Research
1
Photoactivated hydrogel and microneedle for biomonitoring, tissue regeneration, drug delivery, and antimicrobial light therapy
We are fabricating photoactivated therapeutic hydrogels and microneedles in the form of membranes or patches. These materials and devices can be used for drug delivery and tissue regeneration. We are also integrating photonic materials into the hydrogels and microneedles to enable antimicrobial phototherapy and biomonitoring.
2
Biolaser probe and QD for in vivo
tracking, diagnosis, and photobiomodulation
We design various lasing materials and QD. These materials serve as probes within diverse in vivo systems to uncover biological phenomena. These probes are capable of detecting/monitoring environmental changes in cells/tissues and will be utilized for diagnostic purposes.
3
Optical coherence elastography for mechanobiology, soft tissue diagnosis, and materials characterization
This novel optical device enables in situ, noninvasive mechanical characterization of cells, soft tissues and biomaterials. It can detect biophysical forces to investigate mechanobiology applications. It is designed to replace conventional invasive characterization methods. Additionally, it can be applied to detect internal defects and spatial heterogeneity within tissue/biomaterials to diagnose diseases.
4
Evaluation of oral & craniofacial tissues and dental biomaterials using optical technologies
This research focuses on the application of advanced optical technologies—such as intraoral scanners, 3D printing–based digital workflows, and intraoral spectrophotometry—for the quantitative evaluation of oral tissues and dental materials. This approach enables real-time monitoring, personalized treatment planning, and enhanced precision in restorative and prosthetic dentistry.
