Scientific Paper
Interactions between proteins and biomaterials-an experimental and computational multiscale study
Abstract
Understanding the interactions between proteins and biomaterials underpins the development of novel biomaterials that could produce a specific response towards the surrounding tissue, depending on the application. In this thesis, a combination of molecular dynamics (MD) simulations and experimental techniques was deployed to systematically study the effect of the biomaterial surface chemistry on the adsorption of proteins, and consequently the effect of proteins on the lifetime of a metallic biomaterial. It was found that the surface chemistry could have a significant impact on the protein adsorption process because it affects the adsorption kinetics, the driving forces of adsorption, the conformation of the adsorbed protein, and the functionality of the adsorbed protein. Furthermore, the adsorbed proteins could greatly affect the lifetime of a metallic biomaterial via tribocorrosion process where the biomaterial surface is subjected to friction.
Related work.
- Rapid Screening of Vapor Uptake by Ultra-Thin Polymer Films Using Surface Plasmon Resonance and Quartz Crystal Microbalance with Dissipation Monitoring 2025
- MoO3 Coated Quartz Crystal Microbalance as a Room Temperature Ammonia Sensing Platform 2025
- Chitosan/Sn@C composite nanofiber coatings for QCM-based humidity sensing 2026
- A QCM-Based Device for Neurodegenerative Diseases Detection in Human Perspiration 2024
- Electrophoresis and Quartz Crystal Microbalance Instrumentation to Sense Nanoplastics in Water 2024
- Development of gold nanospikes-modified quartz crystal microbalance biosensor for prostate specific antigen detection 2024
Browse all papers.
Hundreds of peer-reviewed publications cite openQCM. Search full-text and filter by instrument, year, journal or topic.