Clock battery passivation film dynamic decoupling elimination method based on temperature-current coupling control

By employing a temperature-current coupling control method and utilizing high-dimensional periodic coding and multi-dimensional perturbation excitation generation mechanism, the passivation film is dynamically decoupled and eliminated, solving the problem of the inability to identify and control the evolution state of the film layer in existing technologies, and improving the energy efficiency and safety of the system.

CN122410337APending Publication Date: 2026-07-17MARKETING SERVICE CENT OF STATE GRID HEILONGJIANG ELECTRIC POWER CO LTD
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Patent Information

Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
MARKETING SERVICE CENT OF STATE GRID HEILONGJIANG ELECTRIC POWER CO LTD
Filing Date
2026-04-22
Publication Date
2026-07-17

AI Technical Summary

Technical Problem

Existing technologies cannot effectively identify the evolution state of passivation films and cannot achieve targeted breakdown control, which can easily lead to over-excitation, thermal accumulation, or film regeneration, resulting in a decline in the long-term reliability of the system.

Method used

A temperature-current coupling control-based method is adopted, which dynamically decouples and eliminates the passivation film through high-dimensional periodic coding mapping, a film thickness prediction model of non-uniform step size response behavior, and a multi-dimensional perturbation excitation generation mechanism.

Benefits of technology

It achieves accurate identification and targeted excitation control of the passivation film, significantly improving the system's energy efficiency and safety, avoiding over-excitation and heat accumulation, and restoring the battery's micro-current output capability.

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Abstract

本发明公开了一种基于温度‑电流耦合控制的时钟电池钝化膜动态解耦消除方法,涉及时钟电池钝化膜消除技术领域,包括:采集时钟电池的关键状态参数,引入周期轨迹编码机制将预处理后的时序数据映射至高维周期编码空间,得到反映热‑电‑膜三因子动态耦合趋势的映射结果;构造具有非均匀步长响应行为的膜层厚度预测模型,结合迟滞判定门控函数建立自适应解耦激励判定机制;在判定需要激励时,引入多维扰动激励生成机制生成微电流激励脉冲序列,通过微扰穿透打破温度与电流对膜层增长的反馈耦合关系,实现钝化膜的动态解耦消除。本发明能够精准识别膜层非线性演化规律,实现安全可控的解耦激励,显著提升系统能效与长期运行可靠性。
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