Development of CAN Network With Improved Parameters for Adaptive Car Front Lighting System

Konstiantyn Soroka, V. Kharchenko, V. Pliuhin
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引用次数: 1

Abstract

An analysis of implementation principles and algorithms of the adaptive car front-lighting system (AFS) and control methods is carried out. The AFS was adopted by the UNECE in 2007 as the rules for arranging front-lighting systems of vehicles when driving in the dark. Among the known algorithms of AFS operation, a preliminary inspection algorithm is chosen, based on the features of the driver's observation of the road in front of the vehicle, taking into account the characteristics of his vision. The requirements of the algorithm for the control system are analyzed. Control methods using Arduino controllers and computer network are considered. Given the capabilities of network technologies, the CAN network (Controller Area Network) is chosen to ensure the quality of control. It is recommended to use the CAN network option with a length of 40 or 100 m and a speed of 1,000, 500 kbit/s, respectively. Network performance parameters are calculated: speed, error probabilities, performance dependence on load, size of commands and duration of transmission, and compliance with AFS requirements. It is proposed to improve the network arbitration algorithm by increasing the probability of transmission of low-priority commands at high load. The AFS developed on the basis of the CAN network allows creating comfortable conditions for the driver in the dark, preventing accidents, and ensuring traffic safety. An analysis of the AFS operation shows that it is directly related to the operation of most of the main components of the car, namely: engine, steering, gearbox, brakes, accelerometer, etc. It is operated under the driver’s control. Therefore, this system can have extended functions, serve as the basis for the safety system and vehicle control system as a whole
自适应汽车前照灯系统改进参数CAN网络的开发
分析了自适应汽车前照灯系统(AFS)的实现原理、算法和控制方法。AFS于2007年被联合国欧洲经济委员会采纳,作为车辆在黑暗中行驶时设置前照灯系统的规则。在已知的AFS运行算法中,根据驾驶员对前方道路的观察特征,考虑到驾驶员的视觉特征,选择了一种预检算法。分析了算法对控制系统的要求。考虑了利用Arduino控制器和计算机网络的控制方法。考虑到网络技术的能力,为了保证控制质量,选择了CAN网络(控制器局域网)。建议使用CAN网络选项,长度为40米,速率为1000kbit /s,速率为500kbit /s。计算网络性能参数:速度、错误概率、性能对负载的依赖、命令的大小和传输的持续时间,以及是否符合AFS要求。提出通过提高低优先级命令在高负载下的传输概率来改进网络仲裁算法。以CAN网络为基础开发的AFS可以在黑暗中为驾驶员创造舒适的环境,防止事故发生,确保交通安全。分析AFS的运行情况可知,它直接关系到汽车大部分主要部件的运行情况,即:发动机、转向、变速箱、刹车、加速度计等。它是在驾驶员的控制下操作的。因此,该系统可以具有扩展功能,作为整个安全系统和车辆控制系统的基础
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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