Static Analysis of Electric Vehicle Prototype Frame

Tri Satya Ramadhoni, Ahmad Imam Rifa'i, Zainuri Anwar, Baiti Hidayati, Herlin Sumarna, Toni Okviyanto, Rachmat Dwi Sampurno
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Abstract

This study aims to determine the strength of the prototype car frame created by the SMES (Sriwijaya Mechanical Engineering Squad) team in participating in the KMHE (Energy Efficient Car Contest) and SEM (Shell Eco-Marathon). This prototype vehicle is an energy-efficient car with an electric motor drive and utilizes a hollow rectangular tube-shaped frame with aluminum 6061 material. The overall dimensions of the car frame are 2500x410x540 mm. Static loading analysis was conducted using manual calculations and computer simulations. Static loading was performed on seven support bars, the main bar, and the overall prototype car frame. Applied loads include the electric motor load, control panel, battery load, driver's body load, driver's legs, front body load, rollbar body load, rear body load, and reaction loads from bars receiving direct loads. Autodesk Inventor software with frame analysis features was used in the simulation process. Based on the results of manual calculations and computer simulations, the difference in the average results of maximum bending moment, maximum stress, and displacement on the seven types of support bars, with a small error tolerance below 10%, is 1.01%, 5.24%, and 3.25%, respectively. Based on computer simulation results for the main bar and seven types of support bars, the highest maximum stress occurs in the main bar, which is 128727.37 N.
电动汽车原型框架的静态分析
本研究旨在确定 SMES(斯里维加亚机械工程队)团队在参加 KMHE(节能汽车竞赛)和 SEM(壳牌生态马拉松)时所制作的原型车框架的强度。这辆原型车是一辆由电动机驱动的节能汽车,采用了铝 6061 材质的空心矩形管形车架。车架的整体尺寸为 2500x410x540 毫米。通过手工计算和计算机模拟进行了静态加载分析。对七根支撑杆、主杆和整个原型车车架进行了静态加载。施加的载荷包括电机载荷、控制面板、电池载荷、驾驶员身体载荷、驾驶员腿部载荷、前车身载荷、防滚杆车身载荷、后车身载荷,以及来自接受直接载荷的杆件的反作用载荷。模拟过程中使用了具有车架分析功能的 Autodesk Inventor 软件。根据手工计算和计算机模拟的结果,七种类型支撑杆的最大弯矩、最大应力和位移的平均结果差异分别为 1.01%、5.24% 和 3.25%,误差公差小于 10%。根据主杆和七种支撑杆的计算机模拟结果,主杆的最大应力最大,为 128727.37 N。
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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