Biomaterials for Bone Repair
Design of biodegradable and bioactive scaffolds for infectious bone defects, large bone defects, mandibular repair, and osteogenic microenvironments.
The research program centers on biomaterials design, biofabrication, and translational regenerative medicine, with a strong emphasis on 3D printing, shape-memory polymers, hydrogels, and clinically relevant scaffold systems.
Our work aims to build intelligent biomaterial systems that do more than fill tissue defects: they regulate immune responses, deliver therapeutics, guide osteogenesis, support vascularization, and match the geometric and mechanical complexity of damaged tissues.
A recurring theme is the development of minimally invasive and structurally adaptive implants, including shape-memory scaffolds, porous microsphere assemblies, multifunctional hydrogels, and 3D-printed biomimetic architectures.
Design of biodegradable and bioactive scaffolds for infectious bone defects, large bone defects, mandibular repair, and osteogenic microenvironments.
Development of 3D-printed and 4D-printed scaffold systems with minimally invasive delivery, adaptive filling behavior, and structural biomimicry.
Injectable and dual-network hydrogel systems for wound healing, cartilage repair, intervertebral disc regeneration, and cell-responsive tissue repair.
Polymer design, terpolymer systems, microsphere fabrication, and materials processing strategies that couple mechanics, degradability, and biofunctionality.