top of page
Project 01 | Modeling geometrical trajectories of actin-based motility​
Listeria monocytogenes is a pathogenic bacterium which utilizes polymerization of protein actin to power its transportation inside the host cells. Various geometrical trajectories such as straights, S-curves, and circles have been observed in experiments. Similar results have also been found in the biomimetic experiments on beads, disks, and lipid vesicles. In this project, I aim to explore the physical mechanisms responsible for generating the geometric shapes of actin-propelled trajectories. 
Project 02 | Exploring the physical mechanisms underlying epithelial tissue morphogenesis​
Epithelial cells are polarized along their apical-basal axis and connected with one another, forming sheets of cells that widely cover the animal body surfaces. During embryonic development, a simple epithelial sheet undergoes a series of complex deformation such as folding and twisting, leading to the formation of optic cups, neural tubes,  branches of lungs, etc. In this project, I aim to explore the physical mechanisms underlying the morphogenetic development of epithelial tissues.
Project 03 | Identifying the biophysical principles of wound healing 
Many animals in nature have the capability of healing wounds when they get injured. Understanding of the biophysical principles underlying wound healing is key to advance the medical cares for prevention of infection during healing process. Taking the advantage of zebrafish as an excellent model system for wound-healing study, in this project we aim to identify how cells collectively migrate and heal wounds during healing process, using the techniques of bio-image analysis and mathematical modeling. 
bottom of page