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Feedback-Based Curriculum Learning for Collision Avoidance

delete2024-01-01
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OA
AI
J
Jeongmin Choi
G
Gyuyong Hwang
G
Gyuho Eoh *
DOI:10.1109/ACCESS.2024.3391408delete
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Abstract

Abstract

En 中文
This paper proposes a novel curriculum learning approach for collision avoidance using feedback from the deep reinforcement learning (DRL) training process. Previous research on DRL-based collision avoidance algorithms has encountered challenges such as long training times and difficulty in convergence due to sparse rewards. To address these issues, curriculum learning has been used to divide the target task into multiple subtasks for training. However, manual or random curriculum design often generates unnecessary subtasks that do not improve performance. Furthermore, a standardized curriculum design method for collision avoidance has not yet been presented. Therefore, this paper introduces a curriculum-based collision avoidance learning method that utilizes feedback during the training phase. The proposed method differs from traditional curriculum learning in that the subtask is not predetermined before training. Instead, the curriculum is modified during training based on feedback obtained from validation environments. If a robot demonstrates high collision avoidance performance in a validation environment, it is then validated in more challenging environments for rigorous evaluation. Conversely, if collision avoidance performance is low in the validation environment, the robot is trained in a new environment to overcome frequent collision situations. Simulations and practical experiments were conducted for the proposed method, which showed better performance compared to the non-curriculum method.
Keywords:
Collision avoidance
Robots
Training
Task analysis
Mobile robots
Robot sensing systems
Design methodology
Deep reinforcement learning
Curriculum development
Feedback
curriculum learning
deep reinforcement learning
subtask generation

Journal

IEEE Access cover
IEEE Access
IF:
3.6
Papers:
9.8W
Citations:
29.4W

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No organization information available
Cited Papers

Cited Papers

A review: On path planning strategies for navigation of mobile robot
err2019-08-01
err535
errOAAI
errPatle, B. K.; Babu, Ganesh L.; Pandey, Anish; Parhi, D. R. K.; Jagadeesh, A.
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Cost-Benefit Analysis
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IF0
err2007-05-07
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PREAI
errEuston Quah; E.J. Mishan; Euston Quah
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