UNIV-21kwh/LV(W)
Lithium-Ion Battery Pack
Series and Parallel
Chargeable
High Discharge Rate
Medium
Chargers
21kwh
51.2V
Energy Storage
Li-ion
51.2V
21kwh
>97%
620*950*380mm
10years
Natural Cooling
Aoboet
Carton / Pallet
165kgs
China
85076000
Product Description
Scalable 21kwh 48V Rechargeable Iron Phosphate 400Ah Power Bank Built-in BMS
| Specification | |
| Total Energy: 21KWh | |
| Usable Energy: 20.5KWh | |
| Nominal charge/discharge power: 10.6KW | |
| Efficiency: >97% | |
| Peak power (only discharging): 16.8KW for 3 seconds | |
| Peak current (only discharging): 235A for 3 seconds | |
| Voltage: 48-58.4DC | |
| Nominal Voltage: 51.2VDC | |
| Nominal current: 206A | |
| Max charging voltage: 58.4V | |
| Operating Condition: Indoor or Outdoor | |
| Operating Temperature: From -20ºC to 60 ºC | |
| Dimension(W*H*D) mm: 620*950*380mm | |
| Weight: 165KGS | |
| Cooling Type: Natural cooling | |
| Case material: Metal | |
| Installation: Free standing / Wall mounting | |
| Protection grade: ip64 | |
| Max number of parallel connection (Optional): 20P | |
| Warranty: 10 Years | |
| Life Span: >15 Years | |
| Communication: CAN/RS485 | |
| Protection mode: Dual hardware protection | |
| Battery protection: Over-current / Over-voltage/Short circuit/Under-voltage/Over temperature | |
| Certification | |
| Safety: CE TUV (IEC62619(IEC 62040) | |
| Transportation: UN38.3 |
Key Features
1. High Inverter Compatibility
2. Reliable LiFePO4 battery Cell
3. 5 + 5 Years Warranty
4. Scalable up to 60kWh (4 parallel)
5. Monitored by PC or Bluetooth
6. Easy firmware update: The BMS firmware can be updated to the latest version
7. Cooling: Natural cooling
Exploded views of 20kWh 48V 400AH LiFePO4 Battery Bank
How is the LiFePO4 battery work in the solar PV system
How is the LiFePO4 battery work in the solar PV system1) Off Grid Solar Storage System with LiFePO4 Battery 2) On Grid / Off Grid Hybrid Solar System
Intelligent Service Platform for remote monitoring and management
Remote monitored by APP for LiFePO4 battery system
Communication compatible Inverter brands that have been tested and are supported 48V Lithium Battery Systems
| Brand | Protocol name | Communication |
| Pylontech | CAN-Bus-protocol-PYLON | CAN |
| Goodwe | Goodwe communication protocol | CAN |
| Solis | CAN communication protocol | CAN |
| SUNGROW | CAN-Bus-protocol-PYLON | CAN |
| CHNT Power | Chint+Power CAN bus protocol V1.0.0 | CAN |
| SOFAR | Sofar BMS CAN bus protocol | CAN |
| Growatt | Growatt BMS CAN-Bus-protocol-low-voltage | CAN |
| Luxpower | Luxpowertek Battery CAN Protocol | CAN |
| Sol-Ark | Sol-Ark CAN Bus Protocol | CAN |
| TBB | TBB BMS CAN communication V1.02 | CAN |
| Deye | CAN-Bus-protocol-PYLON-v1.3 | CAN |
| Sunsynk | CAN-Bus-protocol-PYLON | CAN |
| LIVOLTEK | LIVOLTEK CANBUS Protocol of Low Voltage SystemV1.0 | CAN |
| SOROCEC | 2_CAN1.0 | CAN |
| MEGAREVO | Megarevo _5K_BMS communication V1.01 | CAN |
| Afore | Luxpowertek Battery CAN Protocol | CAN |
| Sacolar | Growatt BMS CAN-Bus-protocol-low-voltage | CAN |
| SRNE | PACE BMS Modbus Protocol for RS485 | 485 |
| Deye | Deye RS485-protocol-pylon-low-voltage-12 9600 | 485 |
| SMK | SMK GT 20220510.html | 485 |
| Victronic | Voltronic Inverter and BMS 485 communication protocol | 485 |
| EASUN | Voltronic Inverter and BMS 485 communication protocol | 485 |
| MPP Solar | Voltronic Inverter and BMS 485 communication protocol | 485 |
| EPEVER | EPEVER BMS-Link communication V1.4.pdf | 485 |
| Bentterson | RS485-protocol-pylon-low-voltage-communication | 485 |
Functions of LiFePO4 Battery BMS (Battery Management System):
(1) Measurement of LiFePO4 battery terminal voltage
(2) Energy balance between single LiFeP04 cells
(3) Total battery voltage measurement
(4) Total battery current measurement
(5) SOC calculation: estimate the remaining power of the Lithium battery
(6) Dynamically monitor the working state of the LiFePO4 battery pack: prevent over charging or over discharging
(7) Real-time data display
(8) Data recording and analysis: maintain the reliability and efficiency of the entire battery operation
(2) Energy balance between single LiFeP04 cells
(3) Total battery voltage measurement
(4) Total battery current measurement
(5) SOC calculation: estimate the remaining power of the Lithium battery
(6) Dynamically monitor the working state of the LiFePO4 battery pack: prevent over charging or over discharging
(7) Real-time data display
(8) Data recording and analysis: maintain the reliability and efficiency of the entire battery operation
Application of LiFePO4 Battery Bank with BMS
