Sumit Sinha

The paper demonstrates that local stimulation of cell migration in tissues can drive collective motion through cell-cell adhesion, accelerating healing and growth by 5-fold.

The paper models biomechanical feedback during zebrafish embryogenesis to predict the transition from synchronous to asynchronous cell divisions and explains the resulting cell cycle lengthening.

This paper develops a 3D model to study tissue morphologies and dynamics by varying cell size, elasticity, and self-propulsion, revealing distinct phases and behaviors.

This study uses agent-based simulations to show that mechanical feedback from cell division and proliferation influences cell dynamics in growing tissues, with distinct diffusion behaviors depending on feedback strength and growth rate.