02 February 2017
Application Deadline: 20 March 2017
23 January 2017
Trakm8’s optimisation business, Route Monkey, is working with NQIT on a new generation of transport and mobility algorithms for quantum computers. Livingston-based Route Monkey already works with Heriot-Watt University in Edinburgh on creating and enhancing innovative algorithms for transport and travel. They are now joining forces with the Networked Quantum Information Technologies (NQIT) Hub, led by the University of Oxford. Together, the three organisations will develop, test and commercialise quantum algorithms.
16 January 2017
In this report, we cover commercial investment in quantum computing, the current market and research status and public perceptions of this new technology.
We go into more depth on potential market segments and provide a detailed timeline of commercial investment in quantum computing.
16 December 2016
We are hiring three Research Fellows in Quantum Device Engineering with specialisation in:
16 December 2016
NQIT is pleased to announce that we have 16 PhD studentships available in quantum research groups around the UK. These EPSRC Doctoral Training Partnership (DTP) studentships provide funding for a 3-year PhD. Applications are open for all 16 right now and you will need to apply via the host university. Deadlines vary between each university.
12 December 2016
A key NQIT publication of 2016 - the demonstration of a quantum 'logic gate' between two different species of ion - has been named one of ten Breakthroughs of the Year in 2016 by Physics World.
05 December 2016
NQIT researchers have taken a significant step forward in the development of solid state spin qubits by developing a new method for forming nitrogen-vacancy (NV) centres in diamond using laser writing. In a new paper published today in Nature Photonics, Yu-Chen Chen and Professor Jason Smith in the Department of Materials at Oxford University, along with Dr Patrick Salter and Prof Martin Booth from the Department of Engineering Science and colleagues at the Universities of Bristol and Warwick, demonstrate controlled generation of single NV centres in diamond at a precise location within the crystal lattice.
02 December 2016
NQIT researchers at the University of Sussex have proposed an exciting new architecture for scalable ion trap quantum computing that could radically simplify the engineering challenge of building a large-scale quantum computer. In a new paper published in Physical Review Letters, Dr Seb Weidt and Professor Winfried Hensinger and colleagues from the Ion Quantum Technology Group, present a fundamentally different approach for trapped-ion quantum computing that uses voltages and microwave fields to control the ions, rather than lasers. This new design is based on individually-controlled voltages applied to each logic gate location, analogous to a traditional transistor architecture within a classical computer processor. When implemented, it would allow a substantial reduction in the number of laser beams required and a simplification of the design of the “chip” used to hold the trapped-ion qubits.
01 December 2016
NQIT’s trapped-ion qubit research team at the University of Oxford have achieved record-breaking precision in electronically-controlled quantum logic gates, which could substantially simplify the engineering challenge of building a large-scale quantum computer. In recent work reported in Physical Review Letters , Dr Tom Harty, Martin Sepiol and colleagues, report the achievement of a two-qubit entangling gate – the fundamental operation of quantum logic – driven by electronic microwave signals instead of by laser beams. The precision of the gate improves on previous microwave work by nearly two orders of magnitude, and approaches the levels required for a quantum computer.
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.