Industrial Policy for the Final Frontier: Governing Growth in the Emerging Space Economy

By a Policy Analyst

Just a decade ago, the idea of a thriving commercial space sector seemed like science fiction. Today, it is a rapidly maturing economic reality. Lower launch costs—driven by reusable rockets and fierce private competition—have slashed the price of reaching orbit by more than 90 percent since 2010. Venture capital has poured into satellite constellations, space tourism, and asteroid mining startups, and the global space economy is now valued at over $500 billion, with projections suggesting it could triple by 2040.

Yet this explosive growth comes with a policy vacuum. Governments, historically the dominant actors in space, are now wrestling with a critical question: How should industrial policy be designed for a domain that is both a frontier of innovation and a theater of geopolitical rivalry? A recent Brookings Institution working paper by Aleksandraviciute, Impink, and Seamans offers a foundational economic and policy framework to help answer that question. Drawing on their research, this article examines the unique challenges of governing the space economy and suggests how lessons from other emerging technologies—particularly generative AI—can inform a forward-looking regulatory approach.

[IMAGE: Split-screen image: left side shows a rocket launch at sunrise, right side shows a policy document or a government building with satellite imagery, emphasizing the 'final frontier' theme.]

The Economic Logic of Space Industrial Policy

To understand why industrial policy matters in space, one must first appreciate the sector's peculiar economic features. Space infrastructure involves extremely high fixed costs—a single launch vehicle development program can run into billions of dollars—and significant economies of scale once operational. Satellite constellations exhibit strong network externalities: the value of a communications or Earth-observation system increases as more satellites are added and more users join. And many space-based goods, such as navigation signals, weather data, and scientific observations, have classic public-good characteristics: they are non-rivalrous and non-excludable, meaning the market alone will underprovide them.

Historically, governments have played the role of anchor customer. NASA and the Department of Defense procured launch services, satellites, and research, effectively de-risking private investment by guaranteeing demand. That model remains relevant, but the landscape has shifted. Private companies now develop their own rockets, operate their own space stations, and sell services directly to commercial customers. Industrial policy must adapt to this new reality.

The core challenge is to avoid crowding out private initiative while ensuring that essential public infrastructure—launch pads, radio spectrum, orbital slots, and space traffic management—is governed efficiently. As Aleksandraviciute, Impink, and Seamans note, public-private partnerships (PPPs) have become the preferred tool. NASA’s Commercial Crew Program, for instance, provided milestone-based funding to SpaceX and Boeing while allowing them to retain intellectual property and sell services to other customers. That model successfully lowered costs and accelerated innovation.

Yet PPPs are not a panacea. Without careful design, they can entrench incumbents, create moral hazard, or shift risk onto taxpayers. Industrial policy for the space economy must therefore be dynamic, adaptable, and aligned with broader societal goals such as equity, safety, and environmental sustainability.

[IMAGE: Infographic showing the cost curve of launch services over time, with key milestones like Falcon 9 reuse, and a note on public investment vs. private capital.]

Key Policy Challenges

Beyond pure economics, the space economy presents several governance challenges that industrial policy must address head-on.

Property rights and resource extraction. The Outer Space Treaty of 1967, the foundational document of space law, prohibits national appropriation of celestial bodies. But it says little about commercial extraction of resources like asteroid metals or lunar water. The U.S. Commercial Space Launch Competitiveness Act of 2015 attempted to grant U.S. companies the right to own resources they extract, but international legal clarity remains absent. Without a widely accepted property rights regime, investment in long-term extraction projects carries enormous legal risk. Industrial policy could encourage multilateral negotiations to create a framework that balances commercial incentives with the "common heritage of mankind" principle.

Orbital congestion and space debris. Low Earth orbit is becoming crowded. There are now over 10,000 active satellites, with plans for mega-constellations adding tens of thousands more. Collisions can generate cascading debris fields—the Kessler syndrome—that could render entire orbits unusable. Regulatory agencies, led by the U.S. Federal Communications Commission (FCC) and the Federal Aviation Administration (FAA), have begun imposing debris mitigation requirements as conditions for launch licenses. But these rules are fragmented internationally. A robust space governance system would mandate collision avoidance maneuvers, end-of-life disposal plans, and, potentially, liability insurance. Industrial policy can tie public funding or procurement to adherence to best practices, creating a market incentive for responsible behavior.

Dual-use technologies. Many space technologies—high-resolution satellite imaging, AI-driven autonomous navigation, quantum communication—have both civilian and military applications. This dual-use nature complicates export controls, technology transfer, and international cooperation. Governments must develop trust mechanisms that allow commercial innovation to flourish without compromising national security. Policies such as binding codes of conduct for satellite operators, or "safe harbor" provisions for sensitive data sharing, could help bridge the gap.

[IMAGE: A visualization of orbital debris fields around Earth, with highlighted zones of high congestion and a proposed 'space traffic management' control tower concept.]

Lessons from Other Emerging Technologies

The space economy is not the first domain where rapid technological change has outpaced regulation. The recent debate around generative AI offers instructive parallels—and cautionary tales. In a September 2025 Brookings article, Baily and co-authors warned that the rapid deployment of generative AI without adequate guardrails had led to market concentration among a handful of large firms, raised concerns about labor displacement, and triggered a societal backlash that threatened to stall innovation entirely.

For space industrial policy, three lessons stand out.

First, avoid winner-take-all dynamics. In AI, network effects and data advantages created formidable barriers to entry, concentrating power in a few platforms. Space has similar tendencies: satellite constellations are natural monopolies in some respects (only a limited number of orbital slots exist), and the upfront capital required for launch infrastructure is enormous. Antitrust foresight—including measures to ensure open access to spectrum, orbital slots, and launch facilities—can prevent monopolistic lock-in before it happens.

Second, balance open innovation with safety standards. The AI community’s early "move fast and break things" mentality led to embarrassing failures and public distrust. Space, however, has physical consequences: a failed rocket can kill people, a collision can destroy billions in assets, and a catastrophic debris event can harm all users of an orbital band. Industrial policy should mandate safety standards—like collision avoidance systems and reliable launch vehicle certification—without stifling experimentation. The key is to define clear risk thresholds and allow flexibility within them.

Third, build international cooperation incrementally. AI governance is struggling with a fragmented patchwork of national regulations. Space governance faces an even harder problem: the Outer Space Treaty provides only a broad framework, and geopolitical tensions—particularly between the U.S., China, and Russia—make multilateral agreements difficult. But progress is possible on specific, technical issues such as space traffic coordination. The Artemis Accords, a U.S.-led set of bilateral agreements for lunar exploration, offer a model for flexible, modular cooperation that can expand over time.

[IMAGE: A schematic comparison: on the left, a generative AI network diagram with regulatory nodes; on the right, a space network of satellites with similar control points, illustrating the parallels.]

A Framework for Governance

Drawing on the analyses of Aleksandraviciute, Impink, and Seamans, and informed by the AI experience, a coherent governance framework for the space economy should rest on four pillars.

1. Strategic public investment. Governments must continue to fund foundational R&D (propulsion, materials, life support) and maintain anchor procurement programs, but they should do so in ways that crowd in private capital. This means using milestone-based contracts, open technology competitions, and shared infrastructure models. Public resources should also support equitable access: for example, reserving a portion of orbital slots for developing countries or small enterprises.

2. Adaptive regulation. Rules need to evolve as the sector matures. Rather than trying to write a comprehensive space code from scratch, regulators should adopt a "sandbox" approach, allowing controlled experimentation while monitoring risks. For instance, the FAA could license small satellite operations under provisional rules that tighten as congestion increases. Sunset clauses and periodic reviews would ensure regulations remain fit for purpose.

3. Global coordination on shared risks. Orbital debris, spectrum interference, and dual-use technologies are inherently international problems. Industrial policy should incentivize multilateral dialogue—for example, by tying procurement eligibility to adherence to international debris mitigation guidelines. The UN Committee on the Peaceful Uses of Outer Space (COPUOS) could be revitalized as a forum for technical standards, while smaller coalitions (like the Artemis Accords) test governance models that can later scale.

4. Foresight on emerging markets. The space economy is not just about launch and satellites. Emerging markets include in-space manufacturing, space-based solar power, asteroid mining, and even space tourism. Industrial policy should proactively identify bottlenecks (such as the need for orbital refueling infrastructure) and support the development of standards and norms before commercial interests become entrenched. This requires close collaboration between policymakers, engineers, and entrepreneurs.

[IMAGE: A diagram of the four-pillar framework: public investment, adaptive regulation, global coordination, and foresight on emerging markets, with arrows showing interactions.]

Conclusion: Governing the Final Frontier

The commercial space economy is no longer a distant dream—it is a dynamic and consequential sector that will shape the 21st century. How governments design industrial policy for this domain will determine not only the pace of innovation but also the distribution of its benefits and the management of its risks.

As Aleksandraviciute, Impink, and Seamans demonstrate, space presents unique economic features that demand tailored policy tools. The lessons from generative AI remind us that laissez-faire approaches can lead to concentration and backlash, while overregulation can smother innovation before it takes hold. The path forward lies in a balanced, adaptive framework that harnesses public-private partnerships, encourages international cooperation, and maintains a long-term vision.

The final frontier is open for business. It is up to policymakers to ensure that business is conducted safely, fairly, and sustainably.