SP3OPT002 - Inverter APC - Free user manual and instructions

USER MANUAL SP3OPT002 APC

Easy UPS 3-Phase Modular

50-250 kW

Installation

380 V, 400 V, 415 V

Latest updates are available on the Schneider Electric website 09/2022

Exterior view of a black industrial electrical cabinet with green top (no visible text or symbols)

Legal Information

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

This guide and its content are protected under applicable copyright laws and furnished for informational use only. No part of this guide 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 guide or its content, except for a non-exclusive and personal license to consult it on an "as is" basis. Schneider Electric products and equipment should be installed, operated, serviced, and maintained only by qualified personnel.

As standards, specifications, and designs change from time to time, information contained in this guide may be subject to change 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 material or consequences arising out of or resulting from the use of the information contained herein.

Green QR code image, scannable for digital information retrieval

Go to https://www.productinfo.schneider-electric.com/easyups3pmodular/ or scan the QR code above for digital experience and translated manuals.

Table of Contents

Important Safety Instructions — SAVE THESE

INSTRUCTIONS....5

Electromagnetic Compatibility ....6

Safety Precautions ......6

Additional Safety Precautions After Installation....8

Electrical Safety 9

Battery Safety 10

Symbols Used in the Product....12

Specifications 13

Specifications for 50 kW UPS ....13

Specifications for 100 kW UPS ....15

Specifications for 150 kW UPS ....17

Specifications for 200 kW UPS ....19

Specifications for 250 kW UPS ....21

Required Upstream Protection....23

Recommended Cables Sizes 24

Recommended Bolt and Lug Sizes 25

Torque Specifications....25

Requirements for a Third Party Battery Solution....27

Third Party Battery Breaker Requirements 27

Guidance for Organizing Battery Cables 28

UPS Weights and Dimensions 29

Clearance 30

Environment....31

Compliance....32

Overview 33

Single System Overview 33

Parallel System Overview 36

Installation Procedure 38

Position the UPS 39

Install the Seismic Anchoring (Option) 41

Prepare the UPS for Top Cable Entry 45

Prepare for TN-C Earthing System 49

Install the Neutral Disconnection Kit (Option)....50

Connect the Power Cables for the UPS with One Internal

Switch 52

Connect the Power Cables for the UPS with Four Internal

Switches....55

Connect the Signal Cables....58

Connect the Signal Cables from Switchgear and Third-Party

Auxiliary Products....62

Connect the Modbus Cables....65

Connect the PBUS Cables 67

Install the Power Module(s)....68

Backfeed Protection....70

Final Installation 74

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.

Electromagnetic Compatibility

NOTICE

RISK OF ELECTROMAGNETIC DISTURBANCE

This is a product category C3 UPS product. In a residential environment, this product may cause radio inference, in which case the user may be required to take additional measures.

Failure to follow these instructions can result in equipment damage.

Safety Precautions

⚠️DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

All safety instructions in this document must be read, understood and followed.

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

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

Read all instructions in the Installation Manual before installing or working on this UPS system.

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

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

Do not install the UPS system until all construction work has been completed and the installation room has been cleaned.

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

⚠️ 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 breakers, battery 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, or
  • Canadian Electrical Code (C22.1, Part 1)

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 indoor environment free of conductive contaminants and humidity.
- Install the UPS system on a non-flammable, 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.

⚠️ 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.

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

Do not drill or cut holes for cables or conduits with the gland plates installed and do not drill or cut holes in close proximity to the UPS.

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

▲WARNING

HAZARD OF ARC FLASH

Do not make mechanical changes to the product (including removal of cabinet parts or drilling/cutting of holes) that are not described in the Installation Manual.

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

NOTICE

RISK OF OVERHEATING

Respect the space 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.

Additional Safety Precautions After Installation

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

Do not install the UPS system until all construction work has been completed and the installation room has been cleaned. If additional construction work is needed in the installation room after this product has been installed, turn off the product and cover the product with the protective packaging bag the product was delivered in.

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

Electrical Safety

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

• Electrical equipment must be installed, operated, serviced, and maintained only by qualified personnel.
• Apply appropriate personal protective equipment (PPE) and follow safe electrical work practices.
• Turn off all power supplying the UPS system before working on or inside the equipment.
• Before working on the UPS system, check for hazardous voltage between all terminals including the protective earth.
• The UPS contains an internal energy source. Hazardous voltage can be present even when disconnected from the mains supply. Before installing or servicing the UPS system, ensure that the units are OFF and that mains and batteries are disconnected. Wait five minutes before opening the UPS to allow the capacitors to discharge.
• A disconnection device (e.g. disconnection circuit breaker or switch) must be installed to enable isolation of the system from upstream power sources in accordance with local regulations. The disconnection device must be easily accessible and visible.
• The UPS must be properly earthed/grounded and due to a high leakage current, the earthing/grounding conductor must be connected first.

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

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

In systems where backfeed protection is not part of the standard design, an automatic isolation device (backfeed protection option or other device meeting the requirements of IEC/EN 62040-1 or UL1778 5th Edition – depending on which of the two standards apply to your local area) must be installed to prevent hazardous voltage or energy at the input terminals of the isolation device. The device must open within 15 seconds after the upstream power supply fails and must be rated according to the specifications.

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

When the UPS input is connected through external isolators that, when opened, isolate the neutral or when the automatic backfeed isolation is provided external to the equipment or is connected to an IT power distribution system, a label must be fitted at the UPS input terminals, and on all primary power isolators installed remote from the UPS area and on external access points between such isolators and the UPS, by the user, displaying the following text (or equivalent in a language which is acceptable in the country in which the UPS system is installed):

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

Risk of Voltage Backfeed. Before working on this circuit: Isolate the UPS and check for hazardous voltage between all terminals including the protective earth.

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

▲CAUTION

RISK OF ELECTRICAL DISTURBANCE

This product can cause a DC current in the PE conductor. Where a residual current-operated protective device (RCD) is used for protection against electrical shock, only an RCD of Type B is allowed on the supply side of this product.

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

Battery Safety

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

• Battery circuit breakers must be installed according to the specifications and requirements as defined by Schneider Electric.
• Servicing of batteries must only be performed or supervised by qualified personnel knowledgeable of batteries and the required precautions. Keep unqualified personnel away from batteries.
• Disconnect charging source prior to connecting or disconnecting battery terminals.
• Do not dispose of batteries in a fire as they can explode.
• Do not open, alter, or mutilate batteries. Released electrolyte is harmful to the skin and eyes. It may be toxic.

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

⚠️⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

Batteries can present a risk of electric shock and high short-circuit current. The following precautions must be observed when working on batteries

• Remove watches, rings, or other metal objects.
• Use tools with insulated handles.
• Wear protective glasses, gloves and boots.
• Do not lay tools or metal parts on top of batteries.
• Disconnect the charging source prior to connecting or disconnecting battery terminals.
• Determine if the battery is inadvertently grounded. If inadvertently grounded, remove source from ground. Contact with any part of a grounded battery can result in electric shock. The likelihood of such shock can be reduced if such grounds are removed during installation and maintenance (applicable to equipment and remote battery supplies not having a grounded supply circuit).

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

⚠️⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

When replacing batteries, always replace with the same type and number of batteries or battery packs.

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

▲CAUTION

RISK OF EQUIPMENT DAMAGE

• Mount the batteries in the UPS system, but do not connect the batteries until the UPS system is ready to be powered up. The time duration from battery connection until the UPS system is powered up must not exceed 72 hours or 3 days.
• Batteries must not be stored more than six months due to the requirement of recharging. If the UPS system remains de-energized for a long period, we recommend that you energize the UPS system for a period of 24 hours at least once every month. This charges the batteries, thus avoiding irreversible damage.

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

NOTE: Always follow the battery manufacturer's installation manual for battery installation and maintenance instructions.

Symbols Used in the Product

	This is the earthing/ground symbol.
	This is the protective earth/equipment grounding conductor symbol.
	This is the direct current symbol. It is also referred to as DC.
	This is the alternating current symbol. It is also referred to as AC.
	This is the positive polarity symbol. It is used to identify the positive terminal(s) of equipment which is used with, or generates direct current.
	This is the negative polarity symbol. It is used to identify the negative terminal(s) of equipment which is used with, or generates direct current.
	This is the battery symbol.
	This is the static switch symbol. It is used to indicate switches that are designed to connect or disconnect the load to or from the supply respectively without the existence of moving parts.
	This is the AC/DC converter (rectifier) symbol. It is used to identify an AC/DC converter (rectifier) and, in case of plug-in devices, to identify the relevant receptacles.
	This is the DC/AC converter (inverter) symbol. It is used to identify an DC/AC converter (inverter) and, in case of plug-in devices, to identify the relevant receptacles.
	This is the input symbol. It is used to identify an input terminal when it is necessary to distinguish between inputs and outputs.
	This is the output symbol. It is used to identify an output terminal when it is necessary to distinguish between inputs and outputs.
	This is the switch disconnector symbol. It is used to identify the disconnecting device in the form of switch that protects the equipment from short circuit or heavy load current. It opens the circuits once the current flow crosses its maximum limit.
	This is the circuit breaker symbol. It is used to identify the disconnecting device in the form of circuit breaker that protects the equipment from short circuit or heavy load current. It opens the circuits once the current flow crosses its maximum limit.

Specifications

Specifications for 50 kW UPS

	Voltage (V) 380 400 415
Input	Connections L1, L2, L3, N, PE (single mains)	L1, L2, L3, PE (dual mains)
	Input voltage range at full load (V)	304-456 320-460 332-477
	Frequency (Hz) 40-70
	Nominal input current (A) 80 76 74
	Maximum input current (A) 100 95 95
	Total harmonic distortion (THDI) 1% (linear load)	3% (non-linear load)
	Input power factor > 0.99 (full load)
	Maximum short circuit rating Rated conditional short-circuit current Icc = 35 kADevice: Refer to Required Upstream Protection, page 23.
	Ramp-in	Programmable and adaptive 1-40 seconds
	Protection	Built-in backfeed protection and fuses
Bypass	Connections L1, L2, L3, N, PE
	Minimum bypass voltage (V)	342 360 374
	Maximum bypass voltage (V)	418 440 457
	Frequency (Hz) 50 or 60
	Frequency range (Hz)	±1 Hz, ±3 Hz, ±10 Hz (user selectable)
	Nominal bypass current (A)	78 74 71
	Maximum short circuit rating Rated conditional short-circuit current Icc = 35 kADevice: Refer to Required Upstream Protection, page 23.
	Protection	Dry contact signal for backfeed protection
Output	Connections L1, L2, L3, N, PE
	Output voltage regulation	±1% (symmetrical load)±3% (asymmetrical load)
	Overload capacity ≤125% for 10 minutes; ≤150% for 1 minute (normal operation)≤110% continuous; ≤125% for 10 minutes; ≤150% for 1 minute (bypass operation)≤125% for 1 minute; ≤150% for 1 second (battery operation)
	Output power factor	1
	Nominal output current (A)	76 73 70
	Total harmonic distortion (THDU)	1% (linear load)3% (non-linear load)
	Output frequency (Hz)	50/60 Hz bypass synchronized50/60 Hz ± 0.1% free-running
	Slew rate (Hz/sec)	Programmable to 0.25, 0.5, 1, 2, 4, 6 Hz/second
	Output performance classification (according to IEC/ EN62040-VFI-SS-113)
	Load power factor 0.7 leading to 0.7 lagging without derating
	Load crest factor	2.5
	Output short circuit current (inverter)	2.2-2.3 In
Battery	Charging power in % of output power 1-60%
	Maximum charging power (kW) 30
	Nominal battery voltage (VDC) 480 to 576
	Nominal float voltage (VDC) 545 to 654
	End of discharge voltage (full load) (VDC) 384 to 461
	Temperature compensation (per cell) -3.3 mV/°C/cell for T ≥	25 °C0 mV/°C/cell for T < 25 °C
	Battery current at full load and nominal battery voltage (A) 1	11
	Battery current at full load and minimum battery voltage (A)	130
	Ripple current < 5% C20 (5-minute runtime)
	Battery test Manual/automatic (selectable)
	Maximum short circuit rating	25 kA

Specifications for 100 kW UPS

	Voltage (V) 380 400 415
Input	Connections L1, L2, L3, N, PE (single mains)	L1, L2, L3, PE (dual mains)
	Input voltage range of full load (V)	304-456 320-460 332-477
	Frequency (Hz) 40-70
	Nominal input current (A) 160 152 147
	Maximum input current (A) 200 190 190
	Total harmonic distortion (THDI) < 3% for linear loads
	Input power factor > 0.99 (full load)
	Maximum short circuit rating	Rated conditional short-circuit current Icc = 35 kADevice: Refer to Required Upstream Protection, page 23.
	Ramp-in	Programmable and adaptive 1-40 seconds
	Protection	Built-in backfeed protection and fuses
Bypass	Connections L1, L2, L3, N, PE
	Minimum bypass voltage (V)	342 360 374
	Maximum bypass voltage (V)	418 440 457
	Frequency (Hz) 50 or 60
	Frequency range (Hz)	±1 Hz, ±3 Hz, ±10 Hz (user selectable)
	Nominal bypass current (A)	155 147 142
	Maximum short circuit rating	Rated conditional short-circuit current Icc = 35 kADevice: Refer to Required Upstream Protection, page 23.
	Protection	Dry contact signal for backfeed protection
Output	Connections L1, L2, L3, N, PE
	Output voltage regulation	±1% (symmetrical load)±3% (asymmetrical load)
	Overload capacity ≤125% for 10 minutes; ≤150% for 1 minute (normal operation)≤110% continuous; ≤125% for 10 minutes; ≤150% for 1 minute (bypass operation)≤125% for 1 minute; ≤150% for 1 second (battery operation)
	Output power factor	1
	Nominal output current (A)	152 145 140
	Total harmonic distortion (THDU)	1% (linear load)5% (non-linear load)
	Output frequency (Hz)	50/60 Hz bypass synchronized50/60 Hz ± 0.1% free-running
	Slew rate (Hz/sec)	Programmable to 0.25, 0.5, 1, 2, 4, 6 Hz/second
	Output performance classification (according to IEC/ EN62040-3)	VFI-SS-11
	Load power factor 0.7 leading to 0.7 lagging without derating
	Load crest factor	2.5
	Output short circuit current (inverter)	2.2-2.3 In
Battery	Charging power in % of output power 1-60%
	Maximum charging power (kW) 60
	Nominal battery voltage (VDC) 480 to 576
	Nominal float voltage (VDC) 545 to 654
	End of discharge voltage (full load) (VDC) 384 to 461
	Temperature compensation (per cell) -3.3 mV/°C/cell for T ≥ 25 °C0 mV/°C/cell for T < 25 °C
	Battery current at full load and nominal battery voltage (A)	222
	Battery current at full load and minimum battery voltage (A)	260
	Ripple current < 5% C20 (5-minute runtime)
	Battery test Manual/automatic (selectable)
	Maximum short circuit rating 25 kA

Specifications for 150 kW UPS

	Voltage (V) 380 400 415
Input	Connections L1, L2, L3, N, PE (single mains)	L1, L2, L3, PE (dual mains)
	Input voltage range at full load (V)	304-456 320-460 332-477
	Frequency (Hz) 40-70
	Nominal input current (A) 240 228 220
	Maximum input current (A) 300 285 285
	Total harmonic distortion (THDI) < 3% for linear loads
	Input power factor > 0.99 (full load)
	Maximum short circuit rating Rated conditional short-circuit current Icc = 35 kADevice: Refer to Required Upstream Protection, page 23.
	Ramp-in Programmable and adaptive 1-40 seconds
	Protection	Built-in backfeed protection and fuses
Bypass	Connections L1, L2, L3, N, PE
	Minimum bypass voltage (V)	342 360 374
	Maximum bypass voltage (V)	418 440 457
	Frequency (Hz) 50 or 60
	Frequency range (Hz)	±1 Hz, ±3 Hz, ±10 Hz (user selectable)
	Nominal bypass current (A)	232 220 212
	Maximum short circuit rating Rated conditional short-circuit current Icc = 35 kADevice: Refer to Required Upstream Protection, page 23.
	Protection	Dry contact signal for backfeed protection
Output	Connections L1, L2, L3, N, PE
	Output voltage regulation	±1% (symmetrical load)±3% (asymmetrical load)
	Overload capacity ≤125% for 10 minutes; ≤150% for 1 minute (normal operation)≤110% continuous; ≤125% for 10 minutes; ≤150% for 1 minute (bypass operation)≤125% for 1 minute; ≤150% for 1 second (battery operation)
	Output power factor	1
	Nominal output current (A)	228 217 209
	Total harmonic distortion (THDU)	1% (linear load)3% (non-linear load)
	Output frequency (Hz)	50/60 Hz bypass synchronized50/60 Hz ± 0.1% free-running
	Slew rate (Hz/sec)	Programmable to 0.25, 0.5, 1, 2, 4, 6 Hz/second
	Output performance classification (according to IEC/ EN62040-VFI-SS-113)
	Load power factor 0.7 leading to 0.7 lagging without derating
	Load crest factor	2.5
	Output short circuit current (inverter)	2.2-2.3 In
Battery	Charging power in % of output power 1-60%
	Maximum charging power (kW) 90
	Nominal battery voltage (VDC) 480 to 576
	Nominal float voltage (VDC) 545 to 654
	End of discharge voltage (full load) (VDC) 384 to 461
	Temperature compensation (per cell) -3.3 mV/°C/cell for T ≥	25 °C0 mV/°C/cell for T < 25 °C
	Battery current at full load and nominal battery voltage (A) 333
	Battery current at full load and minimum battery voltage (A)	390
	Ripple current < 5% C20 (5-minute runtime)
	Battery test Manual/automatic (selectable)
	Maximum short circuit rating	25 kA

Specifications for 200 kW UPS

	Voltage (V) 380 400 415
Input	Connections L1, L2, L3, N, PE (single mains)	L1, L2, L3, PE (dual mains)
	Input voltage range at full load (V)	304-456 320-460 332-477
	Frequency (Hz) 40-70
	Nominal input current (A) 320 304 293
	Maximum input current (A) 400 380 380
	Total harmonic distortion (THDI) < 3% for linear loads
	Input power factor > 0.99 (full load)
	Maximum short circuit rating Rated conditional short-circuit current Icc = 35 kADevice: Refer to Required Upstream Protection, page 23.
	Ramp-in Programmable and adaptive 1-40 seconds
	Protection	Built-in backfeed protection and fuses
Bypass	Connections L1, L2, L3, N, PE
	Minimum bypass voltage (V)	342 360 374
	Maximum bypass voltage (V)	418 440 457
	Frequency (Hz) 50 or 60
	Frequency range (Hz)	±1 Hz, ±3 Hz, ±10 Hz (user selectable)
	Nominal bypass current (A)	309 294 283
	Maximum short circuit rating Rated conditional short-circuit current Icc = 35 kADevice: Refer to Required Upstream Protection, page 23.
	Protection	Dry contact signal for backfeed protection
Output	Connections L1, L2, L3, N, PE
	Output voltage regulation	±1% (symmetrical load)±3% (asymmetrical load)
	Overload capacity ≤125% for 10 minutes; ≤150% for 1 minute (normal operation)≤110% continuous; ≤125% for 10 minutes; ≤150% for 1 minute (bypass operation)≤125% for 1 minute; ≤150% for 1 second (battery operation)
	Output power factor	1
	Nominal output current (A)	304 289 279
	Total harmonic distortion (THDU)	1% (linear load)3% (non-linear load)
	Output frequency (Hz)	50/60 Hz bypass synchronized50/60 Hz ± 0.1% free-running
	Slew rate (Hz/sec)	Programmable to 0.25, 0.5, 1, 2, 4, 6 Hz/second
	Output performance classification (according to IEC/ EN62040-VFI-SS-113)
	Load power factor 0.7 leading to 0.7 lagging without derating
	Load crest factor	2.5
	Output short circuit current (inverter)	2.2-2.3 In
Battery	Charging power in % of output power 1-60%
	Maximum charging power (kW) 120
	Nominal battery voltage (VDC) 480 to 576
	Nominal float voltage (VDC) 545 to 654
	End of discharge voltage (full load) (VDC) 384 to 461
	Temperature compensation (per cell) -3.3 mV/°C/cell for T ≥	25 °C0 mV/°C/cell for T < 25 °C
	Battery current at full load and nominal battery voltage (A) 444
	Battery current at full load and minimum battery voltage (A)	520
	Ripple current < 5% C20 (5-minute runtime)
	Battery test Manual/automatic (selectable)
	Maximum short circuit rating	25 kA

Specifications for 250 kW UPS

	Voltage (V) 380 400 415
Input	Connections L1, L2, L3, N, PE (single mains)	L1, L2, L3, PE (dual mains)
	Input voltage range at full load (V)	304-456 320-460 332-477
	Frequency (Hz) 40-70
	Nominal input current (A) 400 380 367
	Maximum input current (A) 500 475 475
	Total harmonic distortion (THDI) 1% (linear load)	3% (non-linear load)
	Input power factor	>0.99 (full load)
	Maximum short circuit rating	Rated conditional short-circuit current Icc = 35 kADevice: Refer to Required Upstream Protection, page 23.
	Ramp-in	Programmable and adaptive 1-40 seconds
	Protection	Built-in backfeed protection and fuses
Bypass	Connections L1, L2, L3, N, PE
	Minimum bypass voltage (V)	342 360 374
	Maximum bypass voltage (V)	418 440 457
	Frequency (Hz) 50 or 60
	Frequency range (Hz)	±1 Hz, ±3 Hz, ±10 Hz (user selectable)
	Nominal bypass current (A)	386 367 354
	Maximum short circuit rating	Rated conditional short-circuit current Icc = 35 kADevice: Refer to Required Upstream Protection, page 23.
	Protection	Dry contact signal for backfeed protection
Output	Connections L1, L2, L3, N, PE
	Output voltage regulation	±1% (symmetrical load)±3% (asymmetrical load)
	Overload capacity	≤125% for 10 minutes; ≤150% for 1 minute (normal operation≤110% continuous; ≤125% for 10 minutes; ≤150% for 1 minute(bypass operation)≤125% for 1 minute; ≤150% for 1 second (battery operation)
	Output power factor	1
	Nominal output current (A)	380 361 348
	Total harmonic distortion (THDU)	1% (linear load)3% (non-linear load)
	Output frequency (Hz)	50/60 Hz bypass synchronized50/60 Hz ± 0.1% free-running
	Slew rate (Hz/sec)	Programmable to 0.25, 0.5, 1, 2, 4, 6 Hz/second
	Output performance classification (according to IEC/ EN62040-VFI-SS-113)
	Load power factor	0.7 leading to 0.7 lagging without derating
	Load crest factor	2.5
	Output short circuit current (inverter)	2.2-2.3 In
Battery	Charging power in % of output power 1-60%
	Maximum charging power (kW) 150
	Nominal battery voltage (VDC) 480 to 576
	Nominal float voltage (VDC) 545 to 654
	End of discharge voltage (full load) (VDC) 384 to 461
	Temperature compensation (per cell) -3.3 mV/°C/cell for T ≥	25 °C0 mV/°C/cell for T < 25 °C
	Battery current at full load and nominal battery voltage (A)	555
	Battery current at full load and minimum battery voltage (A)	650
	Ripple current < 5% C20 (5-minute runtime)
	Battery test Manual/automatic (selectable)
	Maximum short circuit rating	25 kA

Required Upstream Protection

NOTE: For local directives which require 4-pole circuit breakers: If neutral conductor is expected to carry a high current, due to line-neutral non-linear load, the circuit breaker must be rated according to expected neutral current.

⚠️⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

The required breakers listed below must be used in the upstream protection.

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

UPS rating 50	kW 100 kW
	Input Bypass Input Bypass
Breaker type NS	X100H TM100D(C10H3TM100)	NSX100H TM80D(C10H3TM080)	NSX250H TM200(C25H3TM200)	NSX160H TM160(C16H3TM160)
Io 100 80 200	160
Ir	100 80 200 160
Isd	800 (fixed)	640 (fixed)	5 - 10	1250 (fixed)

UPS rating	150 kW		200 kW
	Input	Bypass	Input	Bypass
Breaker type	NSX400H MiC.2.3(C40H32D400)	NSX250H TM250(C25H3TM250)	NSX400H MiC.2.3(C40H32D400)	NSX400H MiC.2.3(C40H32D400)
Io	320	250	400	320
Ir	0.95	250	1	1
Isd	1.5 - 10	5 - 10	1.5 - 10	1.5 - 10

UPS rating	250 kW
	Input	Bypass
Breaker type	NSX630H MiC.2.3(C63H32D630)	NSX400H MiC.2.3(C40H32D400)
Io	500	400
Ir	1	1
Isd	1.5 - 10	1.5 - 10

Recommended Cables Sizes

⚠️⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

All wiring must comply with all applicable national and/or electrical codes. The maximum allowable cable size is 185 mm ^4 .

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

NOTE: Overcurrent protection is to be provided by external devices..

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

• 90 °C conductors
  • An ambient temperature of 30 °C
  • Use of copper conductors
• Installation method C

PE size is based on table 54.3 of IEC 60364-5-54.

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

NOTE: Battery cables are sized according to 40 battery blocks. Contact Schneider Electric for cable sizes for systems with more than 40 battery blocks.

NOTE: It is recommended to use the provided screws to connect cables for clients.

50 kW UPS

	Cable size per phase (m2)	Neutral cable size (mm 2) PE cable size (mm 2))
Input 25 35 16
Bypass 16 35 16
Output 16 35 16
Battery 35 35 16

100 kW UPS

	Cable size per phase (m)	Neutral cable size (mm 2) PE cable size (mm 2))
Input 70 2 x 70	35
Bypass 70 2 x 70	35
Output 70 2 x 70	35
Battery 95 95 50

150 kW UPS

	Cable size per phase (m2)	Neutral cable size (mm 2) PE cable size (mm 2))
Input 120	2 x 70	70
Bypass 120	2 x 70	70

Cable size per phase (mm ^2 ) Neutral cable size (mm ^2 ) PE cable size (mm ^2 ))

Output 120 2 x 70 70

Battery 2 x 70 2 x 70 70

200 kW UPS

Cable size per phase (mm ^2 ) Neutral cable size (mm ^2 ) PE cable size (mm ^2 ))

Input 2 x 95 2 x 95 95

Bypass 2 x 70 2 x 70 70

Output 2 x 70 2 x 70 70

Battery 2 x 120 2 x 120 120

250 kW UPS

Cable size per phase (mm ^2 ) Neutral cable size (mm ^2 ) PE cable size (mm ^2 ))

Input 2 x 120 2 x 120 120

Bypass 2 x 95 2 x 95 95

Output 2 x 95 2 x 95 95

Battery 2 x 150 2 x 150 150

Recommended Bolt and Lug Sizes

Copper

Cable size (mm²) Bolt size Cable lug type

16	M10x40 mm	TLK 16-10
25	M10x40 mm	TLK 25-10
35	M10x40 mm	TLK 35-10
50	M10x40 mm	TLK 50-10
70	M10x40 mm	TLK 70-10
95	M10x40 mm	TLK 95-10
120	M10x40 mm	TLK 120-10
150	M10x40 mm	TLK 150-10
185	M10x40 mm	TLK 185-10

Torque Specifications

Bolt size	Torque
M4	1.7 Nm
M6	5 Nm
M8	17.5 Nm

Bolt size Torque
M10 30 Nm
M12 50 Nm

Requirements for a Third Party Battery Solution

Battery breaker boxes from Schneider Electric are recommended for the battery interface. Please contact Schneider Electric for more information.

Third Party Battery Breaker Requirements

⚠️⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

• All selected battery breakers must be equipped with instantaneous trip functionality with an undervoltage release coil or a shunt trip release coil.
• Trip delay must be set to zero on all battery breakers.

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

NOTE: There are more factors to consider when selecting a battery breaker than the requirements listed below. Please contact Schneider Electric for more information.

Design Requirements for Battery Breaker

Battery breaker rated DC voltage > Normal battery voltage	The normal voltage of the battery configuration is defined as the highest nominal occurring battery voltage. This can be equivalent to the float voltage which may be defined as number of battery blocks x number of cells x cell float voltage.
Battery breaker rated DC current > Rated discharge battery current	This current is controlled by the UPS and must include maximum discharge current. This will typically be the current at the end of discharge (minimum operation DC voltage or in overload condition or a combination).
DC landings Two DC landings for DC cables (DC+	and DC-) are required.
AUX switches for monitoring One AUX switch must	be installed in each battery breaker and connected to the UPS. The UPS can monitor up to four battery breakers.
Short-circuit breaking capability	The short-circuit breaking capability must be higher than the short-circuit DC current of the (largest) battery configuration.
Minimum trip current The minimum short-circuit current	to trip the battery breaker must match the (smallest) battery configuration, to make the breaker trip in case of a short circuit, up to the end of its life time.
Common battery solution Individual battery breaker	for each UPS in the parallel system.

Guidance for Organizing Battery Cables

NOTE: For 3rd party batteries, use only high rate batteries for UPS applications.

NOTE: When the battery bank is placed remotely, the organizing of the cables is important to reduce voltage drop and inductance. The distance between the battery bank and the UPS must not exceed 200 m (656 ft). Contact Schneider Electric for installations with a longer distance.

NOTE: To minimize the risk of electromagnetic radiation, it is highly recommended to follow the below guidance and to use grounded metallic tray supports.

Cable Length
<30 m Not recommended		Acceptable Recommended
31–75 m Not recommended	Not recommended		Acceptable Recommended
76–150 m Not recommended	Not recommended		Acceptable Recommended
151–200 m Not recommended	Not recommended	Not recommended	Recommended

UPS Weights and Dimensions

UPS with One Internal Switch

Type Weight kg Height	mm Width mm Depth mm
50 kW 216 1991 600 850
50 kW with N+1 power module	244 1991 600 850
100 kW 244 1991 600 850
100 kW with N+1 power module	272 1991 600 850
150 kW 272 1991 600 850
150 kW with N+1 power module	300 1991 600 850
200 kW 300 1991 600 850
200 kW with N+1 power module	328 1991 600 850
250 kW 328 1991 600 850
250 kW with N+1 power module	356 1991 600 850

UPS with Four Internal Switches

Type Weight kg Height	mm Width mm Depth mm
50 kW 251 1991 600 850
50 kW with N+1 power module	279 1991 600 850
100 kW 279 1991 600 850
100 kW with N+1 power module	307 1991 600 850
150 kW 307 1991 600 850
150 kW with N+1 power module	335 1991 600 850
200 kW 335 1991 600 850
200 kW with N+1 power module	363 1991 600 850
250 kW 363 1991 600 850
250 kW with N+1 power module	391 1991 600 850

Clearance

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.

500 mm 500 mm 800 mm

NOTE: 500 mm rear clearance is also required when the depth adapter is installed with the UPS.

Environment

	Operating Storage
Temperature 0 °C to 50 °C	with load derating above 40 °C ^6	-25 °C to 55 °C
Relative humidity 0-95% non-condensing	condensing 0-95% non-condensing
Elevation Designed for operation in 0-3000 m elevation.Derating required from 1000-3000 m with forced air cooling:Up to 1000 m: 1.000Up to 1500 m: 0.975Up to 2000 m: 0.950Up to 2500 m: 0.925Up to 3000 m: 0.900
Audible noise ^7	68 dB at 70% load74 dB at 100% load
Protection class IP20
Color Black

Compliance

Safety IEC 62040-1:2017, Edition 2.0, Uninterruptible power systems (UPS) – Part 1: Safety requirements
EMC IEC 62040-2:2016, Edition 3.0, Uninterruptible power systems (UPS) – Part 2: Electromagnetic compatibility (EMC) requirements.IEC 62040-2:2005-10, Edition 2.0, Uninterruptible Power Systems (UPS) – Part 2: Electromagnetic compatibility (EMC) requirements
Performance IEC 62040-3: 2021-03, Edition 3.0, Uninterruptible Power Systems (UPS) - Part 3: Method of specifying the performance and test requirements
Transportation IEC TR 60721-4-2 Level 2M2
Pollution degree 2
Overvoltage category	III
Earthing system TN-S, TN-C, TN-C-S
Protective class I
Arc flash safety IEC TR 61641: 2014 Edition 3.0

Overview

Single System Overview

UIB Unit input breaker
SSIB Static switch input breaker
UOB Unit output breaker
IMB Internal maintenance breaker
MBB Maintenance bypass breaker
BB Battery breaker

Single System - Single Mains (One Internal Switch)

graph TD
    Input --> UIB
    UIB --> OUT
    UIB --> OUTb["Waveform Display"]
    OUTb --> BB
    BB --> OUTb
    OUT --> UOB
    UOB --> Load
    UPS --> IMB
    IMB --> OUTb
    style UPS fill:#f9f,stroke:#333
    style IMB fill:#ccf,stroke:#333
    style UIB fill:#cfc,stroke:#333
    style OUT fill:#fcc,stroke:#333
    style BB fill:#cff,stroke:#333

Single System - Dual Mains (One Internal Switch)

graph TD
    A["Input"] --> B["SSIB"]
    B --> C["UPS"]
    C --> D["IMB"]
    D --> E["Wave Display"]
    E --> F["Wave Display"]
    F --> G["UOB"]
    G --> H["Load"]
    I["Bypass"] --> J["SSIB"]
    K["Input"] --> L["UIB"]
    M["BB"] --> N["Wave Display"]

Single System - Single Mains (Four Internal Switches)

graph TD
    Input --> MBB
    MBB --> SSIB
    SSIB --> UOB
    UOB --> Load
    MBB --> UOB
    UOB --> BB
    BB --> UOB
    style MBB fill:#f9f,stroke:#333
    style SSIB fill:#ccf,stroke:#333
    style UOB fill:#cfc,stroke:#333
    style BB fill:#fcc,stroke:#333

Single System - Dual Mains (Four Internal Switches)

graph TD
    A["Input"] --> B["UIB"]
    B --> C["~"]
    C --> D["~"]
    D --> E["UOB"]
    E --> F["Load"]
    G["Bypass"] --> H["SSIB"]
    H --> I["MBB"]
    I --> J["UPS"]
    K["BB"] --> L["+"]
    L --> M["Ground"]

Parallel System Overview

UIB Unit input breaker
SSIB Static switch input breaker
UOB Unit output breaker
SIB System isolation breaker
BIB Bypass input breaker
MIB Mains input breaker
BB Battery breaker
IMB Internal maintenance breaker
MBB Maintenance bypass breaker
Ext. MBB External maintenance bypass breaker

The UPS can support up to 4 UPSs in parallel for capacity and up to 3+1 UPSs in parallel for redundancy.

NOTE: In a parallel system, an external maintenance bypass breaker (Ext. MBB) must be provided and the internal maintenance breaker IMB and MBB (marked with an * in the diagrams) must be padlocked in the open position.

Parallel System - Single Mains (One Internal Switch)

graph TD
    A["Input"] --> B["Input"]
    B --> C["Ext. MBB"]
    C --> D["UPS"]
    D --> E["IMB*"]
    E --> F["Output"]
    D --> G["UOB"]
    G --> H["Load"]
    D --> I["BB"]
    I --> J["Output"]
    D --> K["SIB"]
    K --> L["Output"]
    D --> M["UOB"]
    M --> N["Output"]
    D --> O["BB"]
    O --> P["Output"]

Parallel System - Dual Mains (One Internal Switch)

graph TD
    A["Input"] --> B["Bypass"]
    B --> C["SSIB"]
    C --> D["UIB"]
    D --> E["BB"]
    E --> F["UOB"]
    F --> G["Load"]
    G --> H["SIB"]
    H --> I["Ext. MBB"]
    I --> J["IMS* UPS"]
    J --> K["Ub"]
    K --> L["SSIB"]
    L --> M["UIB"]
    M --> N["BB"]
    N --> O["UOB"]
    O --> P["Load"]
    P --> Q["SIB"]
    Q --> R["Ext. MBB"]
    R --> S["IMS* UPS"]
    S --> T["Ub"]
    T --> U["SSIB"]
    U --> V["UIB"]
    V --> W["BB"]
    W --> X["UOB"]

Parallel System - Single Mains (Four Internal Switches)

graph TD
    A["Input"] --> B["MIB"]
    B --> C["UPS"]
    C --> D["SSIB"]
    D --> E["UIB"]
    E --> F["UOB"]
    F --> G["SIB"]
    G --> H["Load"]
    C --> I["BB"]
    I --> J["UPS"]
    J --> K["SSIB"]
    K --> L["UIB"]
    L --> M["UOB"]
    M --> N["SIB"]
    N --> O["Load"]
    style A fill:#f9f,stroke:#333
    style C fill:#ccf,stroke:#333
    style J fill:#ccf,stroke:#333

Parallel System - Dual Mains (Four Internal Switches)

graph TD
    A["Input"] --> B["Bypass"]
    B --> C["MIB"]
    C --> D["SSIB"]
    D --> E["UB"]
    E --> F["UOB"]
    F --> G["SIB"]
    G --> H["Load"]
    I["Ext. MBB"] --> J["UPS"]
    K["BB"] --> L["SSIB"]
    L --> M["UB"]
    M --> N["UOB"]
    N --> O["SIB"]
    P["BB"] --> Q["UPS"]
    R["BB"] --> S["SSIB"]
    S --> T["UB"]
    T --> U["UOB"]
    U --> V["SIB"]

Installation Procedure

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

The UPS must be secured against movement. Perform one of the following actions/procedures once the UPS is in its final position:

• Reinstall the front transportation bracket on the UPS and mount it to the floor, OR
  • Install the seismic anchoring kit.

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

▲WARNING

TILTING HAZARD

The cabinet is top heavy - move with care and use ramps over uneven floors.

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

1. Perform one of the following procedures:

2. Without seismic anchoring: Position the UPS, page 39, or

3. With seismic anchoring: Install the Seismic Anchoring (Option), page 41.

4. Perform one of the following procedures:

5. Top cable entry: Prepare the UPS for Top Cable Entry, page 45, or

6. Bottom cable entry: Follow the installation manual provided with the bottom entry cabinet.

7. Only for TN-C earthing system: Prepare for TN-C Earthing System, page 49.

8. Only for UPS with one internal switch: Install the Neutral Disconnection Kit (Option), page 50.

9. Perform one of the following procedures:

10. Connect the Power Cables for the UPS with One Internal Switch, page 52, or

11. Connect the Power Cables for the UPS with Four Internal Switches, page 55.

12. Connect the Signal Cables, page 58.

13. Connect the Signal Cables from Switchgear and Third-Party Auxiliary Products, page 62.
14. Connect the Modbus Cables, page 65.
15. Only for parallel system: Connect the PBUS Cables, page 67.
16. Install the Power Module(s), page 68.
17. Final Installation, page 74.

Position the UPS

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

The UPS must be secured against movement. Once the UPS is in its final position, reinstall the front and rear transportation brackets on the UPS and mount them to the floor.

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

1. Push the UPS into the final position.
2. Lower the front and rear feet on the UPS with a wrench until they connect with the floor. The casters must not have contact with the floor. Use a bubble-leveler to check that the UPS is level.
3. Reinstall the front transportation bracket on the UPS and mount it to the floor. Use appropriate hardware for the floor type – the hole diameter in the bracket is 10 mm. The requirement is M8 strength grade 8.8 hardware.

Technical diagram of an electronic device showing internal components and a green base with directional arrows (no text or symbols)

1. Reinstall the rear transportation bracket on the UPS and mount it to the floor. Use appropriate hardware for the floor type – the hole diameter in the bracket is 10 mm. The requirement is M8 strength grade 8.8 hardware.

Rear View

Technical diagram showing a green mechanical component mounted on a vertical panel, with arrows indicating force or movement (no text or symbols present)

Install the Seismic Anchoring (Option)

NOTE: Use the optional seismic kit SP3OPT005 for this procedure.

1. Push the UPS into the final position.

2. Install the rear anchoring bracket on the UPS with the provided M8 x 20 bolts.

Option: Use the shimming sheet (870-91123) for alignment with a two meter tall rack.

Rear View (without Shimming Sheet)

5 x M8x20

Rear View (with Shimming Sheet)

5 x M8x20 870-91123 10 mm

1. Mount the rear anchoring bracket to the floor. Use appropriate hardware for the floor type – the hole diameter in the rear anchors is 14 mm. The requirement is M12 strength grade 8.8 hardware.

Front View (without Shimming Sheet)

Ø14 mm

Front View (with Shimming Sheet)

Ø14 mm 10 mm

1. Install the front anchoring bracket on the UPS and mount it to the floor. Use appropriate hardware for the floor type – the hole diameter in the rear anchors is 14 mm. The requirement is M12 strength grade 8.8 hardware.

Option: Use the shimming sheet (870-91123) for alignment with a two meter tall rack.

Front View (without Shimming Sheet)

5 x M8x20

Front View (with Shimming Sheet)

5 x M8x20 870-91123

Front View (without Shimming Sheet)

ø14 mm

Front View (with Shimming Sheet)

Ø14 mm 10 mm

Prepare the UPS for Top Cable Entry

△ ▲ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

Do not drill or punch holes with the gland plates installed and do not drill or punch holes in close proximity to the cabinet.

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

1. Prepare for power cables:

a. Remove the gland plate from the top of the UPS.

b. Drill/punch holes for power cables or glands/grommets in the gland plate. Install glands/grommets (not provided), if applicable.

c. Reinstall the gland plate.

Technical line drawing of a green square frame mounted on a metal frame (no text or symbols)

Technical diagram of a green square plate mounted on a metal frame, with mounting holes and alignment markers (no text or symbols)

1. Remove the front inner cover(s) from the UPS.

UPS with One Internal Switch

Technical diagram of an electronic device showing internal components and a green panel with a white arrow indicating direction (no text or symbols present)

UPS with Four Internal Switches

Technical diagram of a server rack unit with green panel and four internal compartments, showing mounting holes and ventilation slots (no text or labels)

1. Remove the rear panel from the UPS.

Rear View

Illustration of a multi-tiered industrial cabinet with green panels and mounting feet (no text or symbols)

1. Remove the signal cable covers from the top of the UPS.

Technical line drawing of a metal frame assembly with two green components and mounting holes (no text or symbols)

1. Perform one of the following:

- Install the provided cable brush plugs from the hardware kit, OR

Technical line drawing of a metal frame assembly with mounting holes and green circular components (no text or symbols)

- Drill holes in the signal cable covers. Install glands/grommets (not provided) if applicable. Reinstall the signal cable covers.

Technical line drawing of a metal frame assembly with two green electronic components and mounting holes (no text or symbols)

1. Remove the cover from the signal connection terminals.

Technical diagram of an internal server rack with a green panel and black mesh structure (no text or symbols)

1. Route the signal cables as shown to separate the Class 2/SELV cables from the non-Class 2/non-SELV cables.

NOTE: For more information about the locations of Class 2/SELV and non-Class 2/non-SELV cables, see Connect the Signal Cables, page 58.

SELV Non-SELV

Prepare for TN-C Earthing System

1. Unpack the optional grounding kit and install the copper busbar (880-74018 or 880-74127) in the UPS.

UPS with One Internal Switch

880-74018

UPS with Four Internal Switches

880-74127

Install the Neutral Disconnection Kit (Option)

NOTE: Use the optional neutral disconnection kit SP3OPT004 for this procedure. The neutral disconnection kit is only applicable for a UPS with one internal switch.

1. Remove the plastic cover from the neutral disconnection assembly.

Diagram showing a mechanical device connected to a green rectangular component with an arrow indicating direction (no text or symbols present)

1. Install the neutral disconnection assembly to the rear posts in the UPS with the four provided screws.

Rear View of the UPS

Technical diagram of a mechanical assembly with green components and mounting holes (no text or symbols)

1. Connect the bottom busbar of the neutral disconnection assembly to the neutral busbar in the UPS with the two provided screws.

Front View of the UPS

Technical line drawing of a mechanical assembly with mounting brackets and a green highlighted component (no text or symbols)

1. Connect the external neutral cables to the upper busbar of the neutral disconnection assembly.

Rear View of the UPS

Technical line drawing of an electrical enclosure with visible wiring and components (no text or symbols)

1. Reinstall the plastic cover on the neutral disconnection assembly.

Rear View of the UPS

Technical line drawing of an electrical enclosure with wiring and components, no visible text or symbols

Connect the Power Cables for the UPS with One Internal Switch

1. Only for dual mains: Remove the single mains jumper busbars.

NOTE: Save the single mains jumper busbars. They are needed for testing during start-up of the UPS.

Front View of the UPS

Technical line drawing of an electrical enclosure with green components and mounting hardware (no text or symbols)

1. Connect the power cables in the described order.

a. Connect the PE cables.
b. Connect the input cables (L1, L2, L3, (N)).
c. Only for dual mains: Connect the bypass cables (L1, L2, L3, N).
d. Connect the output cables (L1, L2, L3, N).
e. Connect the DC cables (DC+, DC-).

Single Mains

DC + DC - N Output L3 L2 L1 Input L3 L1 L2

Dual Mains

Input L1 L3 L2 Bypass DC+ DC- N Output L3 L1 L2 L2 L3

1. Reinstall the rear panel on the UPS.

Rear View

3D diagram of a multi-tiered vertical cabinet with green panels and mounting feet (no text or symbols)

Connect the Power Cables for the UPS with Four Internal Switches

1. Only when the local codes/regulations require removal of the neutral jumper: Remove the neutral jumper (880-74129). The neutral jumper makes a bolted connection of the neutral so that the neutral is not disconnected when the 4-pole switches are opened.

Rear View of the UPS

Technical line drawing of an electrical enclosure with internal components and a green component (no text or symbols)

1. Only for dual mains: Remove the single mains jumper busbars.

NOTE: Save the single mains jumper busbars. They are needed for testing during start-up of the UPS.

Rear View of the UPS

Technical diagram of an electrical cabinet internal structure with green safety bands and bolted components (no text or labels)

1. Connect the power cables in the described order.

a. Connect the PE cables.
b. Connect the input cables (L1, L2, L3, (N)).
c. Only for dual mains: Connect the bypass cables (L1, L2, L3, N).
d. Connect the output cables (L1, L2, L3, N).
e. Connect the DC cables (DC+, DC-).

Single Mains

Input L2 L3 L1 N Output L2 L1 N L3 DC+ DC -

Dual Mains

Input Bypass L2 L3 L1 L3 L1 Output L3 L2 N L2 L1 N L3 DC + DC -

1. Reinstall the rear panel on the UPS.

3D diagram of a vertical green cabinet with mounting flanges, labeled 'Rear View' (no text or symbols on the cabinet itself)

Connect the Signal Cables

Overview of Signal Connection Terminals in the UPS

K L O Q S B D F H M N P R A C G E I J

A. Remote EPO (J6600)
B. Display port (for internal use)
C. USB port (for service)
D. Tuner port (for service)
E. Modbus port
F. Battery temperature sensor (J3008)
G. Input contacts (J3009)
H. Output relays (J3001)
I. PBUS2
J. PBUS1
K. Network management card (NMC) slot 1
L. Network management card (NMC) slot 2
M. Backfeed relay and sync output relay (J8310)
N. Auxiliary contacts 1 (J8302)
O. Auxiliary contacts 2 (J8303)
P. Battery breaker auxiliary contacts (J8304)
Q. IMB and RIMB auxiliary contacts (J8305)
R. Sync input (J8300)
S. Battery breaker trip (J8301)

NOTE: Route the signal cables separately from the power cables and route the Class 2/SELV cables (A to L) separately from the non-Class 2/non-SELV cables (M to S). Non-Class 2/non-SELV cables should be rated for 600 V.

NOTE: The recommended size for the signal cables is 0.5 mm

NOTE: Do not unplug the signal terminals by hand. Be sure to use the tool (TME12560) in the accessory bag to unplug the signal terminals. Be sure to restore the two rows of terminals to their original position: the grey terminals in the upper row and the green terminals in the lower row.

1. Use the provided terminal unplug tool (TME12560) to remove the covers for the signal connection terminals. Save the tool for future use.

1. Connect the Class 2/SELV signal cables from the building EPO to the remote EPO (J6600) in the UPS according to one of the options below.

The EPO circuit is considered Class 2/SELV. Class 2/SELV circuits must be isolated from the primary circuitry. Do not connect any circuit to the EPO terminal block unless it can be confirmed that the circuit is Class 2/SELV.

EPO Configurations (Terminal J6600, 1-9)

NC with 24 VDC external supply NO with 24 VDC external supply 1 2 3 4 5 6 7 8 9 + - 24V NC/NO NC NO 1 2 3 4 5 6 7 8 9 7 8 9 NO

The EPO input supports 24 VDC.

NOTE: The default setting for the EPO activation is to turn off the inverter.

If you want the EPO activation to transfer the UPS into forced static bypass operation instead, please contact Schneider Electric.

1. Connect the Class 2/SELV signal cables to the input contacts and output relays in the UPS.

Do not connect any circuit to the input contacts unless it can be confirmed that the circuit is Class 2/SELV.

The input contacts support 24 VDC 10 mA. All circuits connected must have the same 0 V reference.

Electrical circuit diagram with battery, resistor, and two labeled components (Ø1, Ø2) connected to a current source

Name Description Location
IN_1 (input contact 1) Configurable input contact Terminal J3009, 1-2
IN_2 (input contact 2) Terminal J3009, 3-4
IN_3 (input contact 3) Terminal J3009, 5-6
IN _4 (input contact 4) Terminal J3009, 7-8

The output relays support 24 VAC/VDC 1 A. All external circuitry must be fused with maximum 1 A fast acting fuses.

Ø1 Ø9 Ø2

Name Description Location
OUT _1 (output relay 1) Configurable output relay Terminal J3001, 10, 3, 11	J3001, 1, 9, 2
OUT _2 (output relay 2) Terminal J3001, 10, 3, 11
OUT _3 (output relay 3) Terminal J3001, 4, 12, 5
OUT _4 (output relay 4) Terminal J3001, 13, 6, 14
OUT _5 (output relay 5) Terminal J3001, 7, 15, 8

1. Connect the signal cables from the auxiliary products to the UPS. Follow the instructions in the auxiliary product manuals.

Connect the Signal Cables from Switchgear and Third-Party Auxiliary Products

NOTE: Route the signal cables separately from the power cables and route the Class 2/SELV cables separately from the non-Class 2/non-SELV cables.

1. Install the optional battery temperature sensor in the battery solution. In battery cabinets, install the battery temperature sensor in the top corner of the battery cabinet.

▲WARNING

HAZARD OF FIREPosition the battery temperature sensor as described to ensure correct temperature measurements.Failure to follow these instructions can result in death, serious in or equipment damage.

1. Route the battery temperature sensor cables from the battery solution to the UPS and connect as shown.

NOTE: Battery temperature sensors (SP3OPT006) are available as an optional kit.

NOTE: The battery temperature sensor cables are considered Class 2/SELV. Class 2/SELV circuits must be isolated from the primary circuitry.

graph TD
    A["Battery bank\nBattery temperature sensor 1"] --> B["J3008"]
    C["Battery bank\nBattery temperature sensor 2"] --> B
    D["Battery bank\nBattery temperature sensor 3"] --> E["UPS\nJ3008"]
    F["Battery bank\nBattery temperature sensor 4"] --> E
    B --> G["1 BATT_TEMP1\n2 BATT_TEMP1_RTN\n3 BATT_TEMP2\n4 BATT_TEMP2_RTN"]
    E --> H["5 BATT_TEMP3\n6 BATT_TEMP3_RTN\n7 BATT_TEMP4\n8 BATT_TEMP4_RTN"]

1. Connect the signal cables from the battery breaker(s) in your battery solution for shunt trip or undervoltage (UV) trip connection to the UPS. Follow the illustration for connection with internal 24 VDC supply. The UPS can connect to and monitor up to three (if J8301-10 is used for backfeed) or four battery breakers.

a. Connect battery breaker 1 to terminal J8301 in the UPS.
b. Connect battery breaker 2 to terminal J8301 in the UPS.
c. Connect battery breaker 3 to terminal J8301 in the UPS.
d. Connect battery breaker 4 to terminal J8301 in the UPS.
e. For battery breaker trip 4, connect trip unit negative to pin 1/4/7 of terminal J8301.

NOTE: The following diagram and table demonstrate the battery breaker trip connection with internal 24 VDC supply and pin connections.

Battery Breaker Trip Connection with Internal 24 VDC Supply

1 GND
2 BB UV TRIP 1
3 BB_SHUNT_TRIP_1

+ Shunt trip -

1 GND
2 BB_UV_TRIP_1
3 BB_SHUNT_TRIP_1

J8301 Pin Connections for Battery Breaker(s)

Battery Breaker 1

Pin number	Function
1 GND
2 GNDBB_UV_TRIP_1
3 BB_SHUNT_TRIP_1

Battery Breaker 2

Pin number	Function
4 GND
5 BB_UV_TRIP_2
6 BB_SHUNT_TRIP_2

Battery Breaker 3

Pin number	Function
7	GND
8 BB_UV_TRIP_3
9 BB_SHUNT_TRIP_3

Battery Breaker 4

Pin number	Function
10 24 V
11 BB_UV_TRIP_4
12 BB_SHUNT_TRIP_4

1. Connect signal cables from the auxiliary contacts in your switchgear to the UPS.

24 VDC/10 mA non-SELV Ø1 Ø2

Terminal number	Function Connection
J8302, 1-2 UIB	(unit input breaker) Connect to normally open (NO)	auxiliary contacts in unit input breaker UIB. UIB must contain an auxiliary contact for each connected UPS.
J8302, 3-4 SSIB	(static switch input breaker) Connect to normally open	(NO) auxiliary contacts in static switch input breaker SSIB. SSIB must contain an auxiliary contact for each connected UPS.
J8302, 5-6 Ext.	MBB (external maintenance bypass breaker) Connect	to normally closed (NC) auxiliary contacts in external maintenance bypass breaker (Ext. MBB). Ext. MBB must contain an auxiliary contact for each connected UPS.
J8302, 7-8 UOB	(unit output breaker) Connect to normally open (NO)	auxiliary contacts in unit output breaker UOB.
J8303, 1-2	UOB (redundant AUX switch in unit output breaker)	Connect to redundant auxiliary contacts in unit output breaker UOB.
J8303, 3-4 SIB	(system isolation breaker) Connect to normally open	(NO) auxiliary contacts in system isolation breaker SIB for parallel system. SIB must contain an auxiliary contact for each connected UPS.
J8304, 1-2	BB1 (battery breaker 1)	Connect to normally open (NO) auxiliary contacts in battery breaker number 1.
J8304, 3-4	BB2 (battery breaker 2)	Connect to normally open (NO) auxiliary contacts in battery breaker number 2.
J8304, 5-6	BB3 (battery breaker 3)	Connect to normally open (NO) auxiliary contacts in battery breaker number 3.
J8304, 7-8	BB4 (battery breaker 4)	Connect to normally open (NO) auxiliary contacts in battery breaker number 4.
J8505, 1-2 One internal switch UPS:IMB (internal maintenance breaker)Four internal switches UPS:MBB (maintenance bypass breaker)		Connect to normally closed (NC) auxiliary contacts in internal maintenance breaker IMB or maintenance bypass breaker MBB.
J8505, 3-4 One internal switch UPS:RIMB (remote internal maintenance breaker)Four internal switches UPS:RMBB (remote maintenance bypass breaker)		Connect to normally closed (NC) auxiliary contacts in another UPS's IMB or MBB in the 1+1 parallel system.
J8310, 1	Backfeed relay common	See Backfeed Protection, page 70.
J8310, 2	Backfeed relay normally closed (NC)	See Backfeed Protection, page 70.
J8310, 3	Backfeed relay normally open (NO)	See Backfeed Protection, page 70.

Connect the Modbus Cables

NOTE: For cyber security protection, strict access control to the installation room must be exerted at all times.

1. Connect the Modbus cables to the terminal J3000 of the UPS(s). Use either 2-wire or 4-wire connection.

2. Shielded twisted pair cables must be used for Modbus connections. The shield connection to the ground must be as short as possible (ideally below 1 cm). The cable shield must be connected to the Ch GND pin on each device.

3. Wiring should be done in accordance with local wiring codes.
4. Route signal cables separately from power cables to ensure sufficient isolation.
5. The Modbus port is galvanically isolated with the Ch GND pin as ground reference.

Example: 2-Wire Connection with Two UPSs

graph TD
    subgraph_Modbus_controller["Modbus controller"]
        D0["D0"] --> Modbus_controller
        D1["D1"] --> Modbus_controller
        Com["Com"] --> Modbus_controller
    end

    subgraph_UPS_1["TxD 0- 1+ Ch GND"]
        -1["-1"] --> RxD["0-RxD"]
        -2["-2"] --> RxD
        -3["3"] --> RxD
        -4["4"] --> RxD
        -5["5"] --> RxD
        -6["6"] --> RxD
    end

    subgraph_UPS_2["TxD 0- 1+ Ch GND"]
        -1["1"] --> RxD
        -2["2"] --> RxD
        -3["3"] --> RxD
        -4["4"] --> RxD
        -5["5"] --> RxD
        -6["6"] --> RxD
    end

    style Modbus_controller fill:#f9f,stroke:#333
    style UPS_1 fill:#ccf,stroke:#333
    style UPS_2 fill:#ccf,stroke:#333
    style RxD fill:#cfc,stroke:#333
    style RxD fill:#fcc,stroke:#333
    style TxD fill:#ffc,stroke:#333

Example: 4-Wire Connection with Two UPSs

graph TD
    subgraph_Modbus_controller["Modbus controller"]
        RX0["RX₀"] --> UPS1["TxD 0- 1+Ch GND"]
        RX1["RX₁"] --> UPS1
        TX0["TX₀"] --> UPS1
        TX1["TX₁"] --> UPS1
        Com["Com"] --> UPS1
    end

    UPS1 --> UPS2["TxD 0- 1+Ch GND"]
    UPS2 --> UPS1a["0- 1+Ch GND"]
    UPS2 --> UPS2b["0- 1+Ch GND"]
    UPS1a --> UPS1c["4 5 6"]
    UPS2a --> UPS2b["4 5 6"]
    UPS1c --> UPS1d["0-RxD Com"]
    UPS2b --> UPS2c["0-RxD Com"]
    UPS1d --> UPS1e["Shielded twisted pair cable"]
    UPS2e --> UPS2f["Shielded twisted pair cable"]

1. Install 150 Ohm termination resistors at each end of each bus if the buses are very long and operate at high data rates. Busses under 610 meters at 9600 baud or under 305 meters at 19.200 baud should not require termination resistors.

Connect the PBUS Cables

NOTE: Do not connect the PBUS cables to the network. The connection is not intended for network connection and may cause inoperability of the network.

1. Connect the provided PBUS 1 (white) and PBUS 2 (red) cables to the PBUS ports on the UPSs.

PBUS1 PBUS2 PBUS2 PBUS1

1. Mount termination plugs (T) in the unused connectors.

Example of System with Three UPSs in Parallel

graph LR
    subgraph UPS 1
        A["① T"] --> B["■ B"]
    end
    subgraph UPS 2
        C["② PBUS 1"] --> D["③ A B"]
    end
    subgraph UPS 3
        E["④ PBUS 1"] --> F["⑤ A ■"]
    end
    G["⑤ T"] --> H["⑥ PBUS 2"]
    H --> I["⑦ A B"]
    I --> J["⑧ PBUS 2"]
    J --> K["⑨ A ■"]
    style UPS 1 fill:#f9f,stroke:#333
    style UPS 2 fill:#ccf,stroke:#333
    style UPS 3 fill:#cfc,stroke:#333

Install the Power Module(s)

NOTE: One 50 kW power module is preinstalled in the UPS. Additional power modules are shipped separately for UPS ratings over 50 kW and must be installed to reach the correct UPS kW rating.

NOTE: Install power modules starting with the bottom positions and upward.

▲WARNING

RISK OF EQUIPMENT DAMAGE

• Store the power modules at an ambient temperature of -25 °C to 55 °C, 0-95% non-condensing humidity.
• Store the power modules in their original protective packaging.

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

▲CAUTION

HEAVY LOAD

Power modules are heavy (28 kg) and require two persons to lift.

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

1. Remove the filler plate from the empty power module slot. Save the filler plate for future use.

Technical diagram of a structural frame with green panel and directional arrows indicating movement (no text or symbols)

1. Set the unlock tab on the power module to the OFF position. Push the power module into the slot. The enable mechanism will latch when the power module is correctly inserted.

Technical diagram of a mechanical assembly with green panel and mounting holes (no text or symbols)

1. Reinstall the screws in the sides of the power module.

Technical line drawing of a mechanical assembly with mounting holes and internal components (no text or symbols)

1. Set the unlock tab on the power module to the ON position.

Technical diagram of a mechanical assembly with green connectors and a magnified inset showing internal components (no text or symbols)

△ ▲ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

All power module slots must have either a power module or a filler plate installed.

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

Backfeed Protection

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

Mandatory backfeed protection on bypass must be implemented by installation of upstream breaker with shunt trip or under voltage trip connected to the UPS. See diagrams and instructions below.

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

Installation of Third Party Backfeed Protection

Connect the breaker shunt trip/ under voltage trip and auxiliary contacts to the UPS as shown below. Use double insulated cables. Breaker shunt trip or under voltage trip must be rated for 24 VDC nominal, inrush max 20 W.

885-92858 (provided with the UPS) must be placed visible at the bypass upstream breaker.

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

In systems where backfeed protection is not a part of the standard design, an automatic isolation device (Schneider Electric backfeed protection option or other device, such as a breaker, switch, or contactor with trip function, meeting the requirements of IEC62040-1 or UL1778 5th edition – depending on which standard applies to your local area), is required to be installed to prevent hazardous voltage or energy at the input terminals of the isolation device. The device must be rated and controlled according to the specifications in this manual.

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

When the UPS input is connected through external isolators that, when opened, isolate the neutral or when the automatic backfeed isolation is provided external to the equipment or is connected to an IT power distribution system, a label must be fitted at the UPS input terminals, and on all primary power isolators installed remotely from the UPS area and on external access points between such isolators and the UPS, by the user, displaying the following text (or equivalent in a language which is acceptable in the country in which the UPS system is installed):

⚠️ DANGER

HAZARD OF ELECTRIC SHOCK, EXPLOSION, OR ARC FLASH

Risk of voltage backfeed. Before working on this circuit: Isolate the UPS and check for hazardous voltage between all terminals including the protective earth.

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

UPS and Third Party Backfeed Protection (UVR trip) – Single Mains

graph TD
    A["Power Source"] --> B["24 VDC"]
    B --> C["UIB"]
    C --> D["Input"]
    D --> E["PE"]
    F["UPS Input has internal backfeed protection"] --> G["0P02386"]
    G --> H["J8310-1"]
    G --> I["J8310-2"]
    H --> J["Output"]
    I --> J
    K["Input"] --> L["L1"]
    K --> M["L2"]
    K --> N["L3"]
    K --> O["N"]
    P["Input"] --> Q["L1"]
    P --> R["L2"]
    P --> S["L3"]
    P --> T["N"]
    U["Input"] --> V["PE"]
    W["UPS Input has internal backfeed protection"] --> X["0P02386"]
    X --> Y["J8310-1"]
    X --> Z["J8310-2"]

NOTE: An external 24 V power supply is required for backfeed protection with UVR trip.

UPS and Third Party Backfeed Protection (Shunt trip) - Single Mains

graph TD
    A["Power Source"] --> B["Input"]
    B --> C["UIB"]
    C --> D["L1"]
    C --> E["L2"]
    C --> F["L3"]
    C --> G["N"]
    B --> H["PE"]
    I["UPS"] --> J["0P02386"]
    J --> K["J8301-10"]
    J --> L["J8310-1"]
    J --> M["J8310-3"]
    I --> N["J8301-1"]
    O["Input has internal backfeed protection"] --> P["Bypass backfeed protection"]
    P --> Q["Input"]
    Q --> R["L1"]
    Q --> S["L2"]
    Q --> T["L3"]
    Q --> U["N"]
    Q --> V["PE"]

UPS and Third Party Backfeed Protection (UVR trip) – Dual Mains

graph TD
    A["Power Source"] --> B["Input"]
    B --> C["UIB"]
    C --> D["L1"]
    C --> E["L2"]
    C --> F["L3"]
    C --> G["N"]
    B --> H["PE"]
    I["UPS"] --> J["Input has internal backfeed protection"]
    J --> K["0P02386"]
    K --> L["J8310-1"]
    K --> M["J8310-2"]
    N["24 VDC"] --> O["SSIB"]
    O --> P["A1"]
    O --> Q["A2"]
    R["Bypass"] --> S["L1"]
    R --> T["L2"]
    R --> U["L3"]
    R --> V["N"]
    W["UPS"] --> X["Input has internal backfeed protection"]
    X --> Y["J8310-1"]
    X --> Z["J8310-2"]
    AA["Bypass backfeed protection"] --> AB["Bypass backfeed protection"]
    AC["Bypass"] --> AD["Bypass backfeed protection"]

NOTE: An external 24 V power supply is required for backfeed protection with UVR trip.

UPS and Third Party Backfeed Protection (Shunt trip) – Dual Mains

graph TD
    subgraph Power Source
        A["Input"] --> B["UIB"]
        B --> C["L1"]
        B --> D["L2"]
        B --> E["L3"]
        B --> F["N"]
        G["Input"] --> H["PE"]
        I["UPS"] --> J["0P02386"]
        K["SSIB"] --> L["A1"]
        K --> M["A2"]
        N["Bypass"] --> O["L1"]
        N --> P["L2"]
        N --> Q["L3"]
        N --> R["N"]
    end
    style Power Source fill:#f9f,stroke:#333
    style UPS fill:#ccf,stroke:#333
    style SSIB fill:#cfc,stroke:#333
    style B fill:#fff,stroke:#333
    style H fill:#fff,stroke:#333
    style O fill:#fff,stroke:#333
    style P fill:#fff,stroke:#333
    style Q fill:#fff,stroke:#333
    style R fill:#fff,stroke:#333

Final Installation

1. Reinstall the cover over the signal connection terminals.

Front View of the UPS

Diagram of an internal server rack with a green indicator light and black connectors, no text or symbols present.

1. Reinstall the front inner cover(s) on the UPS.

UPS with One Internal Switch

Technical diagram of a device enclosure with green panel, black panel, and internal components (no text or symbols)

UPS with Four Internal Switches

Technical diagram of an electronic device with labeled components and directional arrows indicating motion or movement.

1. Fill out the model-specific power rating information on the UPS name plate.

Model installed: V kW/kVA Name of installer: Note: Refer to the type specifications label or the installation manual for nominal currents for all kW/kVA sizes.

1. Remove the labels 885-92827(x 2) and 885-92828 (x 1) from the top dust covers.

Diagram of a server rack with green and black components, no text or symbols present

Schneider Electric

As standards, specifications, and design change from time to time, please ask for confirmation of the information given in this publication.