Desain Sistem Pendingin Kemasan Baterai Litium Ion Kapasitas Pengisian Cepat dengan PCM (Phase Change Material) dan Pelat Pendingin

Choirul Anwar, Agus Suprayitno

Abstract


Battery performance is affected by the problem of overheating which can cause mechanical damage to the battery and electronic components of the BMS (Battery Management System). With the need for an increase in battery charging time with fast capacity, the internal heat generated by the battery also increases so that the battery pack needs to be equipped with a cooling system. Currently, the cooling system in the battery pack uses a lot of cooling plate, cooling pipe, PCM (Phase Change Material) and cooling fluid. Combining cooling system design based on advantages and disadvantages to produce the best performance was tried using the cooling plate and PCM. The method used is to change the initial design of the battery pack without cooling to a cooling system by making a design and verifying the design. The process of thermal analysis is carried out in the process of charging the battery and removing the battery. The result of the research is the distribution of heat transfer that occurs during the battery charging process and the battery discharge is uniform and the temperature value obtained is the 43,2 °C battery discharge process in the main cooling plate component and the maximum temperature in the charging process is 57,6°C. at BMS. Cooling using a cooling plate and PCM for a closed system is maximized.

 

Keywords: baterai Litium-Ion, Heat Sink, PCM


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References


Cao, Wenjiong, Chunrong Zhao, Yiwei Wang, Ti Dong, and Fangming Jiang. 2019. “Thermal Modeling of Full-Size-Scale Cylindrical Battery Pack Cooled by Channeled Liquid Flow.” International Journal of Heat and Mass Transfer 138:1178–87.

D. Bernardi, E. Pawlikowski and J. Newman. 1985. “A General Energy Balance for Battery Systems.” Journal of The Electrochemical Society 131(1):5–12.

Ianniciello, Lucia, Pascal Henry Biwolé, and Patrick Achard. 2018. “Electric Vehicles Batteries Thermal Management Systems Employing Phase Change Materials.” Journal of Power Sources 378(October 2017):383–403.

Kang, Deokhun, Pyeong Yeon Lee, Kisoo Yoo, and Jonghoon Kim. 2020. “Internal Thermal Network Model-Based Inner Temperature Distribution of High-Power Lithium-Ion Battery Packs with Different Shapes for Thermal Management.” Journal of Energy Storage 27(June 2019):101017.

Menale, Carla, Francesco D’Annibale, Barbara Mazzarotta, and Roberto Bubbico. 2019. “Thermal Management of Lithium-Ion Batteries: An Experimental Investigation.” Energy 182:57–71.

Xie, Wenlong, Xinhua Liu, Rong He, Yalun Li, Xinlei Gao, Xinghu Li, Zhaoxia Peng, Suwei Feng, Xuning Feng, and Shichun Yang. 2020. “Challenges and Opportunities toward Fast-Charging of Lithium-Ion Batteries.” Journal of Energy Storage 32(August):101837.




DOI: https://doi.org/10.52447/jktm.v6i1.4325

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