Electronic mechanical braking system executive mechanism design, calculation, and modeling based on dynamic control

IF 2 Q2 ENGINEERING, MECHANICAL
Xinping Wu, Rongnian He, Han Ge, Mengyu Chen
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Abstract

Introduction: As science and technology develop, automobiles are moving toward intelligence and electrification and need better braking systems.Methods: To improve the braking system’s response speed and braking effect, a longitudinal dynamics control system for automobiles based on the electronic mechanical braking system was proposed, and the electronic mechanical braking system was improved through automatic disturbance rejection control.Results: The experimental results show that the time required for achieving the target clamping force in the electronic mechanical braking system using self-disturbance rejection control and proportional integral differential control is only 0.01 s, but there is an issue of excessive control in the proportional integral differential system between 0.12 s and 0.2 s, while the self-disturbance rejection controller does not have this problem. Meanwhile, regardless of the interference applied, the electronic mechanical braking system with automatic disturbance rejection control can ensure that the clamping force does not fluctuate. In the joint simulation experiment, the expected acceleration and actual acceleration can remain consistent, and if the expected braking force is 9000 N, then the actual braking force of the electronic mechanical brake (EMB) is also 9000 N.Discussion: The above results indicate that the vehicle longitudinal dynamics control system using the electronic mechanical braking system not only responds fast but also has a good braking effect, avoiding the problem of excessive control and improving the driving experience.
基于动态控制的电子机械制动系统执行机构设计、计算和建模
引言随着科学技术的发展,汽车正朝着智能化和电气化的方向发展,需要更好的制动系统:方法:为了提高制动系统的响应速度和制动效果,提出了一种基于电子机械制动系统的汽车纵向动力学控制系统,并通过自动干扰抑制控制对电子机械制动系统进行了改进:实验结果表明,采用自扰动抑制控制和比例积分微分控制的电子机械制动系统达到目标夹紧力所需的时间仅为 0.01 s,但比例积分微分系统在 0.12 s 至 0.2 s 之间存在控制过度的问题,而自扰动抑制控制器则不存在这一问题。同时,无论施加何种干扰,带有自动干扰抑制控制的电子机械制动系统都能确保夹紧力不波动。在联合仿真实验中,预期加速度和实际加速度可以保持一致,如果预期制动力为 9000 N,那么电子机械式制动器(EMB)的实际制动力也为 9000 N:以上结果表明,使用电子机械制动系统的车辆纵向动力学控制系统不仅响应速度快,而且制动效果好,避免了过度控制的问题,改善了驾驶体验。
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
Frontiers in Mechanical Engineering
Frontiers in Mechanical Engineering Engineering-Industrial and Manufacturing Engineering
CiteScore
4.40
自引率
0.00%
发文量
115
审稿时长
14 weeks
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