Solcon RVS-DN Instruction Manual

RVS-DN
Digital Soft Starter 8-3500A, 220-1000V
Instruction Manual
Ver. 12/10/2003
Table of Contents
Page Subject Appendix Page Subject
1 Starter Selection 39 Table of content 2 Installation 40 UL and cUL instructions, LR recommendations 3 By-pass contactor 41 Fuse selection 4 - 6 Control terminals 42 Motor and Starter Fault Occurrence Timing Table 7 Control terminals – Option Boards 43 Warranty claim sheet & Fault Inquiry 8 Control Wiring 44 Inside Delta Description 9-11 Wiring Diagrams 45 Overload Trip Time (Approximate calculation) 12-13 Wiring Diagrams – Communication 46-50 Dimensions and Weights 14 Wiring Diagrams – Diesel Generator 51 Block Diagram and Notes 15 Wiring Diagrams – Brake motor 52 Ordering Information 16-17 Internal setting 18-19 Start and stop parameters 20-21 Motor and starter protection 22-23 Front panel and LCD Displays 24 Display mode and Default Parameters 25-30 Parameter setting 31-32 Start-up and Pump Control adjustments 33-34 Menu Description 35-36 Trouble shooting 37-38 Technical specification
Safety
Read this manual carefully before operating the equipment and follow its instructions Installation, operation and maintenance should be in strict accordance with this manual,
national codes and good practice. Installation or operation not performed in strict accordance with these instructions will void manufacturer’s warranty.
Disconnect all power inputs before servicing the soft-starter and/or the motor.
After installation, check and verify that no parts (bolts, washers, etc) have fallen into the
power Section (IP00 for sizes B-G).
Attention
This product was designed for compliance with IEC 947-4-2 for class A equipment.
RVS-DN 8 - 820 are UL approved. RVS-DN 950 - 3500 are designed to meet UL requirements.
RVS-DN 8 - 1400 are LR approved. RVS-DN 1800 - 3500 are designed to meet LR requirements.
Use of the product in domestic environments may cause radio interference, in which case, the user may be
required to employ additional mitigation methods. Utilization category is AC-53a or AC53b. Form1. For further information, see Technical Specifications for
further details.
Warnings
Internal components and P.C.B’s are at main potential when the RVS-DN is connected to main. This voltage is extremely dangerous and will cause death or severe injury if contacted.
When RVS-DN is connected to main, even if control voltage is disconnected and motors is stopped, full voltage may appear on starter’s output and motor’s terminals.
Unit must be grounded to ensure correct operation, safety and to prevent damage.
Check that Power Factor capacitors are not connected to the output side of the soft starter.
The company reserves the right to make any improvements or modifications to its products without prior notice.
Starter Selection
The RVS-DN is a highly sophisticated and reliable starter designed for use with standard three-phase, three-wire, squirrel cage induction motors. It provides the best method of reducing current and torque during motor starting.
The RVS-DN starts the motor by supplying a slowly increasing voltage to the motor, providing soft start and smooth acceleration, while drawing the minimum current necessary to start the motor.
The second generation, microprocessor based digital circuitry provides unique features like pump control, slow speed, electronic reversing and accurate motor protection, with optional Insulation Protection, Thermistor input, etc.
The optional RS 485 Communication with MODBUS protocol enables full control (Start, Stop, Dual Adjust, command, etc.) and supervision. Up to 32 starters can be connected on a shield twisted pair to a host computer.
RVS-DN Ratings and Frame sizes
Max Motor FLA (Amp) Starter Type (FLC) Frame Size
8 RVS-DN 8 A 17 RVS-DN 17 31 RVS-DN 31 44 RVS-DN 44 58 RVS-DN 58 72 RVS-DN 72 85 RVS-DN 85 B
105 RVS-DN 105 145 RVS-DN 145 170 RVS-DN 170 210 RVS-DN 210 C 310 RVS-DN 310 390 RVS-DN 390 460 RVS-DN 460 D 580 RVS-DN 580 820 RVS-DN 820
950 RVS-DN 950 1100* RVS-DN 1100 E 1400* RVS-DN 1400 1800* RVS-DN 1800 2150* RVS-DN 2150 F 2400* RVS-DN 2400 G 2700* RVS-DN 2700 3000* RVS-DN 3000 3500* RVS-DN 3500
* Fully rated when used with a by-pass contactor
Dimensions (mm)
For exact dimensions, see Dimension Sheets.
Size Width Height Depth Weight (Kg) A 153 310 170* 4.5, 6.0, 7.5 B std. 274 370 222 15 B new 274 385 238 15 C 590** 500 290 45 D 623 660*** 290 65 E 723 1100 370 170 F 750 1300 392 240 G 900 1300 410 314 * 217mm – for 44, 58 & 72A
** 536mm – By special order, without side covers *** Add 160mm for bypass bus-bars extension
The starter should be selected in accordance with the following criteria (see Ordering Information data).
Motor Current & Starting Conditions
Select the starter according to motor’s Full Load Ampere (FLA) – as indicated on its nameplate (even if the motor is not fully loaded).
The RVS-DN is designed to operate under the following conditions:
Max. ambient temp: 50ºC Max. starting current: 400% motor’s FLA Max. starting time: 30 sec. (at 400% FLA) Max. starts per hour: 4 starts per hour at max conditions. Up to 60 starts per hour at light load applications.
Note: For very frequent starts (inching applications),
the inching current should be considered as the Full Load Ampere (FLA).
Main Voltage (line to line) Thyristor’s PIV rating, internal circuitry and insulation defines four voltage levels: 220-440V, 575-600V 460-500V, 660-690V Each starter is suitable for one of the above levels & for 50/60 Hz.
Control Voltage The Control Voltage operates the electronic circuitry and fans. Two voltage levels are available:
220-240V + 10%-15%, 50/60 Hz (standard) 110-120V + 10%-15%, 50/60 Hz 110 Vdc for Frame size B-G (by special order).
Control Inputs
Control Input voltage (start, stop, etc.) can be the same as Control Supply above (standard), or 24-240V AC / DC (by special order).
Options
(see Ordering Information Data)
Communication Card (option # 3)
Insulation Tester Card (option # 4)
Analogue card-Thermistor in/Analogue out (option # 5)
Special treatment – Consult factory (option # 8)
Preparation for by-pass contactor (option # 9)
Special width for size C-536 mm (option #A)
Line/load bus-bars at the bottom, size C&D (option #B)
Door install MMI instead of the original (option #D)
Door install MMI w/op.#L&1.5m cable (option #DK)
Back-lit LCD (option # L)
Lloyds Register ENV-1, ENV-2 approval (option #M)
Tachometer feedback (option # T)
UL & cUL approvals (option # U)
1
Installation
Prior to Installation
Check that Motor’s Full Load Ampere (FLA) is lower than or equal to the starters Full Load Current (FLC) and that Main and Control voltages are as indicated on the front panel.
Mounting
The starter must be mounted vertically, allow sufficient space above and below the starter for suitable airflow.
It is recommended to mount the starter directly on the rear metal plate for better heat dissipation.
Do not mount the starter near heat sources.
Protect the starter from dust and corrosive
atmospheres.
Note: For harsh environments, it is recommended to order the starter with Option # 8 – Special Treatment (printed circuit board coating).
Temp. Range and Heat Dissipation The starter is rated to operate over a temperature range of -10ºC (14ºF) to + 50ºC (122ºF). Relative non­condensed humidity inside the enclosure should not exceed 95%.
Starter’s heat dissipation is approx. 3 x In (three times the current in watts).
Example: For a 100A motor, heat dissipation is approx. 300 watts. Internal enclosure heating can be reduced through the use of: a. Additional ventilation b. Employing a by-pass contactor.
Additional Ventilation
RVS-DN
RVS-DN
General purpose enclosure Fan on air outlet
Non-ventilated enclosure Fan, creating air circulation
Fan
Calculating the enclosure size, for non-ventilated metallic enclosure:
Area (m2)
Where Area (m
0.12 x Total heat dissipation (Watts)* –
2
) - Surface area that can dissipate heat
º
(front, sides, top).
* Total heat dissipation of the starter and other control devices in the enclosure.
Note: If the starter is installed in a non-metallic enclosure, a by-pass contactor must be used.
Short Circuit Protection
Protect the starter against a short circuit by Thyristor Protection Fuses (see appendix page 44 for I
t and
2
fuses).
Transient Protection
Line transient voltages can cause a malfunction of the starter and damage to the thyristors. Starters frame sizes B-E incorporate Metal Oxide Varistors (MOV to protect from normal line voltage spikes.
For size A, or when higher transients are expected, additional external protection should be used (consult factory).
ATTENTION
When Start signal is initiated and a motor is not connected to load terminals, the Wrong Connection protection will be activated.
WARNING
1. When main voltage is connected to the RVS-DN, even if control voltage is disconnected, full voltage may appear on the starter load terminals. Therefore, for isolation purposes, it is necessary to connect an isolating device before the starter.
2. Power factor correction capacitors must not be installed on the starters load side. When required, install capacitors on starter’s line side.
WARNING
RVS-DN current transformers, although may be installed outside of the soft-starter with extended wires, can not be grounded or connected to any other load except for the RVS-DN itself. Any such connection may cause damage to the load which was connected to it or to the RVS-DN itself!
2
By-pass Contactor
Under normal operating conditions, the heat dissipated by an electronic soft starter causes heating of the enclosure and energy losses. The heating and losses can be eliminated by the use of a by-pass contactor, which by passes the RVS-DN after completion of start­up, so motor current will flow through the by-pass contactor.
In this case the starter protection will be maintained except for the current protection, as the current
RVS-DN
will not flow through the internal current transformers after the by­pass closes.
Preparation for By-pass Contactor (option)
In order to maintain current protection after the by-pass contactor closes, Preparations for By-pass Contactor can be ordered.
Frame Size A (8 – 72A)
Must be factory supplied, three additional terminals are added, marked L
, L2b, L3b.These
1b
terminals are connected after the internal C/Ts, intended for connection to the by-pass.
UVW
Frame Sizes B (Standard and New 85-170A)
Old – Additional set of bus-bars can be field mounted on the line side, after the C/Ts, marked L
, L2b, L3b.
1b
New – Additional set of bus bars is built-in, where the line side is on top and motor side is at the bottom with the by-pass
, L2b, L3b terminals are located. By-pass contactor
L
1b
cables should be connected to these terminals.
Built in
L1bL2bL3
UVW
L3L1 L2
b
C/T
U V W
L3L1 L2
M
M
L1bL2bL3bL3L1 L2
L1bL2
By Pass Contactor
b
L3
b
M
Frame Size C
L2b
(210 - 390A)
Additional set of bus bars can be field mounted on line side,
U L1 V L2 W L3
L1b
L3b
after the C/T’s marked L
, L2b, L3b. Bypass
1b
M
cables should be connected to these terminals.
Frame Size D (460 - 820A)
L3L1 L2
L2b
L1b
L3b
Additional set of bus bars can be field mounted on line side,
C/T C/T
U V W
downstream to the C/T’s marked L L
. Bypass cables
3b
, L2b,
1b
M
should be connected to these bus-bars.
Note: Starter frame sizes C and D can be field modified to have Line and Load Bus-bars at the bottom (consult factory for further information).
Frame Size E (1100 – 1800A)
Frame Size F (2150A)
Frame Size G
L1
L2 L3
C/T
C/T
(2400 – 3500A)
L1b L2b L3b
Additional set of bus-bars can be field mounted on line side, down stream to the C/Ts, marked L
, L2b, L3b.
1b
By-pass cables should be connected to the bus-bars down stream to the C/T’s
U V W
Note: Connect as follows
Line to L1, L2, L3
By-pass
Input to L
, L2b, L
1b
3b
M
Output to U, V, W
Motor (Load) to U,V,& W
Do not interchange line and load connections.
3
Control Terminals
Control Supply Terminals 1-3
110-120VAC or 220-240VAC, 50/60Hz as indicated on the front panel, required to power the electronic circuitry and fans when incorporated. This voltage can be from a grounded or ungrounded main system.
110VDC can be supplied by special order for starter sizes B-G (not field interchangeable).
Note: It is recommended that terminals 1-3 be
always connected to the Control Supply.
Fan’s Supply Voltage Terminal 2
An internal jumper, connected between fan and terminal 2 enables three modes of operation (see Fan Control – page 16). For fan power consumption, see technical specification.
Continuous mode long as Control Supply is connected to terminals 1-3. Leave internal jumper connected to left lug of JI terminal (A).
External control mode Supply is connected to terminal 2. Connect internal jumper to the center lug of JI terminal (B). For use without by-pass, connect fans before “start” and disconnect at least 5 minutes after “Stop/Soft-stop”.
Automatic mode signal is initiated and stops approximately five minutes after start signal. When stop signal is initiated, the fan begins operation and stops after five minutes. Connect internal jumper right lug of JI terminal (C).
Automatic mode may be used only if by-pass contactor is directly controlled by the RVS-DN “End­of-Acceleration” contact.
(factory default) – Fan operates as
– Fan operates when Control
– Fan begins operation when start
WARNING
Control Inputs
Incorporating opto-couplers to isolate the micro­processor circuitry. The starter is supplied standard for 220-240V, 50/60Hz Control Supply and Control Inputs voltage.
By special order, Control Inputs may be supplied for voltage levels of 24-240 VAC/DC. (for more information, see Ordering Information data – Appendix page 48).
Stop Terminal 4
Input from a N.C contact. To stop the motor, disconnect control voltage from Terminal 4 for at least 250mSec.
Soft stop Terminal 5
Input from a N.C contact. To soft stop the motor, disconnect control voltage from Terminal 5 for at least 250mSecs.
Note: If Soft Stop is not required, connect a
jumper between terminals 4 and 5.
Start Terminal 6
Input from a N.O contact. To start the motor, connect control voltage to Terminal 6 for at least 250mSecs.
Notes:
1. Motor will start only if Stop (4) and Soft Stop (5) terminals are connected to control voltage.
2. Reset after a fault is not possible for as long as Start command is present.
Energy Save / Slow Speed / Reset Terminal 7
Input from a N.O contact. Selection between above functions is made from the keypad or through the communication (see I/O Programm.)
When Energy Save
function is selected –connect terminal 7 to control voltage by a jumper for automatic operation, upon load decrease. When connected through a N.O contact, closing the contact operates Energy Save.
When Slow Speed
function is selected – connect control voltage to terminal 7 before starting, to run the motor at 1/6 nominal speed. Closing terminal 7 while motor is running will not have any effect.
When Reset function is selected, connect terminal 7 to control voltage (use a N.O momentary
contact) to
reset the starter.
Internal Fan Terminals
1-3 4-9 10 -21 22 -24 25-32
I/O Terminals
4
Control Terminals
Dual Adjust Reverse / Reset Terminal 8
Input from a N.O contact. Selection between above functions is made from the keypad or through the communication (see I/O Programming ).
a. When Dual Adjustment connect terminal 8 to control voltage to operate starter with the Dual adjustment characteristic. Switching between primary and Dual Adjustment settings can be done before and during starting. If a push-button arrangement is used, keep control voltage connected at least RUN LED is lit.
Note: When starting from Diesel Generator or weak power supply set dip. Switch # 3 “On” – connect terminal 8 to control voltage to operate starter with Generator Parameter settings.
b. When Slow Speed reverse Speed function must be selected for terminal 7 and Control Input voltage connected to it). Connect control voltage to terminal 8 to reverse direction. Reverse command can be given before motor is started, or during operation at Slow Speed. Connecting Control Voltage to terminal 8 before motor is started, starts the motor in Reverse Direction. Connecting control voltage while motor is running at Slow Speed, stops the motor for 0.6 – 2 sec (according to motor size) before reversing its direction.
c. When “Reset 8 to control voltage (use a N.O momentary reset the starter.
Common Terminal 9
Common for terminals 4, 5, 6, 7, 8.
Note: When Control Supply and Control Input
voltage are from the same source, connect a jumper between terminals 3 and 9.
” function is selected, connect terminal
function is selected –
function is selected (Slow
contact) to
Immediate/Shear-pin Relay Terminals 10-11-12
Terminals: 10- N.O. 11-N.C. 12 – common. Voltage free 8A, 250VAC, 2000VA max. Selection between functions is made from the keypad or through the communication, (see I/O Programming).
Programmable functions:
1. Immediate (after start signal).
When immediate position upon Start signal. The contact returns to its original position on Stop signal, in case of a fault or upon control supply outage.
When Soft Stop is operated, the contact returns to the original position at the end of the Soft Stop process.
The contact incorporates On & Off delays 0-60 sec. each. The Immediate Contact can be used:
To release the brake of a brake motor.
For interlocking with other systems.
For signaling.
Used with delay for opening an upstream contactor at
the end of soft stop thus, allowing current decrease to zero before opening the contactor.
To switch to / from Dual Adjustment settings with a
time delay from Start signal (see Special Starting).
2. O/C Shear-pin detection
When O/C Shear-pin position upon Shear-pin detection (Starter’s trip can be delayed 0-5 sec).
The O/C Shear-Pin contact can be used:
For interlocking with other systems. For signaling.
Used with delay for operating a reversing
combination of upstream contactors when Shear-Pin is detected, thus, allowing clearing a Jam condition.
is selected, the contact changes its
is selected, the contact changes
5
Control Terminals
Fault Contact Terminals 13-14-15
Terminals: 13-N.O. 14-N.C. 15 – Common.
Voltage free 8A, 250VAC, 2000VA max. changes its position on fault. The contact is programmable to function as Trip or Trip – fail safe relay.
a.When Trip energized upon fault. The contact returns to its original position after fault has been removed and starter was reset, or upon disconnection of Control Supply.
b.When Trip-fail safe relay is energized immediately when Control Supply is connected and de-energizes upon fault or Control Supply disconnection.
End of Acceleration Contact Terminals 16-17-18
Terminals: 16-N.O. 17-N.C. 18 – Common.
Voltage free 8A, 250VAC, 2000VA max. changes its position at the end of acceleration, after an adjustable time delay (Contact Delay), 0 – 120 sec.
The contact returns to its original position, when Energy Saver is operated, on Soft Stop or Stop signals, on fault condition, or upon voltage outage.
The End of Acceleration contact can be used for:
Closing a by-pass contactor.
Activating a valve after compressor has
reached full speed.
Loading a conveyor after motor reached full speed.
External Fault Terminal 19
Input from a N.O contact, connected between terminals 19 and 21. The starter will trip 2 sec. after contact closes.
Only potential free contacts may be
Do not connect any voltage to terminal 19.
Notes:
Wires connecting the External Fault contact to terminal 19 should not exceed 1 meter in length.
External Fault can be used only when terminal 21 is connected to Neutral or Ground.
Do not use External Fault while using Insulation Alarm option.
function is selected, the relay is
function is selected, the
WARNING
connected to terminal 19.
Any connection of voltage to this terminal may disrupt soft-starter operation, and cause starter or motor damage.
Tacho Feedback – Optional Terminal 20
Provides linear acceleration and deceleration. Requires high quality Tacho generator on motor shaft, output voltage 0-10VDC, linear speed/voltage ratio. Consult factory before using Tacho feedback feature for further information.
Neutral Terminal 21
When Neutral wire is available, connect Terminal 21 to Neutral (see pages 6, 8 & 10). Terminal 21 serves only as voltage reference.
Note: Starter’s power section incorporates and internal
artificial neutral, which should only be used, when the system is not grounded and neutral connection is not available.
WARNING
Only potential free contacts may be connected to terminal 21.
Do not connect any voltage to terminal 21.Any connection of voltage to this terminal may disrupt soft-starter operation, and cause starter or motor damage.
Notes:
Wires connecting between terminal 21 and terminal 19 should not exceed 1 meter in length.
Do not use External Fault when terminal 21 is not connected to Neutral or Ground.
Terminal 21- Connections with various mains.
3P+N+GR Connect terminal 21 to neutral
3P+N Connect terminal 21 to neutral
3P+GR Connect terminal 21 to ground
3P Leave terminal 21 unconnected
3P Leave terminal 21 unconnected
3P+GR Leave terminal 21
unconnected
6
Control Terminals – Option Boards
Option # 3
RS-485 Communication Terminals 23-24
Terminals: 23 (-), 24 (+)
Standard RS485, Half Duplex with MODBUS Protocol, baud rate 1200, 2400, 4800, 9600 BPS. Twisted shielded pair should be used, connect shield to ground a PLC/Computer side. Terminals 4 & 5 must be wired to control supply for operation in communication mode (see Wiring Diagram – page 14 and Communication Instruction Manual).
Option # 4
Insulation Alarm Terminals 25-26-27
Terminals: 25- Common 26- N.O. 27 – N.C.
Voltage free 8A, 250VAC, 2000VA max. changes its position when motor insulation level decreases below Insulation Alarm level. The contact returns to its original position, after fault has been removed and starter reset, or upon Control Supply disconnection, or when insulation level increase above Alarm set-point for more than 60 sec.
Notes:
1. Do not use External Fault while using Insulation Alarm option.
2. Insulation test can be performed only when main voltage is not connected to the RVS-DN, namely an upstream isolation device must be opened. For correct operation of Insulation test, it is important that the RVS-DN is properly grounded and that the control module is properly fastened to the power section.
3. Option # 4 and option # 5 may not be applied together.
Option # 5
Analogue I/O (option # 5) Terminals 28-32
The Analogue card output incorporates two functions:
Thermistor input
Analogue output
Analogue P.C.B. layout:
Thermistor input Terminals 28-29
Programmable as PTC or NTC type thermistor. Trip value is adjustable between 1-10K, preset delay of 2 Sec.
Ground Terminal Terminal 30
Connect thermistor and / or Analogue output shield to this ground terminal.
Analogue Output Terminals 31, 32
Terminal: 31 (-), 32(+) Dip switches allow selection between: 0-10VDC 0-20mA 4-20mA
Analogue value is related to motor current and can be programmed to normal or inverted output. (Default = Normal) Maximum value (20mA or 10Vdc) is related to twice the RVS-DN rated current (2xFLC).
Dip No. 4-20 mA* 0-20 mA 0-10VDC
Dip-Sw. S1 # 1 On On Off
Dip-Sw. S1 # 2 On On Off
Dip-Sw. S1 # 3 Off Off On
Dip-Sw. S1 # 4 Off Off On
Dip-Sw. S2 # 1 On Off Off
Dip-Sw. S2 # 2 No use No use No use
* Default
Notes:
1. It is important that the RVS-DN is properly grounded, and control module is tightly fastened to the power section.
2. Option # 5 and option # 4 may not be applied together.
3. Use twisted shielded cable for thermistor connection.
Out (+)
Out (-)
GroundT2T1
32 31 30 29 28
Dip. Sw. S1
Off
Dip. Sw. S2
Off
7
Control Wiring
N
N
N
Internal Jumper-see page 13
Fan
Option 3
Option 4
Option 5
Incorrect connection of terminal 19 and 21 may disrupt soft-starter operation and cause starter or motor damage
1
Control Supply
2
N
3
Stop
4
Soft Stop
5
Start
6
E.Save/Sl. Speed/Reset
7
D.Adjust/Reversing/Reset
8
Common
9
10
Immediate Relay
11 12 13 14
Fault Relay 15 16 17
End Of Acceleration Relay 18 19
External Fault Input 20
Tacho. Feedback 21
Neutral
Leave Open
22
(-) RS 485
23
(+) RS 485
24
25 2627Insulation Alarm Relay
28
Thermistor Input
29
Ground
30
(-) Analogue Output
31
(+) Analogue Output
32
WARNING
Fusing – Control Supply must be protected by a 6A fuse. It is recommended to use a separate fuse for the auxiliary circuits.
.
Control Supply and Control Inputs
1
from the same source, Neutral
2
connected to Terminal 21.
3
4 5 6 7 8 9
21
Separate sources for Control Supply
1
and Control Inputs, Neutral
2
connected to Terminal 21.
3
4 5 6 7 8 9
21
Separate sources for Control Supply
1
and Control Inputs.
2
For grounded Y systems with
3
neutral, connect 21 to neutral.
4
For grounded Y systems without
5
neutral, connect 21 to ground.
6
For other systems, leave 21 open.
7
When terminal 21 is not connected
8
to neutral, do not use External Fault
9
– terminal 19.
21
8
Wiring Diagrams
1. Start, soft stop and stop buttons, single supply source for Control Supply and Control Inputs. If Soft Stop is not used, connect a jumper between terminals 4-5 connect emergency stop and /or soft stop between terminals 1-4.
1
L
N
1 2 3
Stop
4 5
Soft Stop
6
Start 7 8 9
2. Start-Stop push buttons, Separate sources for Control Supply and Control Inputs. If Soft Stop is not used, connect a jumper between terminals 4-5.
1
L
N
1 2 3
4
Stop
5
Soft Stop
6
Start 7 8 9
21
3. Motor will soft start when C closes and stops immediately when C opens.
L
1
1 2
N
C
3 4
5 6 7 8 9
6. Close C to operate Energy Save, Slow speed or Reset – as selected.
1
L
1 2
N
C
*
3 4
5 6 7 8 9
C must be of momentary type when used as Reset
Notes: 1. Terminal 21 may be connected to terminal 3 only if terminal 3 is at neutral or at ground potential.
2. Resetting is possible only after start signal is removed
4. Motors will soft start when C closes and soft stop when C opens
1
L
1 2
N
C
3 4
5 6 7 8 9
7. Close C to operate Dual Adjust. Slow Speed Reversing or Reset – as selected.
L
1
1 2
N
C
*
3 4
5 6 7 8 9
For Slow speed reversing terminal 7 must be connected to Control Supply
5. Motors will soft start and soft stop with C. C1 act as emergency stop.
L
1
N
8. External Fault contact. The starter will trip 2 sec after C closes.
L
1
N
Must Not connected to neutral/ground or when Insulation Test is used
be used when 21 is not
C C
21
1
C
1 2 3
4 5 6 7 8 9
1 2 3
4 5 6 7 8 9
19 20 21
9
Wiring Diagrams
Series contactor
Control supply before C1
C
1
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
L1 L2 L3
By-pass contactor
Bypas
Contacto
L1bL2bL3
U V W
b
32 31 30 29 28 24 23 22
32 31 30 29 28 24
21
23 22
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21
L1 L2 L3
End Of Acceleration
Contac
N
M
This system is mainly used when the RVS-DN is retrofitted into an existing system, to reduce modifications in existing installations.
Main power and Start signal are switched on upon closure of the series contactor. The starter will operate as long as the series contactor is closed.
Control supply obtained from main voltage must match starter’s Control Supply voltage.
Notes:
1. It is recommended that terminals 1-3 be always connected to Control Supply.
2. In some applications, it is required to open the upstream contactor after soft stopping. The upstream contactor can be operated by the Immediate Contact that changes its position only at the end of soft stop.
It is therefore recommended to delay the opening of the upstream contactor for a few seconds after the completion of Soft stop process, when current reached zero, see Immediate/Shear-pin Contact delay – page 7.
Ensure that auxiliary contact C
closes after
1
the main contactor “the soft-starter provides a 500 mSec. delay for the start signal. If it closes before, Under Voltage, fault will occur. It is recommended to use a time delay timer to prevent possible faults.
N
M
End of Acceleration contact is activated after an adjustable time delays “Run Contact Delay” – see page 29 at the end of start-up period, closing the by-pass contactor.
The contact will return to its original position when:
Soft Stop or Stop signals are initiated
Energy Saver signal is initiated
Slow-Speed signal is initiated
Fault condition occurs.
When the by-pass contactor closes, current to the motor will flow through the by-pass.
Note: When a by-pass contactor is used, it is
recommended to order the starter with preparation for by-pass contactor, so that the RVS-DN current protections are operative also after the by-pass contactor closes.
When a Soft Stop signal is given, the End of Acceleration contact returns to its original position opening the by-pass contactor. Thereafter, the voltage will gradually ramp down to zero, soft stopping the motor.
10
Wiring Diagrams
Reversing with 2 series contactors
Control supply before contactors
Mechanical Interlock
C
2
C
1
Two Speed Motor
2
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
N
L1 L2 L3
21
32 31 30 29 28 24 23 22
M
The start-stop control is by a N.O auxiliary contact in each of the two series contactors C
& C2. Closure of
1
either contactor will supply main power and a start signal to the RVS-DN.
Control voltage, obtained from main, must match the starter’s Control Supply voltage.
Note:
1. It is recommended to employ a mechanical interlock between the Forward and Reverse Contactors.
2. It is required to delay the transfer between opening of one contactor and closing of second contactor.
3. Phase Sequence fault must be disabled to operate Reversing Contactors at the Line Input of the soft-starter.
13 15
Low Speed
14 16
13 15
14 16
High Speed
1
M
Used for Two Speed Motors:
* When soft start is required during transfer from low to high speed, the RVS-DN should be installed downstream to the high speed contactor (marked 1) and operated by its auxiliary contact (13-14).
* When soft start is required for both low and high speeds, the RVS-DN should be mounted before both contactors (marked 2) and operated by each of the downstream contactors (13-14 of each contactor).
Note: The RVS-DN should be sized for
appropriate motor rating of either the low or the high speed.
If two different motor ratings and/or starting characteristics are required, for example, higher Initial Voltage and Current Limit for high speed, use the Dual Adjustment feature (see Dual Adjustment – page 21) which allows two different settings of:
* Initial Voltage * Current Limit * Acceleration Time * Deceleration Time * Motor FLA.
An additional N.O. contact (15-16) on the high-speed contactor should act as the Dual Adjustment Switch. It should close simultaneously with 13-14 of the same contactor to start the RVS-DN and to switch to the Dual Adjustment settings.
11
Wiring Diagrams - Communication
Operation via communication link with Local / Remote selector switch
* Remote: via Communication link * Local: Soft-start, soft stop by maintained contact
L1 L2 L3
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21
28 29 30 31 32
L1bL2bL3
UVW
N
Remote
Start
Soft Stop
Local
The communication enables remote parameter settings and
M
b
27 26 25
Twisted Shielded Pair
24
RS485 to
23
RS232 Adapter
22
reading. For start, stop, soft-stop, dual adjusts, etc terminals 4 and 5 must be wired as shown.
Soft-start and soft-stop
Program the “Serial Link Number” in the communication page to a number between 1-247.
Disconnect control supply, so the new information will be loaded on the next time you turn it on.
Connect a communication line (twisted shielded pair) with its (+) to RVS-DN terminal 24 and (-) to terminal
23, connect the other end to your computer containing RS-485 communication port with MODBUS protocol.
Connect other RVS-DN terminals as follows:
1. Terminal 1, 3 and Control Supply.
2. Terminal 4 to Control Supply phase.
3. Terminal 9 to Neutral (or the Common for terminals 4,5,6).
4. During operation via communication link, terminal 5 is connected through the “Local-Remote”
selector switch to Control Supply and Start-Stop commands are controlled through the communication port. During operation in Local mode, terminals 5 and 6 are connected to Control Supply through the Start/Stop toggle switch.
5. Terminal 21 should be at ground potential.
WARNING
The host computer must be grounded when communicating with RVS-DN (unless using a Lap-Top Computer).
12
Wiring Diagrams - Communication
Operation via communication link with Local/Remote (selector switch)
Remote: via Communication link
Local: Soft-start, immediate-stop by
maintaining contact.
1 3 4 5 6 9
N
Remote
Local
Start
Stop
Soft-start and immediate stop
Same as the explanation for
Soft-start
and
soft stop
except for # 4:
4. During operation via communication link, terminals 4 and 5 are connected through the Local / Remote selector switch to Control Supply and Start-Stop commands are controlled through the communication port.
During operation in Local mode, terminals 4, 5 and 6 are connected to Control Supply through the Start-Stop toggle switch.
The communication (data retrieval and statistics) is active at all times!
Notes:
When control signals (start, stop, etc.) are required, terminals 4 and 5 have to be wired in accordance with the appropriate wiring diagram:
1. Maintained soft-start and stop
2. Maintained soft-start with immediate stop.
3. Soft-start/stop with immediate stop via push-button control.
,
Operation via communication link with Momentary contact (Push-Buttons) Soft-start, immediate stop, soft-stop.
1 3 4 5 6 9
Start
N
Immediate Stop
Soft Stop
Soft-start, Soft-stop and immediate stop
Same as the explanation for
Soft-start
and
soft-stop
except for # 2 and # 4:
2. Connect terminal 4 as described below.
4. During operation via communication link, terminals 4 and 5 are connected through the push buttons to Control Supply and Start-Stop commands are controlled through the communication port.
During normal operation mode, terminals 4 and 5 are connected to Control Supply through the Immediate-stop and soft-stop push buttons, soft­start command may be initiated by pressing the start push-button.
,
13
Wiring Diagrams – Diesel Generator
Starting from Diesel-Generator
Line
Contactor
Bypass
Contactor
N
Dip. Sw. S1
Off
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21
Start Stop
L1 L2 L3
End Of Acceleration
Dual adjust Generator Mode
L1bL2bL3
UVW
b
32 31 30 29 28 24 23 22
M
1. When starting from a Diesel-Gen., its voltage regulator (especially older type regulators) may be affected during the starting process, causing rapid voltage fluctuations (~350V to ~500V in 400V systems). In these rare cases, the voltage regulator must be upgraded – consult your Diesel-Gen. Supplier.
2. In most other cases where voltage, current or frequency is unstable – a special routine may be applied to overcome the starting difficulty. Use the procedure below:-
a. Set Dip. Switch # 3 to “On” (as shown above). b. Insert a contact (or jumper) between Control Supply and terminal 8 (Dual Adjust. Terminal) and close contact to
operate the Generator Mode. Dual Adjust LED will light when operating in Generator Mode.
c. Set Dual Adjust parameters to the values necessary for the application (e.g. faster acceleration, lower current limit,
etc.).
3. When operating from Main and alternatively from Diesel Gen. Set normal starting characteristics for Main and suitable parameters for the Diesel Gen. in the Dual Adjustment setting. When starting from Main, the primary settings (suitable for main starting) will be operative. Upon starting from Generator, close contact between Control Supply and Terminal 8 to operate on Generator Mode.
Note: Ensure that Diesel Gen. size is suitable (Diesel Gen. KVA should be at least is 1.35 motor KVA, consult
factory for all other cases).
WARNING
1. Motor can not run idle and must be loaded when operating in Generator Mode, otherwise vibration may occur during starting and stopping.
2. When using extended range, use maximum precaution to avoid motor or starter burnout.
3. Disconnect all other loads before starting for the first time to prevent damages due to voltage fluctuations.
4. Disconnect Power Factor Capacitors when operating with Diesel Gen.
5. Connect terminal 21 to terminals 3 and/or 9 only if these terminals are connected to neutral or at ground potential.
6. Only potential free contacts may be connected to terminal 21. Do not connect any voltage to terminal 21. Any connection of voltage to this terminal may disrupt soft-starter operation, and cause starter or motor damage.
14
Wiring Diagrams – Brake Motor & Insulation Test
Brake Motor
Insulation Test Wiring
Control supply before C1
1
C
L1 L2 L3
Immediate Contact
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
N
21
32 31 30 29 28 24 23 22
M
B
Upon starting, the “Immediate” contact is activated releasing the brake and allowing the voltage to ramp up (this contact will operate without a delay as long as “Immediate Relay ON delay” is set to 0 – see page 27). Upon stopping, the contact returns to its original position and the brake will close.
Note: Use an interposing relay when:
a. Brake voltage is different from
starter’s Control Input voltage.
b. Brake current is greater than
relay’s maximum Current (8A).
Caution: It is not recommended to use soft-
starters in Vertical hoists applications.
Control supply before C1
N
1
C
L1 L2 L3
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
Insulation Alarm
21
29 28 27 26 25 24 23 22
M
Few conditions must exist for the Insulation circuitry to operate, hence:
1. “On” and “Stop” LED’s must be ON.
2. The series contactor has to be “Open”.
3. Motor and starter must be properly grounded.
4. “External Fault” (terminal 19) can not be used.
Note: The Insulation circuitry begins operation
after 120 seconds.
15
Internal Settings
Plug to
Power unit
Transformer
Power Supply
Board
Fan Control Jumper
Fan Control
Starter’s fan(s) can be controlled by in internal jumper. It is recommended to use continuous operation as default.
ABC
Relay
123
N
Continuous operation
(default connection) – The internal jumper is connected to terminal A. Fan(s) will operate continuously as long as Control Supply is connected.
External Control
- Connect the jumper to terminal B Connect terminal 2 to Control Supply through an external contact. Fan(s) will operate when the
external contact closes and stop when it opens.
Automatic operation
– Connect the jumper to terminal C. Fan(s) will operate automatically for a few minutes after start. The fan(s) will stop automatically a few minutes after stop signal.
WARNING
1. The starter is supplied with the internal jumper connected to terminal A, for continuous operation. If changed, it is the Customer’s responsibility
to operate the
Fan(s).
2. Use only when by-pass contactor is utilized.
Insulation
Board
Dip Switch
Main Board
Communication
Board
Built-in memory systems
FanInternal Jumper
The RVS-DN incorporates 3 memory systems:
EPROM A read-only, non-volatile memory, containing factory set parameters (default) that cannot be changed.
EEPROM
A read/write, non-volatile memory, where field adjusted parameters, statistical and fault data are saved and stored.
RAM A read/write memory containing parameters loaded from the EEPROM which can be changed from the keypad. These parameters are stored only as long as Control Supply is connected.
Memory system operation
1. When Control Supply is switched on, the RAM is automatically loaded from the EEPROM and parameters are displayed on the LCD.
2. Parameters can now be modified from the keypad (if starter is in one of the operating modes and software lock is open – Dip Sw. 8 open).
3. Start Parameters can be modified during starting process and will immediately affect the operation. For example, if Current Limit is set too low and motor does not accelerate to full speed, increasing Current Limit setting will immediately affect starting process. This enables selection of the optimal starting characteristics. After completion of the adjustments, parameters should be stored in the EEPROM. Storing new parameters is possible at the end of each Mode Page by pressing Store key after “Store Enable” is displayed on the LCD.
16
Internal Settings
Inside Delta Motor Connection Mode
Allows connection of the RVS-DN inside the Delta. Current is reduced by 1.73 (3), namely for an 800A motor the standard selection will be an 820A soft­starter. “In the Delta”, the calculation will be 800 / 1.73 = 460A, hence, for a 800A motor, a 460A “Inside Delta” starter is selected. Programming via first window in “Main Parameters”. Selectable options are: either “Line” or “Inside Delta”. See Appendix for “Inside Delta” details and motor connection diagram.
Dip Switch settings The Dip Switch, containing eight separate switches, is located under the front cover of Control Module (in sizes B-F) and under the Display unit (in size A). When necessary, carefully open the front panel and set the switches as required.
Note: All switches are factory set in OFF position.
No Switch Function Switch Off Switch On
1 Display Format Minimized Maximized
2 Tacho feedback Disabled Enabled
3 Main / Generator Main Generator
4 Must be Off
5-6 LCD-language
selection
7 Special settings -
keep in Off position
8 Software lock Open Locked
Switch # 1 – Display Modes
For operation convenience, there are two display modes, Maximized – Display of all possible parameters. Minimized – Display of pre-selected parameters.
Setting Dip Sw. # 1 to Off will minimize the LCD displays.
Maximized mode
Switch 1 – On Display only Main parameters Start parameters Stop parameters Dual adjustment Energy save parameters Slow speed parameters Fault parameters I/O programming Communication parameters Statistical data
Dip Switch
Off
1 2 3 4 5 6 7 8
See table
Disabled Enabled
Minimized mode
Switch 1 – Off Display only Main parameters Start parameters Stop parameters Statistical data
Switch # 2 – Tacho feedback (0-10VDC)
Set Dip Sw. # 2 to On, when using Tacho feedback.
Note: To operate tacho feedback – consult factory for specific settings for each application.
Switch # 3 – Main / Generator control
When starting from a diesel – generator supply, starting process can sometimes terminate due to instability of the supply system.
Set Dip Sw. # 3 to On, special starting characteristics, suitable for Diesel Generator supply – with unstable voltage & frequency, becomes operative. Closure of Dual Adjustment contact (terminal 8) operates the special starting characteristics.
When operating from mains and alternatively from diesel generator, set normal starting characteristics for mains and suitable parameters for the Diesel Generator (for example faster acceleration, lower current limiting, etc.) on Dual Adjustment setting.
WARNING
When operating in Generator Mode, motor must be loaded, otherwise, vibration may occur during starting and stopping.
Switches # 5, 6 – Language Selection
Language English Off Off French Off On German On Off Spanish On On
Switch # 7 – Special settings – consult factory
When using extended Soft-Starter range, apply maximum precautions to avoid motor or starter damage.
Switch # 8 – Software Lock The software lock prevents undesired parameter modification.
When keys, the LCD displays “Unauthorized Access”.
Switch 5 Switch 6
WARNING
locked
, upon pressing Store, or
16
Start & Stop Parameters
p
Pump Control – Start Curves
Induction motors produce peak torque of up to 3 times the rated torque towards the end of starting process. In some pump applications, this peak may cause high pressure in the pipes.
The RVS-DN incorporates 4 different starting curves:
Start Curve 0 – Standard curve (Default). The most stable and suitable curve for the motor, preventing prolonged starting and motor overheating.
Start Curves 1, 2, 3 – During acceleration, before reaching peak torque, the Pump Control Program automatically controls the voltage ramp-up, reducing peak torque.
Time < t1
DOL
1!! 2!! 3!!
0
Speed
Slight time increase smoothes the Peak
Motor Voltagae
Un
Un
80%
0.1 - 1 Sec.
Time
Time > t1
eed RPM
S
Time
+10Vdc
+10Vdc
TorqueVoltagae
Choice of three pump control acceleration curves 0, 1!!, 2!!, 3!!
Start Curve 4 (Torque) – Torque Controlled acceleration, provides a smooth time controlled torque ramp for the motor and the pump.
Torque
Tn
IV
Linear Torque incr ease
Time = t1
Conditions
Ideal
Peak over speed (Torque) acceleration
Note: Always starts with Start Curve 0. If
towards end of acceleration, peak torque is too high (pressure is too high), proceed to Curve 1, 2, 3 or 4 if necessary.
Tacho Feedback, 0-10VDC (Optional)
Provides linear acceleration and deceleration curves according to rpm feedback. 12 tacho gain levels can be selected for closed loop control starting and stopping.
Consult factory for additional
Note:
information.
Pulse Start
Intended to start high friction loads, requiring high starting torque for a short time. A pulse of approx. 80% Un without Current Limit is initiated to break the load frees. Pulse duration is adjustable, 0.1 – 1 sec.
After this pulse, the voltage is ramped down to Initial Voltage setting, before ramping up again to full voltage according to Start Parameters settings.
Initial Voltage
Determines motor’s initial starting torque (the torque is directly proportional to the square of the voltage). Range: 10-50% Un (consult factory for extended range). This adjustment also determines the inrush current and mechanical shock. A setting that is too high may cause high initial mechanical shock and high inrush current (even if Current Limit is set low, as the
Initial Voltage setting overrides Current Limit setting).
A setting that is too low may result in prolonged time until motor
100%
U%
begins to turn. In general, this setting should ensure that the motor begins turning immediately
after
start signal.
50%
10%
Current Ramp (Initial Current)
Determines initial Ramp-Up starting Current. When desired, increase Initial Voltage to Max. (50% or 80% respectively). The LCD displays “Initial Current” and the starter will linearly Ramp Up the current following the desired acceleration time. Range: 100-400%
Current limit
Determines motor’s highest current during starting. Range 100-400% of FLA setting (consult factory for extended range). A too high setting will cause greater current drawn from main and faster acceleration.
A setting that is too low may prevent motor from completing acceleration process and reaching full speed. In general, this setting
I%
400%
should be set to a high enough value in order to prevent stalling.
100%
Note: Current limit is not operating during Run and Soft stop.
Acceleration Time
Determines motor’s voltage ramp­up time, from initial to full voltage.
U%
100%
Range 1-30 sec. (consult factory for extended range). It is recommended to set Acceleration Time to the minimum acceptable value (approx.
1
5 sec).
30 sec
Notes:
1. Since Current Limit overrides Acceleration
Time, when Current Limit is set low, starting time will be longer than the preset acceleration time.
2. When motor reaches full speed before voltage
reaches nominal, Acceleration Time setting is overridden, causing voltage to quickly ramp­up to nominal.
3. Using starting curves 1, 2, 3 prevents quick
ramp up.
18
Start & Stop Parameters
Maximum Start Time
The maximum allowable starts time, from start signal to end of acceleration. If voltage does not reach full voltage during this time (for example, because of low Current Limit setting), the starter will trip the motor. LCD displays “Long Start Time” message. Range: 1-30 sec (consult factory for extended range).
Contact Delay
Time delay for End of Acceleration Contact, after completion of starting process. Range: 0-120 sec.
Pump Control – Stop curve
Intended to prevent Water Hammer during stopping. In pump applications, load torque decreases in square relation to the speed, thus, reducing the voltage will reduce torque and motor will smoothly decelerate to a stop.
The following Stop curves can be selected:
Stop curves 0 – Standard Default curve – voltage is linearly reduced from nominal to zero.
Stop curves 1, 2, 3 –
In some pump applications, when pumping to a higher level, a considerable part of the torque is constant and does not decrease with speed. It may happen that during Soft Stop, when voltage is decreasing, motor torque quickly falls below load torque and motor will abruptly stall instead of smoothly decreasing speed to zero.
Stop Curve 4 (Torque) – Provides Linear Controlled torque deceleration ramp, from Ta (Actual Torque), thus, eliminating stall conditions.
Always use Stop Curve 0. If motor stalls
Note:
quickly instead of slowly decreasing its speed, select Stop Curve 1, 2, 3 or 4 if necessary.
Deceleration Time – Soft Stop
U%
100%
2
urves 1, 2, 3 designed to prevent tall condition
Voltage Deceleration
Ta
Used for controlled deceleration of high friction loads. Determines motor’s voltage ramp down time. Range: 1-30 sec. (consult factory for extended range).
30sec
0
1!! 2!!
3!!
Torque
Increased time
smoothes the Peak
Time > t1
t
Note: When the starter operates with a by-pass contactor, Soft Stop initiation opens the End Of Acceleration contact, tripping open the by-pass contactor. Load will then be transferred to the RVS­DN and voltage begins ramping down.
Final Torque
Determines torque towards end of Soft Stop. If current is still flowing
U%
100%
after speed is softly reduced to zero, increase Final Torque setting.
30 sec
2
Dual Adjustment
A secondary set of parameters, used for varying loads, two speed motors, etc. Connecting Control Supply to Terminal 8 makes transfer to Dual Adjustment settings.
IV - Initial Voltage 10-50% of Un. CL - Current Limit 100-400%
100%
100%
U%
of motor’s FLA AT - Acceleration Time 1-30 sec. DT - Deceleration Time 1-30 sec. FLA- Motor Full Load Ampere.
Note: Consult factory for extended range.
40%
20%
2- -302- -10
sec
Energy Save
Activated when motor is lightly loaded for extended periods of time. Supply voltage the motor decreases (lowering the rotating magnetic field intensity), thus, reducing the reactive current and copper/iron
U Starter
Un
In
I Motor
0.5
losses. Note: When using Energy Save system, harmonics should be taken into consideration. At maximum Energy Save settings, the 5
th
harmonic may exceed
30% of the RMS current value.
ATTENTION
To meet CE standards while in Energy Save mode,
the user may be required to employ additional
mitigation methods.
Slow Speed Torque
Determines the torque while motor is operating at 1/6 of nominal speed. Range: 1-10.
Maximum Slow Speed Time
Determines the maximum allowable operation time at slow speed. Range: 1-30 sec. (consult factory for extended range).
WARNING
Operating current while motor is running at 1/6 speed
is much higher than nominal current and motor
ventilation is much weaker. Special precaution must
be taken to prevent overheating when running the
motor at slow speed for long periods of time.
19
Motor & Starter Protection
Motor Insulation (option)
Operational when motor is not running (the motor must be galvanically isolated). Two distinct level can be set for Alarm and Trip functions.
Alarm level, Range: 0.2 – 5 M
Trip level, Range : 0.2 – 5 M
When insulation decreases below Alarm Level set point for more than 120 sec., the LCD displays ALARM: INSULATION LEVEL and shows the value in M. The Fault LED flashes and the Insulation Alarm Relay is activated. Alarm signal will disappear automatically 60 seconds after insulation level returns to normal. Trip does not reset automatically.
When insulation decreases below Trip Level set point, the LCD displays TRIP: INSULATION LEVEL and shows the value in Mohm. The fault LED illuminates and Fault Relay is activated.
Motor Thermistor (option – Analogue Card)
Measures motor’s thermistor resistance and trips the starter when level decreases below set level. Only one of the optional cards can be fitted in one starter, Analogue card or Insulation card. Thermistor Type: Selectable PTC or NTC. Trip Level, range: 1 – 10 K Delay: Factory preset time delay of 2 sec.
Too Many Starts
Combines three parameters:
Number of Starts Determines maximum allowable number of starts. Range: Off, 1-10 starts.
Start Period
Time period during which Number of Starts is being counted. Range: 1-60 min.
Start inhibit
Determines time period during which starting is disabled after “Too many starts” trip. Range: 1-60 min
Note: Motor can not be started before “Start
Inhibit Time” has elapsed. Trying to start the motor during this time delay will result in LCD displaying “Wait Before Rst: ___ MIN.
Long Start Time – (Stall Protection) Trips the starter if motor does not reach full speed during “Maximum Start Time”. Range: 1-30 sec. (consult factory for extended range).
Over Current Shear-pin
Becomes operational when starter is energized and has two Trip functions:
Trips the starter when current exceeds 850% of starter’s FLC setting in 1 cycle or less.
During run (after RUN LED is lit) – Trips the starter when current exceeds set level and time delay.
Range: 200 - 850% of motor FLA setting Delay: 0 – 5 sec. (0=up to 200 mSec)
Note: The O/C Shear-Pin is not intended to replace the
fast acting fuses, required to protect the thyristors (see fuse table in the appendix).
Overload (O/L)
Inverse time electronic overload becomes operational when RUN LED is lit.
t
The O/L circuitry incorporates a Thermal Memory Register calculating heating minus
10
dissipation of the motor. The starter trips when the register fills up. The thermal register resets itself 15 minutes after
1
I%
500115
motor stops.
Adjustable between 75-150% of motor’s FLA and factory set at 115%. Tripping time at 500% FLA is adjustable between 1-10 sec. Allowing trip curve selection.
ATTENTION
Overload protection is not operative during soft-start or soft stop.
Under Current
Operational when motor is running. Trips the starter when motor current drops below set Under Current Trip (UCT) for a time longer than Under Current Delay (UCD). Under Current Trip, Range: 0=Off, 20-90% of FLA Under Current Delay. Range: 1-40 sec.
Under Voltage
Becomes operational only after start signal. Trips the starter when main voltage drops below the set Under Voltage Trip (UVT) for a time longer than Under Voltage Delay (UVD). Under Voltage Trip, Range: 120-600V (phase to phase) Under Voltage delay, range 1-10 sec.
Note:
When voltage drops to zero (full voltage outage) the starter will trip immediately, overriding the delay.
20
Motor & Starter Protection
Over Voltage
Becomes operational only after start signal. Trips the starter when main voltage increases above the set Over Voltage Trip (OVT) Level for an adjustable period of time longer than Over Voltage Delay (OVD). Range: 150 – 750V (phase to phase) Over Voltage Delay, Range: 1-10 sec.
Phase loss (and Under / Over Frequency)
Becomes operational when starter is energized and protects motor from single phasing. Trips the starter when 1 or 2 phases are missing for more than 1 sec.
Starter will also trip when frequency is less than 40 or greater than 65Hz.
Note: Phase loss might not be detected in
lightly loaded motors.
Phase Sequence
Becomes operational when starter is energized, provided this protection has been activated (Fault Enable – Phase Sequence Protection, see Fault Parameters). Trips the starter when phase sequence is wrong.
Long Slow-Speed Time Trips the starter if motor operates at slow speed for a time longer than “Maximum Slow Speed Time” Range: 1-30 sec. (consult factory for extended range).
Note: Operate motor at slow speed for the
minimum possible time to prevent overheating. When motor operates at slow speed, it draws higher than nominal current (depending on Slow-Speed Torque adjustment) thus, motor and starter may overheat.
Wrong Connections
Become operational after start signal. Trips if motor is not properly connected to starter’s Load terminals, or when: Internal disconnection in the motor winding is detected.
Shorted SCR
Trips the starter in case one or more SCRs have been shorted.
Heatsink Over Temperature
Thermal sensors are mounted on the heatsink and trip the starter when temperature rises above 85ºC.
WARNING
The over temperature protection is designed to operate under normal conditions e.g. in the event of extended low overload, insufficient ventilation – fan stoppage or air flow blockage. Incorrect starter selection or operation frequents starting at max. conditions, or repeated starting under fault conditions can cause SCRs to overheat and fail
the heatsink reaches 85°C to trip the thermal
before sensors.
External Fault
Becomes operational when starter is energized, trips the starter when an External Contact closes for more than 2 sec.
WARNING
Do not use External Fault when terminal 21 is not connected to ground.
Fault and Reset
When any of the above protection (except Insulation Alarm) operates, the starter locks in a fault condition, disabling thyristors firing. Fault LED lights up, fault description is displayed on the LCD and Fault Relay operates.
For local resetting, after fault has been
removed, press Reset key.
Remote resetting can be done through
terminals 7 or 8 (see I/O Programming).
When Fault occurs, followed by a voltage outage, fault condition is latched and reappears upon voltage restoration.
Note: Resetting is not possible
Auto Reset
Under-voltage and Phase-loss, faults can be set to Auto-Reset (see Fault Parameters). The starter will reset itself 60 sec. after voltage was fully restored provided no start signal exists.
Note: Auto- Resetting is not possible exists.
as long as Start signal exists.
as long as Start signal
21
Front Panel
LED's Arrangement
On
Lights up when Control Supply voltage is connected to the starter.
Start
Lights up during start process, indicating that motor supply voltage is ramping up.
Run
Lights up after completion of starting process, indicating that motor is receiving full voltage. Flashes during slow speed operation.
S. Stop
Lights up during Soft Stop process, indicating that motor supply voltage is ramping down.
Stop
Lights up when motor is stopped.
E. Save / Slow
Lights up when “Energy Save” is in operation. Flashes when motor is running at Slow Speed.
D. Adj. / Rev
Lights up when Dual Adjustment is in operation. Flashes when motor is running in the Reverse direction at slow speed.
Fault
Lights up upon operation of any of the built-in protection. Flashes when Insulation Alarm (optional) relay is activated
Keypad
Store
Reset
Note: Pressing Mode or Select continuously
Provides selection of the following modes: (When Dip Switch 1 is in “On”, gray zone shows list of maximized parameters).
Display Only
Main Parameters
Start Parameters
Stop Parameters
Statistical Data
Dual-Adjustment Parameters
Energy Saver and Slow Speed
Parameters
Fault Parameters
I/O Programming Parameters
Communication Parameters
increases parameters changing speed.
To select function within each mode.
To increase adjusted parameters. Press momentarily or continuously.
To decrease adjusted parameters.
To save modified parameters.
To reset the starter after fault has been removed, canceling the displayed fault and allows restarting.
22
Front Panel
LCD Arrangement
Two lines of 16 alphanumeric characters, displaying: System Parameters, Starter Settings, Motor Current, Insulation and Fault Identification. Four selectable languages – English, French, German and Spanish (see Dip Switch setting – page 19).
CURRENT LIMIT 390%
Upper line displays functions.
Lower line displays setting and measured
values.
Parameter Review and modifiation
1. Press mode key several times until you reach the required Mode page.
2. Press Select to review parameters of this Mode.
3. When reaching the required parameter, modifying its values with or keys.
4. To store the new parameters, press Select until “Store Enable” appears and then press key
Pressing
Note:
continuously increase parameter change speed.
Mode
or
Select
Store
keys
Mode pages
Upon initiation of the starter, the LCD displays motor’s operating current.
% OF MOTOR FLA 98 %
When Dip Sw.#1 is set to On (see Display Options – page 19), by pressing the Mode key all Mode pages can be reviewed. When Dip Sw. # 1 is set to Off, the following Mode pages marked ** will not appear.
MAIN PARAMETERS
START PARAMETERS
STOP PARAMETERS
DUAL ADJUSTMENT
**
**
**
**
PARAMETERS
EN. SAVE & SL. SPD PARAMETERS
FAULT PARAMETERS
I/O PROGRAMMING PARAMETERS
COMM. PARAMETERS
STATISTICAL DATA
23
Display Mode
In this mode, parameters cannot be adjusted
% OF MOTOR FLA
Displays operating current as a percentage of
motor FLA.
Note: Starter’s Default Display, after pressing
Mode or Select, a time delay is initiated. Following the delay, the LCD defaults back to display “% OF MOTOR FLA”.
Press Select – When Insulation card is
incorporated
MOTOR INSULATION
52.8 Mohm
Displays motors winding insulation level
Press Select – When Analogue card is
incorporated
THERMISTOR RES.
3.1 Kohm
Displays motor thermistor’s resistance
When option cards are not incorporated, the LCD displays
OPTION CARD
Not installed
Press Select
ANALOGUE OUTPUT
Normal
Normal- Analogue output increases when
current increases.
Inverted- Analogue output decreases when
current increases.
Range: Normal, Inverted.
This concludes the DISPLAY Mode.
Pressing Select key at this point returns to the first display.
Obtaining “Default Parameters”
Press Mode and keys simultaneously, the LCD will display “Store Enable Default Parameters”.
Press Store + Mode keys simultaneously.
CAUTION
Obtaining Default Parameters erases all previously modified settings and requires the operator to program FLC and FLA values again.
24
Parameter Settings
Press Mode
To advance to:
MAIN PARAMETERS
Press Select
Press (see Appendix for: Inside Delta description).
Press Select
Press (see RVS-DN ratings – Page 3).
Press Select
Press Range: 50-100% of “STARTER FLC”
Press Select
Press Range: 0 = OFF, 20-90% of FLA
Press Select
Press Range: 1-40 sec.
Press Select
Press Range: 200 – 850% of FLA
Press Select
Press Range: 0.5-5 sec.
Press Select
Press Range: 75-150% of FLA
keys to set Starter’s connection type.

CONNECTION TYPE
LINE / INSIDE DELTA
keys to set Starter’s FLC.

STARTER FLC
105 AMP

keys to set motor’s FLA
MOTOR FLA
105 AMP
keys to set Under Current Trip.

UNDERCURR. TRIP
0% OF FLA

keys to set under Current Trip Delay.
UNDERCURR. DELAY
10 SEC.
keys to set Over Current Shear-pin.

O/C – SHEAR PIN
850% OF FLA

keys to set O/C Shear-pin Delay.
O/C DELAY
1.5 SEC.
keys to set Overload Trip Current.

OVERLOAD TRIP
115% OF FLA
Press Select

Press at 500% of motor FLA Range: 1-10 sec.
Press Select
Press Range: 120-600V
Press Select
Press Range: 1-10 sec.
Press Select
Press Range: 150-750V (can not be set below Under Voltage).
Press Select
Press Range: 1 – 10 sec.
Press Select To store selected parameters, press Store key.
Note: Storing selected parameters is possible
When parameters have been correctly stored, the LCD will read:
This concludes MAIN PARAMETER settings.
Pressing Select key after “Data Saved OK” returns to the first display in this mode.
Note: In case of a failure in parameter storing,
Press Select button again until “Store Enable Main Parameters” returns. Then press Saved OK” appears.
25
keys to set Overload Delay
OVERLOAD DELAY
4 SEC – AT 5 FLA

keys to set Under Voltage Trip.
UNDERVOLT. TRIP
300 VOLT
keys to set Under Voltage Trip Delay

UNDERVOLT. DELAY
5 SEC.

keys to set Over Voltage Trip.
OVERVOLT. TRIP
480 VOLT.

keys to set Over Voltage Trip Delay.
OVERVOLT. DELAY
2 SEC.
STORE ENABLE MAIN PARAMETERS
only when Stop or Run LED are lit. Storing cannot be done when Start, Soft Stop, Slow Speed, Energy Save, or Fault LED are lit.
DATA SAVED OK
the LCD displays:
STORAGE ERROR
key until “Data
Store
Parameter Settings
Press Mode
To Advance to:
START PARAMETERS
Press Select
SOFT START CURVE
0 (STANDARD)
Then press 0 (Standard) = Standard Curve 1!! = Pump Control Curve # 1 2!! = Pump Control Curve # 2 3!! = Pump Control Curve # 3 4 (Torque) = Torque Control Pump Curve # 4
When setting Dip sw. # 2 On for Tacho Mode
Press
Then press 0 = Minimum gain tacho, control 1!! = Second level tacho gain 2!! = Third level tacho gain 3!! = Fourth level tacho gain 4!! = Fifth level tacho gain 5!! = Sixth level tacho gain
Note: Tacho Feedback is operational in its basic
Press Select,
Press Range: 0-1 sec. (Pulse level at 80% Un)
Press Select,
Press Range: 10-50% of Un.
When Up Arrow key is pressed at 50% Initial Voltage, the display will change to the current curve and show:
At this point, the choice of current will determine the Initial Current at the beginning of the starting curve. Range: 100-400% of Motor FLA
Press Select,
Press
, following Curve #4 message changes to:
form. Additional curves except for the basic linear curve are optional. Consult factory for correct tacho selection and mechanical installation.



keys to set Soft Start Curve:

START TACHO. GAIN
0 (MIN. GAIN)
keys to set Tacho gain:

keys to set Pulse Start Time.
PULSE TIME
0 SEC.
keys to set Initial Voltage.
INITIAL VOLTAGE 30%
INITIAL CURRENT
100%
keys to set Current Limit
Range: 100-400% of motor FLA.
CURRENT LIMIT 400% OF FLA
Press Select
Press Range: 1-30 sec.
Press Select
Press Range: 1-30 sec.
Press Select
Press (During STARTS PERIOD below). Range: 1-10, Off.
Press Select
Press Range: 1-60 min.
Press Select
Press Range: 1-60 min.
Press Select
Press Acceleration Contact. Range: 0-120 sec.
Press Select To store selected parameters, press Store key
When parameters have been correctly stored, the LCD reads:
This concludes START PARAMETERS setting.
keys to set Acceleration Time

ACC. TIME
10 SEC.

keys to set Maximum Start Time
MAX. START TIME
30 SEC.
keys to set Number of Starts permitted

NUMBER OF STARTS
10

keys to set Number of Starts Time Period
STARTS PERIOD
30 MIN.
keys to set Start Inhibit Period

STARTS INHIBIT
15 MIN.

keys to set Time Delay for End of
RUN CONTACT DEL.
5 SEC.
STORE ENABLE START PARAMETERS
DATA SAVED O.K.
26
Parameter Settings
Press Mode
To advance to
STOP PARAMATERS
Press Select
Then press 0 = Standard Curve 1!! = Pump Control Curve # 1 2!! = Pump Control Curve # 2 3!! = Pump Control Curve # 3 4 = Pump Control Curve 4 (Torque Control)
When setting Dip sw # 2 On for Tacho Mode,
Press
Then press 0 = Minimum gain tacho, control 1!! = Second level tacho gain 2!! = Third level tacho gain 3!! = Fourth level tacho gain 4!! = Firth level tacho gain 5!! = Sixth level tacho gain
Note: Tacho Feedback is operational in its basic
Press Select
Then press Range: 1-30 sec.
Press Select
Then press Stop. Range: 0 – 10 (0 = min., 10 = max.)
Press Select
To store selected parameters, press
When parameters have been correctly stored the LCD displays:
This concludes STOP PARAMETERS setting.
curve message changes to:
form. Additional curves except for the basic linear curve are optional. Consult factory for correct tacho selection and mechanical installation.
keys to set Soft Stop Curve

SOFT STOP CURVE
0 (STANDARD)
STOP TACHO GAIN
0 (MIN. GAIN)

keys to set Tacho gain:
keys to set Deceleration Time.

DEC. TIME
10 SEC.

keys to set Final Torque during Soft
FINAL TORQUE
0 (MIN)
Store
STORE ENABLE STOP PARAMETERS
DATA SAVED OK
key
Press Mode
To advance to (only when Dip Sw. # 1 is set to ON):
DUAL ADJUSTMENT PARAMETERS
When selecting “Generator Mode” (Dip sw # 3 is On) the following display appears instead of the above.
D. ADJ: GENERATOR PARAMETERS
Press Select
keys to set DA: Initial Voltage.
Then press Range: 10-50% of Un.
Press Select
Then press Range: 100-400% of motor’s FLA.
Press Select
Then press Range: 1-30 sec.
Press Select
Then press Range: 1-30 sec.
Press Select
Then press Range: 50-100% of “STARTER FLC”
Press Select
To store selected parameters, press Store key
When parameters have been correctly stored, the LCD displays:
This concluded DUAL ADJUSTMENT PARAMETERS setting.

DA: INIT. VOLT.
30%

keys to set DA: Current Limit.
DA: CUR. LIMIT
400% OF FLA
keys to set DA: Acceleration Time.

DA: ACC. TIME
10 SEC.

keys to set DA: Deceleration Time.
DA: DEC. TIME
10 SEC.
keys to set DA: Motor FLA

DA: MOTOR FLA
105 AMP.
STORE ENABLE D.ADJ. PARAMETERS
DATA SAVED OK
27
Parameter Settings
Press Mode
Set Dip. Sw. # 1 ON, to advance to: Energy Save and Slow Speed Modes
EN. SAVE & SL. SPD PARAMETERS
Press Select

Then press Range: 0-10 (0 = min., 10 = max.)
Press Select
Then press Range: 1-10 (1 = min., 10 = max.)
Press Select
Then press Time. Range: 1-30 sec.
Press Select
To store selected parameters, press Store key
When parameters have been correctly stored, the LCD displays:
This concludes ENERGY SAVING / SLOW SPEED PARAMETERS setting.
keys to set Energy Saving Level.
SAVING ADJUST.
0 (MIN.)
keys to set Slow Speed Torque.

SLOW SPEED TORQ.
8

keys to set Maximum Slow Speed
MAX SLOW SP TIME
30 SEC.
STORE ENABLE EN. SAVE & SL. SPD
DATA SAVED OK
Press Mode
Set Dip. Sw. # 1 ON, to advance to:
FAULT PARAMETERS
Press Select
Then press Range: Yes / No
keys to set Phase Sequence trip.
PHASE SEQ. Y/N NO
Press Select
Then press

keys to set Insulation Alarm.
Range: Off, 0.2 – 5 M
INSULATION ALARM OFF
Press Select
Then press
keys to set Insulation Trip.
Range: Off, 0.2 – 5 M
INSULATION TRIP OFF
Press Select
Then press
keys to set Auto.Reset (for Under-
voltage and Phase-loss faults). Range: Yes / No.
AUTO RESET NO
Press Select
Then press
keys to set Thermistor Type.
Range: PTC, NTC.
THERMISTOR TYPE PTC
Press Select
Then press

keys to set Thermistor Trip Level.
Range: Off, 0.1 – 10 K, step: 0.1Kohn.
THERMISTOR TRIP OFF
Press Select
Then press
keys to set UNDER CUR. RESET
(for temporary Under-currents, in remote installations.) Range: 10-120Min./OFF.
UNDER CUR. RESET OFF
Press Select To store selected parameters, press Store key
STORE ENABLE FAULT PARAMETERS
When parameters have been correctly stored, the LCD displays:
DATA SAVED OK
This concludes FAULT PARAMETERS setting.
28
Parameter Settings
Press Mode
Set Dip Sw. # 1 ON, to Advance to:
I/O PROGRAMMING
Press Select
Then press Range: Energy Saver, Slow Speed, Reset
Press Select
Then press Range: Dual Adjustments, Slow Speed Reverse, Reset
Press Select
Then press Range: Fault, Fault - Fail Safe (Fail-Safe Logic - page
23)
Press Select
Then press Range: Immediate, Shear-Pin
Press Select
Then press Delay Range: Immediate 0-60 sec. / Shear-Pin 0-5 sec.
Press Select
Then press Delay Range: Immediate 0-60 sec. / Shear-Pin 0-5 sec.
Press Select
Then press Range: Normal, Inverted
Press Select
To store selected parameters, press Store key
When parameters are correctly stored, the LCD displays
This concludes I/O PARAMETER setting.
PARAMETERS
keys to set Terminal # 7 function
PROG. INPUT # 7
ENERGY SAVER

keys to set Terminal # 8 function
PROG. INPUT # 8
DUAL ADJUSTMENT
keys to set Fault Relay function
FAULT RELAY TYPE
FAULT

keys to set Immediate Relay function
IMM / S.PIN RELAY
IMMEDIATE
keys to set Imm / S. Pin Relay On
RELAY ON DELAY
0 SEC.
keys to set Imm / S. Pin Relay Off
RELAY OFF DELAY
0 SEC.
keys to set Normal or Inverted output
ANALOG OUTPUT
NORMAL
STORE ENABLE I / O PROG. PARAM.
DATA SAVED OK
Press Mode
Set Dip Sw. # 1 ON, to Advance to:
COMM. PARAMETERS
Communication is optional and operates only when starter incorporates this feature.
Note: When using communication and local
commands, the last command determines the function.
Press Select
Then press
keys to specify Communication
Protocol.
COMM. PROTOCOL
MODBUS
Range: Modbus, Profibus, Modbus-TCP
Press Select
Then press
keys to set Communication Baud
Rate. Range: 1200-9600 bps
BAUD RATE
9600
Press Select
Then press
keys to set Communication Parity
Check. Range: Even / Odd
PARITY CHECK
EVEN
Press Select
Then press
keys to set Communication Serial
Link Number. Range: 1-248 (for up to 32 starters on one twisted pair)
SERIAL LINK NO.
248 (OFF)
Note: If communication is not used, serial link
number must be set to 248 (Off)
Press Select
To store selected parameters press
Store
key
STORE ENABLE COMM. PARAMETERS
When parameters have been correctly stored, the LCD displays:
DATA SAVED OK
This concludes COMMUNICATION PARAMETERS setting.
29
Parameter Settings
Press Mode
To Advance to
Press Select
To store selected parameters, press Store key
Displays last starting time in seconds. (Time duration until motor’s current reached nominal)
Press Select
Displays the maximum current at last start.
Press Select
Displays motor’s hour counter since commencement or since “Statistical Data” was last reset.
Press Select
Displays the total numbers of starts since commissioning or since “Statistical Data” was last reset.
Press Select
Describes last fault.
Press Select
Displays the current at the last fault.
Press Select
Displays the total numbers of trips since commencement or since “statistical Data” was last reset.
Press Select
Displays historical event of the last 1-9 faults, by scrolling with the “
trips stored since commencement or since “Statistical Data” was last reset.
Press Mode to return to Display Only Mode
STATISTICAL DATA
-
-
****
LAST STRT PERIOD
NO DATA
LAST START MAX I
NO DATA
TOTAL RUN TIME 0 HOURS
TOTAL # OF START 0
LAST TRIP NO DATA
TRIP CURRENT 0% OF FLA
TOTAL # OF TRIPS 0
PREVIOUS TRIPS – 1…9 PHASE LOSS
” or “” arrows through the
% OF MOTOR FLA
Service Mode
Press Mode and keys simultaneously, the LCD displays:
Press Store
Default Parameters. All previously stored parameters will be erased. This also returns to “Display Only” Mode.
Or, to Reset Statistical Data:
Press Select
Press Reset
statistical data. This also returns automatically to Statistical Data Mode.
Press Select to see the software program version Displays program version
Or, for Factory Calibration:
Press Select
Read phase to phase mains voltage.
Press Select Reads current for factory calibration use only.
Press Select
Display goes back to Store Enable Default Parameters
To exit “Service Mode” press Mode + simultaneously.
NOTES:
Entering “Service Mode” is possible only
and
and
when Stop LED is On. A Start signal while in “Service Mode” exits from this mode.
STORE ENABLE DEFAULT PARAMET.
simultaneously to store factory
Mode
RESET STATISTICS
simultaneously to reset all your
Store
PROGRAM VERSION
STRT.DN-020797
VOLTAGE ADJUST.
XXX % VOLT
CURRENT ADJUST. XX% OF RVS FLC
STORE ENABLE DEFAULT PARAMET.
30
Start-Up Procedure
Note: It is necessary to connect a motor to load
terminals otherwise “Wrong Connection” Protection is activated. Other loads such as light bulbs, resistors, etc. may also cause “Wrong Connection” (Fault).
Start-up procedure with start-stop buttons
1. Connect Control Supply. On and Stop LEDs will lit.
2. Review all parameters with Mode and Select keys Set parameters as required.
3. If necessary, return to Default Parameters (see “Service Mode” page 33).
4. Connect mains voltage to starter’s line terminals.
5. Set LCD to show “MOTOR FLA” (% of motor FLA).
6. Press Start. If motor starts to turn shortly after Start signal, proceed to Para 7. If not, increase “Initial Voltage” setting and start again. When, upon starting, initial inrush current and mechanical shock are too high decrease “Initial Voltage” settings and proceed to Para
7.
7. Motor begins to turn. If speed accelerates smoothly to nominal, proceed to Para 8. If current during acceleration is too high, decrease “Current Limit” setting and proceed to Para 8. If motor speed does not accelerate to nominal, increase Current Limit setting.
8. Press Stop and wait until motor stops.
9. Slightly increase Initial Voltage and Current Limit settings to allow for load changes.
10. Press Start and see that motor is Acceleration Time to full speed is as required.
11. If acceleration time is too short, increase “Acceleration Time” setting.
12. Check total starting time and set Max. Start Time to approx. 5 sec. Longer than the maximum time required to complete the starting process.
Examples of starting curves
Light Loads-Pumps, Fans, etc.
Initial Voltage (IV) – set to 30% (Factory Default) Current Limit (CL) – set 300% Acceleration Time (AT) – set 5 sec.
U%
100%
50%
30%
10%
5
Voltage quickly increases to the Initial Voltage value and then gradually ramps-up to nominal. Current simultaneously and smoothly increases to reach Current Limit setting or less, before smoothly decreasing to the operating current. Motor speed will accelerate to full speed quickly and smoothly.
High Inertia Loads – Fans, Centrifuges, etc
Initial Voltage – set 50% Current limit – set 400% Acceleration time– set 20 sec
U%
100%
50%
10%
20
Voltage and current increase until current reaches “Current Limit value”. The voltage is held at this value until motor is close to nominal speed, then current will begin to decrease. The RVS-DN continues to ramp-up the voltage until reaching nominal. Motor speed smoothly accelerates to full speed.
Special starting – Using Dual Adjustment
Using two starting characteristics, the starter will accelerate to DA-IV reaching 100% current limit. After Tx (Imm. Relay delay) voltage to terminal 8 is switched off, using the standard characteristic to complete acceleration. Useful to prevent initial high acceleration. (Applications: Submersible pumps, Drum fans with resonating frequency, etc). Dual Adj. Par. Standard Par. Initial Voltage 10% 25% Acceleration Time tl = 2-30 sec t2 = 2-30 sec Current Limit 200% 300-400% Imm.Rel. ON delay Tx = 1-60 sec. -----
I% 600% 400%
300%
100%
t
t
I% 600%
400%
100%
t
t
U%
100
25
10
t
t
t
2
1
31
Pump Control
Choosing a suitable Pump Curve (centrifugal Pumps)
Starting Curve
1. Adjust main parameters as necessary (FLA, FLC, etc..)
2. Set Starting Curve, Acceleration Time, Current Limit, and Initial Voltage to their default values (curve 0, 10 sec., 400% and 30% respectively).
3. Start the pump while watching the pressure gauge as the pump starts and look for overshooting (“Pressure Surge”) of the gauge needle above the target pressure. In case of over pressure, choose a peak torque reduction curve (Pump Control curve 1!).
4. Set Start Curve 1!, increase Acceleration Time to 15 sec. and reduce Current Limit to 350%. Start the pump and watch the pressure gauge while the pump starts.
5. In most cases, overshooting is reduced, if the overshoot persists, increase Acceleration time to 25 sec. (confirm with motor manufacturer) and
operating area
try again.
6. If the overpressure persists, increase Starting Curve setting to 2!, 3!, 4 (Torque) or 5 (Current Ramp) if necessary. Each increase in Starting Curve setting will reduce the Peak Torque, thus, reducing the overpressure and preventing the “Pressure Surge” during start.
7. To increase starting time above these maximums, employ “Special Starting” (page
32) with these techniques or incorporate Torque and Current characteristics.
Stopping Curve
1. Adjust main parameters as necessary (FLA, FLC, etc..)
2. Set Stop Curve and Deceleration Time, to their default values (curve 0, 10 sec., respectively).
3. Stop the pump, watching the pressure gauge and the check valve as the pump stops. Look for undershooting/overshooting (“Water Hammer”) of the gauge (which may abruptly stops the pump and the motor).
4. Select Stop Curve 1, increase Deceleration time to 15 seconds. Stop the pump and watch the pressure gauge and the rate of closing of the check valve as the pump stops. Abrupt stopping of the pump and motor will cause a loud audible noise emitted from the check valve.
5. In most cases, “Water Hammer” is reduced. If the “Water Hammer” persists, increase the time to 25 seconds (confirm with motor manufacturer) and try again.
6. If the “Water Hammer” persists, increase Stop Curve setting to 2!, or 3!. Each increase in stop curve will reduce the abrupt stop of the pump, thus, preventing the “Water Hammer” phenomenon.
7. If the extent of the water hammer was not reduced, increase to stop
curve # 4 to employ Torque Controlled deceleration.
Final torque during soft-stopping a pump motor
1. While decelerating, the check valve may close before Deceleration Time has elapsed, thus, allowing current to flow through stator winding causing unnecessary heat. Select Final Torque sensitivity to 1, and stop the pump, confirm that current stopped flowing through the motor shortly after the check valve closed.
2. If current still flows more than 3-5 seconds after check valve closure, increase Final Torque up to 10 if necessary, to stop current flow earlier.
Pump control during
TorqueVoltagae
Peak Torque
Voltage Deceleration
DOL
Speed
0 1 2
3 4
5
Voltage Deceleration
4
0 1
2
3
FT10
4 5
Sec
SecFT1
32
Menu Description
MODE
UPON INITIATION
PARAMETERS DISPLY
% OF MOTOR FLA MAIN PARAMETERS
SELECT
MODE
MODE
MODE
MODE
PAGE 1 PAGE 2 PAGE 3 PAGE 4
START
PARAMETERS
SELECT
SELECT
STOP
PARAMETERS
SELECT
DUAL ADJUSTMENT
PARAMETERS
SELECT
TO REVIEW ALL PARAMETERS
PRESS KEYS TO CHANGE PARAMETER VALUE
% OF MOTOR FLA xx %
MOTOR INSULATION
52.8 Mohm
THERMISTOR RES.
3.1 Kohm
OPTION CARD Not Installed
When DIP SW# 2 is set ON When DIP SW# 3 is set ON
CONNECTION TYPE LINE / INSIDE DELTA
STARTER FLC 105 AMP
MOTOR FLA 105 AMP
UNDERCURR TRIP 0% OF FLA
UNDERCURR. DELAY 10 SEC.
O/C – SHEAR PIN 850 % OF FLA
O/C DELAY
0.5 SEC.
OVERLOAD TRIP 115% OF FLA
OVERLOAD DELAY 4 SEC – AT 5 FLA
UNDELVOLT. TRIP 300 VOLT
UNDERVOLT. DELAY 5 SEC.
OVERVOLT. TRIP 480 VOLT.
OVERVOLT. DELAY 2 SEC.
STORE ENABLE MAIN PARMETERS
SOFT START CURVE 0 (STANDARD)
START TACHO GAIN O (MIN. GAIN)
SOFT START CURVE 0 (STANDARD)
SOFT START CURVE 1 !!
SOFT START CURVE 2 !!
SOFT START CURVE 3 !!
SOFT START CURVE 4 (TORQUE)
PULSE TIME 0 SEC.
INITIAL VOLTAGE 30%
INITIAL CURRENT 100-400%
CURRENT LIMIT 400% OF FLA
ACC. TIME 10 SEC.
MAX. START TIME 30 SEC.
NUMBER OF STARTS 10
STARTS PERIOD 30 MIN.
START INHIBIT 15 MIN.
RUN CONTACT DEL. 5 SEC
TORE ENABLE START ARAMETERS
SOFT STOP CURVE 0 (STANDARD)
STOP TACHO GAIN 0 (MIN. GAIN)
DEC. TIME 10 SEC.
FINAL TORQUE 0 (MIN)
STORE ENABLE STOP PARAMETERS
Available options
Note :
for “Soft-Start Curve”
DA: INT. VOLT. 30%
DA: GENERATOR PARAMETERS
DA: CUR. LIMIT 400% OF FLA
DA: ACC. TIME 10 SEC.
DA: DEC. TIME 10 SEC.
DA: MOTOR FLA 105 AMP.
STORE ENABLE D. ADJ PARMETERS
Note : The “Initial Current” starting Curve becomes
available when “Initial Voltage” exceeds 50% ( or 80% )
33
Menu Description
MODE
MODE
MODE
PAGE 5 PAGE 6 PAGE 7 PAGE 8 PAGE 9
EN. SAVE & SL. SPD
PARAMETERS
SELECT
FAULT
PARAMETERS
SELECT
I/0 PROGRAMING
PARAMETERS
SELECT
MODE
COMM.
PARAMETERS
SELECT
MODE
STATISTICAL DATA
-****-
SELECT
PRESS KEYS TO CHANGE PARAMETER VALUE
SAVING ADJUST 0(MIN)
SLOW SPEED TORQ 8
MAX SLOW SP TIME 30 SEC.
STORE ENABLE EN. SAVE & SL. SPD
MO
DE
+
TO EXIT DEFAULT PARAMETERS MODE PRESS
PHASE SEQ Y/N NO
NSULATION ALARM OFF
INSULATION TRIP OFF
AUTO RESET NO
THERMISTOR TYPE PTC
THERMISTOR TRIP OFF
UNDER CUR. RESET OFF
STORE ENABLE FAULT PARAMETERS
STORE ENABLE
DEFAULT PARAMET.
MODE + STORE
SAVE DEFAULT PARAMETERS & BACK TO PARAMETERS DISPLAY PAGE
% OF MOTOR FLA
PROG. INPUT # 7 ENERGY SAVER
PROG. INPUT # 8 DUAL ADJUSTENT
FAULT RELAY TYPE FAULT
IMM/ S.PAIN RELAY IMMEDITE
RELAY ON DELAY 0 SEC.
RELAY OFF DEL 0 SEC.
ANALOG OUTPUT NORMAL
STORE ENABLE I/O PROG. PARAM.
SE LE
RESET STATISTICS
CT
SAVE STATISTICAL DATA & BACK TO PAGE 9
STATISICAL DATA
MODE +
DRIVE NUMBER 0
BAUD RATE 9600
PARITY CHECK EVEN
SERIAL LINK NO. 248 (OFF)
STORE ENABLE COMM. PARAMETERS
RESET + STORE
-****-
LAST STRT PERIOD NO DATA
LAST START MAXI NO DATA
TOTAL RUN TIME 0 HOURS
TOTAL # OF START 0
LAST TRIP NO DATA
TRIP CURRENT 0% OF FLA
TOTAL # OF TRIPS 0
PREVIOUS TRIP 1…9 NO DATA
SELECT
ROGRAM VERSION
VS DN – 300400
SELECT
VOLTAGE ADJUST.
x Volt
CURRENT ADJUST.
x% OF RVS FLC
BACK TO:
STORE ENABLE
DEFAULT PARAMET.
34
Trouble Shooting
Upon fault – motor stops, Fault LED lights and Fault Relay operates. The LCD shows TRIP: and fault description. Upon Alarm – motor continues running, Alarm Relay operates and Fault LED flashes. The LCD shows ALARM: and fault description (for example: ALARM: MOTOR INSULATION).
INSULATION ALARM
INSULATION TRIP
THERMISTOR TRIP
TOO MANY STARTS
LONG START TIME
O/C – SHEAR PIN
OVERLOAD
UNDER CURRENT
(Optional) Alarms when motor insulation level decreases below set level. Alarm ceases automatically 60 sec. after resistance able set level. Check motor and cable insulation.
(Optional) Trips the starter when motor’s insulation level decreases below trip value. Check motor and cable insulation level.
(Optional) Trips the starter when motor’s thermistor resistance decreases below trip value. Check thermistor and cable’s resistance, check motor temperature near thermistor location.
Trips the starter if number of starts, during “Start Period” exceeds the preset number. Wait until motor and starter cool down – according to “Start Inhibit” setting.
Trips the starter if output voltage does not reach nominal at the preset max. Start time. Check FLA, FLC, and Max Start Time settings. Increase Initial Voltage, Current Limit & Max. start time or decrease Acceleration Time as necessary.
Trips the starter when:
1. Instantaneously when current exceeds 8.5 x Starter FLC.
2. During starting when current exceed 8.5 x Motor FLA.
3. During running when current exceeds 200-850%.
O/C Shear-Pin has a programmable delay of 0-5 seconds where the starter detects the fault and does not trip before time delay has elapsed (delay is override when current reaches 8.5 x Starter FLC).
Check that motor is not installed or Jammed. Check FLA, FLC settings. Check motor and cable connections. Perform a “Megger” test to verify motor and cable’s condition
Check that “Megger” maximum voltage is no more than 500V!.
Disconnect terminal 21 before performing a “Megger” test.
CAUTION
Trips the starter when current exceed the Overload Trip level and thermal register has filled up. Check FLA, FLC and Overload settings, check motor current, wait 15 minutes to let motor and starter cool down before restarting.
Trips the starter when line current drops below the preset level for the preset time. Check “Under Current Trip” and “Time Delay” settings, check line currents through L
, L3.
L
2
,
1
35
Trouble Shooting
UNDER VOLTAGE
OVER VOLTAGE
PHASE LOSS
PHASE SEQUENCE
MAX SLOW SP TIME
WRONG CONNECTION
SHORTED SCR
OVER TEMPERATURE
EXTERNAL FAULT
WRONG PARAMETERS
* NOTE:
Trips the starter when line voltage drops below the preset level for the preset time. Check “Under Voltage Trip “ and “Time Delay” settings, check line voltages on L
. When voltage drops to zero, the starter trips immediately with no delay.
L
3
, L2,
1
Trips the starter when line voltage increases above a preset level for a preset time. Check “Over Voltage Trip” and “Time Delay” settings, check line voltage on L1, L
, L3.
2
Trips the starter if 1 or 2 phases are missing. Check line voltages related to terminal 21 is connected correctly (see page 8). Check that frequency variations are between 40-65Hz. Trips the starter if line phase sequence is wrong. Check line phase sequence, and if wrong, swap two wires on line
side.
on load
side. If motor now rotates in the wrong direction, swap two wires
Trips the starter when operating at slow speed for extended period of time. Check that operation time at Slow Speed is shorter than “Max Slow Speed Time” setting. Note: Motor and starter may be overheated when operating at slow speed for an extended period.
Trips the starter when one or more motor phases is not properly connected to starter’s load terminals or in case of internal disconnection in motor winding. If required, may be eliminated by using Dip Sw # 3 and wiring the soft-starter in generator mode (programming D.A. parameters accordingly*).
Trips the starter and prevents starting if any SCR is short-circuited or when motor windings are shorted. Check with an ohmmeter between L
-U, L2-V, L3-W; resistance > 20 K.
1
Check for no voltage on terminals U, V, W (from parallel system or an independent by­pass). SCRs may fail due to: * High short current not protected by proper fuses
* High voltage spikes not protected by proper external Varistors. * Frequent starting at maximum conditions or fault conditions.
Heat-sink over-temperature. Trips the starter when heat-sink temp. rises above 85˚C. Improve cooling or use a by-pass contactor. Check that motor starting is not too frequent.
Trips the starter when a N.O contact between terminals 19-21 closes for over two seconds. Check contact position and cause of closure.
Parameters not transferred from RAM to EEPROM or vice versa. After replacing the EPROM with a new software version or after power up, press Reset, than Mode and
simultaneously and save the default parameters by pressing Store and Mode simultaneously. (If Fault LED is on, press Reset after strong parameters).
When operating in generator mode, Shorted SCR and Wrong Connection faults are not active.
36
Technical Specification
General Information:
Supply Voltage .................................... Line to Line 220-690V (to be specified) + 10%-15%
Frequency ............................................45 – 65 Hz (Fixed or variable frequency source)
Control Supply ....................................110-230V (to be specified) +10% - 15%
Control inputs & Outputs ....................Either same as Control Supply or by special order 24-230V AC/DC
Load..................................................... Three phases, three wires, squirrel cage induction motor.
Connection type................................... Standard 3 wire U, V, W connection, or 6 wire “Inside Delta” (Programmable)
Start-Stop Parameters:
Starter FLC..........................................Starter’s Full Load Current, according to Selector Guide
Motor FLA...........................................Motor Full Load Ampere 50-100% of Starter FLC
Starting Curve 0 (Standard)................. 2 Standard Starting and stopping curves.
Pump Control Curves (1!, 2!, 3!) ........ 6 field selectable curves preventing Over-pressure during start and Water
Hammer during stop.
Torque Control Curve (4)....................2 Selectable curves preventing Over-pressure during start and Water Hammer
during stop. In addition, these curves may be used for Torque control starting of
constant torque applications.
Pulse Start Duration .....A pulse of 80% Un, for an adj. time 0.1-1 Sec, for starting high friction loads
Initial Voltage......................................10-50% Un (*10-80%), 5% - by special order
Initial Current .....................................100-400% In (1 Current Control starting Curve, appears when Initial Voltage is
.............................................................displayed , “Up” arrow is pressed, and IV% has reached its Max.)
Current Limit.......................................100-400% of Motor FLA (*100-500%)
Acceleration Time ............................... 1-30 Sec (*1-90 sec)
Deceleration Time ...............................1-30 Sec (*1-90 sec, not in Dual Adjust)
Dual Adjustments ................................ Secondary start stop characteristic for: Motor FLA, Initial Voltage, Current Limit,
Acceleration Time and Deceleration Time.
Energy Saving .....................................Energy save for lightly loaded motors
Slow Speed Torque .............................Torque while motor is at 1/6 nominal speed
Tacho and Linear Acceleration ..........12 field selectable curves – defining gain control, improving Tacho Feedback.
* Consult Factory
Motor Protection:
Too many starts ................................... Maximum number of starts, range: Off or 1-10, during a time period 1-60 min.
Starts inhibit ........................................Time period 1-60 min, when starting is prevented, after Too Many Starts fault
Long start time (Stall protection) ........Maximum allowable starting time 1-30 sec. (*1-250 Sec).
Over current (Shear-pin) .....................Two operation functions: during starting
trips the starter at 850% and during running
2
Electronic overload (I
t) ......................Adjustable 75-150% of motor FLA, adjustable Trip time at 500% In of 1-10 sec.
Under current.......................................Trips when current drops below 20-90% In, time delay 1-40 sec.
Under voltage** ..................................Trips when main voltage drops below 120-600V, time delay 1-10 Sec
Over voltage ........................................Trips when main voltage increase above 150-750V, time delay 1-10 sec.
Phase loss, Under/over Frequency** ..Trips when one or two phases are missing or frequency is < 40Hz or > 65Hz.
Phase sequence....................................Trips when phase sequence is wrong
Long slow speed time..........................Trips if operating at slow speed for more than 1-30 sec (*1-250 sec)
Wrong connection ...............................Prevents starting, trips if motor is notconnected / incorrectly connected to the
Shorted SCR ........................................Trips in case one or more SCRs have been shorted
Heat Sink over temperature.................Trips when heat-sink temperature rises above 85˚C.
External fault .......................................Trips when an External Contact closes for 2 sec.
Motor Insulation (optional................Alarm level setting 0.2 – 5M, trips when insulation decreases below 0.2-5M
Motor Thermistor (optional) .............. Trip level setting 1-10K, trips when resistance decreases below the set level.
* Special settings – Consult Factory ** With optional Auto Reset.
at 200-850% In, both within 1 Cycle.
starter.
(to be specified)
37
Technical Specification
Control:
Displays ...............................................LCD in 4 – Field selectable languages and 8 LEDs.
Keypad.................................................6 keys for easy setting
Aux Contact – Immediate....................1 C/O, 8A, 250VAC, 2000VA
Aux Contact – End Of Acceleration.... 1 C/O, 8A, 250VAC, 2000VA
Fault Contact .......................................1 C/O, 8A, 250VAC, 2000VA
Insulation Alarm Contact (option)…. .1 C/O, 8A, 250VAC, 2000VA
Communication ...................................RS 485 with MODBUS protocol for full control and supervision.
.............................................................Consult factory for other communication protocol.
Temperatures
Standards:
Dielectric Test .....................................2500VAC
Degree of Protection............................IP 20 for frame size A
Pollution Degree.................................. 3
EMC Emissions EN 55011 CISPR 11 Class A Immunity EN 55082-2 ESD 8KV air, IEC 801-2 Electric RF field 10 V/m, 20-1000Mhz, IEC 801-3 Fast transients 2KV, IEC 801-4 Safety EN 600947-1 Related to safety requirements. UL508C
Normal Service Conditions:
Altitude................................................ Up to 1000m. For equipment to be used at higher altitudes consult Factory.
Humidity.............................................. 95% at 50˚C or 98% at 45˚C.
Fan and Starter Consumption Ratings:
Size A (8-31A) ....................................No fan Total starter Consumption ..................... 150VA
Size A (44-72A) ..................................Fan 35 VA Total starter Consumption ..................... 185VA
Size B ..................................................Fan 60 VA Total starter Consumption ..................... 210VA
Size C ..................................................Fans 105 VA (35VA x 3) Total starter Consumption ..................... 255VA
Size D, E, F, G..................................... Fans 150 VA (50VA x 3) Total starter Consumption ..................... 300VA
................................ Operating -10˚ to 50˚C
Storage -20˚ to 70˚C
IP 00 for frame sizes B, C, D, E, F, G
38
Appendix Table of Contents
Page Subject
40 UL and cUL installation instructions, LR recommendations
2
41 Fuse selection (A
42 Motor and starter Timing Occurrence Table
43 Warranty Report and Problem Inquiry
44 “Inside Delta” Description
45 Overload Trip Time (Approximate calculation)
46-50 Dimensions and Weights
51 Block Diagram and Notes
52 Ordering Information
S)
39
UL, cUL Installation Instructions
1. Input power and output motor field wiring
shall be copper conductors, rated 75ºC.
2. Use UL listed closed-loop connectors sized
for the selected wire gauge. Install connectors using the correct crimp tool recommended by the connector manufacturer. Applies only to units bus bars.
3. Table showing corresponding wire size,
terminal screw, closed-loop connector size. Torque ratings for attachment of connector to bus bar (see table).
4. Branch circuit protection, shall be provided
per the NEC.
For units with UL cUL, see ordering information.
Cables, Terminal screws and Torque recommendations
Max. Mot.
No.
FLA
1 8 3 x 1.5 + 1.5 2 17 3 x 2.5 + 2.5 3 31 3 x 6 + 6 4 44 3 x 6 + 6 5 58 3 x 10 + 10 6 72 3 x 16 + 16 7 105 3 x 50 + 50 M8 180 8 145 3 x 70 + 35 M8 180
9 170 3 x 95 + 50 M8 180 10 210 3 x 150 + 70 M10 220 11 310 2 x (3 x 120+ 70) M10 220 12 390 2 x (3 x 185+ 95) M10 220 13 460 2 x (3 x 240+120) M10 220 14 580 3 x (3 x 185+ 95) M10 220 15 820 3 x (3 x 240+120) M10 220 16 1100 17 1400 18 1800 19 2500 TBD TBD TBD
Min. dimensions for
copper cables
(mm2)
Term
Screw
Mech.
Torq.
Kg.cm
LR Recommendation
LR recommendations for marine, offshore or industrial use.
System design needs to take into account the power supply source and the motor drive together with the electronic soft starter. Particular features to be considered are torque production, harmonic production and their consequential effects and EMC. These points are relevant for marine, off-shore or industrial use.
40
Fuse Selection
RVS-DN Max. thyristor I2t BUSSMAN Schneider GEC ALSTOM JEAN MULLER FERRAZ - SHAUMAT FERRAZ publication Fuse Value Allowed (A2Sec) Ultra Fast Fuse Semicon Fuse Reference / Publication
RVS – DN 8 400 T.B.D. T.B.D. GSGB30 500V - 40A 6,9 Grb 17.32 A220961 / A60070 RVS – DN 17 5,000 T.B.D. T.B.D. GSGB55 500V - 50A 6,9 Grb 17.63 G220967 / A60070 RVS – DN 31 10,000 T.B.D. T.B.D. GSGB110 500V - 80A 6,6 URB 000 BS 88 110 E330100 / F600397 RVS – DN 44 12,000 T.B.D. T.B.D. GSGB125 500V - 125A 6,6 URB 000 BS 88 150 F330101 / F600397 RVS – DN 58 15,000 T.B.D. T.B.D. GSGB150 500V - 200A 6,6 URB 000 BS 88 160 F330055 /F600397 RVS – DN 72 18,000 T.B.D. T.B.D. GSGB170 500V - 250A 6,6 URC 000 BS 88 180 C330144 / H600399 RVS – DN 105 60,000 T.B.D. T.B.D. GSGB225 500V - 315A 6,6 URD 000 BS 88 250 F330146 / H600399 RVS – DN 145 100,000 T.B.D. T.B.D. GSGB350 500V - 350A 6,6 URD 2 x 000 BS 88 355 V330160 / H600399 RVS – DN 170 140,000 T.B.D. T.B.D. GSGB400 500V - 400A 6,6 URD 2x000 BS 88 400 W330161 / H600399 RVS – DN 210 200,000 T.B.D. T.B.D. GSGB450 500V - 450A 6,6 URC 2x000 BS 88 450 X330162/ H600399 RVS – DN 310 600,000 T.B.D. T.B.D. GSGB580 500V - 710A 6,6 URD 31 D 11 0630 Q300026/ D600188 RVS – DN 390 700,000 T.B.D. T.B.D. GSGB710 500V - 800A 6,6 URD 31 D 11 0700 R300027/ D600188 RVS – DN 460 800,000 T.B.D. T.B.D. GSGB800 500V - 1000A 6,6 URD 32 D 11 0800 W300192 / D600188 RVS – DN 580 1,200,000 T.B.D. T.B.D. GSGB900 500V - 1250A 6,6 URD 32 D 11 1250 B300266 / D600188 RVS – DN 820 2,000,000 T.B.D. T.B.D. GSMJ1200 N.A. 6,6 URD 33 D 111 400 C300267 / D600188 RVS – DN 1100 N.A T.B.D. T.B.D. N.A N.A A065URD33LI 1600 OR
RVS – DN 1400 N.A T.B.D. T.B.D. N.A N.A A060URD33LI 2000 OR
RVS – DN 1800 N.A T.B.D. T.B.D. N.A N.A T.B.D. T.B.D. RVS – DN 2150 N.A T.B.D. T.B.D. N.A N.A T.B.D. T.B.D. RVS – DN 2400 N.A T.B.D. T.B.D. N.A N.A T.B.D. T.B.D. RVS – DN 2700 N.A T.B.D. T.B.D. N.A N.A T.B.D. T.B.D. RVS – DN 3000 N.A T.B.D. T.B.D. N.A N.A T.B.D. T.B.D. RVS – DN 3500 N.A T.B.D. T.B.D. N.A N.A T.B.D. T.B.D.
1. The above table is for maximum starting current of 500% of FLC, maximum starting time of 30 sec and rated voltage of 400 V (see note 3 for exception).
Notes:
2. Rating may change with different external conditions such as ambient temperature, forced cooling etc. Refer to fuse manufacturer catalogs to confirm correct values.
3. Ferraz ratings are simulated for 4In, 4 times per hour with a 10sec. starting time for each start.
(Recommended Values For Main Supply Of 400V)
41
J301706 / Z600483 OR
AO60R1600 orA60X1500A
A060R2000 or A60X2000A
V479 J301078 / Z600483 OR
Motor and Starter Protection Occurance Table
Timing And Occurrence
Too many starts with Start Inhibit period
Active During
Start Run Stop
Soft
Stop
Electronic Overload
Shear Pin
Default setting
Starter Protection – trip function at 850% FLC
Motor Protection – trip function
During Start – factory set at 850% FLA in less than 1 cycle.
During Run
Programmable setting (Dip switch # 2 On)
Starter Protection – trip function at 850% FLC
Motor Protection – Alarm & Trip functions
On fault “Immediate Relay” acts as Alarm w/adj. delay – If fault is cleared within the time delay, trip will not occur
During Start – preset at 850% FLA, adjust. delay (Imm. Relay)
During Run
Under current adjustable time delay
Phase Loss
Phase sequence
Under voltage with adjustable time delay. Time delay is overriden in
case of “No-Volt”.
Over voltage
(Jam) *
– adjust. 200 – 850% FLA within 1 cycle
– adjust. 200-850% FLA adjust. delay (Imm. Relay)
with Curve selection
with adjustable time delay
√ √
√ √
√ √
√ √
√ √ √ √ √
√ √
√ √
Long start time (Stall protection)
Shorted SCR
Wrong connection (Load Loss)
External fault – input from a N.O. contact
SCR protection by Metal Oxide Varistors (MOV)
Starter over-temperature
Starter internal test, when “On” LED is lit.
Motor Insulation test (option) – two levels for Alarm & Trip when
installed, operates upon no main voltage Motor Thermistor (option) – programmable PTC/NTC, With adjustable Trip level.
* Available from software version 5/11/97
√ √ √ √ √ √ √ √ √ √
42
Warranty Report and Problem Inquiry
– Complete the form and fax for inquiry
Representative Name: Country: Fax Number:
Model Number And Built Options:
Example: 390 – 400 – 230 – 230 – 3 + 4 + 9 + L + A + B – S RVS-DN _ _ _ _ - _ _ _ - _ _ _ - _ _ _ - _ + _ + _ + _ + _ - _
Serial Number:
Purchasing Date:
Sale / Installation Date:
Failure Date:
Program Version: STRT.DN- _ _ _ _ _ _
Press MODE + , press SELECT twice, the LCD displays the
program version (e.g. STRT.DN-011197) Connection Diagram & Supply Network Type. Circle the correct main supply and add or erase parts in the drawing: Star, Delta, with/without neutral or ground
Line Contactor
L1 L2 L3
Run Fault E.O.A
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21
Start Stop
Bypass Contactor
Insulation Alarm
L1bL2bL3
UVW
b
29 28 27 26 25 24 23 22
N
M
Application Description:
Details of Fault / Fault Message:
Define time of fault occurrance: (during start, after start, during soft stop, end of soft stop, when closing B.P. contactor, when performing…)
Statistical Information Starter Operative Information Last Start Period: Starter FLC: Last Start Max. I Motor FLC: Total Run Time: Initial Voltage: Total Number Of Starts: Acceleration Time: Last Trip: Current Limit: Trip Current: Total Number Of Trips: Trip History :
43
“Inside Delta” mode - Description
r
General information
Mains current is reduced by 1.73 (3), namely for an
800A motor, an 820A starter will be selected, to operate “In-Line”. For “Inside Delta” starter, we calculate (800 / 1.73 = ) and select a 460A starter.
Less heat dissipates in the cabinet
vs. the standard “In-Line” connection.
L1
L1
U
V'
The attached
U
drawings are fo reference purposes only.
U'
W
L3 W W '
V
V
L2
Standard Motor Connection Box
Motor Connections
U
V'
V
W'
W
U'
Standard Inside Delta Connection
L1 L2 L3
UVW
M
V
V'
WW'
The starter must always be selected according to motor’s nominal current and starting conditions.
U'
U
Important Notes:
Wrong motor connection will cause serious damage to the motor windings.
The sinusoidal shape of the current is imperfect (since each phase is separately fired and not influenced by other phase firing). As a result, higher harmonic content is incurred (THD), which can be as high as twice the THD value as in the standard “In-Line”.
Higher motor heating is expected for the same motor size (due to the higher THD).
Phase sequence must be correct; otherwise, “Phase Sequence fault” will trip the starter immediately (without any damage).
Higher torques can not be obtained
“Inside Delta” requires 6-wire to the motor.
Factory preset - features and functions when “Inside
L2L3
Delta” mode is configured:
No Pulse Start.
No curve selection (Curve 0 !!).
No Energy Save
No Slow Speed
No Phase sequence “Off” mode
Note :
For a high starting torque process, we recommend to use the starter in the “standard” connection (in-line).
WARNING
Beware Wrong connection of the starter or the Motor, will seriously damage the motor.
Motor Ratings for In-Line and
Inside Delta, at 400V
Starter Type In Line RVS-DN 8 8 4 6 RVS-DN 17 17 7.5 12 RVS-DN 31 31 15 25 RVS-DN 44 44 22 38 RVS-DN 58 58 30 50 RVS-DN 72 72 37 64 RVS-DN 85 85 45 75 RVS-DN 105 105 55 95 RVS-DN 145 145 75 120 RVS-DN 170 170 90 155 RVS-DN 210 210 110 190 RVS-DN 310 310 160 275 RVS-DN 390 390 220 380 RVS-DN 460 460 250 430 RVS-DN 580 580 315 540 RVS-DN 820 820 450 770 RVS-DN 1100 1100 600 1000 RVS-DN 1400 1400 750 1300
For “Inside Delta” connection, the “In Line” KW ratings were multiplied by 1.73.
Soft-Starter Current (A)
Motor KW @400V “In- Line”
Motor KW @ 400V “Inside Delta”
44
Overload Trip Time Calculation
Note: In overload procedure, current is limited to 5 x Motor FLA to prevent saturation in calculation, so trip time at 5 or
8 times motor FLA will be identical.
The approximate
trip time is given in the following equation:
=
Time Trip O/L
000,375,1
2
OLTI
%
OLD
×
2
6
Seconds)(In
%
OLT = Overload Trip setting (default 115%)
OLD = Overload Delay setting – trip delay at 5 x Motor FLA,
Example 1: Motor FLA = 80A, actual current = 120A, I If settings are as in default then
= 120 x 100 / 80 = 150%
%
Current Actual I :Where
Time Trip O/L
=
×=
000,375,1
Example 2: Same motor and setting, but current is 400A, I If settings are as in default then
Example 3:
I
Motor FLA = 80A, actual current = 200A, Overload Delay (OLD) = 10
= 400 x 100 / 80 = 500%
%
Time Trip O/L
= 200 x 100 / 80 = 250%
%
Time Trip O/L
=
=
100
FLAMotor
4
=×
22
6
151501
000,375,1
22
151500
000,375,1
22
151250
(default 4 sec).
sec. 99
4
=×
6
10
=×
6
sec. 4
sec. 47
45
Dimensions (mm)
30
FRAME SIZE - A
8,17A
31A
44, 58, 72A
153
130
L1,L2,L3
310
280
298
M5
U,V,W
150
170
207
16
298
280
170
153
130
L1,L2,L3
U,V,W
150
Note: Main voltage terminals size: 8A – 58A - 16mm
72A - 25mm
153 130
L1,L2,L3
310
280
298
M5
16
207
FAN
217
U,V,W
150
M5
16
207
2
2
46
Dimensions (mm)
FRAME SIZE – B (Standard)
105, 145, 170A
Drawing will be delivered upon request
With preparation for by-pass contactor
Drawing will be delivered upon request
FRAME SIZE – B (New –
New type includes preparation for bypass as standard
85, 105, 145, 170A (Deep Type)
200
L
U
L
1
2
bL2
274
ABB
L
3
20
bL3V
W
385
14
25
M6
8.5״
bL1
9
365
238
188
C/T
FAN
122 415ACDCDC
RVS A C D
48.5
105
145,170
43.5
65.4
B
29
32.76032.7
)
31
With preparation for by-pass contactor
Notes:
Frame size B (New type, shallow and deep) includes:
1. Preparation for by-pass as standard
2. Line bus bars at the top, Load and By-pass outputs at the bottom.
47
Dimensions (mm)
FRAME SIZE - C
210, 310, 390A
500
486
M8
25
8544A B
U
10
590
30
15
C/TC/T
187.5187.5
LWLVL
321
FANFA NFAN
9.0
62
155
5
5
FAN
233
290
The starter can be supplied with line & load bus-bars at the bottom
The starter can be supplied without side covers, with max width of 536 mm (instead 590)
M8
85 A B
44
L1b
30
15
RVS-DN 210 310 390
A 45 45 55 B 140 135 130
L3bL2b
155
5
62
306
5
500
25
U
486
10
C/TC/T
187.5 187.5
590
LWLVL
321
306
FANFANFAN
9.0
FAN
233
290
48
Dimensions (mm)
FRAME SIZE - D
460, 580, 820A
150 195
73 50
44
M8
25
UV W
660
626
642
195 195
L1
L2 L3
195
10״
12.5 12.5
13
38
150.5
67.5
6
6
306
FANFANFAN
9.0
195 195
623
The starter can be supplied with line & load bus-bars at the bottom
Preparation for by-pass contactor
150
73 50
44
M8
25
U
820
660
626
642
195
195 195
L1
V
195
12.5 12.5
10״
C/TC/T
L2
W
13
38
L3
73.5
150.5
FAN
233
6
290
6
306
FAN
233
290
195 195
623
FANFANFAN
9.0
49
Dimensions (mm)
FRAME SIZE – E 1100, 1400, 1800A
230 230
131.5
L
123
9 ״
C/T C/T
16.5
230 230 230
LL
47.5
29
10
85
-for 1100,1400A
12-for 1800A
FRAME SIZE – F 2150A
60
45
1
100
10״
14״
23823823 8
LLL
47.5
32
33
M10
392
12
96
1100
778
786
230230191.5
FAN FAN FAN
8
149 165
131.5 230 230
UV
10״
20M880
723
45
45
20
712
9 ״
9
W
FAN
268
370
315
1021
1105
1300
FRAME SIZE – G 2400A, 2700A, 3000A, 3500A
900
285 285
L
2
410
30
12
142
L
31
64
M10
1300
22.5
10651
1022
285 285 285
165
142
60
20
45
10.5״
L
R5.5
8
238 238
750 330
WVU
FAN
12
280
14״
88 33
UV
75 250 250 250 207
Starter
Type
RVS-DN
R7
11
Current FLC
(Amp)
W
Frame
Size
8, 17 A 150 310 170 4.5
31 A 150 310 170 6
44, 58, 72 A 150 310 217 7.4 105, 145, 170 B 274 370 222 15.1 210, 310, 390 C 590 500 290 44.8 460, 580, 820 D 623 660 290 65
1100, 1400, 1800 E 723 1100 361 170
2150 F 750 1300 392 235
2400, 2700, 3000,
3500
G 900 1300 360 350
30
12
Width Height Depth
50
Weight
(Kg.)
RVSDN Block Diagram
play
play
puts
pply
n
Block Diagram for the RVS-DN control, power and firing module, inputs and option boards.
Keypad
Led dis
LCD dis
Relay outputs
Isolated
In
MICRO
PROCESSOR
Options:
RS 485 com. Insulation
Tachometer i
Analogue out
Thermisrtor
Power su
I Measurements
Firing circuitry
V measurements
Memory Statistics Faults
M
Notes:
Preparation for by pass All protection
51
Ordering Information
Example: RVS-DN 210 - 400 - 230 - 230 - 9 - S RVS-DN xxxx - xxx - xxx - xxx - x - x
Starter FLC (1)
Mains voltage (2)
Control voltage (3)
Control inputs (4)
Options (5)
(1) Starter FLC: 8, 17, 31, 44, 58, 72, 85, 105, 145, 170, 210, 310, 390, 460, 580, 820, 1100, 1400, 1800, 2150,
(2) Mains voltage Specify For 50/60Hz 230 220- 240 Vac + 10%-15% 400 380- 440 Vac + 10%-15% 480 460- 500 Vac + 10%-15% 600 575- 600 Vac + 10%-15% 690 660- 690 Vac + 10%-15% 1000 850-1100 Vac + 10%-15% (Special – Please Consult Factory)
(3) Control Supply Voltage Specify For (terminals 1-3) 115 110-120 Vac + 10%-15% 50/60Hz 230 220-240 Vac + 10%-15% DC 90-250 Vdc + 10%-15%
(4) Control Input Voltage Specify For (terminals 4-9) 115 110-120 Vac + 10%-15% 50/60HZ or DC 230 220-240 Vac + 10%-15% 24 24- 48 Vdc
(5) Required Options Specify For For more than one option 0 No options indicate, for example, 3+4 3 Comm. RS-485 (MODBUS, PROFIBUS, MODBUS-TCP) (c) (Comm. + Insulation) 4 Insulation tester (b) 5 Analogue card – Thermistor in + Analogue out .(b) 8 Harsh environment treatment (must be factory supplied) 9 Preparation for by-pass contactor A 536mm special width (for size C only) B Line & Load Bus Bars at the bottom (sizes C & D) D Remote Panel Mounting replacing the original (with 1.5m cable).
DK Remote Panel Mounting kit with MMI, option #L and 1.5m cable.
L Illuminated LCD M Lloyd’s ENV-1, ENV-2 approval, GL as well (consult factory) T Tachometer for special drive systems (consult factory) (b) U UL & cUL Approval (8-820A)
(6) Front Panel Specify S Standard
(b) RVS-DN size A (8-72A), options should be factory supplied.
C:\WINDOWS\Desktop\RVS-DN Instruction Manual 12_10_2003. doc
Front panel (6)
2700, 3000, 3500 Amp
For
Notes: (a) RVS-DN ratings 1100-3500 have to be used with a by-pass.
(b) Only one option, either #4, # 5 or # T may be installed in one starter. (c) Consult factory for any communication protocol other than MODBUS.
52
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