We are harnessing quantum science to create next generation devices
NPL is making use of the macrosocpic quantum properties of superconductivity to develop sensors capable of detecting a wide range of physical parameters at or beyond the quantum limit. The research is based on a range of different Superconducting Quantum Interference Devices (SQUIDs) aimed at detection of single spins, photons, charged particles and molecules. We are also employing this technology in two UKRI funded fundamental physics projects, to search for dark matter and to measure the mass of the neutrino.
Our research
Exploring superconductivity's quantum potential innovative SQUID sensors unveil hidden physical realms in NPL's cutting-edge research projects.
Our ion traps are at the heart of future quantum computing
We are developing quantum sensors to enable single quantum particle detection, as well atomic scale mass sensing, femtometre displacement and sub-piconewton forces
We are developing quantum sensors to enable single quantum particle detection, as well atomic scale mass sensing, femtometre displacement and sub-piconewton forces
Our services
We work with manufacturers of quantum devices to ensure reproducible and standardised processes, and provide test and evaluation to accelerate and increase confidence in quantum products. We are also helping industry commercialise and deliver quantum technologies and new devices.
NPL’s nanoprobe facilities
NPL’s nanoprobe facilities enable the characterisation and imaging of physical and chemical properties on the nanoscale.
Characterising vapour cells for ultra-accurate atomic clocks
Independent verification of novel heart disorder diagnostic device
Revealing new markets for graphene sensors
Our resources
We have a large number of freely-available publications by our team. Search our comprehensive list of resources.