S. Gholizadeh

This study examines how oxygen plasma treatment affects the biocompatibility of Parylene C and Parylene N membranes by analyzing cell behavior and surface properties.

The paper shows that disrupted porous membrane surfaces reduce YAP nuclear localization and promote adipogenesis in ADSCs by altering cell morphology and substrate interactions.

This paper introduces a microfluidic method to create 3D collagen landscapes with tunable anisotropy and directionality, showing cells align with these structural cues.

This paper develops gradient thickness porous membranes for in vitro modeling of physiological barriers, showing improved cell attachment and mechanical properties.

The paper fabricates and characterizes conductive carbonized nanofibers loaded with gold nanoparticles for bone tissue engineering, showing improved electrical conductivity and no significant cell toxicity.

This study shows that microporous membranes alter cell-substrate behavior by disrupting cell-substrate interactions, promoting migration, and enhancing grip through pore edges.