A Hybrid Battery Thermal Management System for Electric Vehicle Operations in Cold Climates

Yingqiao Jiang, Khaled Hashad, Zachary E. Lee, K. M. Zhang
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Abstract

Without proper battery thermal management, electric vehicles (EVs) suffer from significantly reduced efficiency and performance in cold climates, creating a barrier to electrifying the transportation sector. In this study, we have developed a modular, hybrid battery thermal management system that combines phase change material (PCM) with internal heating. This hybrid system uses PCM to store waste heat generated during driving, maintaining the battery temperature during shorter stops between consecutive trips. For longer stops, internal heating can re-heat the battery if the latent heat of the PCM has dissipated. Moreover, by applying PCM on the outside, the proposed system is modular, requiring no structural change within the existing battery module and reducing the impact of increased thermal inertia on battery re-heating time. Through both laboratory experiments and numerical simulations, we found that the proposed system could hold the battery temperature above 20°C for around 2 hours at an ambient temperature of −15°C and achieved a battery-reheating time (from 0°C to 20°C) of only 11 minutes. By reusing waste heat during short stops, this system can promote EV adoption in cold climates through improved battery efficiency, particularly for EVs making frequent stops, such as taxis and delivery vehicles.
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寒冷气候下电动汽车运行的混合电池热管理系统
如果没有适当的电池热管理,电动汽车(EV)在寒冷气候下的效率和性能就会大大降低,从而阻碍交通领域的电气化进程。在这项研究中,我们开发了一种模块化混合电池热管理系统,它将相变材料 (PCM) 与内部加热相结合。这种混合系统利用 PCM 来储存行驶过程中产生的废热,从而在连续行驶之间的较短停留时间内保持电池温度。对于较长时间的停车,如果 PCM 的潜热已经散去,内部加热可以重新加热电池。此外,通过在外部应用 PCM,拟议的系统是模块化的,无需改变现有电池模块的结构,并减少了热惯性增加对电池再加热时间的影响。通过实验室实验和数值模拟,我们发现在环境温度为 -15°C 的情况下,拟议系统可将电池温度保持在 20°C 以上约 2 小时,电池再加热时间(从 0°C 到 20°C)仅为 11 分钟。通过在短暂停车时重复利用废热,该系统可以提高电池效率,从而促进电动汽车在寒冷气候条件下的应用,特别是对于出租车和送货车辆等频繁停车的电动汽车而言。
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