Modelling and Evaluation of Li-ion Battery Performance Based on the Electric Vehicle Tiled Tests using Kalman Filter-GBDT Approach

A new market has opened up because to innovations in lithium-ion battery (LIB) technology, and that market includes the vehicle sector. Many LIBs are now praising the possibility of a transportation industry that produces less greenhouse gas emissions as a means to fight against climate change. In order to be put on the market, expensive electric vehicles that rely on batteries must fulfill stringent requirements for LIBs regarding safety, lifetime, energy density, and fast-charging. This approach outlines three steps: preprocessing the model text, feature extraction, and training. Battery big data analysis's distribution features are utilized during the pre-processing phase. By combining the cyclic and calendar losses of LIBs, the smart feature selection (SFS) method can accurately forecast these losses during feature selection. The model was trained using a Kalman Filter-GBDT. The average accuracy of the suggested method is 94.53%, which is superior than both the Kalman Filter and GBDT.

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Published
2024-08-23
DOI
https://doi.org/10.1109/iacis61494.2024.10721979
Citations
19
Primary Topic
Advanced Battery Technologies Research
Type
article
Field-Weighted Citation Impact
3.66
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article

Modelling and Evaluation of Li-ion Battery Performance Based on the Electric Vehicle Tiled Tests using Kalman Filter-GBDT Approach

RVS Praveen, Anand Karuppannan, Soumya Mishra, V. Kalpana et al.
19 citations
Advanced Battery Technologies Research
3.66
article

Modelling and Evaluation of Li-ion Battery Performance Based on the Electric Vehicle Tiled Tests using Kalman Filter-GBDT Approach

RVS Praveen, Anand Karuppannan, Soumya Mishra, V. Kalpana, Neeraj Kumar, Sanjay Laxmanrao Kurkute
article en
19 citations

Abstract

A new market has opened up because to innovations in lithium-ion battery (LIB) technology, and that market includes the vehicle sector. Many LIBs are now praising the possibility of a transportation industry that produces less greenhouse gas emissions as a means to fight against climate change. In order to be put on the market, expensive electric vehicles that rely on batteries must fulfill stringent requirements for LIBs regarding safety, lifetime, energy density, and fast-charging. This approach outlines three steps: preprocessing the model text, feature extraction, and training. Battery big data analysis's distribution features are utilized during the pre-processing phase. By combining the cyclic and calendar losses of LIBs, the smart feature selection (SFS) method can accurately forecast these losses during feature selection. The model was trained using a Kalman Filter-GBDT. The average accuracy of the suggested method is 94.53%, which is superior than both the Kalman Filter and GBDT.

Gnanamani College of Technology (IN), Doon University (IN), KIIT University (IN)
Affordable and clean energy
Openalex Percentile: Top 7%
Advanced Battery Technologies Research
3.66
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Modelling and Evaluation of Li-ion Battery Performance Based on the Electric Vehicle Tiled Tests using Kalman Filter-GBDT Approach — RVS Praveen, Anand Karuppannan, et al. · (2024) | TGRS Research Map | TGRS