This paper focuses on the scheme of cooperative lane change motion planning of multiple connected and automated vehicles, so as to minimize the time for lane change while penalizing large steering angles subject to hard collision avoidance constraints. Nominally this scheme should be formulated in a centralized way with the constraints of all the vehicles considered simultaneously. In order to facilitate the numerical solving process of this centralized optimization problem, we propose a stepwise computation framework. Starting with a sub-problem with all of the collision avoidance constraints removed, a sequence of sub-problems are defined by adding back the removed collision avoidance constraints gradually until the original problem takes shape in the end. The optimum of one sub-problem is always used as the initial guess when solving the next sub-problem. This iterative process continues until the optimum of the original problem is obtained. In this way, the difficulties in the original centralized problem are divided into multiple parts, and every progress made to address the partial difficulties is “solidified” by the initial guess.


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    Title :

    Cooperative Lane Change Motion Planning of Connected and Automated Vehicles: A Stepwise Computational Framework


    Contributors:
    Li, Bai (author) / Zhang, Yue (author) / Zhang, Youmin (author) / Jia, Ning (author)


    Publication date :

    2018-06-01


    Size :

    1442333 byte




    Type of media :

    Conference paper


    Type of material :

    Electronic Resource


    Language :

    English



    COOPERATIVE LANE CHANGE MOTION PLANNING OF CONNECTED AND AUTOMATED VEHICLES: A STEPWISE COMPUTATIONAL FRAMEWORK

    Li, Bai / Zhang, Yue / Zhang, Youmin et al. | British Library Conference Proceedings | 2018





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