Papers
69
Total Citations
1,190
H-Index
18
About
Changliu Liu is a roboticist and AI researcher whose work sits at the intersection of motion planning, human-robot interaction, and safe autonomy. She is perhaps best known for developing the Convex Feasible Set (CFS) algorithm, a groundbreaking approach to real-time motion planning that reframes highly nonconvex optimization problems in cluttered environments into tractable convex ones — a contribution that has garnered over 130 citations and become a cornerstone reference in trajectory optimization. Her broader research agenda tackles one of robotics' most pressing challenges: enabling robots to operate safely and efficiently alongside humans. Liu's work on human-robot collaboration spans algorithmic safety measures for industrial co-robots, robust plan recognition, and sophisticated human motion prediction using adaptable recurrent neural networks and inverse kinematics — tools that allow robots to anticipate human movement and respond intelligently. More recently, she has pushed into humanoid robotics, with her H2O framework enabling real-time whole-body teleoperation using only an RGB camera. Her 2023 survey on state-wise safe reinforcement learning further reflects her commitment to bridging the gap between simulation success and real-world deployment. Collectively, her publications represent a rigorous, safety-first vision for the future of intelligent robotics.
Research Focus
Key Achievements
Top Papers
- 1The Convex Feasible Set Algorithm for Real Time Optimization in Motion Planning133 citations · 2018
- 2
- 3Learning Human-to-Humanoid Real-Time Whole-Body Teleoperation68 citations · 2024
- 4Algorithmic safety measures for intelligent industrial co-robots62 citations · 2016
- 5Control in a Safe Set: Addressing Safety in Human-Robot Interactions57 citations · 2014
- 6Human Motion Prediction using Semi-adaptable Neural Networks52 citations · 2019
- 7
- 8Convex feasible set algorithm for constrained trajectory smoothing43 citations · 2017
- 9State-wise Safe Reinforcement Learning: A Survey41 citations · 2023
- 10