Biomaterials
Biomaterials are at the heart of modern medical technologies, from implants and tissue scaffolds to drug delivery systems and biosensors. Since biological function is governed by surface interactions, advanced surface analysis techniques are essential for designing, evaluating, and optimising material performance in biological environments. Near Ambient Pressure X-ray Photoelectron Spectroscopy (NAP-XPS), Hybrid TOF-SIMS with Orbitrap mass spectrometry, and Atomic Force Microscopy (AFM) provide complementary, high-resolution insights into the chemistry, molecular structure, and nanoscale topography of biomaterial surfaces.
NAP-XPS enables chemical analysis of biomaterial surfaces under near-physiological conditions, including the presence of moisture and biological media. This makes it especially suited for studying protein adsorption, cell adhesion, and surface modifications that influence biocompatibility and functionality. Because it operates under near-ambient conditions, NAP-XPS preserves native chemical states and allows researchers to probe real-time biological interactions at the solid–liquid interface.
Hybrid TOF-SIMS, enhanced with a high-resolution Orbitrap analyser, provides detailed molecular imaging and mass spectrometry of biological and polymeric surfaces. This technique is capable of detecting and mapping lipids, peptides, pharmaceutical agents, and other biomolecules with submicron spatial resolution and excellent mass accuracy. It is particularly valuable in tissue engineering, implant surface analysis, and drug delivery research where complex surface chemistries are involved.
AFM adds a crucial layer of nanoscale insight by mapping surface topography, mechanical properties, and interaction forces with sub-nanometre resolution. In life sciences and biomaterials research, AFM can visualise soft tissues, polymer coatings, and live cells without requiring conductive coatings or harsh vacuum environments. It allows researchers to study how materials interact with biological systems at the mechanical level, such as stiffness, adhesion, and surface texture—which are critical factors in cell behaviour and implant integration.
NAP-XPS, Hybrid TOF-SIMS, and AFM are complimentary methods of investigating and engineering next-generation biomaterials that interface effectively with the human body.










