114-5
Support shaft
incl. bearing,
3HAC 7941-32
Interm.wheel unit/
5 225kg, 3HAC
7941-6
Gear Unit Z4-Z5/5
225 kg, 3HAC
7941-12
Item
Qty
Art. number Description
Dimension/Note
103.1.19
1
3HAC 16721-1 Magnetic plug
R 1/2
103.1.21
27
9ADA 618-56
Torx pan head screw
M6x16
103.1.22
2
9ADA 334-6
Plain washer
6,4x14x1,5
103.1.23
1
3HAB 7116-1
Locking liquid
103.1.24
1
3HAC 14139-1 Manip. Harness ax 5
103.1.25
6700
ml
1171 2016-604 Lubricating oil
103.1.26
1
3HAC 7941-6
Interm.wheel unit/5 225kg
See Interm.wheel unit/5
225kg, 3HAC 7941-6 on
page 191!
103.1.27
1
3HAA 1001266
Screw
M16x60
103.1.28
1
3HAC 7941-21 Gear wheel unit z6/5 225
103.1.29
1
3HAC 8081-8
Cover with gasket, 225kg
103.1.30
1
3HAC 8081-3
Cable cover
103.1.31
1
3HAC 14140-1 Manip. Harn. ax 5/6
103.1.32
2
2166 2055-3
Item
Qty
Art. number
Description
103.1.15.1 1
3HAC 14731-1
Shaft
103.1.15.2 1
3HAB 3643-11
Groove ball bearing
130x165x18
103.1.15.3 3
9ADA 618-56
Torx pan head screw
M6x16
103.1.15.4 1 ml
3HAB 7116-1
Locking liquid
Qty Art. number
Description
Item
4,8x208
Dimension
Dimension/Note
103.1.26.1 1
3HAC 7946-1
103.1.26.2 2
3HAA 1001-130 Taper Roller Bearing
103.1.26.3 1
3HAC 7941-12
Gear Unit z4-z5/5 225kg
See Gear Unit Z4-Z5/5 225
kg, 3HAC 7941-12 on page
191!
103.1.26.4 1
3HAC 13142-1
Washer
17x30x6
103.1.26.5 1
3HAC 7941-11
Locking Nut
103.1.26.6 1 ml
3HAB 7116-2
Locking liquid
Item
Qty
103.1.26.3.1 1
3HAC 16247-1
Cable straps, outdoors
See Gear wheel unit z6/5
225, 3HAC 7941-21 on
page 192!
Hub ax5, machining
Art. number Description
3HAC 7941-7
A
Dimension
Pinion z5/5 225kg
191
5 Appendix 1: Part Lists
5.1.10 Wrist Foundry (robot v. 225/2.55, 175/2.8, 125/3.2, 200/2.75) 3HAC 8114-5
Item
Qty
103.1.26.3.2 1
Gear wheel unit
z6/5 225, 3HAC
7941-21
Rot ac motor incl.
gearbox, 3HAC
7941-29
Rot ac motor incl.
gearbox, 3HAC
7941-30
Axis 6 complete,
3HAC 9744-1/
16032-1
192
Item
Art. number Description
3HAC 7941-5
Qty
Dimension
Gear z4/5 225kg
Art. number Description
103.1.28.1 1
3HAC 7941-8
Gear z6/5 225kg
103.1.28.2 1
3HAB 4271-1
Groove ball bearing
103.1.28.3 1
3HAB 6686-1
Support ring
103.1.28.4 1 ml
3HAB 7116-2
Locking liquid
110x150x20
Item
Qty
Art. number
103.2.1
1
3HAC 14673-7 Rotational ac motor M7
103.2.2
1
3HAC 7941-1
103.2.3
0
2152 2012-430 O-ring
89,5x3
Item
Qty
Art. number
Description
Dimension/Note
103.2.1
1
3HAC 1467310
Rotational ac motor M10
103.2.2
1
3HAC 7941-1
Bevel gear set unit z1-3/5
103.2.3
0
2152 2012-430 O-ring
Item
Qty
Art. number
Description
103.4.1
1
3HAC 9744-5
Turning disc, diam. 200
103.4.2
1
3HAC 10828-10 RV 40E-81 assembly
103.4.3
1
3HAC 9744-3
Tilt housing, machining
RV40
103.4.3
1
3HAC 16009-2
Tilt housing, machining
RV40, foundry
103.4.4
1
3HAC 14755-1
Rot ac motor incl pinion
A
Description
Dimension
Dimension/Note
Bevel gear set unit z1-3/5
89,5x3
Dimension/Note
See RV 40E-81 assembly, 3HAC 10828-10 on
page 193!
See Rot ac motor incl.
pinion, 3HAC 14754-1
on page 194 below!
3HAC 16247-1
5 Appendix 1: Part Lists
5.1.10 Wrist Foundry (robot v. 225/2.55, 175/2.8, 125/3.2, 200/2.75) 3HAC 8114-5
RV 40E-81 assembly, 3HAC 1082810
Rot ac motor incl.
pinion, 3HAC
14755-1
Item
Qty
Art. number
Description
Dimension/Note
103.4.5
4
9ADA 312-7
Plain washer
8,4x16x1,6
103.4.6
4
9ADA 183-37
Hex socket head cap screw M8x25
103.4.7
8
3HAA 1001-172 Washer
8,4x13x1,5
103.4.8
2
2522 122-1
Magnetic plug
R1/4”
103.4.9
300 ml
3HAC 16843-1
Lubricating oil, RMO 150
103.4.10 1 ml
3HAB 7116-1
Locking liquid
103.4.11 1
3HAB 3772-65
O-ring
131x2
103.4.12 6
2152 0431-20
O-ring
15,5x1,5
103.4.13 1
3HAC 6862-2
Syncplate 175 kg
103.4.14 6
2121 2518-577
Hex socket head cap screw M14x25
103.4.15 8
3HAB 7700-55
Hex socket head cap screw M8x40
103.4.18 2
9ADA 618-32
Torx pan head screw
103.4.20 1
3HAC 14263-1
Protection Cover
103.4.21 1
9ADA 624-69
Torx counters. head screw
M8x20
Item
Art. number
Description
Dimension
103.4.2.1 1
3HAC 10828-5
RV 40E, i=81
103.4.2.2 1
3HAB 3772-58
O-ring
151,99x3,53
Item
Qty
Art. number
Description
Dimension
103.4.4.1
1
3HAC 14673-8
Rotational ac motor M8
103.4.4.2
1
3HAC 10122-24 Pinion RV 40E-81
103.4.4.3
0
2152 2012-430
O-ring
89,5x3
103.4.4.4
1
9ADA 183-20
Hex socket head cap screw
M5x45
103.4.4.5
2 ml
3HAB 7116-1
Locking liquid
103.4.4.6
1
3HAC 12877-1
Gasket
Item
Qty
Art. number
Description
103.4.1
1
3HAC 13752-1
Turning disc, diam. 200
103.4.2
1
3HAC 10828-13 RV 40E-81 assembly
103.4.3
1
3HAC 16009-1
Tilt housing RV70, foundry
103.4.3
1
3HAC 11522-2
Tilt housing RV70
103.4.4
1
3HAC 14754-1
Rot ac motor incl pinion
Qty
M4x8
Axis 6 complete,
3HAC 13890-2/1
3HAC 16247-1
A
Dimension/Note
See RV 40E-81 assembly, 3HAC 10828-13 on
page 194!
See Rot ac motor incl.
pinion, 3HAC 14754-1
on page 194!
193
5 Appendix 1: Part Lists
5.1.11 Material set manipulator, 3HAC 13263-1
RV 40E-81 assembly, 3HAC 1082813
Rot ac motor incl.
pinion, 3HAC
14754-1
Item
Qty
Art. number
Description
Dimension/Note
103.4.5
4
9ADA 312-7
Plain washer
8,4x16x1,6
103.4.6
4
9ADA 183-37
Hex socket head cap screw M8x25
103.4.7
8
3HAA 1001-172 Washer
8,4x13x1,5
103.4.8
2
2522 122-1
Magnetic plug
R1/4”
103.4.9
300 ml
3HAC 16843-1
Lubricating oil, RMO 150
103.4.10 1 ml
3HAB 7116-1
Locking liquid
103.4.11 1
3HAB 3772-64
O-ring
150,0x2,0
103.4.12 6
3HAB 3772-61
O-ring
13,1x1,6
103.4.13 1
3HAC 16862-1
Syncplate 175 kg
103.4.14 12
3HAB 7700-65
Hex socket head cap screw M12x30
103.4.15 18
3HAB 7700-55
Hex socket head cap screw M8x40
103.4.18 2
9ADA 618-32
Torx pan head screw
103.4.20 1
3HAC 14263-1
Protection Cover
103.4.21 1
9ADA 624-69
Torx counters. head screw
M8x20
Item
Art. number
Description
Dimension
Qty
M4x8
103.4.2.1 1
3HAC 10828-14 RV 70F, i=125,8
103.4.2.2 1
3HAB 3772-57
O-ring
164,69x3,53
Item
Qty
Art. number
Description
Dimension
103.4.4.1
1
3HAC 14673-8
Rotational ac motor M8
103.4.4.2
1
3HAC 11173-3
Pinion RV 70F.125,8
103.4.4.3
0
2152 2012-430
O-ring
89,5x3
103.4.4.4
1
9ADA 183-415
Hex socket head cap screw
M5x55
103.4.4.5
2 ml
3HAB 7116-1
Locking liquid
103.4.4.6
1
3HAC 12877-1
Gasket
5.1.11 Material set manipulator, 3HAC 13263-1
Item
194
Qty
Art. number
Description
108.201 2
3HAC 17212-1
Sealing axis 2/3
108.202 66
3HAB 7700-69
Hex socket head cap screw
108.203 3
3HAC 12703-1
Washer axis3
A
Dimension/Note
M12x50
3HAC 16247-1
5 Appendix 1: Part Lists
5.1.12 Mtrl.set ax 1-2, 3HAC 13264-1
Item
Qty
Art. number
Description
Dimension/Note
108.204 33
3HAA 1001-134 Washer
13x19x1,5
108.206 12
3HAB 7700-69
M12x50
108.207 12
3HAA 1001-134 Washer
108.210 1
3HAC 14300-1
Cable protector
108.212 1
3HAC 11771-1
Cable guide, end part
108.213 1
3HAC 13960-1
Connection plate, ax3
108.214 2
3HAC 12320-1
Damper axis 3
108.215 2
3HAC 12991-1
Damper axis 2
108.216 2
9ADA 624-65
Torx counters. head screw
M6x60
108.217 2
9ADA 334-7
Spring washer, conical
8,4x18x2
108.218 2
9ADA 618-57
Torx pan head screw
M6x20
108.220 2
3HAC 9953-1
Syncplate with vernier
T=1,5
108.222 1
3HAC 12719-1
Syncplate with vernier ax3
T=1,5
108.223 2
9ADA 183-48
Hex socket head cap screw
M10x16
108.224 1
3HAC 12844-1
Cable cover
108.225 14
9ADA 618-56
Torx pan head screw
108.228 1
3HAC 3261-1
Cover
108.229 1
3HAC 15431-1
Cable protection
108.230 1
3HAC 14880-1
Cable fixing bracket
t=3
108.232 4
3HAC 16721-1
Magnetic plug
R 1/2”
108.234 3
9ADA 618-56
Torx pan head screw
M6x16
Art. number
Description
Dimension/Note
109.301 1
3HAC 17271-1
RV 410F-270,176 assembly
See RV 410F-270,176
assembly, 3HAC 172711 on page 197!
109.302 1
3HAC 16295-1
Cover, machining
109.302 1
3HAC 16829-1
Cover, machining
109.303 1
3HAC 14699-1
Friction washer
294x333x1,0
109.304 24
3HAB 3409-71
Hex socket head cap screw
M12x60
109.305 24
3HAA 1001-134 Washer
13x19x1,5
109.306 1
3HAC 14749-1
Rot ac motor incl pinion
See Rot ac motor incl
pinion, 3HAC 14749-1
on page 197!
109.307 1
3HAC 14751-1
Rot ac motor incl pinion (175/
2.55)
See Rot ac motor incl
pinion, 3HAC 14751-1
on page 197!
109.307 1
3HAC 14750-1
Rot ac motor incl pinion
(225/2.25, 175/2.8, 125/3.2,
200/2.75)
See Rot ac motor incl
pinion, 3HAC 14750-1
on page 197!
109.308 8
3HAB 3409-50
Hex socket head cap screw
M10x40
109.309 8
3HAB 4233-1
Washer
109.310 1
3HAC 12252-1
Bottom plate
Hex socket head cap screw
13x19x1,5
t = 4 mm
M6x16
5.1.12 Mtrl.set ax 1-2, 3HAC 13264-1
Item
3HAC 16247-1
Qty
A
T=3
195
5 Appendix 1: Part Lists
5.1.12 Mtrl.set ax 1-2, 3HAC 13264-1
Item
196
Qty
Art. number
Description
Dimension/Note
109.311 1
3HAC 14131-1
Connection plate, base
t=3 mm
109.312 1
3HAC 11774-3
Adapter, complete
See Adapter, compl.,
3HAC 11774-3 on page
197!
109.313 1
3HAC 11769-1
Cable guide, ax.1
109.314 1
3HAC 16295-3
Cover
109.315 29
9ADA 183-39
Hex socket head cap screw
M8x35
109.316 29
9ADA 312-7
Plain washer
8,4x16x1,6
109.317 1
3HAB 3772-68
O-ring
276x3,53
109.318 1
3HAB 3772-69
O-ring
378x4
109.319 1
3HAB 3772-70
O-ring
340x3,5
109.320 1
3HAC 12671-5
Profile with sync scale
109.321 1
3HAC 12671-6
Block for calibration
109.322 1
3HAC 14024-1
Protection screw
See Protection screw,
3HAC 14024-1 on page
198!
109.324 24
9ADA 618-56
Torx pan head screw
M6x16
109.325 3
9ADA 618-57
Torx pan head screw
M6x20
109.326 1
3HAC 16014-1
Serial measurement unit
109.327 1
3HAC 14692-3
Cover SMB and BRU
See Cover SMB and
BRU, 3HAC 14692-3 on
page 198!
109.328 1
3HAC 16831-1
Battery pack
34x102x63
109.329 1
3HAC 13151-1
Cable battery/SMB
L=350±20
109.330 2
3HAC 11526-1
Stud screw
M6x150
109.332 1
3HAC 14791-3
Cover battery box
See Cover battery box,
3HAC 14791-3 on page
198!
109.334 4
9ADA 618-53
Torx pan head screw
M6x8
109.335 1
3HAA 2166-23
VK-Cover
D=120, B=12
109.336 1
3HAC 13915-1
Attachment plate
109.337 2
3HAC 12625-1
Strap, Velcro
25x450
109.338 1
3HAC 14792-1
Bracket
T=3
109.339 1
3HAC 15619-1
Cable, FB7-SMB 1.7
109.341 7300 3HAC 16843-1
ml
Lubricating oil, RMO 150
109.342 4600 3HAC 16843-1
ml
Lubricating oil, RMO 150
109.344 1
3HAB 7116-1
Locking liquid
109.345 1
9ADA 298-4
Prev. torque nut, non-met.
109.346 1
3HAC 16035-1
BU w. buttons DSQC 563
109.347 1
3HAC 6499-1
Push button guard
109.348 4
9ADA 629-56
Torx pan head roll. screw
M6x16
109.349 2
9ADA 618-58
Torx pan head screw
M6x25
109.350 1
3HAC 4813-1
Cover, push button guard
109.351 10
9ADA 618-44
Torx pan head screw
A
M6
M5x12
3HAC 16247-1
5 Appendix 1: Part Lists
5.1.12 Mtrl.set ax 1-2, 3HAC 13264-1
RV 410F-270,176
assembly, 3HAC
17271-1
Rot ac motor incl
pinion, 3HAC
14749-1
Rot ac motor incl
pinion, 3HAC
14751-1
Rot ac motor incl
pinion, 3HAC
14750-1
Item
Qty Art. number
Description
109.301.1 1
3HAC 10828-11 RV 410F, i=270,176
109.301.2 2
3HAB 3772-68
Item
Qty Art. number
O-ring
276x3,53
Description
Dimension
109.306.1 1
3HAC 14673-6
Rotational ac motor M6
109.306.2 1
3HAC 11350-1
Pinion RV 500C & RV 320C
109.306.3 0
2152 2012-430 O-ring
Item
Qty Art. number
Dimension
Description
89,5x3
Dimension
109.307.1 1
3HAC 14673-6
Rotational ac motor M6
109.307.2 1
3HAC 10122-15 Input gear RV 410F-270,17
109.307.3 0
2152 2012-430
O-ring
89,5x3
109.307.4 1
9ADA 183-444
Hex socket head cap screw
M8x130
109.307.5 3 ml 3HAB 7116-1
Locking liquid
Item
Description
Qty Art. number
Dimension
109.307.1 1
3HAC 14673-9
Rotational ac motor M9
109.307.2 1
3HAC 10122-15 Input gear RV 410F-270,17
109.307.3 0
2152 2012-430
O-ring
89,5x3
109.307.4 1
9ADA 183-444
Hex socket head cap screw
M8x130
109.307.5 3 ml 3HAB 7116-1
Locking liquid
Item
Qty
Art. number
Description
109.312.1
1
3HAC 11774-1
Adapter, machined
109.312.2
2
2152 2012-428
O-ring
109.312.3
1 ml
1234 0011-125
Acrylate adhesive
Adapter, compl.,
3HAC 11774-3
3HAC 16247-1
A
Dimension
79,5x3
197
5 Appendix 1: Part Lists
5.1.13 Mtrl set balancing device, 3HAC 13265-1
Protection screw,
3HAC 14024-1
Item
Cover SMB and
BRU, 3HAC
14692-3
Cover battery
box, 3HAC 147913
Qty
Art. number
Description
109.322.1 1
3HAC 13582-1
Protection Screw
109.322.2 1
3HAB 3772-32
O-ring
17x3
Item
Art. number
Description
Dimension
109.327.1 1
3HAC 14692-1
Cover, casting
109.327.2 1
3HAC 14692-2
Gasket
109.327.3 1
3HAC 14692-4
Rubber cloth
Item
Art. number
Description
Dimension
109.332.1 1
3HAC 14791-1
Cover
T=4
109.332.2 1
3HAC 14791-2
Gasket
T=3
109.332.3 1
3HAC 16977-1
Warning label battery
Qty
Qty
Dimension
5.1.13 Mtrl set balancing device, 3HAC 13265-1
198
Item
Qty
Art. number
Description
Dimension
110.401
1
3HAC 12441-2
Spherical roller bearing
65x120x38
110.402
1
3HAC 12481-1
Thrust washer
110.403
1
3HAC 12627-1
Bushing
110.404
1
9ABA 135-31
Retaining ring, shaft
110.405
1
3HAC 12480-1
Shaft
110.406
1
3HAC 4836-7
Protection plug
16x12,3x9x7
110.407
4
3HAB 7700-5
Hex socket head cap screw
M16x70
110.408
2
9ABA 107-56
Parallel pin
10x20
110.409
1
3HAC 12548-1
Protection washer
T=1
110.410
1
3HAC 12534-1
Shaft, Balancing device
110.411
4
3HAA 1001-186
Washer
110.412
50 ml
3HAA 1001-294
Grease
110.413
2
3HAC 4836-1
Protection plug
20x14,6x7,5x5,5
110.414
1
9ADA 183-490
Hex socket head cap screw
M16x180
110.415
1
9ADA 312-10
Plain washer
17x30x3
A
65
17x25x3
3HAC 16247-1
5 Appendix 1: Part Lists
5.1.14 Arm extension set, 250 mm, 3HAC 12311-4
5.1.14 Arm extension set, 250 mm, 3HAC 12311-4
Item
Qty
Art. number
Description
Dimension
111.501 1
3HAC 9760-3
Arm extender 250mm
111.501 1
3HAC 15859-2
Arm extender 250mm,
Foundry
111.503 12
3HAB 7700-69
Hex socket head cap screw
111.504 12
3HAA 1001-134 Washer
13x19x1,5
111.505 1
9ABA 107-56
Parallel pin
10x20
111.506 1
3HAC 9760-9
Cable cover 250mm
111.507 4
9ADA 618-56
Torx pan head screw
M12x50
M6x16
5.1.15 Arm extension set, 450 mm, 3HAC 12311-5
Item
3HAC 16247-1
Qty Art. number
Description
Dimension
111.501 1
3HAC 9760-7
Arm extender, 450mm
111.501 1
3HAC 15859-3
Arm extender, 450mm,
Foundry
111.503 12
3HAB 7700-69
Hex socket head cap screw
111.504 12
3HAA 1001-134 Washer
13x19x1,5
111.505 1
9ABA 107-56
Parallel pin
10x20
111.506 1
3HAC 9760-10
Cable cover 450mm
111.507 6
9ADA 618-56
Torx pan head screw
A
M12x50
M6x16
199
5 Appendix 1: Part Lists
5.1.15 Arm extension set, 450 mm, 3HAC 12311-5
200
A
3HAC 16247-1
6 Appendix 2: Foldouts
6.0.1 Introduction
Chapter 6: Appendix 2: Foldouts
6.0.1 Introduction
Definitions
This chapter is an appendix to the manual and contains detailed views of the components on
the manipulator.
The numbered details are specified with item numbers in the Appendix 1: Part List.
The foldouts are divided into:
3HAC 16247-1
•
Base, incl. frame
•
Frame-Lower arm 1
•
Frame-Lower arm 2
•
Upper arm
•
Wrist complete
A
201
6 Appendix 2: Foldouts
6.0.1 Introduction
202
A
3HAC 16247-1
6 Appendix 2: Foldouts
6.0.2 Base incl. Frame
6.0.2 Base incl. Frame
101.2.1
101.2.2
101.1
101.5
101.9
101.6 101.8 101.7
101.2.4
101.2.3
101.3
101.4
xx0200000329
3HAC 16247-1
A
203
6 Appendix 2: Foldouts
6.0.2 Base incl. Frame
204
A
3HAC 16247-1
6 Appendix 2: Foldouts
6.0.3 Frame-Lower arm 1
6.0.3 Frame-Lower arm 1
6.1
.30
109
6.3
.30
109
6.2
.30
109 .303
109
1.1
.30
109
5
.30
109
4
.30
109
8
.31
109
302
109. 15
3
109. 6
9
31
109.
.31
109
4
.31
109 317
.
109 32
.2
108
7.1
.30 3
109 .307.
109 .308
109 .309
109
xx0200000334
3HAC 16247-1
A
205
6 Appendix 2: Foldouts
6.0.3 Frame-Lower arm 1
206
A
3HAC 16247-1
6 Appendix 2: Foldouts
6.0.4 Frame-Lower arm 2
6.0.4 Frame-Lower arm 2
40
0.
4
40
0.
11 1
40
0.
2
11
11
108.201, 108.204
110.410
110.414
110.415
11
0.
40
3
11
0.
40
5
108.202
xx0200000335
3HAC 16247-1
A
207
6 Appendix 2: Foldouts
6.0.4 Frame-Lower arm 2
208
A
3HAC 16247-1
6 Appendix 2: Foldouts
6.0.5 Upper arm
6.0.5 Upper arm
1
.1
02
5
.5.
xx0200000337
3HAC 16247-1
A
209
6 Appendix 2: Foldouts
6.0.5 Upper arm
210
A
3HAC 16247-1
6 Appendix 2: Foldouts
6.0.6 Wrist complete
6.0.6 Wrist complete
xx0200000336
3HAC 16247-1
A
211
6 Appendix 2: Foldouts
6.0.6 Wrist complete
212
A
3HAC 16247-1
Maintenance Manual
Industrial Robot
IRB 6600 - 225/2.55
IRB 6600 - 175/2.8
IRB 6600 - 175/2.55
IRB 6650 - 200/2.75
IRB 6650 - 125/3.2
M2000A
Maintenance Manual, IRB 6600/6650, M2000A
3HAC 16246-1
Revision A
The information in this manual is subject to change without notice and
should not be construed as a commitment by ABB. ABB assumes no responsibility for any errors that may appear in this manual.
In no event shall ABB be liable for incidental or consequential damages
arising from use of this manual and products described herein.
This manual and parts thereof must not be reproduced or copied without
ABB’s written permission, and contents thereof must not be imparted to
a third party nor be used for any unauthorized purpose. Contravention
will be prosecuted.
Additional copies of this manual may be obtained from ABB at its then
current charge.
©Copyright 2003 ABB All rights reserved.
ABB Automation Technology Products AB
Robotics
SE-721 68 Västerås
Sweden
Table of Contents
0.0.1 Overview . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1
0.0.2 Product Documentation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .3
Chapter 1: Safety, service
5
1.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .5
Section 1.1: General information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6
1.1.1 Safety, service - General . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .6
1.1.2 Limitation of Liability . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .6
1.1.3 Related information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .6
Section 1.2: Safety risks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7
1.2.1 Safety risks related to gripper. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7
1.2.2 Safety risks related to tools/workpieces . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7
1.2.3 Safety risks related to pneumatic/hydraulic systems . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7
1.2.4 Safety risks during operational disturbances . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7
1.2.5 Safety risks during installation and service . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .8
1.2.6 Risks associated with live electric parts. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .8
Section 1.3: Safety actions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.3.1 Safety fence dimensions. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.3.2 Fire extinguishing. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.3.3 Emergency release of the manipulator’s arm . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.3.4 Brake testing. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10
1.3.5 Risk of disabling function "Reduced speed 250 mm/s". . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11
1.3.6 Safe use of the Teach Pendant Unit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11
1.3.7 Work inside the manipulator’s working range . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11
Chapter 2: Reference information
13
2.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .13
Section 2.1: Reference information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .14
2.1.1 Applicable Safety Standards . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .14
2.1.2 Screw joints . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15
2.1.3 Weight specifications . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .17
2.1.4 Standard toolkit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .18
2.1.5 Special tools, IRB 6600/6650/7600 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .19
2.1.6 Performing a leak-down test . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21
2.1.7 Lifting equipment and lifting instructions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .22
Chapter 3: Service Information System (SIS)
23
3.0.1 Using the SIS system . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .23
3.0.2 Service Information System (SIS) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .24
3.0.3 Defining the SIS input parameters . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .30
3.0.4 Setting the SIS parameters . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .33
3.0.5 Reading the SIS output logs . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .35
3.0.6 Exporting the SIS data . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .36
Chapter 4: Maintenance schedules and intervals
37
4.0.1 Specification of maintenance intervals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .37
4.0.2 Maintenance schedule, IRB 6600/6650 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .38
4.0.3 Expected component life, IRB 6600 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .41
4.0.4 Maintenance schedule, controller S4CPlus M2000A . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .42
3HAC 16246-1
i
Table of Contents
Chapter 5: Maintenance activities, manipulator
43
5.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 43
Section 5.1: Inspection activities . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 44
5.1.1 Inspection, oil level gearbox axis 1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 44
5.1.2 Inspection, oil level gearbox axis 2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 46
5.1.3 Inspection, oil level gearbox axis 3 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 48
5.1.4 Inspection, oil level gearbox axis 4 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 50
5.1.5 Inspection, oil level, gearbox axis 5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 52
5.1.6 Inspection, oil level gearbox axis 6 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54
5.1.7 Inspection, balancing device . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 56
5.1.8 Inspection, cable harness . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 59
5.1.9 Inspection, information labels . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 63
5.1.10 Inspection, mechanical stop, axis 1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 65
5.1.11 Inspection, mechanical stop, axes 1, 2 and 3 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
5.1.12 Inspection, damper axes 2-5 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 68
5.1.13 Inspection, position switch axes 1, 2 and 3 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70
5.1.14 Inspection, UL signal lamp . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 73
Section 5.2: Changing activities . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 75
5.2.1 Oil change, gearbox axis 1. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 75
5.2.2 Oil change, gearbox axis 2. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 78
5.2.3 Oil change, gearbox, axis 3 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 81
5.2.4 Oil change, gearbox, axis 4 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 83
5.2.5 Oil change, gearbox, axis 5 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 85
5.2.6 Oil change, gearbox axis 6. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 87
Section 5.3: Lubrication activities . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 89
5.3.1 Lubrication, balancing device bearing . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 89
Section 5.4: Cleaning activities . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 91
5.4.1 Cleaning, manipulator . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 91
Chapter 6: Maintenance activities, controller cabinet
93
6.0.1 Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 93
Section 6.1: Inspection activities . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 94
6.1.1 Inspection of controller cabinet, S4Cplus M2000A . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 94
Section 6.2: Replacement activities. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 95
6.2.1 Replacement of battery unit, controller . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 95
Section 6.3: Cleaning activities . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 97
6.3.1 Cleaning of controller cabinet . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 97
6.3.2 Cleaning computer fans . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 98
6.3.3 Cleaning Drive units and air outlet device. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 100
6.3.4 Cleaning Air outlet. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 102
6.3.5 Cleaning Drain filter . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 104
ii
3HAC 16246-1
0.0.1 Overview
0.0.1 Overview
About This
Manual
This information product is a manual containing instructions for maintenance of the complete
robot system, mechanically as well as electrically.
Usage
This manual should be used during maintenance work.
Who Should Read
This Manual?
This manual is intended for:
Prerequisites
Organization of
Chapters
•
maintenance personnel in the user's organization.
•
maintenance personnel in other organizations.
The reader should...
•
be a trained maintenance craftsman
•
have the required knowledge of mechanical maintenance work OR
•
have the required knowledge of electrical maintenance work.
The information product is organized in the following chapters:
Chapter
Contents
1
Safety, service
2
Reference information
3
Service Information System (SIS)
4
Maintenance Schedules
5
Maintenance activities
6
Maintenance activities for options
References
Reference
Document Id
Circuit diagram, Manipulator
3HAC 13347-1
Circuit diagram, Controller
3HAC 5582-2
Revisions
Revision
Description
0
First edition
A
3HAC 16246-1
•
Various corrections in text and in figures due to reconstructions, new spare part numbers, new tools, etc.
•
Manual completed with references to pagenumbers and numbering of sections (manipulator sections).
•
Manual completed with version IRB 6650.
A
1
0.0.1 Overview
2
A
3HAC 16246-1
0.0.2 Product Documentation
0.0.2 Product Documentation
General
The complete product documentation kit for the robot, including controller, manipulator and
any hardware option, consists of the manuals listed below:
Installation and
Commissioning
Manual
The Installation and Commissioning Manual contains the following information:
Repair Manual
Maintenance
Manual
•
Safety, Service
•
Reference Information
•
Unpacking
•
On-site Installation
•
Electrical connections
•
Start-up
•
Installation of controller software
•
System directory structure
•
Calibration
•
If there is any, model specific information
The Repair Manual contains the following information:
•
Safety, Service
•
Reference Information
•
Remove/Refitting instructions for all manipulator details considered spare parts
•
Remove/Refitting instructions for all controller cabinet details considered spare parts
•
If there is any, model specific information
The Maintenance Manual contains the following information:
•
Safety, Service
•
Reference Information
•
Maintenance schedules
•
Instructions for all maintenance activities specified in the maintenance schedule, for
example cleaning, lubrication, inspection etc.
•
If there is any, model specific information
The information is generally divided into separate chapters for the manipulator and the controller, respectively.
Software manuals
The software documentation consists of a wide range of manuals, ranging from manuals for
basic understanding of the operating system to manuals for entering parameters during operation.
A complete listing of all available software manuals is available from ABB Robotics.
3HAC 16246-1
A
3
0.0.2 Product Documentation
Hardware option
manual
Each hardware option is supplied with its own documentation. Each document set contains
the types of information specified above:
•
Installation information
•
Repair information
•
Maintenance information
In addition, spare part information is supplied for the complete option.
4
A
3HAC 16246-1
1 Safety, service
1.0.1 Introduction
Chapter 1: Safety, service
1.0.1 Introduction
Definitions
This chapter details safety information for service personnel i.e. personnel performing installation, repair and maintenance work.
Sections
The chapter "Safety, service" is divided into the following sections:
1. General information contains lists of:
• Safety, service -general
• Limitation of liability
• Referenced documents
2. Safety risks lists dangers relevant when servicing the robot system. The dangers are split into different categories:
• Safety risks related to gripper/end effector
• Safety risks related to tools/workpieces
• Safety risks related to pneumatic/hydraulic systems
• Safety risks during operational disturbances
• Safety risks during installation and service
• Risks associated with live electric parts
3. Safety actions details actions which may be taken to remedy or avoid dangers.
• Safety fence dimensions
• Fire extinguishing
• Emergency release of the manipulator´s arm
• Brake testing
• Risk of disabling function "Reduced speed 250 mm/s"
• Safe use of the Teach Pendant Unit enabling device
• Work inside the manipulator´s working range
3HAC 16246-1
A
5
1 Safety, service
1.1.1 Safety, service - General
Section 1.1: General information
1.1.1 Safety, service - General
Validity and
responsibility
The information does not cover how to design, install and operate a complete system, nor
does it cover all peripheral equipment, which can influence the safety of the total system. To
protect personnel, the complete system must be designed and installed in accordance with the
safety requirements set forth in the standards and regulations of the country where the robot
is installed.
The users of ABB industrial robots are responsible for ensuring that the applicable safety laws
and regulations in the country concerned are observed and that the safety devices necessary
to protect people working with the robot system have been designed and installed correctly.
Personnel working with robots must be familiar with the operation and handling of the industrial robot, described in the applicable documents, e.g. User’s Guide and Product Manual.
Connection of
external safety
devices
Apart from the built-in safety functions, the robot is also supplied with an interface for the
connection of external safety devices. Via this interface, an external safety function can interact with other machines and peripheral equipment. This means that control signals can act on
safety signals received from the peripheral equipment as well as from the robot.
In the Product Manual - Installation and Commissioning, instructions are provided for connecting safety devices between the robot and the peripheral equipment.
1.1.2 Limitation of Liability
General
Any information given in this information product regarding safety, must not be construed as
a warranty by ABB Robotics that the industrial robot will not cause injury or damage even if
all safety instructions have been complied with.
1.1.3 Related information
General
The list below specifies documents which contain useful information:
Documents
Type of information
Detailed in document
Installation of safety devices
Installation and Commissioning
Manual
Changing robot modes
User’s Guide
Restricting the working space Installation and Commissioning
Manual
6
A
Section
Start-up
On-site installation Manipulator
3HAC 16246-1
1 Safety, service
1.2.1 Safety risks related to gripper
Section 1.2: Safety risks
1.2.1 Safety risks related to gripper
Ensure that a gripper is prevented from dropping a workpiece, if such is used.
1.2.2 Safety risks related to tools/workpieces
Safe handling
It must be possible to turn off tools, such as milling cutters, etc., safely. Make sure that guards
remain closed until the cutters stop rotating.
It should be possible to release parts by manual operation (valves).
Safe design
Grippers/end effectors must be designed so that they retain workpieces in the event of a power
failure or a disturbance of the controller.
1.2.3 Safety risks related to pneumatic/hydraulic systems
General
Residual energy
Safe design
Special safety regulations apply to pneumatic and hydraulic systems.
•
Residual energy may be present in these systems so, after shutdown, particular care
must be taken.
•
The pressure in pneumatic and hydraulic systems must be released before starting to
repair them.
•
Gravity may cause any parts or objects held by these systems to drop.
•
Dump valves should be used in case of emergency.
•
Shot bolts should be used to prevent tools, etc., from falling due to gravity.
1.2.4 Safety risks during operational disturbances
General
Qualified personnel
Extraordinary
risks
3HAC 16246-1
•
The industrial robot is a flexible tool which can be used in many different industrial
applications.
•
All work must be carried out professionally and in accordance with the applicable
safety regulations.
•
Care must be taken at all times.
•
Remedial action must only be carried out by qualified personnel who are familiar with
the entire installation as well as the special risks associated with its different parts.
If the working process is interrupted, extra care must be taken due to risks other than those
associated with regular operation. Such an interruption may have to be rectified manually.
A
7
1 Safety, service
1.2.5 Safety risks during installation and service
1.2.5 Safety risks during installation and service
General risks during installation
and service
Nation/region
specific regulations
Non-voltage
related risks
To be observed
by the supplier of
the complete system
•
The instructions in the Product Manual - Installation and Commissioning must always
be followed.
•
Emergency stop buttons must be positioned in easily accessible places so that the
robot can be stopped quickly.
•
Those in charge of operations must make sure that safety instructions are available
for the installation in question.
•
Those who install the robot must have the appropriate training for the robot system in
question and in any safety matters associated with it.
To prevent injuries and damage during the installation of the robot system, the regulations
applicable in the country concerned and the instructions of ABB Robotics must be complied
with.
•
Safety zones, which have to be crossed before admittance, must be set up in front of
the robot's working space. Light beams or sensitive mats are suitable devices.
•
Turntables or the like should be used to keep the operator out of the robot's working
space.
•
The axes are affected by the force of gravity when the brakes are released. In addition
to the risk of being hit by moving robot parts, you run the risk of being crushed by the
tie rod.
•
Energy, stored in the robot for the purpose of counterbalancing certain axes, may be
released if the robot, or parts thereof, is dismantled.
•
When dismantling/assembling mechanical units, watch out for falling objects.
•
Be aware of stored heat energy in the controller.
•
Never use the robot as a ladder, i.e. do not climb on the robot motors or other parts
during service work. There is a serious risk of slipping because of the high temperature of the motors or oil spills that can occur on the robot.
•
The supplier of the complete system must ensure that all circuits used in the safety
function are interlocked in accordance with the applicable standards for that function.
•
The supplier of the complete system must ensure that all circuits used in the emergency stop function are interlocked in a safe manner, in accordance with the applicable standards for the emergency stop function.
1.2.6 Risks associated with live electric parts
Voltage related
risks, general
Voltage related
risks, controller
8
•
Although troubleshooting may, on occasion, have to be carried out while the power
supply is turned on, the robot must be turned off (by setting the mains switch to OFF)
when repairing faults, disconnecting electric leads and disconnecting or connecting
units.
•
The mains supply to the robot must be connected in such a way that it can be turned
off outside the robot’s working space.
A danger of high voltage is associated with the following parts:
•
Be aware of stored electrical energy (DC link) in the controller.
A
3HAC 16246-1
1 Safety, service
1.2.6 Risks associated with live electric parts
•
Units inside the controller, e.g. I/O modules, can be supplied with power from an external source.
•
The mains supply/mains switch
•
The power unit
•
The power supply unit for the computer system (230 VAC)
•
The rectifier unit (400-480 VAC and 700 VDC. Note: Capacitors!)
•
The drive unit (700 VDC)
•
The service outlets (115/230 VAC)
•
The power supply unit for tools, or special power supply units for the machining process
•
The external voltage connected to the control cabinet remains live even when the
robot is disconnected from the mains.
•
Additional connections
Voltage related
risks, manipulator
A danger of high voltage is associated with the manipulator in:
Voltage related
risks, tools, material handling
devices, etc
Tools, material handling devices, etc., may be live even if the robot system is in the OFF
position. Power supply cables which are in motion during the working process may be damaged.
3HAC 16246-1
•
The power supply for the motors (up to 800 VDC)
•
The user connections for tools or other parts of the installation (max. 230 VAC, see
Installation and Commissioning Manual)
A
9
1 Safety, service
1.3.1 Safety fence dimensions
Section 1.3: Safety actions
1.3.1 Safety fence dimensions
General
Fit a safety fence or enclosure around the robot to ensure a safe robot installation.
Dimensioning
Dimension the fence or enclosure to enable it to withstand the force created if the load being
handled by the robot is dropped or released at maximum speed. Determine the maximum
speed from the maximum velocities of the robot axes and from the position at which the robot
is working in the work cell (see Product Specification - Description, Robot Motion).
Also consider the maximum possible impact caused by a breaking or malfunctioning rotating
tool or other device fitted to the manipulator.
1.3.2 Fire extinguishing
Use a CARBON DIOXIDE (CO 2 ) extinguisher in the event of a fire in the robot (manipulator
or controller)!
1.3.3 Emergency release of the manipulator’s arm
Description
In an emergency situation, any of the manipulator’s axes may be released manually by pushing the brake release buttons on the manipulator or on an optional external brake release unit.
How to release the brakes is detailed in section "Manually releasing the brakes".
The manipulator arm may be moved manually on smaller robot models, but larger models
may require using an overhead crane or similar.
Increased injury
Before releasing the brakes, make sure that the weight of the arms does not increase the
pressure on the trapped person, which may further increase any injury!
1.3.4 Brake testing
When to test
During operation the holding brakes of each axis motor wear normally. A test may be performed to determine whether the brake can still perform its function.
How to test
The function of each axis’ motor holding brakes may be checked as detailed below:
1. Run each manipulator axis to a position where the combined weight of the manipulator arm and any load is maximized (max. static load).
2. Switch the motor to the MOTORS OFF position with the Operating mode selector
on the controller.
3. Check that the axis maintains its position.
If the manipulator does not change position as the motors are switched off, then the brake
function is adequate.
10
A
3HAC 16246-1
1 Safety, service
1.3.5 Risk of disabling function "Reduced speed 250 mm/s"
1.3.5 Risk of disabling function "Reduced speed 250 mm/s"
Do not change "Transm gear ratio" or other kinematic parameters from the Teach Pendant Unit
or a PC. This will affect the safety function Reduced speed 250 mm/s.
1.3.6 Safe use of the Teach Pendant Unit
The enabling device is a push button located on the side of the Teach Pendant Unit (TPU)
which, when pressed halfway in, takes the system to MOTORS ON. When the enabling device
is released or pushed all the way in, the robot is taken to the MOTORS OFF state.
To ensure safe use of the Teach Pendant Unit, the following must be implemented:
The enabling device must never be rendered inoperative in any way.
During programming and testing, the enabling device must be released as soon as there is no
need for the robot to move.
The programmer must always bring the Teach Pendant Unit with him/her, when entering the
robot’s working space. This is to prevent anyone else taking control over the robot without the
programmer knowing.
1.3.7 Work inside the manipulator’s working range
If work must be carried out within the robot’s work envelope, the following points must be
observed:
- The operating mode selector on the controller must be in the manual mode position to render
the enabling device operative and to block operation from a computer link or remote control
panel.
- The robot’s speed is limited to max. 250 mm/s when the operating mode selector is in position
< 250 mm/s. This should be the normal position when entering the working space. The position
100% ”full speed”may only be used by trained personnel who are aware of the risks that this
entails.
- Pay attention to the rotating axes of the manipulator! Keep a distance to the axes in order not
to get entangled with hair or clothing. Also be aware of any danger that may be caused by
rotating tools or other devices mounted on the manipulator or inside the cell.
- Test the motor brake on each axis, according to section Brake testing on page 10.
3HAC 16246-1
A
11
1 Safety, service
1.3.7 Work inside the manipulator’s working range
12
A
3HAC 16246-1
2 Reference information
2.0.1 Introduction
Chapter 2: Reference information
2.0.1 Introduction
General
3HAC 16246-1
This chapter presents generic pieces of information, complementing the more specific information in the following chapters.
A
13
2 Reference information
2.1.1 Applicable Safety Standards
Section 2.1: Reference information
2.1.1 Applicable Safety Standards
Standards,
general
Standards,
robot cell
14
The robot is designed in accordance with the requirements of:
•
EN 775 - Robot safety.
•
EN 292-1 - Basic terminology.
•
EN 292-2 - Technical principles.
•
EN 418 - Emergency stop.
•
EN 563 - Temperatures of surfaces.
•
EN 954-1 - Safety related parts of control systems.
•
EN 60204-1 - Electrical equipment of machines.
•
EN 1050 - Principles for risk assessment.
•
ANSI/RIA 15.06-1999 - Industrial robots, safety requirements.
•
DIN 19258 - Interbus-S, International Standard
The following standards are applicable when the robot is part of a robot cell:
•
EN 953 - Fixed and moveable guards
•
EN 811 - Safety distances to prevent danger zones being reached by the lower limbs.
•
EN 349 - Minimum gaps to avoid crushing of parts of the human body.
•
EN 294 - Safety distances to prevent danger zones being reached by the upper limbs.
•
EN 1088 - Interlocking devices
•
EN 999 - The positioning of protective equipment in respect of approach speeds of the
human body.
•
ISO 11 161 - Industrial automation systems - Safety of intergrated manufacturing systems.
A
3HAC 16246-1
2 Reference information
2.1.2 Screw joints
2.1.2 Screw joints
General
This section details how to tighten the various types of screw joints on the manipulator as well
as the controller.
The instructions and torque values are valid for screw joints comprising metallic materials
and do not apply to soft or brittle materials.
Any instructions given in the repair, maintenance or installation procedure description override any value or procedure given here, i.e. these instruction are only valid for standard type
screw joints.
UNBRAKO
screws
UNBRAKO is a special type of screw recommended by ABB in certain screw joints. It features special surface treatment (Gleitmo as described below), and is extremely resistant to
fatigue.
Whenever used, this is specified in the instructions and in such cases no other type of replacement screw is allowed. Using other types of screw will void any warranty and may potentially
cause serious damage or injury!
Gleitmo treated
screws
Gleitmo is a special surface treatment to reduce the friction when tightening the screw joint.
Screws treated with Gleitmo may be reused 3-4 times before the coating disappears. After this
the screw must be discarded and replaced with a new one.
When handling screws treated with Gleitmo, protective gloves of nitrile rubber type should
be used.
Screws lubricated
in other ways
Screws lubricated with Molycote 1000 (or another lubricant) should only be used when specified in the repair, maintenance or installation procedure descriptions.
In such cases, proceed as follows:
1. Lubricate the thread of the screw.
2. Lubricate between the plain washer and screw head.
3. Tighten to the torque specified in section "Tightening torque" below. Screw dimensions
of M8 or larger must be tightened with a torque wrench. Screw dimensions of M6 or
smaller may be tightened without a torque wrench if this is done by trained and qualified personnel.
Tightening torque
3HAC 16246-1
Lubricant
Art. no.
Molycote 1000 (molybdenum disulphide grease)
1171 2016-618
Below are tables specifying the torque values for different screw joint types:
A
15
2 Reference information
2.1.2 Screw joints
Screws with
slotted or cross
recess head
Dimension
Tightening torque (Nm)
Class 4.8 "dry"
M2.5
0.25
M3
0.5
M4
1.2
M5
2.5
M6
5.0
Dimension
Tightening torque
(Nm)
Class 8.8 "dry"
Tightening torque
(Nm)
Class 10.9 "dry"
Tightening torque
(Nm)
Class 12.9 "dry"
M5
6
-
-
M6
10
-
-
M8
24
34
40
M10
47
67
80
M12
82
115
140
M16
200
290
340
Dimension
Tightening torque (Nm)
Class 10.9
Tightening torque (Nm)
Class 12.9
M8
28
34
M10
55
66
M12
96
115
M16
235
280
Screws with
hexagon socket
head, “dry”
Screws with
hexagon socket
head, lubricated
16
A
3HAC 16246-1
2 Reference information
2.1.3 Weight specifications
2.1.3 Weight specifications
Definition
In all repair and maintenance instructions, weights of the components handled are sometimes
specified. All components exceeding 22 kg (50 lbs) are high-lighted in this way.
ABB recommends the use of lifting equipment when handling components with a weight
exceeding 22 kg to avoid inflicting injury. A wide range of lifting tools and devices is available for each manipulator model.
Example
Below is an example of how a weight specification is presented:
The motor weighs 65 kg! All lifting equipment used must be dimensioned accordingly!
3HAC 16246-1
A
17
2 Reference information
2.1.4 Standard toolkit
2.1.4 Standard toolkit
General
All service (repairs, maintenance and installation) instructions contain lists of tools required
to perform the specified activity.
All special tools required are listed directly in the instructions while all the tools that are
considered standard are gathered in the Standard toolkit and defined in the table below.
In this way, the tools required are the sum of the Standard Toolkit and any tools listed in the
instruction.
Contents,
standard toolkit,
3HAC 15571-1
18
Qty
Art. no.
Tool
Rem.
1
-
Ring-open-end spanner 8-19mm
1
-
Socket head cap 5-17mm
1
-
Torx socket no:20-60
1
-
Box spanner set
1
-
Torque wrench 10-100Nm
1
-
Torque wrench 75-400Nm
1
-
Ratchet head for torque wrench 1/2
2
-
Hexagon-headed screw M10x100
1
-
Socket head cap no:14, socket 40mm bit L 100mm
1
-
Socket head cap no:14, socket 40mm bit L 20mm To be shorted to
12mm
1
-
Socket head cap no:6, socket 40mm bit L 145mm
A
3HAC 16246-1
2 Reference information
2.1.5 Special tools, IRB 6600/6650/7600
2.1.5 Special tools, IRB 6600/6650/7600
General
All service (repairs, maintenance and installation) instructions contain lists of tools required
to perform the specified activity. The required tools are a sum of standard tools, defined in
section Standard toolkit on page 18, and of special tools, listed directly in the instructions and
also gathered in the table below.
Special tools, IRB
6600/6650/7600
The table below is an overview of all the special tools required when performing service
activities on the IRB 6600/6650/7600. The tools are gathered in two kits: Basic Toolkit
(3HAC 15571-3) and Extended Toolkit (3HAC 15571-2).
The special tools are also listed directly in the current instructions.
3HAC 16246-1
Description
IRB 66X0/ IRB 7600/
Art. no.
Qty
Qty
Angel bracket
a
a
68080011-LP
Bolts (M16 x 60) for Mech stop ax 3
2
-
3HAB 3409-86
Bolts (M16 x 80) for Mech stop ax 3
-
2
3HAB 3409-89
Cal. tool
a
a
68080011-GM
Calibration bracket
a
-
3HAC 13908-9
Calibration tool ax1
a
a
3HAC 13908-4
CalPen (Calibration Pendulum)
1
1
3HAC 15716-1
Extension 300mm for bits 1/2"
1
1
3HAC 12342-1
Fixture lower arm
1
-
3HAC 13659-1
Fixture lower arm
-
1
3HAC 13660-1
Gearbox crank
1
-
3HAC 16488-1
Guide pins M12 x 150
2
-
3HAC 13056-2
Guide pins M12 x 200
2
-
3HAC 13056-3
Guide pins M12 x 250
1
-
3HAC 13056-4
Guide pins M8 x 100
2
-
3HAC 15520-1
Guide pins M8 x 150
2
-
3HAC 15520-2
Guide pins sealing
-
b
3HAC 14445-1
Guide pins sealing
b
-
3HAC 14446-1
Guide pins M10 x 100
2
2
3HAC 15521-1
Guide pins M10 x 150
2
2
3HAC 15521-2
Guide pins M16 x 150
-
2
3HAC 13120-2
Guide pins M16 x 200
-
2
3HAC 13120-3
Guide pins M16 x 250
-
1
3HAC 13120-4
Guide pins M16 x 300
2
2
3HAC 13120-5
Guide pins sealing ax 2, 3, 100mm
1
-
3HAC 14628-2
Guide pins sealing ax 2, 3, 80mm
1
-
3HAC 14628-1
Guide pins sealing ax 2, 3, 100mm
-
1
3HAC 14627-3
Guide pins sealing ax 2, 3, 80mm
-
1
3HAC 14627-2
Hydraulic cylinder
1
1
3HAC 11731-1
A
19
2 Reference information
2.1.5 Special tools, IRB 6600/6650/7600
Description
IRB 66X0/ IRB 7600/
Art. no.
Qty
Qty
Hydraulic pump 80Mpa
1
1
3HAC 13086-1
Hydraulic pump 80Mpa (Glycerin)
b
b
3HAC 13086-2
Levelmeter 2000 kit
a
a
6369901-348
Lifting device, base
1
1
3HAC 15560-1
Lifting device, manipulator
1
1
3HAC 15607-1
Lifting device, upper arm
1
-
3HAC 15994-1
Lifting device, upper arm
-
1
3HAC 15536-1
Lifting eye VLBG M12
1
1
3HAC 16131-1
Lifting eye M12
2
2
3HAC 14457-3
Lifting eye M16
2
2
3HAC 14457-4
Lifting tool (chain)
1
1
3HAC 15556-1
Lifting tool, gearbox ax 2
1
-
3HAC 13698-1
Lifting tool, gearbox ax 2
-
1
3HAC 12731-1
Lifting tool, lower arm
b
b
3HAC 14691-1
Lifting tool, motor ax 1, 4, 5
1
1
3HAC 14459-1
Lifting tool, motor ax 2, 3, 4
1
1
3HAC 15534-1
Lifting tool, wrist unit
1
-
3HAC 13605-1
Lifting tool, wrist unit
-
1
3HAC 12734-1
Measuring pin
a
-
3HAC 13908-5
Mech stop ax 3
2
-
3HAC 12708-1
Mech stop ax 3
-
2
3HAC 12708-2
Press tool, ax 2 bearing
1
-
3HAC 13527-1
Press tool, ax 2 bearing
-
1
3HAC 13453-1
Press tool, ax 2 shaft
1
1
3HAC 13452-1
Press tool, balancing device shaft
1
1
3HAC 17129-1
Press tool, balancing device
1
1
3HAC 15767-1
Puller tool, balancing device shaft
1
1
3HAC 12475-1
Removal tool, wheel unit
-
1
3HAC 15814-1
Removal tool, motor M10x
2
2
3HAC 14972-1
Removal tool, motor M12x
2
2
3HAC 14631-1
Removal tool, motor M12x
2
2
3HAC 14973-1
Rotation tool
1
1
3HAC 17105-1
Sensor plate
a
1
3HAC 0392-1
Support, base
1
1
3HAC 15535-1
Sync. adapter
a
a
3HAC 13908-1
Tool set balancing device
1
-
3HAC 15943-2
Tool set balancing device
-
1
3HAC 15943-1
Turn disk fixture
a
a
3HAC 68080011-GU
Washers for Mech stop axis 3
2
2
3HAA 1001-186
Note a) Calibration tools for IRB 6600/6650/7600 when CalPen is not used (standard).
Note b) Special tools that may be rent from ATRP/S.
20
A
3HAC 16246-1
2 Reference information
2.1.6 Performing a leak-down test
2.1.6 Performing a leak-down test
General
After refitting any motor and any gearbox, the integrity of all seals enclosing the gearbox oil
must be tested. This is done in a leak-down test.
Required equipment
Equipment, etc.
Spare part no. Art. no.
Leakdown tester
Note
3HAC 0207-1
Leak detection spray
Procedure
Step
3HAC 16246-1
Action
Note/Illustration
1.
Finish the refitting procedure of the motor or gear in
question.
2.
Remove the topmost oil plug on the gear in question, Art. no. specified above!
and replace it with the leakdown tester .
Adapters may be required, which are included in the
leakdown tester kit.
3.
Apply compressed air, and raise the pressure with
the knob until the correct value is shown on the
manometer.
4.
Disconnect the compressed air supply.
5.
Wait for approx. 8-10 minutes. No pressure loss
must be detected.
6.
Was any pressure drop evident?
Localize the leak as detailed below.
Remove the leakdown tester, and refit the oil plug.
The test is complete.
7.
Spray suspected leak areas with leak detection
spray .
Bubbles indicate a leak.
8.
When the leak has been localized: take the necessary measures to correct the leak.
A
Recommended value: 0.2 0.25 bar (20 - 25 kPa)
If the compressed air is significantly colder or warmer than
the gearbox to be tested, a
slight pressure increase or
decrease respectively may
occur. This is quite normal.
Art. no. specified above!
21
2 Reference information
2.1.7 Lifting equipment and lifting instructions
2.1.7 Lifting equipment and lifting instructions
General
Many repair and maintenance activities require different pieces of lifting equipment, which
are specified in each activity instruction.
However, how to use each piece of lifting equipment is not detailed in the activity instruction,
but in the instruction delivered with each piece of lifting equipment.
This implies that the instructions delivered with the lifting equipment should be stored for
later reference.
22
A
3HAC 16246-1
3 Service Information System (SIS)
3.0.1 Using the SIS system
Chapter 3: Service Information System (SIS)
3.0.1 Using the SIS system
General
This is a brief description of how to use the Service Information System, SIS. Details may be
found in:
•
Service Information System, SIS
•
Defining the SIS input parameters
•
Setting the SIS parameters
•
Importing/exporting SIS data
•
Reading the SIS output logs
Basic procedure
Step
3HAC 16246-1
Action
Reference
1.
Determine which of the system function
you require.
These are described in Service Information System (SIS) on page 24.
2.
Define what values are adequate and
suitable for your application in your production environment.
Recommendations on how to define
these are given in Defining the SIS input
parameters on page 30.
Maintenance intervals recommended by
ABB are specified in section "Maintenance Schedule" in the Maintenance
Manual.
3.
Enter these parameters in the system.
How to do this is detailed in Setting the
SIS parameters on page 33.
4.
Run the robot in normal operation.
5.
Reset the counter if a repair has to be
The TPU displays for resetting any SIS
made, or if a counter for any other reason value are shown in Service Information
has to be restarted.
System (SIS) on page 24.
6.
When a time limit, set in the parameters, How to access this is detailed in Reading
is exceeded, a message may be read on the SIS output logs on page 35.
the Tech Pendant Unit (TPU).
7.
If the log containing the message is to be These are described in Exporting the SIS
available from an external PC, or if the
data on page 36.
SIS parameters are to be entered from
an external PC, a set of software tools
are available to build such an application.
A
23
3 Service Information System (SIS)
3.0.2 Service Information System (SIS)
3.0.2 Service Information System (SIS)
General
Service Information System (SIS) is a software function within the robot controller, which
simplifies maintenance of the robot system. It supervises the operating time and mode of the
robot, and alerts the operator when a maintenance activity is scheduled.
Supervised functions
The following counters may be set:
•
Calendar time counter, a general alarm based on calendar time
•
Operation time counter, a general alarm based on operational time
•
Gearbox 1 operation time counter, based on percentage of the axis 1 gearbox service
interval
•
Gearbox 2 operation time counter, based on percentage of the axis 2 gearbox service
interval
•
Gearbox 3 operation time counter, based on percentage of the axis 3 gearbox service
interval
•
Gearbox 6 operation time counter, based on percentage of the axis 6 gearbox service
interval
The figure below show the different selections possible:
xx0200000034
x OK
24
"OK" indicates that no service interval limit has been exceeded by that counter.
If any such limit was exceeded, the counter name would be followed by "NOK".
A
3HAC 16246-1
3 Service Information System (SIS)
3.0.2 Service Information System (SIS)
Calendar time
This is a clock within the control system that enables you to set a specific service interval,
based on calendar time:
xx0200000035
After this time, a message is accessible on the Tech Pendant Unit (TPU). How to access this
is detailed in section Reading the SIS output logs on page 35.
Operation time
Prev service
Date when the counter was reset last time, i.e. after the last service. This
date was entered manually as detailed in section Setting the SIS parameters on page 33.
Elapsed time
Elapsed time since the counter was reset the last time.
Next service
Date when next scheduled service is planned. This date is entered manually as detailed in section Setting the SIS parameters on page 33.
Remaining time
Remaining time to next scheduled service date.
This is a function within the control system that counts the amount of time the "MOTORS
ON" signal is active, i.e. the amount of time the robot is in the operational mode.
xx0200000036
After this time, a message is accessible on the Teach Pendant Unit (TPU). How to access this
is detailed in section Reading the SIS output logs on page 35.
3HAC 16246-1
Service interval
The specified service interval until another service will be required. This
parameter was entered manually as detailed in section Setting the SIS
parameters on page 33.
Elapsed time
Operation time since the service interval was set the last time.
Remaining time
Remaining operation time until the time set in service interval has
expired.
A
25
3 Service Information System (SIS)
3.0.2 Service Information System (SIS)
Gearbox
Based on measurements, torque and RPM, for example, the system calculates an expected
service interval for each gearbox. When service is due, a message will be shown on the TPU.
How to access this is detailed in section Reading the SIS output logs on page 35.
en0200000037
Axis x OK
Service status for axis x, i.e. the automatically calculated time parameter
has not been exceeded.
Axis x NOK
The service interval for the axis in question has been reached.
Axis x N/A
No service time parameter calculation available.
Applies to axes 4 and 5 (IRB 6600 and IRB 7600).
en0200000038
This example shows the window for axis 1, but is also valid for the other axes.
26
Consumed time
The consumed time as a percentage of the total amount of time.
Elapsed time
Operation time for axis x since calculation began.
Remaining time
Remaining operation time for axis x until the service time parameter
value has been reached.
A
3HAC 16246-1
3 Service Information System (SIS)
3.0.2 Service Information System (SIS)
Reset values
All counters may be reset at any time.
en0200000040
When resetting, both variables sisRestartDate and sisCalendarT are reset!
The variables are described in section Exporting the SIS data on page 36!
Yes
Resets the counter to zero.
No
Does not reset the counter, but returns to the previous menu.
en0200000041
When resetting, variable sisRunT is reset!
The variables are described in section Exporting the SIS data on page 36!
3HAC 16246-1
Yes
Resets the counter to zero.
No
Does not reset the counter, but returns to the previous menu.
A
27
3 Service Information System (SIS)
3.0.2 Service Information System (SIS)
en0200000039
When resetting, both variables sisL10h_x and sisL10h_Time_x are reset!
The variables are described in section Exporting the SIS data on page 36!
Service interval
exceeded
Yes
Resets the counter to zero.
No
Does not reset the counter, but returns to the previous menu.
When the service time has been exceeded for the selection made, a message (Service interval
exceeded!) is displayed below the data of the counter in question:
en0200000044
This window may be shown for any time mode; calendar time, operation time or gearbox
time.
In addition to this view, an error message is also displayed on the TPU when the service
interval is exceeded!
28
A
3HAC 16246-1
3 Service Information System (SIS)
3.0.2 Service Information System (SIS)
No data available
When no data is available for the selection made, a message (No data available!) is displayed
below the function in question:
en0200000043
This window may be shown for any time mode; calendar time, operation time or gearbox
time.
Exit
en0200000042
3HAC 16246-1
Yes
Exits the Service Information System.
No
Returns to the Service Information System.
A
29
3 Service Information System (SIS)
3.0.3 Defining the SIS input parameters
3.0.3 Defining the SIS input parameters
General
This section details the parameters that may be set with estimated values. The values can be
defined by the operating organization as knowledge of the robot’s working conditions are
accumulated.
Since the counters are to be used for purposes defined by the user, ABB cannot give any
recommendations regarding their definitions.
The figure below shows the options of parameters to be set.
en0200000049
Operation time
limit (service
level)
The number of operation hours selected as service interval.
E.g. by setting the value "20,000", the SIS will save this as the nominal time for activating
the alarm, not counting the percentage described below.
en0200000054
30
A
3HAC 16246-1
3 Service Information System (SIS)
3.0.3 Defining the SIS input parameters
Operation time
warning
A percentage of the "Operation time limit" specified above.
E.g. by setting the value "90", the SIS will alert the operator 18,000 hours after an operation
time "Reset" was made the last time.
en0200000053
Calendar time
limit (service
level)
The number of calendar years selected as service interval.
E.g. by setting the value "2", the SIS will save this as the nominal time for activating the
alarm, not counting the percentage described below.
en0200000050
Calendar time
warning
A percentage of the "Calendar time limit" specified above.
E.g. by setting the value "90", the SIS will alert the operator after 90% of two years, i.e. 657
days after a calendar time "Reset" was made the last time.
en0200000051
3HAC 16246-1
A
31
3 Service Information System (SIS)
3.0.3 Defining the SIS input parameters
Gearbox warning
A percentage of the gearbox service interval as calculated by the system.
E.g. by setting the value "90", the SIS will alert the operator after 90% of the expected service
interval of each gearbox.
The robot system automatically detects and stores all required variables to calculate the
expected service interval of each gearbox. This is done by extrapolating data from earlier
operation into a function of time, using a formula including:
•
input and output torque
•
gearbox spindle speed
•
other variables
en0200000052
32
A
3HAC 16246-1
3 Service Information System (SIS)
3.0.4 Setting the SIS parameters
3.0.4 Setting the SIS parameters
General
If the SIS system is to function properly, a number of parameters must be set. How to do this
is detailed below.
Procedure
This is an instruction of how to enter SIS parameters to the robot system.
Step
Action
Rem.
1.
Open "System parameters" using the
TPU.
Detailed in the User’s Guide.
2.
Go to "System parameters/Manipulator/
types 2".
xx0200000045
en0200000046
3.
Select "0 SIS parameters" and press
"Enter".
en0200000047
xx0100000200
3HAC 16246-1
A
33
3 Service Information System (SIS)
3.0.4 Setting the SIS parameters
Step
4.
Action
Rem.
Select the required system
The parameter list is displayed.
en0200000048
en0200000049
5.
34
Select the required parameters by step- Available parameters are described in
ping up and down through the parame- Defining the SIS input parameters on page
ter list.
30!
A
3HAC 16246-1
3 Service Information System (SIS)
3.0.5 Reading the SIS output logs
3.0.5 Reading the SIS output logs
General
Whenever a set condition has expired (e.g. max allowed operation time before service), a
message to this effect will be shown in the Operational log.
Access to logs
How to open any log and show its contents is detailed in the "User’s Guide", chapter "Service".
Available messages
The following messages may be shown:
Available in:
3HAC 16246-1
SIS message in
Operational log
Meaning
Calendar time
Service Message
Service is due!
X calendar days since
last service.
The manually set calendar time limit has expired.
How to set the limit is detailed in section Setting
the SIS parameters on page 33.
Proceed with the required service as detailed in
the Repair Manual or Maintenance Manual
depending on which type of service.
Calendar time
Service Message
X calendar days to
next service.
X number of calendar days remain until the manually set calendar time limit expires.
How to set the value determining when the message is to be shown, is detailed in section Setting
the SIS parameters on page 33.
Operation time
Service Message
Service is due!
X production hours
since last service.
The manually set operation time limit has expired.
How to set the limit is detailed in section Setting
the SIS parameters on page 33.
Proceed with the required service as detailed in
the Repair Manual or Maintenance Manual
depending on which type of service.
Operation time
Service Message
X production hours to
next service.
X number of operation hours remain until the manually set operation time limit expires.
How to set the value determining when the message is to be shown, is detailed in section Setting
the SIS parameters on page 33.
Gearbox time
Service Message
Gearbox x requires
service!
The automatically calculated gearbox time limit
has expired.
Proceed with the required service as detailed in
the Repair Manual or Maintenance Manual
depending on which type of service.
Gearbox time
Service Message
X percent of gearbox hours remain until the autoX% of the service inter- matically calculated gearbox time limit expires.
val has expired for
How to set the value determining when the mesgearbox x!
sage is to be shown, is detailed in section Setting
the SIS parameters on page 33.
A
35
3 Service Information System (SIS)
3.0.6 Exporting the SIS data
3.0.6 Exporting the SIS data
General
This section describes the available variables for entering SIS parameters as well as showing
any messages of exceeded time limits as detected by the SIS counters on an external PC using
"Webware SDK".
How to access these variables and how to perform the actual programming sequences are
detailed in the robot system User’s Guide.
Definitions
36
The table below defines the names and functions of all software variables available for communication between the SIS and an external computer.
Signal
Unit
Counter
type
sisRestartDate
sec
Calendar time
The date on which the supervision was started/
reset last time.
Expressed in seconds starting 1/1 1970 (in accordance with ANSI c-standard).
sisCalendarT
sec
Calendar time
The number of seconds since start/last reset.
sisTotRunT
sec
Operation time Total number of operation seconds since the system was started. Corresponds to the operating
time counter on the control cabinet.
sisRunT
sec
Operation time The number of operation seconds since start/last
reset of the operation time counter. Corresponds
to the operating time counter on the control cabinet.
sisL10h_1
hrs
Gearbox time
Estimated life of gearbox axis 1
sisL10h_Time_1 sec
Gearbox time
Operation time of gearbox axis 1
sisL10h_2
hrs
Gearbox time
Estimated life of gearbox axis 2
sisL10h_Time_2 sec
Gearbox time
Operation time of gearbox axis 2
sisL10h_3
hrs
Gearbox time
Estimated life of gearbox axis 3
sisL10h_Time_3 sec
Gearbox time
Operation time of gearbox axis 3
sisL10h_6
hrs
Gearbox time
Estimated life of gearbox axis 6
sisL10h_Time_6 sec
Gearbox time
Operation time of gearbox axis 6
A
Function
3HAC 16246-1
4 Maintenance schedules and intervals
4.0.1 Specification of maintenance intervals
Chapter 4: Maintenance schedules and intervals
4.0.1 Specification of maintenance intervals
Description
3HAC 16246-1
The intervals may be specified in different ways depending on the type of maintenance activity to be carried out and the working conditions of the robot:
•
Calendar time: specified in months regardless of whether the robot system is run or
not.
•
Operating time: specified in operating hours. More frequent running of the robot
means more frequent maintenance activities.
•
SIS: specified by the robot's Service Information System (SIS). How to access this
information is detailed in section "Access to SIS information". A typical value is given
for a typical work cycle, but the value will differ depending on how hard each part is
run.
A
37
4 Maintenance schedules and intervals
4.0.2 Maintenance schedule, IRB 6600/6650
4.0.2 Maintenance schedule, IRB 6600/6650
General
The robot, consisting of manipulator and controller cabinet, must be maintained regularly to
ensure its function. The maintenance activities and their respective intervals are specified in
the table below.
Non-predictable situations also give rise to inspections of the robot. If damage is discovered,
attend to it immediately!
The inspection intervals do not specify the life of each component. Values for these are specified in Expected component life, IRB 6600 on page 41.
Activities and
intervals, standard equipment
38
The section referred to in the table can be found in the different chapters for every maintenance activity.
The table below specifies the required maintenance activities and intervals:
Maintenance
Equipment
activity
Interval
Note
Inspection
Axis 1 gear, oil
level
12 mths
Ambient tempera- "Inspection, oil level,
ture below 50 °C 1 gearbox axis 1"
Inspection
Axis 2 gear, oil
level
12 mths
Ambient tempera- "Inspection, oil level,
ture below 50 °C 1 gearbox axis 2"
Inspection
Axis 3 gear, oil
level
12 mths
Ambient tempera- "Inspection, oil level,
ture below 50 °C 1 gearbox axis 3"
Inspection
Axis 4 gear, oil
level
12 mths
"Inspection, oil level
gearbox axis 4"
Inspection
Axis 5 gear, oil
level
12 mths
"Inspection, oil level
gearbox axis 5"
Inspection
Axis 6 gear, oil
level
12 mths
Ambient tempera- "Inspection, oil level
ture below 50 °C 1 gearbox axis 6"
Inspection
Balancing device 12 mths
"Inspection, balancing
device"
Inspection
Manipulator har- 12 mths
ness
"Inspection, cable harness"
Inspection
Information
labels
12 mths
"Inspection, information labels"
Inspection
Damper axes 2-5 12 mths
"Inspection damper,
axes 2-5"
Inspection
Mechanical stop, 12 mths
axis 1
"Inspection mechanical stop, axis 1"
Changing
Axis 1 gear, oil
48 mths
Ambient tempera- "Oil change, gearbox
ture below 50 °C 1 axis 1"
Changing
Axis 2 gear, oil
48 mths
Ambient tempera- "Oil change, gearbox
ture below 50 °C 1 axis 2"
Changing
Axis 3 gear, oil
48 mths
Ambient tempera- "Oil change, gearbox
ture below 50 °C 1 axis 3"
Changing
Axis 4 gear, oil
48 mths
Ambient tempera- "Oil change, gearbox
ture below 50 °C 1 axis 4"
Changing
Axis 5 gear, oil
48 mths
Ambient tempera- "Oil change, gearbox
ture below 50 °C 1 axis 5"
A
Detailed in section
3HAC 16246-1
4 Maintenance schedules and intervals
4.0.2 Maintenance schedule, IRB 6600/6650
Maintenance
Equipment
activity
Interval
Note
Changing
Axis 6 gear, oil
48 mths
Ambient tempera- "Oil change, gearbox
ture below 50 °C 1 axis 6"
Replacement
Axis 1 gear, oil
As specified by the
SIS, or typically 96
mths
"Remove/Refit, gearbox axis 1" in Repair
Manual
Replacement
Axis 2 gear, oil
As specified by the
SIS, or typically 96
mths
"Remove/Refit, gearbox axis 2" in Repair
Manual
Replacement
Axis 3 gear, oil
As specified by the
SIS, or typically 96
mths
"Remove/Refit, gearbox axis 3" in Repair
Manual
Replacement
Axis 4 gear
96 mths 2
"Remove/Refit, upper
arm without wrist unit"
in Repair Manual
Replacement
Axis 5 gear
96 mths 2
"Remove/Refit, complete wrist unit" in
Repair Manual
Replacement
Axis 6 gear
As specified by the
SIS, or typically 96
mths
"Remove/Refit, gearbox axis 6" in Repair
Manual
Replacement
Manipulator har- See note
ness
below 3
"Remove/Refit, cable
harness" in Repair
Manual
Replacement
SMB Battery
pack
36 mths
"Removal/Refitting of
SMB related equipment" in Repair Manual
Lubrication
Balancing device 48 mths 4
bearing
"Lubrication, balancing
device bearing"
Detailed in section
1)
If the robot is run at temperatures higher than 50 °C, the manipulator may require maintenance more frequently.
2) The service time for gearboxes, axes 4 and 5, is not calculated by the SIS, see expected life
in section Expected component life, IRB 6600 on page 41.
3)
Replace when damage is detected or when approaching life limit as specified in Expected
component life, IRB 6600 on page 41.
4)
The interval is the same as the interval for changing axis 2 gear oil because of the similarity
of the type and degree of operation.
Activities and
intervals, optional
equipment
3HAC 16246-1
The table below specifies the required maintenance activities and intervals for common
optional equipment. Maintenance of other external equipment for the robot is detailed in separate documentation.
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39
4 Maintenance schedules and intervals
4.0.2 Maintenance schedule, IRB 6600/6650
Maintenance
Equipment
activity
40
Interval Note
Inspection
UL-lamp
Inspection
Mechanical stop
axes 1-3
12 mths
Inspection
Position switches,
axes 1-3
12 mths
Detailed in
section
"Inspection, ULlamp"
A
Mechanical stops in "Inspection,
addition to the fixed mechanical stop,
stops
axes 1-3"
"Inspection, position
switches, axes 1-3"
3HAC 16246-1
4 Maintenance schedules and intervals
4.0.3 Expected component life, IRB 6600
4.0.3 Expected component life, IRB 6600
General
The expected life of a component can vary greatly depending on how hard it is run
Expected life
Component
Expected life
Note
Manipulator harness
2,000,000 cycles
See note 1)
Cabling for position switch and fan
2,000,000 cycles
See note 1)
Balancing device
2,000,000 cycles
See note 2)
Gearbox
40,000h
See note 3)
1)
The expected life can also be affected by assemblage of cabling other than standard options.
The given life is based on a test cycle that for every axis starts from the calibration position
to minimum angle to maximum angle and back to the calibration position. Deviations from
this cycle will result in differences in expected life!
2)
The given life for the balancing device is based on a test cycle that starts from the initial
position and goes to maximum extension, and back. Deviations from this cycle will result in
differences in expected life!
3)
The robot is dimensioned for a life of 8 years (350,000 cycles per year) in a normal spot
welding application. Depending on the actual application, the life of individual gearboxes
may vary greatly from this specification. The SIS (Service Information System) integrated in
the robot software, keeps track of the gearbox life in each individual case and will notify the
user when a service is due. The SIS is described in "SIS, Service Information System".
3HAC 16246-1
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41
4 Maintenance schedules and intervals
4.0.4 Maintenance schedule, controller S4CPlus M2000A
4.0.4 Maintenance schedule, controller S4CPlus M2000A
General
The robot controller must be maintained at regular intervals to ensure its function. The maintenance activities and their respective intervals are specified in the table below:
Intervals
Maintenance
Equipment
activity
Interval
Detailed in section
Inspection
Controller cabinet
6 mths
"Inspection, controller cabinet"
Cleaning
Controller cabinet
Replacement
Battery unit
12 000 h/36
mths 1
"Replacement, battery unit"
Replacement
System fan unit
60 mths
"Replacement, system fan unit".
1)
42
"Cleaning of controller cabinet"
Hours denote operational time while months denote the actual calender time.
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.0.1 Introduction
Chapter 5: Maintenance activities, manipulator
5.0.1 Introduction
General
3HAC 16246-1
This chapter contains information on how to maintain the equipment in question, i.e. how to
perform the preventive maintenance activities specified in the maintenance schedule for the
same equipment.
A
43
5 Maintenance activities, manipulator
5.1.1 Inspection, oil level gearbox axis 1
Section 5.1: Inspection activities
5.1.1 Inspection, oil level gearbox axis 1
Location of gearbox
The axis 1 gearbox is located between the frame and base as shown in the figure below.
C
D
B
A
xx0200000228
A
Gearbox axis 1
B
Oil plug, inspection
C
Motor, axis 1
D
Oil plug, filling
Required equipment
Equipment
Spare part no. Art. no.
Lubricating oil
3HAC 16843-1
Optimol Optigear RMO 150
Standard toolkit
3HAC 15571-1
The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
44
Note
These procedures include references to the tools required.
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.1 Inspection, oil level gearbox axis 1
Inspection, oil
level gearbox
The procedure below details how to inspect the oil level in gearbox axis 1.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
3HAC 16246-1
Action
Note/Illustration
1.
Open the oil plug, inspection.
Shown in the figure Location of gearbox on page
44!
2.
Required oil level: max. 10 mm
below the oil plug hole!
3.
Add oil if required.
Art. no. specified in Required equipment on
page 44!
Detailed in section Oil change, gearbox axis 1
on page 75.
4.
Refit the oil plug, inspection.
Tightening torque: 24 Nm.
A
45
5 Maintenance activities, manipulator
5.1.2 Inspection, oil level gearbox axis 2
5.1.2 Inspection, oil level gearbox axis 2
Different designs
Between the axis 2 motor and gearbox there is a motor attachment which exists in two different designs.
•
The early design of the motor attachment is attached directly to the gearbox, with the
front gearbox attachment screws.
•
The later design of the motor attachment is attached directly to the frame. This design
also includes an additional cover that overlaps the motor attachment and holds the oil
plugs.
The correct oil level varies, depending on the design of the motor attachment.
Location of gearbox
The gearbox, axis 2, is located in the lower arm rotational center, underneath the motor attachment.
The figure below shows the later design of the motor attachment.
A
D
B
C
xx0200000229
A
Gearbox axis 2 (behind motor attachment and cover)
B
Oil plug, filling
C
Oil plug, draining
D
Vent hole, gearbox axis 2
Required equipment
Equipment etc.
Spare part no. Art. no.
Lubricating oil
46
Note
3HAC 16843-1 Optimol Optigear RMO 150
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.2 Inspection, oil level gearbox axis 2
Equipment etc.
Spare part no. Art. no.
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
Inspection, oil
level
Note
These procedures include references to the tools required.
The procedure below details how to inspect the oil level in gearbox axis 2.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
3HAC 16246-1
Action
Note/Illustration
1.
Open the oil plug, filling.
Shown in the figure Location of gearbox on page 46!
2.
Measure the oil level at the oil plug, filling.
Required oil level with the early design of the
motor attachment: approx. 65 mm ±5 mm.
Required oil level with the later design of the
motor attachment: max. 10 mm below the oil
plug hole.
Shown in the figure Location of gearbox on page 46!
Read more about the variations in
design in Different designs on page
46.
3.
Add oil if required.
Art. no. specified in Required equipment on page 46!
Detailed in section Oil change, gearbox axis 2 on page 78.
4.
Refit the oil plug, filling.
Tightening torque: 24 Nm.
A
47
5 Maintenance activities, manipulator
5.1.3 Inspection, oil level gearbox axis 3
5.1.3 Inspection, oil level gearbox axis 3
Location of gearbox
The axis 3 gearbox is located in the upper arm rotational center as shown in the figure below.
A
B
C
xx0200000230
A
Gearbox axis 3
B
Oil plug, filling
C
Oil plug, draining
Required equipment
Equipment, etc.
Spare part no. Art. no.
Lubricating oil
3HAC 16843-1 Optimol Optigear RMO 150
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the step-bystep instructions below.
48
Note
These procedures include
references to the tools
required.
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.3 Inspection, oil level gearbox axis 3
Inspection, oil
level gearbox 3
The procedure below details how to inspect the oil level in the gearbox axis 3.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
3HAC 16246-1
Action
Note/Illustration
1.
Run the manipulator to the calibration
position.
Detailed in "Calibration" in the Installation
Manual.
2.
Open the oil plug, filling.
Shown in the figure Location of gearbox
on page 48!
3.
Required oil level: max 10 mm below the
oil plug hole.
4.
Add oil if required.
Art. no. specified in Required equipment
on page 48!
Detailed in section Oil change, gearbox,
axis 3 on page 81.
5.
Refit the oil plug, filling.
Tightening torque: 24 Nm.
A
49
5 Maintenance activities, manipulator
5.1.4 Inspection, oil level gearbox axis 4
5.1.4 Inspection, oil level gearbox axis 4
Location of gearbox
The axis 4 gearbox is located in the rearmost part of the upper arm as shown in the figure
below.
A
B
xx0200000231
A
Oil plug, filling
B
Oil plug, draining
Required equipment
Equipment, etc.
Spare part no. Art. no.
Lubricating oil
1171 2016-604 BP Energol GR-XP 320
This is a common oil that can
be replaced with an equivalent
oil from another manufacturer!
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the stepby-step instructions
below.
Inspection, oil
level gearbox 4
Note
These procedures include references to the tools required.
The procedure below details how to inspect the oil level in gearbox axis 4.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
50
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.4 Inspection, oil level gearbox axis 4
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
3HAC 16246-1
Action
Note/Illustration
1.
Run the manipulator to the calibration
position.
Shown in "Calibration" in the Installation
Manual!
2.
Open the oil plug, filling.
Shown in the figure Location of gearbox on
page 50!
3.
Required oil level: max 10 mm below
the oil plug hole.
4.
Add oil if required.
Art. no. specified in Required equipment
on page 50.
Detailed in section Oil change, gearbox,
axis 4 on page 83.
5.
Refit the oil plug.
Tightening torque: 24 Nm.
A
51
5 Maintenance activities, manipulator
5.1.5 Inspection, oil level, gearbox axis 5
5.1.5 Inspection, oil level, gearbox axis 5
Location of gearbox
The axis 5 gearbox is located in the wrist unit as shown in the figure below.
A
B
xx0200000232
A
Oil plug, filling
B
Oil plug, draining
Required equipment
Equipment etc.
Spare part no. Art. no.
Lubricating oil
1171 2016-604 BP Energol GR-XP 320
This is a common oil that can be
replaced with an equivalent oil
from another manufacturer!
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be
required. See references to these procedures in the step-bystep instructions
below.
Inspection, oil
level gearbox 5
Note
These procedures include references to the tools required.
The procedure below details how to inspect the oil level in gearbox axis 5.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
52
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.5 Inspection, oil level, gearbox axis 5
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
3HAC 16246-1
Action
Note/Illustration
1.
Turn the wrist unit so that both oil plugs
face upwards.
2.
Open the oil plug, filling.
3.
Measure the oil level.
Required oil level: 30 mm to the oil plug
hole.
4.
Add oil if required.
Art. no. specified in Required equipment
on page 52.
Detailed in section Oil change, gearbox,
axis 5 on page 85.
5.
Refit the oil plug.
Tightening torque: 24 Nm.
A
Shown in the figure Location of gearbox
on page 52!
53
5 Maintenance activities, manipulator
5.1.6 Inspection, oil level gearbox axis 6
5.1.6 Inspection, oil level gearbox axis 6
Location of gearbox
The axis 6 gearbox is located in the center of the wrist unit as shown in the figure below.
B
A
C
xx0200000233
A
Gearbox axis 6
B
Oil plug, filling
C
Oil plug, draining
Required equipment
Equipment
Spare part no. Art. no.
Lubricating oil
3HAC 16843-1 Optimol Optigear RMO 150.
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
Other tools and procedures may be required.
See references to these
procedures in the step-bystep instructions below.
Inspection, oil
level gearbox 6
Note
These procedures include
references to the tools
required.
The procedure below details how to inspect the oil level in gearbox axis 6.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
When changing gearbox oil, first run the robot for a time to heat up the oil. Warm oil drains
quicker than cold oil.
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
54
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.6 Inspection, oil level gearbox axis 6
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
3HAC 16246-1
Action
Note/Illustration
1.
Make sure the oil plug, filling is facing
upwards and open it.
Shown in the figure Location of gearbox
on page 54!
2.
Measure the oil level.
Required oil level: 55 mm ±5 mm to oil
plug hole, filling.
3.
Add oil if required.
Art. no. specified in Required equipment on page 54!
Detailed in section Oil change, gearbox
axis 6 on page 87.
4.
Refit the oil plug, filling.
Tightening torque: 24 Nm.
A
55
5 Maintenance activities, manipulator
5.1.7 Inspection, balancing device
5.1.7 Inspection, balancing device
Location of balancing device
The balancing device is located at the top rear of the frame as shown in the figure below.
If damage is detected during inspection, a maintenance or an upgrade must be performed,
depending on version of balancing device! Balancing device 3HAC 14678-1 and 3HAC
16189-1 requires maintenance, while 3HAC 12604-1 requires an upgrade.
D
C
A, B
E
F
xx0200000110
A
Balancing device
B
Piston rod (inside the cylinder)
C
Shaft, including securing screw
D
Ear with spherical roller bearing inside
E
Bearing attachment
F
Rear cover
Required equipment -general
56
Equipment, etc.
Spare part no. Art. no.
Note
Balancing device
3HAC 16198-1
IRB 6600.
Includes balancing device
3HAC 14678-1!
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.7 Inspection, balancing device
Equipment, etc.
Spare part no. Art. no.
Note
Balancing device
3HAC 16907-1
IRB 6650.
Includes balancing device
3HAC 16189-1!
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18!
Other tools and procedures may be required.
See references to
these procedures in
the step-by-step
instructions below.
These procedures include references to the tools required.
Depending on whether maintenance or upgrade is to be performed, use also equipment as
specified below!
Required equipment -maintenance
Required equipment -upgrade
If detecting damage when inspecting balancing device, version 3HAC 14678-1, 3HAC
16189-1 maintenance must be performed!
The table below specifies the equipment required when maintaining the balancing device!
Equipment, etc. Spare part no. Art. no.
Note
Maintenance kit
3HAC 16195-1
Includes complete kit 3HAC
16192-1 and instructions for maintenance, 3HAC 15864-5.
Maintenance kit
3HAC 16194-1
Includes kit with bearings and
seals only, 3HAC 16190-1, plus
instructions for maintenance,
3HAC 15864-4.
Documentation for
maintenance
3HAC 15864-5
3HAC 15864-4
See difference above!
Toolkit for maintenance
3HAC 15943-2
Puller for separator
4552-2 (Bahco) Used for dismounting the spherical roller bearings.
Separator
4551-C (Bahco) Used for dismounting the spherical roller bearings.
If detecting damage when inspecting balancing device, version 3HAC 12604-1, an upgrade
must be performed!
The table below specifies equipment required when upgrading the balancing device!
Equipment, etc. Spare part no. Art. no.
3HAC 16246-1
Note
Upgrade kit
3HAC 16196-1 Includes kit with piston rod, support
shaft etc., 3HAC 16193-1, plus
instruction for conversion, 3HAC
15864-6.
Documentation in
upgrade kit
3HAC 15864-6 Instruction for conversion from balancing device, 3HAC 12604-1 to
3HAC 14678-1.
A
57
5 Maintenance activities, manipulator
5.1.7 Inspection, balancing device
Inspection, balancing device
The procedure below details how to inspect the balancing device.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Do not under any circumstances, deal with the balancing device in any other way than that
detailed in the product documentation! For example, attempting to open the balancing device
is potentially lethal!
Step
58
Action
Note
1.
Check for dissonance from bearings, gear or Shown in the figure Location of balshaft.
ancing device on page 56.
Make sure the securing screw in the shaft is
positioned correctly and undamaged.
(M16x180, tightening torque: 50 Nm.)
At detected dissonance: Carry out an overhaul as detailed in Maintenance kit or
Upgrade kit, depending on the version of balancing device.
2.
Check for dissonance from the cylinder.
Replacing balancing device is
The springs inside the cylinder can cause a detailed in "Remove/Refit balancing
tapping sound. Replace the balancing device device" in the Repair Manual.
or consult ABB Robotics.
3.
Check for dissonance from the piston rod.
Squeaking can indicate worn plain bearings,
internal contamination or insufficient lubrication.
At detected dissonance: Carry out an overhaul as detailed in Maintenance kit or
Upgrade kit, depending on the version of balancing device.
4.
Check if the piston rod is scratched, worn or
has an uneven surface.
At detected damage: Carry out an overhaul
as detailed in Maintenance kit or Upgrade kit,
depending on the version of balancing
device.
5.
If any damage or dissonance is detected, fol- Art. no. specified in Required equiplow the notes above!
ment -maintenance on page 57/
Required equipment -upgrade on
Carry out the overhaul as detailed in the
enclosed instruction in the Maintenance kit or page 57!
upgrade as detailed in the instruction in the
Upgrade kit.
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.8 Inspection, cable harness
5.1.8 Inspection, cable harness
Location of
cabling axes 1-4
The manipulator cable harness, axes 1-4, is located as shown in the figure below.
C
A
B
D
xx0200000097
A
Lower arm
B
Cables attached with velcro straps and mounting plate
C
Connectors at cable harness division point, R2.M5/6
D
Connectors at base
Required equipment
3HAC 16246-1
Equipment, etc.
Spare part no. Art. no.
Note
Harness manipulator 1-4
3HAC 14940-1
IRB 6600
Harness manipulator 1-4
3HAC 16331-1
IRB 6650
Cable harness ax. 5-6
3HAC 14140-1
Cable harness axis 5
3HAC 14139-1
Circuit diagram
3HAC 13347-1 Included in the Repair Manual, part 2.
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
A
59
5 Maintenance activities, manipulator
5.1.8 Inspection, cable harness
Equipment, etc.
Spare part no. Art. no.
Other tools and procedures may be required.
See references to these
procedures in the step-bystep instructions below.
Inspection, cable
harness 1-4
Note
These procedures include
references to the tools
required.
The procedure below details how to inspect the cable harness of axes 1-4.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
The cable harnesses are sensitive to mechanical damage! They must be handled with care,
especially the connectors, in order to avoid damaging them!
Step
60
Action
Note/Illustration
1.
Make an overall visual inspection of the
cable harness, in order to detect wear and
damage.
2.
Check the connectors at the division point
and at the base.
Shown in the figure Location of
cabling axes 1-4 on page 59!
3.
Check that velcro straps and the mounting
plate are properly attached to the frame.
Also check the cabling, leading into the
lower arm. Make sure it is attached by the
straps and not damaged.
Location shown in the figure Location
of cabling axes 1-4 on page 59!
A certain wear of the hose at the
entrance to the lower arm is natural.
4.
Replace the cable harness if wear or damage is detected.
Art. no. specified in Required equipment on page 59!
Removal and refitting of cable harness is detailed in the Repair Manual!
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.8 Inspection, cable harness
Location of
cabling axes 5-6
The manipulator cable harness, axes 5-6, is located as shown in the figure below.
B
A
C
xx0200000234
Inspection, cable
harness, axes 5-6
A
Connectors at cable harness division point, R2.M5/6
B
Cable attachment, rear of upper arm
C
Cable attachment, upper arm tube
The procedure below details how to inspect the cable harness of axes 5-6.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
The cable harnesses are sensitive to mechanical damage! They must be handled with care,
especially the connectors, in order to avoid damaging them!
Step
1.
3HAC 16246-1
Action
Note
Make an overall visual inspection of the cable harness,
in order to detect wear and damage.
A
61
5 Maintenance activities, manipulator
5.1.8 Inspection, cable harness
Step
62
Action
Note
2.
Check the attachments at the rear of the upper arm and Shown in the figure Locain the upper arm tube.
tion of cabling axes 5-6 on
page 61!
Check the connectors at the cable harness division.
Make sure the attachment plate is not bent or in other
way damaged.
3.
Replace the cable harness if wear or damage is
detected.
A
Art. no. specified in
Required equipment on
page 59!
Removal and refitting of
cable harness is detailed
in the Repair Manual!
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.9 Inspection, information labels
5.1.9 Inspection, information labels
Location of labels
The figures below show the location of the information labels to be inspected.
A
B
Warning
B
A
A
D
X
X
B
Warning
C
B
A
B
X-X
xx0200000236
3HAC 16246-1
A
Warning label "High temperature", 3HAC 4431-1
B
Warning sign, a symbol of a lightning flash (located on motor cover), 3HAC 1589-1
C
Instruction label "Safety instructions", 3HAC 4591-1
D
Warning label "Brake release", 3HAC 15334-1
A
63
5 Maintenance activities, manipulator
5.1.9 Inspection, information labels
E
G
Liftin g of robot
H
Warning
Warning
F
xx0200000101
E
Instruction label "Lifting the robot", 3HAC 16420-1
F
Warning label "Robot can tip forward...", 3HAC 9191-1
G
Foundry logotype, 3HAC 8256-1
H
Warning label "Stored energy", 3HAC 9526-1
Required equipment
Equipment, etc.
Spare part no. Art. no.
Labels and plate set
Note
3HAC 8711-1
Inspection, labels
Step
64
Action
Note/Illustration
1.
Check the labels, located as shown in the figures
Location of labels on page 63.
2.
Replace any missing or damaged labels.
A
Art. no. specified in Required
equipment on page 64!
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.10 Inspection, mechanical stop, axis 1
5.1.10 Inspection, mechanical stop, axis 1
Location of
mechanical stop
The mechanical stop axis 1 is located at the base as shown in the figure below.
A
xx0200000151
A
Mechanical stop (stop pin)
Required equipment
Equipment, etc.
Inspection,
mechanical stop
Spare part no. Art. no.
Note
Mechanical stop ax 1
3HAC 12812-2 To be replaced when damaged.
Includes spring pin.
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18!
The procedure below details how to inspect the mechanical stop axis 1.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Step
3HAC 16246-1
Action
Note/Illustration
1.
Inspect the mechanical stop, axis 1.
Shown in the figure Location of
mechanical stop on page 65!
2.
Make sure the mechanical stop can move in both
directions.
3.
If the stop pin is bent or damaged, it must be
replaced!
A
Art. no. specified in Required
equipment on page 65!
65
5 Maintenance activities, manipulator
5.1.11 Inspection, mechanical stop, axes 1, 2 and 3
5.1.11 Inspection, mechanical stop, axes 1, 2 and 3
Location of
mechanical stops
The figure below shows the location of the additional mechanical stops on axes 1, 2 and 3
(IRB 7600 shown).
A
B
A
B
B
A
xx0200000150
A
Additional stop
B
Fixed stop
Required equipment
Equipment etc.
66
Spare part no. Art. no.
Note
Mechanical stop ax 1
3HAC 11076-1 Limits the robot working range by
7,5°.
Mechanical stop ax 1
3HAC 11076-2 Limits the robot working range by
15°.
Mechanical stop ax 2
3HAC 13787-1
Mechanical stop ax 3
3HAC 13128-2
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit!
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.11 Inspection, mechanical stop, axes 1, 2 and 3
Inspection,
mechanical stops
The procedure below details how to inspect the additional mechanical stops on axes 1, 2 and
3.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Step
3HAC 16246-1
Action
Note/Illustration
1.
Check the additional stops on axes 1, 2 and 3 for Shown in the figure Location of
damage.
mechanical stops on page 66!
2.
Make sure the stops are properly attached.
Correct tightening torque: 115 Nm.
3.
If any damage is detected, the mechanical stops Art. no. specified in Required
must be replaced!
equipment on page 66!
Correct attachment screws (lubricated with Molycote 1000):
• Axis 1: M16 x 35
•
Axis 2: M16 x 50
•
Axis 3: M16 x 60
A
67
5 Maintenance activities, manipulator
5.1.12 Inspection, damper axes 2-5
5.1.12 Inspection, damper axes 2-5
Location of
dampers
The figure below shows the location of all the dampers to be inspected.
D
C
B
A
xx0300000040
A
Damper, axis 2 (2 pcs)
B
Damper, axis 3 (2 pcs)
C
Damper, axis 4 (1 pc)
D
Damper, axis 5 (2 pcs)
Required equipment
Equipment
68
Spare part no. Art. no.
Note
Damper axis 2
3HAC 12991-1
To be replaced if damaged!
Damper axis 3
3HAC 12320-1
To be replaced if damaged!
Damper axis 4
3HAC 13564-1
To be replaced if damaged!
Damper axis 5
3HAB 4337-2
To be replaced if damaged!
Standard toolkit
3HAC 15571-1
The contents are defined in section
Standard toolkit on page 18!
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.12 Inspection, damper axes 2-5
Inspection, dampers
The procedure below details how to inspect the dampers, axes 2-5
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Step
3HAC 16246-1
Action
Note/Illustration
1.
Check all dampers for damage, and for cracks or Shown in the figure Location of
existing impressions larger than 1 mm.
dampers on page 68!
To inspect the damper, axis 4, remove the two
covers on top of the upper arm!
2.
Check attachment screws for deformation.
3.
If any damage is detected, the damper must be
replaced with a new one!
A
Art. no. specified in Required
equipment on page 68!
69
5 Maintenance activities, manipulator
5.1.13 Inspection, position switch axes 1, 2 and 3
5.1.13 Inspection, position switch axes 1, 2 and 3
Location of position switches
The illustration below shows the position switch for axis 1.
A
F
C
D
B
E
xx0100000158
A
Position switch, axis 1
B
Cam
C
Set screw, cam
D
Protection sheet
E
Rail
F
Rail attachment
The illustration below shows the position switch for axis 2.
E
B
A
C
F
xx0100000159
70
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.13 Inspection, position switch axes 1, 2 and 3
A
Position switch, axis 2
B
Cam
C
Set screw, cam
E
Rail
F
Rail attachment
The illustration below shows the position switch for axis 3.
F
E
C
B
A
xx0100000160
A
Position switch, axis 3
B
Cam
C
Set screw, cam
E
Rail
F
Rail attachment
Required equipment
Equipment, etc.
3HAC 16246-1
Spare part no. Art. no.
Note
Position switch, axis 1
3HAC 15715-1
To be replaced in case of
detected damage
Position switch, axis 2
3HAC 16418-1
To be replaced in case of
detected damage
Position switch, axis 3
3HAC 16417-1
To be replaced in case of
detected damage
A
71
5 Maintenance activities, manipulator
5.1.13 Inspection, position switch axes 1, 2 and 3
Equipment, etc.
Spare part no. Art. no.
Standard toolkit
3HAC 15571-1
Other tools and procedures may be required.
See references to
these procedures in the
step-by-step instructions below.
Inspection, position switches
Note
The contents are defined in
section Standard toolkit on
page 18!
These procedures include references to the tools required.
The procedure below details how to inspect the position switch, axes 1, 2 and 3.
See figure above to locate the different components to be inspected.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Step
Action
1.
Check the position switch!
• Check that the rollers are easy to push in
and that they roll freely.
2.
Check the rail!
• Check that the rail is firmly attached with the
attachment screws.
3.
Check the cams!
• Check that the rollers has not caused any
impressions on the cams.
4.
•
Check that the cams are clean. Wipe them if
necessary!
•
Check that the set screws holding the cams
in position are firmly attached.
Check the protection sheets on axis 1!
• Check that the three sheets are in position
and not damaged. Deformation can result in
rubbing against the cams!
•
5.
72
Note/Illustration
Check that the area inside of the sheets is
clean enough not to interfere the function of
the position switch.
If any damage is detected, the position switch must Art. no. specified in Required
be replaced!
equipment on page 71!
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.1.14 Inspection, UL signal lamp
5.1.14 Inspection, UL signal lamp
Location of UL
lamp
The UL-lamp is located as shown in the figure below. Note that the position can differ
depending on how the customer harness for axis 4-6 is mounted. See assembly drawing on
the current harness for alternative positioning.
There are two different article numbers for the UL-lamp. The difference is due to the accompanying motor cover, which is either flat or vaulted.
E
A
D
C
B
xx0200000240
A
UL signal lamp
B
Clamp
C
Position for cable gland
D
Warning label on motor cover
E
Warning sign on motor cover
Required equipment
Equipment, etc.
3HAC 16246-1
Spare part no. Art. no.
Note
Signal lamp
3HAC 10830-1 To be replaced in case of
detected damage.
(Includes vaulted motor cover.)
Signal lamp
3HAC 13097-1 To be replaced in case of
detected damage.
(Includes flat motor cover.)
Standard toolkit
3HAC 15571-1 The contents are defined in
section Standard toolkit on
page 18!
A
73
5 Maintenance activities, manipulator
5.1.14 Inspection, UL signal lamp
Equipment, etc.
Spare part no. Art. no.
Other tools and procedures may be required.
See references to
these procedures in the
step-by-step instructions below.
Inspection, ULlamp
Note
These procedures include references to the tools required.
The procedure below details how to inspect the function of the UL-lamp.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Step
74
Action
Note/Illustration
1.
Check that the UL-lamp is lit, when the motors are put in
operation ("motors ON").
2.
If the lamp is not lit, trace the fault by:
• Checking whether the ul-lamp is broken. If so,
replace it.
•
Checking the cable connections.
•
Measuring the voltage in connectors motor axis 3
(=24V).
•
Checking the cabling. Replace cabling if a fault is
detected.
A
Art. no. specified in
Required equipment on
page 73!
3HAC 16246-1
5 Maintenance activities, manipulator
5.2.1 Oil change, gearbox axis 1
Section 5.2: Changing activities
5.2.1 Oil change, gearbox axis 1
Location of gearbox
The axis 1 gearbox is located between the frame and base as shown in the figure below.
C
D
B
A
xx0200000228
A
Gearbox axis 1
B
Oil plug, inspection
C
Motor axis 1
D
Oil plug, filling
Required equipment
Equipment, etc.
Spare part no. Art. no.
Lubricating oil
Note
3HAC 16843-1 Optimol Optigear RMO 150.
Total amount: 7,300 ml.
Oil collecting vessel
Capacity: 8,000 ml.
Standard toolkit
3HAC 15571-1 The contents are defined in section
Standard toolkit on page 18!
The specified amount of oil is based on the total volume of the gearbox. When changing the
oil, the amount of refilled oil may therefor differ from the specified amount, depending on how
much oil has previously been drained from the gearbox.
The correct oil level is specified in the section about inspection of oil level.
3HAC 16246-1
A
75
5 Maintenance activities, manipulator
5.2.1 Oil change, gearbox axis 1
Changing, oil
The procedure below details how to change the oil in gearbox axis 1.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
When changing gearbox oil, first run the robot for a time to heat up the oil. Warm oil drains
quicker than cold oil.
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
Action
Note/Illustration
1.
Remove the rear cover on the base by
unscrewing its attachment screws.
2.
Pull the oil draining hose out of the rear of
the base.
A
xx0200000237
The hose is located beneath the base,
as shown in the figure with a view from
below.
• A: Oil draining hose
76
3.
Place an oil vessel close to the hose end. Vessel capacity specified in Required
equipment on page 75!
4.
Remove the oil plug, filling, in order to
drain the oil quicker!
5.
Open the hose end and drain the oil into
the vessel.
6.
Close the oil drain hose, and put it back
inside the base.
A
Notice! The draining is time-consuming. Elapsed time depends on the temperature of the oil.
3HAC 16246-1
5 Maintenance activities, manipulator
5.2.1 Oil change, gearbox axis 1
Step
3HAC 16246-1
Action
Note/Illustration
7.
Close the rear cover by securing it with its
attachment screws.
8.
Open the oil plug, filling.
9.
Refill the gearbox with lubricating oil.
Art. no. and the total amount are speciThe amount of oil to be refilled depends on fied in Required equipment on page 75!
the amount previously being drained. The
correct oil level is detailed in section
Inspection, oil level gearbox axis 1 on
page 44.
10.
Refit the oil plug, filling.
A
Shown in the figure Location of gearbox
on page 75!
Tightening torque: 24 Nm.
77
5 Maintenance activities, manipulator
5.2.2 Oil change, gearbox axis 2
5.2.2 Oil change, gearbox axis 2
Different designs
Between the axis 2 motor and gearbox there is a motor attachment which exists in two different designs.
•
The early design of the motor attachment is attached directly to the gearbox, with the
front gearbox attachment screws (only some versions of IRB 6600).
•
The later design of the motor attachment is attached directly to the frame. This design
also includes an additional cover that overlaps the motor attachment and holds the oil
plugs.
The correct amount oil varies, depending on the design of the motor attachment.
Location of gearbox
The gearbox, axis 2, is located in the lower arm rotational center, underneath the motor attachment.
The figure below shows the later design of the motor attachment.
A
D
B
C
xx0200000229
78
A
Gearbox axis 2
B
Oil plug, filling
C
Oil plug, draining
D
Vent hole, gearbox axis 2
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.2.2 Oil change, gearbox axis 2
Required equipment
Equipment, etc.
Spare part no. Art. no.
Lubricating oil
Note
3HAC 16843-1 Optimol Optigear RMO 150.
Total amount with early design of
motor attachment: 1,800 ml.
Total amount with later design of
motor attachment: 4,300 ml.
Oil collecting vessel
Capacity: 5,000 ml.
Hose with nipple
1/2".
Standard toolkit
3HAC 15571-1 The contents are defined in section Standard toolkit on page 18!
The specified amount of oil is based on the total volume of the gearbox. When changing the
oil, the amount of refilled oil may therefor differ from the specified amount, depending on how
much oil has previously been drained from the gearbox.
The correct oil level is specified in the section about inspection of oil level.
Changing, oil
The procedure below details how to change the oil in gearbox axis 2.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
When changing gearbox oil, first run the robot for a time to heat up the oil. Warm oil drains
quicker than cold oil.
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
1.
3HAC 16246-1
Action
Note/Illustration
Remove the plug of the vent hole (later
design).
Shown in the figure Location of gearbox
on page 78!
A
79
5 Maintenance activities, manipulator
5.2.2 Oil change, gearbox axis 2
Step
80
Action
Note/Illustration
2.
Remove the oil plug, draining, and drain
the gearbox oil using a hose with nipple
and an oil collecting vessel.
Shown in the figure Location of gearbox
on page 78!
Vessel capacity specified above!
Draining is time-consuming. Elapsed
time varies depending on the temperature of the oil.
3.
Refit the oil plug.
Tightening torque: 24 Nm.
4.
Remove the oil plug, filling.
Shown in the figure Location of gearbox
on page 78!
5.
Refill the gearbox with lubricating oil.
The amount of oil to be refilled depends
on the amount previously being drained.
The correct oil level is detailed in section
Inspection, oil level gearbox axis 2 on
page 46.
Art. no. and total amount specified in
Required equipment on page 79!
6.
Refit the oil plug and the plug in the vent
hole.
Tightening torque: 24 Nm.
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.2.3 Oil change, gearbox, axis 3
5.2.3 Oil change, gearbox, axis 3
Location of gearbox
The axis 3 gearbox is located in the upper arm rotational center as shown in the figure below.
A
B
C
xx0200000230
A
Gearbox axis 3
B
Oil plug, filling
C
Oil plug, draining
Required equipment
Equipment, etc.
Spare part no. Art. no.
Lubricating oil
Note
3HAC 16843-1 Optimol Optigear RMO 150.
Total amount: 2,500 ml.
Oil collecting vessel
Capacity: 3,000 ml.
Hose with nipple
1/2".
Standard toolkit
The contents are defined in section Standard toolkit on page 18!
The specified amount of oil is based on the total volume of the gearbox. When changing the
oil, the amount of refilled oil may therefor differ from the specified amount, depending on how
much oil has previously been drained from the gearbox.
The correct oil level is specified in the section about inspection of oil level.
3HAC 16246-1
A
81
5 Maintenance activities, manipulator
5.2.3 Oil change, gearbox, axis 3
Changing, oil
The procedure below details how to change the oil in gearbox, axis 3.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
When changing gearbox oil, first run the robot for a time to heat up the oil. Warm oil drains
quicker than cold oil.
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
82
Action
Note/Illustration
1.
Remove the oil plug, draining, and drain
the gearbox oil using a hose with nipple
and an oil collecting vessel.
Remove the oil plug, filling in order to drain
the oil quicker!
Shown in the figure Location of gearbox on page 81!
Vessel capacity specified in Required
equipment on page 81!
Draining is time-consuming. Elapsed
time varies depending on the temperature of the oil.
2.
Refit the oil plug.
Tightening torque: 24 Nm.
3.
Remove the oil plug, filling.
Shown in the figure Location of gearbox on page 81!
4.
Refill the gearbox with lubricating oil.
Art. no. and total amount specified in
The amount of oil to be refilled depends on Required equipment on page 81!
the amount previously being drained. The
correct oil level is detailed in section
Inspection, oil level gearbox axis 3 on
page 48.
5.
Refit the oil plug.
Tightening torque: 24 Nm.
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.2.4 Oil change, gearbox, axis 4
5.2.4 Oil change, gearbox, axis 4
Location of gearbox
The axis 4 gearbox is located in the rearmost part of the upper arm as shown in the figure
below.
A
B
xx0200000231
A
Oil plug, filling
B
Oil plug, draining
Required equipment
Equipment, etc.
Spare part no. Art. no.
Lubricating oil
1171 2016-604
Oil collecting vessel
Note
BP Energol GR-XP 320.
This is a common oil that can be
replaced with an equivalent oil
from another manufacturer!
Total amount: 8,100 ml.
Capacity: 9,000 ml.
Standard toolkit
3HAC 15571-1
The contents are defined in section Standard toolkit on page 18!
The specified amount of oil is based on the total volume of the gearbox. When changing the
oil, the amount of refilled oil may therefor differ from the specified amount, depending on how
much oil has previously been drained from the gearbox.
The correct oil level is specified in the section about inspection of oil level.
3HAC 16246-1
A
83
5 Maintenance activities, manipulator
5.2.4 Oil change, gearbox, axis 4
Changing, oil
The procedure below details how to change the oil in gearbox, axis 4.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
When changing gearbox oil, first run the robot for a time to heat up the oil. Warm oil drains
quicker than cold oil.
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
84
Action
Note/Illustration
1.
Run the upper arm -45°from the calibration
position.
2.
Open the oil plug, draining.
Shown in the figure Location of gearRemove the oil plug, filling in order to drain box on page 83!
the oil quicker!
3.
Drain the oil from the gearbox.
Vessel capacity specified in Required
equipment on page 83!
4.
Run the upper arm back to its calibration
position (horizontal position).
Detailed in "Calibration" in the Installation Manual.
5.
Refit the oil plug, draining.
Tightening torque: 24 Nm.
6.
Refill the gearbox with lubricating oil
through the oil plug, filling.
The amount of oil to be refilled depends on
the amount previously being drained. The
correct oil level is detailed in section
Inspection, oil level gearbox axis 4 on page
50.
Shown in the figure Location of gearbox on page 83!
Art. no. and total amount specified in
Required equipment on page 83.
7.
Refit the oil plug, filling.
Tightening torque: 24 Nm.
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.2.5 Oil change, gearbox, axis 5
5.2.5 Oil change, gearbox, axis 5
Location of gearbox
The axis 5 gearbox is located in the wrist unit as shown in the figure below.
A
B
xx0200000232
A
Oil plug, filling
B
Oil plug, draining
Required equipment
Equipment, etc.
Spare part no. Art. no.
Lubricating oil
Note
1171 2016-604 BP Energol GR-XP 320.
This is a common oil that can be
replaced with an equivalent oil
from another manufacturer!
Total amount: 6,700 ml.
Oil collecting vessel
Capacity: 7,000 ml.
Standard toolkit
3HAC 15571-1
The contents are defined in section Standard toolkit on page 18!
The specified amount of oil is based on the total volume of the gearbox. When changing the
oil, the amount of refilled oil may therefor differ from the specified amount, depending on how
much oil has previously been drained from the gearbox.
The correct oil level is specified in the section about inspection of oil level.
Changing, oil
The procedure below details how to change the oil in gearbox, axis 5.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
3HAC 16246-1
A
85
5 Maintenance activities, manipulator
5.2.5 Oil change, gearbox, axis 5
When changing gearbox oil, first run the robot for a time to heat up the oil. Warm oil drains
quicker than cold oil.
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
86
Action
Note/Illustration
1.
Run axis 4 to a position where the oil plug,
draining, is facing downwards.
2.
Open the oil plug, draining.
Shown in the figure Location of gearRemove the oil plug, filling in order to drain box on page 85!
the oil quicker!
3.
Drain the oil from the gearbox.
Vessel capacity specified in Required
equipment on page 85!
4.
Refit the oil plug, draining.
Tightening torque: 24 Nm.
5.
Run axis 4 back to the calibration position.
6.
Refill the gearbox with lubricating oil
through the oil plug, filling.
The amount of oil to be refilled depends on
the amount previously being drained. The
correct oil level is detailed in section
Inspection, oil level, gearbox axis 5 on page
52.
Shown in the figure Location of gearbox on page 85!
Art. no. and total amount specified in
Required equipment on page 85.
7.
Refit the oil plug, filling.
Tightening torque: 24 Nm.
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.2.6 Oil change, gearbox axis 6
5.2.6 Oil change, gearbox axis 6
Location of gearbox
The axis 6 gearbox is located in the center of the wrist unit as shown in the figure below.
The different robot versions have different gearbox designs. The amount of oil in the gearbox
therefore varies depending on robot version.
B
A
C
xx0200000233
A
Gearbox axis 6
B
Oil plug, filling
C
Oil plug, draining
Required equipment
Equipment, etc. Spare part no. Art. no.
Lubricating oil
Note
3HAC 16843-1 Optimal Optigear RMO 150.
Total amount for robot v. 175/2.25:
300 ml.
Total amount for robot v. 225/2.55,
175/2.8, 125/3.2 and 200/2.75: 450
ml.
Oil collecting vessel
Vessel capacity: 500 ml.
Standard toolkit
3HAC 15571-1 The contents are defined in section
Standard toolkit on page 18!
The specified amount of oil is based on the total volume of the gearbox. When changing the
oil, the amount of refilled oil may therefor differ from the specified amount, depending on how
much oil has previously been drained from the gearbox.
The correct oil level is specified in the section about inspection of oil level.
3HAC 16246-1
A
87
5 Maintenance activities, manipulator
5.2.6 Oil change, gearbox axis 6
Changing, oil
The procedure below details how to change oil in gearbox, axis 6.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
When changing gearbox oil, first run the robot for a time to heat up the oil. Warm oil drains
quicker than cold oil.
When filling gearbox oil, do not mix different types of oil unless specified in the instruction.
Always use the type of oil specified by the manufacturer!
When filling gearbox oil, do not overfill, since this could lead to internal over-pressure inside
the gearbox which in turn may:
- damage seals and gaskets
- completely press out seals and gaskets
- prevent the manipulator from moving freely
Changing and draining gearbox oil may require handling hot oil of up to 90 °C! Make sure that
protective gear like goggles and gloves are always worn during this work.
Also be aware of possible over-pressure in gearbox! When opening the oil plug, there may be
pressure resident in the gearbox, causing oil spray from the opening!
Step
88
Action
Note/Illustration
1.
Run the robot to a position where the oil plug,
draining of axis 6 gearbox is facing downwards.
Shown in the figure Location of
gearbox on page 87!
2.
Drain the oil from gearbox 6 by removing the oil Vessel capacity specified in
plug. Collect the oil with a suitable vessel.
Required equipment on page 87!
3.
Refit the oil plug, draining.
Tightening torque: 24 Nm.
4.
Remove the oil plug, filling.
Shown in the figure Location of
gearbox on page 87!
5.
Refill the gearbox with lubricating oil.
Art. no. and the total amount are
The amount of oil to be refilled depends on the specified in Required equipment
amount previously being drained. The correct on page 87!
oil level is detailed in section Inspection, oil
level gearbox axis 6 on page 54.
6.
Refit the oil plug.
Tightening torque: 24 Nm.
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.3.1 Lubrication, balancing device bearing
Section 5.3: Lubrication activities
5.3.1 Lubrication, balancing device bearing
Location of bearing
The figure below shows the location of the lubrication nipple etc.
Note! The balancing device must be mounted on the manipulator when lubricating the bearing!
A
B
C
D
xx0200000109
A
Ear (spherical roller bearing located inside)
B
Lubrication nipple
C
Sealing spacer
D
Hole through which the shaft is pressed
Required equipment
Equipment, etc. Spare part no. Art. no.
Note
Grease
Optimol PDO, max. 80 ml.
For lubrication of the spherical
roller bearing.
3HAA 1001-294
Grease pump
3HAC 16246-1
A
89
5 Maintenance activities, manipulator
5.3.1 Lubrication, balancing device bearing
Lubrication, balancing device
bearing
The procedure below details how to lubricate the spherical roller bearing.
Please observe the following before commencing any repair work on the manipulator:
- Motors and gears are HOT after running the robot! Burns may result from touching the
motors or gears!
- Turn off all electric power, hydraulic and pneumatic pressure supplies to the robot!
- Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. to secure the lower arm with fixtures if removing motor, axis 2.
Do not under any circumstances, deal with the balancing device in any other way than that
detailed in the product documentation! For example, attempting to open the balancing device
is potentially lethal!
Step
1.
90
Action
Note/Illustration
Lubricate the spherical roller bearing through
the lubrication nipple in the ear, with grease.
Fill until excessive grease exudes out between
the shaft and the sealing spacer.
Art. no. specified in Required
equipment on page 89!
Shown in the figure Location of
bearing on page 89!
The balancing device must be
mounted on the manipulator!
A
3HAC 16246-1
5 Maintenance activities, manipulator
5.4.1 Cleaning, manipulator
Section 5.4: Cleaning activities
5.4.1 Cleaning, manipulator
General
The protection class is IP 67, i.e. the manipulator is watertight.
Activities
This instruction specifies how to clean the manipulator.
Periodicity
The periodicity of cleaning the manipulator varies a great deal depending on the actual environment and function of the robot. Clean a contamined manipulator as required.
Special points
Special points to be observed are shown in the figure below:
C
B
A
D
E
xx0200000239
3HAC 16246-1
A
Spiral cables to motor 6
B
Inside of upper arm tube
C
Rear of upper arm tube
D
Inside of lower arm
E
Inside of base/axis 1
A
91
5 Maintenance activities, manipulator
5.4.1 Cleaning, manipulator
Required equipment
Equipment, etc.
Steam cleaner
High pressure water
cleaner
Do’s and don’ts!
Always!
Never!
Foundry versions
92
Note
•
Water pressure at nozzle: max. 2,500 kN/m 2 (25 bar)
•
Type of nozzle: fan jet, min. 45°spread
•
Flow: max. 100 litres/min.
•
Water temperature: max. 80°C
•
Max. water pressure on enclosures: 50 kN/m 2 (0.5 bar)
•
Fan jet nozzle should be used, min. 45°spread
•
Flow: max. 100 litres/min.
The section below specifies some special considerations when cleaning the manipulator.
•
Always use cleaning equipment as specified above! Any other cleaning equipment
may shorten the life of paintwork, rust inhibitors, signs, or labels!
•
Always check that all protective covers are fitted to the robot before cleaning!
•
Never point the water jet at bearing seals, contacts, and other seals!
•
Never spray from a distance closer than 0.4 m!
•
Never remove any covers or other protective devices before cleaning the robot!
•
Never use any cleaning agents, e.g. compressed air or solvents, other than those
specified above!
•
Never spray with a high pressure cleaner onto the sealing cup at the bottom of the
motor 6 spiral cable (item A in the figure Special points on page 91)!
•
Although the manipulator is watertight, avoid spraying connectors and similar items
with a high pressure cleaner!
In working environments, e.g. foundries, where the manipulator may be exposed to fluids that
dry to make a crusty surface, e.g. release agents, clean the cable harnesses to prevent the crust
damaging the cables:
•
Clean the spiral wound cables to motor 6 (item A in the figure Special points on page
91) with water and a cloth!
•
Clean the remaining sections of the cable harnesses as detailed above!
A
3HAC 16246-1
6 Maintenance activities, controller cabinet
6.0.1 Introduction
Chapter 6: Maintenance activities, controller cabinet
6.0.1 Introduction
General
3HAC 16246-1
This chapter contains information on how to maintain the equipment in question, i.e. how to
perform the preventive maintenance activities specified in the maintenance schedule for the
same equipment.
A
93
6 Maintenance activities, controller cabinet
6.1.1 Inspection of controller cabinet, S4Cplus M2000A
Section 6.1: Inspection activities
6.1.1 Inspection of controller cabinet, S4Cplus M2000A
Inspection
The procedure below details how to inspect the controller cabinet.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
94
Note/Illustration
1.
Inspect the cabinet interior to make sure there is no Replace any faulty seals as
contamination.
required.
If any contamination is found, the cabinet interior
must be cleaned and all gaskets and seals to the
cabinet inspected.
2.
Inspect all sealing joints and cable glands to make
sure they are airtight in order to prevent dust and dirt
from being sucked into the cabinet.
3.
Inspect connectors and cabling to make sure they
are securely fastened and cabling not damaged.
4.
Inspect any fans to make sure they function correctly.
A
Replace any malfunctioning
fans as detailed in the Repairs
manual.
3HAC 16246-1
6 Maintenance activities, controller cabinet
6.2.1 Replacement of battery unit, controller
Section 6.2: Replacement activities
6.2.1 Replacement of battery unit, controller
Location of battery unit
The battery unit is located at the bottom of the controller.
X1
X1
X1
X1
X2
X2
X2
X2
X1
X2
X3
Rectifier
A0
A
xx0200000103
A
Battery unit
Required equipment
Equipment, etc.
Spare part no. Art no.
Note
Battery unit
3HAC 5393-2
To be replaced as a complete
unit
Other tools and procedures may be required.
See references to
these procedures in the
step-by-step instructions below.
Removal, battery
unit
These procedures include references to the tools required.
The procedure below details how to remove the battery unit.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
3HAC 16246-1
A
95
6 Maintenance activities, controller cabinet
6.2.1 Replacement of battery unit, controller
Step Action
Note/Illustration
1. Remove the battery unit by unscrewing its attachment screws (1).
X1
X1
X1
X1
X2
X2
X2
X2
X1
X2
X3
Rectifier
A0
xx0200000004
2. Pull the battery unit out.
3. Disconnect the three cables from the
battery unit.
xx0200000005
Refitting, battery
unit
The procedure below details how to refit the battery unit.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Place the battery unit close to its position.
Art. no. is specified above!
See illustration above!
2. Reconnect the cables and push the unit into position. See illustration above!
3. Secure it with the attachment screws.
96
A
See illustration above!
3HAC 16246-1
6 Maintenance activities, controller cabinet
6.3.1 Cleaning of controller cabinet
Section 6.3: Cleaning activities
6.3.1 Cleaning of controller cabinet
Required equipment
Equipment, etc.
Internal cleaning
Art. no.
Note
Vacuum cleaner
ESD Safe
Cleaning agent, exterior cleaning
Use rag with alcohol, for example, if
necessary
The procedure below details how to clean the interior of the controller cabinet.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step
1.
Do’s and don’ts!
Always!
Never!
3HAC 16246-1
Action
Note/Illustration
Clean the cabinet interior with a vacuum cleaner if necessary.
The section below specifies special considerations when cleaning the controller cabinet.
•
Always use cleaning equipment as specified above! Any other cleaning equipment
may shorten the life of paintwork, rust inhibitors, signs, or labels!
•
Always check that all protective covers are fitted to the controller before cleaning!
•
Never remove any covers or other protective devices before cleaning the controller!
•
Never use any cleaning agents, e.g. compressed air or solvents, other than those
specified above!
•
Never spray with a high pressure water cleaner!
A
97
6 Maintenance activities, controller cabinet
6.3.2 Cleaning computer fans
6.3.2 Cleaning computer fans
Location of computer fans
The fans are located as shown in the figure below:
3
1
2
xx0200000002
1
Cover
2
Fan
3
Screw
Required equipment
Equipment, etc.
Spare part no. Art. no.
Note
Vacuum cleaner
Cleaning
ESD Safe
The following procedures details how to clean the computer fans.
Please observe the following before commencing any repair work:
Turn off all electric power supplies to the robot!
Take any necessary measures to ensure that the manipulator does not collapse as parts are
removed, e.g. securing the lower arm with fixtures before removing the gearbox, axis 2.
Step
1.
98
Action
Note/Illustration
Loosen the screws on both sides of the cover, see
illustration pos 1.
A
1
3HAC 16246-1
6 Maintenance activities, controller cabinet
6.3.2 Cleaning computer fans
Step
3HAC 16246-1
Action
Note/Illustration
2.
Remove the covers.
3.
Clean the fans with an ESD safe vacuum cleaner.
4.
Remount the covers.
A
99
6 Maintenance activities, controller cabinet
6.3.3 Cleaning Drive units and air outlet device
6.3.3 Cleaning Drive units and air outlet device
Location of drive
units
The illustration below shows the location of the drive units and air outlet device.
1
1
Drive units
2
Air outlet device
2
Required equipment
Equipment, etc.
Spare part no. Art. no.
Vacuum cleaner
Cleaning
Note
ESD Safe
The following procedures detail how to clean the drive units, bleeder resistor and air outlet
device.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step
1.
2.
100
Action
Illustration/Note
Loosen the M5 screws (pos B) to the
air outlet device.
B
Remove the air outlet
A
3HAC 16246-1
6 Maintenance activities, controller cabinet
6.3.3 Cleaning Drive units and air outlet device
Step
Refitting
Action
Illustration/Note
3.
Remove the bleeder resistor.
Detailed in Repairs Manual section
“Replacement of bleeder resistor”.
4.
Clean the Inside of the air outlet.
Use an ESD safe vacuum cleaner.
5.
Clean the back side of the drive units. See Note above.
6.
Clean the bleeder resistor.
See Note above.
7.
Clean the drive unit fans.
See Note above.
The procedure below details how to refit the bleeder resistor.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Fit the bleeder resistor into position and secure it with the Art. no. is specified above!
spring.
Also see the figure above!
2. Secure the cable disconnected during disassembly.
3. Refit the air outlet device.
4. Tighten the M5 screws.
3HAC 16246-1
A
101
6 Maintenance activities, controller cabinet
6.3.4 Cleaning Air outlet
6.3.4 Cleaning Air outlet
Location of air
outlet
The illustration below shows the location of the air outlet shaft
1
1
Air outlet
Required equipment
Equipment, etc.
Spare part no. Art. no.
Vacuum cleaner
Cleaning
Note
ESD Safe
The following procedures detail how to clean the air outlet shaft.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
102
1.
Remove the drive units.
Detailed in Repairs Manual, section
“Replacement of drive units and
rectifier”.
2.
Remove the Bleeder resistor and system fan
unit.
Detailed in Repairs Manual, section
“Replacement of system fan unit”.
3.
Use an ESD safe vacuum cleaner to clean the
shaft
4.
Clean also the space around the transformer
from the front of the cabinet, see illustration.
A
3HAC 16246-1
6 Maintenance activities, controller cabinet
6.3.4 Cleaning Air outlet
Refitting
The procedure below details how to refit the Drive units, bleeder resistor and system fan unit.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Refit the drive units.
Detailed in Repairs Manual, section
“Replacement of drive units and rectifier”.
2. Refit the Bleeder resistor and system fan unit. Detailed in Repairs Manual, section
“Replacement of system fan unit”.
3. Refit the air outlet device.
4. Tighten the M5 screws.
3HAC 16246-1
A
103
6 Maintenance activities, controller cabinet
6.3.5 Cleaning Drain filter
6.3.5 Cleaning Drain filter
Location of drain
filter
The illustration below shows the location of the drain filter.
1
2
3
1
Filter holder
2
M5 screw
3
Drain filter
Required equipment
Equipment, etc.
Spare part no. Art no.
Filter
3HAC 5393-2
Standard toolkit
3HAC 15571-1 The contents are defined in section "Standard toolkit"!
Other tools and procedures may be required.
See references to
these procedures in the
step-by-step instructions below.
Removal
Note
These procedures include references to the tools required.
The procedure below details how to remove the drain filter.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
104
A
3HAC 16246-1
6 Maintenance activities, controller cabinet
6.3.5 Cleaning Drain filter
Step Action
Note/Illustration
1. Place the computer unit in the service position.
Detailed in Repairs Manual, section,
“Putting the computer unit in service
position”.
2. Loosen the M5 screw, pos. 2 in illustration.
1
2
3
3. Remove the filter holder, pos. 1 in previous
illustration.
4. Clean or replace the filter.
Refitting
The procedure below details how to refit the Drain filter.
Please observe the following before commencing any repair work on the controller:
Turn off all electric power supplies to the cabinet!
Many components inside the cabinet are sensitive to ESD (ElectroStatic Discharge) and will
be destroyed if subjected to it! Before handling, make sure you are connected to earth through
a special ESD wrist bracelet or similar.
Step Action
Note/Illustration
1. Fit the cleaned or new filter, pos 3
1
2
3
2. Fit the filter holder, (pos.1) and secure it with the See the figure above!
M5 screw, (pos. 2).
3. Put the computer system back in the regular
operation position.
3HAC 16246-1
A
Detailed in section "Putting the
computer in the service position".
105
6 Maintenance activities, controller cabinet
6.3.5 Cleaning Drain filter
106
A
3HAC 16246-1
Repair Manual, part 2 (Circuit Diagrams)
Industrial Robot
IRB 6600 - 225/2.55
IRB 6600 - 175/2.8
IRB 6600 - 175/2.55
IRB 6650 - 200/2.75
IRB 6650 - 125/3.2
M2000A
Repair Manual, part 2 (Circuit Diagrams)
IRB 6600/6650 M2000A
3HAC 16247-1
Revision A
The information in this manual is subject to change without notice and
should not be construed as a commitment by ABB. ABB assumes no responsibility for any errors that may appear in this manual.
In no event shall ABB be liable for incidental or consequential damages
arising from use of this manual and products described herein.
This manual and parts thereof must not be reproduced or copied without
ABB’s written permission, and contents thereof must not be imparted to
a third party nor be used for any unauthorized purpose. Contravention
will be prosecuted.
Additional copies of this manual may be obtained from ABB at its then
current charge.
©Copyright 2003 ABB All rights reserved.
ABB Automation Technology Products AB
Robotics
SE-721 68 Västerås
Sweden
0.0.1 Overview
0.0.1 Overview
About This
Manual
This information product is a manual containing circuit diagrams for both the manipulator
and the controller cabinet.
Usage
This manual should be used during installation/repair/maintenance work.
Who Should Read
This Manual?
This manual is intended for:
Organization of
Chapters
•
personnel in the user's organization.
•
personnel in other organizations.
The information product is organized in the following chapters:
Chapter
Contents
1
Circuit Diagram, manipulator, 3HAC 13347-1 (IRB 66X0/7600)
2
Circuit Diagram, controller, 3HAC 14189-2 (S4Cplus M2000A)
Revision
Description
0
First edition
Revisions
A
3HAC 16247-1
•
New revisions of the circuit diagrams.
A
1
0.0.1 Overview
2
A
3HAC 16247-1
Circuit Diagram 3HAC 13347-1 / Rev. 01
CONTENTS
Sheet
Contents ........................................................................................................................101
Connection Point Location ...........................................................................................102
Legend ..........................................................................................................................103
Brake Release Unit .......................................................................................................104
Service brake release unit (IRB 7600).......................................................................104.1
Serial Measurement Board ...........................................................................................105
Axis 1............................................................................................................................106
Axis 2............................................................................................................................107
Axis 3............................................................................................................................108
Axis 4............................................................................................................................109
Axis 5 (IRB 7600) ........................................................................................................110
Axis 5 (IRB 6600) .....................................................................................................110.1
Axis 6............................................................................................................................111
Customer Power/Signal/Bus Connections....................................................................112
Customer Power/Signal/Bus and External axis .........................................................112.1
Customer Power/Signal/Bus Connections, ax 3-6.....................................................112.5
Switches axis 1 .......................................................................................................... ..113
Switches/ Fan axis 2 .....................................................................................................114
Switches/ Fan axis 3 .....................................................................................................115
Weld connections..........................................................................................................116
Product Manual IRB 7600/6600
A
1
Contents
101
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Connection Point Location
102
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Legend
103
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Brake Release Unit
No. of sheets
20
sheet
104
01
Revision
Circuit Diagram 3HAC 13347-1
Service brake release unit (IRB 7600)
104.1
sheet
20
No. of sheets
00
Revision
Circuit Diagram 3HAC 13347-1
Serial Measurement Board
105
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Axis 1
106
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Axis 2
107
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Axis 3
108
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Axis 4
109
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Axis 5 (IRB 7600)
No. of sheets
20
sheet
110
01
Revision
Circuit Diagram 3HAC 13347-1
Axis 5 (IRB 6600)
110.1
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Axis 6
111
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Customer Power/Signal/Bus Connections
112
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Customer Power/Signal/Bus and External axis
112.1
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Customer Power/Signal/Bus Connections, ax 3-6
112.5
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Switches axis 1
113
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Switches/ Fan axis 2
114
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Switches/ Fan axis 3
115
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
Weld connections
116
sheet
20
No. of sheets
01
Revision
Circuit Diagram 3HAC 13347-1
ABB Automation Technology Products AB
Robotics
S-721 68 VÄSTERÅS
SWEDEN
Telephone: +46 (0) 21 344000
Telefax: +46 (0) 21 132592
Circuit Diagram
Contents
3HAC 5582-2/Rev. 03
Page
1 General Information ........................................................................................................ 1
Block Diagram.............................................................................................................. 1-1
View of Control Cabinet............................................................................................... 1-2
View of Control Cabinet............................................................................................... 1-3
Designation................................................................................................................... 1-4
Designation................................................................................................................... 1-5
2 Mains Connection and Power Supply ............................................................................ 1
Mains Connection......................................................................................................... 2-1
Transformer Unit 400-600V......................................................................................... 2-2
Transformer unit 200-440V.......................................................................................... 2-3
Power Supply................................................................................................................ 2-4
External transformer unit 200 - 600V IRB 66X0/7600................................................ 2-5
Transformer unit 400 - 475V IRB 66X0/7600 ............................................................. 2-6
3 Computer Unit and Connector Unit............................................................................... 1
Block Diagram / Computer Unit .................................................................................. 3-1
Cabling in Computer Unit ............................................................................................ 3-2
Main Computer and Hard Disk / Flash Disk Drive ...................................................... 3-3
Computer Cooling ........................................................................................................ 3-4
Base Connector Board and I/O Computer.................................................................... 3-5
Connector Board and I/O Computer............................................................................. 3-6
Connector Board and Axis Computer .......................................................................... 3-7
Base Connector Unit..................................................................................................... 3-8
Connector Plate on Controller Panel ............................................................................ 3-9
4 Emergency Stops and Run Chain................................................................................... 1
Emergency Stop............................................................................................................ 4-1
Run Chain, Operating Mode Selector, 3 modes ........................................................... 4-2
Run Chain, Operating Mode Selector, 2 modes ........................................................... 4-3
Power Unit Servo Disconnector ................................................................................... 4-4
5 Drive System and Robot Cable ....................................................................................... 1
Block Diagram.............................................................................................................. 5-1
Rectifier, Fans and Bleeder .......................................................................................... 5-2
Drive System Signal Connection 2 Drive Units........................................................... 5-3
Drive System Signal Connection 3 Drive Units........................................................... 5-4
Servo Drive Units / IRB 140 ........................................................................................ 5-5
Servo Drive Units / IRB 340 ........................................................................................ 5-6
Servo Drive Units / IRB 640, 840 ................................................................................ 5-7
Servo Drive Units / IRB 1400, 2400 IRC..................................................................... 5-8
Servo Drive Units / IRB 4400, 6400S, PE ................................................................... 5-9
Servo Drive System / IRB 6400R, IRC........................................................................ 5-10
Control Cable IRB 140 ................................................................................................. 5-11
Control Cable IRB 340, 1400 - 2400, IRC (ECB)........................................................ 5-12
Control Cable IRB 640, 840, 4400, and 6400S, PE ..................................................... 5-13
Control Cable IRB 6400R, IRC (GT, GU)................................................................... 5-14
Circuit Diagram S4Cplus
1
Circuit Diagram
Contents
3HAC 5582-2/Rev. 03
Page
Rectifier, fans and bleeder, IRB 66X0, 7600 ............................................................... 5-15
Servo drive system, IRB 66X0, 7600........................................................................... 5-16
Control cable, IRB 66X0, 7600.................................................................................... 5-17
6 External Axes ................................................................................................................... 1
External Axes ............................................................................................................... 6-1
Axes Computer 2 and Connector Board....................................................................... 6-2
Expansion Board Axis Connector Board ..................................................................... 6-3
Drive System Signal Connection External Axes.......................................................... 6-4
External Axes no. 7th - 9th Control Signal Connection............................................... 6-5
Axis Computer 2 and Axis Connector Unit if External Axis Cabinet ......................... 6-6
Connection to External Axis Cabinet ........................................................................... 6-7
Servogun-SMB power/signals cable ............................................................................ 6-8
DDU Power/Signals Cable, IRB 6400R....................................................................... 6-9
DDU Power/Signals Cable, IRB 6600, 7600 ............................................................... 6-10
DDU Cable, IRB 6600, 7600 ....................................................................................... 6-11
Ext. Axis no.7 SG, IRB 6600, 7600 ............................................................................. 6-12
External axis no.7 RG, IRB 6600, 7600....................................................................... 6-13
External axis no.8 SG, IRB 6600, 7600 ....................................................................... 6-14
7 I/O Units and Field Bus Modules ................................................................................... 1
I/O Unit Position .......................................................................................................... 7-1
Digital Part of Combi I/O and Digital I/O Unit Input Part........................................... 7-2
Digital I/O Unit Output Part ......................................................................................... 7-3
Combi I/O Unit Digital and Analogue Output Part...................................................... 7-4
Digital Input Part of 120V AC I/O Unit....................................................................... 7-5
Digital Output Part of 120V AC I/O Unit .................................................................... 7-6
Relay I/O Unit Input 1-16 ............................................................................................ 7-7
Digital with Relays I/O Output 1-8 .............................................................................. 7-8
Digital with Relays I/O Output 9-16 ............................................................................ 7-9
Analogue I/O Unit ........................................................................................................ 7-10
Remote I/O Unit For Allen Bradley PLC..................................................................... 7-11
Interbus-S Slave ........................................................................................................... 7-12
Profibus DP Slave ........................................................................................................ 7-13
Encoder Unit................................................................................................................. 7-14
Profibus DP Master/Slave ............................................................................................ 7-15
Interbus master/slave optical fibre and copper wire..................................................... 7-16
8 Other Options................................................................................................................... 1
Floppy Disk .................................................................................................................. 8-1
Service Equipment Supply ........................................................................................... 8-2
External Connection System Signals ........................................................................... 8-3
Position Switches on Manipulator................................................................................ 8-4
Customer Signal, IRB 140, 340, 1400.......................................................................... 8-5
Customer Power/Signal IRB 2400, 4400, 6400S/PE ................................................... 8-6
Customer Cable Power/Signal/CAN IRB 6400R......................................................... 8-7
External Control Panel ................................................................................................. 8-8
2
Circuit Diagram S4Cplus
Circuit Diagram
Contents
3HAC 5582-2/Rev. 03
Page
Extension Cable Teach Pendant ................................................................................... 8-9
Time Relay ................................................................................................................... 8-10
External I/O CAN-BUS Connection ............................................................................ 8-11
Customer power/signal/Profibus, IRB 6400R .............................................................. 8-12
LAN Ethernet connection............................................................................................. 8-13
Customer power/CAN-BUS IRB 640/6400S ............................................................... 8-14
Customer cable power/signal CAN-BUS IRB 6600/7600 ........................................... 8-15
Customer cable power/signal Profibus IRB 66X0/7600 .............................................. 8-16
Extended customer power/signal/Profibus, IRB 6400R............................................... 8-17
Position Switches 1/2/3 on Manipulator, IRB 66X0, 7600 .......................................... 8-18
Customer Cable Power/Signals/IBS, IRB 6600, 7600 ................................................. 8-19
9 External Axis Cabinet...................................................................................................... 1
Block Diagram.............................................................................................................. 9-1
View of External Axis Cabinet..................................................................................... 9-2
Designation................................................................................................................... 9-3
Mains Connection......................................................................................................... 9-4
Transformer Unit .......................................................................................................... 9-5
Power Supply, I/O Supply ............................................................................................ 9-6
Power Unit.................................................................................................................... 9-7
Rectifier, Fans and Bleeder .......................................................................................... 9-8
Drive Unit Signal Connection, 1 External Drive Unit.................................................. 9-9
Drive Unit Signal Connection 2 External Drive Units ................................................. 9-10
Drive Unit Signal Connection 3 External Drive Units ................................................. 9-11
Drive Unit and Control Cable Drive Unit GT .............................................................. 9-12
Drive Unit and Control Cable Drive Unit GT+CCB.................................................... 9-13
Drive Unit and Control Cable....................................................................................... 9-14
Service Equipment Supply ........................................................................................... 9-15
Circuit Diagram S4Cplus
3
Circuit Diagram
Contents
4
3HAC 5582-2/Rev. 03
Page
Circuit Diagram S4Cplus
1 General Information
No. of sheets
107
sheet
1-0
04
Revision
Circuit Diagram 3HAC 5582-2
Block Diagram
1-1
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
View of Control Cabinet
1-2
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
View of Control Cabinet
1-3
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Designation
1-4
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Designation
1-5
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
2 Mains Connection and Power Supply
No. of sheets
107
sheet
2-0
04
Revision
Circuit Diagram 3HAC 5582-2
Mains Connection
2-1
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Transformer Unit 400-600V
2-2
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Transformer unit 200-440V
2-3
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Power Supply
2-4
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
External transformer unit 200 - 600V IRB 66X0/7600
No. of sheets
107
sheet
2-5
04
Revision
Circuit Diagram 3HAC 5582-2
Transformer unit 400 - 475V IRB 66X0/7600
No. of sheets
107
sheet
2-6
04
Revision
Circuit Diagram 3HAC 5582-2
3 Computer Unit and Connector Unit
No. of sheets
107
sheet
3-0
04
Revision
Circuit Diagram 3HAC 5582-2
Block Diagram / Computer Unit
3-1
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Cabling in Computer Unit
3-2
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Main Computer and Hard Disk / Flash Disk Drive
3-3
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Computer Cooling
3-4
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Base Connector Board and I/O Computer
3-5
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Connector Board and I/O Computer
3-6
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Connector Board and Axis Computer
3-7
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Base Connector Unit
3-8
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Connector Plate on Controller Panel
3-9
sheet
91
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
4 Emergency Stops and Run Chain
No. of sheets
107
sheet
4-0
04
Revision
Circuit Diagram 3HAC 5582-2
Emergency Stop
4-1
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Run Chain, Operating Mode Selector, 3 modes
4-2
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Run Chain, Operating Mode Selector, 2 modes
4-3
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Power Unit Servo Disconnector
4-4
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
5 Drive System and Robot Cable
No. of sheets
107
sheet
5-0
04
Revision
Circuit Diagram 3HAC 5582-2
Block Diagram
5-1
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Rectifier, Fans and Bleeder
5-2
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Drive System Signal Connection 2 Drive Units
5-3
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Drive System Signal Connection 3 Drive Units
5-4
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Servo Drive Units / IRB 140
5-5
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Servo Drive Units / IRB 340
5-6
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Servo Drive Units / IRB 640, 840
5-7
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Servo Drive Units / IRB 1400, 2400 IRC
5-8
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Servo Drive Units / IRB 4400, 6400S, PE
5-9
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Servo Drive System / IRB 6400R, IRC
5-10
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Control Cable IRB 140
5-11
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Control Cable IRB 340, 1400 - 2400, IRC (ECB)
5-12
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Control Cable IRB 640, 840, 4400, and 6400S, PE
5-13
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Control Cable IRB 6400R, IRC (GT, GU)
5-14
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Rectifier, fans and bleeder, IRB 66X0, 7600
5-15
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Servo drive system, IRB 66X0, 7600
5-16
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Control cable, IRB 66X0, 7600
5-17
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
6 External Axes
No. of sheets
107
sheet
6-0
04
Revision
Circuit Diagram 3HAC 5582-2
External Axes
6-1
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Axes Computer 2 and Connector Board
6-2
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Expansion Board Axis Connector Board
6-3
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Drive System Signal Connection External Axes
6-4
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
External Axes no. 7th - 9th Control Signal Connection
6-5
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Axis Computer 2 and Axis Connector Unit if External Axis Cabinet
6-6
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Connection to External Axis Cabinet
6-7
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Servogun-SMB power/signals cable
6-8
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
DDU Power/Signals Cable, IRB 6400R
6-9
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
DDU Power/Signals Cable, IRB 6600, 7600
6-10
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
DDU Cable, IRB 6600, 7600
6-11
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Ext. Axis no.7 SG, IRB 6600, 7600
6-12
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
External axis no.7 RG, IRB 6600, 7600
6-13
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
External axis no.8 SG, IRB 6600, 7600
6-14
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
7 I/O Units and Field Bus Modules
No. of sheets
107
sheet
7-0
04
Revision
Circuit Diagram 3HAC 5582-2
I/O Unit Position
7-1
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Digital Part of Combi I/O and Digital I/O Unit Input Part
7-2
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Digital I/O Unit Output Part
7-3
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Combi I/O Unit Digital and Analogue Output Part
7-4
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Digital Input Part of 120V AC I/O Unit
7-5
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Digital Output Part of 120V AC I/O Unit
7-6
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Relay I/O Unit Input 1-16
7-7
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Digital with Relays I/O Output 1-8
7-8
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Digital with Relays I/O Output 9-16
7-9
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Analogue I/O Unit
7-10
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Remote I/O Unit For Allen Bradley PLC
7-11
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Interbus-S Slave
7-12
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Profibus DP Slave
7-13
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Encoder Unit
7-14
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Profibus DP Master/Slave
7-15
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Interbus master/slave optical fibre and copper wire
7-16
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
8 Other Options
No. of sheets
107
sheet
8-0
04
Revision
Circuit Diagram 3HAC 5582-2
Floppy Disk
8-1
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Service Equipment Supply
8-2
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
External Connection System Signals
8-3
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Position Switches on Manipulator
8-4
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Customer Signal, IRB 140, 340, 1400
8-5
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Customer Power/Signal IRB 2400, 4400, 6400S/PE
8-6
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Customer Cable Power/Signal/CAN IRB 6400R
8-7
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
External Control Panel
8-8
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Extension Cable Teach Pendant
8-9
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Time Relay
8-10
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
External I/O CAN-BUS Connection
8-11
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Customer power/signal/Profibus, IRB 6400R
8-12
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
LAN Ethernet connection
8-13
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Customer power/CAN-BUS IRB 640/6400S
8-14
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Customer cable power/signal CAN-BUS IRB 6600/7600
8-15
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Customer cable power/signal Profibus IRB 66X0/7600
8-16
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Extended customer power/signal/Profibus, IRB 6400R
8-17
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Position Switches 1/2/3 on Manipulator, IRB 66X0, 7600
8-18
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Customer Cable Power/Signals/IBS, IRB 6600, 7600
8-19
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
9 External Axis Cabinet
No. of sheets
107
sheet
9-0
04
Revision
Circuit Diagram 3HAC 5582-2
Block Diagram
9-1
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
View of External Axis Cabinet
9-2
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Designation
9-3
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Mains Connection
9-4
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Transformer Unit
9-5
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Power Supply, I/O Supply
9-6
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Power Unit
9-7
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Rectifier, Fans and Bleeder
9-8
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Drive Unit Signal Connection, 1 External Drive Unit
9-9
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Drive Unit Signal Connection 2 External Drive Units
9-10
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Drive Unit Signal Connection 3 External Drive Units
9-11
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Drive Unit and Control Cable Drive Unit GT
9-12
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Drive Unit and Control Cable Drive Unit GT+CCB
9-13
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Drive Unit and Control Cable
9-14
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
Service Equipment Supply
9-15
sheet
107
No. of sheets
04
Revision
Circuit Diagram 3HAC 5582-2
ABB Automation Technology Products AB
Robotics
S-721 68 VÄSTERÅS
SWEDEN
Telephone: +46 (0) 21 344000
Telefax: +46 (0) 21 132592