Tissue formation in multicellular organisms is achieved by the differentiation of individual cells into a various cell. This process requires an appropriate differentiation program from stem cells or progenitor cells as a starting point to final differentiated cells. In our laboratory, we are investigating the mechanism of this differentiation program at the single cell level by focusing on tissue-specific chromatin structures.

• Development of single-cell omics measurement technologies
• Development of multi-omics measurement technologies
• Development of single-cell data analysis techniques
• Acquisition of fundamental mathematical and information science skills necessary for life science data analysis

Biomedical Engineering is an interdisciplinary field that integrates engineering principles with biological and medical sciences to advance healthcare technologies. Among our key areas of focus, nanotechnology, imaging technology, and medical devices serve as transformative forces driving innovation in diagnostics and therapeutics.

1. Targeted Drug Delivery via Nanoparticles: Precisely transporting therapeutic agents to specific cells, thereby minimizing side effects.
2. Innovations in imaging technologies: The evolution of high-resolution and high-sensitivity imaging techniques has facilitated early disease detection and precision medicine.
3. Biosensors, Biomarkers, and point-of-care diagnostics: we focus on identifying and utilizing biomarkers for early disease detection and personalized medicine, integrating them into innovative diagnostic devices.