US Orders New Quantum Push With National Computer, Sensors and Supply-Chain Funding

Aug 24

11 min read

The United States has launched a government-wide effort to accelerate quantum computing, sensing, networking and manufacturing under Executive Order 14413, signed on June 22, 2026, and published in the Federal Register on June 25. The order creates a new national quantum-computing initiative, establishes deadlines for agencies, prioritizes quantum sensors for deployment by 2028, and outlines potential public–private funding mechanisms to strengthen America’s quantum technology ecosystem.

A strategic shift from research to deployment

Executive Order 14413 marks a significant shift in US quantum policy. Earlier national efforts focused heavily on research and development. The new order places greater emphasis on moving quantum technologies from laboratories into government, commercial and national-security applications.

The order states that the United States must maintain a strategic technical advantage in quantum information science and technology, or QIST. It defines the required ecosystem broadly, covering:

Quantum computing.
Quantum sensing and imaging.
Quantum networking.
Quantum-enabling components.
Domestic manufacturing.
Workforce development.
Cybersecurity and counterintelligence.
International partnerships and trusted supply chains.

The policy is driven by the expectation that quantum technologies could eventually support scientific discovery, economic growth, high-skilled employment and national security. However, the order does not claim that large-scale, fault-tolerant quantum computers are already commercially available. Instead, it establishes a framework to accelerate their development, evaluation and practical deployment.

The QC–ADDS national quantum computer

The central initiative is the Quantum Computer for Application Development and Discovery Science, known as QC–ADDS.

The effort is intended to develop a quantum computer at a scale capable of beginning an era of quantum-enabled scientific discovery. The administration’s stated goal is to deliver at least one such system to a US Department of Energy facility and, where possible, make it accessible to the scientific community.

The system is expected to target scientific and technical problems that are economically significant and beyond the practical capabilities of classical computing. Possible application areas could include:

Materials discovery.
Chemical and pharmaceutical simulation.
Nuclear and energy research.
Optimization of industrial systems.
Climate and environmental modeling.
National-security analysis.
Quantum-enabled machine learning.
Distributed quantum computing through networks.

The order does not specify a particular hardware platform. It also does not prescribe a qubit count, architecture or error-correction method. Instead, the Secretary of Energy, working with the Assistant to the President for Science and Technology and other agencies, must identify technical specifications within 90 days.

Those specifications are likely to become an important benchmark for industry. They may address processor performance, error rates, logical qubits, fault tolerance, connectivity, control electronics, cryogenic infrastructure, software compatibility, security and the ability to run useful scientific workloads.

Major deadlines in the order

Executive Order 14413 uses a series of deadlines to convert policy objectives into agency actions.

Deadline	Required action
Within 60 days	The Secretary of War must identify at least three next-generation quantum-sensor projects for priority deployment.
Within 90 days	The Department of Energy must define and publicly summarize the technical specifications for a QC–ADDS system.
Within 90 days	The federal government must begin developing a government-wide QIST recruitment and retention strategy.
Within 120 days	Agencies must create plans for quantum sensing, networking, workforce training and quantum-enabling technology.
Within 180 days	The National Quantum Strategy must be updated.
Within 180 days	The Energy Department must examine private-sector partnership models for delivering QC–ADDS.
Within 180 days	A national center for quantum-system performance assessment must be established.
Within 180 days	NSF must take steps toward creating National QIST Workforce Development Institutes.
Within 210 days	A revised membership list for the National Quantum Initiative Advisory Committee must be recommended.
By September 30, 2028	Priority next-generation quantum sensors are intended to be fielded.
Within one year and annually thereafter	National-security implications of increasingly capable commercial quantum computers must be reported.

The deadlines create a roadmap, but they do not themselves guarantee that the projects will receive a particular level of funding. The order states that implementation must comply with existing law and remain subject to the availability of appropriations.

Funding plan: what the order actually authorizes

A crucial point is that Executive Order 14413 is primarily a policy and coordination directive, not a standalone appropriations bill. It does not announce a single total budget for the national quantum program.

Funding would need to flow through congressional appropriations, agency budgets, grants, contracts, research programs and public–private partnerships. The order does, however, identify several mechanisms that could channel capital into the quantum sector.

1. Public–private partnerships

Within 180 days, the Secretary of Energy must explore private-sector partnership models to understand the cost, scope and timeframe for delivering at least one QC–ADDS system.

Potential structures include:

Government procurement of a quantum system.
Cost-sharing agreements with quantum-computing companies.
Cooperative research and development agreements.
Long-term access contracts.
Government-hosted quantum infrastructure.
Milestone-based development contracts.
Shared ownership or shared-use facilities.
Cloud access arrangements for universities and companies.

This approach could reduce the government’s need to build every component internally while giving companies a credible anchor customer.

2. Advance market commitments

The Department of Commerce is directed to develop a plan that could include advance market commitments to encourage commercial contributions to QC–ADDS.

An advance market commitment is a promise by a buyer or a group of buyers to purchase a product if it meets predefined technical and performance requirements. In the quantum sector, this could reduce the risk faced by companies developing expensive hardware, control systems or specialized components.

For example, a government commitment could be linked to milestones such as:

Demonstration of a specified number of logical qubits.
Achievement of a target error-correction threshold.
Completion of a useful scientific application.
Delivery of a secure and scalable control system.
Verification by an independent benchmarking center.
Demonstrated performance against defined classical-computing baselines.

Advance commitments are especially important in quantum technology because many companies must invest heavily long before recurring commercial revenue becomes available.

3. Prize challenges

The order encourages agencies to consider prize challenges for the development of quantum-enabling technologies.

Prize-based funding can support innovations in areas such as:

Cryogenic electronics.
Quantum control systems.
Photonic components.
Ultra-high-vacuum equipment.
Quantum-compatible materials.
Error-correction software.
Fabrication and packaging.
Quantum network interfaces.
Precision timing systems.
Benchmarking and verification tools.

Prize competitions could be useful for startups and smaller suppliers that may not be able to compete for large prime contracts.

4. Grants and user facilities

The National Science Foundation is directed to take steps toward issuing grants for QIST user facilities through the National Quantum and Nanotechnology Infrastructure program.

User facilities can provide universities, startups and industrial researchers with access to expensive equipment and specialized fabrication capabilities. This may reduce duplication, broaden participation and help early-stage companies test components without building complete laboratories.

Potential investments could include:

Nanofabrication facilities.
Quantum device testing laboratories.
Cryogenic measurement infrastructure.
Photonics and laser laboratories.
Quantum materials characterization.
Shared software and benchmarking platforms.
Workforce training laboratories.

5. Foundry access

The order directs the Department of War to increase domestic access to relevant foundry resources and strengthen access to critical QIST supply chains.

Foundry access is important because quantum startups often depend on specialized semiconductor, photonic or materials-processing facilities. Limited access can slow development, raise costs and force companies to rely on foreign suppliers.

A stronger domestic foundry ecosystem could support both established companies and startups working on:

Superconducting circuits.
Silicon spin qubits.
Photonic quantum processors.
Neutral-atom systems.
Quantum sensors.
Specialized microwave electronics.
Quantum-resistant hardware modules.

Quantum sensing and networking

The order gives quantum sensing and networking a shorter deployment horizon than quantum computing.

The Secretary of War must identify at least three next-generation quantum sensor projects for prioritization, with the goal of fielding them by September 30, 2028.

Quantum sensors may reach practical markets sooner than universal fault-tolerant quantum computers because they do not necessarily require the same level of system-wide error correction. They can exploit quantum effects to improve measurements of time, gravity, acceleration, magnetic fields, electric fields or other physical quantities.

Potential applications include:

Navigation without GPS.
Subsurface mapping.
Detection of underground structures.
Infrastructure monitoring.
Mineral and energy exploration.
Medical imaging research.
Precision timing.
Space-based observation.
Defense and intelligence systems.
Monitoring complex energy and industrial systems.

The order also requires five-year plans from Commerce, Energy, NSF and NASA. These plans will cover commercial readiness, sensor manufacturing, quantum-network-enhanced timing, distributed quantum computing, basic science, manufacturing science and civilian space applications.

Quantum networking could eventually connect quantum processors or sensors over distance. In the near term, practical development may focus on secure links, synchronization, entanglement distribution, network components and interfaces between quantum and classical systems.

Supply chains become a national priority

The order directs the Department of Commerce to analyze QIST supply chains and develop a plan to eliminate manufacturing barriers.

This reflects a broader reality: quantum computing is not only a processor problem. A functional quantum system may depend on a large ecosystem of specialized technologies, including:

Cryogenics.
Lasers and photonic devices.
Vacuum systems.
Precision electronics.
Microwave components.
Quantum materials.
Semiconductor fabrication.
Packaging.
Control software.
Error-correction tools.
Measurement and calibration systems.
Specialized cables, amplifiers and filters.

A weakness in any of these areas can become a bottleneck for the entire industry.

The order also calls for agencies to share information about quantum supply chains, including information generated by the Defense Advanced Research Projects Agency’s Quantum Benchmarking Initiative. It further directs efforts to improve domestic access to foundry resources and to establish QIST user facilities.

For investors, this means that the opportunity may extend beyond quantum-computer manufacturers. Component suppliers and infrastructure companies could become important beneficiaries if government procurement expands.

Workforce and education strategy

Quantum technology requires a workforce that combines physics, engineering, mathematics, computer science and manufacturing skills. Executive Order 14413 recognizes that a shortage of specialized talent could limit the sector’s growth.

The order directs the Office of Personnel Management to develop a federal QIST recruitment and retention strategy. It also asks the Labor Department and NSF to improve tracking of QIST-related occupations, skills and credentials.

The strategy is expected to include:

Federal recruitment incentives.
Special pay rates where appropriate.
Retention incentives.
Apprenticeships.
Hands-on training.
Postsecondary education.
Industry–university partnerships.
Skills and credential definitions.
National workforce-development institutes.

The emphasis on hands-on training is significant. Quantum education cannot rely only on theoretical coursework. Students and technicians may need practical experience with cryogenic systems, photonics, semiconductor fabrication, quantum programming, laboratory instrumentation and systems engineering.

This could create opportunities for universities, technical institutes, K–12 STEAM programs and private training providers. A well-designed education pipeline could introduce students to quantum concepts early while connecting advanced learners to industry-oriented programs.

Security and post-quantum cryptography

The order treats quantum technology as both an economic opportunity and a national-security concern.

It directs federal agencies to strengthen protections for the QIST ecosystem and expand the Quantum Information Science and Technology Counterintelligence Protection Team. The objective is to protect research, companies, universities and supply chains from cyber threats, espionage and other adversarial activity.

The order also requires officials to assess the implications of increasingly capable commercial quantum computers, including the need to migrate to post-quantum cryptography.

Post-quantum cryptography refers to encryption methods designed to resist attacks from future quantum computers. The concern is not limited to a future event. Sensitive encrypted data collected today could potentially be stored and decrypted later if sufficiently capable quantum computers become available a risk often described as “harvest now, decrypt later.”

Organizations should therefore treat quantum readiness as more than a research topic. Practical preparations may include:

Inventorying cryptographic systems.
Identifying sensitive long-lived data.
Mapping third-party dependencies.
Tracking cryptographic algorithms and certificates.
Testing post-quantum algorithms.
Creating migration timelines.
Including quantum-resilience requirements in procurement.
Training cybersecurity and technology teams.

The executive order itself does not mandate a universal private-sector migration schedule. Businesses should follow applicable regulatory requirements and standards while developing a risk-based transition plan.

International partnerships and export controls

The order calls for stronger coordination with like-minded countries to expand market access, attract capital, protect trusted supply chains and prevent sensitive quantum technologies from reaching countries of concern.

It also calls for closer alignment of:

Investment restrictions.
Export controls.
Research-security policies.
Technology-protection efforts.
International research collaboration.
Trade policy.

This may create a more fragmented global quantum market. Companies could face greater scrutiny over foreign investment, technology transfers, data access, research partnerships and supply-chain relationships.

At the same time, trusted international partnerships could help companies access specialized talent, capital, test facilities and customers. For startups, international expansion may therefore require both commercial planning and technology-governance planning.

What the order means for companies

The order could reshape the quantum market in several ways.

For quantum-computing companies

Companies may gain access to government contracts, technical partnerships and long-term procurement opportunities. However, they will also face greater pressure to provide measurable performance evidence rather than relying only on qubit counts or theoretical roadmaps.

Important evaluation criteria may include:

Logical rather than physical qubits.
Error rates.
Circuit depth.
Reliability.
Application-level performance.
Total operating cost.
Energy and cooling requirements.
Software usability.
Security.
Scalability.
Comparison with classical alternatives.

For component suppliers

The policy may strengthen demand for quantum-enabling technologies. Suppliers that solve manufacturing bottlenecks could become strategically important even if they do not build quantum processors themselves.

For universities and research institutions

Universities may benefit from grants, shared facilities, workforce programs and access to government-led scientific computing initiatives. They may also need to improve research-security controls and clarify intellectual-property arrangements with industry partners.

For investors

Investors should examine whether a company’s technology addresses a genuine bottleneck and whether the business can generate revenue before fault-tolerant quantum computing becomes widespread.

Areas to evaluate include:

Government and defense relevance.
Manufacturing readiness.
Customer concentration.
Access to fabrication facilities.
Proprietary intellectual property.
Recurring revenue.
Benchmarking quality.
Cash requirements.
Dependence on future appropriations.
Export-control exposure.

The executive order may improve the sector’s long-term financing environment, but it does not eliminate technical or commercial risk.

A practical funding plan for a quantum startup

A startup seeking to benefit from the policy should avoid presenting itself only as a “quantum company.” Investors and agencies will generally need to understand the specific problem being solved, the customer and the measurable outcome.

Phase 1: Define the technology

The company should identify whether it is developing:

A quantum processor.
A sensor.
A networking component.
Control electronics.
Software.
Benchmarking tools.
Materials.
Packaging.
Manufacturing equipment.
Workforce or training solutions.

The company should then define a small set of technical milestones that can be independently verified.

Phase 2: Select the funding mix

A balanced capital plan could combine:

Funding source	Best use
Founder capital	Early proof of concept and initial intellectual property.
Angel or seed investment	Prototype development and core technical hiring.
Government research grants	High-risk R&D and laboratory validation.
Strategic corporate investment	Manufacturing access, distribution and customer integration.
University partnership	Talent, facilities and scientific validation.
Defense or public-sector contracts	Mission-specific development and field testing.
Venture capital	Scale-up, commercialization and international expansion.
Advance purchase agreement	Production planning and customer-backed growth.
Prize challenge	Narrow technical breakthroughs or component development.

Phase 3: Build a milestone-based budget

A sample 24-month plan for a component or quantum-sensing startup could allocate funding as follows:

Category	Indicative allocation
Research and prototype development	30%
Laboratory equipment and facility access	20%
Engineering and technical staff	20%
Testing, benchmarking and certification	10%
Manufacturing pilot and supply chain	10%
Cybersecurity, compliance and IP protection	5%
Business development and administration	5%

These percentages are planning examples, not figures specified by Executive Order 14413. Actual budgets will depend on the technology, facility requirements, personnel costs and contract structure.

Phase 4: Use government funding strategically

Government funding should be used to de-risk technical work that can later attract commercial capital. Strong proposals should explain:

The national or industrial problem.
Why quantum technology is necessary.
Why classical methods are insufficient or limited.
The technical approach.
The measurable performance target.
The manufacturing pathway.
The security and supply-chain implications.
The customer and procurement pathway.
The project’s timeline and budget.
The team’s relevant expertise.

A company should not assume that receiving a grant proves commercial viability. Government funding can validate technical potential, but the startup still needs paying customers, repeatable production and a sustainable business model.

Risks and unanswered questions

Despite its ambitious scope, the order leaves several issues unresolved.

No single funding number

The order does not provide a consolidated dollar amount. Future financing will depend on appropriations, agency programs and private-sector participation.

Technical requirements are pending

The most important QC–ADDS specifications are not yet included in the order. The Department of Energy’s technical summary will be essential for understanding what kinds of systems may qualify.

Commercial timelines remain uncertain

Quantum computing may produce valuable results in selected areas before it becomes a broadly useful general-purpose technology. The timing and scale of commercial benefits remain uncertain.

Benchmarking may become contentious

The order’s emphasis on a national performance-assessment center suggests concern about inconsistent or promotional benchmarks. Companies may face increased scrutiny over how they define useful quantum advantage.

Security controls may affect collaboration

Export controls, investment restrictions and research-security rules could protect sensitive technologies but also complicate international partnerships and access to talent.

Appropriations are decisive

Because implementation is subject to available appropriations, the strength of the program will depend on the budgetary decisions that follow.

Bottom line

Executive Order 14413 establishes a broad US strategy to move quantum technology toward deployment. Its most important elements are the proposed QC–ADDS national quantum computer, accelerated quantum-sensor projects, supply-chain development, public–private funding models, performance benchmarking, workforce programs and stronger security controls.

For the quantum industry, the order could create new opportunities in computing, sensing, networking, manufacturing, cybersecurity, education and specialized components. The immediate opportunity is not simply to build a larger quantum processor; it is to develop technologies that meet clearly defined government and commercial needs, can be manufactured reliably, and demonstrate independently verifiable performance.

Source: Executive Order 14413 of June 22, 2026, “Ushering in the Next Frontier of Quantum Innovation,” published in the Federal Register, Vol. 91, No. 121, June 25, 2026, pages 38487–38491.