FAAC 746 ER Z16, Z20, CAT, RF Slide Gate Operator User Manual

746
Slide Gate Operator
FAAC International Inc.
Headquarter & East Coast Operations
5151 Sunbeam Road
Suites 9-11
Jacksonville, FL 32257
Tel. 866 925 3222
www.faacusa.com
FAAC International Inc.
West Coast Operations
357 South Acacia Avenue
Unit 357
Fullerton, CA 92831
Tel. 800 221 8278
AUTOMATED SYSTEM 746 & ELECTRONIC CONTROL UNIT 780D
where:
Ta = opening time
Tc = closing time
Tp = pause time
Ti = time of interval between two complete cycles
These instructions apply to the following models:
746 ER Z16 - 746 ER Z20 - 746 ER CAT - 746 ER RF
The FAAC mod. 746 automated system for sliding gates is an
electro-mechanical operator transmitting motion to the sliding leaf
via a rack or chain pinion appropriately coupled to the gate.
The non-reversing system ensures the gate is mechanically locked
when the motor is not operating and, therefore, no lock needs to be
installed.
The gearmotor is equipped with a mechanical clutch which,
combined with an electronic device, offers the necessary adjustable
anti-crushing safety and guarantees stopping or reversing the gate
movement. A handy manual release makes it possible to move the
gate in the event of a power cut or malfunction. The electronic
control equipment is equipped with a gearmotor and is housed
inside the operator.
The 746 automated system was designed and manufactured to
control access of vehicles. Avoid any other use whatever.
Use frequency graph
% Benutzungs- % Frecuencia % gebruiks% Freq. % Duty % Fréq.
Utilizzo Cycle d’utilisation frequenz
de utilización frequentie
100
90
80
70
60
50
40
30
20
10
0
Tempo (h)
Tab. 1
Securing corners
Pinion
Limit sensor switch
Operator cover
780 D Control board
Adjustment screw for
anti-crushing clutch
Oil filling plug
Operator earthing
Lever operated release system
Protective side panels
Cover for 780D control board
1. DESCRIPTION AND TECHNICAL SPECIFICATIONS
MAXIMUM USE CURVE
The curve makes it possible to establish maximum work time (T)
according to use frequency (F).
E.g.: The 746 gearmotor can operate non-stop at 70% use
frequency.
To ensure efficient operation, operate in the work range below the
curve.
Important: The curve is obtained at a temperature of 24°C. Exposure
to the direct sun rays can reduce use frequency down to 20%.
Calculation of use frequency
The percentage of effective work time (opening + closing) compared
to total time of cycle (opening + closing + pause times).
Calculation formula:
%F =
Ta + Tc
2
3
4
Temps (h)
5
6
7
Zeit (h)
8
9
10 11 12
Tiempo (h)
werktijd (h)
TECHNICAL SPECIFICATIONS OF 746 GEARMOTOR
MODEL
746
Power supply (Vac +6% -10% 50-60Hz)
230
Absorbed power (W)
300
Reduction ratio
1 : 30
Type of pinion
Z20 - Z16
Rack
Module 4 - step 12.566
Max. thrust (daN)
50 (Z20) - 62,5 (Z16)
Max. Torque (Nm)
20
Winding thermal protection (°C)
120
Use frequency
70% (see graph)
Oil quantity (l)
1,8
Type of oil
FAAC XD 220
Operatine ambient temperature (°C)
-20 ÷ +55
Gearmotor weight (Kg)
14
Protection class
IP 44
Gate max. weight (Kg)
400 (Z20) - 600 (Z16)
Gate speed (m/min)
12 (Z20) - 9,6 (Z16)
Gate max. length (m) (time-out)
50 (Z20) - 40 (Z16)
Clutch
twin-disk in oil bath
Protective treatment
cataphoresis
Equipment
780D
Limit-switch
MSL or inductive
Gearmotor overall dimensions LxHxD (mm)
see Fig. 2
Electric motor technical specifications
RPM
1400
Power (W)
300
Absorbed current (A)
1.5
Starting capacitor (µF)
25
Power supply (Vac +6% -10%; 50-60Hz)
230
Fig. 1
1.1.
1
Time (h)
X 100
Ta + Tc + Tp + Ti
19
To make the connections efficiently, allow the cables to
project by about 40 cm from the hole (Figs.5-6 ref.) of the
foundation plate.
2. DIMENSIONS
Fig. 4
Fig. 2
3. ELECTRIC EQUIPMENT (standard system)
Fig. 5
Operator 746
with 780D equipment
Photocells
Key-operated push-button
Flashing lamp
Radio receiver
Fig. 3
4. INSTALLATION OF THE AUTOMATED SYSTEM
4.1.
Fig. 6
PRELIMINARY CHECKS
To ensure safety and an efficiently operating automated system,
make sure the following conditions are observed:
•
•
•
•
•
The gate structure must be suitable for automation. The following
are necessary in particular: wheel diameter must be in proportion
to the weight of the gate to be automated, an upper guide must
be provided, plus mechanical stop limits to prevent the gate
derailing.
The soil must permit sufficient stability for the foundation plinth.
There must be no pipes or electric cables in the plinth excavation
area.
If the gearmotor is exposed to passing vehicles, install, if possible,
adequate means of protection against accidental impact.
Check if an efficient earthing is available for connection to the
gearmotor.
Fig. 7
4.3.
4.2.
MASONRY FOR FOUNDATION PLATE
MECHANICAL INSTALLATION
1) Assemble the securing corners and anti-vibration spacers on
the operator as shown in Fig. 8.
2) Open the cover, unscrewing the securing screws.
3) Place the operator on the plate, using the supplied washers and
nuts as shown in Fig. 9.
During this operation, route the cables through the duct inside
the lower half-casing of the operator (Fig.10 - Ref. A).
To access the electronic equipment, route the cables through
the appropriate hole, using the supplied rubber cable-clamp.
Make absolutely sure to unsheathe all the cables so that the
clamp holds single cables only (Fig.10 - Ref. B).
1) Assemble the foundation plate as shown in figure 4.
2) The foundation plate must be located as shown in figure 5 (right
closing) or figure 6 (left closing) to ensure the rack and pinion
mesh correctly.
3) Prepare a foundation plinth as shown in fig.7 and wall the
foundation plate, supplying one or more sheaths for routing
electric cables. Using a spirit level, check if the plate is perfectly
level. Wait for the cement to set.
4) Lay the electric cables for connection to the accessories and
power supply as shown in figure 3.
20
5) Secure the gearmotor to the foundation plate, tightening the
nuts as in Fig.12.
6) Prepare the operator for manual operating mode as described
in chapter 8.
Fig. 12
Fig. 8
4.4.
INSTALLING THE RACK
4.4.1.
Fig. 9
4.4.2.
A
B
STEEL RACK TO WELD (Fig.13)
1) Place the three threaded pawls on the
rack element, positioning them at the
top of the slot. In this way, the slot play
will enable any adjustments to be
made.
2) Manually take the leaf into its closing
position.
3) Lay the first piece of rack level on the
Fig. 13
pinion and weld the threaded pawl
on the gate as shown in figure15.
4) Move the gate manually, checking if the rack is resting on the
pinion, and weld the second and third pawl.
5) Bring another rack element near to the previous one, using a
piece of rack (as shown in figure 16) to synchronise the teeth of
the two elements.
6) Move the gate manually and weld the three threaded pawls,
thus proceeding until the gate is fully covered.
STEEL RACK TO SCREW (Fig. 14)
1) Manually take the leaf into its closing position.
2) Lay the first piece of rack level on
the pinion and place the spacer
between the rack and the gate,
positioning it at the top of the slot.
3) Mark the drilling point on the gate.
Drill a Ø 6,5 mm hole and apply
thread with a Ø 8 mm male tap.
Screw the bolt.
4) Move the gate manually, checking
if the rack is resting on the pinion,
Fig. 14
and repeat the operations at point
3.
5) Bring another rack element near to the previous one, using a
piece of rack (as shown in figure 16) to synchronise the teeth of
the two elements.
6) Move the gate manually and carry out the securing operations
as for the first element, thus proceeding until the gate is fully
covered.
Fig. 10
4.4.3.
NYLON RACK TO SCREW (Fig.14bis)
1) Manually take the leaf into its
closing position.
Fig. 14bis
2) Lay the first piece of the rack level on
the pinion and mark the drilling point
on the gate; drill Ø 4 mm and screw
the self-tapping screw 6 x 20 mm to
the relevant reinforcing plate.
3) Move the gate manually, checking
if the rack is resting on the pinion,
and repeat the operations at point
2.
4) Bring another rack element near to the previous one, using
a piece of rack (as shown in figure 16) to synchronise the
teeth of the two elements.
5) Move the gate manually and carry out the securing
operations as for the first element, thus proceeding until the
gate is fully covered.
Fig. 11
21
Fig. 19
4.5.2. MOD. 746 ER RF (Figs. 20 - 21)
Fig. 15
1) Insert the spring pin on the shaft, using a hammer.
2) Fit the idle transmissions bracket on the gearmotor flange,
using the four screws (M5 x 12) and the appropriate
washers , in the kit as shown in Fig. 20.
3) Fit the chain pinion on the shaft, making the pinion seats
coincide with the spring pin and tighten the screw and
the appropriate washers and .
4) Pass the chain as shown in Fig. 21 ref. A and install the
housing with screw and washer as in Fig. 20.
5) In case of operators with MLS limit switches, arrange the
supports for the positioning of the magnets supplied while
observing the dimensions given in fig. 21 ref. B.
Fig. 16
•
•
•
•
•
Notes on rack installation
Make sure that, during the gate travel, all the rack elements do
not exit the pinion.
Do not, on any account, weld the rack elements either to the
spacers or to each other.
When the rack has been installed, to ensure it meshes
correctly with the pinion, we advise
you to lower the gearmotor position
by about 1.5 mm (Fig.17).
Manually check if the gate
habitually reaches the mechanical
stop limits and make sure there is no
friction during gate travel.
Do not use grease or other lubricants
Fig. 17
between rack and pinion.
4.5.
Fig. 20
INSTALLATION OF CHAIN PINIONS
In the versions for applications with chain and idle transmissions,
a Z16 or Z20 chain pinion must be installed. Proceed as follows:
A
4.5.1.
MOD. 746 ER CAT (Figs. 18 - 19)
1) Insert the spring pin on the shaft, using a hammer.
2) Fit the chain pinion on the shaft, making the pinion seats
coincide with the spring pin and tighten the screw with the
appropriate washers.
0÷10 mm
5÷12 mm
B
Fig. 21
Fig. 18
22
5.3.
5. CONTROL BOARD 780D
5.1.
DL
Led
J1
J2
J5
J6
J7
J8
F1
F2
F
–
+
WARNINGS
Important: Before attempting any work on the control board
(connections, maintenance), always turn off power.
- Install, upstream of the system, a differential thermal breaker with
adequatetrippingthreshold.
- Connect the earth cable to the terminal on J7 connector of the board,
and to the bush on the operator (figs. 22 and 40).
- Always separate power cables from control and safety cables (pushbutton, receiver, photocells, etc.). To avoid any electric noise, use
separate sheaths or a shielded cable (with earthed shield).
5.2.
TECHNICAL SPECIFICATIONS
Power supply V~ (+6% -10%)
230
Absorbed power (W)
10
Motor max. load (W)
1000
Accessories max. load (A)
0,5
Operating ambient temperature
-20 °C +55 °C
Protection fuses
2 (see fig. 22 and par. 5.3)
Function logics: Automatic / “Stepped” automatic / Semi-automatic / Safety
devices / Semi-automatic B / Dead-man C / “Stepped” semi-automatic / Mixed B/C
logic
Work time
Programmable (from 0 to 4,1 min.)
Pause time
Programmable (from 0 to 4,1 min.)
Thrust force
Adjustable over 50 levels
Terminal board inputs: Open - Partial Open - Opening safety devices - Closing safety
devices - Stop - Edge - Power supply+Earth
On-connector inputs
Opening and closing limit-switch Motor capacitor
Terminal board outputs: Flashing lamp - Motor - 24 Vdc accessories power supply
- 24 Vdc indicator-light / Timed output / Electric lock command - 'traffic lights' - Fail
safe
Rapid connector
5-pin card connection for Minidec, Decoder or RP receivers
Programming
3 keys (+, -, F) and display, "basic" or "advanced" mode
Basic mode programmable functions: Function logic - Pause time - Thrust Force
- Opening-closing direction
Advanced mode programmable functions: Torque at initial thrust - Braking - Fail safe
- Pre-flashing - Indicator-light/Timed output/Electric lock or 'traffic lights' command Opening and closing safety devices logic - Encoder/ Anti-crushing sensitivity Decelerations - Partial opening time - Work time - Assistance request - Cycle counter
LAYOUT AND COMPONENTS
SIGNALLING AND PROGRAMMING DISPLAY
INPUTS STATUS CONTROL LED
LOW VOLTAGE TERMINAL BOARD
CONNECTOR FOR DECODER/MINIDEC/RP RECEIVER
CONNECTOR FOR MOTOR STARTING CAPACITOR
MOTOR AND FLASHING LAMP CONNECTION TERMINAL BOARD
230 Vac POWER SUPPLY TERMINAL BOARD
DOUBLE CONNECTOR J8 - LIMIT-SWITCH QUICK FIT
MOTOR AND TRANSFORMER PRIMARY WINDING FUSE (F 5A)
LOW VOLTAGE AND ACCESSORIES FUSE (T 800mA)
"F" PROGRAMMING PUSH-BUTTON
"–" PROGRAMMING PUSH-BUTTON
"+" PROGRAMMING PUSH-BUTTON
J1 CONNECTOR
1
2
3
4
5
6
7
8
9
10
11
12
OPEN A (total opening)
OPEN B (partial opening)
FSW-OP (opening safety devices)
FSW-CL (closing safety devices)
STOP
SAFE (“edge” safety devices)
- (negative for power supply to accessories)
- (negative for power supply to accessories)
+24V (supply to accessories)
+24V (supply to accessories)
FSW-TX (negative for emitting photocells - FAILSAFE)
W.L. (negative for indicator light)
+
J7
–
F
J8
J1
J5
J6
DL
F1
Led
J2
Led
F2
Fig. 22
23
5.4.
Opening safety devices: they are tripped when an obstacle is
detected only during gate opening movement. They
cause immediate closure and resumption of opening
motion on release (see programming in par. 5.5.2.)
ELECTRIC CONNECTIONS
230Vac
50-60Hz
Closing safety devices: they are tripped when an obstacle is
detected only during gate closing movement. They
cause re-opening, either immediate or on release
(see programming in par. 5.5.2.)
BLUE
Opening/closing safety devices: they are tripped during the
gate opening and closing movements. They cause
stopping and restart motion on release.
230 Vac (max.
60W)
Capacitor
J5
"Edge" safety devices: they are tripped during the gate opening
and closing movements. They cause immediate
reversal of motion and stopping after two seconds.
Encoder: it is tripped if there is an obstacle during gate opening
and closing movements. It causes immediate reversal
of motion and stopping after two seconds.
N.B. If two or more safety devices have the same function
(opening, closing, opening and closing, edge), the contacts
must be connected to each other in series (fig. 25).
N.C. contacts must be used.
N.B: If safety devices are not used, jumper connect the terminals
as shown in fig. 26.
The most common photocell and safety device lay-outs are
shown below (from fig. 27 to fig. 34).
LIMIT-SWITCH
J1
+
+
SAFE
CL
OP
OPEN A
OPEN B
24 Vcc
max. 3W
TOTAL
OPEN
Connection of two N.C. contacts in series
(e.g. Photocells, Stop, Edge, etc.)
For connection of the
photocells and safety
devices, see paragraph
5.4.1.
PARTIAL
OPEN
Fig. 25
STOP
+
+
SAFE
CL
OP
OPEN
B
OPEN
A
Connection of no safety device
Fig. 23
Fig. 26
+
+
CL
OP
SAFE
Connection of photocells and safety devices
OPEN
B
5.4.1.
OPEN
A
Connection of a closing safety device and an opening
safety device
Before connecting the safety devices and photocells we advise
you to select the type of operation according to the movement
area they have to protect (see fig.24 for example):
Fig. 27
Opening or
opening/closing
photocells
+
+
SAFE
CL
OP
OPEN
B
Connection of an "edge" safety device
OPEN
A
Closing
photocells
"Edge" safety devices
Closing photocells
Fig. 28
Fig. 24
24
+
+
SAFE
CL
OP
OPEN
A
+
+
SAFE
CL
OP
OPEN
B
OPEN
A
OPEN
B
Connection of two pairs of closing photocells and two
edge safety devices
Connection of a pair of opening photocells
Fig. 29
+
+
SAFE
CL
OP
OPEN
B
OPEN
A
Connection of a pair of closing photocells
Fig. 32
+
+
OP
CL
SAFE
Fig. 30
OPEN
B
OPEN
A
Connection of a pair of closing photocells, a pair of opening
photocells and a pair of opening/closing photocells
+
+
SAFE
CL
OP
OPEN
B
OPEN
A
Connection of a pair of opening photocells, a pair of closing
photocell and an edge safety device
TX OP/CL
TX OP
RX OP/CL
RX OP
RX OP
Fig. 31
TX OP
Fig. 33
25
To install several partial opening pulse generators, connect
the N.O. contacts in parallel (fig.35).
TX OP/CL
FSW OP - Opening safety devices contact (terminal 3): The purpose
of the opening safety devices is to protect the leaf movement
area during opening. During opening, in the A-AP-S-E-EP
logics the safety devices reverse the movement of the gate,
or stop and restart the movement when it is released (see
advanced programming in Chpt. 5.5.2). During the opening
cycle in logics B, C and B/C, they interrupt movement. They
never operate during the closing cycle.
If the Opening safety devices are engaged when the gate
is closed, they prevent the opening movement.
To install several safety devices, connect the N.C. contacts in
series (fig.25).
NB.: If no opening safety devices are connected, jumper
connect inputs FSW OP and -TX FSW (fig. 26).
FSW CL - Closing safety devices contact (terminal 4): The purpose
of the closing safety devices is to protect the gate movement
area during closing. During closing, in the A-AP-S-E-EP
logics, the safety devices reverse the movement of the
gate, or stop and reverse the movement when it is released
(see advanced programming in Chpt. 5.5.2). During the
closing cycle in logics B, C and B/C, they interrupt movement.
They never operate during the opening cycle. If the Closing
safety devices are engaged when the gate is open, they
prevent the closing movement.
To install several safety devices, connect the N.C. contacts
in series (fig.25).
NB.: If no closing safety devices are connected, jumper
connect terminals FSW CL and -TX FSW (fig. 26).
STOP - STOP contact (terminal 5): any device (e.g. a push-button)
which, by opening a contact, stops gate movement.
To install several STOP devices, connect the N.C. contacts
in series (fig. 25).
NB.: If STOP devices are not connected, jumper connect
the STOP and - terminals.
SAFE - EDGE safety device contact (terminal 6): The purpose of the
"edge" safety device is to protect the leaf movement area
during opening/closing. In all logics, during opening and
closing, the safety device reverses gate movement for 2
seconds. If the safety devices operate again during the 2seconds reversing time, it stops movement (STOP) without any
reversing.
If the Edge safety device is engaged while the gate is closed
or open, it prevents movement.
To install several safety devices, connect the N.C. contacts in
series (fig.25).
NB.: If edge safety devices are not connected, jumper
connect the SAFE and - inputs (fig. 26).
+
+
SAFE
CL
OP
OPEN
B
OPEN
A
Connection of a pair of closing photocells and a pair of
opening/closing photocells
RX OP/CL
Fig. 34
Connection of two N.O. contacts in parallel
(e.g. Open A, Open B)
Fig. 35
5.4.2.
J7 Terminal board - Power supply (fig. 23)
POWER SUPPLY (terminals PE-N-L):
PE: Earth connection
N : Power supply ( Neutral )
L : Power supply ( Line )
NB.: For correct operation, the board must be connected to the
earth conductor in the system. Install an adequate differential
thermal breaker upstream of the system.
5.4.3.
J6 Terminal board - Motors and flashing lamp
(fig. 23)
MOTOR - (terminals MOT-C, MOT-1, MOT-2): Motor connection
(see Par. 6.5).
LAMP - (terminals LAMP L, LAMP N): Flashing lamp output 230Vac
max 60W.
5.4.4.
–
Negative for power supply to accessories (terminals 7
and 8)
+
24 Vdc - Positive for power supply to accessories (terminals
9 and 10)
Important: Accessories max. load is 500 mA. To calculate absorption
values, refer to the instructions for individual accessories.
J1 Terminal board - Accessories (fig. 23)
Consult the relevant tables for a detailed description of
operation in the different logics
OPEN A - “Total Opening” command (terminal 1): any pulse
generator (push-button, detector, etc.) which, by closing a
contact, commands total opening and/or closing of the
gate leaf.
To install several total opening pulse generators, connect
the N.O. contacts in parallel (fig. 35).
OPEN B - “Partial opening” or “Closing” command (terminal 2): any
pulse generator (push-button, detector, etc.) which, by
closing a contact, commands partial opening and/or
closing of the gate leaf. In the B, C and B/C logics, it always
commands gate closure.
26
TX -FSW - Negative for power supply to photocell transmitters
(terminal 11)
If you use this terminal for connecting the negative for
supplying power to the photocell transmitters, you may, if
necessary, also use the FAIL SAFE function (see advanced
programming in Chpt. 5.5.2).
If this function is enabled, the equipment checks operation
of the photocells before every opening or closing cycle.
W.L. -
5.5.
Power supply to indicator light / timed exit / electric lock
/ 'traffic lights' (terminal 12)
Connect any 24 Vdc - 3 W max indicator light, timed exit,
command device for electric lock or 'traffic lights' between
this terminal and the +24V (see advanced programming
in Chap. 5.5.2). To avoid geopardising correct operation
of the system, do not exceed the indicated power.
5.4.5.
PROGRAMMING
To program operation of the automated system, access the
"PROGRAMMING" mode with keys F,+ and -, and using the display
on the equipment.
Attention: before attempting to power up the system, we advise
you to re-position the equipment's cover, to avoid coming into
contact with high voltage parts, and to use the push-buttons on
the cover to activate the keys (fig. 39).
+
-
F
J2 Connector - Rapid connection to Minidec,
Decoder and RP
This is used for rapid connection of Minidec, Decoder and RP
receivers (see fig. 36, 37 and 38). Fit the accessory with the
components side toward connector J1. Insert and remove after
cutting power.
Fig. 39
5.4.6.
J5 Connector -Rapid connection to Capacitor
Quick-fit connector for connecting the motor starting capacitor.
Programming is divided in two parts: BASIC and ADVANCED.
5.5.1.
5.4.7.
Double connector J8 - Limit-switch quick fit
Quick-fit connector for connecting the limit -switch. For connecting
both the MLS limit-switch and the inductive limit-switch (fig. 23
ref.) to the equipment.
PLUS
BASIC PROGRAMMING
To access BASIC PROGRAMMING, press key F:
•if you press it (and hold it down), the display shows the name
of the first function.
•if you release the key, the display shows the value of the
function that can be modified with keys + and -.
•if you press F again (and hold it down), the display shows the
name of the next function, etc.
•when you reach the last function, press F to exit the program,
and the display resumes showing the gate status.
The following table shows the sequence of functions accessible in
BASIC PROGRAMMING:
MINIDEC
F
BASIC PROGRAMMING
Fig. 36
Display
Function
Default
FUNCTION LOGICS (see table of logics):
= Automatic
= "Stepped" automatic
= "Safety" Automatic
= Semi-automatic
= "Stepped" Semi-automatic
= Dead-man
= "B" Semi-automatic
= Mixed Log. (B opening / C closing)
Fig. 37
PAUSE TIME:
This has effect only if the automatic logic was
selected. Adjustable from to
sec. in
one-second steps.
Subsequently, display changes to minutes
and tens of seconds (separated by a point)
and time is adjusted in 10-second steps, up
to the maximum value of
minutes.
RP
E.g. if the display shows
min. and 50 sec.
Fig. 38
27
, pause time is 2
Display
Function
FORCE:
Adjusts Motor thrust.
= minimum force
= maximum force
Default
Display
If this function is activated, it enables a function
test of the photocells before any gate
movement. If the test fails (photocells not
serviceable signalled by value
on the
display), the gate does not start moving.
OPENING DIRECTION:
Indicates the gate opening movement and
makes it possible not to change the motor
connections on the terminal board.
= Rightward opening movement
= Leftward opening movement
= Active
= Disabled
PRE-FLASHING (5 s):
Activates the flashing lamp for 5 seconds before
start of movement.
STATUS OF AUTOMATED SYSTEM:
Exit from programming, save data, and return
to gate status viewing.
= Closed
= Now opening
= At "STOP"
= Open
= Pause
= "FAIL SAFE" tripped
= Now closing
= Now reversing
= Photocells tripped
5.5.2.
= Disabled
= Only before opening
= Only before closing
= Before every movement
INDICATOR-LIGHT:
If
is selected, the output functions as a
standard indicator-light (lighted at opening
and pause, flashing at closing, and off when
gate closed).
Courtesy light: Different figures correspond
to timed activation of the output, which can
be used (by a relay) to power a courtesy
to
lamp. Time can be adjusted from
sec. in 1-second steps, and from
to
min. in 10-second steps.
Electric lock command and 'traffic lights'
functions:
If you press key - from the
setting, the
closing electric lock is
command for the
activated;
If you press - again, the command for the
closing and opening electric lock is set;
if you press the - key again, you can set the
'traffic lights' functions
and
.
= Standard indicator-light
from
to
= Timed output.
= electric lock command before opening
movement
= electric lock command before
opening and closing movements
= 'traffic lights' function: the output is
active in "open" and "open on pause" status
and is disabled 3 seconds before the closing
manoeuvre starts.
Note: there is 3 seconds of pre-flashing before
the closing manoeuvre.
= 'traffic lights' function: the output is
active only in "closed" status.
Attention: do not exceed the output's
maximum load (24Vdc-3W). If necessary,
use a relay and a power supply source
outside the equipment.
ADVANCED PROGRAMMING
To access ADVANCED PROGRAMMING, press key F and, as you hold
it down, press key +:
•if you release key + , the display indicates the name of the first
function.
•if you release key F too, the display shows the value of the
function that can be modified with keys + and -.
•if you press key F (and hold it down), the display shows the
name of the next function, and if you release it, the value that
can be modified with keys + and - is shown.
•when you reach the last function, press F to exit the program,
and the display resumes showing the gate status.
The following table shows the sequence of functions accessible in
ADVANCEDPROGRAMMING:
ADVANCEDPROGRAMMING
Display
Function
FAIL SAFE:
F
+
Function
+
Default
MAXIMUM TORQUE AT INITIAL THRUST:
The motor operate at maximum torque (ignoring
the torque setting) at start of movement. Useful
for heavy leaves.
= Active
= Disabled
FINAL BRAKING:
When the gate engages the opening or
closing limit-switch, a braking stroke can be
selected to ensure the leaf is stopped
immediately. If decelerations are selected,
braking starts when they finish.
At
value, braking is disabled.
Time can be adjusted from
to
in
0.01-second steps.
= Braking disabled
from
to
= Timed braking
CLOSING PHOTOCELLS LOGIC:
Select the tripping mode of the closing
photocells.
They operate for the closing movement only:
they stop movement and reverse it when they
are released, or they reverse it immediately.
= Reverse on release
= Reverse immediately to opening
28
Default
Display
Function
Default
Display
Function
OPENING PHOTOCELLS LOGIC:
PARTIAL OPENING:
Select the tripping mode of the opening
photocells.
They operate for the opening movement
only: they stop the movement and restart it
when they are released, or they reverse it
immediately.
= Reverse immediately to closing
= Restart movement on release
You can adjust the width of partial leaf
opening.
Time can be adjusted from
to
in
1 second steps.
If an encoder is used, the adjustment is not
determined by time but by motor revs, thus
obtaining greater partial-opening precision.
For example, with pinion Z20, partial opening
can vary from about 60 cm to 4 m.
ENCODER:
If the encoder is used, you may select its presence.
If the encoder is present and enabled,
"decelerations" and "partial opening" are
controlled by the encoder (see relevant
paragraphs).
The encoder operates as an anti-crushing device:
If the gate strikes an obstacle during opening or
closing, the encoder immediately reverses gate
leaf movement for 2 seconds. If the encoder
operates again during the 2-seconds reversing
time, it stops movement (STOP) without
commanding any reversing. If no sensor is
. If
supplied, the parameter must be set on
there is the encoder, adjust the sensitivity of the
anti-crushing system, by varying the parameter
(maximum sensitivity) and
between
(minimum sensitivity).
WORK TIME (tome-out):
We advise you to set a value of 5 to 10
seconds over the time taken by the gate to
travel from the closing limit-switch to the
opening limit-switch and vice versa.
to
sec. in oneAdjustable from
second steps.
Subsequently, display changes to minutes
and tens of seconds (separated by a point)
and time is adjusted in 10 second steps, up to
a maximum value of
minutes.
Attention: the set value does not exactly
match the motor's maximum operating time,
because the latter is modified according to
the performed deceleration spaces.
ASSISTANCE REQUEST (combined with next
function):
to
= Encoder active and
from
sensitivity adjustment
= Encoder disabled
If activated, at the end of countdown
(settable with the next function i.e. "Cycle
programming") it effects 2 sec. (in addition to
the value already set with the PF function) of
pre-flashing at every Open pulse (job
request). Can be useful for setting scheduled
maintenance jobs.
= Active
= Disabled
Pre-limit switch DECELERATION:
You can select gate deceleration before the
opening and closing limit-switches have been
tripped.
Time can be adjusted from
to
in
0.1-second steps.
If an encoder is used, the adjustment is not
determined by time but by motor revs, thus
obtaining greater deceleration precision.
CYCLE PROGRAMMING:
For setting countdown of system operation
cycles. Settable (in thousands) from
to
thousand cycles.
The displayed value is updated as cycles
proceed.
This function can be used to check use of the
board or to exploit the "Assistance request".
= Deceleration disabled
from
to
= Deceleration enabled
Post-limit switch DECELERATION:
GATE STATUS:
Exit from programming, data saving, and
return to viewing gate status (see par.
5.5.1.).
You can select gate deceleration after the
opening and closing limit-switches have been
tripped.
Time can be adjusted from
to
in
0.1-second steps.
If an encoder is used, the adjustment is not
determined by time but by motor revs, thus
obtaining greater deceleration precision.
from
Default
Note 1: to reset the programming default settings, check if the
edge input is closed (SAFE LED ON), and simultaneously
press keys +, - and F, holding them down for 5 seconds.
= Deceleration disabled
to
= Deceleration enabled
Note 2: modification of programming parameters comes into
effect immediately, whereas definitive memory storage
occurs only when you exit programming and return to
gate status viewing. If the equipment is powered down
before return to status viewing, all modifications will be
lost.
29
Attention: due to the powerful magnetic fields the supplied
magnets produce, the magnets can damage magnetic band
components (credit cards, magnetic tapes, floppy disks, etc)
and electronic and mechanical equipment (e.g. watches, LCD
screens). We advise you not to bring them near to objects that
could be damaged if 'immersed' in a magnetic field.
6. START-UP
6.1.
ELECTRIC CONNECTIONS
Make all electrical connections to the board as in chapter 5,
including earthing of the operator (Fig. 40).
Notes on magnet positioning
•
•
Fig. 40
6.2.
•
DEFINITION OF OPENING DIRECTION AND OPERATION
OF LIMIT-SWITCH LEDS
Power up the system and set the opening direction on the
board (see par. 5.5.1).
If opening direction is RIGHTWARD (
To ensure correct operation, allow at least 2 cm from the
mechanical stop limit in the gate stop position. Carry out this
check after determining the values of the pre- and post-limit
switch decelerations (see par. 5.5.2.) and after running at least
one complete cycle of the automated system.
The distance between the limit-switch and magnets must be
from 5 to 12 mm.
Magnets should be fitted on the rack and not on the fixing
screws.
If necessary, position the magnet at the side of the screw
and adjust decelerations (parag. 5.5.2) in order to obtain
the correct stop point.
FC1
):
OPENING limit-switch LED = F C 1
CLOSING limit-switch LED = F C 2
If opening direction is LEFTWARD (
):
OPENING limit-switch LED = F C 2
FC2
CLOSING limit-switch LED = F C 1
6.3.
DETERMINING THE STOP POINTS AT TRAVEL LIMIT
Operator 746 has a limit sensor switch which, by detecting the
transit of a reference applied to the rack, commands the gate
motor to stop. The device can be MLS (fig. 41) or inductive (fig.
42).
6.3.1.
1
2
MLS limit-switch
The MLS limit sensor switch detects the transit of two magnets
fitted on the side of the rack facing the operator.
Procedure for correct positioning of the two supplied magnets:
1) Check if the operator is in manual mode (see chapter 8).
2) Manually take the gate to opening position, leaving 2 - 5 cm
from the travel limit mechanical stop.
3) Fit the magnet (without removing the protective film from the
adhesive side) on the side of the rack facing the operator,
aligning the upper edges. Slide the magnet on the rack in
opening direction until the relevant LED goes off (Fig. 22 and
41), then move the magnet forward a further 45 mm.
4) Manually take the gate to closing position, leaving 2 - 5 cm
from the travel limit mechanical stop.
5) Fit the magnet (without removing the protective film from the
adhesive side) on the side of the rack facing the operator,
aligning the upper edges. Slide the magnet on the rack in
closing direction until the relevant LED goes off (Fig. 22 and 41),
then move the magnet forward by about a further 45 mm.
6) Take the gate to its halfway travel point and relock the system
(see chapter 9).
7) Find out the desired pre- and post-limit-switch deceleration
values (see parag. 5.5.2) and run the automated system for at
least one complete cycle.
8) Check if the gate stops at about 2 - 5 cm from its mechanical
stop point. If necessary, correct the position of the magnets
and check if the stop point is correct.
9) Mark the position of the magnets on the rack, and remove
them.
10) Clean the rack on its fitting points, remove the film on the
adhesive parts of the magnets (fig. 41 ref. 1) and re-position the
magnets with the adhesive strip in contact with the rack (fig. 41
ref. 2).
6.3.2.
Fig. 41
Inductive limit-switch
Operator 746 has an inductive limit-switch which detects the
transit of the two steel plates fitted on the top of the rack.
Procedure for correct positioning of the two supplied steel plates:
1) Assemble the limit-switch by centring the plate with respect to
threaded pins of the support (Fig. 42).
2) Check if the operator is in manual operating mode (see
chapter 8).
3) Manually move the gate to opening position, allowing 2 - 5 cm
from the mechanical stop limit.
4) Allow the plate to move on the rack in opening direction until
the relevant LED goes OFF (Figs. 22 and 42); next, move the
plate forward by about another 45 mm and secure it to the rack
by tightening the screws.
5) Manually move the gate to closing position, allowing 2 - 5 cm
from the mechanical stop limit.
6) Allow the plate to move on the rack in closing direction until the
relevant LED goes OFF (Figs. 22 and 42); next, move the plate
forward by about another 45 mm and secure it to the rack by
tightening the screws.
FC1
FC2
Fig. 42
30
Notes on plate positioning
•
•
•
To reduce torque, turn the screw anti-clockwise.
Ü The operator is supplied with the clutch set to maximum level.
Therefore, you must initially turn the screw anti-clockwise to
reach the best setting.
To ensure correct operation, allow at least 2 cm from the
mechanical stop limit in the gate stop position. Carry out this
check after determining the values of the pre- and post-limit
switch decelerations (see par. 5.5.2.) and after running at least
one complete cycle of the automated system.
The distance between the limit-switch and the plates must be <
5mm.
For nylon racks, use the plate only (without support), securing it
directly to the rack by the self-tapping screws. Make the above
mentioned adjustments.
Note: a steel core is situated 5 mm under the surface of the
nylon rack. Therefore, drill until you reach the steel core and
screw with the self-tapping screws.
3)
Power up the automated system and check that the torque you
have just set is correct.
Fig. 44
6.7.
6.4.
CHECK OF INPUTS
The table below shows the status of the LEDs in relation to to the
status of the inputs.
Note the following: LED LIGHTED = closed contact
LED OFF = open contact
Check the status of the LEDs as per Table.
Tab. 2 Operation of the signalling status LEDs
LEDS
OP-A
OP-B
FC1
FC2
FSW OP
FSW CL
STOP
SAFE
ENC
LIGHTED
Command activated
Command activated
Limit-switch free
Limit-switch free
Safety devices disengaged
Safety devices disengaged
Command inactive
Safety devices disengaged
Flashes while the motor rotates
OFF
Command inactive
Command inactive
Limit-switch engaged
Limit-switch engaged
Safety devices engaged
Safety devices engaged
Command activated
Safety devices engaged
6.8.
7. FINAL OPERATIONS
At end of installation, apply the danger sticker on the top of
the cover (Fig. 45).
Fig. 45
CHECK OF MOTOR CONNECTION
Check if the motor wiring
is as shown in Fig. 43 (standard connection).
MOT 2
MOT 1
MOT
COM
BROWN
BLACK
BLUE
J6
6.6.
SAFETY DEVICES AND ACCESSORIES CHECK
Check correct operation of all the safety and anti-crushing
devices (ENCODER sensor), and of the accessories used on the
system.
NB.: The status of the LEDs while the gate is closed at rest are shown in bold.
If opening direction is leftward, the status of LEDS FC1 and FC2 is reversed.
6.5.
CHECK OF STOP POINTS
Take care over the setting of the post-limit-switch deceleration
and braking: If deceleration is too long and braking is insufficient,
the reference fitted on the gate's rack (magnet or steel plate)
can overtake the sensor until the latter is disengaged. When
the gate stops, check if only the limit-switch involved is engaged.
The relevant LED must be OFF - if it went OFF and then ON
again, or if both the limit-switch LEDS are OFF, you must reduce
the post-limit-switch deceleration value and/or increase
braking value (see par.5.5.2).
Snap-fit the side panels, fit the equipment's cover and fit the
cover with the supplied screws (Fig. 46).
M
Remove the vent stop screw (fig. 47).
Hand the "User's Guide" to the Customer, explain correct
operation and use of the gearmotor, and indicate the
potentially dangerous areas of the automated system.
Fig. 43
ADJUSTMENT OF MECHANICAL CLUTCH
In addition to its electronic safety devices (encoder and force
adjustment), the 746 operator is also equipped with a mechanical
clutch.
For gate force and the encoder, please consult paragraphs 5.5.1
and 5.5.2.
Procedure for adjusting the operating threshold of the mechanical
clutch (you are recommend to set it to conform with current
regulations):
1)
2)
Cut electrical power to the automated system.
Keep the motor shaft locked with a wrench and turn the clutch
adjustment screw with an Allen wrench or screwdriver as shown
in Fig. 44.
To increase torque, turn the screw clockwise.
Fig. 46
31
Fig. 50
Fig. 47
12.MAINTENANCE
Check the operational efficiency of the system at least once
every 6 months, especially as regards the efficiency of the
safety and release devices (including operator thrust force).
8. MANUAL OPERATION
If the gate has to be operated manually due to a power cut
or malfunction of the automated system, use the release
device as follows:
1) Open the protection door and fit the supplied key in the
lock (Fig. 48).
12.1.
DISASSEMBLING THE TRANSFORMER-BOARD UNIT
If you have to disassemble the transformer-board unit, proceed
as follows:
Remove all terminal boards and connectors from the board.
Unscrew the 3 securing screws of the board and the 2 of the
transformer. Lift the unit up and gently remove the transformer
from the couplings on the board as shown in Fig. 51.
Fig. 48
2)
3)
Turn the key clockwise and pull the release lever as shown
in Fig. 49.
Open and close the gate manually.
Fig. 51
12.2. OIL TOP-UPS
Periodically check oil level inside the operator.
A once-a-year check is enough for medium or low use frequency.
For heavier duty, every 6 months is recommended.
To access the tank, temporarily remove the oil filling plug (Fig.
52).
Oil level (visually checked) must be in line with the copper windings
of the electric motor.
To top up, pour in oil up to the required level.
Use FAAC XD 220 oil only.
Fig. 49
9. RESTORING NORMAL OPERATION
To prevent an involuntary pulse from activating the gate during the
manoeuvre, cut power to the system before re-locking the operator.
1) Re-close the release lever.
2) Turn the key anti-clockwise
3) Remove the key and close the lock protection door.
4) Move the gate until the release meshes.
10.INSTALLING THE CN 60E CONTROL UNIT (OPTIONAL)
The operator is designed to house (with the aid of a DIN bar)
the CN 60E control unit of the safety conductive edge. Cut the
DIN bar to measure and secure it to the operator with two
screws in the appropriate holes and attach the CN 60E control
unit to it (Fig. 50).
For connection and operation, refer to the specific instructions.
11.SPECIAL APPLICATIONS
Fig. 52
There are no special applications.
13.REPAIRS
For any repairs, contact the FAAC authorised Repair Centres.
32
33
No effect (1) (3)
Closes the leaf (3)
OPENING
LOCKED
Stops operation (3)
Closes the leaf (with Closing Safety devices engaged,
opens at the 2nd pulse) (3)
OPENING
LOCKED
Closes the leaf (3)
LOCKED
Re-opens the leaf immediately
Stops operation (3)
Closes the leaf (with Closing Safety devices engaged,
opens at the 2nd pulse) (3)
CLOSING
OPENING
LOCKED
Opens leaf for the partial
opening time
Re-closes the leaf immediately (3)
Opens the leaf
CLOSED
OPEN
OPEN-A
Logic "E"
GATE STATUS
OPEN-B
Re-closes the leaf immediately (3)
OPENING
Tab. 3/d
Re-opens the leaf immediately
CLOSING
Opens the leaf and closes
it after pause time
CLOSED
Re-closes the leaf immediately (3)
Opens leaf for the partial
opening time and closes after
pause time
OPEN on PAUSE
OPEN-B
OPEN-A
GATE STATUS
Logic "S"
Tab. 3/c
Re-opens the leaf immediately
CLOSING
CLOSED
Stops operation (3)
Opens leaf for the partial
opening time and closes after
pause time
Opens the leaf and closes
it after pause time
OPEN on PAUSE
OPEN-B
OPEN-A
GATE STATUS
Logic "AP"
Tab. 3/b
Re-opens the leaf immediately (1)
CLOSING
CLOSED
Reloads pause time (1)(3)
Opens leaf for the partial
opening time and closes after
pause time (1)
Opens the leaf and closes
it after pause time (1)
OPEN on PAUSE
OPEN-B
OPEN-A
GATE STATUS
Logic "A"
Tab. 3/a
No effect
(OPEN disabled)
Stops
operation
STOP
No effect
(OPEN disabled)
Stops
operation
STOP
No effect
(OPEN disabled)
Stops
operation
STOP
No effect
(OPEN disabled)
Stops
operation
STOP
PULSES
No effect
CLOSING SAFETY DEVICES
see paragraph 5.5.2.
No effect
(saves OPEN)
No effect
No effect
(if on part.opng. OPEN A disabled)
No effect
(OPEN disabled)
OPENING SAFETY DEVICES
Reverses to close for 2" (2)
Reverses to close for 2" (2)
Locks and, on release, continues
opening
No effect
see paragraph 5.5.2.
Reverses to close for 2" (2)
Reverses to open for 2" (2)
Reloads pause time (1)
(OPEN disabled)
EDGE SAFETY DEVICE
Reverses to close for 2" (2)
Locks and, on release, continues
opening
No effect
(OPEN disabled)
Reverses to open for 2" (2)
Locks and, on release, reverses to
open
No effect
(OPEN disabled)
No effect
(OPEN disabled)
OP/CL SAFETY DEVICE
No e f f e c t
OPEN disabled)
Locks and, on release, continues
opening
On release, closes after 5"
(OPEN disabled)
No effect
(saves OPEN)
No effect (3)
(OPEN disabled)
EDGE SAFETY DEVICE
No effect
(OPEN disabled)
OP/CL SAFETY DEVICE
No effect
(OPEN disabled)
Reverses to open for 2" (2)
Locks and, on release, reverses to
open
Reloads pause time
(OPEN disabled)
Reloads pause time
(OPEN disabled)
EDGE SAFETY DEVICE
No effect
(OPEN disabled)
OP/CL SAFETY DEVICE
No e f f e c t
(OPEN disabled)
Reverses to open for 2" (2)
Locks and, on release, continues
opening
Reloads pause time (1)
(OPEN disabled)
Locks and, on release, reverses to
open
Reloads pause time (1)
(OPEN disabled)
Locks and, on release, reverses to
open
No effect
EDGE SAFETY DEVICE
No effect
(OPEN disabled)
OP/CL SAFETY DEVICE
see paragraph 5.5.2.
CLOSING SAFETY DEVICES
No effect
PULSES
see paragraph 5.5.2.
No effect
(saves OPEN)
No effect
On release, closes after 5" (OPEN
(if on part.opng. OPEN A disabled)
disabled) (3)
No effect
(OPEN disabled)
OPENING SAFETY DEVICES
No effect
see paragraph 5.5.2.
Reloads pause time (3)
(OPEN disabled)
No effect
CLOSING SAFETY DEVICES
No effect
PULSES
see paragraph 5.5.2.
No effect
(saves OPEN)
No effect
(if on part.opng. OPEN A disabled)
No effect
(OPEN disabled)
OPENING SAFETY DEVICES
No effect
see paragraph 5.5.2.
Reloads pause time (1) (3)
No effect
CLOSING SAFETY DEVICES
No effect
PULSES
see paragraph 5.5.2.
No effect
(saves OPEN)
No effect
(if on part.opng. OPEN A disabled)
No effect
(OPEN disabled)
OPENING SAFETY DEVICES
34
PULSES
Stops operation
/
CLOSING
OPENING
No effect
Reverses to open
No effect
Opens the leaf
OPEN
CLOSING
OPENING
LOCKED
Opens the leaf
No effect
Reverses to open
No effect
Opens the leaf
CLOSED
OPEN
CLOSING
OPENING
LOCKED
Closes the leaf
No effect
No effect
Closes the leaf
No effect
OPEN-B (closing)
No effect (OPEN
A/B disabled)
Stops
operation
No effect
(OPEN B disabled)
STOP
No effect
(OPEN A/B disabled)
Stops
operation
No effect (OPEN
B disabled)
STOP
Stops operation
No effect
(OPEN-A/B disabled)
STOP
(1) If maintained, it prolongs the pause until disabled by the command (timer function)
(2) If a new pulse occurs within 2 seconds after reversing, it immediately stops operation.
OPEN-A (opening)
GATE STATUS
Logic "B/C"
Closes the leaf
No effect
No effect
Closes the leaf
No effect
OPEN-B (closing)
Stops operation
OPENING PULSE/CLOSING HOLD TO RUN CONTROLS
Opens the leaf
CLOSED
Tab. 3/h
OPEN-A (opening)
GATE STATUS
Logic "B"
Tab. 3/g
Closes the leaf
No effect
(OPEN-B disabled)
OPEN
/
No effect
(OPEN-A disabled)
Opens the leaf
CLOSED
OPEN-B (closing)
OPEN-A (opening)
Logic "C"
GATE STATUS
CONTROLS ALWAYS HELD DOWN
Stops operation
(OPEN-A disabled)
No effect
Stops operation
(OPEN-A disabled)
EDGE SAFETY DEVICE
Reverses to close for 2" (2)
Locks and, on release, continues
opening
EDGE SAFETY DEVICE
EDGE SAFETY DEVICE
Reverses to close for 2" (2)
Reverses to open for 2" (2)
No effect
(OPEN-A/B disabled)
Reverses to close for 2" (2)
Reverses to open for 2" (2)
No effect
(OPEN-A/B disabled)
EDGE SAFETY DEVICE
Reverses to close for 2" (2)
Reverses to open for 2" (2)
No effect
(OPEN-A/B disabled)
No effect
(OPEN A/B disabled)
Stops operation
(OPEN-A/B disabled)
No effect
(OPEN B disabled)
No effect
(OPEN A disabled)
OP/CL SAFETY DEVICE
No effect
(OPEN A/B disabled)
Stops operation
(OPEN-A/B disabled)
No effect
(OPEN B disabled)
No effect
(OPEN A disabled)
OP/CL SAFETY DEVICE
Stops operation
(OPEN-A/B disabled)
No effect
(OPEN B disabled)
No effect
(OPEN A disabled)
OP/CL SAFETY DEVICE
No effect (OPEN disabled)
Reverses to open for 2" (2)
Locks and, on release, reverses to
open
No effect (OPEN disabled)
No effect (OPEN disabled)
OP/CL SAFETY DEVICE
(3) During the partial opening cycle, an OPEN A pulse causes total opening.
NB.: Effects on other active pulse inputs in brackets.
No effect
(OPEN B disabled)
Stops operation
(OPEN-B disabled)
No effect
(saves OPEN A)
No effect
(OPEN-A disabled)
No effect
(OPEN B disabled)
No effect
CLOSING SAFETY DEVICES
No effect
No effect
(OPEN A disabled)
OPENING SAFETY DEVICES
PULSES
No effect
(OPEN B disabled)
No effect
No effect
(saves OPEN A)
No effect
(OPEN-A disabled)
Stops operation
(OPEN-B disabled)
No effect
No effect
No effect
(OPEN B disabled)
No effect
(OPEN A disabled)
OPENING SAFETY DEVICES
CLOSING SAFETY DEVICES
No effect
Stops operation
(OPEN-A disabled)
PULSES
Stops operation
(OPEN-B disabled)
No effect
(OPEN B disabled)
No effect
CLOSING SAFETY DEVICES
PULSES
No effect
(if it must close, it disables OPEN)
No effect
see paragraph 5.5.2.
No effect (OPEN disabled) (3)
No effect
CLOSING SAFETY DEVICES
No effect
No effect
(OPEN A disabled)
No effect
(OPEN A disabled)
OPENING SAFETY DEVICES
LOCKED
Tab. 3/f
No effect
(if it must open, it disables OPEN)
Restarts movement in reverse direction (3)
(always closes after a Stop)
OPENING
No effect
(OPEN disabled)
see paragraph 5.5.2.
Stops operation
No effect (saves OPEN)
No effect (if on part.opng. OPEN A
disabled)
No effect
(OPEN disabled)
OPENING SAFETY DEVICES
Stops operation (3)
Stops
operation
STOP
CLOSING
Re-closes the leaf immediately (3)
Opens the leaf
CLOSED
Opens leaf for the partial
opening time
OPEN-B
OPEN
OPEN-A
GATE STATUS
Logic "EP"
Tab. 3/e