F. A. Cheeín, R. Carelli, C. de la Cruz, T. Bastos-Filho
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引用次数: 8
摘要
本文提出了一种在受限环境下实现仿车移动机器人转弯的策略。该策略采用同步定位和地图构建(Simultaneous Localization and Map Building, SLAM)算法对机器人在环境中进行定位,并在转弯策略的反向运动中使用SLAM生成的地图。规划策略考虑了预测路径中的方差传播,保证了机器人的安全行驶。在所有情况下,机器人都被视为一个运动中的身体,而不是一个点,以利用所有可导航的空间。飞行器由运动轨迹控制器控制。本工作还显示了实时实验结果。
SLAM-based turning strategy in restricted environments for car-like mobile robots
In the present work, a strategy to turn a carlike mobile robot in a restricted environment is presented. The strategy uses a Simultaneous Localization and Map Building (SLAM) algorithm to localize the robot in the environment and uses the map generated by the SLAM in the reverse movement of the turning strategy. The planning strategy takes into account the variance propagation in the predicted path for ensure the safe driving of the robot. In all the cases, the robot is considered as a body in movement, not as a point, to exploit all the navigable space. The vehicle is commanded by a kinematic trajectory controller. Real time experimental results are also shown in this work.