Efficient and Reliable Teleoperation through Real-to-Sim-to-Real Shared Autonomy
Shuo Sha, Yixuan Wang, Binghao Huang, Antonio Loquercio, Yunzhu Li

TL;DR
This paper introduces a real-to-sim-to-real shared autonomy system that uses a learned human surrogate to improve fine-grained teleoperation tasks, enhancing success rates and efficiency with minimal real-world data.
Contribution
It presents a novel framework combining real-world data with simulation to train a residual copilot policy for improved teleoperation assistance.
Findings
Improves task success for novices and efficiency for experts.
Requires less than five minutes of real-world data for training.
Enhances quality of demonstrations for imitation learning.
Abstract
Fine-grained, contact-rich teleoperation remains slow, error-prone, and unreliable in real-world manipulation tasks, even for experienced operators. Shared autonomy offers a promising way to improve performance by combining human intent with automated assistance, but learning effective assistance in simulation requires a faithful model of human behavior, which is difficult to obtain in practice. We propose a real-to-sim-to-real shared autonomy framework that augments human teleoperation with learned corrective behaviors, using a simple yet effective k-nearest-neighbor (kNN) human surrogate to model operator actions in simulation. The surrogate is fit from less than five minutes of real-world teleoperation data and enables stable training of a residual copilot policy with model-free reinforcement learning. The resulting copilot is deployed to assist human operators in real-world…
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Taxonomy
TopicsTeleoperation and Haptic Systems · Robot Manipulation and Learning · Hand Gesture Recognition Systems
