Postdoctoral Fellow
Electrical Engineering, City University of Hong Kong, Hong Kong, China
City University of Hong Kong | Postdoctoral Fellow
Member, State Key Laboratory of Terahertz and Millimeter Waves
Dr. Zhang has long been engaged in research on high-power-density and high-misalignment-tolerant wireless power transfer (WPT) systems, with emphasis on flexible and reconfigurable magnetic coupler design, multiphysics modeling and optimization, and high-efficiency, high-stability control strategies. Focusing on wireless charging for autonomous underwater vehicles (AUVs), an internationally emerging research direction, he has established a systematic research framework spanning magnetic coupling structures, system modeling, control, and thermal management. As first or corresponding author, he has published multiple papers in leading journals including IEEE TIE, IEEE TPEL, and IEEE TTE, and several of his research outcomes have received top international conference and invention exhibition awards.
Academic Appointments
Electrical Engineering, City University of Hong Kong, Hong Kong, China
Electrical Engineering, City University of Hong Kong, Hong Kong, China
Education Background
Electrical Engineering, City University of Hong Kong
Power Engineering and Engineering Thermophysics, Harbin Engineering University
Research Direction
Design of lightweight, reconfigurable, and posture-tolerant magnetic coupling structures for AUV and UAV wireless charging.
Closed-loop electromagnetic, thermal, and mechanical co-design for compact high-power-density WPT systems.
High-efficiency, high-stability control strategies for contactless energy replenishment in complex operating environments.
Projects
Low-Altitude Economy as a New Engine: High-Efficiency and Lightweight Wireless Charging System for Unmanned Aerial Vehicles.
Developed adaptive WPT technologies based on flexible magnetic couplers, enabling high-efficiency and high-misalignment-tolerant contactless charging under complex operational environments.
Institute General Project: Key Technologies and Applications of Wireless Energy Replenishment for Autonomous Underwater Vehicles Oriented to Marine Renewable Energy.
Led research on AUV wireless energy replenishment in complex marine environments, integrating efficient magnetic coupling, multiphysics modeling, and robust control.
Adaptive Wireless Power Supply Technologies for Long-Endurance Autonomous Vehicle Networks.
Developed adaptive WPT technologies based on flexible magnetic couplers for reliable, scalable, high-efficiency contactless charging.
System Architecture and Key Technologies for Power Supply of Underwater Autonomous Platforms.
Contributed to a three-dimensional energy supply framework combining fixed energy nodes and mobile charging platforms.
Electrification and Decarbonization: Multi-Port Wireless Dock and Charge for Waterborne Transportation.
Worked on system architecture, multi-energy-flow coordinated control, and high-reliability underwater magnetic coupling for simultaneous vessel charging.
Multimodal Electromagnetic Field Propagation in Layered Nonlinear Marine Media and Intelligent Computational Methods.
Investigated multimodal excitation and propagation mechanisms of electromagnetic fields in layered nonlinear oceanic media.
General Technical Specifications for Magnetically Coupled Wireless Power Transfer Systems.
Contributed to technical requirements and testing methodologies for system interfaces, performance metrics, safety, and compatibility.
Universal Wireless Power Transfer Technologies for Unmanned Aerial Vehicles.
Developed standardized magnetic coupling interfaces and communication protocols compatible with multiple UAV platforms.
Research Outputs
Honors
Academic Service
Media
Contact