RESEARCH

Five connected lenses on
brain, matter and light.

Move through the laboratory’s current research directions. Each programme retains its own physical language while sharing questions about signals, structure and information.

01

Neural systems & brain data

From neural structure
to collective dynamics.

We study neural signals and the electromagnetic response of brain components, connecting measurements with biophysical models. Our brain-data initiative brings together experimental signals, structural information and simulation outputs.

  • Neuroscience
  • Brain data
  • Electromagnetic modelling
Related lab publications ↗
02

DDG & Quantum DDG

Measuring signals
across time scales.

Dodecanogram (DDG) research explores high-frequency brain-signal acquisition and multiscale dynamics. Quantum DDG extends the programme to questions about quantum aspects of brain systems and their relationship to measured responses.

  • Dodecanogram
  • Instrumentation
  • Multiscale signals
  • Quantum DDG
Related lab publications ↗
03

Chiral matter & excitonic physics

Molecular organisation.
Collective optical behaviour.

We investigate chiral supramolecular assemblies and organic helical nanowires, studying how structure shapes excitations and optical response. These systems provide a platform for exploring excitonic physics and material approaches to information processing.

  • Chiral nanostructures
  • Excitonic physics
  • Organic materials
Related lab publications ↗
04

Spectroscopy & light–matter interaction

Understanding matter
through its response to light.

Spectroscopy connects molecular structure with optical behaviour. We investigate resonance, chirality and excited-state processes to understand the physical mechanisms relevant to sensing and information readout.

  • Spectroscopy
  • Chirality
  • Excited states
  • Resonance
Related lab publications ↗
05

Quantum photonics & organic computing

Light as a probe.
Matter as a computing platform.

Our work explores optical vortices and orbital angular momentum alongside organic-material platforms for quantum information and computing. Physical modelling and optical measurements connect these research directions.

  • Optical vortices / OAM
  • Quantum photonics
  • Organic computing
Related lab publications ↗
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