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NaviFormer: A Data-Driven Robot Navigation Approach Via Sequence Modeling and Path Planning with Safety Verification

Xuyang Zhang, Ziyang Feng, Quecheng Qiu, Yu'an Chen, Bei Hua, Jianmin Ji

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Abstract

Reinforcement learning has shown great potential in improving the performance of robot navigation. In response to the increasing deployments of mobile robots within various scenarios, a data-driven paradigm of navigation approach with safety verification is preferred where one can train RL algo- rithms with large amounts of prior data, keep learning continu- ously, and ensure safe navigation in applications. Conventional end-to-end reinforcement learning navigation paradigms have encountered multiple challenges in meeting these demands. In this work, we introduce a novel robot navigation approach termed NaviFormer. This approach handles navigation tasks based on sequence modeling to obtain the data-driven ability. It also integrates rule-based verification for safety insurance. We conduct a series of experiments to validate the data-driven ability of our approach and to compare it with existing navi- gation methods. We also perform quantitative tests on a real- world robot platform, TurtleBot. The experimental results show our method’s outstanding data-driven ability and highlight its superior arrival rate and generalization compared to other state-of-the-art methods like the PPO-based navigation method.

Index terms

Machine Learning for Robot Control Reinforcement Learning