Kartikeya Dixit

This study develops a novel bioink, GelMA-TMA, which enhances muscle tissue regeneration by improving mechanical properties and cell function in 3D-printed scaffolds.

This paper introduces a novel conductive bioink, GelMA-OrnMA, that supports astrocyte proliferation, matches native neural tissue stiffness, and provides electrical conductivity for engineered neural tissues.

This paper fabricates graphene oxide-reinforced 13-93B1 bioactive glass scaffolds using direct ink writing and evaluates their mechanical, structural, and biological properties for bone tissue engineering.

This study develops a GelMA/nanoclay composite hydrogel for vascularized liver tissue bioprinting, optimizing its properties to support cell behavior and perfusion.