Midwest quantum computing job growth poised to reach hundreds of thousands by 2035

Studies show the Midwest could have 200,000 new jobs linked to the 'quantum economy' by 2035, according to WisBusiness .

SE
Sameh El-Masry

May 19, 2026 · 5 min read

Futuristic Midwest cityscape with glowing quantum data streams and diverse workers in advanced labs, symbolizing job growth and innovation.

Studies show the Midwest could have 200,000 new jobs linked to the 'quantum economy' by 2035, according to WisBusiness. The projection of 200,000 new jobs by 2035 signals a significant economic reorientation, attracting substantial capital and talent to the region. Such an expansion demands foresight beyond simple growth metrics.

The Midwest is poised for massive quantum job growth, but the inherent power of this technology also presents significant security vulnerabilities and a looming skills gap. The dual nature of quantum capabilities, offering immense opportunity alongside considerable risk, complicates this trajectory. A balanced approach is necessary to manage these competing forces.

Companies and educational institutions must rapidly collaborate to develop a robust quantum workforce and address the ethical implications, or risk undermining the region's economic advantage and national security. This challenge demands long-term foresight that extends beyond mere economic expansion. Failure to act swiftly could expose critical infrastructure.

What are the top quantum computing jobs in the Midwest?

  • 200,000 — new jobs projected in the Midwest's quantum economy by 2035, according to WisBusiness. The figure of 200,000 new jobs underscores the rapid expansion anticipated within the sector.
  • Hundreds of thousands — quantum jobs expected in the Midwest within the next 10 years, according to The Quantum Insider. Projections of hundreds of thousands of quantum jobs highlight an immediate need for specialized talent.
  • Improved sensors — a direct application of quantum computing technologies in Wisconsin for sectors like mining and biotech, according to WisBusiness. Improved sensors illustrate tangible economic benefits driving job creation.

The projected 200,000 quantum jobs by 2035 dramatically outpace current educational initiatives, indicating an imminent and severe talent deficit rather than a manageable future challenge. The diverse applications of quantum technology are directly fueling this substantial job creation, making it a pivotal economic driver for the region. However, this growth trajectory requires a commensurate expansion of skilled personnel.

How is quantum computing impacting the Midwest economy?

Quantum InitiativeCurrent Status (2026)Projected Status (2027)Primary Objective
Wisconsin Quantum AllianceOfficially launched June 10Active CollaborationFostering regional quantum development
Illinois Quantum Metrology Park (IQMP)Under developmentPhase 1 completionAdvanced research and innovation hub

Sources: WisBusiness, Related Midwest

The Wisconsin Technology Council officially launched the Wisconsin Quantum Alliance on June 10, establishing a formal collaborative framework for regional quantum development. Concurrently, the first phase of the Illinois Quantum Metrology Park (IQMP), designed by Lamar Johnson Collaborative, is scheduled for completion in 2027, occupying approximately 30 acres. The Wisconsin Quantum Alliance and the Illinois Quantum Metrology Park collectively establish the physical and organizational ecosystem necessary to support the burgeoning quantum sector. However, significant physical infrastructure investments, like the IQMP's 2027 completion, are progressing faster than the human capital development required to staff and secure these advanced facilities, potentially creating state-of-the-art quantum labs without enough skilled personnel to fully utilize or protect them.

The Dual Promise of Quantum Technology

Quantum computers could potentially break certain forms of encryption, decrypt personal bank records, and even nuclear launch codes, according to WisBusiness. The capability of quantum computers to break encryption highlights the profound implications of quantum advancement beyond economic benefit. The technology’s capacity for both significant innovation and disruption drives investment and development, creating a complex landscape of opportunity and risk.

The same quantum capabilities driving economic opportunity in areas like improved sensors in Wisconsin are simultaneously creating national security risks, such as cracking encrypted systems. The dual nature of quantum capabilities highlights an important dual-use dilemma that the Midwest is not yet equipped to manage at scale. Companies investing in the Midwest's quantum ecosystem must recognize that the ability to 'crack encrypted systems' is not just a theoretical threat; it is an inherent capability of the technology they develop, demanding immediate, robust security protocols and ethically trained personnel. The inherent capability of the technology to 'crack encrypted systems' demands a proactive stance on cybersecurity integration.

What skills are needed for quantum computing jobs in 2026?

Purdue University has launched a comprehensive quantum degrees program, including certificates, minors, master’s programs, and PhD concentrations, according to The Quantum Insider. Purdue University's comprehensive quantum degrees program aims to address growing workforce demand as the Midwest quantum sector expands over the next decade. Universities are proactively developing comprehensive curricula to bridge the emerging skills gap and prepare a new generation for quantum careers, focusing on both theoretical understanding and practical application.

While regional alliances like the Wisconsin Quantum Alliance and university programs like Purdue's are foundational, the inherent power of quantum to compromise national security encryptions means the Midwest's quantum development has far-reaching federal implications. The inherent power of quantum to compromise national security encryptions demands a broader, coordinated national strategy for talent and threat mitigation. Universities and regional alliances are building the foundation for a quantum workforce, but without a massive, coordinated federal investment, the Midwest's ambitious job targets (200,000 by 2035, per WisBusiness) will remain unmet, leaving critical infrastructure and data exposed to quantum threats. A fragmented approach risks diluting regional potential.

Navigating the Quantum Future

The Midwest's quantum boom is a double-edged sword: while promising economic growth, the region risks becoming a breeding ground for advanced cyber vulnerabilities if workforce development does not prioritize security expertise as aggressively as innovation.

  • The projected 200,000 quantum jobs by 2035, according to WisBusiness, dramatically outpace current educational initiatives like Purdue's comprehensive programs, indicating an imminent and severe talent deficit.
  • Quantum computers could potentially break certain forms of encryption, decrypt personal bank records, and even nuclear launch codes, according to WisBusiness.

The rapid expansion of quantum capabilities without a commensurate focus on security expertise and a robust talent pipeline creates a key vulnerability. This imbalance could allow malicious actors to exploit quantum advancements before the region can fully secure its digital infrastructure. As the quantum economy matures, stakeholders must proactively address both the technological advancements and the societal implications to ensure responsible growth. The current trajectory presents a systemic risk.

Key Takeaways for the Quantum Era

  • Projected quantum job growth in the Midwest could reach 200,000 by 2035, driven by applications in mining and biotech sensors. Projected quantum job growth in the Midwest necessitates a rapid expansion of specialized skills.
  • The capacity of quantum technology to crack encrypted systems presents significant national security risks alongside economic opportunities, demanding immediate attention to cybersecurity protocols.
  • Current educational programs and regional alliances are building a foundation, but a broader federal strategy is necessary to meet future workforce demands and address security implications, preventing a major skills gap.

The Illinois Quantum Metrology Park, with its first phase scheduled for completion in 2027, illustrates the region's commitment to physical infrastructure. However, without a synchronized and aggressive investment in quantum cybersecurity education, the operational security of such facilities, and the broader Midwest digital economy, will remain critically exposed. The critical exposure of the operational security of facilities and the broader Midwest digital economy demands urgent policy action before 2027.