The core focus of this research is to develop novel polymerization methods that enable the controlled and scalable synthesis of polymers from natural building blocks, such as amino acids and related molecules. Through precision synthetic strategies, we aim to access functional macromolecules with defined architecture, sequence, and dynamic behavior. By integrating step-growth, chain-growth, and quasi-chain-growth polymerizations with dynamic chemistries, we will create structural proteins like polymer systems with programmable properties.

We develop adaptive biomaterials that guide tissue repair and regeneration by mimicking key features of the extracellular matrix. Through the design of bioactive hydrogels, scaffolds, adhesives, and therapeutic delivery systems, we aim to create biomaterials that actively interact with biological environments to promote healing and functional tissue restoration. Our biomaterials platform addresses unmet needs across a broad spectrum of clinical applications, including wound healing, hemostasis, fetal membrane repair, musculoskeletal regeneration, cardiac repair, and craniomaxillofacial reconstruction. 

We engineer high-performance materials that combine functionality and durability with the principles of circularity and environmental responsibility. By designing polymers from renewable and bioinspired building blocks, we create materials that can be recycled, reprocessed, biodegraded, or returned to their molecular constituents through closed-loop pathways. Our goal is to establish sustainable materials platforms that reduce waste while maintaining the performance required for consumer and industrial applications.