Summary: One of Europe's largest and most productive AMO/quantum sensing groups. The QOLS group at the Blackett Laboratory (~15 academics, 30 postdocs, 50+ PhD students) spans cold matter (CCM: eEDM/YbF, atom interferometry for inertial/gravitational sensing), attoscience, quantum navigation, and biophotonics (FLIM, super-resolution). Imperial leads the AION consortium for atom interferometry (dark matter, gravitational waves). The Quantum Science and Device Facility (QSDF) and Blackett cleanroom support device work. Exceptionally strong for astro-oriented quantum sensing (AION, gravity gradiometry) and emerging biophotonics.
Notes: Top-10 global research university, ranked #2 in UK. The Department of Physics at the Blackett Laboratory hosts the Quantum Optics and Laser Science (QOLS) group — ~15 academic staff, 30 postdocs, 50+ PhD students — one of the largest AMO/quantum photonics groups in Europe. Key divisions: Centre for Cold Matter (CCM; eEDM/YbF, cold molecules, atom interferometry, quantum navigation), Laser Consortium (attoscience), Controlled Quantum Dynamics (theory), and Photonics Group (FLIM/super-resolution biophotonics). Imperial is lead institution of the AION consortium for atom interferometry. Has cleanroom facilities in the Blackett Building and a shared Quantum Science and Device Facility (QSDF). Cost of living in London is high (~£3,600/month). Very strong quantum technology ecosystem via QuEST and EPSRC Quantum Technology Hub.
McGinty develops fluorescence lifetime imaging (FLIM) instrumentation, including endoscopic and widefield FLIM systems, for applications in cancer diagnosis and metabolic/functional imaging.
Mintert's theoretical group works on quantum information and quantum control, including protocols to deterministically prepare highly non-classical (non-Gaussian, Wigner-negative) states of massive mechanical oscillators via optomechanical interactions, entanglement quantification, and quantum simulation.
Mohanty's group studies the formation and early evolution of stars, brown dwarfs and planetary systems, combining optical/infrared spectroscopy and ALMA observations of protoplanetary disks to understand accretion, disk chemistry and planet formation.
Mortlock develops Bayesian statistical methods to find and characterise rare astrophysical objects in large sky surveys, most notably the discovery of some of the most distant known quasars, informing early-Universe black-hole growth and reionisation studies.
Murray develops mid-infrared photonic sources and detectors and combines mid-IR spectroscopy with mass-spectrometry imaging to provide complementary optical and biochemical maps of tissue for biomedical sensing.
Neil works on advanced optical microscopy techniques including structured-illumination and super-resolved (STED/SIM) imaging, and wavefront-based aberration correction, within Imperial's Photonics/Biophotonics group.
O'Hare develops electrochemical and optical biosensors for point-of-care and near-patient diagnostics, including miRNA cancer biomarker detection and exhaled-breath-condensate analysis for respiratory and metabolic disease monitoring.
Oulton's group develops nanophotonic devices, including quantum emitters and exciton-polariton systems in 2D semiconductors and solid-state quantum light sources, aiming at scalable quantum photonic technologies.
Owen works on the theory and observational consequences of protoplanetary disk evolution, photoevaporation and exoplanet demographics, explaining features such as the observed radius gap in close-in exoplanets.
Pantazis directs the Leica Imaging Hub at Imperial and develops advanced live-imaging tools (including novel fluorescent probes and light microscopy methods) to capture the dynamics of embryonic development and disease processes in real time.