Programme
Quantum Sensors and Technology
The Quantum Sensors and Technology programme develops space‑deployable quantum sensors and supporting technologies for applications in Earth observation, planetary science, space weather and fundamental physics. Our work focuses on cold‑atom accelerometers, optically pumped magnetometers, Rydberg RF sensors and quantum memories, enabling new measurement capabilities from orbit.
Programme Aims
- To deliver space deployable, QT-based, tool-set that enables radical advancements in Earth observation
- Contribute to the development of gravity mapping missions to improve the understanding of the Earth mass transport
- Enhance passive microwave measurements of the Earth to improve climate modelling and monitoring
- Test the limits of general relativity and its interplay with quantum mechanic
- Contribute to the development space enabled long distance quantum networks
- Improve understanding and monitoring of the effects of space weather on the Earth through magnetic measurements
- Improve use of magnetic map matching for position and navigation
- Provide an ultra-high stability/accuracy global time reference by deploying the next generation of in-orbit atomic clocks
Our work in action
We combine fundamental research, prototype development, and mission‑focused engineering to build and validate quantum sensing technologies for future space missions.
Instrument development
We design and mature quantum instruments, carry out mission studies, and define mission‑level scientific requirements. This includes accelerometers for gravity missions, magnetometers for space‑weather monitoring, and technologies supporting next‑generation gravitational wave detectors.
Prototype development & testing
Our team produces prototype instruments and low‑TRL systems to demonstrate proof‑of‑principle performance. We work closely with engineering groups, industry and academia to prepare and support test campaigns, ensuring specialist equipment is validated against mission needs.
Advancing quantum-enabled applications
Our technologies support global timekeeping through next‑generation atomic clocks, improve passive microwave measurements for climate modelling, enhance magnetic navigation techniques, and contribute to long‑range quantum communication concepts.
