Christopher B. Highley

This paper introduces FN-MAP, a fibronectin-coated microparticle scaffold that combines mechanical stability and bioactivity, showing improved cell response and translational potential in 3D bioprinting and wound healing.

This paper compares fiber-based and spherical particle-based hydrogels, showing fiber-based systems offer better control over viscoelastic properties and enable embedded 3D printing.

This paper develops a method to create stable microfluidic channels within granular hydrogels using selective crosslinking, enabling controlled perfusion and dynamic cellular environments.

This paper develops an all-granular bioprinting system using hydrogel inks and support matrices to create complex, functional structures with cell-lined channels and soluble gradients.

This paper develops an electrostatically stabilized granular hydrogel with poroelasticity and strain-stiffening for biomedical applications like 3D bioprinting and wound healing.

This paper develops a FUS-responsive granular hydrogel system that stabilizes through crosslinking and porosity control, showing potential for minimally invasive tissue regeneration.

This study develops a highly porous granular hydrogel scaffold reinforced with hydrogel fibers to maintain stability and support cell growth.