Europe has excelled at quantum research. Its universities and national laboratories have contributed foundational discoveries to the field. European physicists have won Nobel Prizes for quantum work. The theoretical groundwork for quantum computing was laid in part by European scientists.
What Europe has not excelled at is turning research into industry. The pattern repeats across technology sectors. European institutions invent, and American or Asian companies commercialize. The internet was created with significant European contributions. The dominant internet companies are American. Machine learning draws on decades of European academic research. The leading AI companies are American and increasingly Chinese.
The European Union is determined to break this pattern with quantum computing.
This week, the EU launched SUPREME, a consortium with a €50 million (approximately $59 million USD) budget to industrialize superconducting quantum technology. The initiative brings together leading European research institutions, quantum startups, and industrial partners with the explicit goal of establishing manufacturing capability for quantum processors on European soil.
This is not research funding. This is industrialization funding. The EU has concluded that quantum research excellence without manufacturing capability is strategically insufficient, and it is committing public resources to ensure that European research translates into European industry.
The Superconducting Focus
SUPREME focuses specifically on superconducting qubits, the same qubit technology employed by IBM, Google, and several leading quantum computing companies. Superconducting qubits encode quantum information in electrical circuits cooled to temperatures near absolute zero. They offer fast gate operations and have demonstrated some of the largest quantum processors to date.
The technology has disadvantages. It requires extreme cooling infrastructure, making the systems expensive and power-intensive. The qubits must be individually calibrated, creating manufacturing challenges at scale. But superconducting qubits represent one of the most mature approaches to quantum computing, with a clearer path to near-term applications than some competing technologies.
By focusing SUPREME on superconducting technology, the EU is making a strategic choice. It is not pursuing every possible qubit modality. It is concentrating resources on an approach where European research has strong foundations and where industrial scaling is the primary remaining challenge.
This concentration reflects a broader shift in European technology policy: from spreading resources thinly across many possibilities to focusing intensively on a smaller number of strategic priorities.
The Consortium Structure
SUPREME brings together partners across the quantum value chain. Research institutions provide scientific expertise and access to advanced laboratory facilities. Quantum startups contribute entrepreneurial energy and commercialization focus. Industrial partners offer manufacturing know-how, supply chain connections, and eventual customer demand.
The structure is designed to address Europe’s historical weakness: the gap between research and commercialization. By integrating researchers, startups, and industrial partners into a single consortium, SUPREME aims to ensure that advances in the laboratory translate rapidly into improvements in manufacturing and ultimately into products.
The €50 million budget, while substantial for a single initiative, is modest compared to total European quantum investments. The EU Quantum Flagship, launched in 2018, committed €1 billion over ten years. National programs in Germany, France, and the Netherlands have added additional billions. SUPREME represents a focused intervention within this broader funding landscape, targeting specifically the industrialization bottleneck.
The Strategic Autonomy Imperative
The phrase “strategic autonomy” has become central to European technology policy. It captures the recognition that dependence on foreign suppliers for critical technologies creates vulnerability, both to supply disruption and to geopolitical leverage.
Europe’s experience with semiconductor supply chains during 2020 and 2021 crystallized this concern. European automakers, among the world’s largest, discovered that they could not build cars because they could not obtain chips manufactured primarily in Asia. The economic cost was billions of euros in lost production. The strategic lesson was that dependence on foreign manufacturing in critical technologies is untenable.
Quantum computing represents an opportunity to avoid creating new dependencies. The industry is nascent. No region dominates manufacturing. The choices made now will determine whether Europe is a participant in the quantum industry or merely a customer.
SUPREME is part of a broader European effort to establish quantum manufacturing capability before dependencies form. The initiative complements national programs, private investments, and European research funding to create an ecosystem capable of producing quantum processors competitively with American and Asian suppliers.
The Competitive Landscape
Europe’s quantum ambitions face formidable competition.
The United States dominates the quantum startup landscape. Google, IBM, and Amazon are investing billions in quantum hardware and cloud services. American venture capital flows more freely into quantum companies than European capital. The National Quantum Initiative provides sustained federal support.
China is investing heavily in quantum technologies, though with less transparency about specific programs and funding levels. Chinese research groups have demonstrated world-leading capabilities in quantum communication and certain quantum computing modalities.
European companies including IQM (Finland), Alice & Bob (France), OQC (UK), and Kiutra (Germany) have emerged as credible contenders. But they face capital constraints, market access challenges, and competition from better-funded American rivals.
SUPREME and broader European quantum funding aim to tilt the competitive landscape. By providing capital that might not be available from private markets, by building manufacturing infrastructure that individual companies could not fund alone, and by creating connections between research and industry, public investment can accelerate the development of a European quantum industry.
Whether this strategy succeeds depends on execution. Government funding can enable or distort. It can fill gaps in private capital formation or it can create dependence on continued public support. It can accelerate commercialization or it can insulate companies from market discipline. The outcomes depend on how programs like SUPREME are implemented, how success is measured, and how funding evolves as the industry matures.
The Subsidy Question
Critics of industrial policy will note that SUPREME, like other government quantum investments, represents a subsidy to technology development that might occur naturally through private markets. The critique has merit but requires contextualization.
Quantum computing is a long-horizon technology. Meaningful commercial applications remain years away. Private capital, which typically seeks returns within five to seven years, may underinvest in technologies with longer development timelines. Government capital, which can take a generational view, fills this temporal gap.
Moreover, quantum computing has characteristics of a strategic technology where early capability creates lasting advantage. The physics of learning curves means that early entrants can reduce costs and improve quality faster than later entrants. Nations that develop quantum manufacturing capability now may maintain advantages for decades.
From this perspective, government investment in quantum industrialization is not a distortion of markets but a correction for market failures: the short time horizons of private capital and the public goods characteristics of strategic technology capability.
What This Means for Everyday People
For ordinary Europeans, the SUPREME consortium is distant from daily concerns. Quantum computers will not affect most people’s lives for years or decades, if ever.
The relevance is indirect but real. Technology industries create employment, economic growth, and tax revenue. They attract talent and catalyze innovation in adjacent sectors. Nations that participate in building strategic technologies benefit economically and strategically from that participation.
The alternative is dependence. Europeans already depend on American companies for cloud computing, social media, search, and mobile operating systems. They depend on Asian companies for semiconductors, batteries, and electronics manufacturing. Each dependency represents a constraint on European autonomy and a transfer of economic value outside the continent.
SUPREME represents one small effort to ensure that quantum computing does not become another such dependency. The €50 million investment will not by itself create a European quantum industry. But combined with national programs, private investment, and the deep research capabilities of European institutions, it contributes to an ecosystem that could make Europe a participant in the quantum future rather than merely a consumer of it.
For inquiries and analysis contact laterstack@proton.me
Frequently Asked Questions
What is the SUPREME consortium?
SUPREME is a European Union initiative with a €50 million budget to industrialize superconducting quantum technology. The consortium brings together research institutions, quantum startups, and industrial partners to bridge the gap between laboratory research and commercial manufacturing of quantum processors.
Why is Europe investing in quantum manufacturing?
Europe has historically excelled at technology research while struggling to commercialize innovations into industrial capability. The EU is investing in quantum manufacturing specifically to avoid creating dependencies on American or Asian suppliers as the quantum computing industry develops, pursuing what European policymakers call “strategic autonomy.”
How does SUPREME fit into broader European quantum funding?
SUPREME is one component of a larger European quantum investment landscape that includes the €1 billion EU Quantum Flagship program, national programs in Germany, France, Netherlands, and other member states, and private venture funding. SUPREME focuses specifically on the industrialization bottleneck rather than fundamental research.
The history of technology industries is also a history of strategic regret. Nations that allowed manufacturing to migrate offshore in pursuit of lower costs later discovered that they had surrendered more than production. They had surrendered capability, supply chain security, and ultimately strategic autonomy. Semiconductors, solar panels, rare earth processing, and advanced batteries all followed this pattern. By the time the strategic implications became apparent, the dependencies were deeply entrenched.
Australia is determined not to repeat this mistake with quantum computing.
This week, the National Reconstruction Fund Corporation, the Australian government’s $15 billion investment vehicle for building domestic manufacturing capability, announced a $20 million AUD (approximately $14 million USD) investment in Diraq, a company developing silicon spin qubits. The investment is structured as equity and designed explicitly to anchor Diraq’s advanced manufacturing in Australia rather than allowing it to migrate to the United States, Europe, or Asia as the company scales.
This is industrial policy in its most direct form. The Australian government has determined that quantum computing is a strategic technology and that maintaining domestic capability in that technology is worth public investment. The question is not whether quantum computers will eventually matter. The question is whether Australia will be a participant in that industry or merely a customer.
The Diraq Technology
Diraq was founded in 2022 as a spin-out from the University of New South Wales, building on more than two decades of research by Professor Michelle Simmons and colleagues. The company develops silicon spin qubits, a qubit modality that encodes quantum information in the spin states of individual electrons or atomic nuclei embedded in silicon.
Silicon spin qubits have a structural advantage over competing approaches: they can potentially be manufactured using existing semiconductor fabrication infrastructure. The same foundries that produce classical computer chips could, with appropriate modifications, produce quantum processor chips. This compatibility with established manufacturing could dramatically reduce the cost and accelerate the scaling of quantum computers.
Diraq has demonstrated some of the highest-fidelity two-qubit gates in the industry, exceeding 99% accuracy. The company’s technology has attracted investment from major institutional investors and strategic partners, including previous rounds led by private venture capital.
The National Reconstruction Fund investment adds a government dimension to this private backing, signaling that Australia views Diraq not merely as a promising startup but as a national capability to be cultivated.
The Strategic Calculus
The logic of the investment reflects lessons learned from other technology sectors.
Consider semiconductors. Australia has virtually no domestic chip manufacturing capability. When global supply chains tightened during 2020 and 2021, Australian manufacturers of automobiles, electronics, and industrial equipment discovered that they had no leverage over their suppliers and no alternatives to pursue. They waited in line alongside every other customer.
Consider batteries. Australia possesses some of the world’s largest deposits of lithium, cobalt, and other battery materials. Yet the country exports these materials as raw commodities, and imports finished batteries manufactured in China, South Korea, and Japan. The value-added manufacturing, and the strategic capability it represents, occurs elsewhere.
Quantum computing is early enough in its development that these patterns have not yet solidified. No nation dominates quantum manufacturing the way Taiwan dominates advanced semiconductor fabrication or China dominates battery production. The industry remains distributed across multiple countries and multiple companies, with no clear winner.
This creates an opportunity for nations that act decisively. Australia possesses world-class quantum research capabilities, particularly at UNSW where much of the foundational work on silicon spin qubits was conducted. By investing to keep manufacturing co-located with research, Australia can establish itself as a meaningful participant in the quantum industry rather than a spectator.
Government as Strategic Investor
The National Reconstruction Fund represents a particular model of government industrial policy. Rather than subsidizing operations or mandating local content requirements, the NRF takes equity positions in companies with strategic potential. This aligns government incentives with company success and provides capital that might otherwise be unavailable from private markets skeptical of long-term technology bets.
The Diraq investment includes conditions ensuring that manufacturing remains in Australia as the company scales. This is the critical element. A company might accept Australian government investment and then relocate manufacturing to a lower-cost jurisdiction as it commercializes. The NRF structure is designed to prevent this outcome.
Whether this model succeeds depends on execution details that remain undisclosed. The proof will come when Diraq faces the inevitable pressure to optimize costs by offshoring production. At that moment, the strength of the investment conditions will be tested.
The Global Competition
Australia is not alone in recognizing the strategic importance of quantum computing. The United States has committed tens of billions of dollars through the National Quantum Initiative and related programs. The European Union has launched multiple quantum flagship programs with budgets in the billions of euros. China’s quantum investments are not fully transparent but are estimated to exceed those of any other nation.
Within this competitive landscape, a $14 million investment is modest. It will not by itself establish Australia as a quantum superpower. What it does is signal commitment and provide the capital for Diraq to reach its next development milestone without sacrificing manufacturing sovereignty.
The question for Australian policymakers is whether this initial investment is the beginning of sustained commitment or a one-time gesture. Technologies like quantum computing require patient capital deployed over decades. They cannot be willed into existence with a single funding announcement. If Australia is serious about quantum sovereignty, further investments will be required as Diraq and other domestic quantum companies progress.
The Broader Pattern
Diraq’s investment follows a pattern emerging across democratic nations: government capital flowing into strategic technologies previously left entirely to private markets.
In the United States, the CHIPS and Science Act has committed $52 billion to semiconductor manufacturing and research. In Europe, the European Chips Act provides similar funding to rebuild domestic semiconductor capability. In quantum computing specifically, nations are creating dedicated agencies, funding programs, and strategic investment vehicles to ensure domestic participation in the industry’s development.
This represents a significant shift in economic philosophy. For decades, the dominant view held that government should not attempt to pick technological winners. Markets were assumed to allocate capital more efficiently than bureaucrats. Industrial policy was derided as ineffective at best and counterproductive at worst.
The pendulum has swung. The experience of supply chain dependencies during pandemic, geopolitical tension with China, and the recognition that certain technologies have strategic implications beyond their commercial value have rehabilitated industrial policy among mainstream economists and policymakers.
Quantum computing fits this pattern precisely. Its commercial applications remain speculative and years away. Private capital, which operates on shorter time horizons, may underinvest relative to the technology’s ultimate importance. Government capital, which can take a longer view, fills the gap.
What This Means for Everyday People
For ordinary Australians, the Diraq investment is invisible. The amounts involved are modest relative to federal budgets. The technology is abstract and years from affecting daily life.
The relevance is anticipatory. If quantum computing develops as its proponents expect, it will reshape industries from pharmaceuticals to logistics to finance. Nations that participate in building the industry will capture a share of the value it creates. Nations that merely consume quantum services will pay for the privilege.
The Diraq investment represents a bet that Australia should be among the builders rather than merely the buyers. Whether that bet pays off depends on factors that remain uncertain: the timeline of quantum commercialization, the competitiveness of silicon spin qubits against alternative approaches, and the continued commitment of Australian governments to the strategy.
What is certain is that the decision has been made. Australia has entered the quantum competition not as a spectator but as a participant. The consequences of that decision will unfold over the next decade and beyond.
For inquiries and analysis contact laterstack@proton.me
Frequently Asked Questions
What is Diraq?
Diraq is an Australian quantum computing company developing silicon spin qubits, founded in 2022 as a spin-out from the University of New South Wales. The company builds on decades of research in encoding quantum information in individual electron or nuclear spins embedded in silicon, with the potential advantage of compatibility with existing semiconductor manufacturing infrastructure.
Why is Australia investing in quantum computing?
Australia is applying lessons learned from other technology sectors where offshore migration of manufacturing led to loss of strategic capability and supply chain vulnerability. By investing to keep quantum manufacturing domestic while the industry is still developing, Australia aims to establish itself as a participant in the quantum industry rather than merely a customer dependent on foreign suppliers.
What is the National Reconstruction Fund?
The National Reconstruction Fund Corporation is a $15 billion Australian government investment vehicle established to build domestic manufacturing capability in strategic sectors. Rather than providing subsidies, the NRF takes equity positions in companies, aligning government incentives with company success while attaching conditions to ensure manufacturing remains in Australia.
In a small factory outside Shanghai, a new kind of worker is learning how to move. Its name is AgiBot, a humanoid robot that can be trained by people in real time to assemble electronics, test parts, and pass them down a production line.
AgiBot’s idea is simple but radical. Instead of teaching robots through endless simulation, the company pairs each machine with a human trainer who guides it through a task for about ten minutes. Then the robot learns to repeat it alone. This process, known as real-world reinforcement learning, blends human intuition with machine precision.
It is already being tested by Longcheer Technology, a major Chinese manufacturer that builds smartphones, VR headsets, and other electronics. The AgiBot system allows robots to take on repetitive but high-volume tasks, such as moving components from testing machines to assembly lines, while still adapting to shifting workflows.
Unlike traditional industrial robots that perform rigid motions, AgiBot’s machines learn through touch, vision, and trial. They are not coded to complete one routine forever. They evolve through repetition, much like human workers do.
Behind the system is Jianlan Luo, a UC Berkeley researcher turned entrepreneur. Luo helped pioneer human-in-the-loop robotics research in California before bringing the idea home to Shanghai. At AgiBot, his team of engineers and teleoperators trains robots for different factories across China, from electronics to consumer goods.
Training robots this way takes a surprising amount of human effort. In AgiBot’s training center, hundreds of operators guide robot arms through tasks, generating data that improves the company’s learning models. It is part of a growing trend in robotics where human labor fuels machine intelligence.
“Robots are not replacing workers,” said Yuheng Feng, an AgiBot representative. “They are learning from them.”
Each robot session creates more adaptable code, faster learning cycles, and smarter machines that can move to new production lines without weeks of reprogramming. For manufacturers, that flexibility is gold.
China’s government has made robotics a core focus in its latest five-year plan, alongside artificial intelligence and automation. The country already operates more industrial robots than the rest of the world combined, giving startups like AgiBot a vast playground for scaling quickly.
Experts say this fusion of human skill and robotic learning could define the next phase of manufacturing. “AgiBot is using some of the most advanced reinforcement learning seen outside a lab,” said Jeff Schneider, a Carnegie Mellon roboticist. “If it works as described, it could reshape how factories operate.”
Across the Pacific, startups in the United States are racing to catch up. Companies like Physical Intelligence and Skild are developing similar models that teach robots to adapt to new shapes, arms, and environments. But China’s scale and production speed may give AgiBot a lasting advantage.
AgiBot’s long-term goal is to create humanoid robots that can walk, handle tools, and work alongside people safely. For now, its focus remains clear: give robots a human touch and let them learn from the people who know the work best.
The quiet revolution is already underway, and it is not happening in a lab. It is happening on a factory floor where humans and machines are learning to build the future together.
Read the original coverage at WIRED.
Explore more Laterstack startup insights:
[thb_gap height=”150″]