数字孪生研究:随动加速机动ACC控制器的粒子群优化

Batuhan Durukal, S. Kınay, Namik Zengin, Batuhan Günaydm, Bekir Öztürk, Sarp Kaya Yetkin
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摘要

数字孪生(DT)是一种允许创建现实世界系统或产品的虚拟副本的技术。这使得现实世界的活动能够同步、验证,并降低生产成本。在本研究中,建立了一个DT模型来模拟车辆在虚拟环境中的机动,并在先进驾驶辅助系统(ADAS)和自动驾驶(AD)的应用范围内优化车辆的控制参数。为了创建和验证DT,我们专注于跟随加速机动(FAM)。首先,基于案例进行道路试验,利用传感器采集车辆动力学相关数据;收集到的数据被用于生成包含静态和动态环境信息的场景文件,以及分别使用ASAM opdrive®(ODR)和ASAM OpenSCENARIO®(OSC)场景建模标准的道路使用者的运动。该模型。CONNECT™联合仿真平台(CSP)使包含车辆模型、控制器和场景信息的子系统能够协同工作,用于模拟与生成的场景相关的机动。在创建DT时,通过执行滑行机动和FAM来调整车辆模型中的参数。毕竟,子系统被集成到AVL模型中。进行CONNECT™(MC), FAM,并使用粒子群优化(PSO)算法优化控制器参数。本研究的主要目的是分析和验证DT模型,然后利用DT优化自适应巡航控制(ACC)的控制器参数。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Digital Twin Study: Particle Swarm Optimization of ACC Controller for Follow Acceleration Maneuver
A digital twin (DT) is a technology that allows to create a virtual copy of a real-world system or product. This allows real-world activities to be synchronized, validated and production costs to be reduced. In this study, a DT model is developed to simulate the maneuvers of the vehicle in the virtual environment and optimize the vehicles' control parameters within the scope of Advanced Driver Assistance Systems (ADAS) and Automated Driving (AD) applications. In order to create and validate the DT, we focused on the follow acceleration maneuver (FAM). Firstly, road tests were carried out based on the cases, and vehicle dynamics relevant data were collected with the sensors. The collected data were used to generate scenario files containing static and dynamic environmental information, and movements of road users using ASAM OpenDRIVE® (ODR) and ASAM OpenSCENARIO® (OSC) scenario modelling standards, respectively. The Model. CONNECT™ co-simulation platform (CSP), which enables subsystems containing vehicle model, controller, and scenario information to work together, was used to simulate maneuvers regarding the generated scenarios. While creating the DT, the parameters in the vehicle model were tuned by performing the coastdown maneuver as well as FAM. After all, subsystems were integrated into the AVL Model. CONNECT™ (MC), FAM is performed and controller parameters were optimized using the particle swarm optimization (PSO) algorithm. The main goal of this study is to analyze and validate the DT model, then optimize controller parameters of adaptive cruise control (ACC) with the DT.
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