Andrew J. Putnam

This study develops ultrasound-responsive scaffolds that dynamically control biochemical and biophysical cues to enhance vascular network formation in vitro and in vivo.

This paper introduces a step-emulsion platform for scalable microgel fabrication that is robust, user-agnostic, and compatible with various materials and viscosities.

This study identifies MMP14 as essential for cancer cell invasion through ECM barriers, showing that its proteolytic activity is required for maintaining nuclear integrity and facilitating invasion in both synthetic and human tissue models.

This study develops clickable PEGNB microbeads that enable suspension bioprinting and microvascular self-assembly for engineering hierarchical vasculature.

This study shows that non-adhesive alginate hydrogels support the growth and differentiation of human intestinal organoids, comparable to Matrigel.