🤖 AI Summary
This study addresses the challenges of hazardous construction environments and the limited autonomy of humanoid robots by proposing a hybrid teleoperation platform based on the Unitree G1. We introduce a novel architecture integrating extended reality (XR) with foot-pedal controls, enabling a single operator to simultaneously manipulate upper-body tasks and lower-body navigation. This approach effectively resolves complex whole-body coordination challenges while ensuring high-quality data acquisition. Experimental evaluations demonstrate that the system achieves success rates of 100% and 80% in tool transportation and surface painting tasks, respectively. Although execution efficiency remains below human performance baselines, these results substantiate the platform's significant potential for deployment in dangerous construction scenarios.
📝 Abstract
We present a teleoperation system that enables a single operator to perform construction tasks on a Unitree G1 humanoid, combining extended reality (XR) based upper body control with pedal-based locomotion to enable simultaneous manipulation and locomotion. Motivated by persistent labor shortages, hazardous working conditions, and challenges in humanoid autonomy, we investigate teleoperation as a practical near-term approach for reducing physical strain on workers while generating high quality demonstration data. We evaluate the system on two representative construction tasks drawn from O*NET occupational database, and report task success and completion time relative to a manual baseline. The system achieved 100% success on tool transport and 80% success on surface painting, with teleoperation requiring substantially more time compared to manual execution.