Image showing the Hub Director, Professor Gerald Buller (a white, middle-aged man) addressing the audience in a lecture theatre at the Hub launch event

New UK Quantum Hub launches to pioneer secure networks and advance the quantum internet

10 April, 2025

The Integrated Quantum Networks Hub will address the challenges underpinning the establishment of a “quantum internet”, by developing the novel technologies, protocols and industry standards necessary for the deployment of a secure, scalable, quantum communications infrastructure for the UK and beyond.

Led by Heriot-Watt University and supported by over £42M of EPSRC funding and industry contributions, the new Hub brings together the expertise of a further 12 leading UK universities (Bristol, Cambridge, Glasgow, Edinburgh, Imperial, Oxford, Queen’s Belfast, Sheffield, Southampton, Strathclyde, Warwick and York), two national laboratories – the National Physical Laboratory and STFC RAL Space – and over 40 industrial partners to secure the UK’s leadership in quantum secure communications.

The project was formally launched yesterday in Edinburgh at an event attended by over 120 researchers, industry stakeholders, and government representatives. This included senior figures from the Department for Science Innovation and Technology (DSIT), UKRI, GCHQ, the National Cyber Security Centre (NCSC), the Defence Science and Technology Laboratory (Dstl), Technology Scotland, the National Quantum Computing Centre (NQCC), as well as key figures from the UK National Quantum Technologies Programme.

Quantum networks enable the transmission and sharing of quantum information by harnessing entanglement and quantum measurement—capabilities that go beyond what classical systems can achieve. The Integrated Quantum Networks (IQN) Hub is working to realise scalable, practical quantum networks, from local links between quantum processors to national entanglement infrastructure and intercontinental satellite-based communications. This pioneering research opens up transformative possibilities in quantum-secure communications, distributed quantum computing, and ultra-sensitive quantum sensor networks. The hub’s vision aligns with the UK Government’s national quantum strategy, which sets out an ambitious goal: by 2035, the UK will have deployed the world’s most advanced quantum network infrastructure.

Kickstarting the proceedings, Tom Newby, Head of DSIT’s Office for Quantum, talked about the opportunities afforded by quantum technologies for the UK’s evolving industry landscape, the development of supporting skillsets and the potential for economic boost through leading innovation and commercialisation activities.

Secretary of State for Science and Technology, Peter Kyle said:

“Supporting the deployment of technology that emerges from the Quantum Research Hubs will mean faster diagnoses for diseases, critical infrastructure safe from hostile threats and cleaner energy, all of which are key to our Plan for Change.

“By pooling expertise from across the UK to capitalise on quantum technology, we can transform sectors like healthcare and security to improve lives and create a culture of accelerated innovation that helps to grow our economy.”

The event featured a series of expert talks and panel discussions with industry partners, spotlighting the Hub’s vision to develop and commercialise next-generation quantum communication technologies. Highlights included advances in quantum memories, new network designs that integrate with today’s fibre-optic infrastructure, and satellite-enabled quantum communication—already being demonstrated through SPOQC, one of the UK’s flagship quantum space missions. To support the growing quantum ecosystem, researchers are also working on essential technologies like quantum light sources, detectors and switches, while contributing to the development of future security standards that will help shape the industry as it scales.

Hub Director, Professor Gerald Buller from Heriot-Watt University, said:

“The Integrated Quantum Networks Hub is building on the UK’s enormous strengths in quantum research and combines our world-class academic base with leading industry partners from across the telecommunications, space, security and quantum technology sectors. We have a hugely ambitious vision to establish UK leadership in quantum networking however, through this Hub, we have assembled an extraordinary partnership to help deliver this.”

Andrew Lord, Head of Optical Network Research at BT, a key industry partners of the project, said:

“BT is thrilled that this crucial quantum networks hub has been launched and we look forward to being involved with it. Quantum networks go far beyond Quantum Key Distribution and we are excited to see research leading towards the ultimate promise of quantum connections between quantum computers.”

Professor Gillian Murray, Deputy Principal for Business and Enterprise, Heriot-Watt University added:

“Collaboration sits at the heart of everything we do at Heriot-Watt. By working closely with industry, government, and research partners through initiatives like the Integrated Quantum Networks Hub, we’re helping to shape the innovation clusters of the future—ones that will drive economic growth, deliver secure technologies, and position the UK as a global leader in quantum innovation. These partnerships are critical to unlocking new capabilities and translating world-class research into real-world impact.”

The IQN Hub is part of a network of five quantum technology hubs, launched by UKRI Engineering and Physical Sciences Research Council (EPSRC), with a £106 million investment from EPSRC, the UKRI Biotechnology and Biological Sciences Research Council (BBSRC), UKRI Medical Research Council (MRC), and the National Institute for Health and Care Research (NIHR).

To find out more, visit iqnhub.org

image showing the configuration of the UK Quantum Network during the recent experimental demonstration securely transferring data between Cambridge and Bristol

Researchers Demonstrate the UK’s First Long-Distance Communication Over a Quantum Network

8 April, 2025

Researchers have successfully demonstrated the UK’s first long-distance ultra-secure transfer of data over a quantum communications network, including the UK’s first long-distance quantum-secured video call.

The team, from the Universities of Bristol and Cambridge, created the network, which uses standard fibreoptic infrastructure, but relies on a variety of quantum phenomena to enable ultra-secure data transfer.

The network uses two types of quantum key distribution (QKD) schemes: ‘unhackable’ encryption keys hidden inside particles of light; and distributed entanglement: a phenomenon that causes quantum particles to be intrinsically linked.

The researchers demonstrated the capabilities of the network via a live, quantum-secure video conference link, the transfer of encrypted medical data, and secure remote access to a distributed data centre. The data was successfully transmitted between Bristol and Cambridge – a fibre distance of over 410 kilometres.

This is the first time that a long-distance network, encompassing different quantum-secure technologies such as entanglement distribution, has been successfully demonstrated. The researchers presented their results at the 2025 Optical Fiber Communications Conference (OFC) in San Francisco.

Quantum communications offer unparalleled security advantages compared to classical telecommunications solutions. These technologies are immune against future cyber-attacks, even with quantum computers, which – once fully developed – will have the potential to break through even the strongest cryptographic methods currently in use.

In the past few years, researchers have been working to build and use quantum communication networks. China recently set up a massive network that covers 4,600 kilometres by connecting five cities using both fibreoptics and satellites. In Madrid, researchers created a smaller network with nine connection points that use different types of QKD to securely share information.

In 2019, researchers at Cambridge and Toshiba demonstrated a metro scale quantum network operating at record key rates of millions of key bits per second. And in 2020, researchers in Bristol built a network that could share entanglement between multiple users. Similar quantum network trials have been demonstrated in Singapore, Italy and the USA.

Despite this progress, no one has built a large, long-distance network that can handle both types of QKD, entanglement distribution, and regular data transmission all at once, until now.

The experiment demonstrates the potential of quantum networks to accommodate different quantum-secure approaches simultaneously with classical communications infrastructure. It was carried out using the UK’s Quantum Network (UKQN), established over the last decade by the same team, supported by funding from the Engineering and Physical Sciences Research Council (EPSRC), and as part of the Quantum Communications Hub project.

“This is a crucial step toward building a quantum-secured future for our communities and society,” said co-author Dr Rui Wang, Lecturer for Future Optical Networks in the Smart Internet Lab‘s High Performance Network Research Group at the University of Bristol. “More importantly, it lays the foundation for a large-scale quantum internet—connecting quantum nodes and devices through entanglement and teleportation on a global scale.”

“This marks the culmination of more than ten years of work to design and build the UK Quantum Network,” said co-author Adrian Wonfor from Cambridge’s Department of Engineering. “Not only does it demonstrate the use of multiple quantum communications technologies, but also the secure key management systems required to allow seamless end-to-end encryption between us.”

“This is a significant step in delivering quantum security for the communications we all rely upon in our daily lives at a national scale.” said co-author Professor Richard Penty, also from Cambridge and who headed the Quantum Networks work package in the Quantum Communications Hub. “It would not have been possible without the close collaboration of the two teams at Cambridge and Bristol, the support of our industrial partners Toshiba, BT, Adtran and Cisco, and our funders at UKRI.”

“This is an extraordinary achievement which highlights the UK’s world-class strengths in quantum networking technology,” said Gerald Buller, Director of the IQN Hub, based at Heriot-Watt University. “This exciting demonstration is precisely the kind of work the Integrated Quantum Networks Hub will support over the coming years, developing the technologies, protocols and standards which will establish a resilient, future-proof, national quantum communications infrastructure.”

The current UKQN covers two metropolitan quantum networks around Bristol and Cambridge, which are connected via a ‘backbone’ of four long-distance optical fibre links spanning 410 kilometres with three intermediate nodes.

The network uses single-mode fibre over the EPSRC National Dark Fibre Facility (which provides dedicated fibre for research purposes), and low-loss optical switches allowing network reconfiguration of both classical and quantum signal traffic.

The team will pursue this work further through a newly funded EPSRC project, the Integrated Quantum Networks Hub, whose vision is to establish quantum networks at all distance scales, from local networking of quantum processors to national-scale entanglement networks for quantum-safe communication, distributed computing and sensing, all the way to intercontinental networking via low-earth orbit satellites.

Hub researchers showcase quantum innovation in parliamentary event celebrating Scotland’s Critical Technologies Supercluster

13 March, 2025

Researchers from our Integrated Quantum Networks Hub had an opportunity to showcase their work at a special parliamentary reception, that took place on 12 March within the grounds of the Scottish Parliament, at Holyrood in Edinburgh.

Sponsored by Kenneth Gibson, MSP, and organised by Technology Scotland, with support from the Photonics and Quantum Accelerator, Quantum ARC, as well as our Hub and the fellow UK Hub for Quantum Enabled Position, Navigation & Timing, the event celebrated Scotland’s Critical Technologies Supercluster, a constellation of overlapping and mutually supporting technology sectors – photonics, quantum, semiconductors, and wireless and sensing technologies.

Presently generating £4.2bn in revenue, the ambition is for the supercluster to grow through sustained plans so that it can return upwards of £10bn in revenues by 2035, while also adding a further 6,600 jobs to the portfolio of 11,000 positions currently supported by the initiative.

The event was attended by over 200 delegates, mostly comprising Members of the Scottish Parliament, industry representatives and key stakeholders from academia. Kenneth Gibson MSP, Alastair McInroy, CEO of Technology Scotland; Evelyn Toma from the University of Glasgow, and Scottish Government Minister for Business, Richard Lochhead, MSP, delivered a series of short opening speeches, after which visitors were encouraged to find out more about the critical technologies under development by interacting with specially designed exhibits representing some of the key economy sectors benefitting from these technologies.

IQN Hub researchers participated with a demonstrator jointly designed with Scottish satellite start-up (and Hub partner) Craft Prospect, showcasing a scale model of the 12U CubeSat and a video presentation of the specialist Optical Ground Station, on the grounds of Heriot-Watt University – both key components of the UK’s SPOQC quantum mission, demonstrating the feasibility of quantum secure satellite communications.

Space quantum communications is only one of the work themes of the IQN Hub, which also brings together expertise in the development of quantum memories; next-generation, scalable, terrestrial quantum network architectures utilising standard optical fibre while also incorporating entanglement distribution capabilities; quantum (and post-quantum) security approaches and standards; quantum components (sources, detectors, network switches); and new (hardware/ software) security protocols underpinning our networking technologies.

Universities play a key role in our space ambitions

4 December, 2024

This article, authored by Professor Gillian Murray, Deputy Principal for Business and Enterprise at Heriot-Watt was first published in the Edinburgh Evening News as a guest piece on behalf of the Edinburgh Chamber of Commerce on Monday 2 December 2024.

Scotland is rapidly establishing itself as a key player in the global space industry. With one operational spaceport and two more in advanced stages of development, the country is building a vibrant ecosystem of space and satellite businesses, cutting-edge research, and a highly skilled workforce.

Scotland’s space industry has seen impressive growth, with over 220 organisations generating a combined income of £298 million. By 2030, the sector aims to generate over £4 billion annually for Scotland’s economy and to increase its workforce fivefold. These targets underscore an ambition that reaches far beyond national boundaries, putting Scotland on the map within space and aerospace industries.

As we look to the future, the aerospace sector’s growth is not without challenges. Large-scale infrastructure investments and a skilled workforce are both essential to meet the industry’s demands. I believe universities like Heriot-Watt play a pivotal role here, not only in educating tomorrow’s talent, but as active partners in driving the innovation and collaboration essential for this sector to thrive. Scotland’s ambition to lead in space demands a strong alignment between enterprising academic research, industry partnerships, and talent development, and at Heriot-Watt, we’re focused on creating that alignment.

One of the most exciting advancements at Heriot-Watt is our role in the UKRI-funded Integrated Quantum Networks Hub, a £39.5 million initiative set to revolutionise data security through quantum-secure satellite and ground communication. With support from 40 industry partners, contributing nearly £20 million in additional funding, this project exemplifies our commitment to impactful, collaborative research.

This level of industry engagement underscores Heriot-Watt’s strength in building partnerships at scale, making us an ideal partner for the space industry. By connecting world-class research with robust industry collaboration, we are not only advancing the frontiers of knowledge but actively addressing the sector’s most pressing challenges.

A unique asset in our research portfolio is the Hub Optical Ground Station (HOGS). This high-resolution telescope is dedicated to quantum and photonic-based satellite communications, enabling us to explore and demonstrate secure data transfer across space. Positioned within our Edinburgh campus, HOGS sits alongside our Research Park—a vibrant, cross-sectoral environment where collaboration and knowledge sharing are at the heart of innovation.

Our Research Park is home not only to space-focused businesses but also to a diverse range of industries, from advanced manufacturing to energy and digital technologies. This diversity fosters an ecosystem where ideas and expertise can flow freely across disciplines, creating unique opportunities for businesses to draw on insights from multiple sectors. Partners benefit from access to our cutting-edge research, as well as a network of academics, students, and business leaders committed to solving complex challenges across industries, including but not limited to space.

This co-location opportunity is something we’ve already seen yield impressive results. One example is our partnership with Celestia, a global leader in satellite antenna technology. Through this collaboration, Celestia has benefited from Heriot-Watt’s expertise in antenna engineering, tapping into our research infrastructure and hiring highly skilled graduates to advance their work on multi-satellite tracking systems. This has enabled Celestia to contribute to satellite constellations that are essential for high-speed internet access in remote areas and improved environmental monitoring capabilities. The partnership not only benefits Celestia but also strengthens the broader space ecosystem, demonstrating the potential of university-industry collaboration.

The demand for skilled professionals is another critical element of Scotland’s space industry, particularly as the sector continues to grow. With STEM education at our core, Heriot-Watt has been proactive in designing programmes that align with industry needs in space and related sectors. The Scottish Science Advisory Council has highlighted the pressing need for greater collaboration between industry and academia to develop and retain a skilled workforce capable of meeting future demands. Our five Centres for Doctoral Training, focused on fields like quantum science and photonics, help create a pipeline of talent for high-tech sectors. Programmes like our Aerospace Engineering degree and Graduate Apprenticeships (GAs) equip students with the hands-on skills needed to thrive in this expanding sector, ensuring Scotland’s workforce remains competitive and resilient.

Graduate Apprenticeships (GAs) will play a crucial role in building that workforce. These programmes, which combine academic study with real-world industry experience, address skill gaps while ensuring that students can apply their knowledge directly in professional settings. An inspiring example is Fatima, one of our Graduate Apprentices in engineering, whose work for her employer resulted in a £100,000 cost savings. Fatima’s achievement highlights how GAs provide immediate, tangible value to businesses, while helping students build a practical understanding of their field. For the space industry, where continual innovation is key, GAs represent an effective way to develop a future-ready workforce.

In addition to building talent, our partnerships with the private sector provide crucial support to the growing space economy. For example, the Heriot-Watt Research Park offers co-location opportunities that give businesses access to our extensive R&D facilities and infrastructure. Celestia is one of many companies that have chosen to base operations here, where they can collaborate with our academics and tap into our skilled graduates to further their innovations in satellite technology. In a sector as specialised as space, this proximity to talent and technology can accelerate innovation and foster cross-industry synergies.

Moreover, our global presence gives us a unique advantage in bringing international perspectives and connections to Scotland’s space sector. With campuses in Dubai and Malaysia and a robust Heriot-Watt Online education platform, we connect Scotland with international insights and expertise. We regularly engage with global academic and industry leaders, and our graduates are part of a worldwide alumni network. This global outlook helps us provide a richer educational experience and expand the reach of Scotland’s space sector by building international partnerships.

As we look ahead, I see Heriot-Watt University as more than an academic institution. We are a bridge between Scotland’s ambitions and the international space community, committed to nurturing a skilled, future-focused workforce and advancing research that directly supports industry needs. But beyond supporting existing sectors, universities like ours play a crucial role in shaping the industries of tomorrow. Through our knowledge, research, and innovation, we drive the development of new fields, creating the foundational knowledge and ecosystems they need to thrive.

At Heriot-Watt, this commitment is embedded in everything we do—from collaborative projects and targeted skills programmes to shared research resources that bring together academia, industry, and emerging talent. I believe universities can be catalysts not only for Scotland’s success in space but for a broader vision of economic growth and technological advancement that positions Scotland as a leader in multiple high-impact sectors.

The opportunities for growth are enormous, but they require a proactive approach to building the infrastructure, skills, and partnerships that will enable Scotland to compete globally. Scotland is on an exciting trajectory, and universities have a central role to play in realising its potential.

Heriot-Watt breaks ground on new £2.5M Optical Ground Station

28 August, 2024

Work has started on a new Quantum Communications Hub Optical Ground Station (HOGS), a state-of-the-art telescope which is being built on Heriot-Watt University’s Research Park.

The new facility will demonstrate and test satellite quantum secure communications, maintaining and growing the UK’s strength in the field of quantum technologies. It is scheduled to be fully operational by late Autumn [2024].

As well as helping to tackle future cyberattacks by researching methods to send secure transmissions via satellites, it will unlock new research on space environmentalism alongside innovative R&D activities for future laser communication networks. These provide high bandwidth communications services like 6G and beyond.

The facility will feature a plethora of cameras, sensors, and other photonic technologies enabling HOGS to expand how it can be used for both UK-based and international researchers and industry contacts. HOGS will also be directly connected to a new University campus optical fibre network, being developed alongside HOGS, allowing innovative teams to demonstrate deployment of optical, quantum, and hybrid communication networks.

“We want to show that UK scientists have the capabilities to deliver satellite quantum-based communications and have the expertise to do all the required operations. Creating secure global connectivity is the goal.” Dr Ross Donaldson

Space environmentalism and public engagement

The new capabilities will support space environmentalism by finding debris, accurately tracking satellites and developing new techniques to find objects that haven’t been seen before and improving the identification of what the object is. The telescope may also open opportunities for teams to explore new de-orbiting techniques for small space-debris using lasers.

The facility is being built as part of the Quantum Communications Hub project, funded through the UK National Quantum Technologies Programme and is part of a collaborative effort which also involves the Universities of Bristol, Strathclyde, and York. Space engineering expertise is provided by the Science and Technology Facilities Council’s RAL Space Facility.

Other UK researchers with relevant interests in experimental satellite quantum communications will be invited to work onsite using the modern telescope to track satellite paths with high precision. Heriot-Watt students, from undergraduate to PhD, will benefit from the new capabilities while local school children will be hosted onsite to build their knowledge and understanding of satellite communications and astronomy.

World-leading capabilities in satellite quantum-based communications

Dr Ross Donaldson from Heriot-Watt University is leading the project. He said: “We want to show that UK scientists have the capabilities to deliver satellite quantum-based communications and have the expertise to do all the required operations. Creating secure global connectivity is the goal and we look forward to demonstrating our abilities once the Optical Ground Station is up and running.

“This new facility will provide UK and international teams with the opportunity to trial new techniques and technologies for innovative R&D as well as space environmentalism. Our high latitude location offers us the chance to track space junk and debris in polar orbits for long periods of time, which may allow us to identify smaller objects.”

Professor Tim Spiller, director of the Quantum Communications Hub, said: “Satellites will form an essential part of future worldwide quantum communications, and in-orbit demonstrator missions are essential in proving the UK’s capabilities as a leader in secure quantum communications. The ground-based receiver is clearly a key element of any mission, and we look forward to the Hub Optical Ground Station becoming operational at Heriot-Watt University.”

Heriot-Watt University has world leading expertise in quantum communications and associated technologies behind it. The new HOGS facility represents a major step towards creating a ‘space cluster’ on the institution’s Edinburgh campus.

Pushing boundaries in the space technology sector

Professor Gill Murray, deputy principal of business and enterprise at Heriot-Watt University welcomed the work beginning on site. She said: “Heriot-Watt University is at the forefront of creating and supporting new growth sectors through our research, innovation and pipeline of talented students. Our new Optical Ground Station will create a dynamic new environment where innovation is encouraged. We have seen an explosion in growth within the space technology sector and higher education has a key role to play to capitalise on this growth.

“By actively engaging with businesses that operate in the space sector, we can push the boundaries of what is possible. Our researchers and students bring fresh perspectives, diverse skill sets, and a passion for discovery. Through forging partnerships with industry partners, business leaders and government, we can fully maximise resources like the new Optical Ground Station to channel academic energy into practical solutions, driving advancements that benefit both higher education and broader society.”

Graham McPhail, head of property strategy at Heriot-Watt University, said: “Having the Optical Ground Station on the university’s campus further elevates Heriot-Watt’s space and quantum potential beyond those offered by other research parks. As the largest and most prominent of Scotland’s science-based parks, with more than 1,000 staff working across 28 organisations, companies occupying Heriot-Watt Research Park can make full use of the amenities available on the campus in a location that offers unrivalled access to Scotland’s capital city and the central belt. Every day the campus is filled with our talented students, researchers and existing industry partners including Celestia UK, renowned for its expertise in antenna systems for satellite tracking.

“We are also supporting the university’s wider sustainability goals, ensuring we use existing campus infrastructure and minimise transport costs wherever possible. Operating from the campus means students that are studying our new Aerospace Engineering degree and aligned qualifications can benefit from access, helping the University to produce workplace-ready graduates who are able to meet the requirements of this emerging sector.”

Last month, Heriot-Watt announced it will lead a groundbreaking new quantum research hub that aims to develop technologies to progress an ultra-secure quantum internet of the future. The Integrated Quantum Networks (IQN) Hub is one of five new quantum technology hubs announced by the UK government as part of a £160 million investment to ensure the UK remains at the forefront of these revolutionary technologies. The IQN Hub will build on the work of the current Quantum Communications Hub, including space, to create new use cases for HOGS in the future.

Anyone wishing to learn more about Heriot-Watt’s strategy for Scotland’s next Space Tech Cluster or about opportunities to collaborate with the Optical Ground Station should contact mediaenquiries@hw.ac.uk.

Heriot-Watt to lead quest for ‘near-unhackable’ quantum internet

30 July, 2024

A ground breaking new quantum research hub that aims to develop technologies for an ultra-secure ‘quantum internet’ of the future is being led by Heriot-Watt University.

The Integrated Quantum Networks (IQN) Hub is one of five hubs announced by the UK government as part of a £160 million investment.

Quantum technology can harness the unique properties of atoms and subatomic particles to achieve functionalities that are not possible with existing, conventional technologies. While complex in nature, the applications of quantum technology are set to revolutionise many aspects of our daily lives.

The IQN Hub will focus on creating large-scale quantum networks capable of distributing quantum entanglement, potentially leading to the development of a secure communications network and therefore an internet free from hacking issues.

In an era where cybercrime costs the UK an estimated £27 billion annually, the quantum internet promises unprecedented levels of security. It could also drive advancements in artificial intelligence, drug discovery and environmental monitoring.

Professor Gerald Buller, who will lead the IQN Hub, explains:

“Imagine an internet that uses the principles of quantum physics to secure data. Unlike our current systems, which can be cracked given enough time and computing power, quantum encryption creates keys that are essentially unbreakable. It’s like having a lock that changes every time someone tries to pick it.

“It allows us to solve problems and secure data in ways that are unimaginable with conventional technology. This could lead to breakthroughs in everything from pharmaceutical research to exciting new materials development.

“The Hub harnesses the excellent research done over the last ten years in the National Quantum Technologies Programme to focus on delivering quantum networks at a range of distance scales, from local networks up to global satellite-based connections.”

Heriot-Watt is also playing significant roles in three of the four other newly announced quantum hubs delivering work on quantum-enabled position, navigation and timing and quantum biomedical sensing.

Professor Gill Murray, Deputy Principal for Enterprise and Business, said:

“The launch of five new quantum hubs is a significant milestone for the UK and represents a major shift in data security and cutting-edge applications across all sectors. The UK has established itself as an early pioneer, aligned with the government’s national quantum strategy aiming to become a quantum-enabled economy by 2035. These hubs form a critical piece of that roadmap by tackling key research and development challenges around quantum networking, sensing, computing and more.

“For Heriot-Watt University specifically, the IQN Hub has several roles to play. It will firstly keep Scotland and the UK at the forefront of quantum technologies and transform the modern economy and society. Secondly, it’s a notable step forward for the education sector as universities like ours will be at the forefront of developing and upskilling the future workforce working and living in a quantum-enabled future across design, engineering, manufacturing and the required support services. We also anticipate interest in the IQN Hub to attract talent to the UK from around the world that will drive international partnerships and business opportunities. We are incredibly eager to get stuck in and help develop a robust workforce and supply chain pipeline.”

The IQN Hub brings together a network of over 40 non-academic collaborators, ranging from startups to multinational corporations, alongside organisations like the National Cyber Security Centre and Scottish Enterprise. It will receive over £20 million in partner support to help translate quantum innovations into new products and services.

The five new quantum hubs are being delivered by the UKRI Engineering and Physical Sciences Research Council (EPSRC), with a £106 million investment from EPSRC, the UKRI Biotechnology and Biological Research Council, UKRI Medical Research Council, and the National Institute for Health and Care Research. Industry collaboration is a key element, with significant cash and in-kind contributions from partners worth more than £54 million.

“Unlike our current systems, which can be cracked given enough time and computing power, quantum encryption creates keys that are essentially unbreakable. It’s like having a lock that changes every time someone tries to pick it.” Professor Gerald Buller, Heriot-Watt University

Partner universities include Imperial College London, National Physical Laboratory, Queen’s University Belfast, RAL Space STFC and the Universities of Bristol, Cambridge, Edinburgh; Glasgow, Oxford, Sheffield, Southampton, Strathclyde, Warwick and York.

Pictured: Quentin Pankhurst (bio hub), Gerald Buller (IQN), Peter Kyle MP, Douglas Paul (PNT), Kirsty Annand (QuantIC/Quantum sensing and timing), Viv Kendon (Q Computing)

Secretary of State for Science, Innovation and Technology, Peter Kyle, said:

“We want to see a future where cutting-edge science improves everyday lives. That is the vision behind our investment in these new quantum technology hubs, by supporting the deployment of technology that will mean faster diagnoses for diseases, critical infrastructure safe from hostile threats and cleaner energy for us all.

“This isn’t just about research; it’s about putting that research to work. These hubs will bridge the gap between brilliant ideas and practical solutions. They will not only transform sectors like healthcare and security, but also create a culture of accelerated innovation that helps to grow our economy.”

As the UK aims to become a quantum-enabled economy by 2035, these hubs form a critical piece of the national quantum strategy. They are expected to drive entrepreneurship, workforce development, and regulatory input into the rapidly emerging UK quantum industry, potentially sparking significant economic growth and job creation in the coming years.