Phase Technologies Phase Perfect PT007 User manual

Digital Phase Converter
Operation & Installation Manual
•
Single-Phase to Three-Phase
•
Solid State Technology
•
95 - 98.7% Efficient
230 V & 460 V

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V4.1
Product Manual
2022 © Copyright.V4.1 All rights reserved. All contents are property of Phase Technologies, LLC.
No portion of this publication or its contents may be duplicated by any means, electronic or otherwise, without the
express written consent of Phase Technologies, LLC.
V4.1_05082023
Digital Phase Converter
222 Disk Drive
Rapid City, SD 57701
Phone: [phone]
Fax: [phone]
Toll Free: 866-250-7934
www.phasetechnologies.com

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V4.1
INTRODUCTION
The Phase Perfect®Digital Phase Converter converts single-phase AC power to
three-phase AC power to operate a variety of electrical equipment. The Phase Perfect®
delivers unmatched, three-phase voltage balance and operates at 98.7% efficiency.
Output voltage is sinusoidal with low harmonic content, making it safe to operate
sensitive electronic equipment. The Phase Perfect®was designed to comply with IEEE
519 to meet utility regulatory standards.
Phase Perfect®Digital Phase Converters are available in NEMA 1 indoor enclosures
and NEMA 3R outdoor enclosures with insect guards.
Digital Phase Converter

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V4.1
SAFETY MESSAGES AND WARNINGS
To ensure safe and reliable operation of the Phase Perfect®, it is important to carefully
read this manual and to observe all warning labels attached to the unit before installing.
Please follow all instructions exactly and keep this manual with the unit for quick and
easy reference.
Definitions of Warning Signs and Symbols
CAUTION: Indicates a potentially hazardous situation that could result in injury or
damage to the product.
WARNING: Indicates a potentially hazardous situation that could result in serious
injury or death.
HIGH VOLTAGE: The voltage associated with the procedures referenced could
result in serious injury or death. Use caution and follow instructions carefully.
READ THESE WARNINGS BEFORE INSTALLING
OR OPERATING EQUIPMENT!
WARNING: Risk of electric shock. More than one disconnect switch may be
required to de-energize the equipment before servicing.
WARNING: Risk of electric shock. De-energize the unit by disconnecting all
incoming sources of power, then wait 30 minutes for internal charges to dissipate
before servicing the equipment.
HIGH VOLTAGE: This equipment is connected to line voltages that can create a
potentially hazardous situation. Electric shock could result in serious injury or death.
This device should be installed and serviced only by trained, licensed, and qualified
personnel. Follow instructions carefully and observe all warnings.
WARNING: Installation of this equipment must comply with the National Electrical
Code (NEC) and all applicable local codes. Failure to observe and comply with these
codes could result in risk of electric shock, fire, or damage to the equipment.
WARNING: Grounding electrodes must be installed such that earth resistance is
25 Ohms or less, as specified by the NEC section 250-56. If surge protection is
installed, earth resistance must be 3 Ohms or less for full effect. Failure to meet these
requirements could result in serious injury or death and will void the manufacturer’s
warranty.
CAUTION: Circuit breakers, fuses, proper ground circuits, and other safety
equipment and their proper installation are not provided by Phase Technologies, LLC,
and are the responsibility of the end user.

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V4.1
CAUTION: Failure to maintain adequate clearance may lead to overheating of the
unit and cause damage or fire.
WARNING: Input power connections should be made by a qualified electrician
into circuit with adequate voltage and current carrying capacity for the model. Branch
circuit protection to the unit should be provided by appropriately sized fuses or a 2-pole
circuit breaker.
CAUTION: Use 600 V vinyl-sheathed wire or equivalent. The voltage drop of the
leads needs to be considered in determining wire size. Voltage drop is dependent on
wire length and gauge. Use only copper conductors.
CAUTION: Wires fastened to the terminal blocks shall be secured by tightening
the terminal screws to a torque value listed in Table 18 - Table 22.
CAUTION: The input wire gauge must be sized for the single-phase input current,
which will be significantly larger than the three-phase output current to the load. The
minimum wire gauge for the input terminals is listed in Table 17.
CAUTION: Never allow bare wire to contact metal surfaces.
CAUTION: Never connect AC main power to the output terminals T1, T2, and T3.
WARNING: Under certain conditions, the motor load may automatically restart
after a trip has stopped it. Make sure power to the converter has been disconnected
before approaching or servicing the equipment. Otherwise, serious injury may occur.

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V4.1
TABLE OF CONTENTS
THEORY OF OPERATION .......................................................................................... 1
BLOCK DIAGRAM........................................................................................................ 1
MODELS AND RATINGS ............................................................................................ 2
SPECIFICATIONS ....................................................................................................... 3
GENERAL SPECIFICATIONS ......................................................................................... 3
ELECTRICAL SPECIFICATIONS ..................................................................................... 3
MECHANICAL SPECIFICATIONS .................................................................................... 5
INSTALLATION........................................................................................................... 7
MOUNTING YOUR NEW PHASE PERFECT ..................................................................... 7
MOUNTING BRACKET INSTALLATION ............................................................................ 7
NEMA 3R RAIN HOODS ............................................................................................. 7
PROPER VENTILATION ................................................................................................ 7
SERVICE ENTRANCE EQUIPMENT ................................................................................ 7
SOURCE BRANCH CIRCUIT PROTECTION...................................................................... 7
GROUNDING ..............................................................................................................8
GENERATOR POWER................................................................................................ 10
WIRE SIZING ........................................................................................................... 10
CONNECTING THE LOAD ........................................................................................... 10
CONNECTING TO FIELD WIRING TERMINALS ............................................................... 13
ROUTING POWER CABLES ........................................................................................ 15
ON/OFF CONTROL WIRING ....................................................................................... 17
OPERATION.............................................................................................................. 19
LCD STATUS SCREEN.............................................................................................. 19
DIP SWITCH SETTINGS ............................................................................................ 19
BYPASS AUX INPUTS ............................................................................................... 20
ENABLE VFD MODE................................................................................................. 20
VOLTAGE CALIBRATION ............................................................................................ 20
TRANSFORMER MODE .............................................................................................. 21
ELEVATOR MODE..................................................................................................... 22
STARTUP DELAY ...................................................................................................... 23
INFINITE RESTARTS.................................................................................................. 24
FAULT CODES ......................................................................................................... 25
FAULTS:MANUAL RESTART ...................................................................................... 26
FAULT LOG.............................................................................................................. 26
TROUBLESHOOTING TIPS ...................................................................................... 27
ROUTINE INSPECTION AND MAINTENANCE ......................................................... 28
LINE FILTER CAPACITORS......................................................................................... 28
FUSES .................................................................................................................... 31
MOTOR STARTING/OVERLOAD CAPABILITIES .................................................... 33
DIMENSIONAL DRAWINGS...................................................................................... 37
NOTES....................................................................................................................... 46
WARRANTY POLICY ................................................................................................ 47

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V4.1
THEORY OF OPERATION
L1 and L2 of the single-phase input pass directly through the phase converter to provide
two legs of the three-phase output. The input module charges a DC bus from the input
lines. The output module uses power from the DC bus to generate the third leg of the three-
phase output. The third leg is generated to limit voltage imbalance between the three legs
to ≤ 2%. Voltage imbalance is calculated according to the NEMA MG1 standard.
 =

Where:
 =  + +
3
 =  (| |,| |, | |)
Block Diagram
The diagram in Figure 1illustrates the basic design schematic of the Phase Perfect Digital
Phase Converter.
Figure 1 – Phase Perfect Digital Phase Converter Schematic

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V4.1
MODELS AND RATINGS
Figure 2– Phase Perfect Nomenclature
Figure 3 – Phase Perfect Enterprise Nomenclature
Figure 4– Phase Perfect Simple Nomenclature

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V4.1
SPECIFICATIONS
General Specifications
Table 1 –General Specifications
Output Voltage – Standard Models
Approx. equal to input voltage
Output Voltage – Voltage Doubling Models
Approx. 2 x input voltage
Output Voltage Imbalance
≤2%
Operating Temperature – PT
-10°C (14°F) to 50°C (122°F)
Operating Temperature – PTE
-10°C (14°F) to 40°C (104°F)
Operating Temperature – PTS
-10°C (14°F) to 40°C (104°F)
Storage Temperature
-20°C (-4°F) to 60°C (140°F)
Efficiency – Standard Models
98.7%
Efficiency – Voltage-Doubling Models
95.0%
Short Circuit Withstand Rating
10kA
Start Delay on Power Up
2 sec
Electrical Specifications
Table 2 – 230 V PT Models and Ratings
Model
Power
(HP)
Output
(kVA)
Max Steady
State Output
Current (AAC)
Input
Voltage
Range
(VAC)
Max AC
Input
Current (A)
Standby
Power/Energy,
(W/BTU/hr)
Full Load
Energy
Loss
(BTU/hr)
PT007 7.5 10.8 26
187-260
45 70/239 479
PT010 10 14.9 36 62 74/252 661
PT020 20 26.6 64 111 80/273 1,180
PT030 30 39.4 95 165 175/597 1,752
PT040 40 54.0 130 225 190/648 2,395
PT050 50 68.5 165 286 235/802 3,043
PT060 60 78.9 190 329 260/887 3,500
PT075 75 99.7 240 416 300/1,024 4,427

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V4.1
Table 3 – 230 V PTE Models and Ratings
Model Power
(HP)
Output
(kVA)
Max Steady
State Output
Current
(AAC)
Input
Voltage
Range
(VAC)
Max AC
Input
Current (A)
Standby
Power/Energy,
(W/BTU/hr)
Full Load
Energy
Loss
(BTU/hr)
PTE007 7.5 10.8 26
187-260
45 70/239 479
PTE010 10 14.9 36 62 74/252 661
PTE015 15 21.6 52 90 77/263 958
PTE020 20 26.6 64 111 80/273 1,180
Table 4– 230 V PTS Models and Ratings
Model Power
(HP)
Output
(kVA)
Max Steady
State Output
Current
(AAC)
Input
Voltage
Range
(VAC)
Max AC
Input
Current (A)
Standby
Power/Energy,
(W/BTU/hr)
Full Load
Energy
Loss
(BTU/hr)
PTS003 3 4.5 11
187-260
19 60/205 200
PTS005 5 7.4 18 31 60/205 328
PTS007 7.5 10.8 26 45 70/239 479
Table 5 – Voltage Doubling PTE Models and Ratings
Model Power
(HP)
Output
(kVA)
Max Steady
State Output
Current (AAC)
Input
Voltage
Range
(VAC)
Max AC
Input
Current (A)
Standby
Power/Energy
(W/BTU/hr)
Full Load
Energy Loss
(BTU/hr)
PTE207QT 7.5 10.8 13
187-260
45 200/682 1938
PTE210QT 10 14.9 18 62 320/1,092 2685
PTE215QT 15 22.4 27 94 435/1,484 4029
PTE220QT 20 26.6 32 111 550/1,876 4777
Table 6 – 460 V PT Models and Ratings
Model
Power
(HP)
Output
(kVA)
Max Steady
State Output
Current (AAC)
Input
Voltage
Range
(VAC)
Max AC
Input
Current (A)
Standby
Power/Energy,
(W/BTU/hr)
Full Load
Energy
Loss
(BTU/hr)
PT407 7.5 10.8 13
440-520
22 52/177 479
PT410 10 14.9 18 32 68/232 661
PT415 15 22.4 27 47 71/242 994
PT420 20 26.6 32 55 74/252 1,180
PT430 30 38.2 46 80 87/297 1,694
PT440 40 50.7 61 105 180/614 2,249

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V4.1
PT450 50 64 77 134 190/648 2,839
PT460 60 75.6 91 157 220/751 3,358
PT475 75 88.9 107 185 270/921 3,992
PT4100 100 118 142 246 300/1,024 5,239
PT4150 150 164.4 198 343 330/1,126 7,305
PT4175 175 183 220 381 350/1,194 8,117
Table 7 – 460 V PTE Models and Ratings
Model
Power
(HP)
Output
(kVA)
Max Steady
State Output
Current (AAC)
Input
Voltage
Range
(VAC)
Max AC
Input
Current
(A)
Standby
Power/Energy,
(W/BTU/hr)
Full Load
Energy
Loss
(BTU/hr)
PTE407 7.5 10.8 13
440-520
22 52/177 479
PTE410 10 14.9 18 32 68/232 661
PTE415QT 15 22.4 27 48 71/242 994
PTE420QT 20 26.6 32 55 74/252 1,180
Table 8– 460 V PTS Models and Ratings
Model
Power
(HP)
Output
(kVA)
Max Steady
State Output
Current (AAC)
Input
Voltage
Range
(VAC)
Max AC
Input
Current
(A)
Standby
Power/Energy,
(W/BTU/hr)
Full Load
Energy
Loss
(BTU/hr)
PTS405 5 8.3 10
440-520
18 48/163 368
PTS407 7.5 10.8 13 22 52/177 479
Mechanical Specifications
Table 9 – 230 V PT Models – Enclosure Specifications
Models PT007 PT010 PT020 PT030 PT040 PT050 PT060 PT075
Dimensions
Indoor: NEMA 1
(H x W x D)*
36 15/16” x 25 3/8” x 17
1/16”
32 13/16” x 20
3/4" x 14 3/4"
36 1/4” x 27
13/16” x 15 3/4"
44 15/16” x 25 13/16” x 1
6
3/4”
Dimensions
Outdoor: NEMA 3R
(H x W x D)*
37 7/16” x 25 3/8” x 19
5/16”
35 1/8” x 20 3/4"
x 18 13/16”
38 7/8” x 27
13/16” x 19
5/16”
46 1/8” x 25 13/16” x 20
1/8”
Weight (lbs) 102 104 129 222 233 251 255 288

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V4.1
Table 10 – 230 V PTE Models – Enclosure Specifications
Models PTE007 PTE010 PTE015 PTE020
Indoor: NEMA 1 (HxWxD)*
25 7/16” x 17 1/4" x 7 3/8” 27 1/2" x 17 5/16” x 8 7/16”
Outdoor: NEMA 3R (H x W x D)* 25 9/16” x 18 5/16” x 12” 29 1/4" x 19 3/16” x 15 9/16”
Weight (lbs)
51
51
71
72
Table 11 – 230 V PTS Models – Enclosure Specifications
Models PTS003 PTS005 PTS007
Indoor: NEMA 1 (H x W x D)* 17 9/16” x 12 5/16" x 5 5/8” 17 9/16” x 12 5/16” x 6 5/16”
Outdoor: NEMA 3R (H x W x D)*
17 7/8“ x 13 1/4" x 10 1/2"
18” x 13 1/4" x 11 1/4"
Weight (lbs)
20
22
24
Table 12 – Voltage Doubling PTE Models – Enclosure Specifications
Models PTE207 PTE210 PTE215 PTE220
Indoor: NEMA 1 (H x W x D)* 33 9/16" x 18 9/16" x 8 3/8"
Outdoor: NEMA 3R (H x W x D)* 34 3/4" x 20” x 13 7/16”
Weight (lbs)
65
68
74
80
Table 13 – 460 V PT Models - Enclosure Specifications
Models PT407 PT410 PT415
PT420
PT430
PT440
PT450
PT460
PT475 PT4100 PT4150 PT4175
Indoor:
NEMA 1
(HxWxD)*
31 3/8” x 17 3/16” x 15 1/16”
36 15/16”x
25 3/8”x 17
1/16”
44 15/16” x 25 13/16” x 16 3/4”
Outdoor:
NEMA 3R
(HxWxD)*
31 3/8” x 22 7/16” x 15 1/16”
37 7/16” x
25 3/8” x 19
5/16”
46 1/8” x 25 13/16” x 20 1/8”
Weight
(lbs)
70 74 80 80 141 242 246 256 268 305 305 305
Table 14 – 460 V PTE Models - Enclosure Specifications
Models PTE407 PTE410 PTE415 PTE420
Indoor: NEMA 1 (H x W x D)* 27 1/2" x 17 5/16” x 8 7/16”
Outdoor: NEMA 3R (H x W x D)* 29 1/4" x 19 3/16” x 15 9/16”
Weight (lbs)
69
70
70
72
Table 15 – 460 V PTS Models – Enclosure Specifications
Models PTS405 PTS407
Indoor: NEMA 1 (H x W x D)*
18” x 14 1/8” x 6 5/16”
Outdoor: NEMA 3R (H x W x D)*
18 11/16” x 15” x 11 3/16”
Weight (lbs)
25
25
*Note: Dimensions are maximum measurements including mounting hardware and optional MCCB handle, where
applicable. Weights include MCCB.

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V4.1
INSTALLATION
Mounting Your New Phase Perfect
Proper installation of the unit is important to the performance and normal operating life of
the unit. The unit should be installed in a location free from:
•Corrosive gases or liquids
•Excessive vibration
•Airborne metallic particles
Mount the unit to a solid, non-flammable surface capable of bearing the weight using the
mounting brackets provided with the unit. Model weights are found in Table 9– Table 14.
Mounting Bracket Installation
For shipping purposes, mounting brackets may be installed upside down, or shipped
separately in a bag.If the mounting brackets are not installed in an upright position,
remove the mounting screws, turn to an upright position, and then fasten the screws tightly.
NEMA 3R Rain Hoods
Phase Perfect phase converters can be ordered in NEMA 1 indoor or NEMA 3R outdoor
rated enclosures. Exterior openings on the top and sides of enclosure must be covered by
a rain hood to be NEMA 3R outdoor rated. If the unit is being installed outdoors, install the
supplied rain hood before operation. Installing products outdoors without the proper rain
hood will void the manufacturer warranty.
Proper Ventilation
To maintain air circulation for adequate cooling, minimum clearance around the unit must
be maintained. Allow six inches on each side and top, and at least 18 inches below.
Ensure air intake and exhaust openings are not obstructed. If the unit is mounted in a small
room, cabinet, or building, ensure there is adequate ventilation to provide sufficient cooling.
Service Entrance Equipment
Phase Perfect phase converters are suitable for use as service equipment when the
molded case circuit breaker (MCCB)/disconnect, service ground conductor terminal, and
grounding electrode conductor are factory installed and the converter is labeled “Suitable
for use as Service Equipment.” Consult local electrical code for installation guidance.
Source Branch Circuit Protection
If a circuit breaker is not factory installed, branch circuit protection must be installed in the
circuit sourcing the phase converter. See Table 16 for recommended circuit breaker sizing.
Fuses may be used for circuit protection, consult local electrical code for proper sizing.
Installation of a disconnection means within sight of the phase converter is recommended.

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V4.1
Grounding
•Properly ground the phase converter according to local electrical code.
•Connect the ground lug to the branch circuit or service ground conductor.
•Ground the phase converter with an adequately sized conductor according to
local electrical code.
•Ground wire recommendations based on solid to semi-rigid stranded copper
wire.
Table 16 – Ground Wire Specifications
Models Recommended
Circuit Breaker (A)
Wire Range (AWG)
Min Max
PTS003 30 10 2
PTS005 40 10 2
PT007/PTE007/PTS007
60
10
2
PT010/PTE010 80 8 2
PTE015
125
6
2
PT020/PTE020
150
6
2
PT030 225 4 2
PT040 300 4 2
PT050 400 3 2/0
PT060
500
2
2/0
PT075
600
1
2/0
PTE207 60 8 2
PTE210
80
6
2
PTE215 125 6 2
PTE220 150 6 2
PTS405 30 10 2
PT407/PTE407/PTS407
30
10
2
PT410/PTE410
40
10
2
PT415/PTE415
60
10
2
PT420/PTE420
70 8 2
PT430 100 8 2
PT440
150
6
2
PT450
175
6
2
PT460
200
6
2
PT475 250 4 2
PT4100 400 3 2/0
PT4150
400
3
2/0
PT4175
500 3 2/0
See terminal markings for additional wire size and torque information.

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V4.1
Connecting Source Power
Table 17 – Input Wiring
Wire size recommendations based on 600 VAC copper wire, rated either 60°C or 75°C.
Assuming 104°F (40°C) ambient and no more than 3 current carrying conductors in
raceway or earth (directly buried). If phase converter will be in warmer environments,
consult NEC Handbook for temperature correction factor.
Input Wiring Recommendations
Min. Wire
Gauge (60°C)
Min. Wire
Gauge (75°C)
PTS003 10 AWG 14 AWG
PTS005
8 AWG 10 AWG
PT007/PTE007/PTS007 4 AWG 6 AWG
PT010/PTE010 3 AWG 4 AWG
PTE015 1/0 AWG 1 AWG
PT020/PTE020 - 1/0 AWG
PT030 300 kcmil 4/0 AWG
PT040 - 350 kcmil
PT050 2 x 250 kcmil 2 x 3/0 AWG
PT060
2 x 300 kcmil 2 x 250 kcmil
PT075
2 x 500 kcmil 2 x 350 kcmil
PTE207 4 AWG 6 AWG
PTE210
3 AWG
4 AWG
PTE215
1/0 AWG
1 AWG
PTE220
- 1/0 AWG
PTS405 10 AWG 14 AWG
PT407/PTE407/PTS407 10 AWG 10 AWG
PT410/PTE410
8 AWG
8 AWG
PT415/PTE415 4 AWG 6 AWG
PT420/PTE420 4 AWG 4 AWG
PT430
1 AWG 3 AWG
PT440 - 1/0 AWG
PT450
- 2/0 AWG
PT460
250 kcmil
3/0 AWG
PT475
350 kcmil 250 kcmil
PT4100
2 x 250 kcmil
2 x 3/0 AWG
PT4150 2 x 250 kcmil
2 x 3/0 AWG
PT4175 2 x 250 kcmil 2 x 3/0 AWG

10 | Page
V4.1
Generator Power
Phase Perfect phase converters can be powered by a generator, but it is recommended
that generator be sized 125% of the phase converter rating for proper operation. If a
generator will be used for backup power, a delay timer must be used to allow the phase
converter to completely shut down before transferring to a new power source. This delay
should be a minimum of 15 seconds.
Wire Sizing
Use Table 17 to find minimum guidelines on properly sizing input conductors according to
local electrical code. The voltage drop from the supply to the converter should be limited to
3% to ensure proper starting and operation of motor loads. Increase the wire gauge to
provide adequate voltage to the load. Ensure the wire gauge is suitable to the terminal
block.
Use the following formula to calculate line voltage drop.
 = 
  ()
Connecting the Load
Do not connect single-phase loads to the manufactured leg, T3. This places unnecessary
load on the phase converter and may violate electrical code in some areas. Apply overload
and short circuit protection to protect load side conductors, motors, and other attached
loads according to local electrical code. For some motor loads and wiring configurations
load side short circuit protection may not be required. Consult local electrical code for
guidance.
Important Note:
If the connected load requires a wye configured power source with a neutral connection,
the load must be connected to the phase converter using a delta-wye isolation transformer.
Figure 5 – Delta-Wye Wiring Diagram

11 | Page
V4.1
Table 18 – Input Power Terminal Specifications - PT
Input Power Terminals: Allowed Wire Range & Minimum Torque
Model
PT007, PT010, PT020,
PT407, PT410, PT415,
PT420, PT430, PT440,
PT450
PT030, PT040, PT460,
PT475
PT050, PT060, PT075,
PT4100, PT4150, PT4175
Wire Size
Torque
Wire Size
Torque
Wire Size
Torque
2/0 – 6 AWG
120 in-lb
350 kcmil-
6 AWG 275 in-lb 2x500 kcmil- 2x4 AWG 375 in-lb
8 AWG
40 in-lb
10 – 14 AWG
35 in-lb
Table 19 – Input Power Terminal Specifications - PTE
Input Power Terminals: Allowed Wire Range & Minimum Torque
Model
PTE007, PTE007QT, PTE010, PTE010QT, PTE207QT,
PTE210QT, PTE215QT, PTE220QT, PTE407, PTE410,
PTE415QT, PTE420QT
PTE015, PTE020
Wire Size
Torque
Wire Size
Torque
2 – 20 AWG 17.5 in-lb
2/0 – 6 AWG
8 AWG
10 – 14 AWG
120 in-lb
40 in-lb
35 in-lb
Table 20 – Input Power Terminal Specifications - PTS
Input Power Terminals: Allowed Wire Range &
Minimum Torque
Model
PTS003, PTS005, PTS007, PTS405, PTS407
Wire Size
Torque
6 – 26 AWG 10.5 in-lb
Table 21 – Output Power Terminal Specifications
Output Power Terminals: Allowed Wire Range & Minimum Torque
Model
PT007, PT010, PT020, PT030, PT040,
PT407, PT410, PT415, PT420, PT430,
PT440, PT450, PT460, PT475
PT050, PT060, PT075, PT4100, PT4150,
PT4175
Wire Size
Torque
Wire Size
Torque
2/0 – 6 AWG
120 in-lb
350 kcmil – 6 AWG 275 in-lb
8 AWG
40 in-lb
10 – 14 AWG
35 in-lb
Table 22 – Output Power Terminal Specifications - PTE

12 | Page
V4.1
Output Power Terminals: Allowed Wire Range & Minimum
Torque
Model
PTE007, PTE007QT, PTE010, PTE010QT, PTE015, PTE020,
PTE207QT, PTE210QT, PTE215QT, PTE220QT, PTE407,
PTE407QT PTE410, PTE415QT, PTE420QT
Wire Size
Torque
4 – 18 AWG 16 in-lbs
Table 23 – Output Power Terminal Specifications – PTS
Output Power Terminals: Allowed Wire Range & Minimum Torque
Model
PTS003, PTS005, PTS007
PTS405, PTS407
Wire Size
Torque
Wire Size
Torque
6 – 26 AWG 10.5 in-lbs 8 – 16 AWG 20 in-lbs
Table 24 – Field Wiring Tools
Model
Line Side
Load Side
Model
Line Side
Load Side
PT007
3/16" Hex
3/16" Hex
PT407
3/16" Hex
3/16" Hex
PT410
PT010
PT415
PT020
PT420
PT030
5/16" Hex
PT430
PT040
PT440
PT050
3/8" Hex 5/16" Hex
PT450
PT060
PT460
5/16" Hex
PT075
PT475
PT4100
PT4150
PT4175
Model Line Side Load Side Model Line Side Load Side
PTE007
Phillips
Screwdriver
Flathead
Screwdriver
PTE407
Phillips
Screwdriver
Flathead
Screwdriver
PTE007QT
PTE407QT
PTE010
PTE410
PTE010QT
PTE410QT
PTE015
3/16" Hex
PTE415QT
PTE020
PTE420QT
PTE207QT
Phillips
Screwdriver
PTE210QT
3/16" Hex
Model
Line Side
Load Side
PTE215QT
PTS003
Flathead
Screwdriver
Flathead
Screwdriver
PTE220QT
PTS005
PTS007
PTS405
Phillips
Screwdriver
PTS407

13 | Page
V4.1
Table 25 – Optional Circuit Breaker Wire Size and Torque
Models
Circuit Breaker
Family
Min Max
Min Torque
(in-lb)
Wire
Strip
PT007
PT010
PT407
PT410
PT415
PT420
PT430
LS UTE100
14 10 31.9
0.7”
8 39.9
6 3 47.8
2 1 55.7
PT020
PT440 LS UTS150
14 36.2
1.01”
12 10 47.8
8 2/0 133.6
PT030
PT450
PT460
PT475
LS UTS250
1/0 2/0 254.9
1.27”
3/0 4/0 350.5
250
kcmil
300
kcmil
350.5
PT040
PT050
LS UTS400
1/0
300
kcmil
358.4
1.76”
PT4100
PT4150
PT4175
350
kcmil
600
kcmil 477.9
Connecting to Field Wiring Terminals
Open the front door of the enclosure to gain access to the wiring panel. See Figure 6-
Figure 10.
Figure 6– PT Small Frame Field Wiring
Terminals
Figure 7– PT Medium Frame Field Wiring
Terminals

14 | Page
V4.1
Figure 8 – PT Large Frame Field Wiring Terminals
Table 26 – Power Terminal Descriptions
Terminal Name Description
L1, L2
Single phase input power terminals
T1, T2, T3
3 Phase output power terminals, T3 is the “manufactured” leg.
GND
Earth ground
Figure 9– PTE Field Wiring Terminals: PTE007,
PTE007QT, PTE010, PTE010QT, PTE207,
PTE407, PTE407QT PTE410, PTE415QT,
PTE420QT
Figure 10 – PTE Field Wiring
Terminals: PTE015, PTE020,
PTE210, PTE215, PTE220
Small Frame Models:
PT407, PT410, PT415,
PT420
Medium Frame Models:
PT007, PT010, PT020,
PT430
Large Frame Models:
PT030, PT040, PT050,
PT060, PT075, PT440,
PT450, PT460, PT475,
PT4100, PT4150, PT4175