The second half of 2018 marked a turning point in quantum policy. The United States enacted the National Quantum Initiative Act, establishing a ten-year federal program and creating new coordination structures across government. The European Union launched its €1 billion Quantum Technologies Flagship, funding 20 initial projects. Germany committed €650 million through 2022 in a cross-ministerial framework programme. Japan, Singapore, Taiwan, and Israel each stood up dedicated quantum funding programs, while the United Kingdom moved its National Quantum Technologies Programme into a second phase. Taken together, these actions transformed quantum technology from a domain of research council interest into a fixture of national industrial and security strategy.
United States: National Quantum Initiative Act Signed Into Law
What happened. On December 21, 2018, President Trump signed the National Quantum Initiative Act (Public Law 115-368), establishing a ten-year National Quantum Initiative Program. The legislation authorized NIST, the National Science Foundation, and the Department of Energy to expand their quantum programs and create new research centers. It also created a National Quantum Coordination Office within the White House Office of Science and Technology Policy, a dedicated NSTC subcommittee, and a National Quantum Initiative Advisory Committee. The Senate had passed the bill unanimously. The act followed the September release of the National Strategic Overview for Quantum Information Science, which identified six policy areas for federal action, and the establishment of the Quantum Economic Development Consortium (QED-C) at NIST on September 28.
Why it matters. The NQI Act is the most structurally consequential quantum policy action of 2018. It moved the United States from ad hoc agency-level funding to a legislated, whole-of-government commitment with named coordination bodies and reporting requirements. The act’s creation of the QED-C within NIST, with a congressional reporting mandate on standards, metrics, and cybersecurity gaps, is particularly notable: it gives industry a formal seat in shaping federal quantum priorities. The unanimous Senate vote signals that quantum technology occupies rare bipartisan territory in U.S. science policy, which has implications for funding durability across administrations.
What remains unclear. The act authorized programs but did not itself appropriate funds; actual spending levels remained subject to annual appropriations. Whether the coordination structures (the advisory committee, the NSTC subcommittee, the coordination office) would exercise real influence over agency budgets or merely serve as information-sharing forums was an open question. The act also left unresolved how the United States would handle quantum export controls and international cooperation beyond general language.
Who should care. U.S. federal research agencies and their grantees. Quantum hardware and software companies seeking public contracts or consortium membership. Defense and intelligence community planners. Foreign governments benchmarking their own quantum strategies against the U.S. commitment.
European Union: €1 Billion Quantum Technologies Flagship Launches
What happened. On October 29, 2018, the European Commission formally launched the Quantum Technologies Flagship at a kick-off event in Vienna. The initiative, structured as a ten-year program with an expected €1 billion in EU funding, selected 20 projects from 140 proposals for its initial ramp-up phase (October 2018 to September 2021), distributing €132 million across quantum communication, computing, simulation, and sensing. More than 500 researchers were involved in the first tranche. Swiss institutions secured a disproportionately large share of initial funding, participating in 11 of 24 funded projects and capturing roughly €25 million, the second-largest national allocation after Germany.
Why it matters. The Flagship represents the EU’s attempt to close the gap between its strong quantum science base and its weaker record of commercialization. The scale of the commitment, roughly matching the U.S. NQI Act’s ambition in dollar terms, establishes quantum technology as a strategic priority at the EU level rather than leaving it to individual member states. Switzerland’s strong showing illustrates both the strength of Swiss quantum research institutions and the practical benefits of Horizon 2020 association status for non-EU countries. The Flagship’s ten-year horizon is designed to outlast individual EU budget cycles, but its actual funding beyond the ramp-up phase depends on inclusion in future framework programmes.
What remains unclear. How the Flagship will interact with the large national programs simultaneously being launched by member states (Germany’s €650 million framework, for example) is undefined. Whether the initiative can generate commercially viable outputs or will primarily recirculate funds through academic networks is a question the ramp-up phase was not designed to answer. The governance relationship between the Flagship and the European Commission’s broader digital strategy had not yet been articulated.
Who should care. European quantum researchers and technology companies seeking collaborative funding. Non-EU associated countries (and those seeking association) watching the participation model. National governments calibrating their own programs against the EU-level commitment. Industrial players in sensing, communications, and computing looking for early-stage co-development opportunities.
Germany: €650 Million Cross-Ministerial Quantum Framework Programme
What happened. On September 26, 2018, the German federal government announced its framework programme “Quantum Technologies: From Basic Research to Market,” committing €650 million in new funding through 2022. The programme was a joint effort of four federal ministries: Education and Research (BMBF), Economic Affairs and Energy (BMWi), Interior (BMI), and Defence (BMVg). This supplemented existing annual government spending of approximately €100 million on quantum research. The framework covered quantum communication, sensing, computing, and simulation, with a possible extension to 2028.
Why it matters. Germany’s programme is distinctive for its cross-ministerial structure. The involvement of the interior and defence ministries alongside the traditional science and economics portfolios signals that Berlin views quantum technology as a security matter, not only a research priority. At €650 million in new money on top of €100 million in annual baseline spending, Germany’s commitment is the largest single-country quantum investment in Europe and positions it as the anchor tenant of the EU Flagship. The “basic research to market” framing indicates a deliberate effort to address Germany’s well-documented difficulty in translating laboratory results into industrial products.
What remains unclear. How the four ministries will coordinate spending decisions in practice, given their different institutional cultures and procurement rules, was not specified in the framework document. The balance between the programme’s research and commercialization objectives remained to be tested. Whether the possible 2028 extension would be activated depended on future political conditions.
Who should care. German quantum research groups and Mittelstand companies in photonics, electronics, and precision engineering. European competitors and collaborators. Defence and cybersecurity planners in NATO member states. EU Flagship project coordinators seeking alignment with national programs.
United Kingdom: National Quantum Technologies Programme Enters Phase 2
What happened. The UK government announced the second phase of the National Quantum Technologies Programme, following a first phase (2014 to 2019) that had invested over £385 million across four Quantum Technology Hubs involving 20 universities and 225 companies. Phase 2 was set to operate at a similar annual spend for a further five years, with industry committing £205 million. By 2018, total UK investment in the NQTP had reached approximately £800 million over ten years. The new phase included refreshed Hubs, the establishment of a National Quantum Computing Centre, and expanded industry collaboration. Separately, EPSRC funded Centres for Doctoral Training in quantum technologies at UCL, Bristol, and other institutions as part of a broader £440 million CDT investment round.
Why it matters. The UK was the first major economy to launch a national quantum programme in 2014, and Phase 2 represents a test of whether early-mover advantage translates into lasting industrial capability. The addition of a National Quantum Computing Centre is a new structural element aimed at providing shared infrastructure that individual universities or companies cannot maintain alone. The £205 million industry co-investment figure, while not independently verified, would represent meaningful private-sector commitment if realized. The CDT funding addresses a known bottleneck: the pipeline of doctoral-level quantum engineers needed to staff both academic and commercial efforts.
What remains unclear. Whether Phase 2’s structure, which broadens beyond the original four hub topics, risks diluting focus or appropriately responds to a maturing field. How the National Quantum Computing Centre will relate to existing academic computing groups and commercial cloud quantum providers. Whether the £205 million industry commitment consists of new spending or reclassified existing activity.
Who should care. UK universities and companies in the quantum supply chain. International quantum technology firms considering UK partnerships or market entry. Workforce planners in quantum engineering. Other governments studying the UK model as a template for phased national programs.
Japan, Singapore, Israel, and Taiwan: New National Quantum Funding Programs
What happened. Four countries launched dedicated quantum funding programs in the second half of 2018. Japan’s Ministry of Education, Culture, Sports, Science and Technology launched Q-LEAP, a ten-year flagship program covering quantum information technology, metrology, sensing, and laser technology, managed by the Japan Science and Technology Agency. Singapore’s National Research Foundation launched the Quantum Engineering Programme with S$25 million (USD 18.5 million), hosted at the National University of Singapore and focused on translational research. Israel’s Defense Ministry and Israel Science Foundation announced a NIS 100 million (~USD 27 million) fund over five years, split between the Defense Ministry and the Council for Higher Education. Taiwan’s Ministry of Science and Technology launched the Quantum Computer Project, its first dedicated quantum funding program, running from August 2018 through July 2023.
Why it matters. The near-simultaneous launch of these programs reflects a global pattern: mid-sized technology economies moving from dispersed academic grants to coordinated national efforts. Each program carries a distinct signature. Japan’s Q-LEAP is the most broadly scoped, with a ten-year horizon and an education component. Singapore’s QEP is tightly focused on engineering translation, consistent with its established model of targeted applied research. Israel’s fund is notable for its defense ministry co-leadership, signaling that quantum is being treated as a security technology from the outset. Taiwan’s program, while more modest in scale, represents the island’s entry into a field with direct relevance to its semiconductor expertise. None of these programs individually matches the U.S. or EU commitments in dollar terms, but collectively they indicate that quantum policy has moved well beyond a transatlantic phenomenon.
What remains unclear. Whether these initial funding commitments will be sustained or expanded in subsequent budget cycles. How each country will handle the tension between building domestic capability and participating in international collaborations. Whether Israel’s characterization of its fund as a “first step” toward a national quantum ecosystem will be followed by a comprehensive national strategy.
Who should care. Quantum researchers and companies in each country. Multinational technology firms assessing where to locate quantum R&D operations. International collaboration networks. Workforce development planners in small advanced economies.
Standards Bodies: ITU-T, ISO/IEC, and ETSI Advance Quantum Standardization
What happened. Three major standards organizations initiated or expanded quantum-related work programs during this period. In July 2018, ITU-T Study Group 13 launched its first work item on quantum key distribution networks (designated Y.3800), making ITU-T the first standards body to standardize QKD as a network technology. ITU-T Study Group 17 followed in September with quantum security standards development. In November, ISO/IEC JTC 1 established Study Group 2 on quantum computing at its 33rd plenary, formalizing its engagement with quantum computing standardization. ETSI’s TC CYBER working group published a technical report on quantum-safe VPNs in September, examining protocol requirements for adding quantum resistance to IPsec, TLS, MACsec, and SSH.
Why it matters. Standards work typically lags policy announcements by years, so the parallel activation of quantum work items across ITU-T, ISO/IEC, and ETSI in 2018 is notable for its speed. The ITU-T’s QKD network standardization has particular geopolitical significance: the organizations contributing to this work (NICT, NEC, Toshiba) and the countries deploying QKD infrastructure (primarily China) will shape interoperability requirements that may or may not align with all national security preferences. ETSI’s quantum-safe VPN report addressed a more immediate practical concern, warning that data harvested today could be decrypted by future quantum computers and recommending hybrid cryptographic approaches. The ISO/IEC study group’s creation signals that quantum computing itself, not just quantum-safe cryptography, is now a standardization subject.
What remains unclear. Whether the ITU-T QKD standards will achieve broad international adoption or primarily serve the countries already deploying QKD networks. How the overlapping mandates of ITU-T (network-level QKD), ETSI (quantum-safe cryptography), and ISO/IEC (quantum computing) will be coordinated. What timeline organizations should plan for in migrating to quantum-safe VPN configurations.
Who should care. Telecommunications operators and network equipment vendors. Cybersecurity teams responsible for long-lived encrypted data. National standards bodies deciding where to allocate expert participation. Governments with positions on QKD versus post-quantum cryptography as preferred migration paths.
Also in July–December 2018
Russia established two quantum technology centers under its National Technology Initiative at Moscow State University and MISIS, each receiving approximately €30 million in five-year funding for research, device development, and educational programs.
China completed a 609-kilometer quantum communication trunk line between Wuhan and Hefei, extending its national QKD backbone beyond the existing Beijing-Shanghai corridor, with 11 relay stations and 71 nodes built by a subsidiary of China Aerospace Science and Industry Corporation.
CERN openlab hosted its first workshop on quantum computing for high-energy physics, drawing over 400 participants and presentations from Intel, IBM, Google, D-Wave, Microsoft, and Rigetti, in what later became the starting point for the CERN Quantum Technology Initiative.
Thailand launched the Quantum Information Science and Technology Research Network, the country’s first coordinated national effort to organize its roughly 200 quantum researchers across universities and define a technology roadmap covering computing, communication, and sensing.
Detailed analysis of each development covered in this briefing, including cross-jurisdictional funding comparisons and sector-level implications, is available to Quantum Policy Radar subscribers.