Robert Kevin Katzschmann

This paper develops a 3D hydrogel scaffold platform to guide human neuromuscular tissue architecture and function, showing improved myotube alignment, axon guidance, and functional connectivity.

This paper introduces a method to enhance Xolography for high-cell-density bioresins using iodixanol, achieving sub-100 µm resolution and mature muscle fiber formation.

This paper develops a cardiac tissue patch (RCPatch) using 3D printing and melt-electrowriting that withstands mechanical stress and promotes hemodynamic recovery in animal trials.

This paper develops a proprioceptive bio-hybrid robot by integrating a soft mechanical sensor with skeletal muscle tissue to enable self-sensing control.

This paper introduces a bilayered biofabrication method for skeletal muscle bio-actuators that achieve faster locomotion speeds and outperform cardiac bio-actuators.