Quantum Technologies are based on the properties of atoms, electrons and photons of everyday objects. 'Quantum' refers to the minimum amount of a physical entity. A photon is a quantum, for example, as it is the smallest divisible unit of light: a single light particle.
Quantum physics describes the behaviour of small particles, including photons, as well as atoms, ions and electrons. The wave-like behaviour of quantum systems gives rise to many interesting properties that can be exploited in areas such as computing, communication and timing.
These fundamental particles can provide unchanging standards to use for measurement and their 'quantum' behaviour can potentially create a completely new class of advanced sensors and systems, with radically new capabilities for timing and navigation, communications, computing and other critical applications.
Several research groups at NPL are currently working on advancing quantum technologies. New investments are building on NPL's expertise to enhance the UK's capabilities in developing and applying these exciting technologies.
The Quantum Metrology Institute brings together all of NPL's leading-edge quantum science and metrology research and provides the expertise and facilities needed for academia and industry to test, validate, and ultimately commercialise new quantum research and technologies.
The Institute provides the measurement expertise and facilities needed to underpin the National Quantum Technologies Programme, in which the government has invested £270m.
By bringing together industry engineers, academic researchers, and NPL scientists in a highly collaborative environment, the QMI plays a key role in the creation of a UK industry based on quantum technologies.
Vision for quantum metrology at NPL
Quantum phenomena are set to change the world around us. The QMI at NPL will be a leading centre for quantum metrology in Europe, collaborating with academic partners, government and industry to advance scientific discovery in quantum physics and materials. We deliver world-class research based on quantum phenomena for future generation SI standards and enable the translation of quantum technologies and materials into practical applications, accelerating the commercialisation of new products based on quantum systems.
This edition of Insights examines how government funding and strategic partnerships are helping to translate quantum research from the laboratory into successful commercial technologies, which will help maintain the UK's leading position in the field.
- Investigation of CVD graphene topography and surface electrical properties.
- We investigate the surface and interface structure of quasi-free standing graphene (QFSG) on SiC, obtained by hydrogen intercalation using surface enhanced Raman scattering (SERS) and X-ray photoelectron spectroscopy (XPS).
- Science and measurement collaborations between NPL and China are not new, but recently a major step forward has been taken, with close links being established in the area of graphene and other 2D materials.
- An international team of researchers led by NPL has performed novel measurements of graphene's response to synthetic air.
- Alexander Tzalenchuk has just been made an NPL Fellow in Solid State Quantum Technologies.
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