S3M120KXD - Inverter Tripp Lite - Free user manual and instructions

Product Type	Three-phase double conversion online UPS (VFI)
Model	S3M120KXD (dual AC input)
Nominal Capacity	120 kVA / 108 kW
Nominal Input Voltage	220/230/240 V Ph-N, 380/400/415 V Ph-Ph, three-phase + neutral
Nominal Output Voltage	220/230/240 V Ph-N adjustable
Frequency	50/60 Hz auto selection, regulation ±0.1 Hz
Output Power Factor	0.9
Line Mode Efficiency	94% at 100% load
ECO Mode Efficiency	98% at 100% load
Dimensions (H x W x D)	1015 x 567 x 945 mm
Weight (without batteries)	232 kg
Batteries	External, VRLA 12 V, 40 cells, voltage ±240 V DC
Operating Modes	Line, Battery, Bypass, ECO, Converter, Standby
Parallelism	Up to 2 units in parallel for capacity or redundancy
Built-in Protection	Overload, short circuit, overheat, emergency shutdown REPO
Display and Control	10-inch LCD touch screen, LED indicators
Communication Interfaces	RS-232, USB, SNMP slot (optional), dry contacts
Operating Temperature	0 to 40 °C
Operating Humidity	0 to 95% non-condensing
Acoustic Noise	< 70 dBA at 1 m
Safety Standards	IEC 62040-1, EN 62040-2 (C3), CE, RoHS
Warranty	2 years (without authorized startup)

Frequently Asked Questions - S3M120KXD Tripp Lite

How to start the S3M120KXD UPS in battery mode if mains power is absent?

Use the battery start button located on the front of each power module. Ensure that the Cold Start function is enabled in the system configuration menu (factory setting: enabled). Hold the button for a few seconds to start the UPS on battery.

What does ECO mode mean and how to activate it?

ECO mode allows the UPS to operate in bypass when mains voltage is stable, improving efficiency up to 98%. In case of disturbance, it instantly switches to the inverter. Activate it in menu SETUP > SYSTEM > ECO Mode (password required).

What types of external batteries are compatible with the S3M120KXD?

The UPS requires external sealed lead-acid batteries (VRLA AGM/GEL) of 12 V, 40 cells total (20+20). Recommended Tripp Lite cabinets are models BP480V100, BP480V65 or BP480V40 (with or without batteries). The nominal DC voltage is ±240 V.

How to configure parallel setup of two S3M120KXD UPS units?

1. Wire the inputs and outputs with identical cable lengths. 2. Configure the parallel card (SW2 ON for master, OFF for slave). 3. In the LCD menu, enable UPS Parallel and select Independent Battery or Common Battery. 4. Connect the provided parallel cable between the two UPS units (16-pin and 2-pin connectors). 5. Power on both units and check for errors.

What is the maintenance bypass procedure to work on the UPS without disconnecting the load?

1. Switch the UPS to Bypass mode from the CONTROL menu (or via external switch). 2. Verify that the load is powered by the bypass (BYPASS LED on). 3. Open maintenance circuit breaker Q4. 4. Turn off input circuit breakers (Q1, Q2) and battery. 5. After maintenance, reverse the procedure ensuring the UPS is synchronized before transferring the load back.

How to manually test batteries from the control panel?

Access the CONTROL menu and select Manual Battery Test. The UPS switches to battery for 10 seconds (default) and checks voltage and capacity. The result is displayed on the MEASUREMENT > Battery screen (Test Result). You can cancel the test with Cancel Battery Test.

What to do in case of 'Warning! Over Load' alarm on the LCD screen?

The alarm indicates that the connected load temporarily exceeds the UPS capacity. Immediately reduce the load by disconnecting non-critical equipment. If the overload persists, the UPS will switch to bypass to avoid failure. Ensure total power does not exceed 120 kVA / 108 kW.

What are the essential safety precautions during installation?

Installation must be carried out by a qualified electrician. Respect ventilation clearances (50 cm front/back). Use appropriate cable cross-section (95 mm² for phases, neutral, and ground). Ensure grounding complies with local standards. Never connect loads requiring an absent neutral reference (delta load). Disconnect all sources before wiring.

How to reset the lost user password from the configuration menu?

The default password is 0000. If it has been changed and lost, contact Tripp Lite technical support. A hardware reset is not described in the manual; after-sales service can provide a reset procedure via the RS-232 port.

What is the recommended frequency for recharging batteries if the UPS remains inactive for a long time?

Every 3 months, power on the UPS and let the batteries recharge for at least 24 hours. This prevents irreversible damage to VRLA batteries. Store the unit in a dry place below 40°C.

USER MANUAL S3M120KXD Tripp Lite

Models: S3M100KX, S3M100KXD, S3M120KX, S3M120KXD, S3M160KX, S3M160KXD, S3M200KX, S3M200KXD

Input: 220/230/240V (Ph-N), 380/400/415V (Ph-Ph), 3∅ 4-Wire + PE

Two black rectangular electronic equipment units with perforated bases and control panel displays, no visible text or symbols on the surfaces.

TRIPP·LITE

Table of Contents

1. Introduction 3

2. Important Safety Warnings 4

2.1 UPS Location Warnings 4
2.2 Equipment Connection Warnings 4
2.3 Battery Warnings 4
2.4 Transportation and Storage 5
2.5 Preparation 5
2.6 Installation 5
2.7 Connection Warnings 5
2.8 Operation 6
2.9 Standards 6

3. Installation and Setup 7

3.1. Unpacking and Inspection 7
3.2. Open Front Panel View 9

3.2.1 Interface and Communication 10

3.2.2 Power Stage/Module 10

3.3 Rear Panel View 11
3.4 Wiring Terminal Views 12
3.5 Single UPS Installation 13
3.6 UPS Installation for Parallel Systems 15

3.6.1 Input and Output Wiring 15
3.6.2 Parallel Board Setting 17
3.6.3 Parallel Function Setting 19
3.6.4 Parallel Cable Connection 19
3.6.5 Parallel System Turn On Procedure 20

3.7 Dual AC Input Installation 20

4. Control Panel and LCD Operation

4.1 Control Panel Description 21
4.2 LCD Screen Description 22

4.2.1 Initial Screen 22
4.2.2 Main Screen 22
4.2.3 Control Screen 23
4.2.4 Measurement Screen 24
4.2.5 Setup Screen 26
4.2.6 Information Screen 37
4.2.7 Event Screen 38

4.3 Alarm List 40
4.4 History Record 41

5. Interface and Communication 42

5.1 X1 – Temperature Detection Port for External Battery Pack 42
5.2 X2 - Remote EPO Input Port 43
5.3 Other Communication Interfaces 43

6. Operation Principles 44

6.1 UPS Block Diagram 44
6.2 Operation Modes 45

6.2.1 Standby Mode 45
6.2.2 Line Mode 46
6.2.3 Battery Mode 47
6.2.4 Frequency Conversion Mode 48
6.2.5 Bypass Mode 49
6.2.6 ECO Mode 50
6.2.7 Shutdown Mode 51
6.2.8 Maintenance Bypass Mode 52

7. UPS Operation 53

7.1 AC Startup 53
7.2 Cold Start Startup 55

7.3 Maintenance Bypass Operation 57

7.3.1 Transfer Critical Load from Line Mode to Maintenance Bypass 57
7.3.2 Transfer Critical Load from Maintenance Bypass to Line Mode 59

7.4 Turn Off Operation 61

7.4.1 Turn Off Operation in Line Mode 61
7.4.2 Turn Off Operation in Battery Mode 62

8. Troubleshooting 64

9. Storage and Service 66

9.1 Storage 66
9.2 Service 66
9.3 Batteries 66
9.4 Fans 66

10. Specifications 67

Warranty 70

Español 71

Français 142

Русский 212

Deutsch 283

1. Introduction

Tripp Lite's SmartOnline S3MX-Series Uninterruptible Power Supply (UPS) is a Voltage and Frequency Independent (VFI) true on-line, double-conversion 3-phase UPS system. This UPS continuously conditions the incoming electrical power supply, eliminating power disturbances that will otherwise damage sensitive electronic devices and minimising system downtime from power fluctuations and interruptions.

S3MX-Series UPS systems are designed to the highest quality and performance standards and offer the following features:

Model Agency Number Capacity
S3M100KX, S3M100KXD* AG-6100 100kVA
S3M120KX, S3M120KXD* AG-6120 120kVA
S3M160KX, S3M160KXD* AG-6160 160kVA
S3M200KX, S3M200KXD* AG-6200 200kVA

* "KXD" models are dual-AC input capable.
- True on-line UPS – the highest level of UPS protection, fully regulates the incoming power with zero transfer time to battery in the event of an extended mains failure, so critical loads remain continuously supported
- Paralleling for redundancy and capacity for up to two UPS systems
- High-efficiency performance in AC On-line and Battery Standby Modes to minimise energy consumption
• Market-leading small size and footprint
- ECO Mode allows the UPS to operate on bypass in stable utility conditions and immediately transfers to inverter to support the load when the utility input drops below tolerance
- High output power factor – more actual power allows more equipment to be supported
• Automatic and manual bypass increase system reliability and allow for maintenance without removing power from the attached load
- Wide input voltage window – the UPS system regulates even poor-quality incoming power without reverting to battery, maximising system uptime and protecting battery life
- Matching external battery cabinets allow for increased battery autonomy
• Emergency shutdown via REPO
- SNMP Network Monitoring and volt-free contact options provide optimum configurability
- Optional dual-AC input "KXD" models available

SmartOnline S3MX-Series UPS systems are ideally suited for protecting 4-wire loads in the following mission-critical electrical applications:

• IT infrastructure and data centres
• Telecommunications
• Networks (LAN/WAN)
• Corporate infrastructure
• Security and emergency systems
• Financial institutions
• Healthcare and hospitals

2. Important Safety Warnings

SAVE THESE INSTRUCTIONS

This manual contains important instructions and warnings that should be followed during the installation and maintenance of all Tripp Lite SmartOnline S3MX 3-Phase 100kVA, 120kVA, 160kVA and 200kVA UPS Systems and their batteries. Failure to heed these warnings may affect your warranty.

2.1 UPS Location Warnings

• Install the UPS indoors, away from heat, direct sunlight, dust, and excess moisture or other conductive contaminants.
• Install the UPS in a structurally sound area. The UPS is extremely heavy; take care when moving and lifting the unit.
- Only operate the UPS at indoor temperatures between 0^ and 40^ .
- Optimum UPS performance and maximum battery life is obtained when the operating temperature is maintained between 17^ and 25^ .
- Ensure the installation area has sufficient space for maintenance and ventilation of the UPS system. Maintain a minimum clearance of 50~cm from the front and rear of the UPS for maintenance and ventilation.
- Do not install the UPS near magnetic storage media, as this may result in data corruption.

2.2 Equipment Connection Warnings

• Use of this equipment in life support applications where failure of this equipment can reasonably be expected to cause the failure of the life support equipment or to significantly affect its safety or effectiveness is not recommended.
• The UPS system contains its own energy source (battery). The output terminals may be live, even when the UPS is not connected to an AC supply.
• The UPS models covered in this manual are not compatible with loads that do not have a Neutral Reference or Delta load.

2.3 Battery Warnings

This UPS contains LETHAL VOLTAGES. The UPS is designed to supply power, even when disconnected from utility power. Only AUTHORISED SERVICE PERSONNEL should access the interior of the UPS after disconnecting utility and DC power.

⚠ Batteries present a risk of electrical shock and burns from high short-circuit current. Battery connection or replacement should be performed by only qualified service personnel observing proper precautions. Turn off the UPS before connecting or disconnecting internal batteries. Use tools with insulated handles. Do not open the batteries. Do not short or bridge the battery terminals with any object.

• The batteries are recyclable. Refer to local codes for disposal requirements or visit tripplite.com/support/recycling-program for recycling information.
• Do not dispose of the batteries in a fire, mutilate the batteries or open the battery coverings. Escaping electrolytes may be toxic and cause injury to skin and eyes.
• Do not disconnect the batteries while the UPS is in Battery Mode.
• Disconnect the charging source prior to connecting or disconnecting terminals.
• The following precautions should be observed:

1) Remove watches, rings and other metal objects.
2) Use tools with insulated handles.
3) Wear rubber gloves and boots.
4) Do not lay tools or metal parts on top of batteries or battery cabinets.
5) Determine whether the battery supply (+, -, N) is inadvertently grounded. If it is, remove the source of the ground. Contact with any part of a grounded battery can result in electric shock. The likelihood of an electric shock is reduced if such grounds are removed during installation and maintenance.

- Battery replacement should be performed only by authorised service personnel, using the same number and type of batteries (sealed lead acid).

WARNING: In order to avoid any hazardous conditions during UPS installation and maintenance, these tasks may be performed only by qualified and experienced electricians.

Please read this Owner's Manual and safety instructions carefully before installing or using the unit.

2. Important Safety Warnings

2.4 Transportation and Storage

⚠️ To protect against shock and impact, transport the UPS system using only its original packaging.
The UPS must be stored in a room that is dry and ventilated.

2.5 Preparation

⚠️ Condensation may occur if the UPS system is moved directly from a cold to warm environment. The UPS system must be completely dry before being installed. Please allow at least two hours for the UPS system to adjust to the environment.
⚠️ Do not install the UPS system near water or in moist environments.
⚠️ Do not install the UPS system in direct sunlight or near heat sources.
Do not block the ventilation holes on the UPS system's housing.

2.6 Installation

Do not connect appliances or devices that could overload the UPS (i.e., equipment with large electrical motors) to the UPS output sockets or terminal.
⚠️ Carefully arrange cables so no one can step on or trip over them.
Do not block the UPS system's air vents. The UPS must be installed in a location with good ventilation. Ensure adequate ventilation space on each side of the unit.
The UPS contains an earthed terminal. In the final installed system configuration, ensure equipotential earth grounding to the external UPS battery cabinet by connecting the earth terminals of both cabinets together.
⚠ The UPS should only be installed by qualified service personnel.
An appropriate disconnect device such as short-circuit backup protection must be provided in the building wiring installation.
⚠ An integral single-emergency switching device should be included in the building wiring installation.
⚠️ Connect the earth ground before connecting to the building wiring terminal.
⚠️ Installation and wiring must be performed in accordance with local electrical codes and regulations.

2.7 Connection Warnings

- The UPS system does not contain standard backfeed protection inside. Isolate the UPS before working on this circuit. The isolation device must be able to carry the UPS input current.

Input R S T N UPS «Automatic backfeed protection system» input, external to the UPS (EN-IEC 62040-1)

• This UPS should be connected with TN earthing system.
• The power supply for this unit must be 3-phase rated in accordance with the equipment nameplate. It also must be suitably grounded.
• The input power to 3-phase UPS models require a 3-pole breaker.
• Use of this equipment in life support applications where failure of this equipment can reasonably be expected to cause the failure of the life support equipment or to significantly affect its safety or effectiveness is not recommended.
• Connect the UPS power module's grounding terminal to a grounding electrode conductor.
• The UPS is connected to a DC energy source (battery). The output terminals may still be live, even when the UPS is not connected to an AC supply.

2. Important Safety Warnings

• When installing the unit, verify that any maintenance bypass panel used is configured correctly before applying power to the unit.
• Be sure to place a warning label on all primary power isolators installed remotely from the UPS area and on any external access points between such isolators and the UPS. The warning label shall carry the following wording or equivalent.

Before working on this circuit

- Isolate Uninterruptible Power System (UPS)

- Then check for Hazardous Voltage between all terminals

including the protective earth.

Risk of Voltage Backfeed

2.8 Operation

Do not disconnect the earth conductor cable on the UPS or the building wiring terminals at any time, as this will cancel the protective earth of the UPS system.
⚠ In order to fully disconnect the UPS system, first press the "OFF" button, then disconnect the mains.
⚠ Ensure no liquid or other foreign objects can enter into the UPS system.

2.9 Standards

*Safety
IEC 62040-1: 2008+A1:2013
*EMI
Conducted Emission......EN 62040-2: 2006 Category C3
Radiated Emission ...... EN 62040-2: 2006 Category C3
*EMS
ESD...... EN 61000-4-2 Level	4
RS ...... EN 61000-4-3	Level 3
EFT ...... EN 61000-4-4	Level 4
SURGE ...... EN 61000-4-5	Level 4
CS ...... EN 61000-4-6	Level 3
Power-Frequency Magnetic Field......EN 61000-4-8 Level	4
Low-Frequency Signals ...... EN 61000-2-2
Warning: This is a product for commercial applications. Installation restrictions or additional precautions may be needed to prevent disturbances.

3. Installation and Setup

3.1 Unpacking and Inspection

Unpack the unit and inspect its contents. Packaging may include additional accessories and components, depending on specific customer orders.

• One (1) UPS
  • One (1) Owner's Manual
• One (1) RS-232 Cable
  • One (1) paralleling cable for every set of UPS units being paralleled: P100200KIT

Other Accessory or Component Options Available Upon Request

• One (1) Battery Charger Temperature Compensation Thermostat: TEMPC100200

Note: Do not turn on the unit. Make sure to inspect the unit prior to installation. Ensure nothing inside the package was damaged during transportation. Notify the carrier and dealer immediately if there is any damage or missing parts. Please keep the original packaging in a safe place for future use.

1. Use a forklift to move the product to the installed area. Make sure the bearing capacity of forklift is sufficient. Refer to Figure 3.1.
2. Follow the unpacking order in Figure 3.2 to remove carton (1, 2) and foams (3).
3. Remove two fixing plates located on the two sides of the unit (1, 2 and 3) in Figure 3.3. Loosen leveling feet (4) by rotating them counterclockwise. Once loosened, move the cabinet from the pallet.
4. To fix the cabinet into position, simply rotate leveling feet clockwise. Refer to Figure 3.4.

S3M100KX, S3M100KXD and S3M120KX, S3M120KXD Models

Technical diagram of a server rack system with numbered components for identification

Figure 3.1A
Figure 3.2A Figure 3.3A

Simple line drawing of a mechanical component with a downward arrow indicating force or direction (no text or symbols)

1175 mm 1125 mm

705 mm

Figure 3.4A Figure 3.5A

3. Installation and Setup

S3M160KX, S3M160KXD, and S3M200KX, S3M200KXD Models

Simple line drawing of a mechanical component with a downward arrow indicating force or direction (no text or symbols)

1610 mm 1125 mm

705 mm

Figure 3.4B Figure 3.5B

3. Installation and Setup

Remove the accessory package and inspect the package contents. The standard shipping package should contain an Owner's Manual and RS-232 cable. The key to the UPS is attached to the front door with a cable tie. Packaging may also include additional accessories and components, depending on specific customer orders.

Note: Before installing, please inspect the unit. Ensure there is no physical damage to the unit. Do not turn on the unit. Notify the carrier and dealer immediately if there is any damage or missing parts and accessories. Keep the original packaging for future use. It is recommended you keep each equipment and battery set in their original packaging, as it is designed to provide maximum protection during transportation and storage.

Owner's Manual SmartOnline® S3MX 3-Phase UPS Systems RS-232 Cable Owner's Manual P100200KIT Paralleling Cable

3.2 Open Front Panel View

Each UPS comes equipped with a front door key. The key can be found attached to the front door with a cable tie. Upon opening the front door, you will see the communication area and several power stages/modules inside. From each power stage/module you can easily identify its ID.

Table 3.1 Power Stage ID

Power Rating 100K 120K 160K 200K
Stage ID—Individual Unit Operation
Stage ID—For Parallel UPS

3. Installation and Setup

3.2.1 Interface and Communication

These UPS systems come equipped with various communication devices. Please refer to section 5. Interface and Communication for further details.

Diagram showing a device layout with labeled ports and connectors, including a grid and control panel.

1 Dry Contact Port X1 (Optional battery temperature compensation thermostat)
2 Dry Contact Port X2 (EPO)
3 SNMP Slot (Optional WEBCARDLX or RELAYCARDSV card)
4 RS-232 Port
5 USB Port

3.2.2 Power Stage/Module

Each power stage/module includes a power factor correction rectifier, a battery charger, an inverter and control circuit.

1 2 3 4 5

No.	Item Description
1	Fan	Air enters the power stage through the front grills and is exhausted through the rear of the module. Do not block the ventilation vent.
2	Stage Address DIP Switches	There are three DIP switches for Power Stage address setting. In the same cabinet, each Power Stage ID MUST be exclusive. Refer to Table 3.1 Power Stage ID for more information.
3	Battery Start Button When AC input is not available, use this button to start UPS battery power.
4	FAULT LED	ON The power stage is in fault condition.
		ON/OFF 0.5 sec The power stage IDs are in conflict.
5	RUN LED	ON The power stage normally works as a secondary stage.
		ON/OFF 0.5 sec The power stage normally works as a primary stage.
		ON/OFF 0.15 sec The CAN Bus communication does not work.

3. Installation and Setup

3.3 Rear Panel View

Several breakers are located on the rear panel of the UPS. Models with a second AC input (Q2) are also available. The breakers shown are Q1 input 1, Q2 input 2*, Q3 output and Q4 maintenance bypass.

100KVA / 120KVA 160KVA / 200KVA
*Second AC circuit breaker (Q2) only applicable on second AC-input models with "KXD" suffix.

3. Installation and Setup

3.4 Wiring Terminal Views

1 2 3 4 5* 6 OUTPUT N BAT R S T R S N INPUT2 IN INPUT1 3

100KVA / 120KVA

2 5* 1 4 3

160KVA / 200KVA

No.	Item Function Description
1	Output Block Connects to the critical loads Includes R, S, T and Neutral terminals.
2	Main Input Block Connects to main AC source Includes R, S, T and Neutral terminals.
3	Ground Connection For UPS grounding Includes one grounding terminal.
4	Battery Input Block Connects to an external battery cabinet		Includes:Positive (+), Negative (-) and Neutral (N) terminals.
5*	Second Input Block Connect to second AC source Includes R, S, T and Neutral terminals.

*Second AC input block only applicable on second AC-input models with "KXD" suffix.

3. Installation and Setup

graph TD
    A["100kVA / 120KVA"] --> B["External Battery Input/Output Breaker"]
    C["160KVA / 200KVA"] --> B
    B --> D["+BATTERY"]
    B --> E["-BATTERY"]
    style A fill:#f9f,stroke:#333
    style C fill:#f9f,stroke:#333
    style D fill:#ccf,stroke:#333
    style E fill:#ccf,stroke:#333

3.5 Single UPS Installation

Installation and wiring must conform with the local electric laws/regulations. The following procedures must be performed by a professional electrician:

1) Make sure the mains wire and breakers in the building provide adequate power for the rated UPS capacity so as to avoid electrical shock or fire hazards.

Note: Do not use the wall receptacle as the input power source for the UPS, as its rated current is less than the UPS system's maximum input current. Otherwise, the receptacle may be shorted and destroyed.

2) Switch off the mains in the building before installation.
3) Turn off all connected devices before connecting to the UPS.
4) Prepare the power cables according to Table 3.2. Refer to Table 3.3 for UPS Input Breaker sizes and Table 3.4 for Battery Cabinet Batteries and Breaker sizes.

Warning:

- Before connecting any wires, make sure the AC input and battery power are completely shut off.

Table 3.2 Power Cables

Model	Power cable (mm2 and AWG)
	Input(Ph) Output(Ph) Neutral Battery		Ground
100KVA	70 mm2(2/0 AWG)	70 mm2(2/0 AWG)	70 mm2(2/0 AWG)	150 mm2(300 MCM)	70 mm2(2/0 AWG)
120KVA	95 mm2(3/0 AWG)	95 mm2(3/0 AWG)	95 mm2(3/0 AWG)	240 mm2(500 MCM)	95 mm2(3/0 AWG)
160KVA	150 mm2(300 MCM)	150 mm2(300 MCM)	150 mm2(300 MCM)	120 mm2 x 2(4/0 AWG x 2)	150 mm2(300 MCM)
200KVA	185 mm2(400 MCM)	185 mm2(400 MCM)	185 mm2(400 MCM)	185 mm2 x 2(400 MCM x 2)	185 mm2(400 MCM)

3. Installation and Setup

Table 3.3 UPS Input Breakers

Model (Series Number) Breaker Size
S3M100KX, S3M100KXD (AG-6100) 200A,	3-Pole
S3M120KX, S3M120KXD (AG-6120) 250A,	3-Pole
S3M160KX, S3M160KXD (AG-6160) 400A,	3-Pole
S3M200KX, S3M200KXD (AG-6200) 400A,	3-Pole

Table 3.4 Battery Cabinet Batteries and Breakers

Model Batteries Included Battery Size and Qty. Breaker Size
BP480V100	300A, 3-Pole200A, 3-Pole	100Ah x 40 400A, 3-Pole
BP480V65 65Ah x 40
BP480V40 40Ah x 40
BP480V100-NIB	(Designed For) 65Ah x 40 300A, 3-Pole	(Designed For) 100Ah x 40 400A, 3-Pole
BP480V65-NIB (Designed For) 65Ah x 40 300A, 3-Pole
BP480V40-NIB (Designed For) 40Ah x 40 200A, 3-Pole

Warning:

• Before connecting any wires, make sure the AC input and battery power are completely shut off.
• Make sure the breakers, input1 breaker (Q1), input2 breaker (input2, Q2 on dual input models only), output breaker (Q3 @120K/160K/200K) maintenance breaker (Q4 @ 120K/160K/200K) and battery breaker are all in the "OFF" position. For further reference, review the UPS rear panel images in section 3.3.
• Make sure the maintenance bypass switch is in "UPS" position (@ 100K).

5) Remove the terminal block cover on the rear panel of the UPS. Connect the input1, (input2 @ dual input UPS models), output and battery wires according to the function indicated on terminal block. Make sure to connect the grounding/earth wires first when establishing a wire connection. Disconnect the grounding/earth wire last when performing wire disconnection.

Notes:

• Ensure the wires are tightly and securely connected to the terminals.
• This breaker must have leakage current protective function.
• Be sure to also add an equipotential bonding wire between the UPS and the External Battery Cabinets.

6) Reattach the terminal block cover to the rear panel of the UPS.

Warning:

• Make sure a DC breaker or other protection device is installed between the UPS and external battery pack. Switch off the battery breaker before installation.
  Note: Set the battery pack breaker to the "OFF" position before installing the battery pack.
• Pay special attention to the rated battery voltage marked on the label. If you want to change the numbers of the battery pack, make sure to modify the setting accordingly. The connection with the wrong battery voltage may cause permanent damage to the UPS.
• Make sure the protective grounding/earth wiring is correct. The current spec, colour, position, connection and conductance reliability of the wires must be checked carefully.
• Make sure the utility input and output wiring is correct. The current spec, colour, position, connection and conductance reliability of the wires must be checked carefully. Make sure the L/N is correct, not reversed or short-circuited.

3. Installation and Setup

3.6 UPS Installation for Parallel Systems

Warning:

• The input harmonic current distortion will be between 3% and 4.5% in parallel UPS operations.
  • One parallel kit is needed for every two UPS systems.

3.6.1 Input and Output Wiring

1. When installing the parallel system, the length of input wires (R, S, T, N) in one UPS must be equal to the input wires of the other UPS. Likewise, the length of output wires (R, S, T, N) must also be in equal length. If not, it will cause unbalanced current on the output load.

graph TD
    subgraph_AC_IP1["AC I/P 1"]
        A["Input Breaker"] --> B["Static Switch"]
        C["Bat Module"] --> B
        D["Input Breaker"] --> B
        B --> E["UPS Module"]
        E --> F["Output Breaker"]
        G["Charge"] --> E
    end

    subgraph_Load["Load"]
        H["Parallel Cable"] --> I["Output Breaker"]
        J["Input Breaker"] --> K["Static Switch"]
        L["Bat Module"] --> K
        M["Input Breaker"] --> K
        K --> N["UPS Module"]
        N --> O["Output Breaker"]
        P["Charge"] --> N
    end

    style AC_IP1 fill:#f9f,stroke:#333
    style Load fill:#bbf,stroke:#333

Figure 3.6 Single Input Wiring In Parallel System

3. Installation and Setup

graph TD
    subgraph AC_I/P_1["AC_I/P 1"]
        A["Input Breaker"] --> B["Static Switch"]
        C["Bat Module"] --> B
        D["Bar Module"] --> B
    end

    subgraph AC_I/P_2["AC_I/P 2"]
        E["Input Breaker"] --> F["Static Switch"]
        G["Bat Module"] --> F
        H["Bar Module"] --> F
    end

    B --> I["UPS Module"]
    F --> J["UPS Module"]
    F --> K["Charger"]
    F --> L["Charger"]
    F --> M["Rect Inv"]
    F --> N["Charge"]
    F --> O["Output Breaker"]

    I --> P["Parallel Cable"]
    J --> P
    K --> P
    L --> P
    M --> P
    N --> P
    O --> P
    P --> Q["Load"]
    style AC_I/P_1 fill:#f9f,stroke:#333
    style AC_I/P_2 fill:#bbf,stroke:#333

Figure 3.7 For Dual Input Models Wiring models In Parallel System

3. Installation and Setup

3.6.2 Parallel Board Setting

3.6.2.1 Configure Parallel Board of UPS 1

1. Set SW2 on the parallel board of the UPS 1 to the right side.

SW1 SW2 CN10 CN9 CN7 CN8 OUTPUT T] R N R N S S1 S2 S3 S4 S5 S6 S7 S8 CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO CNO

Figure 3.8 SW2 Position on UPS 1 (Default Setting)

3. Installation and Setup

3.6.2.2 Configure Parallel Board of UPS 2

1. Set SW2 on the parallel board of the UPS 2 to the left side.

SW1 SW2 OUTPUT DIPUTS INPUTT

SW1 SW2 CN10 CN9 CN7 CN8

Figure 3.9 SW2 Position on UPS 2

3. Installation and Setup

3.6.3 Parallel Function Setting

1. For input and output wiring, make sure to follow the instructions in section 3.6.1.
2. For the parallel board setting, make sure to follow the instructions in section 3.6.2.

Confirm no power is applied to either UPS at this time.

Once the two steps above and the battery configuration have been completed correctly, proceed with the following steps:

1. Do not connect Parallel Cable until informed.

1. Set the input breakers (Q1) of two UPS systems to the "ON" position. Make sure to keep the output breakers (Q3) of two UPS systems set to the "OFF" position.
2. Turn on the battery breaker.
3. Turn on the external AC source breaker to apply the AC input source to both UPS systems.
4. Wait for the the power-cycles to complete. Proceed to set UPS 1.
5. Use the LCD panel on UPS 1 to set up the parallel function. Enter the "PARALLEL" menu in the "SETUP" page (refer to section 4.2.5.5 Setup-Parallel Screen for more information).
6. Enable "UPS Parallel" function of UPS 1 (ignore the "Parallel UPS Cable Loose" warning).
7. Choose the battery configuration as "independent" or "common" battery, depending on your preference.
8. To save your settings, select the "Save Setting" icon in the "General" screen of the "SETUP" page.
9. Proceed to set up UPS 2.
10. Set up the parallel function through the LCD panel on UPS 2. Enter the "PARALLEL" menu in the "SETUP" page (refer to section 4.2.5.5 Setup-Parallel Screen for more information).
11. Enable the "UPS Parallel" function of UPS 2 (ignore the "Parallel UPS Cable Loose" warning).
12. Choose the battery configuration as "independent" or "common" battery, depending on your preference.
13. To save your settings, select the "Save Setting" icon in the "General" screen of the "SETUP" page.
14. Turn off the external AC source breaker and wait for complete shutdown of both UPS systems.
15. Turn off the battery breakers.

3.6.4 Parallel Cable Connection

There are three connectors at the end of each parallel cable: one 16-pin connector and two 2-pin connectors.

Short 2-Pin Long 2-Pin 16-Pin

Notes:

• For 100K and 120K UPS with One Parallel Board: Connect the 16-pin connector and the short 2-pin connector.
• For 160K and 200K UPS with Two Parallel Boards: Connect the 16-pin connector and the short 2-pin connector to the bottom board. Then, connect the long 2-pin connector to the top board.
• If the 2-pin connector is disconnected by accident, the UPS will prompt a fault: "Warning! Parallel UPS Cable Loose". Insert the 16-pin connector into CN7 and the 2-pin connector into CN10 of the Parallel Board of UPS 1. Connect the other end of the parallel cable into the Parallel Board of UPS 2, again connecting the 16-pin connector into CN7 and the 2-pin connector into CN10.

SW1 SW2 CN10 CN9 CN7 CN8

SW1 SW2 CN10 CN9 CN7 CN8

Figure 3.10 UPS 1 Parallel Board Figure 3.11 UPS 2 Parallel Board

3. Installation and Setup

Warning:

Improper parallel cable connections will result in abnormal operations. Verify each step while connecting the parallel cables on each UPS.

Confirm no power is applied to either UPS at this time.

3.6.5 Parallel System Turn On Procedure

1. Make sure to follow sections 3.6.1 to 3.6.4 correctly.
2. Confirm the input breaker and output breakers of each UPS have been turned "ON".
3. Turn ON the battery breaker.
4. Turn ON the external AC source breaker to apply AC input source to both UPS systems.
5. Watch for abnormal event messages on the LCD display (refer to section 4.2.7 Event Screen for more information).
6. Switch ON the UPS by pressing the power button on the UPS front panel or through the control page on the LCD panel (refer to section 4.2.3 Control Screen for more information).

3.7 Dual AC Input Installation

Dual AC Input UPS (or suffix "KXD") models are defaulted to a Single AC Input configuration via the placement of three shorting jumpers between AC Input 1 and AC Input 2. If you desire to operate the "KXD" models in a dual AC configuration, remove these three jumpers, and wire AC input 1 and AC Input 2 accordingly.

Technical diagram of an electrical control cabinet with visible wiring and internal components, annotated with red dashed lines indicating connection points.

Jumpers on "KXD" dual-AC input models.

4. Control Panel and LCD Operations

4.1 Control Panel Description

The control panel and display screen are located on the UPS front panel. This interface monitors all measured parameters, UPS status, battery status and alarms. The control interface is divided into four sections: (1) LCD panel, (2) LED indicators, (3) Power Button and (4) Audible Alarm. Refer to Figure 4.1.

graph TD
    A["1"] --> B["BYPASS"]
    B --> C["INV"]
    C --> D["LOAD"]
    D --> E["BATT"]
    E --> F["FAULT"]
    E --> G["ALARM"]
    H["3"] --> I["POWER"]

1 LCD Panel: Graphic display and all measured parameters.
2 LED Indicators: Refer to Table 4.1.
3 Power Button: Refer to Table 4.2.
4 Audible Alarm: Refer to Table 4.3.

Table 4.1: LED Indicators

LED Colour Status Definition
LINE Green		On Input source is normal.
		Flashing Input source is abnormal.
		Off No input source
BYPASS Yellow		On Load on Bypass.
		Flashing Input source is abnormal.
		Off Bypass not operating.
LOAD Green		On There is power output for the load.
		Off There is no power output for the load.
INV Green		On Load on inverters.
		Off Inverters not operating (unless in ECO Mode).
BATTERY Red		On Load on Battery.
		Flashing Low battery
		Off Battery converter is normal and battery is charging.
FAULT/ALARM Red		On UPS fault.
		Flashing UPS alarm.
		Off Normal.

Table 4.2: Power Button

Control Key	Description
Power On/Off	Turn on UPS or Turn off UPS (hold 2 seconds).

Table 4.3: Audible Alarm

UPS Condition	Description
Power On/Off	Buzzer sounds every 2 seconds.
Bypass Mode	Buzzer sounds once every minute.
Battery Mode	Buzzer sounds every 2 seconds.
Low Battery	Buzzer sounds every 0.5 seconds.
UPS Alarm	Buzzer sounds every 1 second.
UPS Fault	Buzzer sounds continuously.

4. Control Panel and LCD Operations

4.2 LCD Screen Description

4.2.1 Initial Screen

Upon powering on, the UPS will execute POST (Power-On Self-Test). The initial screen (shown below) will display for approximately 5 seconds.

Online UPS

Figure 4.2 Initial Screen

4.2.2 Main Screen

After initialization, the main screen will display.

graph TD
    A["1 SYSTEM ON Line Model"] --> B["2"]
    B --> C["3 AC/DC"]
    C --> D["4 KVA"]
    D --> E["5 LOAD"]
    E --> F["6 85%"]
    style A fill:#f9f,stroke:#333
    style B fill:#ccf,stroke:#333
    style C fill:#cfc,stroke:#333
    style D fill:#fcc,stroke:#333
    style E fill:#cff,stroke:#333

Figure 4.3 Main Screen

The Main Screen is divided into six sections:

1 UPS Operation Mode: Shows UPS current operation mode and status.
2 UPS Flow Chart: Shows current flow chart and measurement data.
3 Main Menu: Touch each icon to enter submenu. Refer to Figure 4.4 for menu tree.

graph TD
    A["Main"] --> B["HOME CONTROL"]
    A --> C["MEASUREMENT SETUP"]
    A --> D["INFORMATION EVENTS"]
    A --> E["SETUP"]
    A --> F["INFORMATION"]
    A --> G["EVENT"]

Figure 4.4 Menu Tree

4 UPS Power Rating: Shows UPS power rating.
5 Date and Time: Shows current date and time.

4. Control Panel and LCD Operations

6 UPS Status: The descriptions of each icon and its status are listed as:

Icon UPS Status	LED Status
	UPS operating in Standby Mode or Shutdown Mode. LOAD – Off
	UPS operating in Line Mode or Converter Mode. LINE, INV and LOAD – On
	UPS operating in Bypass Mode or ECO Mode. LINE, BYPASS and LOAD – On
	UPS operating in Battery Mode or Battery Test Mode. BATT, INV and LOAD – On
	UPS operating in Fault Mode. FAULT – On or Flashing (Alarm)

4.2.3 Control Screen

Touch to enter into the submenu (as shown in Figures 4.5 and 4.6).

graph TD
    A["CONTROL Yes or No"] --> B["System Turn On"]
    A --> C["System Turn Off"]
    A --> D["Manual Battery Test"]
    A --> E["Cancel Battery Test"]
    A --> F["Turn to Bypass"]
    A --> G["Shutdown Restore"]
    A --> H["Cancel Shutdown"]
    A --> I["Charger Turn On"]
    A --> J["Charger Turn Off"]
    B --> K[" "]
    C --> K
    D --> K
    E --> K
    F --> K
    G --> K
    H --> K
    I --> K
    J --> K

Figure 4.5 Control Screen

SYSTEM ON Standby Mode System Turn On System Turn Off Manual Battery Test Cancel Battery Test Turn To Bypass Shutdown Restore Cancel Shutdown Charger Turn On Charger Turn Off L1 0% 0% 0% 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

Figure 4.6 Control Menu

4. Control Panel and LCD Operations

Touch any option directly. The confirmation screen will pop up. Touch Yes to confirm command or No to cancel command.

SYSTEM ON Standby Mode System Turn On System Turn Off Manual Battery Test Cancel Battery Test Turn To Bypass Shutdown Restore Cancel Shutdown Charger Turn On Charger Turn Off ESC Yes No 15:30 2018/01/01

Figure 4.7 Confirmation Screen

4.2.4. Measurement Screen

Touch to enter into the Measurement submenu. You may choose Input, Output, Bypass, Load or Battery to monitor each detailed status. Refer to Figures 4.8 and 4.9.

graph TD
    A["MEASUREMENT"] --> B["Input"]
    A --> C["Output"]
    A --> D["Bypass"]
    A --> E["Load"]
    A --> F["Battery"]

Figure 4.8 Measurement Menu

4. Control Panel and LCD Operations

SYSTEM ON Standby Mode L1 L2 L3 VOL 1Hz 230.0V VOL 1Hz 230.0V VOL 1Hz 230.0V FRESQUENCY 50.0Hz FRESQUENCY 50.0Hz FRESQUENCY 50.0Hz INPUT OUTPUT BYPASS LOAD BATTERY HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 12:00 2018/01/01

SYSTEM ON Standby Mode L1 L2 L3 VOLTAGE 230.0V VOLTAGE 230.0V VOLTAGE 230.0V CURRENT 10.0A CURRENT 10.0A CURRENT 10.0A FREQUENCY 50.0Hz FREQUENCY 50.0Hz FREQUENCY 50.0Hz POWER FACTORY 0.99 POWER FACTORY 0.99 POWER FACTORY 0.99 INPUT OUTPUT BYPASS LOAD BATTERY HOME CONTROL MEASUREMENT SERIES INFORMATION EVERY 12:00 2018/01/01

SYSTEM ON Standby Mode L1 L2 L3 0% VOLTAGE 230.0V VOLTAGE 230.0V VOLTAGE 230.0V CURRENT 10.0A CURRENT 10.0A CURRENT 10.0A POWER FACTORY 0.99 POWER FACTORY 0.99 POWER FACTORY 0.99 INPUT OUTPUT EV/ASS LOAD BATTERY HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 12:00 2018/01/01

SYSTEM ON Standby Mode L1 L2 L3 0% LOAD 0% LOAD 0% LOAD 0% S OUT OKVA S OUT OKVA S OUT OKVA P OUT OKW P OUT OKW P OUT OKW INPUT OUTPUT BYPASS LOAD BATTERY HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 12:00 2018/01/01

POSTIVE NEFATIVE CAPACITY SYSTEM ON Standby Mode 0% VOLTAGE 216.0V VOLTAGE 216.0V REMAIN TIME 1Min CURRENT 10.0A CURRENT 10.0A TEST RESULT Passed TEMPERATURE 01 35.0C TEMPERATURE 02 37.0C CHARGING STATUS Float TEMPERATURE 03 34.0C TEMPERATURE 04 38.0C TEMPERATURE 05 34.0C INPUT OUTPUT BYPASS LOAD BATTERY TIME CONTROL MEASUREMENT SETUP INFORMATION EVENT 12:00 2018/01/01

Figure 4.9 Measurement Screens: INPUT, OUTPUT, BYPASS, LOAD, and BATTERY

4. Control Panel and LCD Operations

Table 4.4: Measurement Items

Submenu Item	Explanation
Input	L-N Voltage (V) Input phase voltage (L1, L2, L3). Units: 0.1V.
	Frequency (Hz) Input frequency (L1, L2, L3). Units: 0.1 Hz.
Output	L-N Voltage (V) Output phase voltage (L1, L2, L3). Units: 0.1V.
	L-N Current (A) Output phase current (L1, L2, L3). Units: 0.1A.*
	Frequency (Hz) Output frequency (L1, L2, L3). Units: 0.1 Hz.
	Power Factor Output power factor (L1, L2, L3).
Bypass	L-N Voltage (V) Bypass phase voltage (L1, L2, L3). Units: 0.1V.
	Frequency (Hz) Bypass frequency (L1, L2, L3). Units: 0.1 Hz.
	Power Factor Bypass power factor (L1, L2, L3).
Load	Sout (kVA) Apparent power. Units: 0.1kVA.
	Pout (kW) Active power. Units: 0.1kW.
	Load Level (%) The percentage of connected load. Units: 1%.
Battery	Positive Voltage (V) Battery positive voltage. Units: 0.1V.
	Negative Voltage (V) Battery negative voltage. Units: 0.1V.
	Positive Current (A) Battery positive current. Units: 0.1A.
	Negative Current (A) Battery negative current. Units: 0.1A.
	Remain Time (Sec) Battery remaining runtime. Units: 1 sec.
	Capacity (%)	The percentage of the battery capacity. Units: 1%.
	Test Result	Battery test result.
	Charging Status	Battery charging status.
	Temperature 01(°C)	Temperature of external battery pack. Units: 0.1°C.
	Temperature 02(°C)	Temperature of external battery pack through extra communication card T1. Units: 0.1°C.
	Temperature 03(°C)	Temperature of external battery pack through extra communication card T2. Units: 0.1°C.
	Temperature 04(°C)	Temperature of external battery pack through extra communication card T3. Units: 0.1°C.
	Temperature 05(°C)	Temperature of external battery pack through extra communication card T4. Units: 0.1°C.

* Output current at zero load or low load may indicate up to 1% current flow on the display due to inverter activity. For load power readings, go to the LOAD submenu on the display.

4.2.5. Setup Screen

Touch the 📄 to enter into the Setup submenu. It requires a password to access the General, SYSTEM, BATTERY and PRE-ALARM submenus (as shown in Figures 4.10 and 4.11). The default password is 0000.

graph TD
    A["SETUP"] --> B["Enter Password"]
    B --> C["GENERAL"]
    B --> D["SYSTEM"]
    B --> E["BATTERY"]
    B --> F["PRE-ALARM"]
    B --> G["PARALLEL"]

Figure 4.10 Setup Menu

4. Control Panel and LCD Operations

Touch the grey column to access the numerical keyboard. Enter a 4-digit password and press to enter the SETUP submenu. If an incorrect password is entered, you may retry.

CAUTION! PLEASE ENTER PASSWORDS SYSTEM ON Standby Mode 1 0% 1.2 0% 1.3 0% 15:30 2018/01/01 HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT SYSTEM ON Standby Mode 1 2 3 4 5 6 7 8 9 0 15:30 2018/01/01 HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT

CAUTION! WRONG NUMBER,PLEASE ENTER AGAIN! SYSTEM ON Standby Mode 0% 0% 0% 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

Figure 4.11 Enter Password Screens

There are two levels of password protection: user password and administrator password.

The default user password is 0000. It may be changed by the user.

The administrator password is owned by trained service personnel.

Different password levels can access different settings. The setting can be changed in various operation modes. Refer to Table 4.5 for details.

4. Control Panel and LCD Operations

Table 4.5: All Setting Items in Setup Menu

Setting item\Mode\UPS Operation		Standby Mode	Bypass Mode	Line Mode	Battery Mode	Battery Test Mode	Fault Mode	Converter Mode	ECO Mode	Authorisation
										User	Maintainer/Administrator
General	Model Name*YYYYYYYY
	Language**YYYYYYYY
	TIMEYYYYYYYY
	Change PasswordYYYYYYYY
	Baud RateYYYYYYYY
	Audible AlarmYYYYYYYY
	Factory Reset Y Y
	EEPROM Reset Y Y
	EPO Function Y Y
	Save Setting	YY								YY
	Startup Screen	YYYYYYYYY
System	Output Voltage	YY									Y
	Bypass Voltage Range	YYYYYYYYY
	Bypass Frequency Range	YY									Y
	Converter Mode	YY
	ECO Mode Y Y	YY
	Bypass Mode Y Y						Y
	Auto-Restart	YYYYYYYYY
	Cold Start	YYYYYYYYY
	Battery Mode Delay Time	YY				YYYY
	System Shutdown Time	YYYYYYYYY
	System Restore Time	YYYYYYYYY
	Charger Test	YY					YYY
	Redundancy	YYYYYYYYY
Battery	Battery Capacity in Ah	YY				YYYY
	Maximum Charging Current	YY									Y
	Battery Low/Shutdown Setting	YY				YYYY
	Periodic Battery Test	YYYYYYYYY
	Battery Test Interval	YYYYYYYYY
	Stop by Time	YY			YYYY
	Stop by Battery Voltage	YY			YYYY
	Stop by Battery Capacity	YY			YYYY
	Battery Age Alert	YYYYYYYYY
	Temperature Compensation	YYYYYYYYY
	Charging Voltage	YY									Y
	Auto-Restart Battery Voltage	YYYYYYYYY
Pre-Alarm	Line Voltage Range	YYYYYYYYY
	Line Frequency Range	YYYYYYYYY
	Load YYYYYYYYYY
Parallel	UPS Parallel	YY									Y
	Independent Battery	YY									Y

"Y" indicates available options exist in each given mode.
* Model names can be customised.
** English only.

4. Control Panel and LCD Operations

Setup Procedure

Step 1: Choose between GENERAL, SYSTEM, BATTERY and PRE-ALARM.

Step 2: Each item will show its current value and alternative settings.

Step 3: Choose to confirm the change or to cancel any modifications.

GENERAL SYSTEM BATTERY PRE-ALARM PARALLEL SYSTEM ON Standby Mode Model Name SISI200KX Language English Time 2015/10/22 15:30 Hand Rate Port1:2400 Port1:2400 Audible Alarm Enable Factory Reset EEPROM Reset EPD Function Normal OPEN Action Password Save Setting Startup Screen Online UPS Screen Saving Enable 15:30 2018/01/01 GENERAL SYSTEM BATTERY PRE-ALARM PARALLEL SYSTEM ON Standby Mode Model Name Language English Time Read Rate Audible Alarm Factory Reset EEPROM Reset EPO Function Password Save Setting Startup Screen Screen Saving Enable 15:30 2018/01/01

Figure 4.12 Setting Procedure

4.2.5.1 Setup-General Screen

The Setup-General screen and setting list options are shown in Figure 4.13 and Table 4.6.

GENERAL SYSTEM BATTERY PRE-ALARM PARALLEL MODEL Name S3M200KX Language English Time 2015/10/22 15:30 Band Rate Port10:2400 Port1:2400 Audible Alarm Enable Factory Reset EEPROM Reset EPO Function Normal OPEN Action Password Save Setting Startup Screen Online UPS Screen Saving Enable SYSTEM ON Standby Mode L1 0% L2 0% L3 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

Figure 4.13 Setup-General Screen

4. Control Panel and LCD Operations

Table 4.6: Setup-General Setting List

Setting Item Sub Item Explanation
Model Name --		Set UPS Name (xxxxxxxxx).The max. length is 10 characters.
Language -- English only
TIME	Adjust Time	Set current date and time.(yyyy / mm / dd hour : min : sec)MUST be set after UPS installation
	System Installed Date	Set system installed date(yyyy / mm / dd)2018/1/1 (Default)MUST be set after UPS installation
	System Last Maintain Date	Set system latest maintenance date(yyyy / mm / dd)MUST be set after UPS installationMaintainer/Administrator Only
	Battery Installed Date	Set battery installed date(yyyy / mm / dd)MUST be set after UPS installation
	Battery Last Maintain Date	Set battery latest maintenance date(yyyy / mm / dd)MUST be set after UPS installation
Baud Rate --		Set SNMP Port (COM Port0) Baud Rate• 2400 (Default)• 4800• 9600Set RS-232 Port (COM Port1) Baud Rate• 2400 (Default)• 4800• 9600
Audible Alarm --		Set Audible Alarm• Disable• Enable (Default)
Factory Reset --		Restore to factory default settingRefer to Table 4.7
EEPROM Reset --		Restore EEPROM to default settingRefer to Table 4.7
EPO Function --		Set EPO active status• Normal Close Active (Default)• Normal Open Active
Password --		Set New Password.0000 (Default)
Save Setting --		Save all settings to EEPROM.Use this feature to save the changed setting(s). Must be performed when any changes are made to the settings.
Startup Screen --		Set up initial screen. (xxxxxxxxx).The max. length is 12 characters.

4. Control Panel and LCD Operations

Table 4.7: EEPROM Reset Category List

Setting Item Factory Reset EEPROM Reset
General	Model Name
	Language Y Y
	Adjust Time
	System Installed Date Y
	System Last Maintain Date Y
	Battery Installed Date Y
	Battery Last Maintain Date Y
	Change Password Y
	Baud Rate Y
	Audible Alarm Y Y
	Factory Reset
	EEPROM Reset
	EPO Function Y
	Save Setting
	Startup Screen
System	Output Voltage Y
	Bypass Voltage Range Y Y
	Bypass Frequency Range	Y Y
	Converter Mode	Y Y
	ECO Mode	Y Y
	Bypass Mode	Y Y
	Auto-Restart	Y Y
	Cold Start		Y
	Battery Mode Delay Time	Y Y
	System Shutdown Time	Y Y
	System Restore Time	Y Y
	Charger Test
Battery	Battery Capacity in Ah Y Y
	Maximum Charging Current	Y Y
	Battery Low/Shutdown Setting	Y Y
	Periodic Battery Test	Y Y
	Battery Test Interval	Y Y
	Stop by Time	Y Y
	Stop by Battery Voltage	Y Y
	Stop by Battery Capacity	Y Y
	Battery Age Alert	Y Y
	Temperature Compensation	Y Y
	Charging Voltage	Y Y
	Auto-Restart Battery Voltage	Y Y
Pre-Alarm			Y

4. Control Panel and LCD Operations

The Setup-System Screen and setting options are shown in Figure 4.14 and Table 4.8. System Setting can only be accessed when the UPS is operated in a specific mode (refer to Table 4.5 for the details). If an option is not available under a specific mode, a warning screen will appear (Figure 4.15).

GENERAL SYSTEM BATTERY PRE-ALARM PARALLEL SYSTEM ON Standby Mode Output Voltage — 230.0V Bypass Setting — Voltage:-10% ~+10% Frequency:-Hz ~+Hz Converter Mode — Disable ECO Mode — Disable Bypass Mode — Disable Auto-Restart — Disable Cold Start — Disable Battery Mode Delay Time — 0(Sec) Shutdown/Restore — Shutdown:0.2(Min) Restore:1(Min) Charger Test — Disable Redundancy — 1+0 L1 0% L2 0% L3 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 12:00 2018/01/01

Figure 4.14 Setup-System Screen Figure 4.15 Warning Screen

SYSTEM-ON This mode cannot be set up! This mode can LSC

Table 4.8: Setup-System Setting List

Setting Item Sub Item Explanation
Output Voltage(Line ->N)	--	Set output voltage• 220V AC (Default)• 230V AC• 240V ACMUST be reviewed after UPS installation
BYPASS SETTING	Bypass Voltage Range	Set bypass voltage range:Upper limit• +10%• +15% (Default)• +20%Lower limit• -10%• -20% (Default)• -30%
	Bypass Frequency Range	Set bypass Frequency range:Upper/ Lower limit• +/- 1 Hz• +/- 2 Hz• +/- 4 Hz (Default)
Converter Mode --		Set Converter Mode• Disable (Default)• Enable
ECO Mode --		Set ECO Mode• Disable (Default)• Enable
Bypass Mode --		Set Bypass Mode• Disable• Enable (Default, MUST be in Bypass Mode to disable)MUST be reviewed after UPS installation.If you need the Bypass power when UPS is OFF, please enable it.
Auto-Restart --		Set auto-restart• Disable• Enable (Default)When “Enable” is set and a UPS shutdown occurs due to low battery, the UPS will return to Line Mode once the utility power is restored.
Redundancy --		Set redundancy• Redundancy: the QTY of unitMUST be set after UPS parallel enable

4. Control Panel and LCD Operations

Setting Item Sub Item Explanation
Cold Start --		Set cold startDisableEnable (Default)After “Enable” is set, the UPS can be turned on without connecting to utility by pressing Battery Start Button. Refer to cold start operation for the details (refer to 7.2 Cold Startup).
Battery Mode Delay Time	--	Set system shutdown delay time in Battery Mode (0~9990 sec).0: Disable (Default)Not 0: EnableWhen this feature is enabled, UPS will shut off output after UPS operates in Battery Mode for the set number of seconds.
Shutdown/Restore	System Shutdown Time	Set system shutdown time (0.2~99 min.)0.2 min. (Default)This delay time will start counting when the CONTROL-Shutdown Restore command is executed.
	System Restore Time	Set system restore time (0~9999 min.)1 min. (Default)This delay time will start counting after shutdown time is elapsed when the CONTROL-Shutdown Restore command is executed.
Charger Test --		Set charger testDisable (Default)Enable

4.2.5.3 Setup-Battery Screen

The Setup-Battery Screen and Setting options are shown in Figure 4.16 and Table 4.9. Battery Setting can only be set when UPS is operated in Standby Mode.

graph TD
    A["GENERAL"] --> B["BATT Capacity in Ab"]
    C["SYSTEM"] --> D["MAX Charging Current"]
    E["BATTERY"] --> F["BATT Low/Shutdown"]
    G["PRE-ALARM"] --> H["Shutdown Voltage"]
    I["PARALLEL"] --> J["LOW Voltage"]
    K["0%"] --> L["0 (nV/C/c)"]
    M["10%"] --> N["Low Capacity"]
    O["30%"] --> P["Shutdown Voltage"]
    Q["0.0V"] --> R["Disable"]
    S["0.0V"] --> T["Disable"]
    U["BATT Test"] --> V["Charging Voltage: 2.35V"]
    W["BATT Test Interval"] --> X["Periodic BATT Test"]
    Y["BATT Test Interval"] --> Z["30 (Days)"]
    AA["Stop by Time"] --> AB["Stop by BATT Voltage"]
    AC["Stop by BATT Capacitive"] --> AD["Stop by BATT Capacitive"]
    AE["Float Voltage: 2.25V"] --> AF["Disable"]
    AG["10 (Sec)"] --> AH["Stop by Time"]
    AI["11.5V"] --> AJ["Stop by BATT Voltage"]
    AK["50%"] --> AL["Stop by BATT Capacitive"]

Figure 4.16 Setup-Battery Screen

4. Control Panel and LCD Operations

Table 4.9: Setup-Battery Setting List

Setting Item Sub Item Explanation
Battery Capacity in Ah	--	Set battery capacity. (up to 999)• 9Ah (Default)MUST be set after UPS installation or battery capacity is changed.
Maximum Charging Current	Recommended to Use 10% Battery Amp-Hour Rating	Set battery maximum charging current. (1~24A 100KVA/1~32A 120KVA/1~40A 160KVA/1~48A 200KVA)• 2A (Default), may be increased via the displayMUST be set after UPS installation or battery capacity is changed.
Battery Low/ Shutdown Setting	Low Voltage	Set battery low voltage. (10 ~11.5V) x (Battery Number)• 11V x Battery Number (Default)
	Low Capacity	Set battery low capacity. (20~50%)• 20% (Default)
	Shutdown Voltage (LVC)	Set battery voltage point for system shutdown in Battery Mode. (10.0V) x (Battery Number)• 10V x Battery Number (Default)
Battery Test Periodic	Battery Test	Set periodic battery test disable or enable.• Disable (Default)• Enable
	Battery Test Interval	Set battery test interval. (7~99 Days)• 30 Days (Default)
	Stop by Time	Set testing time for battery test. (10~1000 Seconds)• 10 sec (Default)
	Stop by Battery Voltage	Set stop battery voltage in battery test. (11~12V) x (Battery Number)• 11V x Battery Number (Default)
	Stop by Battery Capacity	Set battery capacity to stop battery testing. (20~50%)• 20% (Default)
Battery Age Alert Battery Age Alert (Months)		Set battery age for replacement. (Disable, 12~60 Months)• Disable (Default)If this feature is enabled and the battery has been installed over this period, there is a “Battery Age Alert” warning to indicate it.
Temperature Compensation	--	Set battery temperature compensation.• When Enabled, 3(mV/C/cell)
Charging Voltage --		Set battery charging voltage. (2.30~2.35V)• 14.1V/Battery, 2.35V/Cell (Default)Set battery float voltage. (2.23~2.35V)• 13.65V/Battery, 2.27V/Cell (Default)
Auto-Restart Battery Voltage	--	Set auto-restart battery voltage. (0 or 12.0V~13.0V)• 0V (Default)

4. Control Panel and LCD Operations

4.2.5.4 Pre-Alarm Screen

The Pre-Alarm Screen Setup and Setting options are shown in Figure 4.17 and Table 4.10. The Pre-Alarm Setting can be accessed in any operation mode.

GENERAL SYSTEM BATTERY PRE-ALARM PARALLEL LINE Voltage Range -20% -20% Line Frequency Range -1Hz +1Hz Loss Overload 100% Load Unbalance 100% SYSTEM ON Standby Mode L1 0% L2 0% L3 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

Figure 4.17 Setup-Pre-Alarm Screen

Table 4.10: Setup Pre-Alarm Setting List

Setting Item Sub Item Explanation
Line Voltage Range --		Set line voltage range:Upper limit+5%+10%+15%+20% (Default)Lower limit-5%-10%-15%-20% (Default)
Line Frequency Range	--	Set line frequency range:Upper / Lower limit+/- 1 Hz+/- 2 Hz+/- 3 Hz+/- 4 Hz (Default)
Load --		Set UPS overload percentage (40~100%)100% (Default)Set UPS load unbalance percentage (20~100%)100% (Default)

4. Control Panel and LCD Operations

4.2.5.5 Setup Parallel Screen

Touch the "PARALLEL" tab to access the parallel function page. Refer to Table 4.11 for Setup Parallel Setting List.

GENERAL SYSTEM BATTERY PRE-ALARM PARALLEL SYSTEM ON Standby Mode UPS Parallel —— Disable Independent Battery —— Disable L1 0% L2 0% L3 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

Figure 4.18 Setup Parallel Screen

Touch the "SYSTEM" tab to access the parallel or redundancy options.

(a) Paralleling two S3MX units for power. (b) Paralleling two S3MX units for redundancy, where each UPS is carrying 50% of the load. If one UPS goes down, the other will take over the full load.

GENERAL SYSTEM BATTERY PRE-RLAM PARALLEL SYSTEM ON Standby Mode Output Voltage Dynamos Setting Converter Mode ECF Mode Dynamos Mode Auto-Restars Cold Start Battery Mode Delay Time Shutdown/Restore Charger Test Redundancy Total UPS 2 0 Redundancy ESC HOME CONTROL REQUIREMENT SBUF INFORMATION EVENT 12:00 2018/01/01

GENERAL SYSTEM BATTERY PRE-ALARM PARALLEL SYSTEM ON Standby Mode Output Voltage Bypass Setting Converter Mode ECO Mode Bypass Mode Auto-Restart Cold Start Battery Mode Delay Time Shutdown/Restore Charger Test Refurbency Total UPS 2 1 Refrumbency ESC NONE CONTROL MEASUREMENT SUPPORT INFORMATION EVENT 12:00 2018/01/01

Figure 4.19 Parallel Two Units Figure 4.20 Redundancy Across Two Units

Table 4.11: Setup Parallel Setting List

Setting Item Sub Item Explanation
UPS Parallel --		Set UPS ParallelDisable (Default)Enable
Independent Battery --		Set Independent BatteryDisable (Default)Enable

4. Control Panel and LCD Operations

4.2.6 Information Screen

Touch 📋 to enter the submenu. In this screen, you can check the UPS configurations. There are three submenus: Identification, System and Battery.

graph TD
    A["INFORMATION"] --> B["Identification"]
    A --> C["System"]
    A --> D["Battery"]

Figure 4.21 Information Menu

4.2.6.1 INFORMATION - Identification Screen

When the Identification submenu is selected, the Model Name, Serial No. and Firmware Version will display. Use the UP and DOWN arrows to switch between pages.

IDENTIFICATION SYSTEM BATTERY Model Name XXXXXXXXXX Serial No. XXXXXXXXXXXXXXX Display#50 Firmware Version (XX) XX.XX STS#50 Firmware Version XX.XX STS#— Firmware Version XX.XX Module#00 DSP Firmware Version XX.XX Module#00 MCU Firmware Version XX.XX Module#00 Serial No. XXXXXXXXXXXXXXX SYSTEM ON Standby Mode L1 0% L2 0% L3 0% PAGE>> 1 HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

Figure 4.22 Identification Screen Page

4.2.6.2 INFORMATION - System Screen

When the System submenu is selected, information such as the system power, nominal voltage, nominal frequency, etc. will display. Use the UP and DOWN arrows to switch between pages.

IDENTIFICATION SYSTEM BATTERY Nominal Power (KVA) XXX Nominal AC Voltage (V) 230.0 Nominal Frequency (Hz) 50.0 Number of UPS 1 Number of UPS for Redundancy 0 System Installed Date 2018/01/01 System Last Maintain Date 2018/01/01 ECO Mode Disable Converter Mode Disable Battery Mode Shutdown Delay Disable SYSTEM ON Standby Mode L1 0% 0% 0% 0% PAGE>> 1 HOME CONTROL MEASRENCY INFO INFORMATION EVENT 12:00 2018/01/01

IDENTIFICATION SYSTEM BATTERY Auto-Restart Enable Power by Bypass Disable Cold Start Disable Language English COM Port0 Baud Rate 2400 COM Port1 Baud Rate 2400 UPS Parallel Disable Independent Battery Disable Screen Saving Disable SYSTEM ON Standby Mode 0% 0% 0% PAGE» 2 HOME CONTROL MEASUREMENT SCUL INFORMATION EVENT 12:00 2018/01/01

Figure 4.23 INFORMATION System Screen Page 1 Figure 4.24 INFORMATION System Screen Page 2

4. Control Panel and LCD Operations

4.2.6.3. INFORMATION - Battery Screen

When the Battery submenu is selected, information such as battery, capacity, charging current, etc., will display.

IDENTIFACATION SYSTEM BATTERY Battery Capacity in Ah(Ah) 9 Maximum Charging Current(A) 2 Battery Low Voltage(V) 10.5 Battery Low Capacity(%) 30 Battery Shutdown Voltage(V) 11.0 Periodic Battery Test Disable Battery Installed Date 2015/01/01 Battery Last Maintain Date 2015/01/01 Charging Voltage(V) 2.35 Float Voltage(V) 2.29 SYSTEM ON Standby Mode L1 0% L2 0% L3 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

Figure 4.25 INFORMATION Battery Screen Page

4.2.7 Event Screen

When an event occurs, 4.27 for the menu tree.

will flash on the main screen. You also can touch to check the latest events and history. Refer to Figure

graph TD
    A["STS"] --> B["AC/DC"]
    B --> C["DC/AC"]
    C --> D["LOAD"]
    D --> E["85%"]
    F["Ground"] --> G["230.0V L1 L2 L3"]
    G --> H["230.0V 230.0V"]
    H --> I["STS"]
    I --> J["1 0% L2 0% L3 0%"]
    J --> K["LOAD"]

Figure 4.26 Alarm Warning Screen

graph TD
    A["EVENTS"] --> B["Current Events"]
    A --> C["History Events"]
    A --> D["Reset All Events"]

Figure 4.27 Events Menu

4. Control Panel and LCD Operations

4.2.7.1 Current Events

When an event occurs, it will display the power stage ID* and alarm code on the Current Events screen. Up to 50 events can be saved, though only 10 events are listed per page. If more than 10 events are exceeded, touch PAGE>> to scroll to other events on the list.

Note: Refer to section 3.2 Open Front Panel to identify power stage ID.

CURRENT EVENT HISTORY EVENT RESET ALL EVENTS 1. Warning! EEPROM Fail #08 2. Warning! Communicate CAN Fail #00 3. Warning! Battery Open #00 4. Warning! Battery Open #01 5. Warning! Module Un-Lock #00 6. Warning! Module Un-Lock #01 7. 8. 9. 10. SYSTEM ON Standby Mode ! L1 0% L2 0% L3 0% PAGE>> 1 HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

Figure 4.28 Current Events Screen

4.2.7.2 History Events

Detailed event information is saved in HISTORY EVENT. Up to 500 events can be saved. When a warning occurs, it will display the alarm code, alarm time and power stage ID (refer to section 3.2 Open Front Panel to identify power stage ID). When a fault event occurs, it will display the alarm description, alarm time and power stage ID (refer to Table 4.12). In order to record more historical information about the UPS system, the important changes in setting (Table 4.13), UPS operation mode changes (Table 4.14) and control action execution (Table 4.15) will be saved in HISTORY EVENT. Refer to Figure 4.29 for details.

CURRENT EVENT HISTORY EVENT RESET ALL EVENTS 1. Warning! EEPROM Fail #08 2015/10/21 10:47:58 2. Warning! Communicate CAN Fail #00 2015/10/21 10:47:58 3. Warning! Battery Open #00 2015/10/21 10:47:50 4. Warning! Battery Open #01 2015/10/21 10:47:50 5. Warning! Module Un-Lock #00 2015/10/21 10:42:11 6. Warning! Module Un-Lock #01 2015/10/21 10:42:11 7. Fault! Battery Fault #01 2015/10/19 09:21:36 8. Fault! Battery Fault #00 2015/10/19 09:21:36 9. Fault! BUS Soft Start Line Loss #01 2015/09/07 12:04:45 10. Fault! BUS Soft Start Line Loss #01 2015/09/07 12:04:45 SYSTEM ON Standby Mode L1 0% L2 0% L3 0% PAGE >> 1 HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

Figure 4.29 History Events Screen

4. Control Panel and LCD Operations

4.3 Alarm List

Table 4.12 provides the complete list of UPS alarm messages.

Messages in the LCD Explanation
Fault! Bus Over Voltage DC bus voltage is too high.
Fault! Bus Under Voltage DC bus voltage is too low.
Fault! Bus Voltage Unbalance DC bus voltage is not balanced.
Fault! Bus Short DC bus is short.
Fault! Bus Soft Start Time Out The rectifiers cannot start due to low DC bus voltage within specified duration.
Fault! Inverter Soft Start Time Out Inverter bus voltage cannot reach desired voltage within specified duration.
Fault! Inverter Voltage Over Inverter Voltage is over Peak Value.
Fault! Inverter Voltage High Inverter Voltage is too high.
Fault! Inverter Voltage Low Inverter Voltage is too low.
Fault! R Inverter Voltage Short R phase inverter Output is short-circuited.
Fault! S Inverter Voltage Short S phase inverter Output is short-circuited.
Fault! T Inverter Voltage Short T phase inverter Output is short-circuited.
Fault! RS Inverter Voltage Short R-S inverter Output is short-circuited.
Fault! ST Inverter Voltage Short S-T inverter Output is short-circuited.
Fault! TR Inverter Voltage Short T-R inverter Output is short-circuited.
Fault! Inverter R Negative Power R phase inverter Output Negative Power over range.
Fault! Inverter S Negative Power S phase inverter Output Negative Power over range.
Fault! Inverter T Negative Power	T phase inverter Output Negative Power over range.
Fault! Over Load Fault	Heavy overload causes UPS fault.
Fault! Battery Fault	Batteries reversed.
Fault! Over Temperature	Make sure adequate space is allowed for air ventilation and that the fan is working.
Fault! CAN Fault	CAN communication fault.
Fault! TRIGO Fault	Synchronised trigger signal fault.
Fault! Relay Fault	Inverter relay fault.
Fault! Line SCR Fail	Line SCR short circuit fault.
Fault! EEPROM Fault	EEPROM operation error.
Fault! Parallel Cable Loose Fault	As stated.
Fault! DSP MCU Stop Communicate	As stated.
Fault! Bypass Temperature Fault	As stated
Fault! Bypass SCR Fault	As stated.
Line Fail	Utility lost or abnormal.
Line Restore	Utility recovered to normal.
Warning! EPO Active	Check the EPO connector.
Warning! Over Load Fail	The load devices are demanding more power than the UPS can supply. Line Mode will transfer to Bypass Mode.
Warning! Communicate CAN Fail	CAN communication error.
Warning! Over Load	When in Line Mode, the load devices are demanding more power than the UPS can supply.
Warning! Battery Open	Battery not connected.
Warning! Battery voltage High	Battery voltage is too high.
Warning! Turn On Abnormal	As stated.
Warning! Charge Fail	As stated.
Warning! EEPROM Fail	EEPROM operation error.
Warning! Fan Lock	As stated.
Warning! Line Phase Error	As stated.
Warning! Bypass Phase Error	As stated.
Warning! N Loss Neutral loss.
Warning! Internal Initial Fail	As stated.
Warning! Comm Syn Signal Fail	Communicate Synchronization Signal Fail.
Warning! Comm. TRIGO Fail	Communicate Trigger signal fault.
Warning! Power Stage loss	Power stage is not detected.
Warning! Parallel Sys Config. Wrong	Parallel System Configure error.
Warning! Maintenance Bypass	Enter maintenance.
Warning! Battery Age Alert	Battery Life expiration.
Warning! Parallel UPS Cable Loose	As stated.

4. Control Panel and LCD Operations

Messages in the LCD Explanation
Warning! Parallel UPS Config. Wrong	Parallel UPS Configure error.
Warning! Battery Voltage Low Battery	voltage is too low.
Warning! ID Conflict Power stage ID in	conflict.
Warning! Redundancy Set Fail As stated.
Pre-Alarm! Line Voltage Fail Line voltage over range.
Pre-Alarm! Line Voltage Normal Line voltage recovered to normal.
Pre-Alarm! Line Frequency Unstable Line frequency over range.
Pre-Alarm! Line Frequency Normal Line frequency recovered to normal.
Pre-Alarm! Over Load Output Load over range.
Pre-Alarm! Load Normal Output Load recovered to normal.
Pre-Alarm! Load Unbalance Output Load unbalance.

4.4 History Record

Table 4.13: Warning List For Changing Important Settings

Item No.	Description	Item No.	Description
1	Setup! Model Name	2	Setup! Turn On Password
3	Setup! Language	4	Setup! Change Turn On Password
5	Setup! Adjust Time	6	Setup! Nominal Power Display
7	Setup! System Installed Date	8	Setup! Output Voltage
9	Setup! System Last Maintain Date	10	Setup! Bypass Voltage Range
11	Setup! Battery Installed Date	12	Setup! Bypass Frequency Range
13	Setup! Battery Last Maintain Date	14	Setup! Converter Mode
15	Setup! Change Password	16	Setup! ECO Mode
17	Setup! Baud Rate	18	Setup! Bypass Mode
19	Setup! Audible Alarm	20	Setup! Auto-Restart
21	Setup! Factory Reset	22	Setup! Cold Start
23	Setup! EEPROM Reset	24	Setup! Battery Mode Delay Time
25	Setup! EPO Function	26	Setup! Shutdown Restore Time
27	Setup! Save Setting	28	Setup! Redundancy
29	Setup! Power Rating Setting	30	Setup! Charger Test
31	Setup! Nominal Battery Voltage	32	Setup! Battery Capacity in Ah
33	Setup! Maximum Charging Current	34	Setup! Battery Low Voltage
35	Setup! Battery Low Capacity	36	Setup! Battery Shutdown Voltage
37	Setup! Periodic Battery Test	38	Setup! Stop By Time
39	Setup! BATTERY Age Alert	40	Setup! Temperature Compensation
41	Setup! Charging Voltage	42	Setup! PRE-ALARM
43	Setup! UPS Parallel	44	Setup! Independent Battery
45	Setup! Auto-Restart Battery Voltage

Table 4.14: UPS Mode Changes

Item No.	Description	Item No.	Description
1	UPS Mode! Power On Mode	2	UPS Mode! Standby Mode
3	UPS Mode! Bypass Mode	4	UPS Mode! Line Mode
5	UPS Mode! Battery Mode	6	UPS Mode! Battery Test Mode
7	UPS Mode! Fault Mode	8	UPS Mode! Converter Mode
9	UPS Mode! ECO Mode	10	UPS Mode! Shutdown Mode
11	UPS Mode! Un-Connection

Table 4.15: Control Action Execution

Item No.	Description	Item No.	Description
1	Control! System Turn On	2	Control! System Turn Off
3	Control! Manual Battery Test	4	Control! Cancel Battery Test
5	Control! Turn To Bypass	6	Control! Shutdown Restore
7	Control! Cancel Shutdown	8	Control! Charger Turn On
9	Control! Charger Turn Off

5. Interface and Communication

The front panel contains a Battery Temperature sensor port, two Emergency Power Off Ports, a communication port (RS-232/USB), SNMP card slot and an extra communication card slot.

X1 X2 SNMP Card Slot RS 232 Port USB Port

Figure 5.1 Dry Contact Ports and Communication Ports

Dry Contact No. Function

X1 Battery Temperature Detection Thermostat Port

X2 Remote EPO Input Port

5.1. X1 - Temperature Detection Port for External Battery Pack

The UPS is equipped with a battery temperature detection function. The UPS can receive a battery temperature signal through the temperature detection thermostat board. Communication between the UPS and battery temperature detection thermostat board is via I2C communication protocol. X1 is the battery temperature detection port. The port is shown in Figure 5.2 and described in Table 5.1.

SCL SDA +3V X1 X1.1 X1.2 X1.3 X1.4

Figure 5.2 Battery Temperature Detection Port

Table 5.1 Description of Battery Temperature Detection Port

Name Position Description
SCL X1.1 I2C communication SCL Signal
SDA X1.2 I2C communication SDA Signal
+3.0V X1.3 3V
Power GND X1.4 GND

5. Interface and Communication

5.2 X2 - Remote EPO Input Port

The UPS is equipped with Emergency Power Off (EPO) Function that can be operated by a remote contact assigned by the users. EPO is defaulted to Normally Closed (N.C.).

Note: The open contact activates EPO function.

Users may change the setting to Normally Open via the LCD display.

X2 is the remote EPO input port. This port is shown in Figure 5.3 and described in Table 5.2.

+12V X2 X2.1 X2.2

Figure 5.3 Remote EPO Input Port

Table 5.2 Description of Remote EPO Port

EPO Logic Setting Position Description
N.C X2.1 and X2.2 EPO activated when Opened X2.1 and X2.2
N.O X2.1 and X2.2 EPO activated when Shorted X2.1 and X2.2

If EPO Logic setting is Normally Closed (N.C), the EPO will be triggered when pins 1 and pin 2 of X1 are opened. Otherwise, EPO Logic setting is Normal Opened (N.O). The EPO will be triggered when pins 1 and pin 2 of X2 are closed.

Notes:

1. EPO function shuts down the rectifiers, chargers, inverters and static transfer switch, but it does not internally disconnect the input power supply.
2. The default setting of the EPO function logic is Normal Closed (N.C).
3. A user-supplied REPO button must be latching type and in a normally closed position.

5.3 Other Communication Interfaces

5.3.1 RS-232 Port

The RS-232 port is located on the panel behind the front door. The RS-232 port provides service support when upgrading the UPS software to a different revision.

5.3.2 USB Port

This port is for service purposes only.

Note: The RS232 and USB ports WILL NOT work simultaneously.

5.3.3. SNMP Slot for Monitoring Using WEBCARDLX (Optional cards)

Install an optional WEBCARDLX card in this slot to remotely monitor and control the UPS via network. The RELAYCARDSV may also be inserted in this slot to provide dry contact I/P and O/P signals and temperature sensors communication functionality. Refer to the WEBCARDLX and RELAYCARDSV manuals for further details.

Note: Only one card may be used at a time.

6. Operation Principles

6.1 UPS Block Diagram

graph TD
    A["Input Breaker"] --> B["Static Switch"]
    B --> C["UPS Module"]
    C --> D["Output Breaker"]
    D --> E["Maintenance Breaker"]
    E --> F["Rect Inv"]
    F --> G["Charger"]
    G --> C
    C --> H["UPS Module"]
    H --> I["Charge"]
    I --> J["Bat Module"]
    J --> K["Input 1/2 Input 2"]
    style A fill:#99ccff,stroke:#333
    style B fill:#99ccff,stroke:#333
    style C fill:#99ccff,stroke:#333
    style D fill:#99ccff,stroke:#333
    style E fill:#99ccff,stroke:#333
    style F fill:#666,stroke:#333
    style G fill:#666,stroke:#333
    style H fill:#666,stroke:#333
    style I fill:#666,stroke:#333
    style J fill:#99ccff,stroke:#333
    style K fill:#99ccff,stroke:#333

Figure 6.1 Wiring Diagram for a Standard Single Input UPS

graph TD
    subgraph_Input_1["Input 1input2"]
        L1["L1"] --> Input_Breaker["Input Breaker"]
        L2["L2"] --> Input_Breaker
        L3["L3"] --> Input_Breaker
    end
    subgraph_Input_2["Input 2input2"]
        N["N"] --> Input_Breaker
        L1["L1"] --> Input_Breaker
        L2["L2"] --> Input_Breaker
        L3["L3"] --> Input_Breaker
    end
    subgraph_Static_Switch["Static Switch"]
        N --> UPS_module["UPS Module"]
        L1 --> UPS module
        L2 --> UPS module
        L3 --> UPS module
    end
    UPS module --> UPS_module1["UPS Module"]
    UPS module1 --> UPS_module2["UPS Module"]
    UPS module2 --> UPS_module3["UPS Module"]
    UPS module3 --> UPS_module4["UPS Module"]
    UPS module4 --> UPS_module5["UPS Module"]
    UPS module5 --> UPS_module6["UPS Module"]
    UPS module6 --> UPS_module7["UPS Module"]
    UPS module7 --> UPS_module8["UPS Module"]
    UPS module8 --> UPS_module9["UPS Module"]
    UPS module9 --> UPS_module10["UPS Module"]
    UPS module10 --> UPS_module11["UPS Module"]
    UPS module11 --> UPS_module12["UPS Module"]
    UPS module12 --> UPS_module13["UPS Module"]
    UPS module13 --> UPS_module14["UPS Module"]
    UPS module14 --> UPS_module15["UPS Module"]
    UPS module15 --> UPS_module16["UPS Module"]
    UPS module16 --> UPS_module17["UPS Module"]
    UPS module17 --> UPS_module18["UPS Module"]
    UPS module18 --> UPS_module19["UPS Module"]
    UPS module19 --> UPS_module20["UPS Module"]
    UPS module20 --> UPS_module21["UPS Module"]
    UPS module21 --> UPS_module22["UPS Module"]
    UPS module22 --> UPS_module23["UPS Module"]
    UPS module23 --> UPS_module24["UPS Module"]
    UPS module24 --> UPS_module25["UPS Module"]
    UPS module25 --> UPS_module26["UPS Module"]
    UPS module26 --> UPS_module27["UPS Module"]
    UPS module27 --> UPS_module28["UPS Module"]
    UPS module28 --> UPS_module29["UPS Module"]
    UPS module29 --> UPS_module30["UPS Module"]
    UPS module30 --> UPS_module31["UPS Module"]
    UPS module31 --> UPS_module32["UPS Module"]
    UPS module32 --> UPS_module33["UPS Module"]
    UPS module33 --> UPS_module34["UPS Module"]
    UPS module34 --> UPS_module35["UPS Module"]
    UPS module35 --> UPS_module36["UPS Module"]
    UPS module36 --> UPS_module37["UPS Module"]
    UPS module37 --> UPS_module38["UPS Module"]
    UPS module38 --> UPS_module39["UPS Module"]
    UPS module39 --> UPS_module40["UPS Module"]
    UPS module40 --> UPS_module41["UPS Module"]
    UPS module41 --> UPS_module42["UPS Module"]
    UPS module42 --> UPS_module43["UPS Module"]
    UPS module43 --> UPS_module44["UPS Module"]
    UPS module44 --> UPS_module45["UPS Module"]
    UPS module45 --> UPS_module46["UPS Module"]
    UPS module46 --> UPS_module47["UPS Module"]
    UPS module47 --> UPS_module48["UPS Module"]
    UPS module48 --> UPS_module49["UPS Module"]
    UPS module49 --> UPS_module50["UPS Module"]
    UPS module50 --> UPS_module51["UPS Module"]
    UPS module51 --> UPS_module52["UPS Module"]
    UPS module52 --> UPS_module53["UPS Module"]
    UPS module53 --> UPS_module54["UPS Module"]
    UPS module54 --> UPS_module55["UPS Module"]
    UPS module55 --> UPS_module56["UPS Module"]
    UPS module56 --> UPS_module57["UPS Module"]
    UPS module57 --> UPS_module58["UPS Module"]
    UPS module58 --> UPS_module59["UPS Module"]
    UPS module59 --> UPS_module60["UPS Module"]
    UPS module60 --> UPS_module61["UPS Module"]
    UPS module61 --> UPS_module62["UPS Module"]
    UPS module62 --> UPS_module63["UPS Module"]
    UPS module63 --> UPS_module64["UPS Module"]
    UPS module64 --> UPS_module65["UPS Module"]
    UPS module65 --> UPS_module66["UPS Module"]
    UPS module66 --> UPS_module67["UPS Module"]
    UPS module67 --> UPS_module68["UPS Module"]
    UPS module68 --> UPS_module69["UPS Module"]
    UPS module69 --> UPS_module70["UPS Module"]

Figure 6.2 Wiring Diagram for Dual Inputs (Offered on a Different S3MX UPS Model)

6. Operation Principles

6.2 Operation Modes

This UPS is a 3-phase, four wire on-line, double-conversion and reverse-transfer UPS that permits operation in the following modes:

- Standby Mode

- Line Mode

- Battery Mode

- Bypass Mode

- Converter Mode

- ECO Mode

- Shutdown Mode

- Maintenance Bypass Mode (Manual Bypass)

6.2.1 Standby Mode

The UPS will enter Standby Mode (if BYPASS is disabled) until the UPS is turned on. When the UPS is powered on in Standby Mode, the charger function will be active when the battery is connected. The load is not powered under this mode.

graph TD
    subgraph Single Input
        A["Main"] --> B["Q1 Input Breaker"]
        B --> C["Rectifier"]
        C --> D["Inverter"]
        D --> E["Inverter Relay"]
        E --> F["Q3 Output Breaker"]
        F --> G["Load ~"]
        H["Battery Breaker"] --> C
    end

    subgraph Dual Inputs
        I["Bypass"] --> J["Q2 Bypass Breaker"]
        J --> K["Rectifier"]
        K --> L["Inverter"]
        L --> M["Inverter Relay"]
        M --> N["Q3 Output Breaker"]
        N --> O["Load ~"]
        P["Main"] --> Q["Q1 Input Breaker"]
        Q --> R["Battery Breaker"]
        R --> S["Inverter"]
        S --> T["Inverter Relay"]
        T --> U["Q3 Output Breaker"]
        U --> V["Load ~"]
    end

    C --> W["Battery Breaker"]
    D --> X["Inverter Relay"]
    K --> Y["Inverter Relay"]
    style Single Input fill:#f9f,stroke:#333
    style Dual Inputs fill:#bbf,stroke:#333

Standby Mode Diagrams

6. Operation Principles

6.2.2 Line Mode

In Line Mode, the rectifier delivers power from the mains and supplies DC power to the inverter and the charger charges the battery. The inverter filters the DC power and converts it into pure, stable AC power to power the load.

graph TD
    subgraph Single Input
        A["Main"] --> B["Input Breaker"]
        B --> C["Rectifier"]
        C --> D["Inverter"]
        D --> E["Inverter Relay"]
        E --> F["Output Breaker"]
        F --> G["Load"]
    end

    subgraph Dual Inputs
        H["Bypass"] --> I["Input Breaker"]
        I --> J["Rectifier"]
        J --> K["Inverter"]
        K --> L["Inverter Relay"]
        L --> M["Output Breaker"]
        M --> N["Load"]
    end

    C --> O["Battery Breaker"]
    D --> P["STS"]
    Q["Q1"] --> C
    R["Q2"] --> J
    S["Q3"] --> M
    T["Q4"] --> U["Maintenance Breaker"]
    V["STS"] --> W["Inverter"]
    X["Inverter Relay"] --> Y["Output Breaker"]
    Z["Bypass Breaker"] --> I
    AA["Bypass Breaker"] --> J
    AB["Bypass Breaker"] --> K
    AC["Bypass Breaker"] --> L
    AD["Bypass Breaker"] --> M

Line Mode Diagrams

6. Operation Principles

6.2.3 Battery Mode

The UPS automatically transfers to Battery Mode if the Utility fails. There is no interruption to the load upon failure. In Battery Mode, the rectifier delivers power from the battery and supplies DC power to the inverter. The inverter filters the DC power and converts it into pure and stable AC power to power the load.

graph TD
    subgraph Single Input
        A["Main"] --> B["Input Breaker"]
        B --> C["Rectifier"]
        C --> D["Inverter"]
        D --> E["Output Breaker"]
        E --> F["Load"]
        G["Battery Breaker"] --> C
    end

    subgraph Dual Inputs
        H["Bypass"] --> I["Input Breaker"]
        I --> J["Rectifier"]
        J --> K["Inverter"]
        K --> L["Output Breaker"]
        L --> M["Load"]
        N["Battery Breaker"] --> J
        O["Bypass Breaker"] --> J
        P["STS"] --> Q["Rectifier"]
        Q --> R["Inverter"]
        R --> S["Output Breaker"]
        S --> T["Load"]
        U["Bypass"] --> V["Input Breaker"]
        W["Bypass"] --> X["Rectifier"]
        Y["Bypass"] --> Z["Inverter"]
        AA["Bypass"] --> AB["Output Breaker"]
    end

    C --> Q
    D --> R
    J --> K
    L --> M
    style Single Input fill:#f9f,stroke:#333
    style Dual Inputs fill:#bbf,stroke:#333

Battery Mode Diagrams

6. Operation Principles

6.2.4 Frequency Conversion Mode

When the UPS is manually set in Converter Mode, the output frequency can be set as 50 Hz or 60 Hz. After the output frequency is set up, the system will automatically disable the bypass function. Once the inverter shuts down, there is no bypass output. During Converter Mode, the NORMAL LED indicator (NORMAL) illuminates (green).

graph LR
    MAINS["MAINS"] --> Rectifier["Rectifier"]
    Rectifier --> Inverter["Inverter"]
    Inverter --> LOAD["LOAD"]
    Batteries["Batteries"] --> Rectifier
    Rectifier --> Inverter
    Inverter --> LOAD

Frequency Conversion Mode Diagram

6. Operation Principles

6.2.5 Bypass Mode

Upon connecting to utility input power, the UPS is in Bypass Mode before the UPS is turned on (if BYPASS setting is enabled), and charger function will be active when battery is connected.

If the UPS has been turned on and encounters abnormal situations (over-temperature, overload, etc.), the static transfer switch will transfer the load from the inverter to the bypass source with no interruption. If the transference was caused by a recoverable reason, the UPS will return to Line Mode once the situation has been resolved.

graph TD
    subgraph Dual Inputs
        A["Main"] --> B["Input Breaker"]
        B --> C["Rectifier"]
        C --> D["Inverter"]
        D --> E["Output Breaker"]
        E --> F["Load"]
        G["Bypass"] --> H["Input Breaker"]
        H --> I["Rectifier"]
        I --> J["Inverter"]
        J --> K["Output Breaker"]
        K --> L["Load"]
        M["STS"] --> N["Rectifier"]
        N --> O["Inverter"]
        O --> P["Output Breaker"]
        Q["Battery Breaker"] --> R["Ground"]
    end
    style Dual Inputs fill:#f9f,stroke:#333
    style Dual Inputs fill:#ccf,stroke:#333

Bypass Mode Diagrams

6. Operation Principles

6.2.6 ECO Mode

ECO Mode can be enabled through the LCD control panel. In ECO Mode, the load is diverted to bypass when the bypass voltage and frequency are within their acceptable range. If the bypass voltage is out of range, the UPS will transfer the power source from bypass to inverter. In order to shorten the transfer time, the rectifier and inverter will be operating when the UPS is in ECO Mode.

graph LR
    A["Main"] --> B["Q1 Input Breaker"]
    B --> C["Rectifier"]
    C --> D["Inverter"]
    D --> E["Inverter Relay"]
    E --> F["Q3 Output Breaker"]
    F --> G["Load"]
    H["Q4 Maintenance Breaker"] --> I["STS"]
    I --> C
    J["Battery Breaker"] --> K["- + "]
    L["Ground"] --> M["Ground"]

graph TD
    A["Dual Inputs"] --> B["Bypass"]
    B --> C["Q2"]
    C --> D["Rectifier"]
    D --> E["Inverter"]
    E --> F["Q3 Output Breaker"]
    F --> G["Load"]
    H["Main"] --> I["Q1 Input Breaker"]
    I --> J["Battery Breaker"]
    J --> K["- + "]
    L["STS"] --> D
    M["Q4 Maintenance Breaker"] --> C
    N["Inverter Relay"] --> F

ECO Mode Diagrams

6. Operation Principles

6.2.7 Shutdown Mode

When the UPS is in the off state and utility power source is absent, the UPS will enter Shutdown Mode. When the utility power source is absent and the UPS has discharged the batteries to the cut-off voltage level of 10V/battery at 25C, the UPS will also enter into a Shutdown Mode. When the UPS enters this mode, it will shut off the control power of the UPS and rectifier, and shut down the charger and inverter.

graph TD
    subgraph Single Input
        A["Main"] --> B["Input Breaker"]
        B --> C["Rectifier"]
        C --> D["Inverter"]
        D --> E["Inverter Relay"]
        E --> F["Output Breaker"]
        F --> G["Load"]
        H["Battery Breaker"] --> I["-+"]
    end

    subgraph Dual Inputs
        J["Bypass"] --> K["Input Breaker"]
        K --> L["Rectifier"]
        L --> M["Inverter"]
        M --> N["Output Breaker"]
        N --> O["Load"]
        P["Battery Breaker"] --> Q["Input Breaker"]
        Q --> R["Battery Breaker"]
        R --> S["-+"]
    end

    Q --> T["Inverter Relay"]
    T --> U["Output Breaker"]
    U --> V["Load"]

    style Single Input fill:#f9f,stroke:#333
    style Dual Inputs fill:#bbf,stroke:#333

Shutdown Mode Diagrams

6. Operation Principles

6.2.8 Maintenance Bypass Mode

A manual bypass switch is available to ensure continuity of supply to the critical load when the UPS becomes unavailable (e.g. during a maintenance procedure). Before entering the Maintenance Bypass Mode, make sure the bypass power source is available.

graph TD
    subgraph Single Input
        A["Main"] --> B["Input Breaker"]
        B --> C["Rectifier"]
        C --> D["Inverter"]
        D --> E["Inverter Relay"]
        E --> F["Output Breaker"]
        F --> G["Load"]
        H["Battery Breaker"] --> I["Ground"]
    end

    subgraph Dual Inputs
        J["Bypass"] --> K["Input Breaker"]
        K --> L["Rectifier"]
        L --> M["Inverter"]
        M --> N["Inverter Relay"]
        N --> O["Output Breaker"]
        O --> P["Load"]
        Q["Q1"] --> R["Input Breaker"]
        S["Q2"] --> T["Inverter"]
        U["Q3"] --> V["Output Breaker"]
        W["Battery Breaker"] --> X["Ground"]
    end

    style Single Input fill:#f9f,stroke:#333
    style Dual Inputs fill:#bbf,stroke:#333

Maintenance Bypass Mode Diagrams

7. UPS Operation

WARNING

• Do not start the UPS until the installation is completed.
• Make sure the wiring is connected correctly and power cables are firmly fixed.
• Make sure the Power Stages' addresses have been configured correctly. Refer to section 3.3 and Table 3.1 for details.
  • Make sure all breakers are switched OFF.

7.1 AC Startup

Use the following procedures when turning on the UPS from a fully "powered-down" state.

Step 1: Apply utility power to the UPS.

Step 2: Turn ON the battery breaker (external battery cabinet).

Step 3: Turn ON the Input breaker (Q1).

For Dual Input models: Turn ON both the Input breaker (Q1) and Bypass breaker (Q2).

graph TD
    A["STS"] --> B["AC/DC"]
    B --> C["DC/AC"]
    C --> D["LOAD"]
    E["STS"] --> F["0.0V L2 230.0V L3 230.0V"]
    G["AC/DC"] --> H["+ -"]
    I["DC/AC"] --> J["0.0V L2 230.0V L3 230.0V"]
    K["85%"] --> L["Ground"]

Step 4: Wait one minute. The LCD panel is displayed as shown below. The UPS will enter Bypass Mode if the setting of Bypass Mode is enabled (default setting). If Bypass Mode is disabled, the UPS will remain in Standby Mode.

graph TD
    A["STS"] --> B["AC/DC"]
    B --> C["DC/AC"]
    C --> D["LOAD"]
    D --> E["85%"]
    F["Ground"] --> G["+"]
    H["Ground"] --> I["-"]
    J["Ground"] --> K["Ground"]
    style A fill:#f9f,stroke:#333
    style B fill:#ccf,stroke:#333
    style C fill:#cfc,stroke:#333
    style D fill:#fcc,stroke:#333
    style E fill:#ffc,stroke:#333
    style F fill:#fff,stroke:#333
    style G fill:#fff,stroke:#333
    style H fill:#fff,stroke:#333
    style I fill:#fff,stroke:#333
    style J fill:#fff,stroke:#333
    style K fill:#fff,stroke:#333

7. UPS Operation

Step 5: Make sure there are no warning or fault events recorded. However, if there is a warning or fault event, please refer to 8. Troubleshooting to resolve the issue.

Step 6: Turn ON the Output breaker (Q3).

graph TD
    A["Power Supply"] --> B["STS"]
    C["AC/DC"] --> D["DC/AC"]
    B --> E["LOAD"]
    D --> E
    E --> F["0% 0% 0%"]
    G["85% Threshold"] --> H["Ground"]
    I["12:00"] --> J["Event"]

graph TD
    A["BYPASS"] --> B["INV"]
    B --> C["LOAD"]
    D["LINE"] --> B
    E["BATT"] --> B
    F["FAULT"] --> G["ALARM"]
    H["POWER"] --> I["Power"]

Power On/Off button

Step 7: Press the Power ON/OFF button for two seconds until a beep is heard, then release to start the inverter.

graph TD
    A["AC DC"] --> B["DC AC"]
    B --> C["LOAD"]
    D["STS"] --> C
    E["85%"] --> F["Ground"]
    G["1 230.0V L2 230.0V L3 230.0V"] --> H["Control"]
    I["1 230.0V L2 230.0V L3 230.0V"] --> J["Measurement"]
    K["1 230.0V L2 230.0V L3 230.0V"] --> L["SETUP"]
    M["1 230.0V L2 230.0V L3 230.0V"] --> N["Information"]
    O["1 230.0V L2 230.0V L3 230.0V"] --> P["Event"]

Step 8: The UPS is now in Line Mode. AC startup is now complete.

7. UPS Operation

7.2. Cold Start Startup

Step 1: Switch ON the battery breaker (external battery cabinet).

Step 2: Press the "Battery Start" button on any one of power stages to start up the control power.

Battery Start Button

Step 3: After pressing the "Battery Start" button, the UPS will display the initialization screen.

Online UPS BYPASS INV LINE LOAD BATT FAULT ALARM POWER

Step 4: While the UPS is displaying the Online screen, immediately press the "Power On/Off" button for 2 seconds until a beep is heard, then release to start the inverter.

Online UPS BYPASS INV LINE LOAD BATT FAULT ALARM POWER Power On/Off button

7. UPS Operation

Step 5: The UPS will enter Battery Mode.

graph TD
    A["STS"] --> B["AC/DC"]
    B --> C["DC/FAC"]
    C --> D["LOAD"]
    D --> E["BYPASS INV LINE BATT LOAD FAULT ALARM POWER"]
    style A fill:#f9f,stroke:#333
    style B fill:#ccf,stroke:#333
    style C fill:#cfc,stroke:#333
    style D fill:#fcc,stroke:#333

Step 6: Switch ON the output breaker (Q3). The cold start startup procedure is complete.

Step 7: Turn on the Input Breaker (Q1) when utility power is restored and verified OK.

For Dual Input models: Turn ON the Input breaker (Q1) and Bypass breaker (Q2) when utility power is restored and verified OK.

7. UPS Operation

7.3 Maintenance Bypass Operation

Follow the below steps to transfer to maintenance bypass for power stage maintenance and UPS protection.

7.3.1 Transfer Critical Load from Line Mode to Maintenance Bypass

Confirm Bypass Mode is enabled via the LCD display menu prior to performing the Maintenance Bypass procedure.

Step 1	Remove the mechanical locking plate securing the Q4 Maintenance Bypass breaker (all models).
	S3M100KX/S3M100KXD S3M120KX/S3M120KXD (100 kVA/120 kVA) Models	S3M160KX/S3M160KXD S3M200KX/S3M200KXD (160 kVA/200 kVA) Models
Step 2	Confirm the UPS is operating in Bypass Mode.
Step 3	Turn ON the Q4 Maintenance Bypass breaker (all models).
	S3M100KX/S3M100KXD S3M120KX/S3M120KXD (100 kVA/120 kVA) Models	S3M160KX/S3M160KXD S3M200KX/S3M200KXD (160 kVA/200 kVA) Models

7. UPS Operation

Step 4	Turn OFF the Q3 Output breaker.S3M100KX/S3M100KXDS3M120KX/S3M120KXD(100 kVA/200 kVA) Models	Turn OFF the Q3 Output breaker.S3M160KX/S3M160KXDS3M200KX/S3M200KXD(160 kVA/200 kVA) Models
Step 5 Single input model:Turn OFF the Q1 Input 1 breaker.S3M100KXS3M120KX(100 kVA/200 kVA) Models		Single input model:Turn OFF the Q1 Output breaker.S3M160KXS3M200KX(160 kVA/200 kVA) Models
Step 6	The UPS will enter Shutdown Mode and will slowly de-energise. After the UPS powers off, turn OFF the battery breaker (external battery cabinet).
Step 7	The critical load is now supported in Maintenance Bypass Mode.

7. UPS Operation

7.3.2 Transfer Critical Load from Maintenance Bypass to Line Mode

Step 1	Turn ON the battery breaker (external battery cabinet).
Step 2 Single input model:Turn ON the Q1 Input 1 breaker.S3M100KXS3M120KX(100 kVA/200 kVA) Models	Single input model:Turn ON the Q1 Input 1 breaker.S3M160KXS3M200KX(160 kVA/200 kVA) Models
Dual input model (Option):Turn ON the Q1 Input breaker and Q2 Input breaker. S3M100KXD S3M120KXD (100 kVA/200 kVA) Models	Dual input model (Option):Turn ON the Q1 Input breaker and Q2 Input breaker S3M160KXD S3M200KXD (160 kVA/200 kVA) Models
Step 3	Go to the LCD INFORMATION Menu. Choose “SYSTEM” to ensure that Bypass Mode is enabled (“Power By Bypass”). If Bypass Mode is disabled, set it to “enabled” through the SETUP menu and confirm the UPS is operating in Bypass Mode before proceeding.
Step 4	Turn ON the Q3 Output breaker.S3M100KX/S3M100KXDS3M120KX/S3M120KXD(100kVA/120kVA) Models	Turn ON the Q3 Output breaker.S3M160KX/S3M160KXDS3M200KX/S3M200KXD(160 kVA/200 kVA) Models

7. UPS Operation

Step 5	Turn OFF the Q4 Maintenance Bypass breaker (all models).
	S3M100KX/S3M100KXD S3M120KX/S3M120KXD (100 kVA/200 kVA) Models	S3M160KX/S3M160KXD S3M200KX/S3M200KXD (160 kVA/200 kVA) Models
Step 6	Secure the mechanical locking plate to the Q4 Maintenance Bypass breaker (all models).
	S3M100KX/S3M100KXD S3M120KX/S3M120KXD (100 kVA/200 kVA) Models	S3M160KX/S3M160KXD S3M200KX/S3M200KXD (160 kVA/200 kVA) Models
Step 7	Press Power ON/OFF button for 2 seconds until a beep is heard, then release to start the inverter.
Step 8	The critical load is now supported in Line Mode.

7. UPS Operation

7.4 Turn Off Operation

7.4.1 Turn Off Operation in Line Mode

WARNING: The UPS system shutdown procedure will eliminate the AC power output for all loads. Before shutdown, confirm all power loads are turned off.

The LCD diagrams shown below are when the UPS is operating in Line Mode.

graph TD
    A["AC/DC"] --> B["85%"]
    C["DC/AC"] --> D["LOAD"]
    E["STS"] --> F["1 0%"]
    E --> G["2 0%"]
    E --> H["3 0%"]
    I["+"] --> J["Ground"]
    K["STS"] --> L["1 230.0V"]
    K --> M["2 230.0V"]
    K --> N["3 230.0V"]
    O["LOAD"] --> P["1 230.0V"]
    O --> Q["2 230.0V"]
    O --> R["3 230.0V"]

Step 1: Stop the inverter. Press the "Power On/Off" button for 2 seconds until a beep is heard to turn off the UPS, or use the Menu-Control-System. The UPS will transfer to Bypass Mode – or Standby Mode if the Bypass Mode setting is disabled.

graph TD
    A["Power On/Off button"] --> B["BYPASS"]
    B --> C["INV"]
    C --> D["LINE"]
    D --> E["BATT"]
    E --> F["LOAD"]
    F --> G["FAULT ALARM"]
    G --> H["POWER"]
    style A fill:#f9f,stroke:#333
    style B fill:#ccf,stroke:#333
    style C fill:#cfc,stroke:#333
    style D fill:#fcc,stroke:#333
    style E fill:#cff,stroke:#333
    style F fill:#ffc,stroke:#333
    style G fill:#cfc,stroke:#333
    style H fill:#fcc,stroke:#333

7. UPS Operation

The LCD diagram below is showing Bypass Mode (Bypass Mode is enabled).

graph TD
    A["Start"] --> B["StS"]
    B --> C["LOAD"]
    C --> D["+ -"]
    D --> E["A-10C"]
    E --> F["DC-SAG"]
    F --> G["0.0V"]
    F --> H["0.0V"]
    F --> I["0.0V"]
    B --> J["STS 230.0V 230.0V 230.0V"]
    C --> K["LOAD 230.0V 230.0V 230.0V"]

Step 2: Turn off the Output Breaker (Q3).

Step 3: Turn off the Input Breaker (Q1).

For Dual Input models: Turn off the Input Breaker (Q1) and Bypass Breaker (Q2).

Step 4: The UPS will enter Shutdown Mode and slowly de-energise. Wait until the LCD is OFF.

Step 5: After the UPS powers off, switch OFF the external power switch to disconnect the AC power to the UPS.

Step 6: If the UPS will remain disconnected from the AC power for an extended period, switch OFF the battery breaker (external battery cabinet).

7.4.2 Turn Off Operation in Battery Mode

WARNING: The UPS system shutdown procedure will eliminate the AC power output for all loads. Before shutdown, confirm all power loads are turned off.

The LCD diagrams shown below are when the UPS is operating in Battery Mode.

graph TD
    A["STS"] --> B["AC/DC"]
    B --> C["DC/AC"]
    C --> D["LOAD"]
    E["Ground"] --> F["Control"]
    G["Measurement"] --> H["Setup"]
    I["Information"] --> J["Launch"]
    K["Device"] --> L["12:00 2018/01/01"]
    M["Power Supply"] --> N["0.0V 0.0V 0.0V"]
    O["Current Power Supply"] --> P["0.0V 0.0V 0.0V"]
    Q["Current Power Supply"] --> R["0.0V 0.0V 0.0V"]
    S["Current Power Supply"] --> T["0.0V 0.0V 0.0V"]
    U["Current Power Supply"] --> V["0.0V 0.0V 0.0V"]
    W["Current Power Supply"] --> X["0.0V 0.0V 0.0V"]
    Y["Current Power Supply"] --> Z["0.0V 0.0V 0.0V"]
    AA["Current Power Supply"] --> AB["0.0V 0.0V 0.0V"]
    AC["Current Power Supply"] --> AD["0.0V 0.0V 0.0V"]
    AE["Current Power Supply"] --> AF["0.0V 0.0V 0.0V"]
    AG["Current Power Supply"] --> AH["0.0V 0.0V 0.0V"]
    AI["Current Power Supply"] --> AJ["0.0V 0.0V 0.0V"]
    AK["Current Power Supply"] --> AL["0.0V 0.0V 0.0V"]
    AM["Current Power Supply"] --> AN["0.0V 0.0V 0.0V"]
    AO["Current Power Supply"] --> AP["0.0V 0.0V 0.0V"]
    AQ["Current Power Supply"] --> AR["0.0V 0.0V 0.0V"]
    AS["Current Power Supply"] --> AT["0.0V 0.0V 0.0V"]
    AU["Current Power Supply"] --> AV["0.0V 0.0V 0.0V"]
    AW["Current Power Supply"] --> AX["0.0V 0.0V 0.0V"]
    AY["STS"] --> AZ["AC/DC"]
    BA["85%"] --> BB["+ -"]
    BC["230.0V"] --> BD["DC/AC"]
    BE["230.0V"] --> BF["DC/AC"]
    BG["230.0V"] --> BH["DC/AC"]
    BI["230.0V"] --> BJ["DC/AC"]
    BK["230.0V"] --> BL["DC/AC"]
    BM["230.0V"] --> BN["DC/AC"]

7. UPS Operation

Step 1: Press the "Power On/Off" button for 2 seconds to turn off the UPS, or use the Menu-Control-System. The UPS will first transfer to Standby Mode, then Shutdown Mode after a few seconds.

graph TD
    A["Power On/Off button"] --> B["12:00"]
    B --> C["12:00"]
    C --> D["12:00"]
    D --> E["12:00"]
    E --> F["12:00"]
    F --> G["12:00"]
    G --> H["12:00"]
    H --> I["12:00"]
    I --> J["12:00"]
    J --> K["12:00"]
    K --> L["12:00"]
    L --> M["12:00"]
    M --> N["12:00"]
    N --> O["12:00"]
    O --> P["12:00"]
    P --> Q["12:00"]
    Q --> R["12:00"]
    R --> S["12:00"]
    S --> T["12:00"]
    T --> U["12:00"]
    U --> V["12:00"]
    V --> W["12:00"]
    W --> X["12:00"]
    X --> Y["12:00"]
    Y --> Z["12:00"]
    Z --> AA["12:00"]
    AA --> AB["12:00"]
    AB --> AC["12:00"]
    AC --> AD["12:00"]
    AD --> AE["12:00"]
    AE --> AF["12:00"]
    AF --> AG["12:00"]
    AG --> AH["12:00"]
    AH --> AI["12:00"]
    AI --> AJ["12:00"]
    AJ --> AK["12:00"]
    AK --> AL["12:00"]
    AL --> AM["12:00"]
    AM --> AN["12:00"]
    AN --> AO["12:00"]
    AO --> AP["12:00"]
    AP --> AQ["12:00"]
    AQ --> AR["12:00"]
    AR --> AS["12:00"]
    AS --> AT["12:00"]
    AT --> AU["12:00"]
    AU --> AV["12:00"]
    AV --> AW["12:00"]
    AW --> AX["12:00"]
    AX --> AY["12:00"]
    AY --> AZ["12:00"]
    AZ --> BA["12:00"]
    BA --> BB["12:00"]
    BB --> BC["12:00"]
    BC --> BD["12:00"]
    BD --> BE["12:00"]
    BE --> BF["12:00"]
    BF --> BG["12:00"]
    BG --> BH["12:00"]
    BH --> BI["12:00"]
    BI --> BJ["12:00"]
    BJ --> BK["12:00"]
    BK --> BL["12:00"]
    BL --> BM["12:00"]
    BM --> BN["12:00"]
    BN --> BO["12:00"]
    BO --> BP["12:00"]
    BP --> BQ["12:00"]

Step 2: Turn off the Output Breaker (Q3).

Step 3: Turn off the Input Breaker (Q1).

For Dual Input models: Turn off the Input Breaker (Q1) and Bypass Breaker (Q2).

Step 4: While in Shutdown Mode the UPS will slowly de-energise. Wait until the LCD is OFF.

graph TD
    A["230.0V"] --> B["STS"]
    C["230.0V"] --> B
    D["230.0V"] --> B
    E["0.0V"] --> F["+"]
    G["0.0V"] --> F
    H["0.0V"] --> F
    I["0.0V"] --> F
    J["85%"] --> F
    K["LOAD"] --> L["STS"]
    M["STS"] --> N["STS"]
    O["85%"] --> P["LOAD"]
    Q["12:00"] --> R["12:00"]

Step 5: After the UPS powers off, switch OFF the external power switch to disconnect the AC power to the UPS.

Step 6: If the UPS will remain disconnected from the AC power for an extended period, switch OFF the battery breaker (external battery cabinet).

8. Troubleshooting

Fault and Warning events should be reviewed by authorised service personnel.

LCD Message Explanation Solution
Fault! Bus Over Voltage DC bus voltage is too high. Contact service personnel.
Fault! Bus Under Voltage DC bus voltage is too low. Contact service personnel.
Fault! Bus Voltage Unbalance DC bus voltage is not balanced. Contact service personnel.
Fault! Bus Short DC bus is short. Contact service personnel.
Fault! Bus Soft Start Time Out The rectifiers could not start due to low DC bus voltage within specified duration.		Turn off UPS and then restart the UPS. If it fails again, contact service personnel.
Fault! Inverter Soft Start Time Out Inverter voltage cannot reach desired voltage within specified duration.		Turn off UPS and then restart the UPS. If it fails again, contact service personnel.
Fault! Inverter Voltage Over Inverter Voltage over (Peak Value). Contact service personnel.
Fault! Inverter Voltage High Inverter Voltage is too high. Contact service personnel.
Fault! Inverter Voltage Low	Inverter Voltage is too Low. Contact service personnel.
Fault! R Inverter Voltage Short	R phase inverter Output is shorted.	Contact service personnel.
Fault! S Inverter Voltage Short	S phase inverter Output is shorted.	Contact service personnel.
Fault! T Inverter Voltage Short	T phase inverter Output is shorted.	Contact service personnel.
Fault! RS Inverter Voltage Short	R-S inverter Output is shorted.	Contact service personnel.
Fault! ST Inverter Voltage Short	S-T inverter Output is shorted. Contact service personnel.
Fault! TR Inverter Voltage Short	T-R inverter Output is shorted. Contact service personnel.
Fault! Inverter R Negative Power	R phase inverter Output Negative Power over range.	Contact service personnel.
Fault! Inverter S Negative Power	S phase inverter Output Negative Power over range.	Contact service personnel.
Fault! Inverter T Negative Power	T phase inverter Output Negative Power over range.	Contact service personnel.
Fault! Over Load Fault	Heavy overload causes UPS fault.	Reduce some load.
Fault! Battery Fault	Battery reverse.	Check the polarity of battery connection and contact service personnel.
Fault! Over Temperature	Make sure adequate space is allowed for air vents and the fan is working.	Check if the ambient temperature is over specification or contact service personnel.
Fault! CAN Fault CAN communication fault. Contact service personnel.
Fault! TRIGO Fault	Synchronised trigger signal fault.	Contact service personnel.
Fault! Relay Fault	Inverter relay fault.	Contact service personnel.
Fault! Line SCR Fail	Line SCR short circuit fault.	Contact service personnel.
Fault! EEPROM Fault	EEPROM operation error.	Contact service personnel.
Fault! Parallel Cable Loosen Fault	As stated.	Check if the parallel cable is loose and contact service personnel.
Fault! DSP MCU Stop Communicate	As stated.	Contact service personnel.
Fault! Bypass Temperature Fault	As stated.	Check if the ambient temperature is over specification or contact service personnel.
Fault! Bypass SCR Fault	As stated.	Contact service personnel.
Warning! EPO Active	Check the EPO connector.	Check if the connector is loose when EPO acts abnormally.
Warning! Over Load Fail	The load devices are demanding more power than the UPS can supply. Line Mode will transfer to Bypass Mode.	Reduce some load and check output Load-Capacity and specification.
Warning! Communicate CAN Fail	CAN communication error.	Contact service personnel.
Warning! Over Load	When in Line Mode, the load devices are demanding more power than the UPS can supply.	Reduce some load and check output Load-Capacity and specification.
Warning! Battery Open	Battery not connected.	1. Check battery breaker.2. Check if the battery connection is well connected.3. Check the setting of Nominal Battery voltage.4. Contact service personnel if necessary.
Warning! Battery voltage High	Battery voltage is too High.	Check the setting of Nominal Battery voltage and contact service personnel.
Warning! Turn On Abnormal	As stated.	Check if the input voltage or frequency is out of range.
Warning! Charge Fail	As stated.	Contact service personnel.
Warning! EEPROM Fail	EEPROM operation error.	Contact service personnel.
Warning! Fan Lock	As stated.	Check if the fan is blocked or contact service personnel.

8. Troubleshooting

LCD Message Explanation Solution
Warning! Line Phase Error As stated.	Check if the Mains phase sequence is	correct and contact service personnel.
Warning! Bypass Phase Error As stated.	Check if the Bypass phase sequence is	correct and contact service personnel.
Warning! N Loss Neutral loss. Check if	the Neutral connection is correct	and contact service personnel.
Warning! Internal Initial Fail As stated.	Contact service personnel.
Warning! Comm. Syn. Signal Fail Com	municate Synchronization Signal Fail. Contact service	personnel.
Warning! Comm. TRIGO Fail Communi	cate Trigger signal fault. Contact service personnel.
Warning! Power Stage Loss As stated.	Check if the number of power stages	installed in the system is correct
Warning! Parallel Sys Config. Wrong Par	parallel System Configure error. Contact service personnel.
Warning! Maintenance Bypass Enter m	aintenance. Check if the connector is loose when it acts abnormally.
Warning! Battery Age Alert	Battery Life expiration.	Check if the battery has been used over its service age or contact service personnel.
Warning! Parallel UPS Cable Loosen	As stated. Check if the Parallel UPS Cable is loose and	contact service personnel.
Warning! Parallel UPS Config. Wrong	Parallel UPS Configure error.	Check that the Parallel UPS Setting is correct and contact service personnel.
Warning! Parallel Firmware Error	Power Stage parallel firmware error.	The firmware version does not support UPS Parallel feature. Contact service personnel.
Warning! ID Conflict	Power Stage ID conflict.	There are two Power Stages with the same ID numbers. Change the repeated ID to release it or contact service personnel.
Warning! Redundancy Set Fail	As stated. Check if the UPS is set from parallel to	single. The Redundancy setting needs to be set to 0.

9. Storage and Service

9.1 Storage

The UPS system must be stored in a clean, secure environment with a temperature less than 40^ C and a relative humidity less than 90% (non-condensing). Store the UPS system in its original shipping container, if possible. If installation occurs more than 6 months after you receive the UPS system, recharge the batteries for at least 24 hours prior to use. Do not rely on the UPS system to provide backup power to connected equipment until the batteries are fully charged.

Note: If the UPS system remains off for an extended period of time, it should be turned on periodically to allow the batteries to recharge. The UPS system should be turned on and the batteries should be recharged at least one uninterrupted 24-hour period every 3 months. Failure to recharge the batteries periodically may cause irreversible battery damage.

9.2 Service

• The UPS system operates with hazardous voltages. Repairs should only be performed by qualified service personnel.
• Even after the unit is disconnected from the mains, potentially dangerous components inside the UPS system are still connected to the battery packs.
• Before carrying out any service and/or maintenance, disconnect the batteries and verify that no current is present and no hazardous voltage exists.
• Only qualified technicians taking the required precautionary measures may replace batteries and supervise operations. Unauthorised persons should not perform battery maintenance.
• Verify that no voltage between the battery terminals and the ground is present before maintenance or repair. The battery circuit is not isolated from the input voltage. Hazardous voltages may occur between the battery terminals and the ground.
• Batteries may cause electric shock and have a high short-circuit current. Remove all wristwatches, rings and other metal personal objects before maintenance or repair, and only use tools with insulated grips and handles for maintenance or repair.
• When replacing the batteries, install the same number and same type of batteries.
• Do not attempt to dispose of batteries by burning them. This could cause a battery explosion. The batteries must be appropriately disposed according to local regulations.
• Do not open or destroy batteries. Escaping electrolytes may be toxic and can cause injury to the skin and eyes.
• To avoid fire hazards replace fuses only with the same type and amperage and do not disassemble the UPS.

9.3 Batteries (External Only – Refer to the Battery Cabinet Manual for More Information)

Tripp Lite's S3MKX-Series UPS systems use sealed lead-acid batteries. Battery life depends on operating temperature, usage, and charging/discharging frequency. High-temperature environments and high charging/discharging frequency will quickly shorten battery life. Please follow the suggestions below to ensure a normal battery lifecycle.

1. Keep operating temperature between 0^ C\~ 40^ C.
2. For optimum battery performance and life cycle, operate at a regulated 25^ C.
3. When the UPS needs to be stored for an extended period, the batteries must be recharged once every three months and the charging time must be at least 24 hours each time.

9.4 Fans

Higher temperatures shorten fan life. When the UPS is running, check to see all fans work normally and make sure air can move freely around and through the UPS. If not, replace the fans.

Note: Contact Tripp Lite Technical Support for more maintenance information. Do not perform maintenance if you are not qualified to do so.

10. Specifications

Model S3M100KX/KXD* S3M120KX/KXD*	S3M160KX/KXD* S3M200KX/KXD*
Capacity (VA) 100 kVA 120 kVA 160 kVA 200 kVA
Capacity (Watts) 90 kW 108 kW 144 kW 180 kW
INPUT
Nominal Voltage Ph-Ph 380V/400V/415V (Ph-N 220V/230V/240V)
Voltage Range	Ph-Ph 208-478V at < 50% Load; Ph-Ph 208-478V to 305-478V at 50% to 80% Load(Voltage Range Varies with Load); > 80% Load: Ph-Ph 305-478V
Voltage Comeback Low-Loss Voltage +10V;	High-Loss Voltage -10V
Nominal Frequency 50/60 Hz (Auto-Selectable)
Frequency Range 40-70 Hz
Phase 3-Phase with Neutral (3-Phase, Neutral + Ground)
Power Factor (100% Load) > 0,99
Harmonic Distortion (THDi; 100% Load) < 3%
OUTPUT
Phase 3-Phase with Neutral (3-Phase, Neutral** + Ground)
Nominal Voltage	Ph-Ph 380V/400V/415V (Ph-N 220V/230V/240V)
AC Voltage Regulation(Double-Conversion Mode)	±1% (Balanced Load)
AC Voltage Regulation(Converter Mode or Battery Mode)	±1%
Power Factor	0,9
AC Voltage Regulation (ECO Mode)	± 15V of Nominal
Frequency	Selectable ± 1 Hz, ± 2 Hz, ± 4 Hz of Input (Default: ± 4 Hz)
Frequency Regulation(Converter Mode or Battery Mode)	± 0,1 Hz
Frequency Range (Battery Mode) 50 Hz ± 0,1 Hz or 60 Hz ± 0,1 Hz
Overload (AC Mode)	Up to 110% = 1 hr; Up to 125% = 10 min;Up to 150% = 1 min; > 150% = 200 ms
Overload (Battery Mode)	Up to 110% = 1 hr; Up to 125% = 10 min;Up to 150% = 1 min; > 150% = 200 ms
Current Crest Ratio	3:1 Maximum
Harmonic Distortion (100% Load)	≤ 2% THD (Linear Load); ≤ 4% THD (Non-Linear Load)
Transfer Time (Line ←→ Battery)	0 ms
Transfer Time (Inverter ←→ Bypass)	Synchronous = 0 ms; Asynchronous < 1 cycle
Transfer Time (Inverter ←→ ECO)	< 20 ms
BYPASS INPUT
Nominal Voltage	Ph-Ph 380V/400V/415V
Phase 3-Phase with Neutral (3-Phase, Neutral + Ground)
Voltage Range	Upper Limit: +10%, +15% or +20% (Default: +15%)Lower Limit: -10%, -20% or -30% (Default: -20%)
Nominal Frequency 50/60 Hz (Auto-Selectable)
Frequency Range	Selectable: ± 1 Hz, ± 2 Hz, ± 4 Hz (Default: ± 4 Hz)
Overload (Bypass Mode)	105-110% = 1 hr; 111-125% = 10 min;126-150% = 1 min; > 150% = 200 ms
EFFICIENCY
AC Line Mode	94% at 100% Resistive Load; 93.5% at 50% Resistive Load
ECO Mode	98% at 100% Resistive Load; 97% at 50% Resistive Load
Battery Mode	93% at 100% Resistive Load; 92.5% at 50% Resistive Load
PARALLEL
Parallel for Capacity	Up to 2 Units
Parallel for Redundancy	Requires externalN+1 bypass panel	Up to 2 units
EXTERNAL BATTERIES(S3M100KX/KXD*, S3M120KX/KXD*, S3M160KX/KXD* and S3M200KX/KXD* require external batteries to operate.)
Type	12V Non-Spillable VRLA AGM/GEL
DC Nominal Acceptance Voltage	± 240 VDC
Quantity	40N (N ≥ 1 x Strings of 20 + 20)
Maximum Charging Current	Adjustable up to 24A± 1%	Adjustable up to 32A± 1%	Adjustable up to 40A± 1%	Adjustable up to 48A± 1%

*KXD models are dual-AC input capable. **The UPS output Neutral must be connected to the Load Neutral at all times.

10. Specifications

Model S3M100KX/KXD* S3M120KX/KXD*	S3M160KX/KXD* S3M200KX/KXD*
EXTERNAL BATTERIES(S3M100KX/KXD*, S3M120KX/KXD*, S3M160KX/KXD* and S3M200KX/KXD* require external batteries to operate.)
Float Voltage 13,65V/Battery; 2,27V/Cell
Boost Charging 14,1V/Battery; 2,35V/Cell
End of Discharge 10V/Battery; 1,67V/Cell
Charger Temperature Compensation -3 mV/Cell/°C (Requires optional TEMPC100200 thermostat kit.)
PHYSICAL
Dimensions (H x W x D)	1015 x 567 x 945 mm		1455 x 567 x 995 mm
Unit Weight (With Internal Batteries)	N/A N/A		N/A N/A
Unit Weight (Without Internal Batteries)	197 kg 232 kg	309 kg 343 kg
ENVIRONMENT
Operating Temperature 0 to 40°C (< 25°C for optimal battery lifespan.)
Storage Temperature 0 to 35°C (UPS with Batteries), -15 to 60°C (UPS without Batteries)
Operating Humidity 0 to 95% (Non-Condensing)
Operating Altitude	< 1000 m (Derate output power by 1% per 100 m above 1000 m.)
Audible Noise	< 70 dBA at 1 m		< 73 dBA at 1 m
Heat Dissipation (100% Load)	19600 BTU/hr	23507 BTU/hr	31343 BTU/hr	39179 BTU/hr
Heat Dissipation (50% Load)	9974 BTU/hr	11048 BTU/hr	14731 BTU/hr	18414 BTU/hr
MANAGEMENT
Network Management Interface	Requires optional WEBCARDLX. (Monitor, control and reboot the UPS using embedded HTML5 web, SSH/telnet and SNMP interfaces. Supports centralised management through integration with a wide range of Network Management Systems and DCIM platforms.)
Control Panel	Large 254 mm / 10 in. colour LCD touchscreen with supplemental LEDs.(Monitor, control, configure and diagnose the UPS from the display.)
Contact Closure Interface	Requires Optional RELAYCARDSV Programmable Relay I/O Card
Remote Emergency Power Off (REPO)	Feature Included (Default: Normally Closed)
RS-232	Included (Service Only)
STANDARDS
Safety	IEC 62040-1:2008+A1:2013 (TUV Approval)
EMC/EMI	EN 62040-2:2006 (Category C3) (TUV Approval)
Ingress Protection Rating	IP20
CE Marking	Yes
RoHS Compliant	Yes
Quality Management System	ISO 9001
OTHER INFORMATION
Colour	RAL 9005 Jet Black
Mobility	Casters
ACCESSORIES (Sold Separately)
Scalable Battery Cabinets	Support 5 min. to 3 h runtime at 100% load. Available models include BP480V100-NIB, BP480V100, BP480V65-NIB, BP480V65, BP480V40-NIB, BP480V40.(NIB=No internal batteries.)
Network Management Card	WEBCARDLX(Monitor, control and reboot the UPS using embedded HTML5 web platform, SSH/telnet or SNMP. Supports centralised management via third-party NMS or DCIM platform.)
Remote Environmental Sensors(Require WEBCARDLX.)	E2MT (Temperature Sensor); E2MTDO (Temperature Sensor with Digital Outputs);E2MTDI (Temperature Sensor with Digital Inputs);E2MTHDI (Temperature/Humidity Sensor with Digital Inputs)
Contact Closure Card	RELAYCARDSV
External Bypass Panel	Contact your local sales representative or distributor for more information.
Scalable Charger Board Kits	CBKIT30-40(Adds 4A; Max 2)	CBKIT30-80(Adds 8A; Max 2)	N/A
Battery Temperature Compensation Thermostat Kit	TEMPC100200

*KXD models are dual-AC input capable.

10. Specifications

m=2m 1501 mm

Interior view of a rectangular device with perforated panel and 1221 mm height dimension (no text or symbols on the device itself)

12V 65/100Ah x 40pcs 12V 40Ah x 40pcs

Battery Cabinet Models Breaker Included		Dimensions (H x W x D) mm Description
BP480V100	400A, 3-Pole	1501 x 826 x 1136	Battery Cabinet with 40 x 100Ah batteries
BP480V100-NIB			Battery Cabinet without batteries, but designed for 40 x 100Ah batteries (includes battery cabling and breaker)
BP480V65	300A, 3-Pole		Battery Cabinet with 40 x 65Ah batteries
BP480V65-NIB			Battery Cabinet without batteries, but designed for 40 x 65Ah batteries (includes battery cabling and breaker)
BP480V40	200A, 3-Pole 1220 x 626 x 900		Battery Cabinet with 40 x 40Ah batteries
BP480V40-NIB			Battery Cabinet without batteries, but designed for 40 x 40Ah batteries (includes battery cabling and breaker)

11. Warranty

Your SmartOnline 3-Phase UPS System is covered by the limited warranty described below. Extended warranties (3- and 4-year) and start-up service programs are available. For more information, call Tripp Lite Customer Service at +1.773.869.1234 or visit tripplite.com/support.

3-Phase UPS System Limited Warranty

Seller warrants this product, if used in accordance with all applicable instructions as verified by Tripp Lite's "Start-up" service, to be free from original defects in material and workmanship for a period of two (2) years from the date of start-up. If the product should prove defective in material or workmanship within that period, Seller will repair or replace the defective parts without charge for labor or parts. If the product was not started- up by authorised Tripp Lite service, replacement parts will be provided but labour charges will apply based on published Tripp Lite Time and Material Rates. Tripp Lite will assign to you any warranties provided by the manufacturers of components of the Tripp Lite product. Tripp Lite makes no representations as to the extent of these warranties and assumes no responsibility for warranties of these components. Service under this Warranty can only be obtained by contacting: Tripp Lite Customer Service; 1111 W. 35th Street; Chicago IL 60609; +1.773.869.1234; [e-mail].

THIS WARRANTY DOES NOT APPLY TO NORMAL WEAR OR TO DAMAGE RESULTING FROM ACCIDENT, IMPROPER INSTALLATION, MISUSE, ABUSE OR NEGLECT. SELLER MAKES NO EXPRESS WARRANTIES OTHER THAN THE WARRANTY EXPRESSLY SET FORTH HEREIN. EXCEPT TO THE EXTENT PROHIBITED BY APPLICABLE LAW, ALL IMPLIED WARRANTIES, INCLUDING ALL WARRANTIES OF MERCHANTABILITY OR FITNESS, ARE LIMITED IN DURATION TO THE WARRANTY PERIOD SET FORTH ABOVE; AND THIS WARRANTY EXPRESSLY EXCLUDES ALL INCIDENTAL AND CONSEQUENTIAL DAMAGES. (Some states do not allow limitations on how long an implied warranty lasts, and some states do not allow the exclusion or limitation of incidental or consequential damages, so the above limitations or exclusions may not apply to you. This Warranty gives you specific legal rights, and you may have other rights which vary from jurisdiction to jurisdiction).

Regulatory Compliance Identification Numbers

For the purpose of regulatory compliance certifications and identification, your Tripp Lite product has been assigned a unique series number. The series number can be found on the product nameplate label, along with all required approval markings and information. When requesting compliance information for this product, always refer to the series number. The series number should not be confused with the marketing name or model number of the product.

WEEE Compliance Information for Tripp Lite Customers and Recyclers (European Union)

Under the Waste Electrical and Electronic Equipment (WEEE) Directive and implementing regulations, when customers buy new electrical and electronic equipment from Tripp Lite they are entitled to:

• Send old equipment for recycling on a one-for-one, like-for-like basis (this varies depending on the country)
• Send the new equipment back for recycling when this ultimately becomes waste

Tripp Lite has a policy of continuous improvement. Specifications are subject to change without notice. Photos and illustrations may differ slightly from actual products.

TRIPP·LITE

1111 W. 35th Street, Chicago, IL 60609 USA • tripplite.com/support

Modelos: S3M100KX, S3M100KXD, S3M120KX, S3M120KXD, S3M160KX, S3M160KXD, S3M200KX, S3M200KXD

Entrada: 220V / 230V / 240V (Fase - Neutro) 380V / 400V / 415V (Fase - Fase), 3∅ 4 Hilos + Tierra Física

Two black TPXUTE air conditioners with control panel displays, no visible text or symbols on the main body.

TRIPP·LITE

1111 W. 35th Street, Chicago, IL 60609 EE. UU. • tripplite.com/support

Simple line drawing of a mechanical component with a downward arrow indicating force or direction (no text or symbols)

1175 mm 1125 mm

705 mm

Figura 3.4A Figura 3.5A

Simple line drawing of a mechanical component with a downward arrow indicating force or direction (no text or symbols)

1610 mm 1125 mm

705 mm

Figura 3.4B Figura 3.5B

Diagram of a device panel layout with labeled ports and connectors, showing connections to a grid and control panel.

① ② ③ ④ ⑤

SW1 SW2 OUTPUT [INPUT] INPUT

SW1 SW2 CN10 CN9 CN7 CN8

Technical line drawing of an electrical control cabinet with internal wiring and components (no text or labels)

Online UPS

Figura 4.2 Pantalla Inicial

4.2.2 Pantalla Principal

SYSTEM ON Standby Mode System Turn On System Turn Off Manual Battery Test Cancel Battery Test Turn To Bypass Shutdown Restore Cancel Shutdown Charger Turn On Charger Turn Off L1 0% 0% 0% 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

Figura 4.6 Menú de Control

SYSTEM ON Standby Mode System Turn On System Turn Off Manual Battery Test Cancel Battery Test Turn To Bypass Shutdown Restore Cancel Shutdown Charger Turn On Charger Turn Off ESC Yes No 11 0% 12 0% L3 0% 15:30 2018/01/01

SYSTEM ON Standby Mode L1 L2 L3 0% LOAD 0% LOAD 0% LOAD 0% S OUT OKVA S OUT OKVA S OUT OKVA P OUT OKW P OUT OKW P OUT OKW INPUT OUTPUT BYPASS LOAD BATTERY HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 12:00 2018/01/01

SYSTEM ON Standby Mode POSTIVE NEFATIVE CAPACITY 0% VOLTAGE 216.0V VOLTAGE 216.0V REWATS TIME 1Min CURRENT 10.0A CURRENT 10.0A TEST RESULT Passed TEMPERATURE 01 35.0C TEMPERATURE 02 37.0C CHARGING STATUS Float TEMPERATURE 03 34.0C TEMPERATURE 04 38.0C TEMPERATURE 05 34.0C INPUT OUTPUT BYPASS LOAD BATTERY HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 12:00 2018/01/01

CAUTION! WRONG NUMBER, PLEASE ENTER AGAIN! SYSTEM ON Standby Mode 0% 0% 0% 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

graph TD
    A["BATT Capacity in Ah"] --> B["9Ah"]
    C["MAX Charging Current"] --> D["2A"]
    E["BATT Low/Shutdown"] --> F["0(eV/C/e1)"]
    G["TEMP. Compensation"] --> H["Disable"]
    I["BATT Age Alert"] --> J["0.0V"]
    K["Auto-Restari BATT Volt"] --> L["Charging Voltage"]
    M["BATT Test"] --> N["Charging Voltage: 2.35V"]
    O["Periodic BATT Test"] --> P["Disable"]
    Q["BATT Test Interval"] --> R["30(Days)"]
    S["Stop by Time"] --> T["10(Sec)"]
    U["Stop by BATT Voltage"] --> V["11.5V"]
    W["Stop by BATT Capactive"] --> X["50%"]

IDENTIFACATION SYSTEM BATTERY Battery Capacity in Ah(Ah) 9 Maximum Charging Current(A) 2 Battery Low Voltage(V) 10.5 Battery Low Capacity(%) 30 Battery Shutdown Voltage(V) 11.0 Periodic Battery Test Disable Battery Installed Date 2015/01/01 Battery Last Maintain Date 2015/01/01 Charging Voltage(V) 2.35 Float Voltage(V) 2.29 SYSTEM ON Standby Mode L1 0% L2 0% L3 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

+12V X2 X2.1 X2.2

Figura 5.3 Puerto de Entrada de EPO Remoto

graph TD
    A["STS"] --> B["AC/DC"]
    B --> C["DC/AC"]
    C --> D["LOAD"]
    E["STS"] --> F["0.0V L2 0.0V L3 0.0V"]
    G["LOAD"] --> H["0.0V L2 0.0V L3 0.0V"]
    I["85%"] --> J["Ground"]
    K["1:2:3:4:5:6:7:8:9:10:11:12:13:14:15:16:17:18:19:20:21:22:23:24:25:26:27:28:29:30:31:32:33:34:35:36:37:38:39:40:41:42:43:44:45:46:47:48:49:50:51:52:53:54:55:56:57:58:59:60:61:62:63:64:65:66:67:68:69:70:71:72:73:74:75:76:77:78:79:80:81:82:83:84:85:86:87:88:89:90:91:92:93:94:95:96:97:98:99:100:101:102:103:104:105:106:107:108:109:110:111:112:113:114:115:116:117:118:119:120:121:122:123:124:125:126:127:128:129:130:131:132:133:134:135:136:137:138:139:140:141:142:143:144:145:146:147:148:149:150:151:152:153:154:155:156:157:158:159:160:161:162:163:164:165:166:167:168:169:170:171:172:173:174:175:176:177:178:179:180:181:182:183:184:185:186:187:188:189:190:191:192; 85% is marked as a positive indicator on the battery terminal.    Note right of B 85% is highlighted in red box.    Note left of B 85% is labeled 'HOME', 'CONTROL', 'MEASUREMENT', 'SETUP', 'INFORMATION', 'EVENT' with value 85%.    Note right of B 85% is labeled 'EVENT'.    Note right of B 85% is labeled 'EVENT'.    Note right of B 85% is labeled 'EVENT'.    Note right of B 85% is labeled 'EVENT'.    Note right of B 85% is labeled 'EVENT'.    Note right of B 85% is labeled 'EVENT'.    Note right of B 85% is labeled 'EVENT'.    Note right of B 85% is labeled 'EVENT'.    N[SYSTEM ON"] --> O["Standby Mode"]
    P["KVA"] --> Q["--KVA"]

graph TD
    A["~"] --> B["STS"]
    C["~"] --> D["AC/DC"]
    E["~"] --> F["DC/AC"]
    G["LOAD"] --> H["85%"]
    I["STS"] --> J["STS"]
    K["AC/DC"] --> L["DC/AC"]
    M["LOAD"] --> N["STS"]
    O["AC/DC"] --> P["DC/AC"]
    Q["LOAD"] --> R["STS"]
    S["AC/DC"] --> T["DC/AC"]
    U["LOAD"] --> V["STS"]
    W["AC/DC"] --> X["DC/AC"]
    Y["LOAD"] --> Z["STS"]
    AA["AC/DC"] --> AB["DC/AC"]
    AC["LOAD"] --> AD["STS"]
    AE["AC/DC"] --> AF["DC/AC"]
    AG["LOAD"] --> AH["STS"]
    AI["AC/DC"] --> AJ["DC/AC"]
    AK["LOAD"] --> AL["STS"]

Technical line drawing of three identical circular fan components with radial slots and mounting brackets (no text or symbols)

Online UPS BYPASS INV LINE LOAD BATT FAULT ALARM POWER

graph TD
    A["AC DC"] --> B["DC AC"]
    B --> C["LOAD"]
    D["STS"] --> C
    E["85%"] --> F["Ground"]
    G["STS"] --> C
    H["STS"] --> I["LOAD"]
    J["STS"] --> K["LOAD"]
    L["STS"] --> M["LOAD"]
    N["STS"] --> O["LOAD"]
    P["STS"] --> Q["LOAD"]
    R["STS"] --> S["LOAD"]
    T["STS"] --> U["LOAD"]
    V["STS"] --> W["LOAD"]
    X["STS"] --> Y["LOAD"]
    Z["STS"] --> AA["LOAD"]

Interior view of a perforated metal panel with 1221 mm height dimension (no text or symbols on the panel itself)

12V 65 / 100Ah x 40 pzas 12V 40Ah x 40 pzas

Two black TPX-UTX power supply cabinets with ventilation grilles and control panel displays (no visible text or symbols on main surfaces)

TRIPP·LITE

1111 W. 35th Street, Chicago, IL 60609 USA • tripplite.com/support

Figure 3.1A Figure 3.2A Figure 3.3A

Simple line drawing of a mechanical component with a downward arrow indicating force or direction (no text or symbols)

1 125 mm 1 175 mm

705 mm

Figure 3.4A Figure 3.5A

3. Installation et configuration

Isometric line drawing of a rectangular box with side supports (no text or symbols)

Figure 3.1B

Technical diagram of a mechanical assembly with numbered components, likely a lifting or mounting mechanism.

Figure 3.2B Figure 3.3B

Technical diagram of a server rack with numbered components labeled 1 to 4

Simple line drawing of a mechanical component with a downward arrow indicating force or direction (no text or symbols)

1610 mm 1 125 mm

705 mm

Figure 3.4B Figure 3.5B

3. Installation et configuration

Diagram of a device panel with labeled ports and connectors, showing connections to ports 1, 2, 3, and 4, and a connector pin.

① ② ③ ④ ⑤

Technical line drawing of an electrical control cabinet with internal wiring and mounting hardware (no text or labels)

Online UPS

Figure 4.2 Écran initial

SYSTEM ON Standby Mode System Turn On System Turn Off Manual Battery Test Cancel Battery Test Turn To Bypass Shutdown Restore Cancel Shutdown Charger Turn On Charger Turn Off L1 0% 0% 0% 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

SYSTEM ON Standby Mode System Turn On System Turn Off Manual Battery Test Cancel Battery Test Turn To Bypass Shutdown Restore Cancel Shutdown Charger Turn On Charger Turn Off ESC Yes No 15:30 2018/01/01

SYSTEM ON Standby Mode L1 L2 L3 LOAD 0% LOAD 0% LOAD 0% S OUT OKVA S OUT OKVA S OUT OKVA P OUT OKW P OUT OKW P OUT OKW INPUT OUTPUT BYPASS LOAD BATTERY HOME CONTROL MEINSUREMENT SETUP INFORMATION ENEM 12:00 2018/01/01

POSTIVE NEFATIVE CAPACITY SYSTEM ON Standby Mode 0% VOLTAGE 216.0V VOLTAGE 216.0V REMAIN TIME 1Min CURRENT 10.0A CURRENT 10.0A TEST RESULT Passed TEMPERATURE 01 35.0C TEMPERATURE 02 37.0C CHARGING STATUS Float TEMPERATURE 03 34.0C TEMPERATURE 04 38.0C TEMPERATURE 05 34.0C INPUT OUTPUT BYPASS LOAD BATTERY TIME CONTROL MEASUREMENT SETUP INFORMATION EVENT 12:00 2018/01/01

Figure 4.9 Écrans Mesure : INPUT (ENTRÉE), OUTPUT (SORTIE), BYPASS (DÉRIVATION), LOAD (CHARGE) et BATTERY (BATTERIES)

CAUTION! WRONG NUMBER, PLEASE ENTER AGAIN! SYSTEM ON Standby Mode 0% 0% 0% 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

graph TD
    A["BATT Capacity in Ah"] --> B["9Ah"]
    C["MAX Charging Current"] --> D["2A"]
    E["BATT Low/Shutdown"] --> F["0 (nV/C/c1)"]
    G["TEMP. Compensation"] --> H["Disable"]
    I["BATT Ago Alert"] --> J["0.0V"]
    K["Auto-Restart BATT Volt"] --> L["Charging Voltage"]
    M["BATT Test"] --> N["Charging Voltage: 2.35V"]
    O["Periodic BATT Test"] --> P["Periodic BATT Test Interval"]
    Q["Stop by Time"] --> R["Stop by BATT Voltage"]
    S["Stop by BATT Capacitive"] --> T["Stop by BATT Capacitive"]
    U["Low Voltage"] --> V["10.5V"]
    W["Low Capacity"] --> X["30%"]
    Y["Shutdown Voltage"] --> Z["11.0V"]
    AA["Float Voltage: 2.29V"] --> AB["Disable"]
    AC["30 (Days)"] --> AD["Stop by Time"]
    AE["10 (Sec)"] --> AF["Stop by BATT Voltage"]
    AG["11.5V"] --> AH["Stop by BATT Capacitive"]
    AI["50%"] --> AJ["Stop by BATT Capacitive"]

graph TD
    A["INFORMATION (INFORMATIONS)"] --> B["Identification (Identification)"]
    A --> C["System (Système)"]
    A --> D["Battery (Batterle)"]

Figure 4.21 Menu Information

4.2.6.1 INFORMATION - Écran Identification

IDENTIFACATION SYSTEM BATTERY Battery Capacity in Ah(Ah) 9 Maximum Charging Current(A) 2 Battery Low Voltage(V) 10.5 Battery Low Capacity(%) 30 Battery Shutdown Voltage(V) 11.0 Periodic Battery Test Disable Battery Installed Date 2015/01/01 Battery Last Maintain Date 2015/01/01 Charging Voltage(V) 2.35 Float Voltage(V) 2.29 SYSTEM ON Standby Mode L1 0% L2 0% L3 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

+12V X2 X2.1 X2.2

graph TD
    A["STS"] --> B["AC/DC"]
    B --> C["DC/AC"]
    C --> D["LOAD"]
    E["STS"] --> F["AC/DC"]
    G["LOAD"] --> H["DC/AC"]
    I["STS"] --> J["AC/DC"]
    K["LOAD"] --> L["DC/AC"]
    M["STS"] --> N["AC/DC"]
    O["LOAD"] --> P["DC/AC"]
    Q["STS"] --> R["AC/DC"]
    S["LOAD"] --> T["DC/AC"]
    U["STS"] --> V["AC/DC"]
    W["LOAD"] --> X["DC/AC"]
    Y["STS"] --> Z["AC/DC"]
    AA["LOAD"] --> AB["DC/AC"]
    AC["STS"] --> AD["AC/DC"]
    AE["LOAD"] --> AF["DC/AC"]
    AG["STS"] --> AH["AC/DC"]
    AI["LOAD"] --> AJ["DC/AC"]
    AK["STS"] --> AL["AC/DC"]
    AM["LOAD"] --> AN["DC/AC"]
    AO["STS"] --> AP["AC/DC"]
    AQ["LOAD"] --> AR["DC/AC"]
    AS["STS"] --> AT["AC/DC"]
    AU["LOAD"] --> AV["DC/AC"]
    AW["STS"] --> AX["AC/DC"]
    AY["STS"] --> AZ["AC/DC"]
    BA["STS"] --> BB["DC/AC"]
    BC["STS"] --> BD["LOAD"]
    BE["STS"] --> BF["AC/DC"]
    BG["STS"] --> BH["DC/AC"]
    BI["STS"] --> BJ["LOAD"]

Technical line drawing of three circular fan components with internal grid patterns and mounting brackets (no text or symbols)

Online UPS BYPASS INV LINE LOAD BATT FAULT ALARM POWER

Interior view of a perforated metal panel with 1221 mm height dimension (no text or symbols on the panel itself)

1111 W. 35th Street, Chicago, IL 60609 USA • tripplite.com/support

Модели: S3M100KX, S3M100KXD, S3M120KX, S3M120KXD, S3M160KX, S3M160KXD, S3M200KX, S3M200KXD

Two black TPX-UTX power supply cabinets with visible circuit boards and control panels, no text or symbols present.

TRIPP·LITE

1111 W. 35th Street, Chicago, IL 60609 USA • tripplite.com/support

Модели S3M100KX, S3M100KXD и S3M120KX, S3M120KXD

Prc. 3.1A Prc. 3.2A Prc. 3.3A

Simple line drawing of a mechanical component with a downward arrow indicating force or direction (no text or symbols)

Рис. 3.4А Рис. 3.5А

1175 MM 1125 MM

705 MM

Isometric line drawing of a rectangular box with side supports (no text or symbols)

Рис. 3.1В

Technical diagram of a mechanical assembly with numbered components for identification

Рис. 3.2В Рис. 3.3В

Technical diagram of a desktop computer tower with numbered components for identification

Simple line drawing of a mechanical component with a downward arrow and a circular outline (no text or symbols)

Рис. 3.4В Рис. 3.5В

1610 mm 1125 mm

705 mm

Diagram of a computer interface with labeled ports and connectors, showing connections to ports 1, 2, 3, and 4, and a grid layout.

SW1 SW2 OUTPUT [INPUTS] INPUTS

SW1 SW2 CN10 CN9 CN7 CN8

Technical line drawing of an electrical control cabinet with internal wiring and modules (no text or symbols)

SYSTEM ON Standby Mode System Turn On System Turn Off Manual Battery Test Cancel Battery Test Turn To Bypass Shutdown Restore Cancel Shutdown Charger Turn On Charger Turn Off L1 0% 0% 0% 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

SYSTEM ON Standby Mode System Turn On System Turn Off Manual Battery Test Cancel Battery Test Turn To Bypass Shutdown Restore Cancel Shutdown Charger Turn On Charger Turn Off ESC Yes No 15:30 2018/01/01

SYSTEM ON Standby Mode L1 L2 L3 0% LOAD 0% LOAD 0% S OUT OKVA S OK OKVA S OUT OKVA P OUT OKW P OUT OKW P OUT OKW INPUT OUTPUT BYPASS LOAD BATTERY HOME CONTROL MENSUREMENT SETUP INFORMATION EVENT 12:00 2018/01/01

POSTIVE NEFATIVE CAPACITY SYSTEM ON Standby Mode 0% VOLTAGE 216.0V VOLTAGE 216.0V REPAINT TIME 1Min CURRENT 10.0A CURRENT 10.0A TEST RESULT Passed TEMPERATURE 01 35.0C TEMPERATURE 02 37.0C CHARGING STATUS Float TEMPERATURE 03 34.0C TEMPERATURE 04 38.0C TEMPERATURE 05 34.0C INPUT OUTPUT BYPASS LOAD BATTERY TIME CONTROL MEASUREMENT SETU INFORMATION EVENT 12:00 2018/01/01

Рис. 4.9 Экраны измерений: INPUT/BXOD, OUTPUT/BYXOD, BYPASS/OБХОДНАЯ ЦЕПЬ, LOAD/НАГРУЗКА и BATTERY/БАТАРЕЯ

graph TD
    A["BATT Capacity in Ah"] --> B["9Ah"]
    C["MAX Charging Current"] --> D["2A"]
    E["BATT Low/Shutdown"] --> F["0 (nV/C/c1)"]
    G["TEMP. Compensation"] --> H["Disable"]
    I["BATT Age Alert"] --> J["0.0V"]
    K["Auto-Restart BATT Volt"] --> L["Charging Voltage"]
    M["BATT Test"] --> N["Charging Voltage: 2.35V"]
    O["Periodic BATT Test"] --> P["Disable"]
    Q["BATT Test Interval"] --> R["30 (Days)"]
    S["Stop by Time"] --> T["10 (Sec)"]
    U["Stop by BATT Voltage"] --> V["11.5V"]
    W["Stop by BATT Capactive"] --> X["50%"]

IDENTIFACATION SYSTEM BATTERY Battery Capacity in Ah(Ah) 9 Maximum Charging Current(A) 2 Battery Low Voltage(V) 10.5 Battery Low Capacity(%) 30 Battery Shutdown Voltage(V) 11.0 Periodic Battery Test Disable Battery Installed Date 2015/01/01 Battery Last Maintain Date 2015/01/01 Charging Voltage(V) 2.35 Float Voltage(V) 2.29 SYSTEM ON Standby Mode L1 0% L2 0% L3 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

+12V X2 X2.1 X2.2

graph TD
    A["StS"] --> B["AC/DC"]
    B --> C["DC/AC"]
    C --> D["LOAD"]
    D --> E["+ -"]
    E --> F["85%"]
    G["Ground"] --> H["230.0V L1 L2 L3"] --> I["STS"]
    J["Ground"] --> K["230.0V L1 L2 L3"] --> L["AC/DC"]
    M["Ground"] --> N["230.0V L2 L3"] --> O["DC/AC"]
    P["Ground"] --> Q["230.0V L2 L3"] --> R["LOAD"]
    S["Ground"] --> T["230.0V L2 L3"] --> U["STS"]
    V["Ground"] --> W["230.0V L2 L3"] --> X["AC/DC"]
    Y["Ground"] --> Z["230.0V L2 L3"] --> AA["DC/AC"]
    AB["Ground"] --> AC["230.0V L2 L3"] --> AD["LOAD"]

7. Эксплуатация ИБП

Technical line drawing of three identical fan-shaped electronic components with internal circuitry and mounting brackets (no text or symbols)

Online UPS BYPASS INV LINE LOAD BATT FAULT ALARM POWER

Моделях S3M100KX/S3M100KXD
S3M120KX/S3M120KXD
(100 kBA/120kVA)

Q4 Powertrain finans

Моделях S3M160KX/S3M160KXD
S3M200KX/S3M200KXD
(160 kBA/200kVA)

Interior view of a rectangular device with perforated panel and top label (no readable text or symbols beyond branding)

1111 W. 35th Street, Chicago, IL 60609 USA • tripplite.com/support

Bedienungsanleitung

Modelle: S3M100KX, S3M100KXD, S3M120KX, S3M120KXD, S3M160KX, S3M160KXD, S3M200KX, S3M200KXD

Two black TPX-UTR industrial control panel units with ventilation grilles and display screens (no visible text or symbols)

TRIPP·LITE

1111 W. 35th Street, Chicago, IL 60609 USA • tripplite.com/support

Simple line drawing of a mechanical component with a downward arrow indicating force or direction (no text or symbols)

1175 mm 1125 mm

705 mm

Technical diagram showing a mechanical component with dimensional annotations in millimeters, including a magnified inset view.

Diagram of a device panel with labeled ports and connectors, showing connections to a grid layout and a connector.

① ② ③ ④ ⑤

SW1 SW2 OUTPUT DIPUTS INPUTT

SW1 SW2 CN10 CN9 CN7 CN8

Technical line drawing of an electrical control cabinet with internal wiring and modules (no text or symbols)

SYSTEM ON Standby Mode System Turn On System Turn Off Manual Battery Test Cancel Battery Test Turn To Bypass Shutdown Restore Cancel Shutdown Charger Turn On Charger Turn Off 0% 0% 0% 15:30 2018/01/01

SYSTEM ON Standby Mode System Turn On System Turn Off Manual Battery Test Cancel Battery Test Turn To Bypass Shutdown Restore Cancel Shutdown Charger Turn On Charger Turn Off ESC Yes No 15:30 2018/01/01

SYSTEM ON Standby Mode L1 L2 L3 0% LOAD 0% LOAD 0% LOAD 0% S OUT OKVA S OUT OKVA S OUT OKVA P OUT OKW P OUT OKW P OUT OKW INPUT OUTPUT BYPASS LOAD BATTERY HOME CONTROL MEASUREMENT SCTP INFORMATION EVENT 12:00 2018/01/01

POSTIVE NEFATIVE CAPACITY SYSTEM ON Standby Mode 0% VOLTAGE 216.0V VOLTAGE 216.0V REMAIN TIME 1Min CURRENT 10.0A CURRENT 10.0A TEST RESULT Passed TEMPERATURE 01 35.0C TEMPERATURE 02 37.0C CHARGING STATUS Float TEMPERATURE 03 34.0C TEMPERATURE 04 38.0C TEMPERATURE 05 34.0C INPUT OUTPUT BYPASS LOAD BATTERY TIME CONTROL MEASUREMENT SETUP INFORMATION EVENT 12:00 2018/01/01

Abbildung 4.9 Messungsbildschirme: INPUT (EINGANG), OUTPUT (AUSGANG), BYPASS (BYPASS), LOAD (LAST) y BATTERY (BATTERIE)

graph TD
    A["GENERAL"] --> B["BATT Capacity in Ah"]
    C["SYSTEM"] --> D["MAX Charging Current"]
    E["BATTERY"] --> F["BATT Low/Shutdown"]
    G["PRE-ALARM"] --> H["Shutdown Voltage"]
    I["PARALLEL"] --> J["LOW Voltage"]
    K["0%"] --> L["0%"]
    M["0%"] --> N["0%"]
    O["0%"] --> P["0%"]
    Q["0%"] --> R["0%"]
    S["0%"] --> T["0%"]
    U["BATT Test"] --> V["Charging Voltage: 2.35V"]
    W["BATT Test Interval"] --> X["Periodic BATT Test"]
    Y["Stop by Time"] --> Z["Stop by BATT Voltage"]
    AA["Stop by BATT Capacitive"] --> AB["50%"]

IDENTIFACATION SYSTEM BATTERY Battery Capacity in Ah(Ah) 9 Maximum Charging Current(A) 2 Battery Low Voltage(V) 10.5 Battery Low Capacity(%) 30 Battery Shutdown Voltage(V) 11.0 Periodic Battery Test Disable Battery Installed Date 2015/01/01 Battery Last Maintain Date 2015/01/01 Charging Voltage(V) 2.35 Float Voltage(V) 2.29 SYSTEM ON Standby Mode L1 0% L2 0% L3 0% HOME CONTROL MEASUREMENT SETUP INFORMATION EVENT 15:30 2018/01/01

+12V X2 X2.1 X2.2

Technical line drawing of three identical fan-shaped electronic components with internal circuitry and mounting brackets (no text or symbols)

Online UPS BYPASS INV LINE LOAD BATT FAULT ALARM POWER

Online UPS BYPASS INV LINE LOAD BATT FAULT ALARM POWER Taste Strom Ein/Aus

7. USV-Betrieb

graph TD
    A["Power"] --> B["LOAD"]
    B --> C["STS"]
    C --> D["Ground"]
    D --> E["AC"]
    E --> F["Ground"]
    F --> G["Ground"]
    G --> H["Ground"]
    H --> I["Ground"]
    I --> J["Ground"]
    J --> K["Ground"]
    K --> L["Ground"]
    L --> M["Ground"]
    M --> N["Ground"]
    N --> O["Ground"]
    O --> P["Ground"]
    P --> Q["Ground"]
    Q --> R["Ground"]
    R --> S["Ground"]
    S --> T["Ground"]
    T --> U["Ground"]
    U --> V["Ground"]
    V --> W["Ground"]
    W --> X["Ground"]
    X --> Y["Ground"]
    Y --> Z["Ground"]
    Z --> AA["Ground"]
    AA --> AB["Ground"]
    AB --> AC["Ground"]
    AC --> AD["Ground"]
    AD --> AE["Ground"]
    AE --> AF["Ground"]
    AF --> AG["Ground"]
    AG --> AH["Ground"]
    AH --> AI["Ground"]
    AI --> AJ["Ground"]
    AJ --> AK["Ground"]
    AK --> AL["Ground"]
    AL --> AM["Ground"]
    AM --> AN["Ground"]
    AN --> AO["Ground"]
    AO --> AP["Ground"]
    AP --> AQ["Ground"]
    AQ --> AR["Ground"]
    AR --> AS["Ground"]
    AS --> AT["Ground"]
    AT --> AU["Ground"]
    AU --> AV["Ground"]
    AV --> AW["Ground"]
    AW --> AX["Ground"]
    AX --> AY["Ground"]
    AY --> AZ["Ground"]
    AZ --> BA["Ground"]
    BA --> BB["Ground"]
    BB --> BC["Ground"]
    BC --> BD["Ground"]
    BD --> BE["Ground"]
    BE --> BF["Ground"]
    BF --> BG["Ground"]
    BG --> BH["Ground"]
    BH --> BI["Ground"]
    BI --> BJ["Ground"]
    BJ --> BK["Ground"]
    BK --> BL["Ground"]
    BL --> BM["Ground"]
    BM --> BN["Ground"]
    BN --> BO["Ground"]
    BO --> BP["Ground"]
    BP --> BQ["Ground"]
    BQ --> BR["Ground"]
    BR --> BS["Ground"]
    BS --> BT["Ground"]
    BT --> BU["Ground"]
    BU --> BV["Ground"]
    BV --> BW["Ground"]
    BW --> BX["Ground"]
    BX --> BY["Ground"]
    BY --> BZ["Ground"]

Interior view of a perforated metal panel with 1221 mm height dimension (no text or symbols on the panel itself)