Curmi is a structural and single-molecule biophysicist whose most-cited work is on the light-harvesting antenna proteins of cryptophyte algae, where he and collaborators reported long-lived electronic coherence at ambient temperature — one of the founding results of the quantum-biology field and still one of its most argued-over. His group determines the structures of these antenna complexes and engineers them, and separately works on protein-based molecular motors and on single-molecule fluorescence and FRET measurements of conformational dynamics. Positioned against the established body of NV-ensemble quantum sensing work — DEER, nanoscale NMR and T1 relaxometry protocols operating at pT/sqrt(Hz) field sensitivity — Curmi supplies the biological systems in which quantum coherence is actually claimed to matter; a pT/sqrt(Hz)-class spin sensor capable of watching radical-pair or exciton dynamics in situ would be aimed at exactly the questions his structures raise. Preferred attribute present: genuine quantum-biology substrate rather than a quantum-flavoured metaphor.
Dai's lab pioneered second-near-infrared-window (NIR-II/SWIR) fluorescent nanomaterial probes -- including carbon nanotube and rare-earth-based emitters -- that dramatically reduce tissue scattering and autofluorescence, enabling deep-tissue in vivo optical imaging at spatial resolution unattainable with visible-light fluorophores.
Jean Dalibard's BEC group at LKB studies quantum gases, BEC, and strongly correlated quantum systems. Research: (1) 2D Bose gases and Berezinskii-Kosterlitz-Thouless transition; (2) gauge fields for neutral atoms — synthetic magnetism; (3) quantum simulation with ultracold atoms. Dalibard is a foundational figure in cold-atom physics; his group at LKB/Collège de France is relevant through quantum gas experiments tied to quantum simulation and precision measurement. Borderline case included given BEC foundations for sensing.
Simone De Liberato's Quantum Theory and Technology group explores quantum electrodynamics in semiconductor systems. Research: (1) ultrastrong and deep-strong light-matter coupling in polariton and circuit QED systems; (2) mid-infrared polariton physics with potential sensing applications; (3) virtual photon condensation and vacuum fluctuations in quantum materials; (4) positronium density measurements using polaritonic effects. Relevant to quantum sensing via strong coupling platforms.
De Nijs leads the Physics for Sustainable Chemistry group, studying light-matter interactions at molecular length-scales using plasmonic nanocavities, with applications spanning single-molecule SERS sensing, in-situ electrochemical monitoring, and plasmon-driven photocatalysis for green chemistry (e.g. plastics degradation).
Defienne leads the Quantum Imaging Paris group at INSP, using spatial correlations and Hong-Ou-Mandel-type interference between entangled photon pairs to build microscopes that see through scattering media and correct optical aberrations without a spatial light modulator. His ERC-funded CORAMI project develops correlation-based adaptive optics as a universal add-on module for existing microscopes, targeting deeper (>1 mm), higher-contrast in-vivo imaging for neuroscientists, dermatologists, and ophthalmologists.
Deisseroth co-invented optogenetics (light-gated ion channels for millisecond-scale neural control) and CLARITY-type hydrogel tissue-clearing methods that render intact brains optically transparent for whole-organ, cellular-resolution light-sheet and confocal imaging, together forming a foundational toolkit for causal, high-resolution circuit neuroscience.
Cees Dekker (Distinguished University Professor, BioNanoscience/Kavli) pioneered solid-state nanopores and single-molecule biophysics. Research: (1) solid-state nanopores for protein sensing and sequencing — detecting individual protein molecules by current blockade; (2) DNA loop extrusion by condensin and cohesin at the single-molecule level; (3) chromatin structure and chromosome organisation with bacteria-on-chip; (4) synthetic cell construction from the bottom up; (5) diagnostic nanopores for neglected diseases. NanoFront 51M€ NWO program leader; 2019 Nature paper on real-time DNA loop extrusion imaging.
Nynke Dekker (Full Professor, BioNanoscience) leads single-molecule biophysics of DNA replication and topology. Research: (1) single-molecule force-fluorescence microscopy — integrated optical tweezers and fluorescence for real-time imaging of replication machinery; (2) DNA topology — supercoiling, gyrase, topoisomerase dynamics with magnetic tweezers; (3) DNA/RNA-processing molecular motors. EMBO member; KNAW member. 2024 integrated force-fluorescence toolbox published.
Dhiman holds the professorship for Physical Chemistry of Supramolecular Systems at JGU and is affiliated with the Max Planck Graduate Center. Her group uses single-molecule and super-resolution fluorescence microscopy (SMLM/PAINT-type methods) to watch synthetic supramolecular polymers assemble, exchange monomers and age in real time -- i.e. applying the biological super-resolution toolkit to non-biological self-assembling matter, and toward bioinspired/adaptive systems that behave like living materials. Relative to the established NV-ensemble quantum-sensing playbook (DEER, nanoscale NMR, T1 relaxometry at pT/sqrt(Hz) ensemble sensitivity), this is a technique-driven inclusion: the emphasis is squarely on pushing spatial and temporal resolution of dye-based imaging past the ensemble limit, and it is a newer group where a postdoc would have room to shape the direction.