The Strategic Relocation: Why Deep Tech Companies Move Mountains (and HQs)

The most important decisions in deep tech are not about technology. They are about geography.

When Skorpios Technologies announced funding in March 2024 to complete its move from Austin to a 450,000-square-foot facility in Temecula, California, it was a signal of pure strategy. Moving a silicon photonics foundry is immensely costly and disruptive. It is not like relocating a software company, which might involve little more than breaking an office lease and changing cloud providers. A foundry is a delicate, integrated system of multi-million-pound machinery, cleanrooms, and highly specialised infrastructure. Uprooting it is an act of corporate open-heart surgery. A company only undertakes such a procedure if the long-term prognosis is dire without it, and the potential rewards are immense. The calculus is almost always about talent and supply chains. Firms do not move for cheaper rent; they move for a specific, hard-to-replicate concentration of people and suppliers.

Where a company places its critical assets is the clearest signal of where it believes the future will be built, and who it needs to build it. These moves are expensive, long-term commitments that cannot be undone with a press release. They represent a physical, irreversible bet on a particular location’s ability to solve a company’s most pressing problems. They are the real map of the industry, drawn by logistics firms and property contracts, not market commentary. At Quantum People, we watch these moves closely. They tell us more about a company’s real priorities, constraints, and long-term view of the world than any financial filing or technology roadmap. They tell us where the real work is happening.

Why do deep tech companies really move?

A company like Skorpios Technologies does not uproot an entire fabrication facility on a whim. The decision, led by CEO Stephen Krasulick, is a direct response to fundamental constraints. The goal is to shorten the distance between a technical problem and the specific group of people best equipped to solve it. This is not a metaphorical distance; it is a physical one. In deep tech, innovation is often a contact sport.

The primary driver is access to a specialised talent pool. This is a more nuanced point than simply counting PhDs in a given postcode. Building something as complex as Skorpios’s Tru-SiPh™ Photonic Integrated Circuits requires a particular blend of skills in semiconductor manufacturing, materials science, and optical engineering. More than that, it requires people with experience in scaling these processes from a lab curiosity to a high-yield, high-volume product. This kind of experience is not taught in universities. It is forged over years inside other companies. These skills are not evenly distributed. They cluster around historic centres of excellence and established industry players. A move from Austin to Temecula is a bet that the talent pool in Southern California, with its deep roots in the semiconductor and aerospace industries, provides a deeper well of this specific, applied expertise than Central Texas. It is a decision to position the company at the heart of a talent network it needs for its 1.6T HPICs, not just to hire junior engineers, but to attract senior leaders who have solved similar problems before.

Second is the supply chain. This is the invisible architecture of deep tech. A foundry relies on a dense network of suppliers for everything from raw materials like high-purity silicon wafers to specialised maintenance equipment and the engineers who know how to service it. Proximity matters immensely. When a critical piece of deposition equipment goes down, the solution cannot be a Zoom call. It requires a specialist engineer, often from the equipment manufacturer, to be on-site within hours. Being geographically close to key partners reduces this logistical friction and shortens lead times. Relocating a 450,000-square-foot facility is, in part, an exercise in optimising the company’s position within its physical supply chain. It is about reducing the operational risk that comes from being an isolated outpost. The restart of manufacturing operations by May 2023 was not just a logistical milestone; it was the activation of this new, geographically optimised network of suppliers, service providers, and partners.

Finally, there is the unspoken value of proximity to competitors and collaborators. Innovation in deep tech rarely happens in isolation. It depends on the informal exchange of ideas, the movement of people between companies, and the competitive pressure that comes from being close to rivals. This is the ‘cluster effect’ in action. Engineers who meet at local industry events share insights. Startups are born when a team from an established player decides to spin out. By moving to a region with a higher density of related activity, a company gains better market intelligence, easier access to partners, and a stronger brand among the talent it seeks to attract. The physical building is just the entry ticket to this local network. The real value is in the density of connections that the location enables. It is a bet that the ambient level of knowledge and competition in the new location will make the entire organisation better.

Where are the new hubs forming?

While Skorpios plants a flag in California, a broader, more complex map of quantum and photonics hubs is taking shape. Different regions are pursuing different strategies, with varying degrees of success. The patterns reveal a fundamental tension between organic, bottom-up growth and deliberate, top-down industrial policy.

Colorado stands out for its organic growth. Data suggests it is home to a robust quantum technology sector in the United States, with a reported 80% growth rate. This is not the result of a single grand government initiative. It is the product of a self-reinforcing cycle: a critical mass of university research (at places like JILA in Boulder), federal labs, and early-stage companies created a foundation. This foundation attracted talent, which in turn attracted more companies, which created more opportunities for talent. This is the classic cluster effect, where success builds on success without a single, top-down directive. The ecosystem develops a momentum of its own. It is resilient precisely because it is decentralised.

Texas, in contrast, is taking a more deliberate, policy-driven approach. By passing a law specifically to secure its quantum future, the state is signalling its intent to compete directly for investment and talent. This is a top-down effort to build a sector through legislative and financial incentives. The goal is to use state power to create the conditions for a cluster to form. It is a different model from Colorado’s, one that bets on the ability of policy to accelerate the slow, organic process of ecosystem-building. The Skorpios move from Texas, however, could be read as a crucial data point. It suggests that for a company at a certain stage of maturity, with highly specific needs, broad policy incentives may be less compelling than the gravitational pull of an already-existing, highly specialised talent pool and supply chain. Policy can help a seed to germinate, but it cannot easily replicate a mature forest.

The picture is also global, and increasingly networked. Europe has its own Quantum Strategy, indicating a continent-wide effort to coordinate research, funding, and commercialisation. But the more interesting signals are at the company level. We see evidence of a new, hybrid geography emerging. The partnership between the YC-backed Conductor Quantum and Finland’s SemiQon to advance silicon quantum computing shows that talent and technology connections are ignoring national borders. A startup in one hub can partner with a specialist in another to solve a specific problem. Similarly, Qnami’s move to join Quantum Design is explicitly aimed at expanding the global reach of its quantum sensing products. This is not about relocating R&D; it is about plugging into a global sales and distribution network. Geography is still critical for the core, physical work. But the “local” hub for a company might now be a node connected to a network of global partners, each chosen for a specific capability. The winning strategy may not be to have everything in one place, but to have your core operations in the right place, and your partnerships everywhere else.

Is capital following the talent, or creating it?

The flow of money is inextricably linked to these geographic shifts. A move like the one Skorpios undertook is impossible without dedicated financing. The announcement of additional funding was not just a corporate update; it was the fuel that made the entire relocation possible. Capital is the enabler, the necessary condition for any of these large-scale geographic strategies.

Capital in deep tech can play two distinct roles: it can follow existing talent, or it can be used to create a new centre of gravity.

In the case of Skorpios, the investment appears to be backing a move to an existing talent pool in California. The money is an enabler for a strategy focused on accessing a pre-existing concentration of expertise. This is, in many ways, a de-risked investment. The capital is not being used to test the hypothesis of whether a hub can be built; it is being used to move the company into a hub that already functions. The investors are betting on the Skorpios team’s ability to execute within a known, resource-rich environment.

In other cases, capital is being used more proactively to build that concentration. The launch of platforms like Nexus, designed to connect quantum and deep-tech startups with investors, is a piece of market infrastructure. It aims to make funding new ventures more efficient. The underlying idea is to allow capital to flow to promising teams regardless of their initial location, potentially seeding new clusters or reinforcing nascent ones. This is a more speculative use of capital, betting on the team and the technology first, and the location second.

Corporate activity also directs capital flows in ways that shape the talent map. When Rigetti Computing signals its intent to expand its headcount by up to 30%, it is making a direct investment in the talent pool of its existing location in California. This strengthens the local hub, making it more attractive for other companies and individuals. It deepens the well of available talent and creates more career pathways, reinforcing the cluster effect. Similarly, when BTQ Technologies makes a strategic investment in Keypair to acquire post-quantum cryptography IP, it is using capital to bring specific expertise and technology under its own roof. This is a highly targeted form of capital allocation. It is less about geography and more about acquiring a specific team and its accumulated knowledge, wherever they happen to be located.

The work between Bain & Company and IBM to deliver post-quantum cryptography assessments to their clients represents yet another channel of capital. This is not venture funding; it is the allocation of enterprise budgets. As large corporations begin to spend real money on preparing for the quantum transition, they create commercial demand. This demand pulls talent into specific sub-fields and rewards companies with practical, near-term applications. This flow of enterprise capital will be a powerful force in determining which parts of the quantum and photonics landscape mature first, and by extension, which geographic locations associated with those applications will thrive.

How should we read the corporate signals?

It is easy to get distracted by market noise. A double-digit stock surge for a company like Rigetti Computing or D-Wave generates headlines, but it often reflects market sentiment, news cycles, or broader macroeconomic trends more than a fundamental shift in the company’s capabilities. These are lagging indicators, or at best, real-time reactions to news. They tell you what the market thinks today, based on information that is already public. They are not predictive. They are the weather, not the climate.

The more reliable signals are the ones that are costly and hard to reverse. As we have discussed previously at Quantum People, M&A is one such signal. A company does not spend millions to acquire another lightly. It is a strategic commitment to a technology and a team. Another, as Skorpios demonstrates, is a major physical relocation. These actions represent a long-term, capital-intensive commitment to a strategy. They are about building foundational capacity for the next decade, not hitting the next quarterly target. While BTQ Technologies’ demonstration of quantum-safe Bitcoin is a significant technical milestone, and an important proof point, the decision by Skorpios to move an entire fab is a strategic one with consequences that will play out over a decade or more. One is an experiment, the other is infrastructure.

The challenge for any analyst, investor, or job seeker in this space is to separate the foundational signals from the market commentary. Much of the public conversation around commercialisation is still based on projections, roadmaps, and promises. The real work is happening now, on a much more tangible level: in the construction of new facilities, the slow aggregation of specialised teams, and the establishment of new supply chains. These are the boring, expensive, and profoundly important decisions that precede the breakthroughs. They are the leading indicators of future success. They show where companies are placing their most valuable, non-recoupable assets: time and capital.

For those building a career in this field, the lesson is clear. Pay less attention to the announcements of qubit counts and more to the planning permissions for new cleanrooms. The most reliable map of the future of quantum and photonics is being drawn by removal vans.

Sources

• The New York Academy of Sciences – Facebook
• Insights | Roadrunner Venture Studios
• Quantum Technologies Transition to Strategic Advantage – LinkedIn
• News – Quantum Computing Report
• Why Quantum Computing Companies Are Turning to SPACs
• Colorado is building a quantum workforce utilizing proven strategies …
• Qnami joins @quantumdesigneurope Congratulations to … – Instagram
• Quantum firms race to market as the industry sees ‘inflection point’
• The Quantum Insider Weekly | European Strategy. Deep Dish on …
• Elevate Quantum | Explore America’s Quantum Hub