Defining Arizona's Role in the Quantum Economy

Why Arizona should focus on quantum sensing, hardware, and industrial deployment

By Dean Duncan and Chris Lucero | The Connective 

At a Glance: Arizona's Quantum Opportunity

Quantum is becoming a driver of economic growth, not just a research topic. The first commercial opportunities are emerging in sensing, photonics, advanced hardware, secure communications, and precision measurement.

Arizona already has a strong foundation in semiconductors, optics and photonics, aerospace and defense, healthcare, and advanced manufacturing.

A coordinated statewide approach, anchored by a Phoenix-Tucson Quantum Corridor, can help Arizona attract investment, grow high-wage industries, and strengthen strategic supply chains.

Near-term investments in quantum sensing, photonics, and hardware can also prepare Arizona for longer-term developments in quantum computing and other future quantum technologies.

Why This Moment Matters

While much of the public conversation around quantum focuses on quantum computers, the first commercial opportunities are emerging in industry segments Arizona already knows well: semiconductors, advanced manufacturing, healthcare, aerospace, and defense.

The business case for Arizona is straightforward: targeted public investment in quantum sensing, photonics, advanced hardware, and deployment infrastructure can help the state compete for federal funding, attract private capital, support company formation, and create high-wage jobs in industries where Arizona already has momentum.

Based on comparable sectors such as semiconductors, photonics, and advanced manufacturing, a catalytic public investment of approximately $175M–$300M has the potential to support $500M–$1B+ in total capital inflow over the next decade, contribute to the formation of 10–20 companies, and generate 1,000–3,000 direct high-wage jobs, with broader statewide employment impact reaching 2,500–8,000 jobs.

For city leaders, economic developers, universities, and regional partners, the question is not whether quantum technologies will create economic value, but where that value will be created and which regions will be positioned to capture it. Across the country, investment is moving into quantum sensing, photonics, advanced hardware, secure communications, precision measurement systems, and the infrastructure required to support deployment.

This distinction matters because the regions that benefit most over the next decade will be the regions that build the infrastructure, components, integration capabilities, testing environments, and deployment ecosystems the broader industry depends on. Arizona's opportunity is to leverage its existing strengths to become a leading hub for these emerging markets as they move from research into commercialization.

This strategy should not be read as dismissing longer-term quantum computing opportunities. Research institutions such as Arizona State University and the University of Arizona can play an important role in advancing quantum science, attracting talent, supporting workforce development, and expanding the state's research capacity. The stronger Arizona becomes in sensing, photonics, hardware, and deployment, the better positioned it will be to participate in future quantum frontiers as they mature.

Several forces are accelerating this market formation: federal investment tied to national security and advanced manufacturing, semiconductor reshoring, supply chain realignment, and growing demand for precision across healthcare, aerospace, defense, AI infrastructure, and industrial systems. Quantum is no longer only a distant research topic. It is becoming an industrial opportunity.

Arizona's Strategic Position

Arizona's opportunity in quantum is rooted in industrial alignment. The state already possesses a rare combination of assets that map directly to the emerging quantum economy: a globally significant semiconductor manufacturing base, a nationally recognized optics and photonics ecosystem, a growing biomedical and healthcare innovation sector, a strong aerospace and defense presence, and advanced manufacturing capabilities.

These strengths are especially powerful when viewed as a connected statewide ecosystem. The foundation for a Quantum Corridor already exists between Phoenix and Tucson. Tucson brings nationally significant optics, photonics, and quantum-relevant research capacity through the University of Arizona and the broader Optics Valley ecosystem. Greater Phoenix brings semiconductor manufacturing scale, biomedical deployment environments, aerospace and defense customers, and commercialization infrastructure.

Together, these regions create an ecosystem capable of developing, integrating, testing, and deploying quantum-enabled technologies. Arizona does not need to build every layer of the quantum supply chain to lead. It needs to specialize in the areas where it can create durable competitive advantage.

The Quantum Economy Is Forming in Layers

The global quantum market is not developing as a single unified industry. It is forming across three distinct but connected layers.

The Measurement Economy is centered on quantum sensing and metrology. This is the most commercially mature segment and has near-term relevance to healthcare, defense, navigation, semiconductor manufacturing, and industrial monitoring.

The Infrastructure Economy includes photonics, chip-scale components, advanced packaging, secure communications, networking systems, and other enabling technologies needed to scale quantum capabilities.

The Computational Economy is centered on quantum computing and software. It carries substantial long-term potential, but remains more technically uncertain and commercially less mature than sensing and infrastructure.

For Arizona, the near- and mid-term opportunity is strongest in the first two layers: measurement and infrastructure. That is where market demand, industrial alignment, and commercialization timelines are most favorable.

Where Arizona Should Focus

Arizona's strongest opportunity lies at the intersection of quantum sensing, photonics, hardware systems, and real-world industrial deployment. This opportunity aligns naturally with three demand-driven verticals already thriving in the state.

In healthcare and biomedical innovation, quantum sensing and photonic systems can support better diagnostics, imaging, and biological measurement. Arizona's healthcare institutions, research universities, and the Phoenix Biomedical District provide an environment for clinical validation and deployment.

In defense and aerospace, quantum sensing can support GPS-independent navigation, improved detection, magnetic sensing, timing, and situational awareness. Arizona's defense presence, aerospace base, testing environments, and advanced manufacturing capacity make the state a strong location for deployment and system integration.

In semiconductor manufacturing, quantum-enabled sensing and photonic systems can support next-generation metrology, process control, defect detection, and yield optimization. Arizona's semiconductor ecosystem creates a direct pathway for testing and integrating these tools in real manufacturing environments.

These verticals are not separate strategies. They are multiple markets pulling on the same underlying supply chain capabilities: photonics, sensing, advanced packaging, precision instrumentation, and systems integration. That is how resilient industrial clusters form.

This should be understood as an economic gardening strategy. The goal is to cultivate companies from within Arizona's existing research, industry, startup, and advanced manufacturing ecosystem by helping them access customers, capital, talent, technical infrastructure, and commercialization pathways.

What Arizona Needs to Build

Arizona's opportunity does not depend on building a single massive research institution or attempting to replicate Silicon Valley. Success will depend on connective infrastructure, coordinated execution, and scalable deployment environments.

First, Arizona should establish a neutral, industry-led coordination platform under the working concept of Quantum Arizona. This platform should align universities, industry, government, investors, and regional partners; support federal funding applications; organize pilot projects; coordinate shared infrastructure strategy; and serve as a central engagement point for companies evaluating Arizona.

Second, Arizona should build a quantum-ready workforce. The near-term need is not only for quantum physicists. It is also for photonics specialists, precision instrumentation technicians, advanced manufacturing engineers, semiconductor process specialists, RF and microwave systems engineers, and systems integration professionals. Stackable credentials, applied engineering pathways, and industry-aligned technical education should be tied directly to real deployment environments.

Third, Arizona should prioritize shared, multi-use infrastructure. Photonics and sensing labs, device prototyping and packaging centers, testing environments, and semiconductor-adjacent measurement facilities can lower barriers for startups, support industry collaboration, and increase utilization of expensive technical infrastructure.

These facilities should be designed with tiered access models so universities, startups, commercial firms, and defense-sensitive projects can participate while maintaining appropriate security and export-control protections.

The Investment Case

The estimated public investment required to catalyze Arizona's quantum ecosystem is approximately $175M-$300M. This investment would support ecosystem coordination, federal funding capture, startup development, commercialization support, workforce development, applied training, and shared-use infrastructure.

Importantly, the strategy is designed to leverage substantially larger sources of external capital. Arizona's public investment should be structured to improve competitiveness for federal funding opportunities associated with the CHIPS and Science Act, NSF Regional Innovation Engines, Department of Defense modernization initiatives, Microelectronics Commons programs, advanced manufacturing, secure communications, and national semiconductor security priorities.

The Economic Opportunity for Arizona

The value extends beyond job creation. By securing high-value activities such as sensing integration, advanced packaging, testing, deployment, and precision manufacturing, Arizona can position itself as a critical node within emerging global quantum supply chains.

This matters because supply chains are beginning to form now. Regions that build early capacity around shared infrastructure, applied talent, industry partnerships, and commercialization pathways will be better positioned to attract companies, federal investment, and private capital as the market matures.

For Arizona, the opportunity is to turn existing industrial strengths into a coordinated economic strategy before these markets consolidate elsewhere.

Conclusion

Arizona does not need to build a full-stack quantum economy in the near term to lead. Its opportunity is to treat quantum as an enabling layer for industries where the state already possesses momentum and competitive advantage: semiconductors, healthcare, defense, aerospace, optics, and advanced manufacturing.

By focusing on sensing, photonics, hardware integration, and real-world deployment, Arizona can build the systems, infrastructure, and industrial capabilities the broader quantum economy depends on. The opportunity is not to chase every quantum market. It is to define Arizona's role before supply chains solidify elsewhere and to invest in the state's next generation of high-wage industries.