Adam W. Feinberg

The paper introduces multi-modal photoFRESH, a 3D bioprinting technique that enables precise control of crosslinking, stiffness, and biomolecular tethering through localized photochemistry, resulting in structurally complex and heterogeneous tissue constructs.

This study shows that early electrical stimulation improves functional recovery in rats with volumetric muscle loss by enhancing muscle remodeling.

This study develops a suspended compliant skeleton to enhance muscle maturation and enables modular assembly of biohybrid actuators with high-force output and repairability.

The paper develops a 3D bioprinting method to create microfluidic collagen-based scaffolds that support vascularized, pancreatic-like tissue systems for disease modeling and drug discovery.

This study uses FRESH 3D bioprinting to engineer complex skeletal muscle architectures that mimic native structures and exhibit contractile functionality.

The paper shows that transient Notch activation converts human pluripotent stem cell-derived cardiomyocytes into Purkinje fiber-like cells with altered electrophysiology and gene expression.