SOLAX Triple Power HV Slave Battery Module 5.8 kWh LFP

The SOLAX Triple Power HV Slave Battery Module (model 11136) is a high-voltage lithium iron phosphate (LFP) battery module designed for use with the Solax Triple Power HV battery system. With a nominal energy capacity of 5.8 kWh and 95% depth of discharge, this slave module offers reliable and efficient energy storage for residential and commercial solar installations. Its modular, stackable design allows for easy expansion, and the IP66 rating ensures durability in harsh environments.

Advantages

This slave battery module delivers exceptional cycle life of over 6000 cycles, ensuring long-term performance and value. The wide operating temperature range from -30°C to 55°C makes it suitable for various climates. With a high usable energy capacity of 5.51 kWh and efficient charge/discharge rates, it maximizes the use of solar energy. The CAN communication protocol ensures seamless integration with compatible Solax inverters and master boxes.

Suitable for

• Residential solar energy storage systems
• Commercial and industrial backup power
• Off-grid and hybrid solar installations
• Expanding existing Solax Triple Power HV battery banks

Key specifications

• Battery Chemistry: Lithium Iron Phosphate (LFP/LiFePO4)
• Nominal Energy Capacity: 5.8 kWh
• Usable Energy Capacity: 5.51 kWh
• Depth of Discharge (DoD): 95%
• Cycle Life: >6000 cycles
• Nominal Voltage: 115.2 V
• Max. Charge Current: 25 A
• Max. Discharge Current: 25 A
• Max. Charge Power: 2.88 kW
• Max. Discharge Power: 2.88 kW
• Operating Temperature Range: -30°C to 55°C
• Ingress Protection (IP) Rating: IP66
• Scalability: Modular, Stackable
• System Type: High Voltage (HV)
• Module Role: Slave Battery Module (requires Master Box)
• Compatibility: Solax Triple Power HV Battery Systems
• Communication Protocol: CAN
• Installation Type: Floor-standing

Recommendations

This slave module must be used with a compatible Solax Triple Power HV master box. Ensure proper installation by a qualified professional. For optimal performance, operate within the specified temperature range and avoid exceeding the maximum charge/discharge currents.