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We use soft matter to solve fundamental problems drawn from a diverse range of fields, from condensed matter physics to biology.  To achieve this we build novel experimental model systems that allow us to probe complex phenomena at the micro and nanoscale, exploiting a range of techniques, including microfluidics, optical tweezing, colloidal suspensions, and  nanopores. Working with this variety of techniques allows us to probe phenomena from the single-particle to continuum limit and to identify universal physical behaviour across different length and time scales. Our current goal is to comprehensively understand fluctuations and transport of materials in driven, out-of-equilibrium systems. Understanding transport is important in a wide variety of different scenarios, from exploring biological dynamics to improving state-of-the-art molecular sensing and DNA sequencing devices. Moreover, elucidating the statistical mechanics of non-equilibrium systems represents a significant fundamental challenge. To learn more please see our recent publications or contact Alice.

We gratefully acknowledge funding from various sources including:

 

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Recent Highlights

Artistic image of magnetic dimers in an energy landscape

Orientational bistability and field-controlled switching of a superparamagnetic dimer

James R.N.Tett et al., Soft Matter (2026)

adsorption diffusion nanopores

Decoding Noise in Nanofluidic Systems: Adsorption versus Diffusion Signatures in Power Spectra

Anna Drummond Young et al., Journal of Chemical Physics  (2025)

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The Countoscope: Measuring Self and Collective Dynamics without Trajectories

Eleanor K. R. Mackay et al., Physical Review X (2024)

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