Cable-driven & parallel mechanisms
Anthropomorphic manipulators and compact parallel mechanisms. Kinematic optimization, workspace analysis, geometric error modeling and stiffness regulation for precise, compliant motion.
ROBOTICS · PARALLEL MECHANISMS · INTELLIGENT SYSTEMS
Postdoctoral researcher at The Chinese University of Hong Kong. My research connects robotic mechanism design with dynamics, control and autonomous manipulation.

Currently at CUHK
01 / ABOUT
I received my Ph.D. in Mechanical Engineering from South China University of Technology and am now a postdoctoral researcher at The Chinese University of Hong Kong and the Medical Robotics Innovation Technology Centre.
My work covers cable-driven and parallel mechanisms, reconfigurable mobile robots, wearable assistance and soft manipulation. I study how geometry, stiffness, friction and contact affect robot performance, and develop models and control methods that I evaluate on physical prototypes.
Recent research interests include task-adaptive robot bodies, human–robot collaboration, multimodal perception and flexible assembly. My experience spans mechanical design, fabrication, electronics, embedded control, simulation and experimental validation.
02 / RESEARCH
Anthropomorphic manipulators and compact parallel mechanisms. Kinematic optimization, workspace analysis, geometric error modeling and stiffness regulation for precise, compliant motion.
Wheel-leg and propeller-assisted robots that adapt their configuration for locomotion and manipulation. Body reorientation, contact stability and whole-body control in constrained environments.
Lightweight wearable arms and relocatable bases for task-dependent reach. Human–robot coordination, active perception and shared-workspace planning for cooperative and parallel tasks.
Rigid–flexible dynamics, cable and joint friction, physically constrained parameter identification and sensorless force estimation. Adaptive feedforward compensation and compliant interaction control.
Origami actuators, multimodal soft hands and deformable-object manipulation. Visual and tactile feedback, object-state estimation and motion prediction for grasping, catching and flexible assembly.
Compact mechanisms and integrated tools for confined-space operation. Hybrid positioning platforms, visual–force-guided microassembly and compliant tissue interaction.
03 / PUBLICATIONS
04 / PATENTS & SOFTWARE
My intellectual property covers anthropomorphic manipulators, spherical parallel transmissions, compliant mechanisms and climbing robots. The portfolio includes seven granted Chinese invention patents, ten granted utility models and one software copyright.
Three-degree-of-freedom spatial parallel mechanism simulation software — 2018SR981520.
Additional patent work concerns reconfigurable multimodal and mobile manipulation robots, building on my mechanism and system development research.
05 / EXPERIENCE
The Chinese University of Hong Kong · Medical Robotics Innovation Technology Centre
South China University of Technology
South China University of Technology
South China University of Technology · GPA 3.73/4.0 · Rank 7/106