The White House is signaling a substantial commitment to quantum computing with plans to provide over $2 billion in incentives to support nine quantum-focused companies. This financial backing follows a recent quantum innovation summit described by one attendee as “probably the most crowded quantum summit of its kind,” with well over 100 people in attendance. Undersecretary of Defense Emil Michael highlighted the rigor of the Quantum Benchmarking Initiative, a DARPA program aiming to realistically assess the feasibility of an industrially useful quantum computer by 2033. As the initiative seeks to provide data-driven insights, a summit attendee noted, “This industry is full of big personalities and big claims,” emphasizing the need for objective evaluation beyond industry promotion.
White House Summit Highlights Growing Quantum Sector Interest
The administration’s commitment to fostering a domestic quantum industry solidified this week with a White House summit drawing over 100 attendees, signaling robust interest in the emerging technology. Beyond the high attendance, a substantial $2 billion in incentives to support nine quantum-focused companies underscores a significant financial investment in the sector’s growth. This influx of capital follows closely on the heels of two executive orders signed by President Trump in late June, designed to accelerate quantum development and proactively address potential quantum-enabled cyber threats. A key focus of discussion at the summit, according to attendees, was the Quantum Benchmarking Initiative (QBI), a program spearheaded by the Defense Advanced Research Projects Agency.
QBI aims to move beyond optimistic pronouncements common in the field, and its findings are expected to significantly shape future U.S. quantum strategy and investment decisions. “There is a really important role for DARPA in putting those claims to the test.” The initiative is concentrating on the development of “utility-scale, fault-tolerant quantum computers,” machines capable of cost-effective operation despite inherent computational and hardware limitations. Joe Altepeter, founding program manager of QBI, previously stated the agency is prepared to accept the possibility that an industrially useful quantum computer may not be achievable within the next seven years, prioritizing data-driven decision-making over optimistic projections. Even if the 2033 timeline proves unrealistic, experts suggest continued investment is likely.
Paul Lekas, global public policy and government affairs head at the Software & Information Industry Association, believes continued interest is expected because of the potential applications and concerns that the United States could be vulnerable if another country develops the technology first. David Bernal Neira, a Purdue University chemical engineering professor, echoed this sentiment, stating that QBI should be viewed as an accelerator for existing competition in the field, rather than a definitive judgment on its ultimate success.
He added, “If this goalpost of 2033 is not achieved, I still think that we will be at a stage that is much closer than where we are right now.” The results of QBI are anticipated to validate promising approaches to quantum computing while potentially hindering investment in less viable technologies, influencing both government funding and private sector capital allocation.
QBI’s goal is to provide the U.S. government with the best possible assessment of the current state of commercial quantum computing and its likely trajectory, so that those stakeholders can make informed decisions.
DARPA spokesperson
The pursuit of practical quantum computing took on a sharper focus recently, moving beyond broad pronouncements toward rigorous evaluation of technological feasibility. This ambition is being approached with a level of scrutiny that acknowledges the often-optimistic claims prevalent in the field. Undersecretary of Defense Emil Michael specifically attested to the rigor of QBI, signaling a serious intent to move beyond hype and establish a clear understanding of what is realistically achievable. “Our job is to prevent surprise and give ground truth to the U.S. government to make wise decisions,” Altepeter told a quantum industry conference in December. “And we are perfectly fine if the answer is: ‘No one’s going to be able to build this. We should spend our money building giant robots or curing cancer instead — don’t worry about quantum computing.’” This pragmatic approach acknowledges the substantial risks associated with pursuing a technology that may not deliver on its promise within a defined timeframe. Despite the potential for a less-than-optimistic assessment, experts anticipate continued investment in quantum computing, driven by both its potential applications and national security concerns.
And we are perfectly fine if the answer is: ‘No one’s going to be able to build this. We should spend our money building giant robots or curing cancer instead – don’t worry about quantum computing.’” Yet there’s a lot riding on quantum computing, as the technology is expected to eventually make modern encryption methods obsolete and unlock major advancements in energy and medicine.
Joe Altepeter, the founding program manager of QBI
DARPA’s QBI Will Shape Investment and Supply Chains
The implications of QBI extend beyond simply validating or rejecting technological approaches; the initiative is poised to significantly influence the development of quantum supply chains. One White House official indicated that QBI findings will inform how the government builds out the necessary infrastructure for quantum computer hardware, a key focus of recent executive orders.
Purdue University chemical engineering professor David Bernal Neira notes that these supply chains may need to be tailored to specific viable approaches, explaining, “When you go into the question of what it means for them to be at the utility scale … that’s a supply chain question.” For example, certain quantum computing methods rely heavily on laser technology, while others demand substantial cooling equipment and helium supplies. Lekas further elaborated that DARPA’s assessment could directly impact investment decisions, stating, “If DARPA eventually comes back and says this method that this company is exploring seems to work … then that would help to raise further investment,” but conversely, “If DARPA were to say that there’s a method that they think has no chance at all of actually achieving this goal … then that’s going to make things challenging for the companies that are adopting that method.”
While not guaranteed, QBI estimates that on balance, it is more likely than not that at least one company will be able to create an industrially useful quantum computer by 2033.
DARPA spokesperson
The escalating pursuit of quantum computing capabilities is rapidly translating into concrete governmental action, evidenced by a recent surge in U.S. investment and strategic planning. Beyond theoretical advancements, the potential for quantum technologies to disrupt fields ranging from cryptography to materials science is driving policy decisions and substantial financial commitments. The Department of Commerce announced in May that it plans to provide more than $2 billion in incentives to support nine quantum-focused companies. In late June, President Donald Trump signed two executive orders aimed at boosting quantum development and preparing federal systems for quantum-enabled cyberattacks. Following the flurry of government initiatives last year to support the AI buildout, the administration has been expanding its innovation agenda to support other emerging technologies like robotics and quantum computing. OpenAI announced the release of its models on Thursday. Ultimately, QBI’s assessment will not only validate promising technologies but also potentially steer investment away from approaches deemed unlikely to succeed, shaping the future trajectory of quantum computing development.
I see [QBI] as an accelerator and as a field for an already ongoing competition to happen, whether or not the goals are achieved by the deadline that has been set.
David Bernal Neira, a Purdue University chemical engineering professor
