The United Kingdom and Germany have unveiled a new partnership aimed at speeding up the commercial rollout of quantum supercomputing, bringing the technology closer to real-world business use. Announced at the close of the German president’s state visit to the UK, the agreement focuses on bridging the long-standing gap between scientific research and enterprise adoption.
At its core, the collaboration seeks to better integrate the two countries’ science and innovation ecosystems. The emphasis is on turning breakthroughs in quantum computing, sensing, and timing into market-ready products, supported by targeted funding and shared technical standards.
Quantum technology remains an emerging field for most industries, but its economic potential is substantial. Modelling suggests it could add £11 billion to the UK economy by 2045 and support more than 100,000 jobs. Policymakers see early commercialisation as key to unlocking that value.
To help move innovation out of the lab, the UK and Germany will launch a joint £6 million research and development funding call in early 2026. Innovate UK and Germany’s VDI will each contribute £3 million, with a clear focus on helping businesses develop products and services rather than funding purely academic research.
Supply chain readiness is another challenge the partnership aims to address. An £8 million investment in the Fraunhofer Centre for Applied Photonics in Glasgow will strengthen capabilities in applied photonics, a critical component for quantum sensing technologies. Improving access to these components is seen as essential for scaling commercial solutions.
Regulation and standards also play a central role. Fragmented measurement and certification rules often slow adoption across borders. A new Memorandum of Understanding between the UK’s National Physical Laboratory and Germany’s Physikalisch-Technische Bundesanstalt is designed to harmonise measurement standards. This work aligns with the wider NMI-Q initiative, which seeks to establish global norms for quantum technologies.
UK Science Minister Lord Vallance highlighted the broader impact of the effort, noting that quantum technologies could transform areas such as cybersecurity, drug discovery, and medical imaging. International cooperation, he said, is vital to making those advances practical and widely available.
The benefits are already clear in applied settings. In pharmaceuticals, quantum-enabled computing could significantly shorten the time needed to identify promising new medicines. Advances in sensing could also lead to more affordable, portable, and accurate medical imaging equipment.
Beyond quantum systems themselves, the partnership extends into high-performance computing. The UK’s National Supercomputing Centre at the University of Edinburgh has been selected by the EuroHPC Joint Undertaking to host the UK’s AI Factory Antenna, working alongside the HammerHAI AI Factory in Stuttgart. This link strengthens cross-border collaboration on AI and advanced computing infrastructure.
To support this work ahead of full quantum commercialisation, the UK’s Department for Science, Innovation and Technology is allocating up to £3.9 million to match-fund UK participation in three EuroHPC calls. The funding will support teams developing exascale and AI-ready software, ensuring systems are prepared for future quantum integration.
The two countries are also deepening cooperation in aerospace, with more than €6 billion recently committed to the European Space Agency. This includes €1 billion for launch programmes and €10 million for Rocket Factory Augsburg, which plans to conduct launches from Scotland starting in 2026.
Ryan Daws
German President Frank-Walter Steinmeier concluded his visit at Siemens Healthineers in Oxford, where superconducting magnets for MRI scanners are produced. The site stands as a practical example of how UK-German scientific collaboration already supports advanced manufacturing and healthcare.
