1MWH BESS

By accurately controlling the charging and discharging strategy, the load peak during the peak period is reduced, and the transformer demand electricity fee is reduced (when industrial and commercial users are charged according to the maximum demand, 15%-30% of the basic electricity fee can be saved).

Multiple protection design-using lithium iron phosphate batteries (thermal runaway temperature> 800℃, much higher than 200℃ of ternary lithium), with BMS battery management system (real-time monitoring of voltage/temperature/current, automatic cutoff of abnormalities), PACK-level fire protection (aerosol/perfluorohexanone directional fire extinguishing), box-level explosion-proof design, eliminating safety hazards from battery cells to system levels.

Intelligent temperature control + redundant design-independent air duct + liquid cooling/air cooling hybrid temperature control system to ensure stable battery performance under -20℃~50℃ environment; key components (PCS, BMS) are dual redundantly configured, and single point failure does not affect the overall operation.

Based on historical electricity prices, load data and weather forecasts, dynamically adjust the charging and discharging strategy (such as predicting the peak electricity price and discharging in advance), and increase the benefits by 10%-15%.

Real-time monitoring of system status (SOC/SOH/temperature, etc.) through the cloud platform, early warning of potential failures, and reduction of manual inspection costs; the design life of core components is ≥10 years (battery cycle number ≥6000 times), and the cost of the whole life cycle is reduced by 30%+.

The system has a high degree of modularity, supports rapid installation, disassembly and expansion, facilitates later maintenance and project migration, and is suitable for a variety of application scenarios, such as industrial and commercial parks, microgrids, photovoltaic power stations, etc.