Experimental Validation of a Multirobot Distributed Receding Horizon Motion Planning Approach

J. M. Filho, E. Lucet, David Filliat
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Abstract

This paper addresses the problem of motion planning for a multirobot system in a partially known environment where conditions such as uncertainty about robots' positions and communication delays are real. In particular, we detail the use of a Distributed Receding Horizon Approach that guarantees collision avoidance with static obstacles and between robots communicating with each other. Underlying optimization problems are solved by using a Sequential Least Squares Programming algorithm. Experiments with real nonholonomic mobile platforms are performed. The proposed framework is compared with the Dynamic Window approach to motion planning in a single robot setup. A second experiment shows results for a multirobot case using two robots where collision is avoided even in presence of significant localization uncertainties.
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多机器人分布式后退地平线运动规划方法的实验验证
本文讨论了多机器人系统在部分已知环境中的运动规划问题,其中机器人位置的不确定性和通信延迟是真实存在的。特别是,我们详细介绍了分布式后退地平线方法的使用,该方法保证了与静态障碍物的碰撞避免以及机器人之间的相互通信。使用顺序最小二乘规划算法解决底层优化问题。在真实的非完整移动平台上进行了实验。将所提出的框架与动态窗口方法在单个机器人设置中的运动规划进行了比较。第二个实验显示了使用两个机器人的多机器人情况下的结果,即使存在显著的定位不确定性,也可以避免碰撞。
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