Completed Physics & Astronomy Clean Energy

Quantum Science and Device Facility (QSDF)

In plain English

AI plain-English summary

A new UK facility will cool scientific samples to near absolute zero so researchers can study and harness the bizarre quantum behaviour of materials. Quantum mechanics governs the behaviour of particles at the smallest scales, but its effects are normally masked by heat and noise. This project builds the Quantum Science and Device Facility (QSDF)—the first of its kind in the UK—to give researchers controlled access to that quantum world. By cooling materials, superconductors, and hybrid devices to temperatures near absolute zero, scientists can observe quantum properties that are otherwise invisible. If successful, the QSDF could accelerate the development of practical quantum technologies. For example, it could help lay the foundations for powerful new quantum computers built from superconducting circuits. It could also enable a “quantum internet” by developing a device that converts microwave signals to optical light, allowing distant quantum computers to communicate through standard fibre-optic cables. These advances would transform computing, secure communications, and data transfer—systems that quietly underpin modern life. This is primarily a fundamental science facility. Much of the work is curiosity-driven, exploring the foundations of quantum physics. But past fundamental research in quantum mechanics led directly to lasers, transistors, and MRI scanners—breakthroughs no one predicted at the time.

View original technical description
Quantum mechanics is both mysterious and powerful. At a very fundamental level our world works in a bizarre way that defies our common sense. Tapping in to this bizarre world provides a rich avenue to improve our understanding of the foundations of physics and harnessing this behaviour for the development of powerful new quantum technologies. This project will establish a UK-first facility--the Quantum Science and Device Facility (QSDF)--for researchers to tap into key aspects of the quantum world. More specifically, to cool scientific samples to near absolute zero in temperature and study the quantum properties of materials, superconductors, light-matter interactions, and importantly hybrid devices that utilize the advantages that each of these types of systems provide. We will work with national and international collaborators and partners to realise this vision and we will make the facility available to both empower and harness the potential of the wider UK community. Key examples of the science that can emerge from this facility include: laying the foundations for powerful new types of quantum computers comprising superconducting circuits, and making steps towards a "quantum internet" by developing a microwave-to-optical converter that can link distant superconducting quantum computers via optical fibre.

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Researchers

Alexander Clark (Co-Investigator)Cecilia Mattevi (Co-Investigator)Ian Walmsley (Co-Investigator)Jonathan Breeze (Co-Investigator)Lesley Cohen (Co-Investigator)Malcolm Connolly (Principal Investigator)Matthew Fuchter (Co-Investigator)Michael Tarbutt (Co-Investigator)Michael Vanner (Co-Investigator)Neil Alford (Co-Investigator)Nick Jennings (Co-Investigator)Peter Petrov (Co-Investigator)Riccardo Sapienza (Co-Investigator)William Branford (Co-Investigator)William Pike (Co-Investigator)

Related Research

Grants with similar aims, by meaning.

Control Interface for QUantum Integrated Technology Arrays
Quantum technology capital: QUES2T (Quantum Engineering of Solid-state Technologies)
An ultra-fast ultra-broadband photonic measurement facility
The EPSRC Quantum Communications Hub
Quantum Sensors for the Hidden Sector Extended Support (QSHSES)

Original classification

Research Grant

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