An Integrated Knowledge Distillation Framework for Battery SOH Estimation

State of health (SOH) estimation plays an important role in Battery Management Systems (BMS), especially in electric vehicles (EVs). However, deploying deep learning-based SOH estimation models in EVs is challenging due to their large computational demands and model sizes. Moreover, battery datasets often contain environmental noise, which affects the accuracy of predictions. We propose an integrated knowledge distillation (KD) framework for model compression. Under this framework, the size of the model is compressed by knowledge distillation. This framework uses the Wasserstein distance to solve the extreme value problems during the knowledge distillation process. Additionally, we refine Wasserstein distance with a Gradient Penalty (G-P) technique. This method controls the gradients of the model outputs within a certain range, which can solve the gradient explosion or disappearance problems. The experimental results indicate the validity of our framework.

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Publication Details

Published
2025-02-28
DOI
https://doi.org/10.1109/icsgge64667.2025.10984977
Primary Topic
Advanced Battery Technologies Research
Type
article
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article

An Integrated Knowledge Distillation Framework for Battery SOH Estimation

Chaojie Li, Renyou Xie, Huadong Mo, Jian Huang et al.
Advanced Battery Technologies Research
article

An Integrated Knowledge Distillation Framework for Battery SOH Estimation

Chaojie Li, Renyou Xie, Huadong Mo, Jian Huang, Li Yang, Borui Zhang
article en

Abstract

State of health (SOH) estimation plays an important role in Battery Management Systems (BMS), especially in electric vehicles (EVs). However, deploying deep learning-based SOH estimation models in EVs is challenging due to their large computational demands and model sizes. Moreover, battery datasets often contain environmental noise, which affects the accuracy of predictions. We propose an integrated knowledge distillation (KD) framework for model compression. Under this framework, the size of the model is compressed by knowledge distillation. This framework uses the Wasserstein distance to solve the extreme value problems during the knowledge distillation process. Additionally, we refine Wasserstein distance with a Gradient Penalty (G-P) technique. This method controls the gradients of the model outputs within a certain range, which can solve the gradient explosion or disappearance problems. The experimental results indicate the validity of our framework.

UNSW Sydney (AU), Huazhong University of Science and Technology (CN)
Openalex Percentile: Top 90%
Advanced Battery Technologies Research
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An Integrated Knowledge Distillation Framework for Battery SOH Estimation — Chaojie Li, Renyou Xie, et al. · (2025) | TGRS Research Map | TGRS