U.S. space defense industrial base workforce shortfalls threaten the ability to reconstitute space capabilities within 12–24 months of a conflict. Critical gaps span STEM engineers, skilled technicians, and electro-optical specialists. Industry needs U.S. Space Force (USSF) coordination to align and scale talent pipeline investments. USSF must invest now in STEM pipelines, technician training, fellowships, and automation to build surge capacity.

Breaking Glass, Missing Hands

Addressing Workforce Constraints That Threaten the Resilience of the Space Industrial Base

Alexandra Gerber, Jessie Riposo, Melanie A. Zaber, Bonnie L. Triezenberg

ResearchPublished Aug 31, 2026

The United States’ ability to reconstitute military space capabilities within 12 to 24 months of a near-peer conflict depends critically on the readiness of the space defense industrial base (DIB) workforce. This report presents three categories of critical shortfall: engineers with degrees in science, technology, engineering, and math (STEM); skilled touch labor (technicians and assemblers); and advanced-degree specialists in electro-optical and radiation-hardening fields—workers whose skills can take 15 or more years to develop and who cannot be rapidly replaced during a crisis.

Analyses of Bureau of Labor Statistics data and interviews with industry representatives reveal that the space DIB employs only 3 percent of U.S. engineers, faces a technician credentialing gap in which annual industry demand exceeds credentialed supply by nearly three to one, and struggles to recruit cleared STEM talent because clearance delays average six months or more and because foreign nationals receive 70 percent of electrical and computer engineering doctorates.

Although existing government initiatives—including the National Imperative for Industrial Skills, the Defense Civilian Training Corps, and the Navy’s Talent Pipeline Program—provide useful models, they lack the coordination and scale needed for a surge. The authors of this report recommend that U.S. Space Force (USSF) invest in scholarships, internships, vocational pipelines, and advanced fellowships within a cultivate–train–qualify–retain framework. Industry must continue investing in training and apprenticeships, but policy coherence requires government leadership. Finally, the authors suggest that stakeholders consider automation as a resilience lever, which can be addressed by embedding surge planning requirements in contracts.

Key Takeaways

The U.S. space industrial base faces severe workforce shortfalls

  • The U.S. space industry employs approximately 3 percent of all U.S. engineers, and it faces a large credentialing gap for critical skilled technicians. Clearance delays and the prevalence of foreign nationals among workers holding advanced degrees further constrain the classified workforce.

Space reconstitution relies on workforce availability and readiness

  • Without a base of continuous production, specialized skills atrophy, and experienced workers migrate to other industries; the institutional knowledge required to rapidly scale manufacturing is then lost, leaving the industrial base unable to respond when demand surges. USSF should invest in pipelines to support reconstitution within a 12-to-24-month window.

Workforce strategy must address near-term urgency and long-term development

  • Ongoing efforts should be embedded within a cultivate–train–qualify–retain framework that links early STEM outreach, vocational training, and clear pathways to space careers.

Industry should lead, but USSF must provide support

  • The Office of the Assistant Secretary of the Air Force for Space Acquisition and Integration should provide leadership and clear policy to integrate these efforts with U.S. Department of War (DOW) programs, thereby ensuring that workforce development is treated as a matter of defense readiness and not simply as a human resources issue.

Workforce debates undervalue automation as a resilience lever

  • Space industry stakeholders prioritize growing the high-touch manufacturing labor supply but should also look to automation, robotics, and artificial intelligence. Current economies of scale discourage that investment, but USSF can incentivize firms to plan ahead by embedding surge clauses in contracts.

Recommendations

  • Develop centralized USSF leadership and clear policy authority to integrate space DIB workforce development with DOW priorities and pro
  • Fund additional internships and scholarships for STEM students at vocational, bachelor's, and advanced degree levels.
  • Conduct outreach and recruitment at kindergarten through grade 12, vocational, and university levels to promote space industry careers.
  • Allow Reserve Officers’ Training Corps graduates and specialized program scholars to fulfill service obligations by working in qualifying space DIB firms.
  • Fund National Defense Science and Engineering Graduate fellowships; create a USSF-focused graduate fellowship program.
  • Advocate for the expansion of the National Imperative for Industrial Skills program.
  • Evaluate the Navy’s Talent Pipeline Program as a model; develop modular and stackable training programs for key space trades.
  • Expand employer–community college partnerships in cleanroom technology and semiconductor processing.
  • Establish a new DOW Manufacturing Innovation Institute focused on space manufacturing.
  • Incorporate surge planning requirements into future contracts to incentivize firms to plan for scaling before a crisis.
  • Explore automation incentives (e.g., cost-sharing for robotic assembly and test cells) as a complement to—not a replacement for—workforce pipelines.
  • Commission a study on upskilling workers from technology-intensive industries for surge scenarios.

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Gerber, Alexandra, Jessie Riposo, Melanie A. Zaber, and Bonnie L. Triezenberg, Breaking Glass, Missing Hands: Addressing Workforce Constraints That Threaten the Resilience of the Space Industrial Base. Santa Monica, CA: RAND Corporation, 2026. https://www.rand.org/pubs/research_reports/RRA3665-2.html.
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This research was sponsored by the Vice Chief of Space Operations and conducted by RAND Project AIR FORCE.

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