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Constrained Behavior Cloning for Robotic Learning
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Behavior cloning (BC) is a popular supervised imitation learning method in the societies of robotics, autonomous driving, etc., wherein complex skills can be learned by direct imitation from expert demonstrations. Despite its rapid development, it is still affected by limited field of view where accumulation of sensors and joint noise bring compounding errors. In this paper, we introduced geometrically and historically constrained behavior cloning (GHCBC) to dominantly consider high-level state information inspired by neuroscientists, wherein the geometrically constrained behavior cloning were used to geometrically constrain predicting poses, and the historically constrained behavior cloning were utilized to temporally constrain action sequences. The synergy between these two types of constrains enhanced the BC performance in terms of robustness and stability. Comprehensive experimental results showed that success rates were improved by 29.73% in simulation and 39.4% in real robot experiments in average, respectively, compared to state-of-the-art BC method, especially in long-term operational scenes, indicating great potential of using the GHCBC for robotic learning.
Forward citations
Cited by 2 Pith papers
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Can Pretrained Vision-Language Embeddings Alone Guide Robot Navigation?
A behavior-cloning policy trained only on frozen SigLIP embeddings reaches 74% of language-specified targets in a simple simulator, versus 100% for a state-aware expert, and takes 3.2x more steps.
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GBC: Generalized Behavior-Cloning Framework for Whole-Body Humanoid Imitation
GBC unifies MoCap retargeting and imitation learning into one framework that trains whole-body humanoid policies across multiple robot morphologies in simulation.
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