TELL-Me: T time-series-decomposition-based ensembled lightweight learning model for diverse battery prognosis and diagnosis

An ensembled lightweight learning model for battery prognosis and diagnosis was proposed, utilizing a dual-module framework to accurately predict degradation trajectories with minimal early-cycle data and offer insights into aging mechanisms across diverse datasets. As batteries become increasingly essential for energy storage technologies, battery prognosis, and diagnosis remain central to ensure reliable operation and effective management, as well as to aid the in-depth investigation of degradation mechanisms. However, dynamic operating conditions, cell-to-cell inconsistencies, and limited availability of labeled data have posed significant challenges to accurate and robust prognosis and diagnosis. Herein, we introduce a time-series-decomposition-based ensembled lightweight learning model (TELL-Me), which employs a synergistic dual-module framework to facilitate accurate and reliable forecasting. The feature module formulates features with physical implications and sheds light on battery aging mechanisms, while the gradient module monitors capacity degradation rates and captures aging trend. TELL-Me achieves high accuracy in end-of-life prediction using minimal historical data from a single battery without requiring offline training dataset, and demonstrates impressive generality and robustness across various operating conditions and battery types. Additionally, by correlating feature contributions with degradation mechanisms across different datasets, TELL-Me is endowed with the diagnostic ability that not only enhances prediction reliability but also provides critical insights into the design and optimization of next-generation batteries.

Authors

Publication Details

Journal
Journal of Energy Chemistry
Published
2025-02-20
DOI
https://doi.org/10.1016/j.jechem.2025.01.063
Citations
10
Primary Topic
Advanced Battery Technologies Research
Type
article
Field-Weighted Citation Impact
6.83

Funders

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article

TELL-Me: T time-series-decomposition-based ensembled lightweight learning model for diverse battery prognosis and diagnosis

Bobo Zou, Hong‐Jie Peng, Xinyan Liu, Tingting Wang et al.
10 citations
Journal of Energy Chemistry
Advanced Battery Technologies Research
6.83
article

TELL-Me: T time-series-decomposition-based ensembled lightweight learning model for diverse battery prognosis and diagnosis

Bobo Zou, Hong‐Jie Peng, Xinyan Liu, Tingting Wang, Kunxiao Liu
article en
10 citations

Abstract

An ensembled lightweight learning model for battery prognosis and diagnosis was proposed, utilizing a dual-module framework to accurately predict degradation trajectories with minimal early-cycle data and offer insights into aging mechanisms across diverse datasets. As batteries become increasingly essential for energy storage technologies, battery prognosis, and diagnosis remain central to ensure reliable operation and effective management, as well as to aid the in-depth investigation of degradation mechanisms. However, dynamic operating conditions, cell-to-cell inconsistencies, and limited availability of labeled data have posed significant challenges to accurate and robust prognosis and diagnosis. Herein, we introduce a time-series-decomposition-based ensembled lightweight learning model (TELL-Me), which employs a synergistic dual-module framework to facilitate accurate and reliable forecasting. The feature module formulates features with physical implications and sheds light on battery aging mechanisms, while the gradient module monitors capacity degradation rates and captures aging trend. TELL-Me achieves high accuracy in end-of-life prediction using minimal historical data from a single battery without requiring offline training dataset, and demonstrates impressive generality and robustness across various operating conditions and battery types. Additionally, by correlating feature contributions with degradation mechanisms across different datasets, TELL-Me is endowed with the diagnostic ability that not only enhances prediction reliability but also provides critical insights into the design and optimization of next-generation batteries.

Journal of Energy ChemistryVol. 106
National Natural Science Foundation of China
Openalex Percentile: Top 3%
Advanced Battery Technologies Research
6.83
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