Amelia Hasenauer

This paper develops a method to print collagen-I scaffolds directly inside organ-on-chip devices, enabling perfusable and stretchable mammary tissue models with compartmentalized fluidic control.

This study shows that human milk-derived mammary epithelial cells form organoids that respond differently to various extracellular matrix environments, revealing ECM's role in shaping morphogenesis and lactation states.

This paper introduces vitamin C as a redox regulator to enable high-fidelity volumetric printing of pristine collagen by establishing a tunable nonlinear polymerization threshold.

This paper develops two complementary multiphoton-based biofabrication tools to create tunable hydrogel curvatures for epithelial tissue engineering, showing enhanced cytoskeletal organization and cell shape formation.

This paper develops a 3D printed model of human lactation using FLight biofabrication to create hormone-responsive mammary microtissues.

This paper develops a 3D biomimetic scaffold model to support in vitro lactation by human milk-derived mammary epithelial cells, enabling secretion of beta-casein and milk-fat-globules.