Area of research
Computer Networks and Communications · Biomedical Engineering
Research interest
Research interests include Materials science, Toughness, Artificial muscle, Nanotechnology, Actuator, and Self-healing hydrogels.
Developing tough, fatigue-resistant and conductive hydrogels <i>via in situ</i> growth of metal dendrites
A multi-physically cross-linked roxadustat-loaded hydrogel for promoting diabetic wound healing via antibacterial, antioxidant and angiogenesis acceleration functions
Photoresponsive Gas‐Permeable Membranes: Fundamentals, Innovations, and Prospects
LCST-phase-separated porous liquid metal-filled hydrogel actuators with fast electro-response, enhanced strength, and low electric field
Robust Hydrogel Actuators Functioning in Multi‐Environments Enabled by Thermo‐Responsive Polymer Nanoparticle Coatings on Hydrogel Surfaces
Endocytosis‐Inspired Zwitterionic Gel Tape for High‐Efficient and Sustainable Underoil Adhesion
Crack‐Resistant and Tissue‐Like Artificial Muscles with Low Temperature Activation and High Power Density
Designing fast-response porous hydrogel actuators with improved toughness
A Laminated Gravity‐Driven Liquid Metal‐Doped Hydrogel of Unparalleled Toughness and Conductivity
Ultra‐Soft Organogel Artificial Muscles Exhibiting High Power Density, Large Stroke, Fast Response and Long‐Term Durability in Air
Biomimetic Electronic Skin through Hierarchical Polymer Structural Design
Designing strong, fast, high-performance hydrogel actuators
Actuator Materials for Environmentally Powered Engines
Ultra‐Soft Organogel Artificial Muscles Exhibiting High Power Density, Large Stroke, Fast Response and Long‐Term Durability in Air (Adv. Mater. 29/2023)
Highly Stretchable, Ultratough, and Strong Polyesters with Improved Postcrystallization Optical Property Enabled by Dynamic Multiple Hydrogen Bonds
Red-Light-Controllable Liquid-Crystal Soft Actuators via Low-Power Excited Upconversion Based on Triplet–Triplet Annihilation