Trump Signs Executive Order Launching National Quantum Computer Build and Updating Quantum Strategy

June 22, 2026 — President Trump signed Executive Order, titled “Ushering in the Next Frontier of Quantum Innovation,” establishing a coordinated federal effort to accelerate U.S. quantum technology development across computing, sensing, and networking. The order’s centerpiece is the Quantum Computer for Application Development and Discovery Science (QC-ADDS) initiative: a national effort to deliver at least one quantum computer capable of transformative scientific applications beyond current classical computer capabilities to a Department of Energy facility and, to the extent possible, make it available to the broader scientific community.

The order was signed alongside a companion Executive Order on PQC migration, which sets hard 2030 and 2031 deadlines for federal systems to transition to NIST-standardized post-quantum cryptography. The two orders are designed as complements: one accelerates quantum computing capabilities, the other defends against the cryptographic threats those capabilities will eventually enable.

The White House simultaneously released a Fact Sheet noting that the Trump administration has invested $625 million in national quantum research institutes in partnership with industry and academia.

The order’s major provisions:

National Quantum Strategy update (Section 3): Within 180 days, the Assistant to the President for Science and Technology (APST) must update the National Quantum Strategy in coordination with the Departments of War (formerly Defense), Commerce, and Energy, the Director of National Intelligence, and the National Science Foundation. The updated strategy must address commercialization and deployment of QIST, the quantum-enabling technology ecosystem, and partnerships with U.S. industry. Agencies have 30 days after publication to report alignment steps.

QC-ADDS initiative (Section 4): The order establishes a national effort, coordinated by the APST, to develop a quantum computer intended to initiate the era of quantum-enabled scientific discovery. Within 90 days, the Secretary of Energy must identify technical specifications for a QC-ADDS capable of performing transformative scientific applications and publicly release a summary of those specifications. Within 180 days, the Secretary of Energy must explore private-sector partnership models including potential cost, scope, and timeframe for delivery. The Secretary of Commerce must develop a plan for advance market commitments to encourage commercial quantum computing companies to contribute. The Secretary of War must establish activities and programs to advance national-security quantum computing readiness, potentially including a dedicated center.

Within 180 days, the Secretary of Energy must also establish a national center for quantum computing performance assessment, and the ESIX subcommittee must recommend a mechanism for inter-agency information sharing to improve the government’s ability to assess commercial quantum computing capabilities. Separately, within one year of the order’s signing and annually thereafter, the DNI and Secretary of War must report on the national security implications of advancing commercial quantum computers, including implications for PQC migration.

Quantum sensing and networking (Section 5): Within 60 days, the Secretary of War must identify at least three next-generation quantum sensor projects to prioritize, with the goal of fielding operational sensors by 30 September 2028. The Departments of Commerce, Energy, and the NSF, along with NASA, must each develop five-year plans for quantum sensing and networking, covering commercial readiness, complex-system measurement, basic science, and space applications.

Supply chain (Section 6): The Secretary of Commerce must develop a plan to strengthen the QIST supply chain, analyze vulnerabilities, and support quantum-enabling technologies. Within 120 days, a multi-agency team must develop a plan, potentially using prize challenges or advance market commitments, to develop quantum-enabling component technologies domestically and to identify statutory or regulatory changes needed to address quantum-specific market hurdles. Within 180 days, the Secretary of War must increase domestic access to QIST-relevant foundry resources, and the NSF must issue grants for QIST user facilities. All relevant agencies must share quantum computing supply chain information, including data from the DARPA Quantum Benchmarking Initiative, to inform government-wide decision making. The order also mandates reconstitution of the National Quantum Initiative Advisory Committee (NQIAC) within 210 days.

Quantum security (Section 7): The order directs the APST and the National Security Advisor to ensure that quantum security controls remain balanced, protecting critical information and national security interests without unduly restricting quantum innovation in the United States. The FBI, in coordination with the Departments of State, War, Commerce, Energy, Homeland Security, the DNI, and NSA, must propose staffing to expand the Quantum Information Science and Technology Counterintelligence Protection Team (QCPT) within 60 days. The QCPT will coordinate protections against adversarial threats to the QIST ecosystem, including cybersecurity threats, and coordinate outreach to industry and academia.

Workforce (Section 8): Within 90 days, OPM must develop a government-wide QIST recruitment and retention strategy, potentially including special pay rates and enhanced incentives. Within 120 days, the Department of Labor must prioritize QIST-relevant industry needs in workforce training, building on existing efforts under EO 14278 (skilled trade jobs) and America’s Talent Strategy, and develop a tracking approach for labor statistics in quantum-relevant occupations. The APST must engage U.S. industry and academic institutions to expand post-secondary quantum training opportunities, and the NSF must initiate a network of National QIST Workforce Development Institutes within 180 days.

International engagement (Section 9): The order directs the Departments of State and Commerce to ensure U.S. quantum companies have access to strategic markets and capital from allied countries, maintain trusted supply chains through harmonized investment restrictions, prevent countries of concern from acquiring critical quantum-enabling technologies through harmonized export controls, promote R&D collaboration with like-minded countries, and coordinate quantum research and technology protection efforts with allied nations. The Secretary of Commerce, working with the U.S. Trade Representative, must identify foreign trade barriers, discriminatory treatment, and other policies that limit American quantum companies’ competitiveness and recommend responses to the President. The Secretary of State must provide recommendations within 120 days on how to align existing bilateral and multilateral engagements, including the Pax Silica framework, to advance these priorities.

My Analysis

The Most Comprehensive U.S. Quantum Policy Action Since the National Quantum Initiative Act

EO is the most ambitious federal quantum policy instrument since Trump signed the National Quantum Initiative Act in December 2018. That law established the organizational infrastructure, the National Quantum Coordination Office, the subcommittees, the research centers. This EO sets the direction for what that infrastructure should now deliver, and it does so with a commercial-deployment orientation that the original NQI lacked.

The original NQI was a research-funding bill. This order is a procurement and deployment directive. The distinction matters. Research funding flows into universities and national labs on multi-year grant cycles. Procurement directives reshape vendor behavior within quarters. When the Secretary of War is ordered to identify three quantum sensor projects for fielding by September 2028, that is an acquisition signal that will flow through the defense industrial base immediately.

QC-ADDS: What “Science-Grade” Means and Why It Matters

The QC-ADDS initiative directs the construction of a quantum computer capable of “transformative scientific applications that are on a path towards economically significant applications and beyond current classical computer capabilities.” That language carefully avoids the trap of “quantum supremacy” claims. It asks for a machine that does useful science a classical computer cannot replicate, not a machine that performs a contrived benchmark faster.

The 90-day deadline for the Secretary of Energy to publish technical specifications will be the first concrete test. Those specifications will reveal what the government considers achievable within a reasonable procurement timeframe and will implicitly signal which modality (or modalities) the government believes is closest to delivering fault-tolerant, scientifically useful computation. The private-sector partnership models, which the Secretary of Energy must explore within 180 days, suggest the government expects to partner with commercial quantum computing companies rather than build in-house, a pragmatic approach given that the leading hardware is in private hands.

The advance market commitment mechanism mentioned for the Commerce Department is worth watching. Advance market commitments have been used effectively in pharmaceuticals (the pneumococcal vaccine AMC) and space (SpaceX’s early NASA contracts). Applied to quantum computing, an AMC would guarantee purchase of quantum computing services that meet defined specifications, creating demand certainty that helps vendors justify the capital expenditure required for scaling. If Commerce executes on this, it could compress the commercialization timeline for fault-tolerant quantum computing by years.

The Sensing Provisions Have the Shortest Fuse

While the QC-ADDS computer gets the headlines, the quantum sensing provisions have the most aggressive timeline. Three sensor projects identified within 60 days, fielded by September 2028. That is a 27-month development-to-deployment cycle for technology that the Department of War considers operationally relevant.

Quantum sensors already operate closer to practical deployment than quantum computers. Atomic magnetometers, atom interferometry-based gravimeters, and quantum-enhanced radar and timing systems are at technology readiness levels that permit engineering integration into defense platforms within a 2–3 year cycle. The order’s five-year plan requirement across Commerce, Energy, NSF, and NASA broadens this beyond defense: commercial quantum sensing for precision agriculture, subsurface mapping, and GPS-denied navigation is an addressable market that the order is designed to accelerate.

I have been expanding PostQuantum.com’s coverage of quantum sensing threats and applications. EO’s sensing provisions validate what I have been writing about: quantum sensing is further along the commercialization timeline than quantum computing, and governments are beginning to act on that reality.

Supply Chain and Sovereignty: The Silent Core of the Order

Read past the organizational directives and the QC-ADDS initiative, and the supply chain provisions (Section 6) carry the heaviest strategic weight. The order mandates analysis of QIST supply chains, development of domestic quantum-enabling component technologies, increased access to QIST-relevant foundry resources, and identification of statutory or regulatory changes needed to eliminate quantum-specific market hurdles.

This is industrial policy for quantum technology, and it echoes the logic I laid out in Quantum Sovereignty. The “just buy the box” escape hatch for quantum sovereignty is closed: even if a nation purchases quantum hardware from a foreign vendor, the vendor still controls firmware, calibration software, ongoing support, and answers to their home government’s legal jurisdiction. Domestic supply chain capability is the prerequisite for genuine strategic autonomy.

The order’s emphasis on “quantum-enabling technologies” rather than complete quantum computers is strategically sound. The bottlenecks in quantum computing are not the QPU chips themselves but the enabling stack: dilution refrigerators and their helium-3 supply chains, cryogenic wiring, high-performance classical control electronics, specialized laser systems, vacuum components, and precision manufacturing. Whoever controls these enabling layers controls the pace of quantum deployment globally. I covered this supply chain geography in detail in Quantum Systems Integration and in the PostQuantum.com Deep Dive on What It Takes to Build a Quantum Computer.

The international engagement provisions (Section 9) reinforce this supply chain logic. Harmonized investment restrictions, coordinated export controls on quantum-enabling technologies, and research collaboration with “like-minded countries” describe a quantum version of the semiconductor alliance model. The reference to Pax Silica, the emerging framework for allied technology coordination, makes the parallel explicit.

The Counterintelligence Provision Is Telling

Section 7(b) expands the Quantum Information Science and Technology Counterintelligence Protection Team (QCPT), an FBI-led unit that coordinates protection against adversarial threats to the QIST ecosystem. The order directs the FBI to propose expanded staffing and coordinate outreach to industry and academia on quantum-specific threats, and requires all agencies to deconflict with the QCPT before engaging in quantum-related security outreach.

This provision reveals how seriously the U.S. intelligence community takes the threat of technology transfer in quantum. The consolidation of outreach through a single FBI-coordinated team avoids the current problem of multiple agencies delivering inconsistent or competing security guidance to quantum companies and research labs. The deconfliction requirement means no agency can freelance on quantum security messaging.

What’s Missing

The order does not directly fund any of its mandates. The phrase “subject to the availability of appropriations” (Section 11(b)) means Congress must still authorize and appropriate the spending. The $625 million figure cited in the White House fact sheet represents existing investment, not new money attached to this order. The congressional reauthorization bills advancing in parallel, the National Quantum Initiative Reauthorization Act and the Quantum Readiness and Innovation Act, will determine whether these directives get the funding they require.

The order also does not address the Quantum Open Architecture (QOA) question directly, despite the QC-ADDS initiative’s reliance on private-sector partnership models. Whether the DOE-hosted quantum computer will be a monolithic vendor-locked system or a modular, interoperable architecture will depend on specifications and procurement decisions that follow. I have argued in Quantum Systems Integration that modular architectures with open interfaces are the only path to genuine vendor independence and long-term upgradeability. The QC-ADDS procurement process will test whether the government agrees.

The Two Executive Orders as a Paired Strategy

Read together, EO (PQC migration) and this EO (quantum innovation) form a coherent paired strategy: accelerate U.S. quantum capabilities while defending against the threats those capabilities will create. The innovation order even includes a provision (Section 4(f)) requiring the DNI and the Secretary of War to identify national-security implications of advancing commercial quantum computers, “such as the implications for the migration to post-quantum cryptography.” That cross-reference ties the two orders together at the policy level.

This paired approach is the right structure. A government that accelerates quantum computing without accelerating cryptographic defense is building a weapon pointed at its own infrastructure. A government that only defends against quantum threats without building quantum capabilities cedes the strategic advantage to adversaries who are doing both. The two orders together say the U.S. intends to do both.

Whether the execution matches the ambition depends on funding, on whether Congress sustains bipartisan support for quantum investment, and on whether the procurement machinery can move at the speed the deadlines demand. The policy direction is now set. The engineering and organizational challenges of delivering on it are where the real work begins.