The June 22 Executive Orders: Understanding the Call to Action

On June 22, 2026, President Trump signed two executive orders on quantum technology: 'Ushering in the Next Frontier of Quantum Innovation' and 'Securing the Nation Against Advanced Cryptographic Attacks' [1]. The first is an offensive industrial-policy effort to build a scientifically useful quantum computer. The second is a defensive mandate to re-encrypt federal systems against future quantum attacks.

Most coverage has framed the orders around great-power competition and which firms stand to benefit. For a technical or investment audience, the more useful question is narrower: what specifically does the government now have to define, measure, and procure?

1. A specification for a science-grade quantum computer

The centerpiece is the Quantum Computer for Application Development and Discovery Science (QC-ADDS) Effort. The order directs the government to pursue a quantum computer at a scale meant to begin an era of quantum-enabled scientific discovery, to deliver at least one such machine to a Department of Energy facility, and where possible to open it to the research community [2,3]. The accompanying fact sheet specifies evaluating system capabilities, assessing the resources required to build the machine, and developing its technical specifications [4].

Energy Secretary Chris Wright described the target as error-corrected quantum computing delivered during this administration [5], and OSTP Director Michael Kratsios cited a 2028 timeframe [6]. The key distinction: the bar is not raw qubit count, the figure most often marketed, but the logical error rate, which determines whether the machine can sustain a real calculation long enough to return a correct answer. Error correction separates a physics demonstration from a usable instrument, and the order sets it as the criterion.

That criterion places the competing qubit technologies under evaluation, each measured against the same error-correction standard rather than against vendor claims:

• Superconducting circuits: the most mature and most capital-intensive approach, pursued by IBM and Google.
• Trapped ions: very high gate fidelity, with slower operating cycles.
• Neutral atoms: scaling quickly in qubit count.
• Photonic: operates at room temperature and shares physics with quantum networking.
• Spin and semiconductor qubits: early in development, but theoretically able to reuse existing chip fabrication.

2. A national benchmarking capability

The order is reported to establish a performance benchmarking center [3]. The provision is significant because it makes the measurement method itself a government product: standardized, application-level benchmarks that let very different architectures be compared on common ground.

Quantum performance claims are hard to compare across vendors today. A federal benchmarking function operates as a neutral scoreboard, and for anyone running technical or investment diligence in the field, a neutral scoreboard lowers both the cost and the risk of evaluating competing platforms.

3. Quantum sensing, the category closest to deployment

The order reaches beyond computing, calling for quantum-enabled sensors and networks to be developed within five years [1,6].

Sensing sits nearer to commercialization than computing, so the question is operational readiness rather than basic feasibility. The relevant categories are concrete and already partly commercial: atomic clocks, quantum gravimeters and magnetometers, and quantum-enhanced positioning, navigation, and timing (PNT) for settings where GPS is jammed or unavailable. For an investor, this is where near-term procurement is most credible, because the underlying technology already functions.

4. Quantum networking

Networking is treated as a third pillar alongside computing and sensing, with multi-year agency planning required [3,6]. The technologies involved, entanglement distribution, quantum repeaters, and the photonic links that carry quantum information, sit earlier on the curve than sensing, but the order folds them into the same assessment framework.

5. The enabling supply chain, the picks and shovels

A recurring theme is reducing manufacturing barriers and securing the domestic supply of quantum infrastructure and materials, paired with workforce development through apprenticeships, credentials, and new national quantum workforce institutes [1].

This pulls an entire enabling layer into scope, and it is the layer that earns regardless of which qubit technology prevails. The hardware behind quantum infrastructure and materials includes:

• Cryogenics: dilution refrigerators and the cooling chain that superconducting and many spin-qubit systems need to operate near absolute zero.
• Control and readout electronics: the room-temperature and cryogenic hardware that addresses individual qubits.
• Photonics and lasers: sources, modulators, and detectors used across photonic computing, networking, and ion control.
• Materials and fabrication: substrates, thin films, and packaging, which sit upstream of nearly every architecture.

6. Post-quantum cryptography, the only hard deadlines

The second order is the most concrete of the two, because it is a procurement mandate rather than a research effort. It requires federal critical-infrastructure and high-impact systems to migrate to quantum-resistant cryptography, with key establishment due by 2030 and digital signatures by 2031, built on the post-quantum algorithms standardized by the National Institute of Standards and Technology [5].

Key establishment is the handshake that sets up a shared secret to begin an encrypted session. Digital signatures prove that a message or software update is authentic and unaltered. The migration work centers on crypto-agility: inventorying where vulnerable cryptography lives across federal systems and replacing it on a fixed schedule. The mandate does not depend on a working quantum computer ever existing. It is a hedge against the day one does, which makes it budgeted, dated demand that stands apart from the technical risk attached to the QC-ADDS machine.

Reading the orders by technology readiness

The two orders sit at very different points on the readiness curve, and collapsing them into a single 'quantum' headline hides the distinction that matters most:

• Deployable algorithms on fixed deadlines: post-quantum cryptography.
• Near operational readiness: quantum sensing.
• Defined and benchmarked, still maturing: the QC-ADDS machine, the benchmarking center, and networking.
• Cross-cutting and technology-agnostic: the enabling supply chain and materials.

Conclusions

These orders convert broad ambition into five measurable deliverables: a specification for a science-grade quantum computer, a benchmarking method, a shortlist of fieldable sensors, a secured component supply chain, and a dated cryptographic migration. For technical and investment audiences, those deliverables, rather than the headline language, are what merit tracking. The implementation specifics, including agency specifications, benchmark criteria, and funding levels, will arrive in the follow-on products the orders require over the coming months.