24 November 2016
Our Industry Engagement Team has produced a new report: Technical Roadmap for Fault-Tolerant Quantum Computing. This report aims to show the technical steps needed to build a fully functional quantum computer. We give an overview of the subject, and review leading technologies to realise such a computer. We include an estimate of the resources needed for real world problems and address the most common concerns. We also discuss the possible applications that would become available during the process towards building a fully universal quantum computer, i.e. what you can achieve with a “small” quantum computer. These applications apply to fields such as physics and chemistry simulations, encryption, and optimisation. We hope that this technical report will be helpful to those who want to understand, engage, develop, manufacture or invest in this technology.
24 November 2016
Keith Brown MSP, the Scottish Government’s Cabinet Secretary for Economy, Jobs and Fair Work, officially opened QuantIC’s Innovation Space during a visit to …
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17 November 2016
In September 2016, the University of Birmingham hosted the Quantum UK 2016 Conference – the second annual academic meeting of the UK National Quantum Technologies Programme. Established by the UK Government in December 2014, the UK National Quantum Technologies Programme aims to accelerate the translation of quantum technologies to market. The four Quantum Technology Hubs,
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15 November 2016
November 3rd was the 2016 National Quantum Technologies Showcase, held at the QEII Centre in Westminster, London. This one-day showcase event highlighted the exciting new quantum technologies that are being developed by the Quantum Technology Hubs and our industrial partners. Following on from the success of the first national quantum technologies showcase last year, the 2016 event highlighted the relationship with industry and the UK National Quantum Technology Programme’s potential for the creation of new markets and economic benefit. The Showcase received over 600 registrations from industry, academia and government, and had thirty nine exhibits demonstrating the collaborative nature of the programme involving academia, industry and government partners and included demonstrators from a range of investments made as part of the National Programme including the Quantum Technology Hubs, Industry and the National Physical Laboratory. NQIT had demonstrations from across our academic partners, showing our ion trap technology, our photonics work on wavelength conversion and spin-out technology to develop a magnetometer based on our diamond NV-centre work.
11 November 2016
On Thursday 03 November 2016 EPSRC's National Quantum Technology Hubs, working with the National Quantum Technologies Programme partners, successfully delivered the second Quantum Technologies Showcase event.
03 November 2016
Winning funding bids for UK Quantum Technology Innovation Fund revealed at International QT Showcase
24 October 2016
The 2016 Aron Kressel Award will be presented to Professor Martin Dawson, University of Strathclyde, "for broad and sustained contributions to semiconductor opto‐electronic engineering, including optically‐pumped semiconductor lasers, diamond photonics and gallium‐nitride microdevices".
18 October 2016
We have produced a new animation about quantum computing: The Exciting New Age of Quantum Computing
14 October 2016
In NQIT we work a lot on building components that provide the precise control over light and matter needed for quantum computers. In particular, as part of our work on solid-state qubits, we have been developing "optical microcavities" - tiny light-confining devices on a micrometer scale - to improve the efficiency of coupling quantum nodes to a network. These "optical microcavities", made up of mirrors just a few micrometres apart, force photons to bounce back and forth thousands of times interacting strongly with any material present. For quantum computing this means that a solid state qubit, such as a single colour centre in diamond, placed in the cavity, can convey quantum information more efficiently to a larger quantum network.
08 August 2016
NQIT Researchers at the University of Oxford have achieved a quantum logic gate with record-breaking 99.9% precision, reaching the benchmark required theoretically to build a quantum computer. Quantum computers, which function according to the laws of quantum physics, have the potential to dwarf the processing power of today’s computers, able to process huge amounts of information all at once. The team achieved the logic gate, which places two atoms in a state of quantum entanglement and is the fundamental building block of quantum computing, with a precision (or fidelity) substantially greater than the previous world record. Quantum entanglement – a phenomenon described by Einstein as ‘spooky’, but which is at the heart of quantum technologies – occurs when two particles stay connected, such that an action on one affects the other, even when they are separated by great distances.