SOLAX T-BAT-SYS-HV-S3.6 3.6 kWh High Voltage Stackable Battery Module LiFePO4

The SOLAX T-BAT-SYS-HV-S3.6 is a high-voltage lithium iron phosphate (LiFePO4) battery module designed for residential and commercial energy storage systems. With a nominal energy capacity of 3.6 kWh and a depth of discharge of 95%, it offers reliable and efficient energy storage. The modular, stackable design allows for scalability up to 8 modules per system, making it ideal for expanding storage capacity as needed. With a long cycle life of over 6000 cycles and an IP65 rating, this battery is built to withstand harsh environments and provide long-lasting performance.

Advantages

High energy density and efficiency with 95% DoD, long lifespan exceeding 6000 cycles, and robust IP65 protection against dust and water. The natural convection cooling ensures silent operation and minimal maintenance. Compatible with SolaX hybrid inverters for seamless integration.

Suitable for

• Residential solar energy storage systems
• Commercial backup power solutions
• Off-grid and self-consumption applications
• Expanding existing SolaX battery systems

Key specifications

• Nominal Energy Capacity: 3.6 kWh
• Usable Energy Capacity: 3.42 kWh
• Battery Chemistry: LiFePO4
• Nominal Voltage: 115.2 V
• Operating Voltage Range: 100-131 V
• Max. Charge/Discharge Current: 30 A
• Depth of Discharge: 95%
• Cycle Life: >6000 cycles
• Operating Temperature Range: -30°C to 50°C
• Ingress Protection: IP65
• Scalability: Up to 8 modules per system
• Communication Interface: CAN
• Cooling: Natural Convection
• Installation Type: Floor-mounted (stackable)
• Warranty: 10 Years
• Compatibility: SolaX Hybrid Inverters (X1-Hybrid, X3-Hybrid)
• Certifications: CE, IEC 62619, UN38.3, VDE2510-50

Recommendations

For optimal performance, pair this battery module with a compatible SolaX hybrid inverter. Ensure proper installation by a certified professional. The modular design allows for easy expansion; add up to 8 modules to increase total capacity. Regular firmware updates via the communication interface are recommended to maintain system efficiency.