Institutions

University Offices, Wellington Square
Oxford, Oxfordshire OX1 2JD
United Kingdom

Summary: World-leading for experimental quantum sensing. The Clarendon Laboratory (Department of Physics) hosts groups in quantum optics, AMO physics, quantum sensing (NV centres, levitated optomechanics), condensed matter spin physics, superconducting quantum detectors, and astrophysical instrumentation. Oxford leads the AION-10 atom interferometer project (UK Quantum Technologies for Fundamental Physics), directly relevant to gravitational wave detection and dark matter sensing. The Beecroft Building cleanroom supports superconducting quantum device fabrication. Strong for both bio sensing (spin, ODMR) and astro sensing (AION, detector development).

Notes: Top-5 world-ranked R1 research university. The Department of Physics at the Clarendon Laboratory hosts leading groups in quantum optics, AMO physics, quantum sensing, condensed matter spin physics, superconducting quantum detectors, and astrophysical instrumentation. Oxford has a strong quantum technology ecosystem including the Oxford Quantum Institute and multiple UKRI Quantum Technologies for Fundamental Physics projects (AION-10). Has cleanroom facilities in the Beecroft Building used by the superconducting quantum devices/detectors groups.

Department(s)/lab(s): Physics (Astrophysics) | Thatte Instrumentation Group @ Oxford
Summary:

Thatte leads Oxford's role in developing HARMONI, the first-light integral-field spectrograph for ESO's Extremely Large Telescope, alongside observational studies of black holes and galaxy structure enabled by advanced integral-field spectroscopy.

Department(s)/lab(s): Physics (Condensed Matter Physics Sub-department) | Quantum Devices and Biosystems Group @ Oxford
Summary:

Vedral leads the Quantum Devices and Biosystems group, working at the intersection of quantum information and biology. Research themes include: (1) quantum effects in living systems — studying entanglement and non-classicality in biological organisms such as tardigrades placed in quantum superposition inside superconducting qubits; (2) BMV-type experiments to test whether gravity is a quantum field by measuring gravity-mediated entanglement between two massive quantum superpositions; (3) theoretical frameworks for witnessing quantum effects in complex macroscopic systems. While primarily theoretical, the group actively collaborates with and directs experiments. Borderline: included as the group formally aims for experimental demonstrations of quantum effects in living systems.