I'm currently a Ph.D. candidate in the Department of Mechanical Engineering at the University of Delaware (UD). I work as a research assistant in the Soft Microrobots for Tissue Engineering Lab (SMT), supervised by Dr. Sambeeta Das. My research interests include microrobotics, path planning, and reinforcement learning.
I obtained my B.E. in Measurement, Control Technology and Instrumentation from the Beijing Jiaotong University (BJTU) in 2019 and an M.Sc. in Robotics from the University of Bristol (UoB) in 2020. During my graduate study, I completed my master's thesis at the Bristol Robotics Laboratory (BRL).
Before joining UD, I was a research assistant in the Advanced Actuators and Robotics Lab (AAR) at the Southern University of Science and Technology (SUSTech), supervised by Dr. Hongqiang Wang. From Oct–Dec 2024, I was a full-time visiting graduate student in the Johan Paulsson Lab at Harvard Medical School.
Developed a real-time framework that couples an analytic-geometry global planner (AGP) with local escape controllers (rule-based and RL-based) for microrobot navigation and dynamic obstacle avoidance.
Built and validated a quadrupole magnetic tweezer system enabling precise cell transport.
Designed a rolling helical microrobot for cell patterning and closed-loop control algorithm.
Developed the closed-loop control algorithm for bubble-propelled microrobots.
Designed a two-wheel self-balancing robot with accelerometer and custom wireless controller. Final version added wheels and a servo-powered lifting mechanism, demonstrated in competition.
Project on accurate end-effector positioning for a 7-DOF KUKA manipulator using ArUco markers. Involved DH analysis, kinematics, trajectory planning, and validation on simulation and actual robot.
Developed a high-speed railway foreign object detection system using SSD-based CNNs, achieving rapid and precise detection across diverse environments and weather conditions.
Designed an underground circular parking system using Fischertechnik, enabling fully automated car storage and retrieval with integrated sensors and optimized motion control for efficiency.