M. A. Woodruff

This paper develops a coupled in silico and in vitro platform to study vascular compliance effects, finding that two-way FSI modeling better captures arterial wall compliance than one-way coupling.

The paper analyzes tissue growth in 3D printed scaffolds using a mathematical model to quantify cell proliferation and migration, identifying two growth stages and model limitations.

This paper develops a bio-hybrid soft robot to mimic the biomechanics of the femoropopliteal artery, showing its ability to apply dynamic mechanical stimuli to cultured cells.

The paper investigates how pore size affects tissue bridging in 3D-printed scaffolds and finds that bridging time increases linearly with pore size due to geometric factors, not cell behavior differences.