KEB R6-S Housing R Installation Manual
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CO M B I V E RT
GB Instruction Manual
Type R6-S
Power Supply and Regenerative
Unit
Size 25
Mat.No.
00R6SEB-KR00
Rev.
1N
Table of Contents
Table of Contents
4.4.1 Power supply and regenerative operation at inverter current ≤ current of one
4.4.2 Power supply and regenerative operation at inverter currents ≤ current of one
4.4.4 Regenerative operation at parallel operation of up to three R6-S with decoupling diodes ..33
GB - 3
Table of Contents
GB - 4
Introduction
1. Introduction
1.1 Preface
First we would like to welcome you as a customer of KEB and congratulation to the purchase of this product. You have decided for a product on highest technical niveau.
The enclosed documents as well as the indicated hard- and software are developments of the KEB Automation KG. Errors excepted. KEB Automation KG has created these documents and the hard- and software to the best of knowledge, but they assume no liability that the specifications will provide the benefits sought by the user. KEB Automation KG reserves the right to change specifications without prior notice or to inform third parties. This list is not exhaustive.
The used pictograms have following significance:
Danger
Warning
Caution
Attention absolutely observe
Information
Help
Tip
1.2 Product description
This instruction manual describes the power supply and regenerative unit KEB COMBIVERT
R6-S. The COMBIVERT R6-S has the following features.
The supply unit
• converts a three-phase input voltage into DC voltage.
• supplies single KEB frequency inverter or via DC interconnection.
• can be parallel connected if higher power supply is required.
• increases the stability of the DC link voltage in the DC interconnection.
The regenerative unit
• refeeds excess energy from regenerative operation into the supply system.
• reduces the energy demand.
• reduces the heat emission.
• is environmentally friendly and space-saving.
• replaces braking resistor and braking transistor.
• is cost-saving.
GB - 5
Introduction
The COMBIVERT R6-S is generally protected against overcurrent, ground fault and temperature. Appropriate dimensioned DC fuses protects the DC link circuit against short-circuit. The following accessories are necessary for operation with the COMBIVERT R6-S:
• Mains choke
• HF filter (for observance of EMC standard)
1.3 Validity and liability
Application and use of our units in the target products is outside of our control and therefore exclusively in the area of responsibility of the machine manufacturer.
The information contained in the technical documentation, as well as any user-specific advice in spoken and written and through tests, are made to best of our knowledge and information about the application. However, they are considered for information only without responsibility. This also applies to any violation of industrial property rights of a third-party.
Selection of our units in view of their suitability for the intended use must be done generally by the user.
Inspections and tests can only be done by the machine manufacturer within the framework of the application. Inspections and tests must be repeated, even if only parts of hardware, software or the unit adjustment are modified.
Unauthorized opening and improper tampering can lead to bodily injuries or liability insurances and this cause loss of the warranty. Original spare parts and authorized accessories by the manufacturer serve as security. The use of other parts excludes liability for the consequences arising out of.
The suspension of liability is especially valid also for shutdown damages, lost profit, data loss or other consequential damages. This is also valid, if we have been referred to the possibility of such damages.
Should any part of this agreement be invalid for any reason, it is to be replaced with a corresponding text, which is valid and equivalent to the intended meaning. The rest of the agreement shall remain unaffected and valid.
1.4 Copyright
The customer may be use the instruction manual as well as further enclosed documents or parts from it for internal purposes. KEB has the copyrights and they remain effective also to the full extent. All rights reserved. KEB®, COMBIVERT®, KEB COMBICONTROL® and
COMBIVIS® are registered trademarks of KEB Automation KG. Other wordmarks or/and logos are trademarks (TM) or registered trademarks (®) of their respective owners and are listed in the footnote on the first occurrence. When creating our documents we pay attention with the utmost care to the rights of third parties. Should we have not marked a trademark or breach a copyright, please inform us in order to have the possibility of remedy.
GB - 6
Introduction
1.5 Specified application
The COMBIVERT R6-S serves exclusively for the supply of frequency inverters with DC input and/or regeneration of excess energy into the supply system. The operation of other electrical consumers is prohibited and can lead to malfunctions or to the destruction of the units.
The used semiconductors and components of KEB are developed and dimensioned for the use in industrial products. If the product is used in machines, which work under exceptional conditions or if essential functions, life-supporting measures or an extraordinary safety step must be fulfilled, the necessary reliability and security must be ensured by the machine build er. The operation of our products outside the indicated limit values of the technical data leads to the loss of any liability claims.
All output functions of the R6 are "one-channel according to ISO 13849, no diagnostic coverage and therefore not safe." If required, additional protective measures must be met by the user.
1.5.1 Standard operation
If the DC link voltage increases to a value above the peak value of the mains voltage (nega tive power), regeneration of the current into the mains occurs automatically. The regenera tive level is defined with parameter CP.34 or cS.02. The mains voltage is analog measured.
Regeneration is carried out in square-wave, whereby the current flow period is corresponding to the times of a B6 bridge circuit. Regeneration is completed if the regenerative and puls off level (CP.32 or cS.06) is fallen below.
1.5.2 Abnormal operation
When exceeding the permissible limit values for voltage, current or temperature the current flow between DC link and mains is blocked during regeneration. An appropriate error mes sage is also displayed during supply. The unit must be disconnected from the supply system or the load must be switched off in case of overcurrent or overload. This can be done by opening the control release of the frequency inverter.
At factory setting the modulation is switched off in case of a net phase failure and error message E.nEt is displayed.
Special adjustments from KEB are necessary if the modulation and/or the standard operation should start again within a defined time in case of return of power supply.
GB - 7
Introduction
1.6 Unit identification
2 5 R 6 S 1 R - 9 0 0 A
Type
Design reserved
Voltage
Housing
Options
Control
Series
Unit size
A: Heat sink (standard)
0: default
0: default
9: 3-ph.; 400 V; AC
R
1: Precharging intern
S: 2BR6
R6
25
1: modified standard
GB - 8
Safety Instructions
2. Safety Instructions
2.1 General instructions
Electric shock
COMBIVERT R6 power supply und regenerative units contain dangerous voltages which can cause death or serious injury.
COMBIVERT R6 can be adjusted by way that energy is regenerated into the supply system in case of power failure at regenerative operation. Therefore a dangerous high tension can be in the unit after switching off the supply system.
Before working with the unit check the isolation from supply by measurements in the unit.
Care should be taken to ensure correct and safe operation to minimise risk to personnel and equipment.
Only qualified electropersonnel
All work from the transport, to installation and start-up as well as maintenance may only be done by qualified personnel (IEC 364 and/or CENELEC HD 384 and IEC-Report 664 and note national safety regulations). According to this manual qualified staff means those who are able to recognise and judge the possible dangers based on their technical training and experience and those with knowledge of the relevant standards and who are familiar with the field of power transmission.
Standards discharge time
The COMBIVERT R6 must not be started until it is determined that the installation complies with 2006/42/EC (machine directive) (note EN60204).
The COMBIVERT R6 meets the requirements of the Low-Voltage Directive
2006/95/EC. The harmonized standard of the series EN 61800-5-1 (VDE 0160) is used.
This is a product of limited availability in accordance with IEC 61800-3. This product may cause radio interference in residential areas. In this case the operator may need to take corresponding measures.
2.2 Transport, storage and installation
The storage of the COMBIVERT must be done in the original packing. It is to be protected against humidity and excessive cooling and thermal effect. A long-distance transport must be carried out in the original packing. It is to be secured against impact influence. Observe the marking on the final packing! After removing the final packing the COMBIVERT must be shut down on a stable base.
GB - 9
Safety Instructions
Protect against accidental contact
The COMBIVERT R6 must be protected against invalid loading. Components and covers must not be bent or moved as this may affect insulation distances.
The units contain electrostatic sensitive devices which can be destroyed by inappropriate handling. For that reason the contact of electronic devices and contacts is to be avoided. The equipment must not be switched on if it is damaged as it may no longer comply with mandatory standards.
Make sure that during installation there is enough minimum clearance and enough cooling. Climatic conditions must be observed in accordance with the instruction manual.
Hot surface
Heat sinks can reach temperatures, which can cause burns when touching. If in case of structural measures a direct contact cannot be avoided, a warning notice "hot surface" must be mounted at the machine.
2.3 Electrical connection
Note capacitor discharge time
Before any installation and connection work, the system must be switched off and secured.
After clearing the DC link capacitors are still charged with high voltage for a short period of time. The unit can be worked on again, after it has been switched off for 5 minutes.
Secure isolation
The terminals of the control terminal strip are securely isolated in accordance with EN 61800-5-1. With existing or newly wired circuits the person installing the units or machines must ensure that the EN requirements are met. With frequency inverters that are not isolated from the supply circuit all control lines must be included in other protective measures (e.g. double insulation or shielded, earthed and insulated).
Voltage with respect to ground
The connection of COMBIVERT R6 is allowed to: symmetrical mains with a voltage phase (L1, L2, L3) with respect to neutral conductor/ ground (N/PE) of maximum 305 V.
Stationary connection
The COMBIVERT R6 is designed for fixed connection, since discharge cur rents of > 3.5 mA occur especially when using together with EMC filters. There fore, the requirements or instructions from EN 60204-1 (VDE 0113) and EN
61800-5-1 (IEC 0160-5-1) must be observed.
GB - 10
Safety Instructions
Insulation measurement
When doing an insulation or voltage measurement in accordance with EN 60204-
1 / VDE 0113-1, the power semiconductor of the unit and existing radio interference filters must be disconnected because of the danger of destruction. This is permissible in compliance with the standard, since all inverters are given a high voltage test in the end control at KEB. In the case of special requirements please contact KEB.
Different earth potentials
When using components without isolated inputs/outputs, it is necessary that equipotential bonding exists between the components to be connected (e.g. through the equalizer). Disregard can cause destruction of the components by the equalizing currents.
GB - 11
Safety Instructions
Prevent disturbances
A trouble-free and safe operation of the COMBIVERT R6 is only guaranteed when the connection instructions below are strictly followed. Incorrect operation or damage may result from incorrect installation:
• Pay attention to mains voltage.
• Install power cables and control cables separately (>15 cm separation).
• Use shielded / twisted control lines. Lay shield at one side to COMBIVERT
R6-S to PE !
• Only use suitable circuit elements to control the logic and analog inputs, whose contacts are rated for extra-low voltages.
• Housing of the COMBIVERT R6 must be well earthed. Screens of larger power cable must be directly and securely attached to both the inverter PE terminal and the motor ground terminal (remove paint) !
• Ground the cabinet or the system earth star point with the shortest connection to mains earth. (avoid earth loops)
• Use exclusively the line commutation throttle specified by KEB.
• The average value of the supplied DC current may not exceed the maximum DC current.
• If several frequency inverters are connected to the COMVIBERT R6-S the max. permissible DC link capacities of all connected frequency inverters must be considered during supply operation (see technical data).
Automatic restart
The COMBIVERT R6 can be adjusted by such way that the inverter restarts automatically after an error case (e.g. phase failure). System design must take this into account, if appropriate, and additional monitoring or protective features added where necessary.
Not shortcircuit proof
(supply)
The COMBIVERT R6 is not short-circuit proof at the power supply input ! A con ditional protection at the supply input is possible if the I 2 t-protection is adapted with a gR fuse. Short-circuit protection at the DC output is ensured by internal or external aR or gR fuses.
GB - 12
Safety Instructions
Conditionally shortcircuit proof
(regeneration)
The COMBIVERT R6 is conditionally short-circuit proof (EN 61800-5-1 /
VDE 0160). The intended function is guaranteed after resetting the internal protection devices.
Exception:
• If earth- or short-circuits often occurs at the output, this can lead to a defect in the unit.
Cyclic activation and deactivation
With applications requiring the COMBIVERT R6 to be switched on and off cyclically, maintain an off-time of at least 5 min. If you require shorter cycle times please contact KEB.Switching off during the initialization phase can cause undefined conditions.
RCD (residual current operated circuitbreaker)
When using systems with RCD, the instructions or the requirements of VDE
0100 -T 530 (IEC 60364-5) must be observed. The recommended tripping cur rent of RCD type "B" is 300 mA.
GB - 13
EMC instructions
2.4 EMC instructions
COMBIVERT R6-S represent electrical equipment designed for use in industrial and commercial units.
In accordance with the EMC directive 2014/30/EU, these devices are with the meaning of the directive components to be further processed by the respective machine and unit manufacturer and are not operable independently.
The person installing / operating the machine / unit is obliged to proove the protective measures demanded by the EMC directive are complied with. The prescribed ratings can usually be complied with when using the radio interference voltage filters specified by KEB and when observing the following measures and installation guidelines.
2.5 EMC conform installation
The COMBIVERT R6 is designed to be used in the second environment as defined in EN
61800-3 (unit with its own supply transformer). Take additional filter measures when using it in the first environment (residential and commercial area connected to public low-voltage mains)!
• Install the control cabinet or system in an appropriate and correctly way (see chapter „EMC conform control cabinet installation“).
• To avoid coupled-in noises, separate supply lines, DC lines, motor lines, control and data lines (low-voltage level < 48V) and leave a space of at least 15 cm between them when installing.
• In order to maintain low-resistance high frequency connections, earthing and shielding, as well as other metallic connections (e.g. mounting plate, installed units) must be in metalto-metal contact with the mounting plate, over as large an area as possible. Make ground connections with a surface as large as possible (earthing strips).
• Only use shielded cable with copper or tin-plated braid, since steel braid is not suitable for high frequency ranges. The screen must always be installed on the compensating rail and fastened with clips or guided through the wall of the housing. Do not elongate the screen end (pigtails) with individual conductors!
• If external interference suppression filters are used, then these must be installed as close as possible to (< 30 cm from) the interference source and in metal-to-metal contact with the mouting plate, over as large an area as possible.
• Always equip inductive control elements (contactors, relays etc.) with suppressors such as varistors, RC-elements or damping diodes.
• All connections must be kept as short as possible and as close as possible to the earth, as free floating lines work as active and passive aerials.
• Keep connection cables straight (do not bundle). Install a non-assigned wire at one sides to the protective earth conductor.
• The flow and return circuit must be twisted when the lines are not shielded, in order to dampen common-mode noise.
• The cable for phase synchronization between mains choke and COMBIVERT R6-S may not exceed a cable length of 1 m.
• Further information can be found in the internet, see „www.keb.de“.
GB - 14
Technical Data
3. Technical Data
Unit size
Housing size
Phases
Mains forms
Rated voltage
Mains voltage range
Mains frequency
DC voltage range
Regenerative operation
Output rated power
Rated active power
Max. power output
Max. active power
Regenerative rated current
Regenerative DC current
Over load current (E.OL) 60 s
Max. regenerative DC current 60 s
Power supply operation
Input rated power
Rated active power
Max. input power
Max. active power
Rated supply current
DC supply current
Overload current (E.OL) 60s
Max. DC supply current 60s
Overload disconnection (E.OL)
Overvoltage switch-off (E.OP)
Output rated voltage
Max. permissible DC link capacity
[V]
[V]
[Hz]
[V
DC
Sn [kVA]
1)
2)
Sn [kVA]
[kW]
[kVA]
[kW]
3) [A]
1) [A
DC
]
4)
Max. permissible total load current at precharging (I_
LSF)
[kW]
[kVA]
[kW]
[A
[A
[A
[V
[V
[A]
DC
[A]
DC
[A]
DC
[%]
DC
DC
[mF]
[A
AC
]
]
]
]
]
]
]
I 2 t Integral of the limiting load of the semiconductor
Max. permissible mains fuse type gR / aR
[A 2 s]
[A] perm. mains fuse (no delta power system) Siemens Sitor /
Bussmann
Max. permissible DC fuse Siemens Sitor / Bussmann
Type aR
Short-circuit factor at the connection point (S kn
Power loss at nominal operating
Max. heat sink temperature
/S n
) or (S scp
/S n
[W]
)
[°C]
1)
2)
3)
4)
5)
25
R
3
TN, TT 5)
400
305…528 ±0 %
50 / 60 ±2
420…747 ±0 %
153
140
230
210
221
270
331
405
153
140
230
210
221
270
331
405
160
800
540
50 (400 V class) 35 (480 V class)
≤4
39000
315
3NE8731-1 / 170M1372 see options
30 < S kn
“ / S n
< 350
1300
88
Lay two connection cables parallel at supply-/regenerative current > 230 A DC.
The overload current is specified for 1 minute. The overload cycle is 300 seconds. This corresponds to load class 2 according to EN 60146-01-1.
The current data are based on a fundamental frequency component of g=0.95. The fundamental frequency component or the effective value of the input current is dependent on load and line supply conditions. At uncontrolled
B6 converters the phase angle cosφ1 can be set to one, so the value of the fundamental frequency components is equal to the value of the power factor.
Please contact KEB for higher values.
IT and delta power system after consultation KEB (see also safety instructions, voltage with respect to ground)
GB - 15
Technical Data
Voltage stabilization must be activated at the inverter if a harmonic filter is used.
The units are not short circuit proof without corresponding dimensioned fuses
Exceeding of the max. rechargeable DC link capacity can lead to a defect.
A load removal in the DC link circle may be done only after the message „ready“.
If the control release is set when switching off the mains, this can lead to an overcurrent error and the lifetime of the module can be reduced.
The unit must be disconnected from the supply system or the load must be switched off in case of overcurrent or overload.
3.1 Overload (OL) function
Release time [s]
150
100
60
270
250
200
105 110 120
Figure 1: Overload (OL) function
130 140 150 160
Load [%]
3.2 Operating conditions
Definition according to
Site altitude
Standard
EN 61800-2
EN 61800-5-1
Ambient conditions during operation
Standard/ class
Instructions
Inverter product standard: rated specifications
Inverter product standard: general safety max. 2000 m above sea level
(with site altitudes over 1000 m a derating of
1 % per 100 m must be taken into consideration) further on next side
GB - 16
Technical Data
Standard Standard/ class
Instructions
Climate Temperature
Mechanical
Humidity
Vibration
EN 60721-3-3
3K3
3K3 extended to -10…45 °C
(with temperature over 45°C to max. 55°C a derating of 5 % per 1 K must be taken into consideration)
5…85 % (without condensation) max. amplitude of a vibration 1 mm (5…13 Hz) max. acceleration amplitude 7 m/s²
(13…200 Hz)
Contamination
Gas
Solids
Ambient conditions during transport
3M1
3C2
3S2
Mechanical
Vibration
EN 60721-3-2
Contamination
Surge
Gas
Solids
Ambient conditions for the storage
2K3
2K3
2M1
2M1
2C2
2S2
(without condensation) max. vibration amplitude 3.5 mm (2…9 Hz) max. acceleration amplitude 15 m/s² (9…200 Hz) max. 100 m/s²; 11 ms
Mechanical
Contamination
Vibration
Type of protection
Environment
Definition according to
EMC emitted interference
Surge
Gas
Solids
EN 60721-3-1
EN 60529
IEC 664-1
EN 61800-3
1K4
1K3
1M1
1M1
1C2
1S2
IP20
(without condensation) max. amplitude of a vibration 1 mm (5…13 Hz) max. acceleration amplitude 7 m/s² (13…200 Hz) max. 100 m/s²; 11 ms
Pollution degree 2
Inverter product standard: EMC
Cable-based interferences EN 55011
Radiated interferences EN55011
Interference immunity
Electro-static discharge EN 61000-4-2
C2
C2 with filter (only with filter) with filter (only with filter)
Burst - control lines + bus EN 61000-4-4
Burst - mains supply EN 61000-4-4
8 kV
2 kV
AD (air discharge) and CD (contact discharge)
4 kV
Surge - mains supply EN 61000-4-5 1 / 2 kV Phase-phase / phase-ground
EN 61000-4-6 10 V 0.15-80 MHz Immunity to conducted disturbances, induced by radio-frequency fields
Electromagnetic fields EN 61000-4-3 10 V/m
Voltage variation/ voltage drop EN 61000-2-1
Voltage unsymmetries/ frequency changes EN 61000-2-4
+10 %, -15 %; 90 %
3 %; 2 %
3.3 Accessories
Unit size
Rated voltage
Commutation reactor
25
400 V
25Z1B04-1000
150 % max. short-term overload (regenerative mode)
150 % max. short-term overload (supply mode)
GB - 17
Technical Data
Synchronization unit
Patch cable
00R6940-2408
Control cabinet installation; max. distance to the commutation choke or harmonic filter 1 m
00F50C3-4010
Length 1 m for connection of the synchronization unit with R6 regenerative unit
3.4 Options
Unit size
Mains filter
DC fuses
Micro switch for fuse
009025H-4651
Fuse holder for NH00 and NH000 fuses
Harmonic filter
Operators
Bus operators
25
25E4T60-1001 in accordance with EN 61800-3
Limit class C2 (only with ferrite rings)
Limit class C1 (on consultation with KEB)
1000 V/500 A Mat.no. 009025H-3679 or 690V /400A Mat.no.
009025H-4651
0090278-0001
0090574-0001
25Z1C04-1000
The overload current reduces at certain mains conditions !
Please contact KEB for data to the THD value at regenerative operation in accordance with EN 61800-2-12.
Digital operator, interface operator
CAN, ProfiBus, InterBus, EtherCAT, Ehternet, Sercos, ModBus,
PROFINET, LCD-Operator, DeviceNet, HSP5
3.4.1 Ferrite rings
Ferrite rings are used to reduce the cable-fed and radiated disturbances. For a high damping they are placed as close as possible to the interference source, that means at the DC and motor output terminals of the inverter. The conductor are passed through the ferrite core for the use as current-compensated reactor. PE is passed outside the core. Further information is specified in the provided documentation. The ferrite ring to be used arises from the used cable cross-section.
Part number
0090396-2621
0090390-5241
0090395-3820
0090395-5222
0090395-5520
Nominal size in mm
R 42/26/18
R 56/32/18
R 63/38/25
R 87/54/30
R 102/66/15
Inside diameter in mm
24.9
29.5
36.0
54.5
64.5
GB - 18
Dimensions and weights
3.5 Dimensions and weights
3.5.1 Dimensions air cooling system mounted version
357
300
Figure 2: COMBIVERT R6 with fan heat sink
11
Weight
25 kg
GB - 19
Dimensions and weights
3.5.2 Commutation reactor/mains choke
PE
316
10
153
222
200
292
Mat.-Number
Inductance
[mH]
Irated
[A]
25Z1B04-1000 0,133 221
Technical data of the connection terminals
PE
GB
M12 Stay bolt for ring thimble
Ø8 Hole for screw M8
Figure 3: Mains choke d
PV
[W]
265
Frequency
[Hz]
Weight
[kg]
45…65 30
Maximum tightening torque
25 Nm 200 lb inch
GB - 20
Dimensions and weights
3.5.3 Radio interference filter (side-mounted)
PE Stud M10
1000 500
80
110
574
598
630
Mat.-Number
U rated
[V]
25E4T60-1001 3x480
PE
Connection cable
I rated
[A]
250
Technical data of the terminals / cables
P
V
[W]
50
M10 stay bolt for ring thimble each 3 x 70 mm² (AWG 2/0)
Interference level/
Line length
C2 / 30 m
Figure 4: Radio interference filter (side-mounted)
3.5.4 Synchronization unit f rated
Weight
[Hz]
50/60
[kg]
16
Maximum tightening torque
37 Nm 320 lb inch
144
Ø8
M6
171
Mat.-Number 00R6940-2408 Weight
Technical data of the connection terminals
PE
PE
Figure 5: Synchronization unit
M4
48
0.65 kg
Maximum tightening torque
1.3 Nm
4.5 Nm
12 lb inch
40 lb inch
GB - 21
Installation
4. Installation
4.1 EMC-compatible control cabinet installation
1
2
3
4
5
Mains fuse
Main contactor
HF-side-mounted filter (≥ size 25
R-S or R6-N)
HF-sub-mounted filter (≤ size 19
R6-S) if necessary external synchronization
Commutation reactor / harmonic filter
COMBIVERT R6 if necessary external DC fuses
Frequency inverter
6
7
8
9
10
A
Motor lines
Protective Earth (PE) on the mounting plate power circuit
10b Protective Earth (PE) on the mounting plate control circuit
10c Equipotential bonding with the housing earth
11 Mains connection power circuit
11 A Mains connection control circuit
12
11a
10a
2
1
11
150 mm
3
5
150 mm
4
150 mm
10b
12 Control lines
Large area contact at the mounting plate
Control circuit Power circuit
Figure 6: EMC-compatible control cabinet installation
6
10c
150 mm
7
8
9a 9b
30 mm
Direction of the cooling fins
4.2 Installation instructions
• Stationarily install and earth COMBIVERT.
• The device must not be permeated by mist or water.
• Allow for sufficient heat dissipation if installed in a dust-proof housing.
• Install the COMBIVERT in an appropriate housing in accordance with the local regulations when operating it in explosion-endangered spaces.
• Protect COMBIVERT against conductive and aggressive gases and liquids.
• The lines of the R6-S commutation reactor must be limiting to 50 cm.
• The frequency inverters must be placed in the immediate vicinity of the R6-S.
GB - 22
Connection of the COMBIVERT R6
4.3 Connection of the COMBIVERT R6
4.3.1 General description of inverter input terminals
Starting current limiting
When connecting inverters to a DC bus pay attention to the internal wiring of the
DC voltage inputs !
Inverters that directly output the DC link bus to the DC terminals must be integrated into the DC bus by way that the supply unit(s) limit the starting current.
The precharging must be completed within ten seconds.
Maximum DC link capacity
The maximum DC link capacity can be calculated by adding the DC link capacities of all inverters in the DC bus. A table for this can be found in the appendix.
The supply source (supply unit or inverter with AC input) must be suitable for this value.
Terminals
++, – –
+(PA), -
PA, PB
L1, L2, L3
Description of terminals at KEB inverters
DC voltage input with starting current limiting; usable as output only if all units supplied by the DC bus have a starting current limiting at the DC voltage input.
DC voltage output with starting current limiting; usable as input only if the starting current is limited by the supply source.
Connection for braking resistor; optionally only if a braking transistor is installed
Mains input 3-phase
GB - 23
Connection of the COMBIVERT R6
Type A1: AC/DC inverter Type B1: AC inverter
+PA
Type C1: DC inverter
L1
L2
L3
+
++
++
L1
L2
L3
+
+
+PA
--
-L1
L2
L3
+
-
L1
L2
L3
Type A2: AC/DC inverter
++
+
Type B2: AC inverter
+PA
Type C2: DC inverter
++
L1
L2
L3
+
+
--
--
This type can be supplied by mains and by DC circuit.
The starting current limitation is designed after the input terminals. When used as output parallel connected inverters must have an own starting current limiting at the DC voltage input. Observe the max. load current.
This type can be supplied by mains. In consideration of the DC link capacity the
DC voltage terminals can be used as output. When used as input ensure that the starting current is externally limited.
This type is only a DC inverter with starting current limiting. The DC inverter can be combined with all other types in consideration of the maximum DC link capacity.
Figure 7: General description of input terminals at KEB inverter
GB - 24
Connection of the COMBIVERT R6
4.3.2 Connection terminals of the power circuit
All terminal strips meet the requirements on EN 60947-7-1 (IEC 60947-7-1)
L1.2
L2.2
L3.2
View of power supply and regenerative units
The terminals of a power supply and regenerative unit can be input or output dependent on the actual operating status (power supply or regeneration). For the standardization of the view the line side is always regarded as input and the DC voltage side is always regarded as output.
R6-S in E housing
++
R6-S in R and P housing without internal DC fuse
L1 ++
I_LSF
+
L1.2
L2.2
L3.2
+
L2 --
--
Terminals Description of terminals at KEB inverters
++, – – DC voltage output with starting current limiting for loading the connected inverters; usable as input for regenerative operation. If inverters with mains supply of type A1 or A2 (see 4.3.1) are available in the DC bus, these may be switched to mains only after loading the DC bus. Note the maximum
DC link capacity or decoupling diodes !
L1.2, L2.2, L3.2 Mains input 3-phase coming from the commutation reactor
Figure 8: Description of the input terminals of the COMBIVERT R6
GB - 25
Connection of the COMBIVERT R6
+ + - -
L1.2 L2.2 L3.2
Name Function
L1.2, L2.2, L3.2 3-phase mains connection to the commutation reactor
++, – – DC voltage output with starting current limiting; Connection for the inverter, the connection terminals are each internally connected in parallel.
Connection for shielding /earthing
Core cross-section
Technical data of the connection terminals
Screw terminals (8mm internal hexagon) min
Stay bolt M10 Stay bolt for ring thimble 10 mm
35
[mm²]
Figure 9: Connection terminals of the power circuit max
95 max. tightening
Nm
20
25 torque lb inch
170
220
GB - 26
Connection of the COMBIVERT R6
4.3.3 Connections of the control board
X4B
X2B
X1B
X2C X2A.10...23
X2A.24...29
X1B Connection precharging Supply voltage potential !
X2B Connection for synchronization line
X2C Activation of the line contactor self-holding
X4B HSP5 operator interface No direct PC connection
X2A Control terminal strip Install control and mains cable separately !
Figure 10: Connection terminals of the control board
4.3.4 Connection of the synchronization unit
RJ45 socket for phase synchronization and temperature sensor
No.
Name Function
X2B
X2B.1
X2B.2
T1 Connection for temperature sen-
T2 sor (option)
X2B.3
U13_syn Synchronization phase 1 / 3
1 8 X2B.4
– reserved
X2B.5
U21_syn Synchronization phase 2 / 1
X2B.6
– reserved
X2B.7
U32_syn Synchronization phase 3 / 2
X2B.8
– reserved
Figure 11: RJ45 socket for phase synchronization and temperature sensor
GB - 27
Connection Power Unit R6-S
4.4 Connection Power Unit R6-S
4.4.1 Power supply and regenerative operation at inverter current ≤ current of one COMBI -
VERT R6-S
S1
L
N
L1
L2
L3
PE
F1
F3
13
A2
F2
21
43
A1
22
44
H1
H1
L1
L2
L3
HF
L1’
L2’
L3’
S2
L3
L1
L1.1
L2.1
L3.1
X2B
A1
DR
L1.2
L2.2
L3.2
X1B
14/K2
13/K2
L1 L2
X1B
25
24
X2C
G1
12
17
X2A
X2B
L1.2
L2.2
L3.2
X1A
++
- -
F4 xx xx
G2
PE
U
V
W
M
A1 Synchronization unit (max. length of the phase lines 1 m)
DR Commutation reactor / harmonic filter
F1 Mains fuse type gR
F2 10 A fuse gG/gL or automat characteristic K
F3 10 A fuse gG/gL
F4 DC fuses type aR/gR The cable cross section as well as the DC fuses (see chapter 2.1) must be dimensioned to the DC rated current of the load (see technical data of the in verter).
G1 Regenerative unit COMBIVERT R6-S
X1A Power circuit terminals
X1B Connection for precharging and switching-on of line contactor K1
X2A Control terminal strip (X2A.12: Control release; X2A.17: voltage output)
X2B Connection for synchronization line
X2C Activation of the self-holding of the load shunt relay (K2 internal)
G2 Frequency inverter all types (see 4.3.1)
H1 Error message contactor K1 not dropped
HF HF filter
K1 Line contactor with auxiliary contacts
M Motor
S1 Switch (400 V/16 A AC3)
S2 Realize control release with PLC or pre-charging contactor / -switch
Figure 12: Power supply and regenerative operation at inverter current ≤ current of one
COMBIVERT R6-S
GB - 28
Connection Power Unit R6-S
4.4.2 Power supply and regenerative operation at inverter currents ≤ current of one COM -
BIVERT R6-S
S1
L
N
L1
L2
L3
PE
F1
F3
A2
13 14
K1
A1
22
F2 21
43 44
H1
H1
L1
L2
L3
HF
L1’
L2’
L3’
S2
L3
L2
L1
X2B
A1
L1.1
L2.1
L3.1
DR
L1.2
L2.2
L3.2
X1B
14/K2
13/K2
L1
25
24
X2C
G1
L2
X1B
12
17
X2A
X2B
L1.2
L2.2
L3.2
X1A
++
- -
F4 F4 xx xx
G2
U V W PE xx xx
G2
U V W PE
M M
A1 Synchronization unit (max. length of the phase lines 1 m)
DR Commutation reactor / harmonic filter
F1 Mains fuse type gR
F2 10 A fuse gG/gL or automat characteristic K
F3 10 A fuse gG/gL
F4 DC fuses type aR/gR
The cable cross section as well as the DC fuses (see chapter 2.1) must be dimen sioned to the DC rated current of the load (see technical data of the inverter).
G1 Regenerative unit COMBIVERT R6-S
X1A Power circuit terminals
X1B Connection for precharging and switching-on of line contactor K1
X2A Control terminal strip (X2A.12: Control release; X2A.17: voltage output)
X2B Connection for synchronization line
X2C Activation of the self-holding of the load shunt relay (K2 internal)
G2 Frequency inverter all types (see 4.3.1)
H1 Error message contactor K1 not dropped
HF HF filter
K1 Line contactor with auxiliary contacts
M Motor
S1 Switch (400 V/16 A AC3)
S2 Realize control release with PLC or pre-charging contactor / -switch
Figure 13: Power supply and regenerative operation at inverter currents ≤ current of one
COMBIVERT R6-S
GB - 29
Connection Power Unit R6-S
4.4.3 Power supply and regenerative operation at parallel operation of up to three R6-S
(Parallel operation with an error at current sharing of the R6-S units of ≤10 %)
PE N L3 L2 L1
S1
F3
F4
F1
H
H1
A2
13 14
K1
A1
21
43
22
44
K3
33 34
L1
L2
L3
HF1
L1’
L2’
L3’
S2
L3
L2
L1
X2D
X2B
DR1
L1.1
A1
L2.1
L3.1
L1.2
L2.2
L3.2
X1B
14/K2
13/K2
L1
25
24
X2C
G1
L2
X1B
12
17
X2A
X2B
L1.2
L2.2
L3.2
++
X1A
- -
F5
F6 xx xx
G3
M
F2
A2
13
A1
H2
21
43
22
44
K1
33 34
S3
L1
L2
L3
HF2
L1’
L2’
L3’
L1.1
L2.1
L3.1
DR2
L1.2
L2.2
L3.2
X1B
14/K2
13/K2
L1
25
24
X2C
G2
L2
X1B
12
17
X2A
X2B
L1.2
L2.2
L3.2
- -
X1A
++
F5
F7 xx xx
G4
M
PE N L3 L2 L1
GB - 30
When connecting the units absolutely pay attention to correct phasing !
A load draw from the DC circuit may be done only if relay 1 is active (ready signal). This can be guaranteed by a series connection of the relay of the R6 units with the control release of the connected inverters (see next side).
Synchronization units (maximum length of the phase lines 1 m) A1
DR1,
DR2 1)
Commutation reactor / harmonic filter
F1, F2 2) Mains fuse type gR
F3
F4
F5 2)
Precharging fuse gG/gL or automatic circuit breaker with characteristic K dimensioned for the sum of the precharging currents (here 20 A)
10 A fuse gG/gL
DC fuses type aR further on next side
Connection Power Unit R6-S
F1, F2 2) DC fuses type aR/gR The cable cross section as well as the DC fuses (see chapter 2.1) must be dimensioned to the DC rated current of the load (see technical data of the inverter).
G1, G2 Regenerative unit COMBIVERT R6-S
X1A Power circuit terminals
X1B Connection for precharging and switching-on of line contactor K1, K3
X2A Control terminal strip (X2A.12: control release; X2A.17: voltage output)
X2B Connection for synchronization line
X2C Activation of the self-holding of the load shunt relay (K2 internal)
G3, G4 Frequency inverter all types (see 4.3.1)
H
H1
H2
HF1,
HF2
Supply of the signalling device
Error message contactor K1 not dropped
Error message contactor K2 not dropped
HF filter
K1, K3 Line contactor with auxiliary contacts
M
S1
1)
Motor
Switch (400 V/32 A AC3) dimensioned for the sum of the precharging currents
S2, S3 Realize control release with PLC or pre-charging contactor / -switch
2)
In case of parallel connection of R6-S the total power can be smaller up to 10 % caused by production tolerances of the commutation reactor. The impedance voltages uk of the commutation reactor must be the same in case of parallel connection of R6-S with different sizes.
Main- and DC fuses must be monitored.
Figure 14: Power supply and regenerative operation at parallel operation of up to three
R6-S
GB - 31
Connection Power Unit R6-S
Wiring of the control release of the connected inverters
G1
X2A
24
25
26
S3
16
20
G3
G2
X2A
24
25
26
S4
16
20
G4
A load draw in the DC circuit may be done only when the message „ready“ is set. This can be guaranteed by a series connection of the relay R1 of the R6-S units with the control release of the connected inverters.
G1, G2 Regenerative unit COMBIVERT R6-S
X2A Control terminal strip
24 Relay 1 / NO contact
25 Relay 1 / NC contact Ready for operation relay
26 Relay 1 / switching contact
G3, G4 Frequency inverter COMBIVERT
X2A Control terminal strip
12 Control release
17 24 V output
S3, S4 Control release for COMBIVERT
This terminal assignment refers only to one COMBIVERT
Figure 15: Wiring of the control release of the connected inverter
GB - 32
Connection Power Unit R6-S
4.4.4 Regenerative operation at parallel operation of up to three R6-S with decoupling diodes
(Parallel operation with an error at current sharing of the R6-S units of ≤10 %)
PE N L3 L2 L1
F4
13
21
K4
14
22
13
H
H1
F1
A2
21
43
A1
22
44
K3
33 34
L1
L2
L3
HF1
L1’
L2’
L3’
S2
L2
L1
L1.1
L2.1
L3.1
X2D
X2B
A1
DR1
L1.2
L2.2
L3.2
X1B
14/K2
13/K2
L1
25
24
X2C
G1
L2
X1B
12
17
X2A
X2B
L1.2
L2.2
L3.2
X1A
++
- -
D1
D2
D3
D4
F5 xx
F6 G3 xx
M
F2
A2
13 14
K3
A1
H2
21
43
22
44
K1
33 34
L1
L2
L3
HF2
L1’
L2’
L3’
S3
L1.1
L2.1
L3.1
DR2
L1.2
L2.2
L3.2
X1B
14/K2
13/K2
L1
25
24
X2C
G2
L2
X1B
12
17
X2A
X2B
L1.2
L2.2
L3.2
- -
X1A
++
D5
D6
F5
F7
+PA
G4
-
L1L2L3
M
F3
K4
L1.1
L2.1
L3.1
DR3
L1.2
L2.2
L3.2
L1
L2
L3
HF3
L1’
L2’
L3’
D7
D8
PE N L3 L2 L1
When connecting the units absolutely pay attention to correct phasing ! The external precharging is to be made within 10 s !
A load draw from the DC circuit may be done only if relay 1 is active (ready signal). This can be guaranteed by a series connection of the relay of the R6 units with the control release of the connected inverters (see next side GB-24).
In case of failure the contactors must disconnect the units from the supply system.
A1 Synchronization unit (max. length of the phase lines 1 m)
D1…D8 Decoupling diodes (see annex)
DR1, 1) 2)
DR2
Commutation reactor / harmonic filter further on next side
GB - 33
Connection Power Unit R6-S
DR3 2) Mains choke
F1…F3 Mains fuses type gR must be monitored (see technical data)
F4
F5
10 A fuse gG/gL
DC fuses type aR must be monitored (see technical data)
F6, F7 DC fuses type aR/gR The cable cross section as well as the DC fuses (see chapter 2.1) must be dimensioned to the DC rated current of the load (see technical data of the inverter).
G1, G2 Regenerative unit COMBIVERT R6-S
X1A Power circuit terminals
X1B Connection for precharging and switching-on of line contactor K1, K3
X2A Control terminal strip (X2A.12: control release; X2A.17: voltage output)
X2B Connection for synchronization line
X2C Activation of the self-holding of the load shunt relay (K2 internal)
G3
G4
H
H1
H2
HF1,
HF2,
HF3
Frequency inverter all types (see 4.3.1)
Frequency inverter of type B1/B2 (see 4.3.1)
Supply of the signalling device
Error message contactor K1 not dropped
Error message contactor K2 not dropped
HF filter
K1, K3 Regenerative contactor with auxiliary contact
K4
M
1)
Line contactor with auxiliary contacts
Motor
S2, S3 Realize control release with PLC or pre-charging contactor / -switch
2)
In case of parallel connection of R6-S the total power can be smaller up to 10 % caused by production tolerances of the commutation reactor. The impedance voltages uk of the commutation chokes must be the same in case of parallel connection of R6-S with different sizes.
Parallel connection of the frequency inverter and R6-S causes a circulating current in regenerative operation. It is depending on the inductance of the mains choke. The total regenerative power is
75...90 % of the R6-S regenerative power.
Figure 16: Regenerative operation at parallel operation of up to three R6-S with decoupling diodes
Parallel operation
When connecting in parallel operation, the parameter defaults record must be changed. See application instructions R6-S under „Special Functions for the par allel connection“.
GB - 34
Connection of the control board version S
4.5 Connection of the control board version S
4.5.1 Assignment of the control terminal strip X2A
X2A
10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29
Conductor cross-section 0.14…1.5 mm², tightening torque 0.22...0.25 Nm
PIN Function
10 24V input
Name Default
Uin
Description
External supply of the control board
Specifications
21.6...26.4 V DC
/ 1 A
11 Mass
12 Digital input 1
13 Digital input 2
14 Digital input 3
COM
ST
I1
I2
Reference potential
Control release / reset
Set selection programmable
Set selection programmable
Ri: 4.4 kΩ
15 Digital input 4 I3
16 Digital input or output I/O
(I4)
17 24 V output Uout
Ext. error programmable
Active signal (connection of all R6 at parallel operation in master-slave mode)
Voltage supply for in- and approx. 24 V /
18 Mass
19 Digital output 1
20 Digital output 2
COM
O1
O2 outputs
Reference potential
DC >600 V Transistor output (DC >
CP.19)
Error message
Transistor output (error mes sage)
max. 100 mA
Imax: 25 mA
Imax: 25 mA
21 Analog output
22 24 V output
23 Mass
AN-
OUT
Uout
COM
24 Relay 1 / NO contact RLA Ready for
25 Relay 1 / NC contact RLB operation
(no error)
Difference to mains frequency
(CP.18) see terminal 17
Reference potential
Relay output
Ready signal (status "Stb" or
"rEGEn")
0…±10 V / max.
5 mA max. 30 V DC
0.01…2 A DC
*)
26 Relay 1 / switching contact
RLC
27 Relay 2 / NO contact FLA DC > 600 V
28 Relay 2 / NC contact FLB
29 Relay 2 / switching contact
FLC
Relay output (DC > CP.19) max. 30 V DC
0.01…2 A DC
*) The relay outputs must be operated with max. 48 V DC protective separation voltage to guaran tee the CE standard. After consultation KEB a current of max. 2A DC is permissible for 120 V AC
(depending on the switching capacity etc.).
*)
GB - 35
Connection of the control board version S
4.5.2 Assignment of the socket X2B
RJ45 socket for phase synchronization and temperature sensor
No. Name Function
1 8
1
2
T1 Connection for temperature sen-
T2 sor (option)
3 U13_syn Synchronization phase 1 / 3
4 – reserved
5 U21_syn Synchronization phase 2 / 1
6 – reserved
7 U32_syn Synchronization phase 3 / 2
8 – reserved
Figure 17: RJ45 socket
The connection is made with a sync cable 1:1 with the socket X2B, X2C or X2D at the com mutation reactor or synchronisation unit.
4.5.3 Assignment of the terminal block X2C
24 25 26
PIN Function
24 Bridge between pin
25
Conductor cross-section 0.14…1.5 mm², tightening torque 0.22...0.25 Nm
Description
Activation of the self-holding of the line contactor
24 and pin 25
26 not assigned -
GB - 36
Connection of the control board version S
4.5.4 Wiring example
In order to prevent a malfunction caused by interference voltage supply on the control inputs, the following directions should be observed:
EMC
• Use shielded/drilled cables
• Lay shield on one side of the inverter onto earth potential
• Lay control and power cable separately (about 10...20 cm apart); lay crossings in a right angle
Active signal for further R6-S units at parallel operation
16
18 max. 25 mA DC per digital output
U
Analog output
0…±10 V DC / 5 mA
Supply voltage of the inverter inputs max. 30 V DC
0.01…2 A
Control release inverter max. 30 V DC
0.01…2 A
17
18
19
20
21
22
23
X2A
10
11
12
13
14
15
16
24
25
26
27
28
29
Figure 18: Wiring example R6-S
GB - 37
Operator
4.6 Operator
An operator is necessary as accessories for local or external operation of the COMBIVERT
R6-S. To prevent malfunctions, the COMBIVERT must be brought into nOP status before connecting/ disconnecting the operator (open control release). When starting the COMBI -
VERT, it is started with the last stored values or factory setting.
Digital operator (part number 00F5060-1000)
Interface operator (part number 00F5060-2000) x x 5-digit LED Display x x Operating-/Error display
Normal "LED on"
Error "LED blinks"
- x Interface control
Bus operation "LED on" x x Double function keyboard
- x X6B HSP5 programming and diagnostic interface
- x X6C RS232/RS485 X6B
ENTER
F/R
START
STOP
FUNC.
SPEED
X6C
C O M B I V E R T
X6D
Only use the operator interface for the serial data transfer to RS232/485. The direct connection, PC to the COMBIVERT is only permissible with a HSP5-special cable (part number 00F50C0-0001) otherwise it would lead to the destruction of the PC-interface !
X6C
5 4 3 2 1
5 4 3 2 1
9 8 7 6
9 8 7 6
RS 232 cable
Part number
0058025-001D
Length 3 m
PIN RS485 Signal Meaning
1
8
9
4
5
2
3
-
-
-
reserved
TxD Transmission signal RS232
RxD Receive signal RS232
A‘ RxD-A Receive signal A RS485
6
B‘ RxD-B Receive signal B RS485
VP Voltage supply +5 V (Imax=50 mA)
7 C/C‘ DGND Data reference potential
A TxD-A Transmission signal A RS485
B TxD-B Transmission signal B RS485
9-pole Sub-D socket to the PC
2
3
5
9-pole Sub-D connector
2
3
7
Housing (PE) to the operator
GB - 38
Operation of the Unit
5. Operation of the Unit
5.1 Operation with PC und system software COMBIVIS
Instructions for the installation and operation of the system software COMBIVIS can be taken from the appropriate software instruction.
5.2 Switch-on procedure
The COMBIVERT R6-S is initialized after connection of the power supply. The power circuit identification is checked first. If an invalid power unit is recognized, error „E.Puci” (Power unit code invalid) is released and displayed in the operator. This error cannot be reset, the power circuit must be checked.
The COMBIVERT R6-S changes into synchronisation phase if a valid power circuit is recognized. The following procedures happens one after another during this synchronisation phase:
• Inspection of correct synchronisation connection (error "E.nEt" is released, if the synchro nous signal is missing)
• Inspection of the phase allocation of synchronous signals to the mains phases. Error
"E.SYn" is released if a phase is missing or in case of phase allocation failure.
The actual line frequency and the mains voltage is determined after successful synchronisation. The correct connection of the COMBIVERT R6-S is now ensured. If the control release
(terminal ST) is set, the COMBIVERT R6-S starts independently with the normal operation.
Depending whether regenerative requirement is available, the COMBIVERT R6-S is in status
„rEGEn” or „Stb”.
Status „Stb“
COMBIVERT R6-S detects a typical voltage level in the DC link circuit of the connected frequency inverter (motor operation) and keeps the modulation signals of the regenerative unit deactivated.
Status „rEGEn”
If the DC voltage in the DC link (CP.09 or ru.19) exceeds the value of the regeneration level (CP.34 or cS.02) referring to the reference value ru.18, the modulation signals are ac tivated and the unit changes into regenerative operation. Furthermore the regenerative unit is switched active, if regenerative operation is requested by an additional installed COMBI-
VERT R6-S in the system (master /slave operation).
GB - 39
Parameter summary
5.3 Parameter summary
The CP parameters are one of the parameter selection defined by KEB. You need an applica tion manual in order to get access to the entire parameters.
Display Parameter Origin
CP.00 password input
CP.01 status display
CP.02 actual line frequency
CP.03 AC current L1
CP.04 AC current L2
CP.05 AC current L3
CP.06 act.DC utilization
CP.07 peak DC utilization peak value
CP.08 DC current
CP.09 DC voltage
CP.10 peak DC voltage
CP.11 power module temperature
CP.12 OL counter display
CP.13 actual power
CP.14 total regen
CP.15 total motor
CP.16 total net
CP.17 actual net
CP.18 ANOUT 1 / gain
CP.19 comparison level
CP.20 general fault reset
CP.21 last error
CP.22 last error -1
CP.23 last error -2
CP.24 last error -3
CP.25 last error -4
CP.26 last error -5
CP.27 last error -6
CP.28 last error -7
CP.29 software version
CP.30 software date
CP.32 puls off level
CP.33 operating mode
CP.34 regeneration level
Setting range Resolution
0…9999 1
–
–
–
0.1 Hz
–
–
0.1 A
0.1 A
–
–
–
0.1 A
1 %
1 %
Factory setting
–
–
–
–
–
–
–
–
–
±20.00
±30000.00 V
0…10
–
–
–
–
–
–
–
–
–
–
–
–
–
–
0.1 A
1 V
1 V
1 °C
1 %
0.1 kW
0.1 kWh
0.1 kWh
0.1 kWh
–
–
–
1.11
–
–
–
–
–
–
–
1.11
0801.7
– 0801.7
0.0…-1000.0 kW 0.1 kW -0.8 kW
0…3
100…120 %
1
1 %
0
103 %
–
–
–
–
–
–
–
–
–
0.1 kVA
0.01
–
1.00
ru.85
An.33
0.01 V 600.00 V LE.00
1 3 Pn.15
–
–
–
–
–
–
–
–
–
–
In.21
In.21
In.21
In.21
In.21
ru.15
ru.19
ru.20
ru.38
ru.39
ru.81
ru.82
ru.83
ru.84
In.21
In.21
In.21
In.06
In.07
cS.06
Pn.19
cS.02
ud.01
ru.00
ru.03
ru.08
ru.09
ru.10
ru.13
ru.14
GB - 40
Monitoring and analysis parameters
Approach of the working meters
The displayed values of the working meters offer only an estimate value because of measurement and calculation inaccuracies. These displayed values are unsuitable for tariff applications and cannot replace any measuring devices.
5.4 Monitoring and analysis parameters
The following parameters serve for the functional monitoring during operation.
No.
Name
CP.01
status display r/w Enter
– –
The status display shows the actual working conditions of the COMBIVERT.
Origin ru.00
Status Messages rEGEn Regeneration active (regenerative operation) bbL noP
Count down of the base-block time, R6-S released
„no Operation“ control release not bridged, modulation switched off nEtoF
Stb
Mains power failure; regenerative operation is further possible, if the disconnecting time E.nEt (Pn.14) > 0 s
R6-S regenerative unit in stand-by operation (motoric operation)
Error Messages
E.dOH
„ERROR ! overheat choke“, temperature monitoring of the commutation choke has triggered and the coolong-off period is up.
E. EF „ERROR ! external fault“, error message by an external unit
E.FnEt
„ERROR ! mains frequency", the mains frequency deviates more than 5 %. The max. mains frequency deviation can be adjusted in the application mode with
CS.03.
E.LSF
ERROR! load-shunt defective or wrong respectively input voltage too low. This message is displayed for a short time during the power-on phase (no error mes sage follows).
E.nEt
„ERROR net", one or more phases are missing
E.nOH
no ERROR overheat pow.mod. (E.OH) not any longer present, error can be reset.
E.nOL
No Over Load, cooling time after E.OL is up , error can be reset.
E. OC „ERROR overcurrent, output current too high or ground fault
E. OH „ERROR overheat pow.mod.“, overheating at heat sink (see „Technical data“)
E.OHI
„ERROR overheat internal“, temperature in the interior > 70°C
E. OL „ERROR overload, overload monitoring of the regenerative unit has responded
E. OP „ERROR overpotential, DC link voltage too high
E.PFd
„ERROR initialisation“, power failure (phase) during the initialisation phase
E. Pu „ERROR power unit“, power unit code is missing, load shunt relay defective
E.Puci
„ERROR pow.unit code inv.“ power unit code is invalid
E.Puch
„ERROR power unit changed“.
continued on the next page
GB - 41
Monitoring and analysis parameters
GB - 42
No.
Name
CP.01
status display
E.PUIN
„ERROR net“, ripple of the rectified mains voltage too high
E.SYn
„ERROR synchronisation, phase allocation at commutation throttle not correct
E. UP „ERROR underpotential, DC link voltage too low r/w Enter Origin
– – ru.00
No.
Name
CP.02
actual line frequency r/w Enter Origin
– – ru.03
After switching on, the actual mains frequency is determined during the initialization phase.
Slowly changes of the line frequency during the operation are recognized and displayed in CP.02. CP.02 displays the actual regenerative frequency, if the COMBIVERT R6-S is in
"netof" status.
Resolution
0.01 Hz
Meaning positive values = clockwise rotating field negative values = counterclockwise rotating field
No.
Name
CP.03
AC current L1
CP.04
AC current L2
CP.05
AC current L3
Resolution
0.1 A r/w Enter Origin
–
–
–
–
–
–
Meaning
Display of the actual input current of the respective phase.
ru.08
ru.09
ru.10
No.
Name
CP.06
actual DC utilization
Resolution
1 %
Meaning r/w Enter
– –
Origin ru.13
Independent whether power supply or regenerative operation, the display indicates the actual utilization of the COMBIVERT R6-S. 100 % correspond to the rated current of the COMBIVERT R6-S.
No.
Name
CP.07
peak DC utilization
Resolution
1 %
Meaning r/w Enter
– –
Origin ru.14
Parameter CP.07 enables to recognize short-term peak utilization within an operating cycle. For that the highest value of CP.06 is stored in
CP.07. The peak value memory can be cleared by pressing the UP and
DOWN key or over bus by writing any value you like to the address of
CP.07. Switching off COMBIVERT R6-S also clears the memory.
Monitoring and analysis parameters
No.
Name
CP.08
DC current
Resolution Meaning
0.1 A r/w Enter Origin
–
Display of the calculated DC output current in ampere.
– ru.15
No.
Name
CP.09
DC voltage
Resolution
1 V r/w Enter
– –
Origin ru.19
Meaning
Display of actual DC link voltage in volt. The value is measured at the
DC output terminals of the COMBIVERT R6-S.
No.
Name
CP.10
peak DC voltage
Value range
0…1000 V
Meaning r/w Enter
– –
Origin ru.20
Parameter CP.10 enables to recognize voltage peaks within an operating cycle. For that the highest value of CP.09 is stored in CP.10. The peak value memory can be cleared by pressing the UP and DOWN key or over bus by writing any value you like to the address of CP.10.
Switching off COMBIVERT R6-S also clears the memory.
No.
Name
CP.11
power module temperature
Resolution Meaning
1 °C r/w Enter
– –
Origin ru.38
Display of the actual power module temperature. On exceeding the maximum power module temperature (see "technical data") the modu lation is switched off and error E.OH is displayed. Message E.nOH is displayed after the cooling period. The error can be reset now.
No.
Name
CP.12
OL counter display
Resolution
1 %
Meaning r/w Enter
– –
Origin ru.39
The permanent load of the COMBIVERT R6-S can be evaluated with this parameter, in order to avoid an E.OL error (in-time load reduction).
Error E.OL is released, if the overload counter reaches 100 %.
GB - 43
Monitoring and analysis parameters
No.
Name r/w Enter Origin
CP.13
active power
Resolution Meaning
0.1 kW
– – ru.81
CP.13 displays the actual power of the COMBIVERT R6-S. Motor power is displayed with positive values, generatoric power is displayed with negative values.
No.
Name
CP.14
total regen
Resolution
1 kW r/w Enter Origin
– – ru.82
Meaning
Counter for the regeneratoric electric work to the mains.
No.
Name
CP.15
total motor
Resolution
1 kW r/w Enter Origin
– – ru.83
Meaning
Counter for the supplied electrical work from the mains in kWh.
No.
Name
CP.16
total net
Resolution
1 kW r/w Enter Origin
– – ru.84
Meaning
Display of the difference between supplied and regeneratoric work.
The result is displayed by right sign.
No.
Name
CP.17
actual net
Resolution
0.01 kVA r/w Enter Origin
– – ru.85
Meaning
Display of the current apparent power at the mains input.
GB - 44
Special adjustments
5.5 Special adjustments
The power supply and regenerative unit can be adapted to the application with the following parameters.
No.
Name
CP.18
ANOUT 1 gain
0…±20.00
1.00
r/w Enter yes –
Origin
An.33
The analog output displays the difference between actual supply frequency and set supply frequency. At factory setting of CP.18 this corresponds to 1 V per 0.1 Hz difference. The display occurs with right sign. The reference value of 50 or 60 Hz is determined during power on.
Setting range Setting Meaning
The amplification to the desired output voltage can be adapted with CP.18. Max. possible: ±10 V.
No.
Name
CP.19
comparison level 0
0…3200.00 V 600.00 V r/w Enter yes –
Origin
LE.00
This parameter determines the switching level for transistor output O1, as well as relay output 2.
Setting range Setting Meaning
The switching condition is fulfilled and the transistor output is set if the DC voltage level exceeds the adjusted value in CP.19. Relay output 2 is set, if the load shunt relay is additionally tightened.
No.
Name
CP.20
general fault reset
Setting range r/w Enter yes –
Origin
Pn.15
A general fault reset can be activated with this parameter. Attention, the machine manufacturer must observe appropriate protective measures for operators staff and machine.
Setting Meaning
0
1…10
3
No general fault reset.
Maximum errors, which are reset within one hour. If the number of errors per hour exceeds the adjusted value in CP.20, only a manual reset via terminal strip can be made.
GB - 45
Special adjustments
No.
CP.21
CP.22
CP.23
CP.24
CP.25
CP.26
CP.27
Name last error last error -1 last error -2 last error -3 last error -4 last error -5 last error -6
CP.28
last error -7 r/w Enter
–
–
–
–
–
–
–
–
–
–
–
–
–
–
–
–
Origin
In.24 set 0
In.24 set 1
In.24 set 2
In.24 set 3
In.24 set 4
In.24 set 5
In.24 set 6
In.24 set 7
Parameters CP.21…CP.28 display the last eight errors. With exception error "underpotential
E.UP" is not stored. The oldest error is displayed in CP.28. A new error is stored in CP.21.
All other errors are shifted to the next parameter. The oldest error (CP.28) is not applicable.
The meaning of the error messages is described in parameter CP.01.
No.
Name
CP.29
software version
Value range Meaning
0.00…9.99
r/w Enter
– –
Display of the inverter software version number (e.g. 1,11).
Origin
In.06
No.
Name
CP.30
software date
Value range Meaning
0…6553.5
r/w Enter Origin
– –
Display of the inverter software date in the format „ddmm.y“.
In.07
No.
Name
CP.32
puls off level r/w Enter yes –
Origin cS.06
Value range
0.0…-1000.0 kW default Meaning
-0.8 kW
If the adjusted regenerative power is decreased, the COM-
BIVERT R6-S switches the modulation off after turn-off delay and changes into standby mode (display: „Stb“).
GB - 46
No.
Name
CP.33
operating mode r/w Enter yes yes
Origin
Pn.19
This parameter determines the master or slave of regenerative units at parallel connection.
Further it is adjusted whether a harmonic filter or a commutation choke is series-connected.
Single units must be adjusted to master.
Value range
0
1
2
3
Meaning
Master with commutation choke
Master with harmonic filter
Slave with commutation choke
Slave with harmonic filter
Special adjustments
No.
Name r/w Enter Origin
CP.33
operating mode yes yes Pn.19
This parameter determines the master or slave of regenerative units at parallel connection.
Further it is adjusted whether a harmonic filter or a commutation choke is series-connected.
Single units must be adjusted to master.
Value range
4
5
Meaning
Master-Slave with commutation reactor input selection
Master-Slave with harmonic filter input selection
No.
Name
CP.34
regeneration level
Value range Meaning
100…120 % r/w Enter yes –
Origin cS.02
The regeneration level determines the starting value to energy regeneration. The adjusted value refers to the reference value of the DC voltage in percentage. The status changes from Standby „Stb“ to re generation „rEGEn“.
GB - 47
Appendix A
A. Appendix A
A.1 Dimensioning power supply and regenerative units
Dimensioning of the power supply and regenerative unit
Only regeneration ?
no Acquire:
C ZK_all
CZK_all > CZK_max no
Acquire:
P M , P Mmax , t1, T, η M, η G, η FI yes bridgeover ext. load-shunt with contactor (special unit) yes
Decoupling R6-S (see 4.4.3 to
4.4.5)
Calculate: ILM, ILMmax
Acquire:
PM, PMmax, t1, T, ηM, ηG, ηFI
Calculate:
ILG, ILGmax yes
T < 300 s no t1 > 60 s no select higher unit or parallel connection of R6-S
(n • IDC, n • IDCmax)
IDCmax > ILGmax no yes yes select higher unit or parallel connection of R6-S
IDCmax > ILMmax
(n • IDC, n • IDCmax) no yes
T < 300 s no yes t1 > 60 s no yes
IDC > ILM yes no
Calculate: ILG, ILGmax select higher unit or parallel connection of R6-S
IDCmax > ILGmax
(n • IDC, n • IDCmax) no
IDC > ILG no yes yes
IDC > ILG no
Regenerative unit capable yes
Power supply and regenerative unit capable t
PM
PMmax t1 n
Mechanical power
Max. mechanical power
Overload time
Last cycle
η M
ηG
ηFU
ILM
Motor efficiency
Gearbox efficiency
Inverter efficiency
IDC DC output current R6-S
IDCmax max. DC output current
ILG
R6-S
DC load regenerative current
DC load motoric current ILGmax Max. DC load regenerative
Number R6-S ILMmax
Max. DC load motoric current current
CZK_all DC link capacity of all fre-
CZK_ max quency inverters max. connecting capacity
R6-S
Figure 19: Dimensioning power supply and regenerative units
GB - 48
Appendix A
A.2 DC link capacitors of KEB frequency inverters
Unit size
05
13
14
15
16
17
07
09
10
12
18
19
20
21
200 V units
Frequency inverter COMBIVERT F5
400 V units
Capacity
780 µF
Unit size
05
880 µF (940 µF*)
1080 µF
1080 µF
2220 µF
3280 µF
4100 µF
4100 µF
5040 µF
9900 µF
13200 µF
15600 µF
16500 µF
19800 µF
07
09
10
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
Capacity
180 µF
180 µF (300 µF*)
300 µF
345 µF
470 µF
580 µF
650 µF
940 µF
1290 µF
1640 µF
1875 µF
2700 µF
3900 µF
4950 µF
4950 µF
6350 µF
8400 µF
9900 µF
11700 µF
27
28(P)/28(W)
29(P)/(W)
30
31
32-35
36
14100 µF
16200 / 19800 µF
19800 / 23400 µF
28200 µF
32900 µF
39600 µF
59400 µF
* Special unit
The precharge circuit must be taken for COMBIVERT F5 inverters from the respective power circuit manual.
GB - 49
Appendix A
Housing size
A
B
C
D
E
Housing size
2
4
Frequency inverter COMBIVERT G6
Unit size
7
9
10
12
13
13
14
15
13
Capacity / µF
135
195
235
470
560
680
750
680
17
18
19
14
15
16
16
840
1120
1035
1400
1985
Frequency inverter COMBIVERT S6
Unit size Capacity / µF
7
9
195
1955
10
12
13
235
470
560
Precharging circuit
Type A1
Type A1
Type A1
Type A1
Type B1
Precharging circuit
Type A1
Type A1
When using G6 / S6 inverters ferrites must be used in each case at the input and output.
GB - 50
Appendix A
A.3 Decoupling diodes
Use decoupling diodes when using the R6 as regenerative unit only, to avoid that the connected inverters cannot be supplied via the regenerative unit. Appropriate decoupling diodes are defined for the different sizes.
A.3.1 Assignment
R6-S Material number
15
19
25
29
0090147-3500
0090147-4101
0090147-6009
0090147-6009
Type
1600 V / 80 A
1600 V / 120 A
1600 V / 560 A
1600 V / 560 A
Volume
2
2
2
2 x 2
Ta [°C]
45
45
45
45
Legend
Ta: maximum ambient temperature
Th: maximum heat sink temperature
Rha: required thermal resistance of the heat sink at rated operation
(thermal value of the thermal compound ≥ 0.5 W/(m*K))
Th [°C] Rha [K/W]
90
90
90
90
1.50
0.84
0.19
0.09
GB - 51
Appendix A
A.3.2 Dimensions of the decoupling diodes
Material number connection
0090147-3500 1 (anode)
2 (cathode) or
3 (anode)
1 (cathode)
Dimensions
0090147-4101 1 (anode)
2 (cathode) or
3 (anode)
1 (cathode)
0090147-6009 3 (anode)
2 (cathode)
GB - 52
Figure 20: Dimensions of the decoupling diodes
Appendix B
B. Appendix B
B.1 Certification
B.1.1 CE Marking
CE marked power supply-/regenerative units were developed and manufactured to comply with the regulations of the Low-Voltage Directive 2006/95/EC.
The described units must not be started until it is determined that the installation complies with the Machine directive (2006/42/EC) as well as the EMC-directive (2004/108/EC)(note
EN 60204).
The power supply-/regenerative units meet the requirements of the Low-Voltage Directive 2006/95/EC. The harmonized standards of the series EN 61800-5-1 in connection with
EN 60439-1 and EN 60146 were used.
This is a product of limited availability in accordance with IEC 61800-3. This product may cause radio interference in residential areas. In this case the operator may need to take corresponding measures.
GB - 53
Notes
54
Notes
55
KEB Automation KG
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• mail: [email protected]
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• mail: [email protected]
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• mail: [email protected]
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• mail: [email protected]
More and latest addresses at http://www.keb.de
© KEB
Mat.No. 00R6SEB-KR00
Rev. 1N
Date 07/2018
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