Toshiba ME00070B User manual

CONTENTS
TMS7 SERIES ME00070B 1
CONTENTS
Quick Start 2
1. Caution Statements
1.1 Cautionsandwarnings ............................................ 3
2. General Description
2.1 Feature list .............................................................. 4
2.2 Part Number format ................................................ 4
3. Specifications
3.1 Current ratings ........................................................ 5
3.2 Dimensions & weights ............................................. 7
3.3 Semiconductor fuses .............................................. 7
3.4 Power terminations ................................................. 8
3.5 General technical data ............................................ 8
4. Installation
4.1General layout diagrams ......................................... 9
4.2 Power termination configuration .............................. 9
4.3 Mounting instructions .............................................. 9
4.4 Ventilation ............................................................. 10
5. Power Circuits
5.1 Overview .............................................................. 11
5.2 3 Wire connection ................................................. 11
5.3 3 Wire connection (Bypass operation) ................... 11
5.4 6 Wire connection ................................................. 11
5.5 6 Wire connection (Bypass operation) ................... 11
5.6 Power factor correction ......................................... 11
5.7 Line contactors ..................................................... 12
6. Control Circuits
6.1 Electrical Schematic .............................................. 13
6.2 Control Supply ...................................................... 13
6.3 Control Wiring ....................................................... 13
6.4 RS485 Serial Communication ............................... 14
7. Programming & Operation
7.1 Programming Procedure ....................................... 17
7.2 Function List ......................................................... 18
7.3 Function Descriptions ........................................... 18
7.4 Operation .............................................................. 24
8. Application Examples
8.1 Installation With Line Contactor ............................. 26
8.2 Installation With Bypass Contactor ........................ 26
8.3 Soft Braking .......................................................... 27
8.4 TwoSpeed Motor ................................................. 28
9. Trouble Shooting
9.1 TripCodes ............................................................ 29
9.2 Trip Log ................................................................ 30
9.3 GeneralFaults ...................................................... 30
9.4 Tests and Measurements ...................................... 31
10. Appendix
10.1 Typical Start Current Requirements ...................... 32
10.2 AC53aUtilisation Codes ....................................... 32
10.3 AC53bUtilisation Codes ....................................... 32

QUICK START
2ME00070B TMS7 SERIES
QUICK START
For simple applications TMS7 soft starters can be installed using
the three simple steps outlined below. For applications with
advanced control, protection or interface requirements a
comprehensive review of this Users Manual is recommended.
1. Installation & Connection
WARNING-ELECTRICAL SHOCK HAZARD
The TMS7 contains dangerous voltages when connected to
line voltage. Only a competent electrician should carry out
the electrical installation. Improper installation of the motor
or the TMS7 may cause equipment failure, serious injury or
death. Follow this manual and National Electrical Codes
(NEC®) and local safety codes.
1. Ensure the correct TMS7 model has been selected for the
connected motor and application type.
2. Mount the TMS7 making sure to allow adequate clearance
top and bottom for the free circulation of air through the
starter. (Refer to section 4.3 Mounting Instructions for further
detail.)
3. Connect the supply cables to starter input terminals L1, L2 &
L3.
4. Connect the motor cables to starter output terminals T1, T2
& T3.
5. Connect a control supply to starter input terminals A1 & A2
or A2 & A3. (Refer to section 6.2 Control Supply for further
detail).
OROR
M
F1SemiconductorFuses
Legend
C24models
L2B
L3B
L1B
E
T2
L1
L2
L3
T1
T3
A1
A2
A3
3PHASE
SUPPLY
230V+10
-15
-15
+10
400V
C45models
575V+10
-15
-15
+10
460V
(OPTIONAL)
F1
2. Programming
Basic application requires only that the TMS7 be programmed
with the connected motor's nameplate full load current (FLC). To
program the TMS7 with the motor's FLC do the following:
1. Put the TMS7 into program mode by simultaneously
pressing then releasing the <FUNCTION>and <STORE>
keys.
2. Select Function 1. MotorFull Load Currentbyholding
down the <FUNCTION>key and then press the <UP> key
until the display shows "1".
3. Release the <FUNCTION>key to display the currently
stored value of Function 1. MotorFull Load Current.
4. Use the <UP> and/or <DOWN>keysadjust the FLC
setting to match the FLC of the connected motor.
5. Press the <STORE> key to store the new FLC setting.
6. Exit the programming mode by simultaneously pressing
then releasing the <FUNCTION>and <STORE> keys.
3. Operation
TheTMS7is now readyto control the motor. Motor operation
can be controlled using the <START> and <STOP> keyson the
TMS7 local control panel. Two other commonly used functions
that may be useful for basic installations are Function 2. Current
Limitand Function5. StopRampTime. These functions can be
adjusted in the same manner as described above. (For a more
detailed description of the programming procedure refer to
section 7.1 Programming Procedure.)

CAUTION STATEMENTS
TMS7 SERIES ME00070B 3
Caution Statements
WARNING -ELECTRICAL SHOCK
HAZARD
TheTMS7 contains dangerousvoltages when
connected to line voltage. Only a competent
electrician should carry out the electrical
installation. Improper installation of the motor
or the TMS7 may cause equipment failure,
seriousinjury ordeath. Follow this manual
and National Electrical Codes (NEC®) and
local safety codes.
CAUTION
GROUNDING AND BRANCH
CIRCUIT PROTECTION
It is the responsibility of the user or person
installing the TMS7 to provide proper
grounding and branch circuit protection
according to the National Electric Code
(NEC®)and local codes.
It is the installers responsibility to adhere to all instructions in
this manual, to follow good electrical practice and to seek advice
beforeoperating thisequipment in a manner other than as
detailed in this manual.
•Ensure that the TMS7 is completely isolated from the power
supply before attempting any work on the unit.
•Do not apply voltage to the control input terminals. These
are active 12/24VDC inputs and must be controlled with
potential free circuits.
•Ensure contacts/switches operating the control inputs are
suitable for low voltage, low current switching ie, gold flash
or similar.
•Ensure cables to the control inputs are segregated from AC
power and control wiring.
•Entry of metal swarf into the cabinet can cause equipment
failure.
•Do not connect Power Factor Correction capacitors to the
output of the TMS7. If static power factor correction is
employed, it must be connected to the supply side of the
TMS7.
•Before installing the TMS7 without a line contactor ensure
such connection meets local regulations and by-laws.
•If installing the TMS7 within a non-ventilated enclosure a
bypass contactor must be utilised to prevent excessive heat
build-up.
•If installing a by-pass contactor ensure phase connections
are correctly made
ie L1B-T1, L2B-T2,L3B-T3
•Removing control voltage resets the thermal model.
The examples and diagrams in this manual are included solely for illustrative
purposes. Users are cautioned that the information contained in this manual
is subject to change at any time and without prior notice. In no event will
responsibility or liability be accepted for direct or indirect or consequential
damages resulting from the use or application of this equipment.
CAUTION
This symbol is used throughout this manual to
draw attention to topics of special importance
to the installation and operation of the TMS7
soft starter.

GENERAL DESCRIPTION
4ME00070B TMS7 SERIES
General Description
2.1 Feature List
Starting
•Current Limit mode.
•Ramp Start mode.
Stopping
•Soft stop.
•Pump stop.
•Soft braking.
Protection
•Overcurrent protection.
•Motor thermistor input.
•Current imbalance.
•Phase rotation.
•Stall protection.
•Undercurrent.
•Supply frequency.
•Shorted SCR.
•Power circuit.
•Motor connection.
•RS485 failure.
Interface
•Remote control inputs
(4xfixed).
•Relay outputs
(1fixed,3xprogrammable).
•4-20mA output(1 xfixed).
•RS485 link.
HumanInterface
•Local push buttons.
(Start, Stop, Reset, Local/Remote)
•Local programming buttons.
(Function,Up,Down, Store)
•LED parameter display
•Phase indicator LEDs
Power connection.
•3 Wire
•6 Wire
•Bypass connections to retain motor
protectioneven whenbypassed.
•17 Amps to 1562 Amps (3 Wire)
26 Amps to 2345 Amps (6 Wire)
•200VACto 525VAC(V5 models)
•200VACto 690VAC(V7 models)
Sundryfeatures
•IP42 (<253 Amps)
•IP00 (>302 Amps)
•Current read-out
•Motor temperature read-out
•Fault History (eight position).
•Multiple function sets.
•Restart Delay.
•Low current alarm.
•High current alarm.
•Motorovertemperaturealarm.
•Auto-reset.
•Functionlock/Passwordprotection.
•Load defaults function settings.
2.2 Part Number Format
SupplyVoltage
V5=200VAC~525 VAC
V7=200VAC~690 VAC
ControlSupplyVoltage
C24 =230 VAC&400 VAC
C45 =460 VAC&575 VAC
TMS7- - -
NominalkWRatings(@AC53a 3-30:70-10)
e
g
.
4
0
2
2
=
2
2
k
W
Enclosure
E0=IP00
E4=IP42
-

SPECIFICATIONS
TMS7 SERIES ME00070B 5
Specifications
3.1 Current Ratings
ContinuousOperation (NotBypassed),3 WireConnection
Start Current (%FLC)
300% 350% 400% 450%
AC53a 3-10:70-10
45oC <1000 metres
AC53a 3.5-15:70-10
45oC <1000 metres
AC53a 4-20:70-10
45oC <1000 metres
AC53a 4.5-30:70-10
45oC <1000 metres
TMS7-4007 17 15 14 12
TMS7-4015 33 29 26 22
TMS7-4018 38 34 30 26
TMS7-4022 44 39 35 30
TMS7-4030 67 58 51 45
TMS7-4037 87 75 66 58
TMS7-4045 94 81 71 62
TMS7-4055 123 106 93 81
TMS7-4075 137 119 105 92
TMS7-4090 198 171 151 132
TMS7-4110 236 204 179 156
TMS7-4132 244 211 186 164
TMS7-4150 302 267 233 201
TMS7-4185 405 361 313 267
TMS7-4220 513 456 393 331
TMS7-4250 585 524 450 376
TMS7-4315 628 568 489 412
TMS7-4400 775 710 606 502
TMS7-4500 897 831 706 578
TMS7-4600 1134 989 872 759
TMS7-4700 1385 1210 1066 921
TMS7-4800 1563 1366 1202 1030
ContinuousOperation (NotBypassed),6 WireConnection
Start Current (%FLC)
300% 350% 400% 450%
AC53a 3-10:70-10
45oC <1000 metres
AC53a 3.5-15:70-10
45oC <1000 metres
AC53a 4-20:70-10
45oC <1000 metres
AC53a 4.5-30:70-10
45oC <1000 metres
TMS7-4007 26 23 21 18
TMS7-4015 50 44 39 33
TMS7-4018 57 51 45 39
TMS7-4022 66 59 53 45
TMS7-4030 101 87 77 68
TMS7-4037 131 113 99 87
TMS7-4045 141 122 107 93
TMS7-4055 185 159 140 122
TMS7-4075 206 179 158 138
TMS7-4090 297 257 227 198
TMS7-4110 354 306 269 234
TMS7-4132 366 317 279 246
TMS7-4150 453 401 350 302
TMS7-4185 608 542 470 401
TMS7-4220 770 684 590 497
TMS7-4250 878 786 675 564
TMS7-4315 942 852 734 618
TMS7-4400 1163 1065 909 753
TMS7-4500 1346 1247 1059 867
TMS7-4600 1701 1484 1308 1139
TMS7-4700 2078 1815 1599 1382
TMS7-4800 2345 2049 1803 1545

SPECIFICATIONS
6ME00070B TMS7 SERIES
BypassedOperation,3WireConnection
Start Current (%FLC)
300% 350% 400% 450%
AC53b 3-10:350
45oC <1000 metres
AC53b 3.5-15:345
45oC <1000 metres
AC53b 4-20:340
45oC <1000 metres
AC53b 4.5-30:330
45oC <1000 metres
TMS7-4007 18 18 16 14
TMS7-4015 34 34 34 28
TMS7-4018 41 41 41 34
TMS7-4022 47 47 47 39
TMS7-4030 67 62 54 47
TMS7-4037 88 82 71 61
TMS7-4045 96 90 78 66
TMS7-4055 125 120 103 88
TMS7-4075 141 127 111 96
TMS7-4090 202 187 162 140
TMS7-4110 238 224 194 166
TMS7-4132 254 228 198 172
TMS7-4150 302 285 245 209
TMS7-4185 405 395 336 282
TMS7-4220 513 513 435 356
TMS7-4250 585 585 504 410
TMS7-4315 628 626 528 436
TMS7-4400 775 775 672 542
TMS7-4500 897 897 798 632
TMS7-4600 1153 1153 1006 850
TMS7-4700 1403 1403 1275 1060
TMS7-4800 1574 1574 1474 1207
BypassedOperation,6WireConnection
Start Current (%FLC)
300% 350% 400% 450%
AC53b 3-10:350
45oC <1000 metres
AC53b 3.5-15:345
45oC <1000 metres
AC53b 4-20:340
45oC <1000 metres
AC53b 4.5-30:330
45oC <1000 metres
TMS7-4007 27 27 24 20
TMS7-4015 51 51 51 42
TMS7-4018 62 62 62 52
TMS7-4022 71 71 71 59
TMS7-4030 101 94 82 71
TMS7-4037 132 122 106 91
TMS7-4045 144 136 117 99
TMS7-4055 188 181 155 132
TMS7-4075 212 190 166 145
TMS7-4090 303 281 243 210
TMS7-4110 357 336 290 250
TMS7-4132 381 342 297 259
TMS7-4150 453 427 368 314
TMS7-4185 608 592 504 424
TMS7-4220 770 770 653 534
TMS7-4250 878 878 756 614
TMS7-4315 942 939 793 654
TMS7-4400 1163 1163 1009 813
TMS7-4500 1346 1346 1197 948
TMS7-4600 1730 1730 1509 1276
TMS7-4700 2105 2105 1912 1591
TMS7-4800 2361 2361 2212 1811

SPECIFICATIONS
TMS7 SERIES ME00070B 7
3.2 Dimensions & Weights
ABCabWei
ght
mm mm mm mm mm Kg
IP42/NEMA 1
TMS7-4007
TMS7-4015
TMS7-4018
TMS7-4022
380 185 180 365 130 6
TMS7-4030
TMS7-4037
TMS7-4045
TMS7-4055
380 185 250 365 130 7
TMS7-4075
TMS7-4090
TMS7-4110 425 270 275 410 200 17.5
TMS7-4132 425 390 275 410 300 23
IP00
TMS7-4150
TMS7-4185
TMS7-4220
TMS7-4250
42
TMS7-4315
TMS7-4400
TMS7-4500
690 430 294 522 320
49
TMS7-4600
TMS7-4700
TMS7-4800 855 574 353 727 500 120
TMS7-4007~TMS7-4132
Aa
B
bC
o12.0
o6.5
o6.5
TMS7-4150~TMS7-4800
Aa
B
bC
o16
o9.0
o9.0
3.3 SemiconductorFuses
Semiconductor fuses can be used with the TMS7 to reduce the
potential of damage to SCRs from transient overload currents
and for Type 2 coordination. Suitable Bussman semiconductor
fuses are detailed below.
Supply VoltageF Series
Fuses ≤415VAC
≤525VAC
≤575VAC
≤695VAC
Starter
I2t
TMS7-4007
63AFE
63AFE
63AFE
63AFE
1,150
TMS7-4015
160AFEE
160AFEE
160AFEE
160AFEE
10,500
TMS7-4018
200FM
180FM
180FM
180FM
15,000
TMS7-4022
200FM
180FM
180FM
180FM
18,000
TMS7-4030
200FM
180FM
180FM
180FM
15,000
TMS7-4037
250FM
250FM
250FM
250FM
51,200
TMS7-4045
250FM
250FM
250FM
250FM
80,000
TMS7-4055
250FM
250FM
250FM
250FM
97,000
TMS7-4075
280FM
280FM
280FM
280FM
97,000
TMS7-4090
500FMM
450FMM
450FMM
450FMM
145,000
TMS7-4110
630FMM
630FMM
630FMM
630FMM
414,000
TMS7-4132
630FMM
630FMM
630FMM
630FMM
414,000
TMS7-4150
630FMM
500FMM
500FMM
500FMM
211,000
TMS7-4185
500FMM
500FMM
500FMM
500FMM
320,000
TMS7-4220
700FMM
700FMM
700FMM
700FMM
781,000
TMS7-4250
*500FMM
*500FMM
*500FMM
*500FMM
1,200,000
TMS7-4315
*500FMM
*500FMM
*500FMM
*500FMM
1,200,000
TMS7-4400
*700FMM
*700FMM
*700FMM
*700FMM
2,532,000
TMS7-4500
----4,500,000
TMS7-4600
----4,500,000
TMS7-4700
----6,480,000
TMS7-4800
----12,500,000
Supply Voltage170M
Series
Fuses ≤415VAC
≤525VAC
≤575VAC
≤695VAC
Starter
I2t
TMS7-4007
170M1315
170M1314
170M1314
170M1314
1,150
TMS7-4015
170M1319
170M1317
170M1317
170M1317
10,500
TMS7-4018
170M1319
170M1318
170M1318
170M1318
15,000
TMS7-4022
170M1319
170M1318
170M1318
170M1318
18,000
TMS7-4030
170M1319
170M1318
170M1318
170M1318
15,000
TMS7-4037
170M3017
170M3017
170M3017
170M3017
51,200
TMS7-4045
170M1322
170M1321
170M1321
170M1321
80,000
TMS7-4055
170M1322
170M1322
170M1322
170M1322
97,000
TMS7-4075
170M1322
170M1322
170M1322
170M1322
97,000
TMS7-4090
170M6141
170M6141
170M6141
170M6141
145,000
TMS7-4110
170M3023
170M3023
170M3023
170M3023
414,000
TMS7-4132
170M3023
170M3023
170M3023
170M3023
414,000
TMS7-4150
170M5144
170M5144
170M5144
170M5144
211,000
TMS7-4185
170M6012
170M4016
170M6011
170M6011
320,000
TMS7-4220
170M6014
170M6014
170M4018
170M4018
781,000
TMS7-4250
170M5017
170M6015
170M6014
170M6014
1,200,000
TMS7-4315
170M6019
170M6018
170M6017
170M6017
1,200,000
TMS7-4400
170M6021
170M6020
170M6017
170M6017
2,532,000
TMS7-4500
170M6021
170M6020
170M6151
170M6151
4,500,000
TMS7-4600
170M6021
170M6020
170M6151
170M6151
4,500,000
TMS7-4700
170M6021
170M6021
*170M5018
*170M5018
6,480,000
TMS7-4800
170M6021
170M6021
*170M5018
*170M5018
12,500,000
*Twoparallel connected fuses requiredper phase

SPECIFICATIONS
8ME00070B TMS7 SERIES
3.4 Power Terminations
TMS7-4007~TMS7-4022
(3.5NM,2.6FT-LBS)
3mm14mm
6mm
TMS7-4030~TMS7-4055
(3.5NM,2.6FT-LBS)
4mm16mm
6mm
TMS7-4075
(8.5NM,6.3FT-LBS)
5mm20 mm
8mm
TMS7-4090~TMS7-4110
(8.5NM,6.3FT-LBS)
6mm26 mm
8mm
TMS7-4132
(17 NM,12.5FT-LBS)
6mm28mm
10mm
TMS7-4150~TMS7-4500
13 mm32 mm
10.5mm
T
M
S
7
-
4
6
0
0
~
T
M
S
7
-
4
8
0
0
16 mm51 mm
12.5mm
3.5 General Technical Data
Supply
Supplyvoltage (V5models) ...... 3x200~525VAC(3WireConnection)
3x200~440VAC(6 WireConnection)
Supplyvoltage (V7models) .... 3x200~690VAC(3WireConnection)
3x200~440VAC(6 WireConnection)
ElectronicsSupply(C24models) ................... 230VAC(+10%/-15%)
or400VAC (+10%/-15%)
ElectronicsSupply(C45models) ................... 460VAC(+10%/-15%)
or575VAC (+10%/-15%)
Supplyfrequency(atstart) ......................................... 50Hz(±2Hz)
or60Hz(±2Hz)
Supply frequency (during start) ...................... > 45Hz (50Hz supply)
or>55Hz(60Hzsupply)
Supplyfrequency(duringrun) ..........................>48Hz(50Hzsupply)
or>58Hz(60Hzsupply)
ControlInputs
Start(I34,I33) ................Normally Open,Active24VDC, 8mAapprox.
Stop(I22,I21) ............. NormallyClosed,Active24VDC,8mAapprox.
Reset(I12,I11)............ NormallyClosed,Active24VDC,8mAapprox.
FLCSelect(I44,I43) .......NormallyOpen, Active24VDC, 8mAapprox.
Outputs
RunOutput (R34,R33) .......... NormallyOpen,5A@250VAC/360VA
...................................................................5A@30VDCresistive
Prog.OutputA (R44,R43) ..... Normally Open, 5A @ 250VAC/360VA
...................................................................5A@30VDCresistive
Prog.OutputB (R24,R23) .... Normally Open,5A @250VAC/360VA,
...................................................................5A@30VDCresistive
ProgOutputC(R14,R12,R11) ... Changeover,5A@250VAC/360VA
....................................................................5A @30VDCresistive
Analogue Output (C6,C7).................................................. 4-20mA
Sundry
EnclosureRatingTMS7-4007~4132 ........................ IP42(NEMA1)
EnclosureRatingTMS7-4150~4800................. IP00(OpenChassis)
Rated short-circuitcurrent(withsemi-conductorfuses) ............ 100kA
Ratedinsulationvoltage ...................................................... 690V
Surges ......................................... 2kV line to earth, 1kV line to line
Fasttransients ...................................................... 2.0kV /5.0kHz
Ratedimpulsewithstandvoltage ............................................ 2 kV
Form designation .............................................................. Form1
Electrostaticdischarge ...... 4kVcontactdischarge,8kVairdischarge
Equipmentclass(EMC) ................................................... ClassA1
Radio-frequencyelectromagnetic field 0.15MHz-80MHz:140dBµV
.................................................................80 MHz-1GHz: 10V/m
Pollutiondegree ................................................ PollutionDegree3
OperatingTemperatures ............................................ -5oC / +60oC
RelativeHumidity ........................... 5–95%(maxnoncondensing)
1This product has been designed for class A equipment. Use of
the product in domestic environments may cause radio
interference, in which case the user may be required to employ
additional mitigation methods.
Standards Approvals
CE ..................................................................... IEC 60947-4-2
UL1................................................................................ UL508
C-UL1............................................................. CSA 22.2 No.14
Cü.............................................. AS/NZS 3947-4-2,CISPR-11
1Requires the use of semi-conductor fuses; is applicable for
supplyvoltages upto 600V;excludes models TMS-4600 ~
TMS7-4800.

INSTALLATION
TMS7 SERIES ME00070B 9
Installation
6.1 General Layout Diagrams
TMS7-4007~TMS7-4055
TMS7-4075~TMS7-4132
TMS7-4150 ~TMS7-4800
4.2 Power Termination Configuration
The bus bars on models TMS7-4150~TMS7-4800 can be
adjusted to provide four different input/output power terminal
configurations.
I
n
p
u
t
/
O
u
t
p
u
t
I
n
p
u
t
O
u
t
p
u
t
Input/OutputOutput Input
To adjust the bus bar configuration first remove the TMS7 cover
and main control module. Next loosen and remove the bus bar
fixing bolts. The bus bars can then be removed and reinstalled
into the starter in the desired configuration. The fixing bolts
should then be refitted and tightened to a torque of 8.5NM.
When re-orienting bus bars L1, L2, L3 the current transformers
must also be relocated.
Care must be taken to ensure that foreign matter does not
contaminate the jointing compound and become trapped
between the bus bar and its mounting plate. If the paste does
becomecontaminated, cleanand replacewith ajointing
compound suitable for aluminium to aluminium, or aluminium to
copper joints.
4.3 Mounting Instructions
Models TMS7-4007 ~ 4132 can be wall mounted or installed
inside another enclosure. These models can be mounted side
by side with no clearance but a 100mm allowance must be
made top and bottom for air intake and exhaust.
100mmMinimumClearance100mm MinimumClearance100mm MinimumClearance
1
0
0
m
m
M
i
n
i
m
u
m
C
l
e
a
r
a
n
c
e
1
0
0
m
m
M
i
n
i
m
u
m
C
l
e
a
r
a
n
c
e
1
0
0
m
m
M
i
n
i
m
u
m
C
l
e
a
r
a
n
c
e
Models TMS7-4150~ 4800have an IP00rating andmust be
mounted in another enclosure. These models can be mounted
side by side with no clearance but a 200mm allowance must be
made top and bottom for air intake and exhaust.
200mmMinimumClearance
200mmMinimumClearance
2
0
0
m
m
M
i
n
i
m
u
m
C
l
e
a
r
a
n
c
e
2
0
0
m
m
M
i
n
i
m
u
m
C
l
e
a
r
a
n
c
e

INSTALLATION
10 ME00070B TMS7 SERIES
4.4 Ventilation
When installing TMS7 starters in an enclosure there must be
sufficient air flow through the enclosure to limit heat rise within
the enclosure. Temperature within the enclosure must be kept
at, or below, the TMS7 maximum ambient temperature rating.
If installing an TMS7 within a totally sealed enclosure a bypass
contactor must be employed to eliminate heat dissipation from
the soft starter during run.
Soft starters dissipate approximately 4.5 watts per amp. The
table below shows air flow requirements for selected motor
currents. If other heat sources are installed in an enclosure
along with the TMS7 an additional air flow allowance must be
made for these items. Note that heat generation from
semiconductor fuses, if used, can be eliminated by installing
these within the bypass loop. Required Airflow
m3/min m3/hour
Motor
Amps Heat (watts) 5oC
Rise 10oC Rise 5oC Rise 10oC Rise
10 45 0.5 0.2 30 15
20 90 0.9 0.5 54 27
30 135 1.4 0.7 84 42
40 180 1.8 0.9 108 54
50 225 2.3 1.1 138 69
75 338 3.4 1.7 204 102
100 450 4.5 2.3 270 135
125 563 5.6 2.8 336 168
150 675 6.8 3.4 408 204
175 788 7.9 3.9 474 237
200 900 9.0 4.5 540 270
250 1125 11.3 5.6 678 339
300 1350 13.5 6.8 810 405
350 1575 15.8 7.9 948 474
400 1800 18.0 9.0 1080 540
450 2025 20.3 10.1 1218 609
500 2250 22.5 11.3 1350 675
550 2475 24.8 12.4 1488 744
600 2700 27.0 13.5 1620 810

POWER CIRCUITS
TMS7 SERIES ME00070B 11
Power Circuits
5.1 Overview
TMS7 starters can be wired with a number of different power
circuits depending on application requirements.
5.2 3 Wire Connection
This is the standard connection format. Supply voltage is
connected to the starter input terminals L1, L2 & L3. The motor
cables are connected to the soft starter output terminals T1, T2
& T3.
M
(OPTIONAL)(OPTIONAL)
K1MF1
K1Line Contactor
F1SemiconductorFuses
Legend
L2B
L3B
L1B
E
T2
L1
L2
L3
T1
T3
3PHASE
SUPPLY
5.3 3 Wire Connection (Bypassed Operation)
TMS7 starters can be bypassed while the motor is running.
Special terminals (L1B, L2B, L3B) are provided for connection of
the bypass contactor. Use of these terminals enables the TMS7
to continue to provide all protection and current monitoring
functionseven whenbypassed.
The TMS7 Run Output (Terminals R34 & R33) shouldbe used
to control operation of the bypass contactor. The bypass
contactor can be AC1 rated for the motor full load current.
M
K1MLineContactor
K2MBypassContactor
F1SemiconductorFuses
Legend
L2B
L3B
L1B
E
T2
L1
L2
L3
T1
T3
3PHASE
SUPPLY
(OPTIONAL)(OPTIONAL)
K1MF1
K2M
R33
R34
K2M
RunOutput
5.4 6 Wire Connection
TMS7 units are capable of 6 Wire (Inside Delta) connection as
well as 3 Wire connection. When connected in this configuration
the soft starter carries only phase current, this means the motor
FLC current can be 50% greater than the soft starter’s FLC
current rating.
(OPTIONAL)
K1MF1
K1Line Contactor
F1SemiconductorFuses
Legend
M
L2B
L3B
L1B
E
T2
L1
L2
L3
T1
T3
3PHASE
SUPPLY
U1
V1
W1
U2
V2
W2
Connect the three OUTPUT terminals(T1, T2,T3) ofthe TMS7
to the motor windings ensuring that the connections are made to
one end of each winding only. It is imperative to connect the
output of the TMS7 to the same end of each winding and this is
usually marked on the motor terminations.
L1
L2
L3
T1
T2
T3
MOTORTERMINALS
6WIRECONNECTION
The six terminations to the motor windings are usually arranged
in two rows of three so that the links can be fitted across from
the top three terminations to the lower terminations. In this case
connect the TMS7 to the top terminations only. Connect the
other three motor terminals to the input of the TMS7 in a manner
that connects the end of each winding to a different phase from
the input.
This is most easily achieved by replacing each delta link in the
motor terminal box by one phase of the controller. For example
if the delta links are fitted U1-V2,V1-W2,W1-U2
-Connect the incoming phases to L1,L2,L3 on the TMS7.
-Connect the TMS7 to the motor. T1-U1,T2-V1,T3-W1
-Connect the other motor terminals to the TMS7’SinputW2-L1,
U2-L2, V2-L3
5.5 6 Wire Connection (Bypassed Operation)
TMS7 units are capable of 6 Wire (Inside Delta) connection and
can be bypassed.
(OPTIONAL)
K1MF1
M
K1MLine Con tactor
K2MBypass Co ntactor
F1SemiconductorFuses
Legend
L2B
L3B
L1B
E
T2
L1
L2
L3
T1
T3
3PHAS E
SUP PLY
U1
V1
W1
U2
V2
W2
K2M
R33
R34
K2M
Run Output
5.6 Power Factor Correction
If static power factor correction is employed, it must be
connected to the supply side of the soft starter.
CAUTION
CAUTION:
Under no circumstance should power factor
correction capacitors be connected between the
soft starter and the motor. Connecting power
factor correction capacitors to the output of the
soft starter will result in damage to the soft
starter.

POWER CIRUCITS
12 ME00070B TMS7 SERIES
5.7 Line contactors
The TMS7 is designed to operate with or without a line
contactor. In many regions there is a statutory requirement that
a line contactor be employedwith electronic motor control
equipment. From a safety point of view, this is the preferable
option, however is not necessary for starter operation. An
additional benefit gained by use of a line contactor is isolation of
the starter SCR’s in the off state, when they are most
susceptible to damage from voltage transients.
The TMS7 can directly control a line contactor via the Main
Contactor Control output.
As an alternative to a line contactor, either a circuit breaker with
a no volt release coil operated by the TMS7 trip output, or a
motor operated circuit breaker can be considered. If a motor
operated circuit breaker is used as a line contactor, the potential
delay between the breaker being told to close and phase power
being applied to the TMS7 could cause the TMS7 to trip on
installation faults. Closing the motorized breaker directly and
using the breaker’s auxiliary contacts, or preferably a slave relay
with gold flash contacts, to control the TMS7 can avoid this.
Line contactors must be selected such that their AC3 rating is
equal to or greater than the full load current rating of the
connected motor.

CONTROL CIRCUITS
TMS7 SERIES ME00070B 13
Control Circuits
6.1 Electrical Schematic
FLCSELECTI43
I44
I11
I12
I21
I22
I33
RESET
STOP
I34
START
OROR
C7
C6
4-20mAOUTPUT
(MOTORCURRENT)
PROGRAMMABLE
OUTPUTC
(Tripped)
RUN OUTPUT
R34
R33
L2B
L3B
L1B
E
T2
RS485SERIAL
INTERFACE
GNDC5
C4
C3
R43
R44
MOTOR
THERMISTOR
R24
R23
L1
L2
L3
T1
T3
A1
A2
A3
R14
R12
R11
C1
C2
3PHASE
SUPPLYTOMOTOR
PROGRAMMABLE
OUTPUTB
(Start/Run)
PROGRAMMABLE
OUTPUTA
(MainContactor)
C24models
230V+10
-15
-15
+10
400V
C45models
575V+10
-15
-15
+10
460V
6.2 Control Supply
Voltage must be connected to the TMS7 control voltage
terminals. The required control voltage is dependent upon the
TMS7 model ordered.
•TMS7xxxx-xx-C24-xx models: 230VAC (A2-A3) or 400VAC
(A1-A2)
•TMS7xxxx-xx-C45-xx models: 460VAC (A1-A2) or 575VAC
(A2-A3)
TMS7Model Maximum VA
TMS7-4007~TMS7-4022 11VA
TMS7-4030~TMS7-4055 18VA
TMS7-4075~TMS7-4110 24VA
TMS7-4132~TMS7-4500 41VA
TMS7-4600~TMS7-4800 56VA
For circumstances where the available control supply voltage is
not suitable for direct connection to the TMS7 the following
range of auto-transformers are available asaccessories.These
auto-transformers can be mounted within the TMS7 in models.
Part NumberInput
Voltages
(C24
Models)
TMS7-4007~
TMS7-40047 TMS7-4030~ TMS7-4110 TMS7-4132~ TMS7-4800
110/460
VAC 995-00821- 00 995-00823- 00 995-00824- 00
110/575
VAC 995-00825- 00 995-00827- 00 995-00828- 00
Part NumberInput
Voltages
(C45
Models)
TMS7-4007~
TMS7-4022 TMS7-4030~ TMS7-4110 TMS7-4132~ TMS7-4800
110/230
VAC 995-00829- 00 995-00831- 00 995-00832- 00
6.3 Control Wiring
TMS7operation canbe controlled using either the local push
buttons, remote control inputs or the serial communications link.
The <LOCAL/REMOTE> push button can be used to switch
between local and remote control. Refer to Function 20.
Local/RemoteOperationfordetails.
RemoteControlInputs
The TMS7 has four remote control inputs. Contacts used for
controlling these inputs should be low voltage, low current rated
(Gold flash or similar).
Remote push button control
Reset
Stop
Start
I21
I22
I33
I34
I11
I12
I43
I44 FLCSelect
Twowirecontrol
Reset
Stop
Start
I21
I22
I33
I34
I11
I12
I43
I44 FLCSelect
CAUTION
CAUTION:
Do not apply voltage to the control inputs. The
inputs are active 24VDC and must be controlled
with potential free circuits.
Ensure contacts/switches operating the control
inputs are suitable for low voltage, lowcurrent
switching ie, gold flash or similar.
Ensure cables to the control inputs are
segregated from AC power and control wiring.
Relay Outputs
The TMS7 provides four relay outputs, one fixed and three
programmable. Functionality of the programmable outputs is
determined by the settings of Functions 21, 22 & 23.
R23
R24
R33
R34
R43
R44
R12
R14
R11
*
=
d
e
f
a
u
l
t
f
u
n
c
t
i
o
n
a
l
i
t
y
FunctionalityAssignme
n
-Tripped
-Overcurrenttrip
-Undercurrenttrip
-Motorthermistortrip
-Starterovertemperature
t
-Phaseimbalancetrip
-Electronicshearpintrip
-Lowcurrentalarm
-High currentalarm
-Motoroverload alarm
-Start/Run
-MainContactor
Programmable
OutputC
(*Tripped)
RunOutput
ProgrammableOutputB
(*Start/Run)
Programmable
OutputA
(*MainContactor)

CONTROL CIRCUITS
14 ME00070B TMS7 SERIES
Startsignal
Outputvoltage
RELAYFUNCTIONS
Maincontactor
Start/Run
Run
Pre-startTests
Motor Thermistors
Motor thermistors (if installed in the motor) may be connected
directly to the TMS7. A trip will occur when the resistance of the
thermistor circuit exceeds approximately 2.8kΩ. The TMS7 can
be reset once the thermistor circuit resistance falls below
approximately 2.8kΩ
ThermistorInput
C2
C1
Nomotorthermistors
C2
C1
MotorthermistorsThermistorInput
CAUTION
NOTE:
The thermistor circuit must be closed before the
TMS7willrun.
The thermistor circuit should be run in screened
cable and must be electrically isolated from earth
and all other power and control circuits.
If no motor thermistors are connected to the TMS7
thermistor input there must be a link across the
thermistor input terminals C1 & C2.
6.4 RS485 Serial Communication
TheTMS7hasanon-isolated RS485 serial communication link.
C5
C4
C3
RS485 GND
+
-
CAUTION
NOTE:
Power cabling should be kept at least 300mm away
from communications cabling. Where this cannot
beavoided magneticshielding shouldbe provided
to reduce induced common mode voltages.
Data transmitted to and from the TMS7 must be in 8 bit ASCII,
no parity, 1 stop bit.
Baud rate is set by Function. 61 RS485BaudRate.
TheTMS7 can be programmed to trip if the RS485 link fails by
setting Function 60. RS485 Timeout.
Thestarter addressis assignedusing Function62. RS485
Satellite Address.
The flow charts below show typical form of communication
between anTMS7 and host controller.
HostcontrollertoTMS7
START
SENDTMS7
SLAVEADDRESS
ACK
RECEIVEDTIMEOUT
N
N
Y
Y
D C
DATA/
COMMAND
SENDCOMMAND
TIMEOUT
ACK
RECEIVED
YY
N
N
N
Y
N
END
TIMEOUT
ERROR
LRC
ERROR
Y
N
Y
LRC
VALID
RECEIVE DATA
TIMEOUT
DATA
RECIEVED
SENDREQUEST
TMS7 to host controller
N
YN
Y
N
N
Y
Y
N
Y
N
Y
Y
N
N
Y
N
Y
N
Y
N
Y
START
EOT
DETECT
RECEIVE
ADDRESS
ENQEOT
LRC
VALID
ADDRESS
VALID
SENDACK
STX EOT
RECEIVEDATA
ETXEOT
LRC
VALIDSENDNAK
SEND
DATACONTROLTMS7
SEND DATA SENDACK
The following code sequences are used in the communications
between the host and the TMS7 (network).
Address slave unit.
ASCII EOT [nn] LRC
ENQ
or 04h [n1]h [n2]h [LRC1]h [LRC2]h
05h
Slaveresponse.
ASCII ACK
or 06h

CONTROL CIRCUITS
TMS7 SERIES ME00070B 15
CAUTION
NOTE:
If no TMS7 starter is configured to the specific
slave address, no response will be received by the
host. The host software timeout should be set to a
minimum of 250 ms.
CAUTION
NOTE:
Slave address must be two digit, addresses less
than 10 must have a leading zero (0).
Master command to slave.
ASCII STX [command] LRC ETX
or 02h [c1]h [c2]h [c3]h [LRC1]h [LRC2]h 03h
[command] = 3 byte ASCIIcommand (or request)selected from
the tables below.
LRC=LongitudinalRedundancyCheck.
Slaveresponse if Commandand LRC correct
ASCII ACK
or 06h
Slaveresponse if Commandand LRC incorrect
ASCII NAK
or 15h
SlaveresponseofReadrequestcorrectand LRC correct.
ASCII STX [data] LRC
ETX
or 02h [d3]h [d2]h [d1]h [d0]h [LRC1]h [LRC2]h
03h
Slave response if Read request or LRC invalid.
ASCII NAK
or 15h
Each command, status or data request is a 3 byte string as
detailedbelow. Invalidcommand/request strings cause the
TMS7to respondwith aNAK (15h).
Command ASCII Comment
Start B10 Initiates a start.
Stop B12 Initiates a stop
Reset B14 Resets a trip state
Coast to
stop B16 Initiates an immediate removal of voltage from the motor. Any soft
settings are ignored.
Status
Read ASCII Comment
Status C10 Requests the configuration status of the
TMS7.
Status_1 C12 Requests the operational status of the
TMS7.
Trip C14 Requests the trip status of the TMS7.
Version C16 RS485protocol version number.
TripCode C18 255 = No trip
0 = Shorted SCR
1 = Reserved
2 = Motor Thermal model trip
3 = Motor thermistor
4 = Current imbalance trip
5 = Supply frequency trip
Status
Read ASCII Comment
6 = Phase rotation trip
7 = Stall trip
8 = Power circuit fault
9 = Undercurrent trip
10 = Starter heatsink
overtemperature
11 = Invalid motor connection
Data Read ASCII Comment
Current D10 Requests motor current. The data is 4
byte decimal ASCII. Minimum value
0000,Maximumvalue9999Amps.
Temp D12 Requests the calculated value of the
motor thermal model as a % of Motor
Thermal Capacity. The data is 4 byte
decimal ASCII. Minimum value 0000%.
Trip point 0105%.
Each command string sent to and from the TMS7 includes a
check sum. The form used is the Longitudinal Redundancy
Check (LRC) in ASCII hex.This is an 8-bit binary number
represented and transmitted as two ASCII hexadecimal
characters.
To calculate LRC:
1. Sum all ASCII bytes
2. Mod 256
3. 2's complement
4. ASCII convert
For example Command String (Start);
ASCII STX B10
or 02h 42h 31h 30h
ASCII Hex Binary
STX 02h 0000 0010
B42h 0100 0010
131h 0011 0001
030h 0011 0000
A5h 1010 0101 SUM(1)
A5h 1010 0101 MOD 256 (2)
5Ah 0101 1010 1's COMPLEMENT
01h 0101 1011 +1=
5Bh 0101 1011 2's COMPLEMENT (3)
ASCII 5BASCIICONVERT(4)
or 35h 42h LRCCHECKSUM
The complete command string becomes
ASCII STX B105BETX
or 02h 42h 31h 30h 35h 42h 03h
To verify a received message containing an LRC;
1. Convert the last two bytes of message from ASCII to
binary.
2. Left shift 2nd to last byte 4 bits.
3. Add this result to the last byte to get the binary LRC.
4. Add up all the bytes of the message, except the last two.
5. Add the binary LRC.
6. The least significant byte should be zero.
For example:
ASCII STX B105B
ETX

CONTROL CIRCUITS
16 ME00070B TMS7 SERIES
or 02h 42h 31h 30h 35h 42h
03h
1. 35h(ASCII hex) = 5H = 00000101
42h (ASCII hex) = Bh = 00001011
Note: 03h is the EXT character (end of transmission) and is
not part of the message.
2. 00000101 = 01010000
3. 01010000 + 00001011 = 01011011
4. 02h + 42h + 31h + 30h = A5h
5. A5h +5Bh =100h
6. The least significant byte is zero so the message and
LRC match.
Response or status bytes are sent from the TMS7 asan ASCII
string.
STX [d1]h [d2]h [d3]h [d4]h LRC1 LRC2 ETX
d1 = 30h
d2 = 30h
d3 = 30h plus upper nibble of status byte right shifted by four
binary places.
d4 = 30h plus lower nibble of status byte.
For example status byte = 1Fh, response is
STX 30h 30h 31h 3Fh LRC1 LRC2 ETX
Status bits (positive logic 1 = true)
Status
Bit Function Comment
Status.7 50 Hz Only one of either Status.7 or
Status.6 can be at logic 1 when the
TMS7 is operating.
Status.6 60 Hz
Status.5 -Unallocated
Status.4 Soft stop
Status.3 Positive
phase
rotation
Will be at logic 0 when there is a
negative phase rotation.
Status.2 -Unallocated
Status.1 -Unallocated
Status.0 -Unallocated
Status_1 bits (negative logic 0 = true)
StatusBit Function Comment
NOT
Status_1.7 -
NOT
Status_1.6 -
NOT
Status_1.5 -
NOT
Status_1.4 Restart Delay
NOT
Status_1.3 Overload Motor is operating in an overload condition.
NOT
Status_1.2 Run
NOT
Status_1.1 Output On
NOT
Status_1.0 Power On
Trip bits (negative logic 0 = true). The table below shows the
complement of these bits to give positive logic (1 = true).
StatusBit Function
NOTTrip.7 Phase Loss
NOTTrip.6 Undercurrent
NOTTrip.5 Phase Rotation
NOTTrip.4 Overcurrent
NOTTrip.3 Over Temperature
NOTTrip.2 Installation
NOTTrip.1 Stall Protection
NOTTrip.0 Thermistor

PROGRAMMING
TMS7 SERIES ME00070B 17
Programming
7.1 Programming Procedure
Step 1. Enterprogrammode.
1. Simultaneously press and release the <FUNCTION>and
<STORE> keys. (When in program mode the three LEDs
to the right of the numeric display will be illuminated.)
Step 2. Select the function number to be viewed
or adjusted.
1. Pressand holdthe <FUNCTION>key.
2. Using the <UP>and <DOWN>keys select the required
function number. (Function numbers are left justified
and blink).
3. When the required function number is dispalyed,
release the <FUNCTION>key. The display changes to
show the function set point currently stored in memory.
(Function values are right justified and do not blink)
Step 3. Alter the function set point.
1. Review the current function set point and, if necessary,
use the <UP> or <DOWN>keys to adjust the setting.
(Pressing the <FUNCTION>key will restore the original
setting).
Step 4. Store the new function set point.
1. Press the <STORE> key to store the displayed setting
into memory.
2. Verify the new set point has been correctly stored by
pressing and then releasing the <FUNCTION>key. The
LED display should now show the new set point.
Step 5. Exit program mode.
1. Once all function settings have been made, exit the
programming mode by simultaneously pressing and
releasing the <FUNCTION>and <STORE> keys.

PROGRAMMING
18 ME00070B TMS7 SERIES
7.2 FunctionList
No. Function
Primary Motor Settings Default Setting
1Motor full load current -
2Current limit 350
3Minimum current 350
4Start ramp time 1
5Stop ramp time 0
6Motor trip class 10
7Current imbalance sensitivity 5
8Undercurrent protection 20
9Stall protection 400
Start/Stop Formats
10 Soft stop mode 0
StarterFunctionality
20 Local/Remote operation 0
21 Relay output A functionality 11
22 Relay output B functionality 10
23 Relay output C functionality 0
Protection Settings
30 Phase rotation 0
31 Restart delay 15
32 Currentimbalance 0
Set Points
40 Low current alarm 50
41 High current alarm 105
42 Motor temperature alarm 80
43 Field calibration 100
Analogue Output (Motor Current -% FLC)
50 4-20mA output range-max 100
51 4-20mA output range-min 0
Serial Communications
60 RS485 timeout 0
61 RS485baudrate 4
62 RS485 satellite address 20
Auto Reset
70 Auto-reset -configuration 0
71 Auto-reset -number of resets 1
72 Auto-reset -group A & B delay 5
73 Auto-reset -groupC delay 5
SecondaryMotor Settings
80 Motor full load current -
81 Current limit 350
82 Minimum current 350
83 Start ramp time 1
84 Stop ramp time 0
85 Motor trip class 10
86 Current imbalance sensitivity 5
87 Undercurrent protection 20
88 Stall protection 400
ProtectionDelays
90 Current imbalance trip delay 3
Read Only Data
100 Model Number -
101 Fault History -
Restricted Functions
110 Access code 0
111 Update access code 0
112 Function lock 0
113 Restore function settings 0
7.3 Function Descriptions
1. Motor Full Load Current
Range:ModelDependant(Amps)
DefaultSetting: Model Dependant (Amps)
Description: Sets the TMS7 for the connected motor’s full load
current.
Adjustment: Set to the Full Load Current (amps) rating shown
on the motor nameplate.
2. Current Limit
Range:100–550%FLC
DefaultSetting:350%FLC
Description: Sets the current limit for the Constant Current start
mode.
700%
500%
300%
100%
50%100%
ROTORSPEED
(%Full Speed)
eg.Function 2.CurrentLimit=350%xFLC
Adjustment: The required setting for the Current Limit function
is installation dependant and should be set such that:
•The motor is supplied with sufficient start current to enable
it to produce torque adequate to easily accelerate the
connected load.
•Desired starting performance is obtained.
•TMS7ratingsarenotexceeded.
3. Minimum Current
Range:100–550%FLC
DefaultSetting:350%FLC
Description: Sets the minimum current level for the Ramp Start
mode.
700%
500%
300%
100%
50%100%
ROTORSPEED
(%Full Speed)
Function.2CurrentLimit=350%xFLC
Function.3MinimumCurrent=200%xFLC
Function.4StartRampTime=10 secs

PROGRAMMING
TMS7 SERIES ME00070B 19
Adjustment:Function 3 Minimum Current and Function 4 Start
RampTime are used together to activate and control the Ramp
Start mode.
If the Ramp Start mode is required, set the MinimumCurrent so
that the motor begins to accelerate immediately a start is
initiated. Ramp Start mode is not required, set the Minimum
Current equal to the Current Limit.
RampStart mode should be considered in preference to Current
Limit start mode in applications where:
•Required start torque can vary from start to start. For
example conveyors may start loaded or unloaded. In this
case set Function 3 Minimum Current to a level that will
start motor in the light load condition and Function 2
CurrentLimit to a level that will start the motor in the high
load condition.
•Starting time of an easily broken away load needs to be
extended, forexample pumps.
•A generator set supply is limited and a slower application
of load will allow greater time for the generator set to
respond.
4. Start Ramp Time
Range:1–30 Seconds
DefaultSetting: 1 Second
Description: Sets the ramp time for the Current Ramp start
mode.
Adjustment: Set the StartRampTime tooptimise start
performance.
5. StopRampTime
Range:0–100 Seconds
DefaultSetting:0 Second (Off)
Description: Sets the soft stop ramp time for soft stopping of
the motor.
Adjustment: Set the StopRampTime to produce the desired
motor stopping performance.
Two soft stop modes are provided by the TMS7. Use Function
10. Soft Stop Mode to select the desired mode.
If utilising the Soft Stop function and a line contactor, the
contactor must not be opened until the end of the stop ramp
time. The TMS7 programmable outputs A,B or C can be set for
control of the line contactor. Refer Functions 21, 22, 23 for
programmable output assignment details.
6. Motor Trip Class
Range:0–60 Seconds
DefaultSetting:10Seconds
CAUTION
NOTE:
A setting of 0 seconds disables the TMS7 motor
thermal model. Use this setting only if another form
of motor protection is used.
Description: Sets the motor thermal capacity used by the TMS7
motor thermal model.
Adjustment: Set the Motor Trip Class (MTC) according to the
motor’s thermal capacity.
A motor’s thermal capacity is expressed as the maximum time
(seconds) a motor can maintain locked rotor current conditions
from cold, and is often referred to as Maximum Locked Rotor
Time or Maximum DOL Start Time. This information is available
from the motor data sheet or direct from the motor supplier.
CAUTION
NOTE:
The TMS7 motor thermal model assumes a
locked rotor current of 600%. If the connected
motor’s locked rotor current differs from this,
greater accuracy can be achieved by using a
normalised MTC figure. A normalised MTC
figure can be calculated as follows:
TimeStartMaxX
2
600
%LRC
=MTC 





CAUTION
NOTE:
Setting Function 6 MotorTripClass according
to the motor’s actual thermal capacity allows
safe use of the motor’s full overload capability
both to start the load and ride through overload
conditions. Additionally, a more conservative
approach can be taken by setting a reduced
MTC for easy to start loads that willnot
experience transient operating overloads as a
part of normal operation.
Using a reduced MTC figure has the advantage
of maximising motor life. The life of a motor is
strongly influenced by its maximum winding
temperature, with a 'rule of thumb' stating that
the expected life span of a motor is halved for
every ten degree rise in temperature. The
temperature rise is dependent on the motor
losses and the motor cooling. The highest
stress on the motor is during start, and can be
minimised by restricting the duration and
frequencyof starts.A reducedMTC setting
(Function 6) will also cause the TMS7
protection to operate before the motor is
thermally stressed.
A suitable reduced MTC figure can be
established by observing the modeled motor
temperature asshown onthe TMS7 LED
display, and adjusting the MTC parameter such
that after a normal start which has been
precededbya periodofrunningat maximum
load, the calculated motor temperature is
approaching 90%.
Cold start curves
1
10
100
1000
10000
100 300 500 700 I (% FLC)
t(s)
MTC = 5 Sec
MTC = 10 Sec
MTC = 20 Sec
MTC = 30 Sec

PROGRAMMING
20 ME00070B TMS7 SERIES
7. Current Imbalance Sensitivity
Range:1–10
1 = Highest sensitivity (lowest imbalance)
I
5 = Average sensitivity
I
10 = Lowest sensitivity (highest imbalance)
DefaultSetting:5
Description: Sets the sensitivity of the current imbalance
protection.
Adjustment:Thefactory setting is suitable for most applications
however the sensitivity can be adjusted to accommodate site
specific tolerances
8. Undercurrent Protection
Range:15%–100% FLC
DefaultSetting:20%FLC
Description: Sets the trip point for the TMS7 undercurrent
protection as a percentage of motor full load current.
Adjustment: Set to a level below the motors normal working
range and above the motor’s magnetising (no load) current.
To disable the undercurrent protection make a setting less than
the magnetising current of the motor, typically 25% -35%of
rated Full Load Current.
CAUTION
NOTE:
Undercurrent protection is only operative during
‘run’.
9. Stall Protection
Range:80%–550% FLC
DefaultSetting:400%FLC
Description: Sets the trip point for the TMS7 stall protection as
a percentage of motor full load current.
Adjustment: Set as required.
CAUTION
NOTE:
Stall protection is operative only during ‘run’.
10. Soft Stop Mode
Range:0–1
0 = Standard soft stop
1 = Pump control
DefaultSetting: 0(Standard softstop)
Description: Sets the active soft stop mode.
Adjustment: The standard soft stop mode automatically
monitors motor deceleration and will provide optimum control for
most applications. Pump control may however offer superior
performance in some applications and can be of particular
benefit in some pumping applications.
20. Local/Remote Operation
Range:0–3
0 = TMS7 Local/Remote push button always enabled.
1 = TMS7 Local/Remote push button disabled while motor
running.
2 = Local control only. (TMS7 push buttons enabled, remote
inputs disabled)
3 = Remote control only. (TMS7 push buttons disabled, remote
inputs enabled)
DefaultSetting:0 (Local/Remotebutton enabled)
Description: Enables and disables the local push buttons and
remote control inputs. Also determines when and if the
Local/Remote push button can be used to switch between local
and remote control.
Adjustment: Set as required
21. Relay Output A Functionality
Range:0–11
0 = Tripped
1 = Overcurrent trip
2 = Undercurrent trip
3 = Motor thermistor trip
4 = Starter overtemperature trip
5 = Phase imbalance trip
6 = Electronic shearpin trip
7 = Low current alarm
8 = High current alarm
9 = Motor overload alarm
10 = Start/Run
11 = Main contactor.
Startsignal
Outputvoltage
RELAY FUNCTIONS
Maincontactor
Start/Run
Run
Pre-startTests
DefaultSetting: 11(Main Contactor)
Description: Assigns the functionality of programmable relay
output A.
Adjustment: Set as required
22. Relay Output B Functionality
Range:0-11
DefaultSetting:10(Start/Run)
Description: Assigns the functionality of programmable relay
output B.
Adjustment:Refer Function21 RelayOutput AFunctionality for
adjustment detail.
23. Relay Output C Functionality
Range:0-11
DefaultSetting:0(Tripped)
Description: Assigns the functionality of programmable relay
output C.