Tatiana Segura

This study shows that physical continuity between biomaterials and the extracellular matrix reduces fibroblast activation and fibrosis by inhibiting NF-κB signaling.

This study compares proteomic responses to three biomaterials during wound healing, identifying key pathways that explain differences in regenerative outcomes.

The paper introduces a library of metrics for analyzing porosity in packed particle assemblies using LOVAMAP software, revealing relationships between particle properties and void space features.

This study shows that PSA-MAP scaffolds enhance early neural regeneration after ischemic stroke by increasing progenitor cells and axonal content without significant changes in astrocytic or vascular coverage.

This study develops PSA-functionalized MAP scaffolds that modulate immune responses and reduce inflammation after ischemic stroke.

This study develops VEGF-coated heparin nanoparticles in MAP hydrogels to promote brain repair after stroke, showing improved tissue formation and functional recovery without free heparin.

This study develops a highly porous granular hydrogel scaffold reinforced with hydrogel fibers to maintain stability and support cell growth.

This study shows reactive astrocyte-derived extracellular vesicles enhance axonal growth, vascularization, and behavioral recovery after ischemic stroke.