电动汽车通用电池增压器的计算机辅助热分析

Anik Niraj Desai, S. Mazumder, Nikhil Kumar
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引用次数: 0

摘要

本文的目标是实现一种有效的冷板设计,以管理电动汽车(EV)通用电池增压器(UBS)的设备热负荷。冷板设计确保降低半导体芯片和模块的峰值温度以及模块之间的温度变化,从而降低器件损耗。我们的工作开始于为60千瓦的碳化硅UBS设计计算机辅助设计(CAD)模型。利用ANSYS的thermal和Fluent软件包进行热分析。建模完成后,进行了基于翅片的SiC模块局部冷却冷板设计。随后,几个冷板的几何形状进行了研究,最终确定了一个产生最有效冷却的设计。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Computer-Aided Thermal Analysis of an Electric-Vehicle Universal Battery Supercharger
The goal of this work is to realize an effective design of a cold plate to manage the device thermal load of an electric-vehicle (EV) universal battery supercharger (UBS). The cold-plate design ensures reduced peak temperatures of the semiconductor dies and the modules and temperature variation among the modules thereby reducing the device losses. Our work initiated with the design of a computer-aided-design (CAD) model for a 60-kW SiC UBS. The thermal analysis was conducted using Thermal and Fluent packages of ANSYS. After the modeling, a fin-based cold-plate design was carried out for localized cooling of SiC modules. Subsequently, several cold-plate geometries were pursued eventually finalizing one design that yielded the most effective cooling.
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