Thermal profile analysis of 18650 Li-ion battery module with embedded copper foam in the nanofluid cooling jacket

Experimental and computational studies have been conducted to predict the maximum and distributional temperatures in the battery pack with and without a copper foam layer utilizing a channel flow channel and ferrofluid as the coolant. A set of 60 Li-ion 18650 cylindrical batteries were put through their paces; each one had a voltage of 25.2V and a total current rating of 30Ah. The findings show that the copper foam significantly impacts the thermal cooling system. The increased mixing intensity of the coolant at the copper surface and region in the flow channel that contains the foam sheet improves heat transmission and ensures that the battery pack is consistently at a consistent temperature. With an average inaccuracy of 5.79 % for cooling battery model I and 4.95 % for cooling battery model II, the anticipated outcomes are in fair agreement with the outcomes expected. In Model I, which does not the copper foam, the pack may reach a maximum temperature of 27.4 °C, but in Model II, which has copper foam, it reaches 26.3 °C. As a crucial component of continuing research into different approaches to enhance thermal cooling and heat transfer for the purpose of achieving stable and safe operation, these findings are pertinent to the development of the cooling system using copper foam. This work has been conducted continuously, especially various charging and discharging C rates.

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Publication Details

Journal
Case Studies in Chemical and Environmental Engineering
Published
2025-03-29
DOI
https://doi.org/10.1016/j.cscee.2025.101208
Citations
7
Primary Topic
Advanced Battery Technologies Research
Type
article
Field-Weighted Citation Impact
4.78

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article

Thermal profile analysis of 18650 Li-ion battery module with embedded copper foam in the nanofluid cooling jacket

Jarinee Jongpluempiti, S. Poojeera, Smith Eiamsa–ard, Ponthep Vengsungnle et al.
7 citations
Case Studies in Chemical and Environmental Engineering
Advanced Battery Technologies Research
4.78
article

Thermal profile analysis of 18650 Li-ion battery module with embedded copper foam in the nanofluid cooling jacket

Jarinee Jongpluempiti, S. Poojeera, Smith Eiamsa–ard, Ponthep Vengsungnle, Nittaya Naphon, Aphichat Srichat, Paisarn Naphon, Kanit Manatura
article en
7 citations

Abstract

Experimental and computational studies have been conducted to predict the maximum and distributional temperatures in the battery pack with and without a copper foam layer utilizing a channel flow channel and ferrofluid as the coolant. A set of 60 Li-ion 18650 cylindrical batteries were put through their paces; each one had a voltage of 25.2V and a total current rating of 30Ah. The findings show that the copper foam significantly impacts the thermal cooling system. The increased mixing intensity of the coolant at the copper surface and region in the flow channel that contains the foam sheet improves heat transmission and ensures that the battery pack is consistently at a consistent temperature. With an average inaccuracy of 5.79 % for cooling battery model I and 4.95 % for cooling battery model II, the anticipated outcomes are in fair agreement with the outcomes expected. In Model I, which does not the copper foam, the pack may reach a maximum temperature of 27.4 °C, but in Model II, which has copper foam, it reaches 26.3 °C. As a crucial component of continuing research into different approaches to enhance thermal cooling and heat transfer for the purpose of achieving stable and safe operation, these findings are pertinent to the development of the cooling system using copper foam. This work has been conducted continuously, especially various charging and discharging C rates.

Case Studies in Chemical and Environmental EngineeringVol. 11
Rajamangala University of Technology Isan (TH), Udon Thani Rajabhat University (TH), Mahanakorn University of Technology (TH), Srinakharinwirot University (TH)
Srinakharinwirot University
Affordable and clean energy
Openalex Percentile: Top 5%
Advanced Battery Technologies Research
4.78
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