A-1_Symmetra_PX_Technical_Specifications_.pdf

Symmetra™ PX

250/500 kW 400/480 V Technical Specifications

11/2024 www.schneider-electric.com

Legal Information The information provided in this document contains general descriptions, technical characteristics and/or recommendations related to products/solutions.

This document is not intended as a substitute for a detailed study or operational and site-specific development or schematic plan. It is not to be used for determining suitability or reliability of the products/solutions for specific user applications. It is the duty of any such user to perform or have any professional expert of its choice (integrator, specifier or the like) perform the appropriate and comprehensive risk analysis, evaluation and testing of the products/solutions with respect to the relevant specific application or use thereof.

The Schneider Electric brand and any trademarks of Schneider Electric SE and its subsidiaries referred to in this document are the property of Schneider Electric SE or its subsidiaries. All other brands may be trademarks of their respective owner.

This document and its content are protected under applicable copyright laws and provided for informative use only. No part of this document may be reproduced or transmitted in any form or by any means (electronic, mechanical, photocopying, recording, or otherwise), for any purpose, without the prior written permission of Schneider Electric.

Schneider Electric does not grant any right or license for commercial use of the document or its content, except for a non-exclusive and personal license to consult it on an "as is" basis.

Schneider Electric reserves the right to make changes or updates with respect to or in the content of this document or the format thereof, at any time without notice.

To the extent permitted by applicable law, no responsibility or liability is assumed by Schneider Electric and its subsidiaries for any errors or omissions in the informational content of this document, as well as any non-intended use or misuse of the content thereof.

Table of Contents

Important Safety Instructions — SAVE THESE

INSTRUCTIONS

Safety Precautions

Technical Data Model List Efficiency (TÜV Certified)

Efficiency Curves Derating due to Load Power Factor Batteries

Battery Runtimes Battery Gassing Rates Per Shelf/String (Cubic Feet per Hour) Battery Discharge Current End of Discharge Voltage at 100% Load

Communication and Management Relay Inputs/Outputs

Emergency Power Off (EPO) Compliance

Facility Planning Input Specifications Bypass Specifications Output Specifications Battery Specifications Overview of Systems with Maintenance Bypass

Single Configurations Overview of Systems without Maintenance Bypass

Single Configurations Parallel Configurations

UL-Specific Specifications Recommended Fuses, Breakers, and Cables for UL Recommended Bolt and Lug Sizes for UL

IEC-Specific Specifications Surge Protection Device (SPD) Upstream and Downstream Protection for IEC Recommended Fuses, Breakers, and Cables for IEC Recommended Bolt and Lug Sizes for IEC

Required Breaker Settings for Input Overload and Short-Circuit Protection for Breakers with Electronic Trip Units Torque Specifications Physical

Weights and Dimensions Shipping Weights and Dimensions Clearance

Environmental Heat Dissipation

Drawings Symmetra PX 500 kW 400 V Single Utility/Mains with Maintenance Bypass and Line-Up-And-Match Batteries – Bottom Feed

990-3880K-001 3

Symmetra PX 500 kW 400 V Single Utility/Mains with Maintenance Bypass and Line-Up-And-Match Batteries – Top Feed Symmetra PX 500 kW 400 V Single Utility/Mains with Maintenance Bypass and Remote Batteries — Top Feed Symmetra PX 500 kW 400 V Single Utility/Mains with Maintenance Bypass and Remote Batteries – Bottom Feed Symmetra PX 500 kW 400 V Dual Mains with Maintenance Bypass and Line-Up-And-Match Batteries – Top Feed Symmetra PX 500 kW 400 V Dual Utility/Mains with Maintenance Bypass and Remote Batteries – Bottom Feed Symmetra PX 500 kW 400 V Dual Utility/Mains with Maintenance Bypass and Line-Up-And-Match Batteries – Bottom Feed Symmetra PX 500 kW 400 V Dual Utility/Mains with Maintenance Bypass and Remote Batteries – Top Feed Symmetra PX 500 kW 480 V Single Mains with Maintenance Bypass (3 Wire Output) and Line-Up-And-Match Batteries – Top Feed Symmetra PX 500 kW 480 V Dual Mains with Maintenance Bypass (3 Wire Output) and Line-Up-And-Match Batteries – Top Feed Symmetra PX 500 kW 480 V Single Mains with Maintenance Bypass (3 Wire Output) and Line-Up-And-Match Batteries – Bottom Feed Symmetra PX 500 kW 480 V Dual Mains with Maintenance Bypass (3 Wire Output) and Line-Up-And-Match Batteries – Bottom Feed Symmetra PX 500 kW 480 V Single Mains with Maintenance Bypass (4 Wire Output) and Line-Up-And-Match Batteries – Top Feed Symmetra PX 500 kW 480 V Dual Mains with Maintenance Bypass (4 Wire Output) and Line-Up-And-Match Batteries – Top Feed Symmetra PX 500 kW 480 V Single Mains with Maintenance Bypass (4 Wire Output) and Line-Up-And-Match Batteries – Bottom Feed Symmetra PX 500 kW 480 V Dual Mains with Maintenance Bypass (4 Wire Output) and Line-Up-And-Match Batteries – Bottom Feed

Options Hardware Options Configuration Options

Limited Factory Warranty

4 990-3880K-001

Important Safety Instructions — SAVE THESE

INSTRUCTIONS

Read these instructions carefully and look at the equipment to become familiar with it before trying to install, operate, service or maintain it. The following safety messages may appear throughout this manual or on the equipment to warn of potential hazards or to call attention to information that clarifies or simplifies a procedure.

The addition of this symbol to a “Danger” or “Warning” safety message indicates that an electrical hazard exists which will result in personal injury if the instructions are not followed.

This is the safety alert symbol. It is used to alert you to potential personal injury hazards. Obey all safety messages with this symbol to avoid possible injury or death.

DANGER

DANGER indicates a hazardous situation which, if not avoided, will result in death or serious injury.

Failure to follow these instructions will result in death or serious injury.

WARNING

WARNING indicates a hazardous situation which, if not avoided, could result in death or serious injury.

Failure to follow these instructions can result in death, serious injury, or equipment damage.

CAUTION

CAUTION indicates a hazardous situation which, if not avoided, could result in minor or moderate injury.

Failure to follow these instructions can result in injury or equipment damage.

NOTICE

NOTICE is used to address practices not related to physical injury. The safety alert symbol shall not be used with this type of safety message.

Failure to follow these instructions can result in equipment damage.

Please Note Electrical equipment should only be installed, operated, serviced, and maintained by qualified personnel. No responsibility is assumed by Schneider Electric for any consequences arising out of the use of this material.

A qualified person is one who has skills and knowledge related to the construction, installation, and operation of electrical equipment and has received safety training to recognize and avoid the hazards involved.

990-3880K-001 5

INSTRUCTIONS 250/500 kW 400/480 V

Per IEC 62040-1: "Uninterruptible power systems (UPS) -- Part 1: Safety Requirements," this equipment, including battery access, must be inspected, installed and maintained by a skilled person.

The skilled person is a person with relevant education and experience to enable him or her to perceive risks and to avoid hazards which the equipment can create (reference IEC 62040-1, section 3.102).

Safety Precautions

DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

• The product must be installed according to the specifications and requirements as defined by Schneider Electric. It concerns in particular the external and internal protections (upstream circuit breakers, battery circuit breakers, cabling, etc.) and environmental requirements. No responsibility is assumed by Schneider Electric if these requirements are not respected.

• After the UPS system has been electrically wired, do not start up the system.

Start-up must only be performed by Schneider Electric.

Failure to follow these instructions will result in death or serious injury.

DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

The UPS System must be installed according to local and national regulations.

Install the UPS according to:

• IEC 60364 (including 60364–4–41- protection against electric shock, 60364–

4–42 - protection against thermal effect, and 60364–4–43 - protection against overcurrent), or

• NEC NFPA 70

depending on which one of the standards apply in your local area.

Failure to follow these instructions will result in death or serious injury.

DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

• Install the UPS system in a temperature controlled area free of conductive contaminants and humidity.

• Install the UPS system on a non-inflammable, level, and solid surface (e.g.

concrete) that can support the weight of the system.

Failure to follow these instructions will result in death or serious injury.

6 990-3880K-001

250/500 kW 400/480 V

INSTRUCTIONS

DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

The UPS is not designed for and must therefore not be installed in the following unusual operating environments:

• Damaging fumes

• Explosive mixtures of dust or gases, corrosive gases, or conductive or radiant heat from other sources

• Moisture, abrasive dust, steam or in an excessively damp environment

• Fungus, insects, vermin

• Salt-laden air or contaminated cooling refrigerant

• Pollution degree higher than 2 according to IEC 60664-1

• Exposure to abnormal vibrations, shocks, and tilting

• Exposure to direct sunlight, heat sources, or strong electromagnetic fields Failure to follow these instructions will result in death or serious injury.

NOTICE

RISK OF OVERHEATING

Respect the clearance requirements around the UPS system and do not cover the product’s ventilation openings when the UPS system is in operation.

Failure to follow these instructions can result in equipment damage.

NOTICE

RISK OF EQUIPMENT DAMAGE

Do not connect the UPS output to regenerative load systems including photovoltaic systems and speed drives.

Failure to follow these instructions can result in equipment damage.

990-3880K-001 7

INSTRUCTIONS 250/500 kW 400/480 V

Technical Data

Model List

Systems with Maintenance Bypass and Distribution

Part Number Description

SY100K250DR-PD 100 kW scalable to 250 kW with right mounted maintenance bypass and distribution

SY125K250DL-PD 125 kW scalable to 250 kW with left mounted maintenance bypass and distribution

SY125K250DR-PD 125 kW scalable to 250 kW with right mounted maintenance bypass and distribution

SY125K250DR-PDNB 125 kW scalable to 250 kW with right mounted maintenance bypass and distribution, No Batteries

SY125K500DR-PD 125 kW scalable to 500 kW with right mounted maintenance bypass and distribution

SY125K500DR-PDNB 125 kW scalable to 500 kW with Maintenance Bypass and Distribution, No Batteries

SY150K250DR-PD 150 kW scalable to 250 kW with right mounted maintenance bypass and distribution

SY200K250DR-PD 200 kW scalable to 250 kW with right mounted maintenance bypass and distribution

SY250K500DL-PD 250 kW scalable to 500 kW with left mounted maintenance bypass and distribution

SY250K500DR-PD 250 kW scalable to 500 kW with right mounted maintenance bypass and distribution

SY300K500DR-PD 300 kW scalable to 500 kW with right mounted maintenance bypass and distribution

SY400K500DR-PD 400 kW scalable to 500 kW with right mounted maintenance bypass and distribution

SY500K500DL-PD 500 kW scalable to 500 kW with left mounted maintenance bypass and distribution

SY500K500DR-PD 500 kW scalable to 500 kW with right mounted maintenance bypass and distribution

Systems without Maintenance Bypass and Distribution

Part Number Description

SY100K250D 100 kW scalable to 250 kW without maintenance bypass and distribution - parallel capable

SY125K250D 125 kW scalable to 250 kW without maintenance bypass and distribution - parallel capable

SY125K250D-NB 125 kW scalable to 250 kW without maintenance bypass, distribution and batteries - parallel capable

SY125K500D 125 kW scalable to 500 kW without maintenance bypass and distribution - parallel capable

SY125K500D-NB 125 kW scalable to 500 kW without maintenance bypass, distribution and batteries - parallel capable

SY150K250D 150 kW scalable to 250 kW without maintenance bypass and distribution - parallel capable

SY200K250D 200 kW scalable to 250 kW without maintenance bypass and distribution - parallel capable

SY250K500D 250 kW scalable to 500 kW without maintenance bypass and distribution - parallel capable

SY300K500D 300 kW scalable to 500 kW without maintenance bypass and distribution - parallel capable

SY400K500D 400 kW scalable to 500 kW without maintenance bypass and distribution - parallel capable

SY500K500D 500 kW scalable to 500 kW without maintenance bypass and distribution - parallel capable

8 990-3880K-001

250/500 kW 400/480 V Technical Data

Efficiency (TÜV Certified)

480 V Systems

System 25% load 50% load 75% load 100% load

250 kW 95.2 96.2 96.3 96.3

500 kW 95.5 96.3 96.4 96.3

400/415 V Systems

System 25% load 50% load 75% load 100% load

250 kW 95.5 96.1 96.0 95.7

500 kW 95.5 96.1 96.0 95.6

Efficiency Curves

500 kW 400 V

Curve fit to measured efficiency data. All measurements taken in normal operating mode, at typical environmental conditions, with 400 V 50 Hz input and 400 V 50 Hz balanced resistive load (PF = 1.0) output.

990-3880K-001 9

Technical Data 250/500 kW 400/480 V

500 kW 480 V

Curve fit to measured efficiency data. All measurements taken in normal operating mode, at typical environmental conditions, with 480 V 60 Hz input and 480 V 60 Hz balanced resistive load (PF = 1.0) output.

Derating due to Load Power Factor The Symmetra PX 250/500kW load power factor is from 0.5 leading to 0.5 lagging without any derating.

Batteries

Efficiency DC to AC (TÜV Certified) 480 V Systems

System 25% load 50% load 75% load 100% load

250 kW 95.5 96.3 96.6 96.5

500 kW 95.5 96.3 96.4 96.3

400/415 V Systems

System 25% load 50% load 75% load 100% load

250 kW 96.0 96.5 96.6 96.3

500 kW 95.8 96.4 96.5 96.3

10 990-3880K-001

Electrolyte Values

Single Cartridge Single Shelf (6 cartridges) 16 Shelves (96 cartridges)

Electrolyte Volume 2.19 L (0.58 gal) 13.14 L (3.48 gal) 210.24 L (55.68 gal)

Electrolyte Weight 2.88 kg (6.35 lbs) 17.28 kg (38.1 lbs) 276.48 kg (609.6 lbs)

Sulfuric Acid Weight 1.14 kg (2.50 lbs) 6.84 kg (15.0 lbs) 109.44 kg (240.0 lbs)

Note 1: Symmetra PX 250 kW has 6 cartridges per shelf; maximum 16 shelves (8 shelves for each 125 kW) Note 2: Symmetra PX 500 kW has 6 cartridges per shelf; maximum 32 shelves (8 shelves for each 125 kW)

Material Safety Data Sheets The Symmetra PX 250/500 kW battery cabinets use batteries manufactured by four different vendors; Enersys, Panasonic, Portalac, and CSB. The vendor of the specific battery can be identified on either the label on the packaging or on the label on the front of the battery.

ID Battery vendor

C69 CSB

E85 Enersys

P270 Panasonic

G85 Portalac

The material safety data sheets are placed in the knowledge base on www.apc.

com.

990-3880K-001 11

Battery Runtimes

Symmetra PX 100 kW Scalable to 250 kW 400/480 V Battery Run-Times (Minutes)

Load (kW)

Part numbers 20 40 60 80 100

A SY100K250D

SY100K250DL-PD

SY100K250DR-PD

63 27 15 10 7

B + (1)SYBT9-B6 or SYBT9-

B6LL

75 32 19 12 9

C + (1)SYBFXR8-8 176 76 47 32 24

D + (2)SYBFXR8-8 288 126 77 54 41

E + (3)SYBFXR8-8 408 180 110 77 59

12 990-3880K-001

Symmetra PX 125 kW Scalable to 250/500 kW 400/480 V Battery Run-Times (Minutes)

Load (kW)

Part numbers 20 40 60 80 100 125

A SY125K250D

SY125K250DR-PD

SY125K250DL-PD

74 32 19 12 9 6

B + (1)SYBFXR8-8 174 76 46 32 24 18

C + (2)SYBFXR8-8 285 126 77 54 41 31

D + (3)SYBFXR8-8 404 179 110 77 59 44

E + (4)SYBFXR8-8 529 235 144 102 77 59

990-3880K-001 13

Symmetra PX 150 kW Scalable to 250 kW 400/480 V Battery Run-Times

Load (kW)

Part numbers 20 40 60 80 100 125 150

A SY150K250D

SY150K250DL-PD

SY150K250DR-PD

97 42 25 17 12 9 7

B + (3)SYBT9-B6 or SYBT9-

B6LL

134 59 35 24 18 13 10

C + (6)SYBT9-B6 or SYBT9-

B6LL

173 76 46 32 24 18 14

D + (1)SYBFXR8-8 283 125 76 54 41 31 24

E + (2)SYBFXR8-8 401 178 109 77 59 44 35

14 990-3880K-001

Symmetra PX 200 kW Scalable to 250 kW 400/480 V Battery Run-Times

Load (kW)

Part numbers 20 40 60 80 100 125 150 175 200

A SY200K250S

SY200K250DL-PD

SY200K250DR-PD

131 58 35 24 18 13 10 8 6

B + (3)SYBT9-B6 or SYBT9-

B6LL

170 75 46 32 24 18 14 11 9

C + (1)SYBFXR8-8 278 124 76 54 41 30 24 19 16

D + (2)SYBFXR8-8 394 177 109 77 59 44 35 29 24

E + (3)SYBFXR8-8 516 232 143 101 77 59 47 38 32

990-3880K-001 15

Symmetra PX 250 kW Scalable to 500 kW 400/480 V Battery Run-Times

Load (kW)

Part numbers 20 40 60 80 100 125 150 175 200 250

A SY250K500D

SY250K500DL-PD

SY250K500DR-PD

167 74 46 32 24 18 14 11 9 6

B + (1)SYBFXR8-8 273 123 76 53 40 30 24 19 16 12

C + (2)SYBFXR8-8 387 175 108 76 58 44 35 29 24 18

D + (3)SYBFXR8-8 507 230 142 101 77 59 47 38 32 24

E + (4)SYBFXR8-8 632 287 178 126 96 73 59 48 41 31

16 990-3880K-001

Symmetra PX 300 kW Scalable to 500 kW 400/480 V Battery Run-Times

Load (kW)

Part numbers 20 40 60 80 100 125 150 175 200 300

A SY300K500D

SY300K500DL-PD

SY300K500DR-PD

215 97 60 42 32 24 19 15 12 7

B + (2)SYBFXR8-8 381 174 107 76 58 44 35 29 24 14

C + (3)SYBFXR8-8 622 284 177 126 96 73 59 48 41 24

D + (4)SYBFXR8-8 749 343 214 152 116 88 71 59 50 30

E + (5)SYBFXR8-8 880 403 251 179 137 104 83 69 59 35

990-3880K-001 17

Symmetra PX 400 kW Scalable to 500 kW 400/480 V Battery Run-Times

Load (kW)

Part numbers 20 40 60 80 100 125 150 175 200 300 400

A SY400K500D

SY400K500DL-PD

SY400K500DR-PD

287 132 82 58 44 33 26 22 18 10 6

B + (4)SYBT9-B6 or SYBT9-

B6LL

369 171 106 75 58 44 35 28 24 14 9

C + (1)SYBFXR8-8 483 224 140 99 76 58 46 38 32 19 12

D + (2)SYBFXR8-8 602 280 175 124 95 72 58 48 41 24 16

E + (3)SYBFXR8-8 725 337 211 150 115 88 70 58 49 29 20

18 990-3880K-001

Symmetra PX 500 kW 400/480 V Battery Run-Times (Minutes)

Load (kW)

Part numbers 20 40 60 80 100 125 150 175 200 300 400 500

A SY500K500D

SY500K500DR-PD

SY500K500DL-PD

357 168 105 74 57 43 35 28 24 14 9 6

B +(1)SYBFXR8-8 468 220 138 98 75 58 46 38 32 19 12 9

C + (2)SYBFXR8-8 583 275 173 123 94 72 58 48 40 24 16 12

D + (3)SYBFXR8-8 703 331 209 149 114 87 70 58 49 29 20 15

E + (4)SYBFXR8-8 825 390 245 176 135 103 83 68 58 35 24 18

Battery Gassing Rates Per Shelf/String (Cubic Feet per Hour) The battery gassing rates are calculated based on:

• Gassing rate at 2.4 V/cell (ft3/hr) assuming 98% recombination efficiency =

0.00021

• Six cells per cartridge

• Eight cartridges per battery unit

• Six battery units (one battery module) per shelf

Number of battery modules

1 2 3 4 5 6 7 8

0.06048 0.12096 0.18144 0.24192 0.30240 0.36288 0.42336 0.48384

990-3880K-001 19

Battery Discharge Current

250 kW 500 kW

I bat at bat nominal, 100% load 452 904

I bat at bat minimum, 100% load 565 1130

I bat at bat minimum, 150% load 678 1356

End of Discharge Voltage at 100% Load NOTE: The voltage is 1.6 to 1.75 per cell depending on load.

NOTE: C equals Idischarge divided by the battery Ah capacity.

Communication and Management

Network Management Card The system is equipped with one network management card for remote monitoring and control of an individual UPS. It is possible to add an additional network management card.

Relay Inputs/Outputs The relay board informs the user of the operation mode, status, and alarm conditions and has eight input ports and 16 output terminals.

All wiring to the relay board should be considered as field wiring rated minimum 480 V, and must use copper conductors only.

NOTE: Communication cables to the relay board must be run through the openings in the middle of the I/O cabinet via the cable channel to the relay board.

20 990-3880K-001

Inputs All input voltages must have the same ground and 0 V reference.

• Minimum: 12 VAC/VDC

• Maximum: 28 VAC/40 VDC

Input 1 Reduction of charge power

Input 2 Boost charge inhibit

Input 3 Battery ground fault

Input 4 Enable external synchronization

Input 5 Internal use

Input 6 Internal use

Input 7 Door contact

Input 8 Activate mega tie mode

NOTE:When the UPS is installed in environments sensitive to interference, the EMC kit with three ferrite cores must be installed with three loops. Add a clip on ferrite for high frequency noises. Use kit 0J-9147.

990-3880K-001 21

Outputs

• Maximum. 8 A/250 VAC

• Maximum. 8 A/24 VDC

Output 1 Common alarm, configurable

Output 2 Normal operation, configurable

Output 3 Bypass operation, configurable

Output 4 Battery operation, configurable

Output 5 Battery voltage low, configurable

Output 6 Battery fault, configurable

Output 7 Maintenance bypass on, configurable

Output 8 Input outside tolerance, configurable

Output 9 Bypass outside tolerances, configurable

Output 10 Output outside tolerance, configurable

Output 11 Battery disconnected, configurable

Output 12 Overload on inverter/bypass, configurable

Output 13 Option 1, configured via display

Output 14 Option 2, configured via display

Output 15 Option 3, configured via display

Output 16 Option 4, configured via display

Emergency Power Off (EPO)

Single System (Normally Open) Parallel System (Normally Open)

22 990-3880K-001

Compliance

Safety IEC 62040-1: 2017, Edition 2.0, Uninterruptible Power Systems (UPS) - Part 1: Safety requirements UL 1778 5th edition

EMC/EMI/RFI IEC 62040-2: 2016-11, 3rd edition Uninterruptible Power Systems (UPS) - Part 2: Electromagnetic compatibility (EMC) requirements C2 FCC Part 15 Subpart B, Class A

Transportation ISTA 2B (2006)

Seismic SE CoC in accordance with AC 156 protocol

Earthing system1 TN, TT, TNC, IT, TN-S, TNC-S

Overvoltage category

This UPS is OVCII compliant.

If the UPS is installed in an environment with an OVC rating higher than II, an SPD (surge protection device) must be installed upstream of the UPS to reduce the overvoltage category to OVCII.

Protective class I

Pollution degree 2

990-3880K-001 23

1. Refer to the Earthing Principles for more details.

Facility Planning

Input Specifications

250 kW 500 kW

Input voltage (V) 3802 400 415 480 3801 400 415 480

Voltage range (v) +/-15% at 100% load (340 - 460 Vat 400 V, 408 - 552 V at 480 V) -50% for reduced load (200 V at 400 V, 240 Vat 480 V)

Input frequency (Hz) 40–70 with 10 Hz/sec slewrate

THDI < 5% at 100% load

Nominal input current (A)3

410 389 375 324 819 779 750 649

Maximum input current (A)4

450 428 413 357 901 856 825 717

Input current limitation (A)5

460 460 444 383 921 921 887 767

Maximum short circuit level Icw (kA)

Rated short time withstand current Icw: 65 kA. (50 kA with standard maintenance bypass)

Rated peak withstand current Ipk: Icw x 2.2

Minimum short circuit current rating

Dependent on upstream protection. See section for Recommended Fuses, Breakers and Cables for details.

Input power factor correction

0.995 at load = 100%

0.99 at load > 50%

0.97 at load > 25%

Softstart (ramp-in) (seconds)

Configurable from 1 to 40 (default 10)

Bypass Specifications

250 kW 500 kW

380 V 400 V 415 V 480 V 380 V 400 V 415 V 480 V

Frequency (Hz) 50/60

Nominal bypass current (A)

391 372 358 310 783 744 717 619

Maximum short circuit level Icw (kA)

Rated short time withstand current Icw: 65 kA. (50 kA with standard maintenance bypass)

Rated peak withstand current Ipk: Icw x 2.2

Minimum short circuit current rating

Dependent on upstream protection. See section for Recommended Fuses, Breakers and Cables for details.

24 990-3880K-001

250/500 kW 400/480 V Facility Planning

2. 380 V has reduced input voltage window (-10% at 100% load).

3. Input current based on rated load and 100% charged batteries.

4. Input current based on 100% battery recharge, nominal voltage and rated load.

5. Current limitation through electronic current limiting is based on 100% battery recharge and -15% input voltage.

Output Specifications

250 kW 500 kW

380 V 400 V 415 V 480 V 380 V 400 V 415 V 480 V

Overload capacity 150% for 60 seconds (normal operation) 125% for 10 minutes (normal operation) 150% for 60 seconds (battery operation) 125% for 10 minutes (battery operation) 125% continuous at 480 V and 110% continuous at 400 V (bypass operation)6 1000% for 100 milliseconds (bypass operation)

Voltage tolerance Symmetric load (0-100%): +/-1% static, +/-5% after 2 milliseconds and +/-1% after 50 milliseconds dynamic Asymmetric load (0-100%): +/-3% static

Nominal output current (A)

391 372 358 310 783 744 717 619

Output frequency (sync to mains) (Hz)

50/60

Slew rate (Hz/Sec) 0.25 - 6

THDU < 2% linear load < 3% non-linear load

Output power factor 1

Dynamic load response

+/- 5%

Maximum short circuit level Icw (kA)

Rated short time withstand current Icw: 65 kA. (50 kA with standard maintenance bypass)

Rated peak withstand current Ipk: Icw x 2.2

Minimum short circuit current rating

Dependent on upstream protection. See section for Recommended Fuses, Breakers and Cables for details.

Battery Specifications

250 kW 500 kW

Nominal battery voltage (VDC) 2 x +/- 288

Battery current at 100% load and nominal battery voltage (A)

452 904

Battery current at 100% load and minimum battery voltage (A)

565 1130

End voltage (V) 1.6–1.75/cell (automatic, depending on load)

Maximum short circuit withstand rating (kA) 40

Minimum short circuit current rating Dependent on upstream protection. See section for Recommended Fuses, Breakers and Cables for details.

The UPS supports customer-specific battery solutions with 144 cells (+/- 6 cells) for runtime optimization. The display has settings for number of cells on DC voltage levels (V/cell).

NOTE: External Battery Breaker Enclosure (SYBBE) breaker setting is set to maximum. Ir = 1200A and Im = 6000A.

Battery type Sealed lead acid/wet cells

Nominal voltage (VDC) +/- 276 to +/- 300

Float voltage (VDC) +/- 308 to +/- 345

Boost charge voltage (VDC) +/- 308 to +/- 345

990-3880K-001 25

Facility Planning 250/500 kW 400/480 V

6. This is a thermal performance rating. The continuous overload is not supported by the recommended input protection of the maintenance bypass.

Equalize charge voltage (VDC) +/- 308 to +/- 345

End of discharge voltage at 100% load (VDC) +/- 221 to +/- 263

Charging power 20% of nominal power at 0–90% load 10% of nominal power at 100% load

Typical recharge time 3.5 hours

NOTE: Battery specifications are based on VRLA batteries.

Overview of Systems with Maintenance Bypass

Single Configurations

NOTICE

HAZARD OF EQUIPMENT DAMAGE

The neutral connection to utility/mains must not be disconnected even in battery operation. Therefore 4–pole disconnectors/switches must not be used on the bypass.

Failure to follow these instructions can result in equipment damage.

Single Utility/Mains with Maintenance Bypass

Dual Utility/Mains with Maintenance Bypass

26 990-3880K-001

250/500 kW 400/480 V Facility Planning

Overview of Systems without Maintenance Bypass

Single Configurations

NOTICE

HAZARD OF EQUIPMENT DAMAGE

The neutral connection to utility/mains must not be disconnected even in battery operation. Therefore 4–pole disconnectors/switches must not be used on the bypass.

Failure to follow these instructions can result in equipment damage.

Single Utility/Mains without Maintenance Bypass

Dual Utility/Mains without Maintenance Bypass

990-3880K-001 27

Facility Planning 250/500 kW 400/480 V

Parallel Configurations Single Utility/Mains

Dual Utility/Mains

28 990-3880K-001

UL-Specific Specifications

Recommended Fuses, Breakers, and Cables for UL In single utility/mains systems, supply the UPS from a grounded 4–wire WYE service.

Schneider Electric also supports 3–wire installations if the utility/mains transformer is a grounded WYE transformer located in the same building. In this installation, the UPS system must be installed as a separately derived system. Leakage currents will occur in the bonding jumper and the technical/system earth.

In dual utility/mains systems, use a 4–wire supply for the bypass and a 3–wire supply for the input. Both must be WYE sources. Delta input supply for either input or bypass is not permitted.

NOTICE

HAZARD OF EQUIPMENT DAMAGE

In 3–wire systems, Schneider Electric recommends that you add a label with the following wording: “Notice! The UPS is installed as a 3–wire system so the system must only be loaded with phase-to-phase load.”

Failure to follow these instructions can result in equipment damage.

NOTE: 3–wire installations using bonding wire will result in a higher leakage current. Leakage current for a typical installation is usually within UL and industry standard requirements.

Parallel Systems NOTE: For parallel systems, the cable lengths for bypass and output must be the same for all parallel UPS units to ensure correct load sharing in bypass operation. In single utility/mains installations this applies to input cables.

Schneider Electric recommends that the Symmetra PX 250/500 kW parallel system is supplied from a grounded 4–wire WYE service.

However if the load is a 3–phase load, the three alternatives below for 3–wire installations are allowed:

990-3880K-001 29

NOTICE

HAZARD OF MALFUNCTIONING

Phase-Neutral loading is not permitted.

Failure to follow these instructions can result in equipment damage.

• Connect an N-G bond in each UPS, and connect the UPS output ground via tap conductors to a common grounded electrode bus and a single grounding electrode conductor. See NEC 250.30 (A)(4), including Exception #1.

• Connect an N-G bond in each UPS, and connect the UPS output neutral via tap conductors to a common grounded electrode bus and a single grounding electrode conductor. See NEC 250.30 (A)(4), including Exception #1.

• Connect an output neutral from each UPS to a neutral/bonding bus in the maintenance bypass panel, and bond the maintenance bypass panel neutral bus to the ground with a single N-G bonding jumper and a grounding electrode conductor. See NEC 250.30 (A) Exception #1.

30 990-3880K-001

NOTE: Schneider Electric recommends that each UPS in the parallel system has a neutral connection installed. Contact Schneider Electric for information on other configurations.

Recommended Fuses, Breakers, and Cable Sizes

DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

The product must be installed according to the specifications and requirements as defined by Schneider Electric. It concerns in particular the external and internal protections (upstream circuit breakers, battery circuit breakers, cabling, etc.) and environmental requirements. No responsibility is assumed by Schneider Electric if these requirements are not respected.

Failure to follow these instructions will result in death or serious injury.

DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION OR ARC FLASH

All wiring must comply with all applicable national and/or local electrical codes.

Failure to follow these instructions will result in death or serious injury.

DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION OR ARC FLASH

Appropriate disconnect devices must be provided external to the equipment.

Failure to follow these instructions will result in death or serious injury.

NOTE: See Required Breaker Settings for Input Overload and Short-Circuit Protection for Breakers with Electronic Trip Units, page 38 for information on breaker settings.

NOTE: All wiring must comply with all applicable national and/or electrical code (National Electrical Code, ANSI/NFPA 70).

Cable sizes in this manual are based on Table 310.15 of the National Electrical Code 2014 (NEC) with the following assertions:

• 90 °C conductors (THHN) for 75 °C termination

• Not more than 3 current carrying conductors in each conduit

• An ambient temperature of max. 30 °C

990-3880K-001 31

• Use of copper or aluminium conductors

• 100% rated breakers

• Nominal operating conditions If the ambient room temperature is greater than 30 °C, use larger or additional parallel conductors in accordance with the correction factors of the NEC. The maximum allowable conductor size is 600 kcmil.

Equipment Grounding Conductors (EGC) are sized in accordance with NEC Article 250.122 and Table 250.122 Minimum size equipment conductor for grounding equipment.

NOTE: Always consider the EGC size according to the complete electrical installation.

NOTE: The use of aluminium conductors can limit the number of parallel Lithium-ion battery cabinets. Contact Schneider Electric for more information.

The cable sizes are recommendations for maximum configurations with three current carrying conductors in a raceway. For other configurations see the label inside the front door of the I/O cabinet.

NOTE: A separate 800 A protection device for bypass (similar to dual utility/ mains) is required for single utility/mains systems from 450 kW 400 V or 475 kW 415 V.

Installations with 100% Rated Circuit Breakers or Fuses

250 kW

400 V 415 V 480 V

OCPD (A) Cable OCPD (A) Cable OCPD (A) Cable

Input Q1 450 2 x 4/0 450 2 x 4/0 400 1 x 500

Bypass Q57 400 2 x 2/0 350 2 x 2/0 350 2 x 2/0

Battery8 500 2 x 4/0 500 2 x 4/0 500 2 x 4/0

Output Q2 400 1 x 500 350 1 x 500 350 1 x 350

Use breaker or class J or class L fuses.

Installations with 100% Rated Circuit Breakers or Fuses

500 kW

400 V 415 V 480 V

OCPD (A) Cable OCPD (A) Cable OCPD (A) Cable

Input Q1 1000 3 x 400 1000 3 x 400 800 2 x 500

Bypass Q57 800 3 x 250 700 3 x 250 700 3 x 4/0

Battery8 1000 3 x 400 1000 3 x 400 1000 3 x 400

Output Q2 800 2 x 500 700 2 x 500 700 2 x 350

Use breaker or class J or class L fuses.

Installations with 80% Rated Circuit Breakers

250 kW

400 V 415 V 480 V

OCPD (A) Cable OCPD (A) Cable OCPD (A) Cable

Input Q1 600 2 x 300 600 2 x 250 450 2 x 4/0

Bypass Q57 500 2 x 4/0 450 2 x 4/0 400 2 x 3/0

32 990-3880K-001

250/500 kW 400/480 V Facility Planning

7. Maximum input protection is 800 A and the maximum cable size is 250 kcmil.

8. If the UPS system includes a battery breaker cabinet and has one or multiple battery strings, each individual string must have a correctly sized fast fuse installed for correct isolation of the battery.

Installations with 80% Rated Circuit Breakers (Continued)

250 kW

400 V 415 V 480 V

OCPD (A) Cable OCPD (A) Cable OCPD (A) Cable

Battery9 500 2 x 4/0 500 2 x 4/0 500 2 x 4/0

Output Q2 500 2 x 4/0 450 2 x 4/0 400 1 x 500

Installations with 80% Rated Circuit Breakers

500 kW

400 V 415 V 480 V

OCPD (A) Cable OCPD (A) Cable OCPD (A) Cable

Input Q1 1200 4 x 350 1200 4 x 350 1000 3 x 400

Bypass Q510 Not allowed Not allowed 800 3 x 250

Battery9 1000 3 x 400 1000 3 x 400 1000 3 x 400

Output Q2 Not allowed Not allowed 800 2 x 500

Typical Q3 and Q4 Breaker Sizes for Parallel Systems

250 kW units in parallel

400 V 415 V 480 V

OCPD Rating 80% 100% 80% 100% 80% 100%

500 kW 1000 800 1000 700 800 700

750 kW 1600 1200 1600 1200 1200 1000

1 MW 2000 1600 2000 1600 1600 1600

1.5 MW - - - - - -

2 MW - - - - - -

Typical Q3 and Q4 Breaker Sizes for Parallel Systems

500 kW units in parallel

400 V 415 V 480 V

OCPD Rating 80% 100% 80% 100% 80% 100%

500 kW - - - - - -

750 kW - - - - - -

1 MW 2000 1600 2000 1600 1600 1600

1.5 MW 3000 2500 3000 2500 2500 2000

2 MW 4000 3000 4000 3000 4000 2500

Recommended Bolt and Lug Sizes for UL

Cable size Terminal bolt diameter Single Hole lug NEMA 2 Lug Crimping tool/die

4/0 AWG M10 LCA 4/0-12-X LCD 4/0-12-X CT-720/CD-720-3

250 kcmil M10 LCA250-12-X LCD250-12-X CT-720/CD-720-3

300 kcmil M10 LCA300-12-X LCD300-12-X CT-720/CD-720-4

350 kcmil M10 LCA350-12-X LCD350-12-X CT-720/CD-720-5

990-3880K-001 33

Facility Planning 250/500 kW 400/480 V

9. If the UPS system includes a battery breaker cabinet and has one or multiple battery strings, each individual string must have a correctly

10. Maximum input protection is 800 A and the maximum cable size is 250 kcmil.

Cable size Terminal bolt diameter Single Hole lug NEMA 2 Lug Crimping tool/die

400 kcmil M10 LCA400-12-6 LCD400-12-6 CT-720/CD-720-6

500 kcmil M10 LCA500-12-6 LCD500-12-6 CT-720/CD-720-7

IEC-Specific Specifications

Surge Protection Device (SPD)

DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

This UPS is OVCII (Over Voltage Category Class II) compliant. This UPS must only be installed in an OVCII compliant environment.

• If the UPS is installed in an environment with an OVC rating higher than II, an SPD (surge protection device) must be installed upstream of the UPS to reduce the overvoltage category to OVCII.

• The SPD must include a status indicator to show the user if the SPD is operational or is no longer functioning according to design. The status indicator may be visual and/or audible and/or may have remote signalling and/or output contact capability in accordance with IEC 62040-1.

Failure to follow these instructions will result in death or serious injury.

Surge Protection Device Requirements Select a surge protection device that complies with the following requirements:

Class Type 2

Rated voltage (Ur) 230/400 V, 277/480 V

Voltage protection level (Up) < 2.5 kV

Short circuit rating (Isccr)11 According to installation prospective short circuit level

Earthing system12 TN-S, TT, IT, TN-C

Poles 3P/4P depending on earthing configuration

Standards IEC 61643-11 / UL 1449

Monitoring Yes

34 990-3880K-001

250/500 kW 400/480 V Facility Planning

11. Lower short circuit rating can be achieved with fuse protection.

12. Corner grounding not permitted.

Upstream and Downstream Protection for IEC

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

• Circuit breakers must have instantaneous trip time of maximum 60 ms.

• Circuit breakers must have instantaneous override values set according to the table below.

• Circuit breakers must be installed for input (unit input breaker UIB) and bypass (static switch input breaker SSIB).

• For parallel system with three or more UPSs: Circuit breakers must be installed for the output (unit output breaker UOB) of each UPS. The unit output breaker (UOB) is sized as the static switch input breaker (SSIB).

Failure to follow these instructions will result in death or serious injury.

NOTICE

If a residual current-operated protective device (RCD-B) is used upstream as ground fault protection, then the RCD-B shall be sized to not trip on the leakage current of this product, which can be up to 303 mA.

Failure to follow these instructions can result in equipment damage.

Upstream Protection for IEC and Minimum Prospective Phase-To-Earth Short Circuit at the UPS Input/Bypass Terminals

The minimum prospective phase-to-earth short circuit current required at the UPS terminals is dependent on the upstream overcurrent protection device and its settings to ensure proper operation and required operation time, in case of a short circuit between one of the phases and the metal enclosure of the UPS.

DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

The upstream overcurrent protective device (and its settings) must be sized to ensure a disconnecting time within 0.2 seconds for a minimum prospective phase-to-earth short circuit current calculated or measured at the input/bypass terminals of the UPS.

Failure to follow these instructions will result in death or serious injury.

If the upstream overcurrent protective device is a breaker with adjustable short time protection, then it is possible to adjust the short time protection current and short time delay (if present) to meet the requirement of 0.2 seconds for a calculated or measured phase-to-earth prospective short circuit current at the input/bypass terminals of the UPS.

990-3880K-001 35

Recommended Fuses, Breakers, and Cables for IEC

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

The product must be installed according to the specifications and requirements as defined by Schneider Electric. It concerns in particular the external and internal protections (upstream circuit breakers, battery circuit breakers, cabling, etc.) and environmental requirements. No responsibility is assumed by Schneider Electric if these requirements are not respected.

Failure to follow these instructions will result in death or serious injury.

DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION OR ARC FLASH

All wiring must comply with all applicable national and/or local electrical codes.

Failure to follow these instructions will result in death or serious injury.

DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION OR ARC FLASH

Appropriate disconnect devices must be provided external to the equipment.

Failure to follow these instructions will result in death or serious injury.

NOTE: For parallel systems, the cable lengths for bypass and output must be the same for all parallel UPS units to ensure correct load sharing in bypass operation. In single utility/mains installations this applies to input cables.

NOTE: See Required Breaker Settings for Input Overload and Short-Circuit Protection for Breakers with Electronic Trip Units, page 38 for information on breaker settings.

Supply the UPS from a 5–wire TN-S system (L1, L2, L3, N, PE).

Cable sizes in this manual are based on table B.52.12 and B.52.13 of IEC 60364- 5-52 with the following assertions:

• 90 °C conductors

• An ambient temperature of 30 °C

• Use of copper or aluminium conductors

• Installation method F4 for DC cables and installation method F5 for AC cables, corrected for single layer in perforated cable tray PE cables are sized in accordance with IEC 60364-5-54 table 54.2 Minimum cross-sectional area of protective conductors.

NOTE: Always consider the PE size according to the complete electrical installation. Minimum size of the PE conductor must comply with local safety regulations for high PE conductor current equipment.

If the ambient temperature is greater than 30 °C, larger conductors are to be selected in accordance with the correction factors of the IEC.

Refer to IEC 60364-5-52 for installation methods. The cable sizes are recommendations for maximum configurations and copper cables. For other system size configurations see label inside of I/O cabinet front door.

36 990-3880K-001

Recommended Cable Sizes in Systems with Breaker Protection

Installation method

OCPD (A) B1 (mm2) B2 (mm2) C (mm2) OCPD (A) B1 (mm2) B2 (mm2) C (mm2)

400 V 415 V

250 kW

Input 4001 2 x 95 2 x 120 2 x 95 40013 2 x 95 2 x 120 2 x 95

Bypass 400 2 x 95 2 x 120 2 x 95 355 2 x 95 2 x 120 2 x 95

Battery14 500 1 x 120 3 x 95 2 x 95 500 1 x 120 3 x 95 2 x 95

Output 400 2 x 95 2 x 120 2 x 95 355 2 x 95 2 x 120 2 x 95

500 kW

Input 800 4 x 120 - 3 x 150 80013 4 x 120 - 3 x 150

Bypass 800 4 x 120 - 3 x 150 800 4 x 120 - 3 x 150

Battery14 1000 - - 3 x 240 1000 - - 3 x 240

Output 800 4 x 120 - 3 x 150 800 4 x 120 - 3 x 150

Recommended Cable Sizes in Systems with Fuse Protection

Installation method

OCPD (A) B1 (mm2) B2 (mm2) C (mm2) OCPD (A) B1 (mm2) B2 (mm2) C (mm2)

400 V 415 V

250 kW

Input 500 2 x 95 2 x 120 2 x 150 40015 2 x 95 2 x 120 2 x 95

Bypass 400 2 x 95 2 x 120 2 x 95 355 2 x 95 2 x 95 1 x 185

Battery14 500 1 x 120 3 x 95 2 x 95 500 1 x 120 3 x 95 2 x 95

Output 400 2 x 95 2 x 120 2 x 95 355 2 x 95 2 x 95 1 x 185

500 kW

Input 1000 - - 4 x 150 1000 - - 4 x 150

Bypass15 800 4 x 120 - 3 x 150 800 4 x 120 - 3 x 150

Battery14 1000 - - 3 x 240 1000 - - 3 x 240

Output 800 4 x 120 - 3 x 150 800 4 x 120 - 3 x 150

Typical Q3 and Q4 Breaker Sizes for Parallel Systems

250 kW 500 kW

400 V 415 V 400 V 415 V

For 2 UPS units (A) 800 800 1600 1600

For 3 UPS units (A) 1250 1250 2500 2000

For 4 UPS units (A) 1600 1600 3200 3200

990-3880K-001 37

Facility Planning 250/500 kW 400/480 V

13. The breaker must comply with IEC 60947-2 which guarantees a non-tripping current of 1.05 times current setting for 2 hours. Alternative breaker size must be higher than stated current.

14. If the UPS system includes a battery breaker cabinet and has one or multiple battery strings, each individual string must have a correctly

15. Maximum input protection is 800 A.

Recommended Bolt and Lug Sizes for IEC

Cable size mm2 Bolt size Cable lug type

16 M10 x 40 mm TLK 16-10

25 M10 x 40 mm TLK 25-10

35 M10 x 40 mm TLK 35-10

50 M10 x 40 mm TLK 50-10

70 M10 x 40 mm TLK 70-10

95 M10 x 40 mm TLK 95-10

120 M10 x 40 mm TLK 120-10

150 M10 x 40 mm TLK 150-10

185 M10 x 40 mm TLK 185-10

240 M10 x 40 mm TLK 240-10

Required Breaker Settings for Input Overload and Short- Circuit Protection for Breakers with Electronic Trip Units

Single Utility/Mains Installation (Common Input and Bypass Breaker)

Input Breaker

In Maximum input current

STPU In x A ( 3 < A < 4)

STD Maximum 100 ms

LTD Maximum 3 x In in 5s

Iinst In x 5

Dual Utility/Mains Installation (Separate Input and Bypass Breaker)

Input Breaker Bypass Breaker

In Maximum input current Maximum input current

STPU In x A ( 3 < A < 4) In x B (10 < B <12)

STD Maximum 100 ms Maximum 100 ms

LTD Maximum 3 x In in 5s Maximum 3 x In in 5s

Iinst In x 5 In x 15

Torque Specifications

Bolt size M8 Bolt size M10

13.5 Nm 30 Nm

38 990-3880K-001

Physical

Weights and Dimensions

Modules Weight kg (lbs)

Power module (SYPM25KD) 42 (92)

Battery unit (SYBTU2-PLP, SYBTU2-PLPLL) 25.5 (56)

Static bypass switch 250kVA (SYSW250KD) 79 (174)

Static bypass switch 500kVA (SYSW500KD) 108 (238)

Cabinets Weight kg (lbs)

I/O cabinet (SYIOF500KD) 332 (730)

I/O cabinet with maintenance bypass (SYIOF500KMBR) 695 (1529)

Power module cabinet (SYPF250KD) 243 (535)

Battery cabinet (SYBFXR8) 374 (822)

Bottom feed cabinet (SYBFF) 150 (330)

Battery side car (SYBSC) 149 (328)

Battery breaker cabinet (SYBBE, SYBBE-UL) 327 (719)

Shipping Weights and Dimensions

Modules Weight kg (lbs)

Height mm (in)

Width mm (in)

Depth mm (in)

Power module (SYPM25KD) 48 (106) 285 (11.22) 585 (23.03) 935 (36.81)

Battery unit (SYBTU2-PLP, SYBTU2-PLPLL)

27 (60) 178 (7.08) 108 (4.25) 610 (24)

Static bypass switch 250kVA

(SYSW250KD)

105 (231) 930 (36.61) 780 (30.71) 915 (36.02)

Static bypass switch 500kVA

(SYSW500KD)

134 (295) 930 (36.61) 780 (30.71) 915 (36.02)

Cabinets Weight kg (lbs)

Height mm (in)

Width mm (in)

Depth mm (in)

I/O cabinet (SYIOF500KD) 375 (827) 2135 (84.06) 745 (29.33) 1210 (47.64)

I/O cabinet with maintenance bypass (SYIOF500KMBR)

752 (1658) 2150 (84.65) 1120 (44.09) 1270 (50)

Power module cabinet

(SYPF250KD)

280 (617) 2135 (84.06) 750 (29.53) 1210 (47.64)

Battery cabinet (SYBFXR8) 431 (950) 2150 (84.65) 1120 (44.09) 1270 (50)

Bottom feed cabinet (SYBFF) 186 (410) 2135 (84.06) 745 (29.33) 1210 (47.64)

Battery side car (SYBSC) 185 (408) 2150 (84.65) 745 (29.33) 1210 (47.64)

Battery breaker cabinet

(SYBBE, SYBBE-UL)

365 (805) 2135 (84.06) 750 (29.53) 1210 (47.64)

990-3880K-001 39

Clearance

HAZARD OF ELECTRIC SHOCK, EXPLOSION OR ARC FLASH

The required free space to other equipment containing live parts is 1219 mm (48 in).

Failure to follow these instructions will result in death or serious injury.

NOTE: Clearance dimensions are published for airflow and service access only. Consult with the local safety codes and standards for additional requirements in your local area.

The UPS system can be placed up against the wall as there is no requirement for rear access. However, if the UPS system installation is done in a manner that prevents rolling a cabinet forward and into a position where service can be performed, rear service access is required. In these cases, recommended clearance between the rear of the cabinet and the wall is 1070 mm (42 in).

Examples of these cases would be installation on a housekeeping pad that elevates the UPS off the floor by 100 mm (4 in) or cabinets with bottom cable entry.

Symmetra PX 250/500 kW without Maintenance Bypass

40 990-3880K-001

Symmetra PX 250/500 kW with Maintenance Bypass

990-3880K-001 41

Environmental Operating Temperature 0 to 40° C

Storage Temperature -15 to 40° C for systems with batteries -30 to 70° C for systems without batteries

Operating Relative Humidity 0 - 95%

Storage Relative Humidity 0 - 95%

Operating Elevation 0-1000 m: 100% load 1000–1500 m: 95% load 1500–2000 m: 91% load 2000–2500 m: 86% load 2500–3000 m: 82% load

Storage Elevation 0-15000 meters

Audible noise at 1 meter from surface of unit @ 25° C 480 V 100% load: <54 dBA 480 V 70% load: <45 dBA 400 V 100% load: <60 dBA 400 V 70% load: <49 dBA

Protection Class NEMA 1, IP 20

Colour Black

Heat Dissipation

100 kW 125 kW 150 kW 175 kW 200 kW 225 kW 250 kW 275 kW 300 kW

Heat dissipation16 (BTU/hr)

14 217 17 771 21 325 24 879 28 433 31 968 35 542 39 096 42 650

Heat dissipation17 (BTU/hr)

17 103 21 379 25 655 29 931 34 207 38 483 42 759 47 035 51 310

325 kW 350 kW 375 kW 400 kW 425 kW 450 kW 475 kW 500 kW

Heat dissipation16 (BTU/hr) 46 204 49 758 53 313 56 867 60 421 63 975 67 529 71 083

Heat dissipation17 (BTU/hr) 55 586 59 852 64 138 68 414 72 690 76 966 81 241 85 517

42 990-3880K-001

250/500 kW 400/480 V Facility Planning

16. Batteries fully charged

17. Batteries charging

Drawings NOTE: A comprehensive set of drawings is available on www.se.com.

NOTE: These drawings are for reference ONLY – subject to change without notice.

990-3880K-001 43

Drawings 250/500 kW 400/480 V

Symmetra PX 500 kW 400 V Single Utility/Mains with Maintenance Bypass and Line-Up-And-Match Batteries – Bottom Feed

44 990-3880K-001

250/500 kW 400/480 V Drawings

Top Feed

990-3880K-001 45

Maintenance Bypass and Remote Batteries — Top Feed

46 990-3880K-001

Maintenance Bypass and Remote Batteries – Bottom Feed

990-3880K-001 47

Symmetra PX 500 kW 400 V Dual Mains with Maintenance Bypass and Line-Up-And-Match Batteries – Top Feed

48 990-3880K-001

Symmetra PX 500 kW 400 V Dual Utility/Mains with Maintenance Bypass and Remote Batteries – Bottom Feed

990-3880K-001 49

Bottom Feed

50 990-3880K-001

Maintenance Bypass and Remote Batteries – Top Feed

990-3880K-001 51

Symmetra PX 500 kW 480 V Single Mains with Maintenance Bypass (3 Wire Output) and Line-Up-And- Match Batteries – Top Feed

52 990-3880K-001

Symmetra PX 500 kW 480 V Dual Mains with Maintenance Bypass (3 Wire Output) and Line-Up-And-Match Batteries

– Top Feed

990-3880K-001 53

Maintenance Bypass (3 Wire Output) and Line-Up-And- Match Batteries – Bottom Feed

54 990-3880K-001

Bypass (3 Wire Output) and Line-Up-And-Match Batteries

– Bottom Feed

990-3880K-001 55

Maintenance Bypass (4 Wire Output) and Line-Up-And- Match Batteries – Top Feed

56 990-3880K-001

Bypass (4 Wire Output) and Line-Up-And-Match Batteries

– Top Feed

990-3880K-001 57

Maintenance Bypass (4 Wire Output) and Line-Up-And- Match Batteries – Bottom Feed

58 990-3880K-001

Bypass (4 Wire Output) and Line-Up-And-Match Batteries

– Bottom Feed

990-3880K-001 59

Options

Hardware Options

Breakers NOTE: 4–pole breakers are not available as an option in North America.

• T1 breaker kit for unsupported breaker amperages with current transformer without adaptors

• T3 breaker kit for unsupported breaker amperages with current transformer without adaptors

• 3-Pole circuit breaker, 60 A, T1 Type

• 3-Pole circuit breaker, 70 A, T1 Type

• 3-Pole circuit breaker, 80 A, T1 Type

• 3-Pole…