Multi-physical contact simulation in Vehicle applications

IF 1.9 Q3 ENGINEERING, INDUSTRIAL
M. Schmid, P. Tomek, P. Hanus
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引用次数: 1

Abstract

Abstract Multi-physical contact behaviour is important in multiple disciplines related to the automotive industry. Nowadays battery-electric vehicles' (BEV) thermal management systems deal with contact between bodies where mechanical, electric, and thermal interaction occurs. The battery thermal management itself is crucial for cell life, safety, and everyday vehicle performance. Thus, comprehensive and accurate simulation of the multi-physical contact is a vital part of vehicle development. The multi-physical contact is represented by two or more bodies under applied mechanical load and a current or heat conducted throughout the realized contact area. The amount of conducted current/heat or generated Joule heat is the function of the contact area as well as contact pressure, thus the structural simulation should be essential for such thermal management system simulations Most of the current full vehicle battery pack CFD cooling simulations simplified the multi-physical contact as ideal. Detailed contact modelling is time-consuming, hence not applicable for the full vehicle modelling. In this work, a feasible approach based on contact resistance curves was implemented. Furthermore, the work demonstrates the necessity of correct structural contact prediction for a joule heating and thermal solution.
车辆应用中的多物理接触仿真
摘要多物理接触行为在与汽车行业相关的多个学科中都很重要。如今,电池电动汽车(BEV)的热管理系统处理发生机械、电气和热相互作用的物体之间的接触。电池热管理本身对电池寿命、安全性和日常车辆性能至关重要。因此,全面准确地模拟多物理接触是车辆开发的重要组成部分。多物理接触由在施加的机械负载和在整个实现的接触区域传导的电流或热量下的两个或多个物体表示。传导电流/热量或产生的焦耳热是接触面积和接触压力的函数,因此结构模拟对于此类热管理系统模拟至关重要。目前大多数整车电池组CFD冷却模拟都将多物理接触简化为理想。详细的接触建模非常耗时,因此不适用于整车建模。在这项工作中,实现了一种基于接触电阻曲线的可行方法。此外,该工作证明了对焦耳加热和热解进行正确的结构接触预测的必要性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Production Engineering Archives
Production Engineering Archives Engineering-Industrial and Manufacturing Engineering
CiteScore
6.10
自引率
13.00%
发文量
50
审稿时长
6 weeks
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