Switchable Neural Teleoperation
Jianglong Ye, Changwei Jing, Kezhou Chen, Keyi Wang, Sha Yi, Xueyan Zou, Xiaolong Wang
Abstract
Collecting demonstrations through human teleoperation is an effective approach for learning complex manipulation skills. However, challenges such as morphology gaps, control latency, and limited feedback make high-quality data collection costly and inefficient. In this paper, we introduce Neural Teleoperation, a shared-autonomy system that integrates human guidance with a robust grasping policy using a learning-based policy switcher. This hybrid framework allows users to focus on high-level planning while delegating fine-grained control to an autonomous policy when needed. Our system supports both immersive VR devices and lightweight 6-DoF controllers, making dexterous hand teleoperation more accessible. Real-world experiments across six manipulation tasks show that Neural Teleop increases success rates and reduces demonstration collection time compared to state-of-the-art baselines.