“The microbe is nothing, the terrain is everything” <L.Pasteur>
Biology is at the core of our multidisciplinary research, guiding us to understand the complexity of living systems at the molecular and cellular levels. In our laboratory, we bridge biology with physics, engineering, and nanotechnology
to tackle real-world challenges in diagnostics, environmental health, and biotechnology.
We focus on the detection and identification of pathogens, toxins, and biomolecules using advanced biosensing technologies. Through the integration of surface-enhanced Raman spectroscopy (SERS), nanostructured platforms,
and functionalized materials, we develop highly sensitive, label-free, and rapid detection systems that offer new possibilities for biomedical diagnostics and food safety.
Our biological work includes the analysis of bacteria, viruses, proteins, and nucleic acids, with applications ranging from infectious disease monitoring to environmental contaminant tracking. We collaborate closely
with microbiologists, chemists, and clinicians to design biosensors that are not only scientifically robust but also applicable in field or clinical environments.
We also explore cell–material interactions, studying how biological entities respond to engineered surfaces at the nanoscale. This line of research informs the development of biomimetic surfaces, implantable sensors,
and smart interfaces that adapt to biological environments.
By integrating biological knowledge with material science and data analysis, we are able to gain deeper insight into complex biological processes and translate this understanding into technologies that serve public health and sustainable
development. Our work exemplifies the power of biology when combined with physics and engineering — enabling tools that do not just observe life but interact with it in transformative ways.


