An electrochemical energy storage station battery cabinet fire control system
By constructing an anomaly propagation modeling mechanism based on multi-source sensing information and duct topology constraints, and combining temporal sequence and propagation continuity for reverse backtracking analysis, the problem of misjudgment and reignition of thermal anomaly sources in the existing fire control system of battery cabinets in electrochemical energy storage stations was solved. This enabled precise location and dynamic control of thermal anomaly sources, improving the safety and stability of the system.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Filing Date
- 2026-05-21
- Publication Date
- 2026-07-17
AI Technical Summary
The existing fire control system for battery cabinets in electrochemical energy storage stations lacks effective monitoring and location capabilities during the propagation of abnormal heat, which can easily lead to misjudgment of the source of abnormal heat, resulting in uncontrolled thermal runaway. Furthermore, it lacks the ability to continuously track the recovery of residual heat and secondary gas evolution after fire extinguishing, which can easily trigger reignition.
By constructing an anomaly propagation modeling mechanism based on multi-source sensing information and duct topology constraints, and combining temporal sequence and propagation continuity for reverse backtracking analysis, the source cabinet of thermal anomaly is identified. Furthermore, multi-dimensional feature division is performed on the thermal runaway stage, and fire suppression strategies are dynamically matched to achieve precise location and control of thermal anomalies and continuous tracking of reignition risk.
It significantly improves the positioning accuracy of thermal anomaly source cabinets and the targeting of fire control, enhances the safety and stability of electrochemical energy storage stations, and reduces the risk of thermal runaway propagation and reignition.
Smart Images
Figure CN122399299A_ABST