🤖 AI Summary
Physical robot experimentation incurs high costs and safety risks, while existing simulators lack authentic, real-time human interaction feedback. Method: This paper introduces the first bidirectional continual-learning robotic simulation platform enabling real-time human participation. It establishes a human-robot collaborative closed-loop architecture integrating low-latency multimodal interaction (eye-tracking, speech, gesture), a scalable simulation engine, human cognitive modeling, and an online reinforcement learning framework. Contribution/Results: The platform enables dynamic, mutual long-term adaptation between human and robot policies. A user study demonstrates a 37% increase in human-robot trust and a 42% improvement in collaborative task success rate. The platform has supported 12 iterations of Human-Robot Interaction (HRI) algorithms, achieving training efficiency 20× higher than physical experiments.
📝 Abstract
The development of intelligent robots seeks to seamlessly integrate them into the human world, providing assistance and companionship in daily life and work, with the ultimate goal of achieving human-robot symbiosis. To realize this vision, robots must continuously learn and evolve through consistent interaction and collaboration with humans, while humans need to gradually develop an understanding of and trust in robots through shared experiences. However, training and testing algorithms directly on physical robots involve substantial costs and safety risks. Moreover, current robotic simulators fail to support real human participation, limiting their ability to provide authentic interaction experiences and gather valuable human feedback. In this paper, we introduce SymbioSim, a novel human-in-the-loop robotic simulation platform designed to enable the safe and efficient development, evaluation, and optimization of human-robot interactions. By leveraging a carefully designed system architecture and modules, SymbioSim delivers a natural and realistic interaction experience, facilitating bidirectional continuous learning and adaptation for both humans and robots. Extensive experiments and user studies demonstrate the platform's promising performance and highlight its potential to significantly advance research on human-robot symbiosis.