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Rack mount LiFePO4 lithium battery 48V

48V Lithium Battery

Rack mount LiFePO4 lithium battery 48V

ENSMAR Crius-series 48V edition ideal for new installation of household energy storage. With high energy density and multiple mounting ways, stack rack battery is space-saving for all kinds of installation. Modular design can fit your energy demand in solar energy, data center and other industries.

  • ENSMAR Crius 4850 LiFePO4 battery 2.56KWh 48V50Ah, rack mount
  • ENSMAR Crius 48100 LiFePO4 battery 5KWh 48V100Ah, rack mount
  • ENSMAR Crius 48150 LiFePO4 battery 7.68KWh 48V150Ah, rack mount
  • ENSMAR Crius 48200 LiFePO4 battery 10KWh 48V200Ah, rack mount
  • ENSMAR Crius 48280 LiFePO4 battery 14.336KWh 48V280Ah, rack mount
  • ENSMAR Crius 48300 LiFePO4 battery 15KWh 48V300Ah, rack mount

Product features

▶ Self-designed BMS, every battery module is equipped with a standalone one;
▶ Top brand Grade A LiFePO4 battery cells, prismatic, top class safety;
▶ Compatible with multi-brand storage inverters;
▶ Powerful parallel capacity, up to 16 parallels;
▶ Long cycle life energy storage battery (6000 times)
▶ Flexible installation, supporting rack-mounted, stackable, wall-mounted. Time and cost saving
▶ Certification of IEC62619, UN38.3, CEC approved etc

Technical Description

MODEL

Crius 4850

Crius 48100

Crius 48150

Crius 48200

Crius 48280

Crius 48300

Battery Type

LiFePO4 (lithium iron phosphate battery)

Nominal Capacity

50Ah

100Ah

150Ah

200Ah

280Ah

300Ah

Nominal Voltage

51.2V

Total Energy

2560Wh

5120Wh

7680Wh

10240Wh

14336Wh

15360Wh

Charge Cut-off Voltage

57.6V

Discharge Cut-off Voltage

40V

Charge Current

50A max

100A max

150A max

200A max

150A max

150A max

Discharge Current

50A max

100A max

150A max

200A max

150A max

150A max

Communication Mode

RS485, CAN

Ingress Protection

IP20

Scalability

max 16pcs in parallel

Lifespan (80% DOD)

≥6000 cycles, 25°C

Compatible Inverters

Goodwe, Victron, SMA, Kosta, Fronius, Solis, Growatt, Sofar, Deye, Solar Ark, Outtback, Voltronic, Pylontech optional, more brands will be announced

Working Environment

-20°C-60°C, < 95% RH

Storage Environment

-20°C〜50°C, < 95% RH

Operating Altitude

<2000m

Design Life

15 years

Warranty Period

5 years, 10years optional

Tips About Lithium Battery

How to set the communication between lithium battery and solar inverter?
Setting up communication between a lithium battery and a solar inverter involves several steps to ensure compatibility and efficient energy management. Here’s a general guide to help you through the process:

1. Check Compatibility
● Ensure that the lithium battery and the solar inverter are compatible with each other. Check their specifications and confirm they support the same communication protocols.

2. Identify Communication Protocols
Lithium batteries and solar inverters often use specific communication protocols such as:
● RS485/RS232
● CAN Bus
● Modbus
● Ethernet
 Refer to the user manuals of both devices to determine which protocol is supported.

3. Gather Necessary Cables and Connectors
Depending on the communication protocol, you will need appropriate cables and connectors. For example:
● RS485 typically uses twisted pair cables.
● CAN Bus uses specific CAN cables.
 Ethernet uses standard Ethernet cables.

4. Configure Communication Settings
Both the battery and the inverter need to be configured to communicate with each other. This involves setting the same baud rate, data bits, parity, and stop bits. Follow these steps:
a. Battery Configuration
● Access the battery’s configuration menu via its display or management software.
● Set the communication parameters (e.g., baud rate, CAN ID) as specified in the manual.
b. Inverter Configuration
● Access the inverter’s configuration menu.
 Match the communication settings to those of the battery.

5. Connect the Devices
● Physically connect the battery to the inverter using the appropriate communication cable. Ensure secure and correct connections to avoid any data transmission errors.

6. Test Communication
After connecting, test the communication:
● Check the inverter’s display or monitoring software to see if it is receiving data from the battery.
 Ensure that battery parameters like state of charge (SOC), voltage, and current are correctly displayed on the inverter.

7. Monitor and Troubleshoot
● Regularly monitor the communication status.
● If issues arise, refer to the troubleshooting sections of the user manuals for both devices.
 Ensure firmware is up-to-date on both the inverter and the battery management system (BMS).

Example Steps for RS485 Communication:
1.Connect RS485 Cable: Connect the RS485 communication port of the battery to the RS485 port of the inverter.

2.Set Parameters:
● Battery: Set the RS485 baud rate, device address, and other parameters via the battery’s display or BMS software.
 Inverter: Enter the inverter’s settings menu and set the corresponding RS485 parameters to match the battery.

3.Test Connection: Verify the inverter is reading data from the battery.

Example Steps for CAN Bus Communication:
1.Connect CAN Bus Cable: Connect the CAN Bus port of the battery to the CAN Bus port of the inverter.

2.Set Parameters:
● Battery: Configure the CAN Bus settings via the BMS software or display.
 Inverter: Enter the inverter’s settings and set the corresponding CAN Bus parameters.

3.Test Connection: Ensure the inverter is receiving the correct data from the battery.

Additional Tips
Following these steps will help you establish efficient communication between your lithium battery and solar inverter, ensuring optimal energy management and system performance.

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