A review of thermal management methods for electric vehicle batteries based on heat pipes and PCM

被引:0
作者
Vivek Thawkar
A. S. Dhoble
机构
[1] Visvesvaraya National Institute of Technology,Department of Mechanical Engineering
来源
Journal of the Brazilian Society of Mechanical Sciences and Engineering | 2023年 / 45卷
关键词
Lithium-ion battery; Heat pipe; Thermal runaway; Thermal management system; Phase change material; Nanofluids; Temperature difference;
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学科分类号
摘要
One of the most recent fields to emerge in this era of a sustainable energy revolution is energy storage in batteries. These days, electric vehicles use batteries more than ever. Lithium-ion batteries stand out as exceptional energy storage devices in this context and have been widely used due to their multiple impressive advantages. However, lithium-ion batteries are temperature sensitive, so the battery thermal management system (BTMS) is essentially used in electric vehicles. The operating temperature range of an electric vehicle lithium-ion battery is 15–35 °C, achieved using a battery thermal management system (BTMS). Also, internal heat generation due to charging and discharging affects the performance of the lithium-ion batteries. Hence, a battery thermal management system is required. This paper comprehensively reviews all experimental and numerical analyses conducted on heat pipe-based BTMS techniques for electric and hybrid vehicles. Research on flat heat pipes, oscillating heat pipes, micro-heat pipes, and hybrid (HP + PCM) battery thermal management systems are discussed in this review article. Based on the review, it is determined that heat pipe-based hybrid (HP + PCM) battery thermal management systems perform significantly better than other BTMSs. Finally, an ongoing analysis describes the potential advantages, difficulties, and future opportunities for using heat pipes in TMS to enhance the installation and operation of EVs.
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[1]  
Celik AN(2020)Review of Turkey’s photovoltaic energy status: Legal structure, existing installed power and comparative analysis Renew Sustain Energy Rev 54 393-397
[2]  
Ozgur E(2020)Climate change: implications for gastrointestinal health and disease J Clin Gastroenterol 223 120116-382
[3]  
Leddin D(2021)An overview of greenhouse gases emissions in Hungary J Clean Prod 110 377-224
[4]  
Macrae F(2021)Assessment of Mo2N monolayer as Li-ion battery anodes with high cycling stability Mater Today Commun 208 210-99
[5]  
Mohammed S(2021)State of charge prediction of EV Li-ion batteries using EIS: a machine learning approach Energy 59 83-10368
[6]  
Gill AR(2002)Battery thermal models for hybrid vehicle simulations J Power Sources 196 10359-409
[7]  
Alsafadi K(2012)Thermal runaway caused fire and explosion of lithium ion battery J Power Sources 148 403-307
[8]  
Mehta V(2021)A review of lithium-ion battery safety concerns: the issues, strategies, and testing standards J Energy Chem 128 292-280
[9]  
Saini HS(2021)Advances in thermal management systems for next-generation power batteries Int J Heat Mass Transf 126 266-330
[10]  
Srivastava S(2011)Design optimization of electric vehicle battery cooling plates for thermal performance J Power Sour 150 304-128