Cell therapy is hailed as the "third pillar" of future medicine. A key research focus has been on regulating the functions of transplanted cells to maximize therapeutic efficacy. Our research group is dedicated to developing chemical modification-based cell engineering technologies. We explore the use of functional molecules and materials to regulate the functions of transplanted cells, thereby maximizing therapeutic outcomes.
Research Topic 1
Polymerization in living cells for cell engineering and cell function regulation.
The process of polymerization in living cells offers a novel approach for cell engineering and the regulation of cell functions. By initiating polymerization reactions inside cells, we can generate specific materials or structures that enhance or modify cellular behaviors. This technique holds significant potential for advancing therapeutic strategies and improving the precision of cell-based treatments.
Research Topic 2
Cell surface modification with biomacromolecules and natural polymers for cell function regulation.
Modifying the cell surface with biomacromolecules and natural polymers offers a powerful strategy for regulating cell functions. By attaching these biomolecules or polymers to the cell surface, we can influence cell behavior, such as adhesion, signaling, and interaction with the environment. This approach holds significant potential for enhancing the effectiveness of cell-based therapies and improving outcomes in regenerative medicine.
Research Topic 3
Biomedical application of engineered cells.
The biomedical application of engineered cells using chemical modification-based technologies is centered on targeting dilivery, enhancing cellular functions, and providing robust protection against surrounding harsh conditions. By precisely modifying cells, these techniques enable more targeted and effective treatments, improving therapeutic outcomes and increasing the resilience of cells in adverse environments.
