EA ENERGY's Industrial High Voltage Energy Storage System excels in scalability and efficiency, featuring a modular design for seamless capacity expansion and high-voltage direct-connection technology that eliminates transformers, reducing equipment by 80% and optimizing space utilization . With built-in AI-driven monitoring, it tracks over 1,200 parameters for millisecond-level fault detection and predictive maintenance, ensuring 99.2% grid regulation accuracy and ≤20ms response time . Its decentralized BMS achieves ≤2°C cell temperature variance and annual capacity decay ≤1.5%, while smart thermal control maintains ≥92% efficiency across -30°C~55°C . The four-layer safety network, including UL 9540A-certified thermal runaway containment and 100MΩ DC insulation, ensures extreme reliability. By integrating VSG/PQ/VF control modes and supporting 20+ grid services, it enables 10ms charge-discharge switching and reduces transmission losses by 10% through localized energy supply. Ideal for industrial resilience, this system balances scalability, intelligent management, and adaptive performance to meet evolving energy demands among commercial energy storage solutions.
The EA-EES system from Lithium-ion battery supplier features a modular architecture with standardized 110KW/205KWh unit configurations. It supports linear capacity expansion by adding energy storage AC/DC integrated cabins. The unique high-voltage direct-connection technology eliminates the need for traditional step-up transformers, reducing parallel equipment by over 80% and minimizing system complexity and footprint—ideal for space-constrained industrial sites.
Built-in local data monitoring systems real-time collect over 1,200 equipment parameters, combined with AI algorithms for millisecond-level fault localization. The innovative fault bypass and tolerance control technology automatically isolates faulty power units while maintaining full-power operation, reducing annual maintenance frequency by 60%. The system is also certified to standards like UL9540A and GB/T 36276, validated for stability in extreme conditions.
A decentralized fine-control strategy is adopted, with independent BMS (Battery Management System) and liquid-cooling units for each battery cluster, ensuring a cell temperature difference ≤2℃. The dynamic SOC balancing algorithm limits annual capacity decay to ≤1.5%. The intelligent thermal control system integrates phase-change materials and AI prediction models, maintaining ≥92% battery efficiency across a wide temperature range of -30°C to 55°C.
The system employs a four-layer safety protection network:
① Intrinsic safety design: Uses ceramic-coated separators and flame-retardant electrolytes.
② Active early warning: Detects thermal runaway 30 minutes in advance via 128-channel fiber optic temperature sensors.
③ Multi-level fire protection: Includes perfluorohexanone gas suppression, water-based compressed-air foam, and station-level water spray systems.
④ Electrical isolation: Maintains DC-side insulation resistance ≥100MΩ to prevent arc risks.
It supports control modes like VSG (Virtual Synchronous Generator), PQ (Constant Power), and VF (Constant Voltage/Frequency), switching charge-discharge modes within 10ms. The station-level EMS (Energy Management System) integrates multi-source data (wind, solar, storage, load) to enable over 20 grid services, including peak shaving and demand response. Field tests show a frequency regulation response speed ≤20ms and a regulation accuracy of 99.2%.
These answers highlight EA-EES’s technical advantages in scalability, reliability, safety, and grid adaptability, addressing key concerns for industrial energy storage applications.