Safe and Open-Space Aware Navigation
Human-aware occupancy mapping and reinforcement learning for narrow dynamic environments.
Explore Mobile Robot →
We build robots that perceive uncertainty, learn from interaction, coordinate with other agents, and perform useful work in environments designed for people.
RV Lab develops embodied intelligence across mobile robots, legged systems, manipulators, coordinated robot teams, and humanoids. The embodiments differ, but the central question remains the same: how can a robot make reliable decisions when the physical world is uncertain, dynamic, and shared?
Our work combines multimodal perception, geometric representation, reinforcement learning, multi-agent coordination, simulation, and careful real-world validation. Research is organized as connected programs so that advances in safe navigation, human-motion understanding, or demonstration data can strengthen more than one robot platform.
Explore each program for methods, verified results, full-size paper figures, current directions, and related applications.

Human-aware autonomy, semantic mapping, RGB–LiDAR fusion, and safe reinforcement learning.

Future-risk prediction, stability-aware learning, and robust locomotion.

Robot learning, visual quality inspection, and surface-aware automation.

Multi-agent control, collision-free coordination, demonstration data, and VLA.

Human-motion understanding, whole-body control, and language-conditioned skills.
A common research architecture keeps perception, learning, control, and deployment connected.
Fuse vision, geometry, motion, contact, language, and robot state.
Build maps, safety fields, compact geometry, and embodied state.
Optimize policies that balance task progress, coordination, and safety.
Compare baselines, probe failure modes, and close the sim-to-real loop.
These highlights are drawn from verified journal and conference publications, with program pages providing fuller context.
Human-aware occupancy mapping and reinforcement learning for narrow dynamic environments.
Explore Mobile Robot →Compact link geometry and cooperative learning for shared multi-arm workspaces.
Explore Bimanipulator →Current work spans stability-aware locomotion, multimodal demonstrations, VLA, and learned picking.
Browse latest publications →Projects connect fundamental methods with mobility, manufacturing, human support, and digital-twin applications.

Shared-space navigation, semantic maps, localization, and mobile autonomy.

Machine vision, robot learning, and adaptive surface processes.

Human behavior understanding and embodied systems designed around people.
We welcome students, academic collaborators, and industry partners working at the intersection of robotics, learning, simulation, and real-world deployment.