Impedance optimization method for porous gradient anode supported solid fuel cell
By deploying multiple impedance sensors and optimization controllers in the porous gradient anode, an impedance state matrix is constructed to predict the electrode impedance distribution, which solves the problems of uneven impedance distribution and dynamic changes in traditional methods, and dynamic optimization of the spatiotemporal distribution characteristics of the electrode impedance is achieved, which improves the performance and stability of solid fuel cells.
Patent Information
- Application Number
- CN202510855711.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-06-25
- Publication Date
- 2025-07-25
- Estimated Expiration
- 2045-06-25
AI Technical Summary
In the existing solid fuel cell management system, in porous gradient anode-supported solid fuel cells, traditional single-point measurement methods are difficult to capture the spatiotemporal distribution characteristics of electrode impedance. The static model cannot adapt to impedance changes under dynamic operating conditions, resulting in increased impedance optimization complexity, and insufficient processing capabilities for sensor network deployment and algorithm fusion, making it impossible to achieve high-precision and real-time impedance optimization.
By deploying multiple impedance sensors at the porous gradient anode, a distributed sensor network is built, voltage and current data are collected to generate impedance state data sets, the optimization controller constructs a regional impedance state matrix, combines the potential gradient and electrolyte path information to predict the impedance distribution, and builds an impedance optimization model to achieve dynamic optimization of the spatiotemporal distribution characteristics of the electrode impedance.
Accurate prediction and dynamic regulation of the spatial and temporal distribution of electrode impedance is achieved, the spatial resolution and integrity of data acquisition are improved, the impact of inter-electrode interference and transmission delay is overcome, the accuracy and reliability of impedance analysis is ensured, and the performance and stability of solid fuel cells are significantly improved.