Development of the MEV 02 UI brake model into a Solenoid Brake Booster system to support the converting program of conventional vehicles to electric vehicles

A. A. Nugraha, D. Sumarsono, M. Adhitya, R. Siregar, Nazaruddin, F. Zainuri
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Abstract

MEV 02 UI is a city car-type vehicle as a program for converting the conventional vehicle into the electric vehicleat the Universitas Indonesia. In the brake system, the booster component still uses the Vacum Brake Booster. Vacuum type booster brakes require air vacuum generated by the engine intake manifold. Electric vehicles do not have anengine to create a vacuum in the intake manifold because they usean electric motor. Type of vacuum brake booster on electric vehicles used, it is necessary to have an additional vacuum pump component. The use of a vacuum pump requires an additional electric power of 1200 Wh. The existence of a vacuum pump requires an additional space of 0.25 m × 0.15 m × 0.15 m. This study aims to design a new mechanism for a booster type Solenoid Brake Booster as a substitute for a type of vacuum brake booster mechanism. The method used in this research is to analyze the related braking force on the City Car MEV-02. Furthermore, analyzing the force generated by the type of vacuum brake booster as an initial reference for designing the Solenoid Brake Booster design. The design of the Solenoid Brake Booster construction mechanism is designed using CAD software. Solenoid brake booster design uses a magnetic force generated by the solenoid coil, which pulls the lever rod connected to the brake master. The brake pedal that is stepped on by the driver activates the flow of electricity in the solenoid and activates a magnetic force so that the solenoid brake booster mechanism will assist the driver force in stepping on the brake pedal. Unlike the previous research, this research resulted in a solenoid brake booster design with only 94.07 Wh of battery power.
将MEV 02 UI制动模型开发为电磁制动助力系统,以支持传统车辆向电动车辆的转换程序
MEV 02 UI是一款城市汽车,是印尼大学将传统汽车转换为电动汽车的项目。在制动系统中,助力部件仍采用真空制动助力器。真空式助力制动器需要由发动机进气歧管产生的空气真空。电动汽车没有发动机在进气歧管中产生真空,因为它们使用电动机。在电动汽车上使用的真空制动助力器类型,必须要有额外的真空泵部件。使用真空泵需要额外1200瓦时的电力。真空泵的存在需要额外的0.25 m × 0.15 m × 0.15 m的空间。本研究旨在设计一种新的助力式电磁制动助力器机构,以替代真空制动助力机构。本研究采用的方法是对城市轿车MEV-02的相关制动力进行分析。进一步分析了真空制动助力器所产生的力,为电磁制动助力器的设计提供了初步参考。利用CAD软件对电磁制动助力器结构机构进行了设计。电磁制动助力器设计利用电磁线圈产生的磁力,拉动连接到制动主控杆上的杠杆杆。驾驶员踩下的制动踏板激活电磁阀内的电流流动并激活磁力,使电磁阀制动助力机构辅助驾驶员踩下制动踏板。与之前的研究不同,这项研究的结果是电磁制动助力器的设计只有94.07 Wh的电池功率。
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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