Research
Research Projects
As a materials engineer, my primary goal is to explore and leverage the unique properties of biomaterials, surface engineering, smart responsive polymers, and hybrid combinations with inorganic/organic nanomaterials. By harnessing the capabilities of these materials, my research focuses on enhancing the efficacy and safety of medical devices and biomedical technologies, ultimately leading to improved patient outcomes and quality of life. This work has the potential to advance the field of biomedical engineering by developing innovative and effective solutions for medical applications
Stretchable electronics
The objective of this project is to develop highly conductive metallic coatings that can be immobilized on stretchable substrates, making them ideal for use as biosensors. These coatings will be designed to exhibit exceptional sensitivity and selectivity, enabling the monitoring of physilogical parameters with high accuracy.
Bacteriophobic Surfaces
The aim of this project is to develop nanostructured coatings capable of preventing bacterial adhesion, thereby inhibiting surface colonization on medical devices. These coatings will be designed to exhibit excellent antibacterial properties while preserving the physical and mechanical properties of the underlying device.
Biomechanics of Cleft Lip
This project focuses on developing medical implants with customized biomechanical signaling to promote osteointegration in cleft lip surgery. By tailoring the biomechanical properties of the implant, we aim to enhance its ability to integrate with the surrounding bone tissue, thereby improving patient outcomes.
Antimicrobial Nanoparticles
Antibiotic resistance is one of the biggest challenges facing healthcare today. This project aims to address this issue by modifying the surface of antimicrobial nanoparticles to enhance their interaction with bacteria and improve their bactericidal efficacy.
Mimicking cartilage structures
Developing of strategies that involve biopolymers and substances of human origin (SoHO) to recreate the complex structures of cartilage on cellular scaffolds for regenerative medicine.
3D printing of medical devices
Development of 3D printing techniques for the processing of medical grade silicone for the design and development of personalized elastomeric medical devices. The main application is a personalized tracheal stent prototype that can replicate the anatomical geometries of the patients airway.