At the heart of our research is a single principle: molecular transduction — the conversion of a nanoscopic event into a physical, functional, and readable output across length scales.
We engineer macroscopic materials that harness external cues to operate in out-of-equilibrium conditions, turning molecular transformations into purposeful behaviour, combining chemistry, physics, and engineering for future technologies.
This vision unfolds across three directions:
We synthesize adaptive molecular building blocks, such as light-, chemo-, or thermo-responsive moieties, to embed purposeful behavior directly into matter. By controlling how these elements are spatially organized across polymers, surfaces, and 3D architectures, we translate nanoscopic chemical events into macroscopic, functional responses.
We build responsive material platforms based on liquid crystal elastomers and hydrogels operating far from equilibrium. By harnessing external energy inputs, these systems exhibit shape change, (loco)motion, and oscillating behavior, paving the way for soft matter that can sense, actuate, “decide”, and retain memory of past interactions.
We engineer transducing interfaces that convert molecular recognition events into measurable output. By combining surface engineering with non-linear signal algorithms, we develop high-selectivity detection platforms, ranging from electronic noses (e-noses) for airborne VOCs to liquid assays for biomarkers, such as DNA and proteins.
We’re constantly open to new collaborations, unexpected applications, and curiosity-driven side projects. If something sparks an interesting challenge in you, reach out! Let’s explore it together!
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