How Artemis Could Change the Global Space Economy

Key Takeaways

• Artemis is reshaping space commerce through commercial partnerships worth billions in contracts
• The program’s 61-nation Artemis Accords are writing new rules for lunar resource ownership
• Water ice at the Moon’s south pole could become the foundation of a cislunar fuel economy

The Mission That Reopened the Moon

On April 1, 2026, for the first time since December 1972, humans left the immediate vicinity of Earth and traveled toward the Moon. Artemis II carried Commander Reid Wiseman, Pilot Victor Glover, Mission Specialist Christina Koch, and Canadian Space Agency Mission Specialist Jeremy Hansen on a free-return trajectory around the Moon, testing the Space Launch System and Orion spacecraft under real deep-space conditions. The flight was not a landing. But it marked something that can’t be dismissed: a government-run, internationally crewed spacecraft successfully pushing beyond low-Earth orbit for the first time in more than five decades.

What makes this moment different from Apollo isn’t just the technology or the diversity of the crew, though both matter. What’s different is the economic architecture around it. When Apollo flew, all roads led back to NASA and a few prime contractors. When Artemis flies, the surrounding ecosystem includes dozens of commercial companies, 61 signatory nations, competing commercial landers, private spacesuit manufacturers, and a newly emerging legal framework for extracting and selling resources from another world. The economic consequences of that shift, if Artemis delivers on its roadmap, could be substantial.

A Commercial Architecture Built From the Start

The single most significant departure from the Apollo model is how Artemis uses private industry. NASA awarded SpaceX a $2.9 billion contract to develop a modified version of its Starship vehicle as the Human Landing System for Artemis III and IV. That vehicle, Starship HLS, will carry astronauts from lunar orbit to the surface and back. Blue Origin received a separate $3.4 billion contract to develop its Blue Moon MK2 lander for Artemis V. Neither of these vehicles was designed exclusively for NASA. Both companies have positioned lunar capability as a stepping stone toward their broader commercial ambitions, which means the investment they’re making extends far beyond what NASA’s contracts alone would justify.

This is a structural change in how space infrastructure gets built. Rather than government engineers designing every component from scratch, NASA is now buying services from companies that own their hardware, set their own development paths, and serve multiple customers. The agency has been explicit about wanting to become one of many customers in a lunar transportation market, not the sole financier. That framing has real economic implications. If SpaceX and Blue Origin can establish reliable, reusable landers capable of reaching the Moon’s south pole, the market for those services extends to other governments, research institutions, resource extraction companies, and eventually private explorers.

Beyond the landers, NASA’s prime contractor network for Artemis already involves more than 2,700 suppliers across 47 U.S. states. Companies including Northrop Grumman, Lockheed Martin, Aerojet Rocketdyne, Axiom Space, and Boeingall hold significant Artemis roles. Axiom Space is developing the AxEMU lunar spacesuit, which passed its critical design review in 2024 and entered flight unit assembly by early 2026. Three companies, Intuitive Machines, Lunar Outpost, and Venturi Astrolab, are under contract to develop the Lunar Terrain Vehicle. Each of these contracts seeds a new category of space product with commercial potential long after Artemis missions end.

The Commercial Lunar Payload Services Program

Running parallel to the crewed mission architecture is NASA’s Commercial Lunar Payload Services program, known as CLPS. Under CLPS, NASA awards fixed-price contracts to commercial companies to deliver science and technology payloads to the lunar surface. The program achieved a historic milestone in February 2024 when Intuitive Machines’ IM-1 mission became the first commercial lunar landing in history. In March 2026, NASA awarded Intuitive Machines a $180.4 million contract for the IM-5 mission targeting Mons Malapert, a region offering access to permanently shadowed craters near the lunar south pole.

In 2026, NASA proposed a “CLPS 2.0” initiative to extend the program’s support to larger payloads. The underlying logic is that by funding commercial delivery, NASA stimulates an industry that eventually serves paying customers beyond the agency itself. Firefly Aerospace and other companies in the CLPS pool are building landing heritage that could support private geological surveys, telecommunications relay stations, or resource prospecting missions funded by sources other than Washington. It’s worth watching how quickly that transition happens, because no commercial lunar payload market truly exists yet outside NASA’s own spending.

Water Ice and the Cislunar Economy

The resource argument for Artemis goes well beyond scientific curiosity. The Moon’s south pole, where Artemis IV is targeting its first crewed landing no earlier than 2028, contains substantial deposits of water ice locked in permanently shadowed craters. Ice at the poles can be converted into drinking water for astronauts and, through electrolysis, into hydrogen and oxygen, the core components of rocket propellant. A lunar propellant depot could, in theory, allow spacecraft heading to Mars or beyond to refuel without carrying all of their propellant from Earth’s gravity well. The energy math of that scenario is compelling.

This is why the economic conversation around Artemis so quickly lands on in-situ resource utilization, or ISRU. If lunar ice can be extracted, processed, and sold as propellant in cislunar space, the economics of reaching Mars improve substantially. The companies that establish extraction and processing infrastructure at the lunar south pole could occupy an economic position somewhat analogous to a refueling station at a critical trade route junction. That analogy comes with enormous caveats. Extraction technology is still in early development. The cost of the infrastructure to do this at scale would be staggering. And who legally owns extracted resources remains a genuinely unsettled question in international law.

The Artemis Accords and the Battle Over Space Law

That legal question is being addressed, imperfectly, by the Artemis Accords. Drafted by NASA and the U.S. Department of State and first signed in October 2020 by eight founding nations, the Accords had grown to 61 signatories as of January 26, 2026, when Oman became the latest country to sign. The Accords establish principles for transparency, interoperability, emergency assistance, and the preservation of heritage sites. More consequentially for the space economy, Section 10 of the Accords states that the extraction and utilization of space resources is consistent with the Outer Space Treaty of 1967 and does not constitute national appropriation.

That position has real commercial value. A company investing in lunar extraction infrastructure needs legal certainty that whatever it mines, it can sell. The Accords provide a multilateral endorsement of that principle among 61 governments, which is not a formal treaty but is meaningfully more robust than a unilateral U.S. legal claim. The U.S. Commercial Space Launch Competitiveness Act of 2015 had already granted American companies the right to own and sell space resources. Luxembourg followed with its own law in 2017. The United Arab Emirates in 2019, Japan in 2021, Brazil in 2024, and Italy in June 2025 have all enacted similar domestic legislation. A growing body of national law, supported by the Accords framework, is creating the regulatory soil in which a commercial lunar extraction industry could take root.

Neither Russia nor China has signed the Accords. Both have publicly characterized the framework as a vehicle for American geopolitical advantage. Chinese state media has compared the Accords’ safety zone provisions, which establish temporary exclusion areas around active operations, to colonial land enclosure practices. This is not merely rhetorical. China is pursuing its own lunar program, the International Lunar Research Station, developed in partnership with Russia and targeting a permanent base by 2035. China has also announced a goal of landing astronauts on the Moon by 2030. The result is a divided international legal environment in which two competing frameworks for lunar governance are taking shape simultaneously, and the most economically valuable real estate on the Moon, the water-ice-rich polar regions, sits at the center of that dispute.

What the Budget Numbers Actually Mean

NASA’s Office of Inspector General has estimated that each SLS launch costs approximately $4 billion, and cumulative spending on SLS, Orion, and Exploration Ground Systems had exceeded $93 billion by the time Artemis II flew. Congress rejected the Trump administration’s proposed 24 percent NASA budget cut in January 2026, setting the agency’s fiscal year 2026 discretionary budget at $24.44 billion. When combined with the $10 billion allocation included in the One Big Beautiful Bill Act, signed into law on July 4, 2025, and distributed over six years, the total resource base available to NASA in fiscal year 2026 reaches approximately $27.53 billion, which the Planetary Society calculated is the largest NASA budget in inflation-adjusted terms since fiscal year 1998.

Administrator Jared Isaacman, confirmed by the Senate in December 2025, has signaled that SLS is not a long-term architecture. In February 2026, he cancelled development of the Block 1B Exploration Upper Stage. The same month, NASA standardized the SLS on its Block 1 configuration. In March 2026, the agency cancelled the Lunar Gateway orbital station entirely, redirecting those resources toward surface infrastructure. The trend line is clearly toward lower-cost commercial alternatives after the current SLS manifest is exhausted. Starting with Artemis IV, the Interim Cryogenic Propulsion Stage will be replaced by the commercially developed Centaur V upper stage, built by United Launch Alliance.

These decisions have direct supply chain consequences. Facilities like Michoud Assembly Facility in Louisiana and Stennis Space Center in Mississippi have large workforces tied to SLS production. As the program winds down its government-built hardware reliance, job impacts in those communities are a real variable. The economic displacement may be partially offset by growth in the commercial sector, particularly around launch services, payload integration, and surface operations. But the timing and geography of that shift won’t be seamless.

International Partners and the Contractor Ecosystem

The cancellation of the Lunar Gateway complicated relationships with international partners who had designed hardware around it. The European Space Agency was building the International Habitation Module, called iHAB, in cooperation with the Japan Aerospace Exploration Agency. ESA has also been producing the European Service Module that powers Orion, and has secured flight opportunities for European astronauts as part of that contribution. Canada contributes Canadarm3 and has earned a seat on Artemis missions; Jeremy Hansen’s flight on Artemis II was the direct result of that partnership. The UAE was building the Gateway airlock.

With Gateway gone, NASA convened its international partners in Washington in late March 2026 to discuss revised architecture. The diplomatic challenge is that these partners had invested engineering resources and political capital based on a plan that has since changed substantially. ESA Director General Josef Aschbacher indicated before that meeting that Europe would arrive at the table “united,” suggesting the partners wanted clarity and commitment before adjusting their own program investments.

The practical economic point is that Artemis is not a purely American investment. Multiple allied governments are funding hardware, training astronauts, and shaping mission requirements. That international financial burden-sharing reduces the per-country cost and broadens the political coalition supporting continued lunar exploration. For the 61 nations that have signed the Artemis Accords, participation also signals domestic space industry ambition, opening doors to future bilateral cooperation and commercial contracts that wouldn’t otherwise exist.

The Cadence Question

On March 24, 2026, NASA announced new initiatives targeting crewed lunar landings every six months beyond Artemis V, with potential to increase cadence as commercial capabilities mature. That ambition, if achieved, would represent something genuinely without precedent: a regular, recurring human presence on another world. The economic implications of sustained cadence are different in kind from those of episodic visits. Regular missions require permanent logistics chains, surface infrastructure, communication networks, and support operations. Each of those categories is a potential market.

The economic models that analysts have built around a lunar economy generally assume that water ice extraction, propellant production, and eventually tourism and materials science operations all require the kind of sustained access that regular landings would enable. Goldman Sachs and Morgan Stanley have both published projections for the broader space economy, with some estimates placing the total space economy above $1 trillion globally by the early 2040s. A functioning lunar economy with regular propellant production would accelerate those projections by reducing the cost of deep space transit significantly.

Whether the cadence targets are achievable is a harder question. Artemis III, scheduled for 2027, was restructured in February 2026 from the first crewed lunar landing into a rendezvous and docking test with the commercial landers in low Earth orbit. The first actual crewed landing is now expected no earlier than early 2028 with Artemis IV. Artemis V, targeting late 2028, would be the second landing. Getting from two landings in 2028 to landings every six months requires technical maturity across SpaceX and Blue Origin landers, reliable surface logistics, and sustained political will through future administrations. That’s a lot of dependencies running in parallel, and it’s uncertain whether the timeline holds.

Technology Spillovers and Long-Term Returns

Apollo’s technological legacy is well documented. Advances in miniaturized electronics, water purification, scratch-resistant coatings, and medical imaging all trace partial lineage to the program’s engineering demands. Artemis is generating a different set of technology pressures. Life support systems designed for week-long lunar surface stays, power systems capable of operating through two-week lunar nights, radiation shielding techniques for deep space transit, and cryogenic propellant transfer in orbit are all engineering challenges that Artemis is forcing into accelerated development. Many of those solutions will have applications far from the Moon.

The AxEMU spacesuit being developed by Axiom Space, designed for both microgravity and surface operations and including collaboration with fashion house Prada on materials, represents a new model for how aerospace hardware gets developed: commercial company, government requirements, fashion industry materials science, and NASA heritage. That kind of cross-industry development is likely to become more common, not less, as the boundary between space hardware and advanced manufacturing continues to blur.

The CLPS missions themselves are generating operational knowledge at a rate that would have been impossible under the old government-manages-everything model. Intuitive Machines, after achieving the first commercial lunar landing in 2024, is already under contract for multiple follow-on missions targeting increasingly challenging sites. Each mission builds engineering heritage that becomes the foundation of a future commercial lunar service industry.

Summary

Artemis II’s April 1, 2026 launch marked the physical return of humans to deep space for the first time since Apollo 17. But the mission’s economic significance goes beyond the hardware. Artemis is the mechanism through which the United States, and 60 partner nations, is building the legal frameworks, commercial incentives, technical infrastructure, and human capital needed to make the Moon economically accessible. SpaceX and Blue Origin are competing for lunar lander contracts worth billions while positioning themselves for a market that extends beyond NASA. The Artemis Accords are writing the legal playbook for resource extraction on another world, with 61 nations signed on and both Russia and China staying firmly outside. Water ice at the lunar south pole is the resource that makes a cislunar propellant economy plausible, though the extraction technology remains in development. Budget realities are forcing a faster-than-planned shift toward commercial hardware and away from government-built systems like SLS. Whether Artemis delivers on its promise of regular, sustained lunar presence by the early 2030s depends on technical milestones that are still being reached, political will that is still being tested, and commercial markets that are still being created. The program has built more economic architecture in less time than any lunar effort in history. What gets built on that foundation is still being decided.

Appendix: Top 10 Questions Answered in This Article

Who flew on Artemis II, and what made the crew historically significant?

Artemis II launched on April 1, 2026, carrying Commander Reid Wiseman, Pilot Victor Glover, Mission Specialist Christina Koch, and Canadian Space Agency Mission Specialist Jeremy Hansen. Victor Glover became the first African American to travel to the Moon’s vicinity, Christina Koch became the first woman to do so, and Jeremy Hansen became the first non-American to travel into deep space.

What is the Human Landing System, and who is developing it?

The Human Landing System is the commercial vehicle that will transport astronauts from lunar orbit to the Moon’s surface and back. SpaceX received a $2.9 billion contract to develop Starship HLS for Artemis III and IV, while Blue Origin received a $3.4 billion contract to develop its Blue Moon MK2 lander for Artemis V.

How much has the Artemis program cost overall?

NASA’s Inspector General estimated total Artemis spending at approximately $93 billion through the Artemis II launch. Each SLS launch costs roughly $4 billion in operating costs alone, a figure that has attracted sustained congressional and White House scrutiny throughout the program’s development.

What are the Artemis Accords, and how many countries have signed them?

The Artemis Accords are a set of non-binding bilateral agreements drafted by NASA and the U.S. Department of State, establishing principles for the peaceful, transparent exploration of the Moon, Mars, and other bodies. As of January 26, 2026, when Oman became the 61st signatory, the Accords represent the broadest international agreement on space governance in the program era.

Why was the Lunar Gateway cancelled?

NASA cancelled the Lunar Gateway orbital station in March 2026 under Administrator Jared Isaacman, redirecting resources toward building surface infrastructure on the Moon. The cancellation simplified near-term mission architecture but required NASA to renegotiate commitments with international partners, including ESA and JAXA, who had been building hardware for the station.

What is water ice on the Moon, and why does it matter economically?

Water ice is concentrated in permanently shadowed craters near the Moon’s south pole and can be processed into drinking water for astronauts or split into hydrogen and oxygen to produce rocket propellant. If extracted at scale, lunar-derived propellant could be sold to spacecraft heading to Mars or beyond, reducing the enormous cost of launching all mission propellant from Earth.

What is CLPS, and what has it achieved?

The Commercial Lunar Payload Services program allows NASA to award fixed-price delivery contracts to private companies to transport science and technology payloads to the Moon’s surface. Intuitive Machines’ IM-1 mission in February 2024 achieved the first commercial lunar landing in history, and NASA awarded Intuitive Machines a $180.4 million follow-on contract in March 2026 for the IM-5 mission.

When is the first crewed lunar landing now expected under Artemis?

The first crewed Artemis lunar landing is currently targeted for early 2028 with Artemis IV, after Artemis III was restructured in February 2026 into an orbital rendezvous and docking test with commercial landers in low Earth orbit. A second crewed landing is planned for late 2028 with Artemis V.

How does China’s lunar program compare to Artemis?

China is pursuing the International Lunar Research Station in partnership with Russia, targeting a permanent base by 2035, and has announced plans to land astronauts on the Moon by 2030. China’s Chang’e-6 mission returned samples from the Moon’s far side in 2024, demonstrating mission complexity second only to the Apollo program. Neither China nor Russia has signed the Artemis Accords.

What is NASA’s plan for increasing the frequency of lunar landings after Artemis V?

In a March 24, 2026 announcement, NASA stated it would begin incorporating commercially procured and reusable hardware beyond Artemis V, targeting crewed lunar landings every six months with potential to increase cadence as commercial capabilities mature. The plan depends on SpaceX and Blue Origin delivering reliable, reusable landers and supporting logistics infrastructure across successive missions.