Andrew C. Daly

This paper develops a bioprinting method that mimics embryonic heart development by enabling in situ differentiation of iPSCs into cardiac tissues within shape-morphing constructs.

This paper develops a photocrosslinking method to stabilize collagen bioinks for bioprinted cardiac tissue, enabling tunable shape fidelity through dityrosine bonds.

This paper develops an AI-powered extrusion bioprinting platform using CNNs for real-time quality monitoring and error correction, achieving high accuracy in classifying extrusion quality and correcting errors within 10 seconds.

This paper introduces a 4D bioprinting platform that enables programmable shape-morphing of tissues through viscoelastic hydrogels, enhancing structural and functional properties of iPSC-derived heart tissues.