Development of techniques for measurement, manipulation, and analysis of mechanical self-organization

Measure and manipulate forces applied to cell populations and the extracellular environment in living organisms, and quantitatively analyze their spatiotemporal patterns.


Theoretical study of self-organization induced by mechanochemical feedback

This research aims to develop mathematical and computational methods for multi-scale and multi-dimensional analysis of mechanical actions and chemical reactions in living organisms to understand their “mechanical self-transformations”. Through our approaches, we will elucidate the principle that governs the autonomous control of living system by a mechanochemical feedback.

3D Vertex Modeling of Eye Cup Formation


Development of force-measuring techniques for biological tissues

This research aims to develop new techniques to measure and manipulate mechanical forces in cells and tissues by combining atomic force microscopy, magnetic tweezers, artificial cells, and optogenetic tools. These techniques will reveal mechanical forces exerted on intracellular spaces (e.g., the cell cortex and the cytoplasm) and extracellular spaces (e.g., extracellular matrix and inner cavity) in multi-cellular systems.

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