Executive Order on Quantum Innovation
The recent Executive Order titled “The Next Frontier of Quantum Innovation” seems to carry both urgency and a sense of inevitability. Throughout history, Americans have always sought the next frontier—once it was geographical, and now it’s more about scientific exploration in quantum technology.
It’s remarkable to consider that back in 1945, the significance of basic science began to be recognized, establishing a foundation for future innovations. Fast forward 81 years, and we find ourselves facing the challenges posed by quantum systems, including tools like cryostats.
You might wonder, what exactly does “quantum” entail? Let’s break it down a bit.
On June 22, 2026, President Trump signed Executive Order 14413. Its aim? To position the U.S. as the preeminent “superpower” in quantum technology. While that specific term doesn’t appear in the order, it’s referenced in a supporting fact sheet, which softens the ambition somewhat. The order is actually more technical in nature, promoting the formulation of a national quantum strategy within six months and detailing requirements for a transformative quantum computer within three months. Additionally, there are plans for sensor deployment that extend to September 2028, all in efforts to ramp up quantum applications for scientific discovery.
The federal approach to quantum policy isn’t entirely new. Since 2019, funding for quantum information science has seen significant increases, projected to exceed a billion dollars by 2023. A strategic overview was already put in place back in 2018, outlining major challenges and calling for collaboration on these complex projects. In fact, a vision document from 2009 was quite prescient, indicating that advancements in quantum technology could potentially invalidate current data protection methods. This latest order reinforces that shift from merely fostering development to demanding concrete outputs and successes.
Confidence or Weakness?
Still, quantum computing faces some hurdles. There’s a real disparity between the promises made and what’s been delivered. Interestingly, many in the field—including physicists—acknowledge that hype often serves as a strategic means to secure funding. For instance, DARPA has initiated a Quantum Benchmark Initiative aimed at determining the actual capabilities of machines by 2033. This need for clarity is what drives the specifications and benchmarks outlined in the Executive Order, allowing for better identification of genuine advancements versus mere promotional announcements.
The physics behind quantum technology elucidates some of these challenges. A qubit, the basic unit of quantum information, can exist in multiple states simultaneously—allowing unique computation possibilities. However, these qubits are fragile and prone to errors, which complicates the engineering processes. Error correction is a significant hurdle, requiring the combination of many noisy physical qubits into a smaller set of reliable logical qubits. Google has made strides with a 101-qubit surface code that surpasses the longevity of the best physical qubits, while Microsoft has demonstrated improved error rates with logical qubits over physical counterparts.
Despite these advancements, they represent only incremental successes; defining a useful quantum computer encompasses far more than just counting qubits. It involves examining factors like gate fidelity and performance in practical applications.
Breaks and Corrections
Moreover, this Executive Order positions quantum technology as essential to our material civilization, emphasizing preparation and resource security. The order touches on workforce development, detailing strategies for recruitment and training in the field. It considers human resources and training as crucial elements of quantum policy, much like semiconductor policy—where confronting the gap between theoretical and practical applications has become increasingly significant.
Interestingly, the day the order was signed, the White House released instructions on counteracting advanced cryptographic threats. The underlying reason for this is concerning: a potent quantum computer could potentially dismantle the public-key cryptography that underpins many modern security systems. The National Institute of Standards and Technology is working on post-quantum cryptographic standards, set to be finalized by August 2024. Officials emphasize that preparations must begin immediately. This dual approach—accelerating potentially disruptive technologies while establishing new systems of trust—highlights the high stakes in play. The government acknowledges both the value and the risks inherent in quantum technology and aims to navigate that complex landscape carefully.
