Complexity · 2019 · 45 citations · 17 references
EngineeringComputer ScienceRobotics EngineeringRobot ControlRobot LearningRoboticsForce ControlLearning From DemonstrationManipulation ControlManipulation LearningObject ManipulationRobot ManipulationLearning From Human DemonstrationLearning-based ManipulationManipulationManipulation Skill LearningPolishingRobot Learning From DemonstrationRobot Skill AcquisitionRobotic Skill Learning
Many human manipulation skills, such as opening bottle caps and assembling furniture, are force‑relevant, yet transferring them to robots is difficult because of complex representation and planning. This paper proposes a learning‑based method to transfer force‑relevant skills from human demonstration to a robot. The method encodes the skill as a statistical model learned from motion and force data, generates task‑specific motion/force profiles via a planner, and integrates the model with an adaptive controller for online force adaptation, as demonstrated on polishing and peg‑in‑hole tasks.
Many human manipulation skills are force relevant, such as opening a bottle cap and assembling furniture. However, it is still a difficult task to endow a robot with these skills, which largely is due to the complexity of the representation and planning of these skills. This paper presents a learning‐based approach of transferring force‐relevant skills from human demonstration to a robot. First, the force‐relevant skill is encapsulated as a statistical model where the key parameters are learned from the demonstrated data (motion, force). Second, based on the learned skill model, a task planner is devised which specifies the motion and/or the force profile for a given manipulation task. Finally, the learned skill model is further integrated with an adaptive controller that offers task‐consistent force adaptation during online executions. The effectiveness of the proposed approach is validated with two experiments, i.e., an object polishing task and a peg‐in‐hole assembly.
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