Research Areas - (4) Wavefront Shaping Deep Tissue Fluorescence Imaging

Full path: Biology > Biophysics > Quantum Biology / Biosensing > Super-resolution Microscopy > Wavefront Shaping Deep Tissue Fluorescence Imaging

Department(s)/lab(s): Physics – Laboratoire Kastler Brossel, Sorbonne UniversitΓ© | Optical Imaging in Complex Media Group (Gigan Group / LKB) @ Sorbonne
Summary:

Gigan leads the Optical Imaging group at LKB, pioneering wavefront shaping and computational imaging through scattering media. Research directions: (1) Wavefront shaping / transmission matrix β€” measuring the ~10^5 optical modes of a scattering sample's transmission matrix to focus and image through highly scattering biological tissues; roadmap on deep tissue imaging (J. Phys. Photonics 2022, lead author); (2) Multimode quantum optics through complex media β€” spatially multimode squeezed states transmitted through scattering media for quantum-enhanced imaging; (3) Optical computing / AI β€” using multiple scattering as a physical neural network for reservoir computing and nonlinear machine learning (LightOn spin-off, 2016); (4) Neurophotonics applications β€” focusing through the skull for deep brain imaging. Two ERC grants (2011, 2017). Optica Fellow. IUF member (2016–2021).

Department(s)/lab(s): Physics / LKB | PICO Group (Gigan Lab) @ ENS Paris
Summary:

Sylvain Gigan's PICO (Photonics, Information, and Complexity) group focuses on imaging through and with complex and scattering media. Research: (1) wavefront shaping through scattering media β€” adaptive optics and transmission matrix approaches for deep-tissue fluorescence imaging; (2) multimode quantum optics through complex media β€” pushing quantum light through scattering and multi-mode fibres; (3) analogue computing with random optical scattering media. Key for biosensing: deep tissue imaging at high spatial resolution and quantum-enhanced light manipulation.

Department(s)/lab(s): Physics / QET Labs | Rubino Group (Bristol QET Labs) @ Bristol
Summary:

Giulia Rubino's research bridges quantum foundations and quantum technologies using integrated photonics. Research: (1) indefinite causal order β€” experimental demonstration of quantum switch using photonic chips; (2) quantum thermodynamics β€” fundamental limits of thermodynamic work extraction in quantum systems; (3) quantum information processing with photonic integrated circuits. Appointed Lecturer January 2024.

Department(s)/lab(s): Physics | Photonics and Complex Media Group (Sapienza) @ Imperial
Summary:

Sapienza studies light propagation and control in complex/disordered nanophotonic media, using wavefront shaping and transmission-matrix approaches to focus and image through scattering media, with applications to deep-tissue fluorescence imaging and nanophotonic light sources.