Our research explores how light interacts with micro‑ and nanoscale systems in complex fluid environments. We develop optical and thermal tools to precisely control particle motion and drive rapid fluid flows, revealing fundamental links between light, temperature, and hydrodynamics.

Using synthetic colloids and condensate‑inspired droplets as model systems, we design and study mechanisms of self‑propulsion, self‑assembly, and collective behaviour across multiple length scales. These engineered platforms form the basis for automated assays that probe transport, phase separation, and material state under controlled stress.

A central goal is to transfer these concepts and tools to biological and biomimetic matter. By applying light‑driven control and optofluidic approaches to living cells and protein condensates, we investigate how physical forces shape biological organisation, from stress responses to pathological aggregation.

Our work lies at the interface of optofluidics, soft‑matter physics, and bioengineering, with key focus areas including:

• Light‑driven fluidic systems and automated microenvironments
• Phase separation and material states in biomolecular condensates
• Physics‑informed assays for biotech and drug discovery

We offer Bachelor and Master projects that involve building and using these experimental platforms, and we actively support applications for competitive postdoctoral fellowships for researchers interested in developing new physics‑based tools for biology and biotechnology.