Product Superiority
Non-uniform refined flow channels keep cell temperature differentials within ≤2°C while multiple cooling modes cut auxiliary power consumption by 20%.
- Cell Temperature Differential: ≤2°C
- Auxiliary Power Consumption Reduction: ↓ 20%
Rack-level management boosts RTE by over 2%, paired with active equalization to enhance cell consistency within each rack.
- DC RTE: ≥94% (0.5P) / ≥95% (0.25P)
- System usable energy : ↑>1% (via multi-cluster SOC coordination)
- Cell voltage differential: ≤200mV (with active BMS balancing)
Five-level cell-to-system protection prevents thermal runaway, supported by a hybrid explosion-proof system with integrated gas and water fire suppression.
- Protection Architecture: 5-tier
- Fire Suppression System: 3-side, 2-hour fire resistance (EN1364-1)
- Cabin Design: Battery/HV physically isolated
- Ingress Protection: IP55
- Operating Temperature: –30°C to +55°C
- Safety Certification: UL9540A 2026
- Structural Simulation: 6 load-case validated
Intelligent control enables efficient commissioning and reduced O&M costs, while back-to-back and side-by-side placement maximizes site-level energy density.
- OTA Upgrade Time: ≤30 min (station-wide)
- Remote O&M Latency: <1s (7 nodes globally)
- Footprint Reduction: 17.7%
- Maintenance: Leak-free swap + front access
Application Scenarios
Generation-side
Enhance the stability, continuity, and controllability of renewable energy generation, thereby providing stability support to the power grid.
Grid-side
Participate in grid dispatching to meet peak-shaving and frequency-regulation requirements, thereby improving the flexibility and stability of the power system.
User
Alleviate grid load, meet diverse electricity demand from end-users, strengthen power-supply reliability on the user side, and improve the overall user experience of electricity consumption.