UK Quantum Technology Hub in Sensing, Imaging and Timing
QuSIT
A national research hub for quantum sensing, imaging and timing, led by the University of Birmingham.
Role: Partner
Funding: £22m
Themes: Sensing, Imaging, Timing and navigation
University · Nottingham
Helmets fitted with optically pumped magnetometers, which record brain activity while the wearer moves, are the University of Nottingham's signature quantum project; its School of Physics and Astronomy developed them and spun them out as Cerca Magnetics in 2020. In December 2025 the Ministry of Defence committed more than £3m to a fully mobile version for studying blast exposure in troops, built by Cerca with Nottingham physicists, the University of Birmingham and Magnetic Shields. Nottingham was a partner in the Birmingham-led Sensors and Timing hub from 2019 to 2024 and is a partner in its successor, the QuSIT hub.
University of Nottingham is a university in Nottingham with two quantum projects in this directory. It is a partner in 2 UK projects: QuSIT and UK Quantum Technology Hub in Sensors and Timing. Profiled here: Matthew Brookes (Non-Executive Chairman).
Sources: Wearable brain imaging gives clearest ever picture of children's developing brain | University of Nottingham · World's first mobile quantum brain scanner being developed to measure blast effects on troops | GOV.UK · GtR: UK Quantum Technology Hub in Sensors and Timing (EP/T001046/1) · GtR: QuSIT hub (EP/Z533166/1)
QuSIT
A national research hub for quantum sensing, imaging and timing, led by the University of Birmingham.
Role: Partner
Funding: £22m
Themes: Sensing, Imaging, Timing and navigation
The phase 2 national hub for quantum sensors and clocks, led by the University of Birmingham. It ran from 2019 to 2024.
Role: Partner
Funding: £28.6m
Themes: Sensing, Timing and navigation
Recent articles from Quantum Zeitgeist that mention University of Nottingham.
Can complex systems exhibiting glass-like behaviour be probed one trajectory at a time using today’s quantum computers? Measurements on a superconducting processor now demonstrate that detailed observation *is* possible, revealing how inactivity spreads through the system via analysis of space-time
Image © Quantum Zeitgeist
Until now, controlling complex quantum systems has largely relied upon understanding how three atomic particles interact. New work demonstrates nonthermal behaviour within chains of Rydberg atoms governed by constraints acting on *four* interacting bodies simultaneously. This combination of ‘blockad
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Taiyuan University researchers develop a quantum protocol that improves weak signal detection using Successive Adiabatic Evolution.
Image © Quantum Zeitgeist
The lengthy process of bringing new materials to practical use is now undergoing a fundamental shift. Previously, discovery focused on identifying theoretically perfect materials, but attention is now turning to finding those that reliably perform under real-world manufacturing and operating conditi
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