March 2026 was defined by a cluster of large-scale national commitments to quantum technology. The UK announced a £2 billion programme that includes first-of-its-kind government procurement of large-scale quantum computers. China formally embedded quantum technology as the first-listed “future industry” in its 15th Five-Year Plan, backed by regional funds totaling 121.8 billion yuan. Switzerland, Poland, and Taiwan each published or launched new national quantum strategies. And a GAO report found that the United States’ own national quantum strategy lacks performance measures, clear agency roles, and resource specifications, raising pointed questions about federal coordination at a moment when competitors are accelerating.
United Kingdom: £2 Billion Quantum Programme Signals Shift to Procurement-Led Strategy
What happened. On March 17, the UK government announced a £2 billion quantum technology programme spanning computing, sensing, networking, skills, and infrastructure. The centrepiece is “ProQure: Scaling UK Quantum Computing,” a procurement programme inviting companies to propose advanced quantum computing prototypes, with the government committing to buy large-scale quantum computers by the early 2030s. Additional allocations include over £500 million for quantum computing R&D, over £400 million for sensing and navigation, £125 million for networking, and £20 million for skills programmes. The announcement coincided with Infleqtion reporting delivery of a 100-qubit system at the National Quantum Computing Centre and IonQ establishing a centre at Cambridge.
Why it matters. The programme shifts the UK from a research-funding model toward active government procurement of quantum hardware, a structure more commonly associated with defence acquisition than with science policy. By committing to purchase machines, the government creates a guaranteed market for domestic quantum companies, a mechanism intended to prevent firms from relocating and to attract private co-investment. The £1 billion new procurement commitment, paired with £1 billion previously announced for research and deployment, represents one of the largest single-country quantum packages announced to date and positions the UK alongside China and the United States as a top-tier public investor. The approach also carries risk: procurement targets for hardware that does not yet exist at scale depend on technology roadmaps that remain uncertain.
What remains unclear. How the ProQure programme will evaluate prototypes and select vendors for scale-up. Whether the procurement framework will be open to non-UK companies or will enforce domestic manufacturing requirements. How the programme interacts with the existing National Quantum Computing Centre and the hub network funded in earlier phases. Whether the £2 billion figure represents new money in its entirety or includes previously committed funds.
Who should care. Quantum hardware vendors (especially those operating in the UK or considering UK market entry), defence and public-sector CIOs, venture capital investors in European deep tech, and policymakers in countries considering procurement-driven quantum strategies.
China: 15th Five-Year Plan Places Quantum First Among Future Industries
What happened. On March 12, China’s National People’s Congress formally adopted the 15th Five-Year Plan (2026–2030), positioning quantum technology first among seven designated “future industries.” The plan committed to expanded investment in scalable quantum computers and an integrated space-earth quantum communication network, with R&D expenditure growth above 7 percent annually. Regional quantum funds received 121.8 billion yuan ($17.5 billion) through the National Venture Guidance Fund, with mandates split across the Beijing-Tianjin-Hebei, Yangtze River Delta, and Guangdong-Hong Kong-Macao regions. Separately, reporting in March indicated that China expects to establish national post-quantum cryptography standards within three years, with finance and energy sectors prioritized for early adoption.
Why it matters. The Five-Year Plan marks a structural shift in China’s quantum investment approach: from university-centered research grants toward commercialization instruments including government procurement, manufacturing subsidies, and mandated application deployments. The regional fund structure channels capital toward specific technology verticals (computing, communications, commercial products) rather than spreading it across general research. On the PQC side, China’s pursuit of structureless lattice methods, which diverge from the structured lattice approaches underlying NIST’s standardized algorithms, raises the prospect of competing cryptographic ecosystems. If China’s domestic PQC standards take a different technical path than NIST’s, interoperability between Chinese and Western systems could become more difficult.
What remains unclear. How much of the 121.8 billion yuan in regional allocations represents new commitments versus repackaged existing programmes. What specific procurement mandates will be imposed on state-owned enterprises and government agencies. Whether the ICCS program’s PQC standards will be designed for compatibility with NIST algorithms or will be intentionally distinct. How quickly the commercialization shift will produce deployable products given the continuing immaturity of the hardware.
Who should care. Western quantum companies evaluating market access to China, cryptography standards bodies, national security agencies tracking dual-use quantum investments, and multinational firms operating in both Chinese and Western regulatory environments.
United States: GAO Finds National Quantum Strategy Missing Key Accountability Elements
What happened. On March 18, the Government Accountability Office published GAO-26-107759, finding that the U.S. national quantum strategy does not fully meet the characteristics of an effective national strategy. The report identified specific gaps: no performance measures to gauge progress, no specification of required resources or infrastructure, no description of federal agencies’ roles and responsibilities, and no integration of agency-level implementation plans. GAO recommended that OSTP update the strategy accordingly. OSTP neither agreed nor disagreed. The report also noted that a congressionally mandated workforce study has been partially deferred due to insufficient appropriations.
Why it matters. The GAO findings arrive at an awkward moment. A draft executive order on quantum technology was reported in February, and NQI reauthorization bills are moving through both chambers of Congress. Yet the watchdog’s assessment suggests the existing strategic framework is too vague to hold agencies accountable for their share of the roughly $200 million the federal government spends annually on quantum computing. The absence of performance measures is a particular concern: without them, it is difficult to determine whether federal investments are producing results or merely sustaining activity. The workforce finding, meanwhile, highlights a gap between the ambition of the NQI Act and the resources Congress has appropriated to carry it out.
What remains unclear. Whether the pending executive order will address the GAO’s specific recommendations or focus on different structural priorities. Whether the NQI reauthorization, if enacted, would mandate the kind of performance-measurement framework GAO describes. How OSTP interprets its “neither agree nor disagree” response, and whether it signals intent to act or to defer.
Who should care. Congressional staff working on NQI reauthorization, OSTP and the SCQIS member agencies, quantum industry associations that have lobbied for clearer federal strategy, and researchers dependent on federal quantum funding.
Switzerland and Poland Publish National Quantum Strategies With Multi-Year Funding Commitments
What happened. In March, two European countries published their first quantum strategy documents. On March 5, the Swiss Quantum Commission published Switzerland’s national quantum strategy, calling for CHF 200–300 million (~$256–384 million) to position Switzerland as a leading global hub, with sector-specific infrastructure including cleanrooms, test facilities, and competence centers. Separately, Poland’s Ministry of Digitization published strategic assumptions for 2027–2036, setting a minimum funding floor of approximately EUR 1 billion (PLN 4.3 billion) over ten years. Poland also demonstrated its first domestic QKD connection between the Ministry of Digital Affairs and the Military University of Technology.
Why it matters. Both strategies reflect a pattern now visible across the European quantum ecosystem: countries are moving from participation in EU-level programmes (EuroQCI, EuroHPC) to establishing independent national strategies with dedicated budgets. Switzerland’s case is distinctive because it sits outside the EU framework, making its investment choices independent of Brussels-coordinated programmes. The strategy’s acknowledgment of a gap between Switzerland’s strong research base and its startup activity is candid, and the proposed response (targeted funding instruments, risk-sharing for long-term private investment) mirrors concerns raised by the OECD’s March paper on quantum business readiness. Poland’s strategy includes workforce measures reaching into secondary school curricula, a longer-term play than most national plans attempt. Poland’s simultaneous QKD demonstration adds a practical dimension to what could otherwise be a purely aspirational document.
What remains unclear. Whether the Swiss Confederation will approve the CHF 200–300 million recommendation or fund a smaller amount. How Poland’s inter-ministerial coordination team will function in practice, and whether annual verification reports will be public. Whether either country’s strategy will attract meaningful private co-investment or remain primarily government-funded.
Who should care. European quantum companies seeking non-EU market entry points, academic researchers in Switzerland and Poland, EuroQCI partners evaluating national integration timelines, and education policymakers considering quantum curricula.
Taiwan Launches Phase 2 Quantum Strategy With Verification Platform and Industry Supply Chain Goals
What happened. On March 6, Taiwan’s National Science and Technology Council unveiled Phase 2 of the National Strategy for High-Speed Quantum Computing at a press conference attended by President William Lai. Phase 2 includes four components: a verification platform in northern Taiwan, a high-performance quantum computing center in the south, supply chain development for the quantum industry, and international partnerships for software and systems development. The National Quantum Consortium now comprises 20 research teams. Academia Sinica reported completion of a 20-qubit superconducting quantum computer. Industry representatives from Wistron, Hermes Epitek, Compal Electronics, and Finland-based IQM attended the event.
Why it matters. Taiwan’s strategy is notable for its explicit supply-chain orientation, drawing on the island’s semiconductor industry model to develop domestic quantum hardware manufacturing capacity. The involvement of Wistron and Compal, both large-scale electronics manufacturers, suggests an intent to apply Taiwan’s existing manufacturing infrastructure to quantum component production. The invitation of IQM points to a “like-minded countries” partnership approach that parallels Taiwan’s semiconductor diplomacy. The 20-qubit system is modest by global standards, but the emphasis is on building an indigenous capability rather than importing finished systems.
What remains unclear. The budget allocated to Phase 2. Which international partners will be selected for joint development. Whether Taiwan’s quantum supply chain effort will extend to export markets or remain focused on domestic research needs. How the verification platform will benchmark against international standards.
Who should care. Semiconductor equipment vendors, quantum hardware companies seeking manufacturing partners in Asia, and policymakers tracking technology alliances between Taiwan and democratic partners.
Australia: National Reconstruction Fund Invests AU$20 Million in Silicon Quantum Computing
What happened. The National Reconstruction Fund Corporation announced a AU$20 million investment in Silicon Quantum Computing (SQC), adding to the federal government’s existing approximately one-third stake built from AU$40 million in prior investments. SQC, founded by Professor Michelle Simmons at UNSW, is the only company manufacturing quantum chips with atomic precision while delivering quantum-enhanced AI products, according to the NRFC. SQC was one of 11 companies globally to reach Stage B of DARPA’s Quantum Benchmarking Initiative.
Why it matters. The investment extends a pattern of direct equity participation by the Australian government in a single quantum company, a concentrated bet that differs from the broad-portfolio approach taken by most national programmes. With the government now holding a substantial minority stake alongside CBA, Telstra, UNSW, and the NSW Government, SQC occupies a position closer to a national champion than a typical startup. The DARPA QBI selection validates SQC’s technical approach internationally, but it also raises questions about what happens if the company’s technology path encounters setbacks while public capital is deeply committed.
What remains unclear. Whether additional NRF investments will follow for other Australian quantum companies. What conditions or milestones are attached to the AU$20 million. How SQC’s DARPA QBI Stage B results will influence future government funding decisions.
Who should care. Australian quantum startups that may compete for or complement NRF investment, sovereign wealth and venture funds evaluating Australian deep tech, and defence technology officers tracking DARPA QBI participants.
Also in March 2026
Estonia completed a technical delivery of the CDOC2 encryption standard upgrade, adding quantum-resistance provisions to the national file encryption system used across its digital infrastructure, with mobile platform support expected by May 2026.
Latvia and Lithuania formally launched the Lat-LitQN cross-border quantum communication project, while Bulgaria and Romania began construction of a Sofia-Bucharest quantum link, both under the EU’s EuroQCI initiative and Connecting Europe Facility.
The OECD published a paper on business readiness for quantum computing, identifying four key barriers to adoption: limited technological maturity, unclear use cases, high access costs, and shortages of talent combining quantum expertise with industry knowledge.
Canada allocated more than CAD 900 million under its Defence Industrial Strategy including quantum technologies for defence applications, and separately announced CAD 1.9 million for quantum computing expansion in Saskatchewan. The City of Vienna announced a Quantum Technology Center in Neu Marx with completion targeted for 2033. Spain published its Defence Technology and Innovation Strategy (ETID 2026) identifying quantum sensors among 140 R&D priority lines. South Africa selected the University of Pretoria as the sixth SA QuTI node. And Egypt published its AI Governance Framework under a council with an expanded mandate covering quantum computing and emerging technologies.
Detailed analysis of each development covered in this briefing, with cross-jurisdictional comparison tables and sector-specific impact assessments, is available to Quantum Policy Radar subscribers.