撞车
汽车工程
电池组
电池(电)
工程类
法律工程学
电动汽车
航空学
计算机科学
荷电状态
汽车蓄电池
汽车工业
可靠性工程
有限元法
结构工程
电动汽车蓄电池
耐撞性
物理
操作系统
功率(物理)
量子力学
作者
Jaspreet Singh Kukreja,Ngoc-Trung Nguyen,Thomas Siegmund,W. Chen,Waterloo Tsutsui,B. Karthikeyan,Hangjie Liao,Niranjan D. Parab
标识
DOI:10.1016/j.eml.2016.05.004
摘要
In current electric vehicles, batteries fulfill only the role of power source and are stored within the passenger cabin, protected from external impact loads. This study considers a multifunctional, damage tolerant battery system which combines the energetic material with mechanically sacrificing elements that control mechanical stresses and dissipate energy. With such a multifunctional battery system in place it is proposed to place the battery pack into the secondary safe zone of a unibody-type vehicle. Full-vehicle crash analyses via finite element simulations are conducted for several battery pack configurations, thereby comparing the multifunctional battery system to battery packs with batteries alone and battery packs where cellular solids are used as energy absorbers. The analysis demonstrates the use of a multifunctional (damage tolerant and energy storage capable) battery system to ensure battery safety and aid in the energy absorption in a crash overall. The use of the multifunctional battery systems can aid in solving technology limitations of electric vehicles.
科研通智能强力驱动
Strongly Powered by AbleSci AI