Guillermo Antonio Ameer

This paper introduces a wearable sensor that monitors gaseous flux from wounds to detect infections and track healing, showing VOC flux correlates with bacterial growth and provides early infection detection.

This paper evaluates a copper-doped bioactive glass ointment for wound healing in metabolic syndrome, showing improved closure, regeneration, and reduced scarring.

This paper develops a 3D-printed composite scaffold that simultaneously regenerates skin and bone in cranial defects, achieving outcomes comparable to autografts and reducing surgical complexity.

This study develops a physics-based model linking chromatin organization to chemoevasion, identifies TPR compounds that enhance chemotherapy efficacy in ovarian cancer.

This paper introduces a 3D printing technique to create multiscale scaffolds with microtopography to guide tissue organization and regeneration.

This paper develops a biodegradable scaffold that enhances bladder tissue regeneration in rats by incorporating microgrooves and stem cells, improving bladder function and structure.

This paper develops a polydiolcitrate-MoS2 composite for 3D printing bioresorbable vascular scaffolds that are X-ray visible and suitable for non-invasive monitoring.

This paper presents a 3D-printed composite scaffold system for bone regeneration that accelerates ECM and mineralized osteoid deposition in vivo.

PPCN, a thermoresponsive antioxidant polymer, supports islet viability and function in nonhuman primates when used for omentum transplantation.

This paper develops a drug-eluting bioresorbable vascular scaffold with reduced strut thickness and controlled drug release, showing comparable pre-clinical performance to metallic stents.

The paper develops a simulation tool using ABAQUS to analyze the crimping behavior of 3D-printed bioresorbable vascular scaffolds, enabling faster design evaluation than experimental testing.