Transferability-based Chain Motion Mapping from Humans to Humanoids for Teleoperation
Matthew Stanley, Yunsik Jung, Michael Bowman, Lingfeng Tao, and Xiaoli, Zhang

TL;DR
This paper introduces a transferability-based approach for mapping human motions to humanoid robots, reducing the need for pair-specific training by leveraging existing mappings and a novel synergy extraction method.
Contribution
It proposes the SyDa autoencoder-based synergy mapping and a transferability metric to efficiently form mapping chains for new human-robot pairs, enhancing generalization and accuracy.
Findings
SyDa improves mapping accuracy and generalizability.
SyDa enables bidirectional motion mapping without direction bias.
The transferability metric predicts pair compatibility for teleoperation.
Abstract
Although data-driven motion mapping methods are promising to allow intuitive robot control and teleoperation that generate human-like robot movement, they normally require tedious pair-wise training for each specific human and robot pair. This paper proposes a transferability-based mapping scheme to allow new robot and human input systems to leverage the mapping of existing trained pairs to form a mapping transfer chain, which will reduce the number of new pair-specific mappings that need to be generated. The first part of the mapping schematic is the development of a Synergy Mapping via Dual-Autoencoder (SyDa) method. This method uses the latent features from two autoencoders to extract the common synergy of the two agents. Secondly, a transferability metric is created that approximates how well the mapping between a pair of agents will perform compared to another pair before creating…
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Taxonomy
TopicsTeleoperation and Haptic Systems · Hand Gesture Recognition Systems · Robot Manipulation and Learning
