On October 9, 2009, NASA intentionally crashed a rocket into the Moon's south pole at 5,600 miles per hour and watched the debris cloud with a following spacecraft. The LCROSS mission's target was Cabeus crater, a permanently shadowed basin where temperatures drop to minus 387 degrees Fahrenheit and sunlight hasn't touched the ground in billions of years. When scientists analyzed the ejecta plume, they found it: water ice, mixed into the regolith at concentrations of roughly 5.6 percent by mass. The finding was confirmed by India's Chandrayaan-1 mission earlier that same year using a NASA instrument aboard the orbiter.

The Moon is not dry. That sentence rewrote the economics of everything that follows.

This is a story about what follows. Not the specific conflict of interest that colors NASA's current program, which our companion piece examines in detail. The larger story: what's actually on the Moon that's worth fighting over, who's positioned themselves to extract it, what the law says about that (less than you'd hope), and what the terrain looks like if current trajectories hold for the next decade.

The short version: the resources are real, the extraction technology is approaching viability, and the governance question is being settled right now by the people with the most to gain from a particular answer. This isn't an unusual situation in history. The unusual part is that it's happening in public, narrated in real time as exploration.

What Is Actually Up There

Start with the inventory, because the hype has been so enthusiastic and so imprecise that it's worth separating the genuine from the promotional.

Water ice. This is the most confirmed and most immediately practical resource. LCROSS, Chandrayaan-1, the Lunar Reconnaissance Orbiter, India's Chandrayaan-2, and NASA's SOFIA airborne observatory have all contributed to a picture of concentrated ice deposits in permanently shadowed craters near both poles, with the south pole containing the more substantial concentrations. The significance isn't that humans will drink it, though they might... it's that water, when electrolyzed, produces hydrogen and oxygen, which are rocket propellant. A fuel depot on the Moon's surface, drawing on local ice, changes the economics of deep space travel in ways that make every subsequent mission cheaper to mount. The Moon becomes a gas station on the way to everywhere else. This is the near-term commercial case, and it's real.

Helium-3. Here the picture requires more care. Helium-3 is a light isotope deposited on the lunar surface by the solar wind over billions of years. Earth's magnetic field deflects most of the solar wind, so terrestrial He-3 is vanishingly rare. Estimates place the Moon's total He-3 inventory at roughly one million tonnes distributed through the regolith, which would require processing enormous volumes of lunar soil to extract meaningful quantities. Harrison Schmitt, the geologist-astronaut who walked on the Moon during Apollo 17, has spent decades advocating He-3 as a future fusion fuel. The theoretical appeal is real: deuterium-Helium-3 fusion reactions produce far fewer high-energy neutrons than deuterium-tritium reactions, which means potentially less radiation, less structural damage to a reactor, and a cleaner energy profile.

The catch is fundamental and should be stated directly. We do not have working D-He3 fusion reactors. We do not, as of 2026, have working fusion reactors of any commercially viable type, despite sustained investment from NIF, ITER, and a now-crowded field of private ventures including Commonwealth Fusion Systems, TAE Technologies, and Helion Energy. Fusion has been thirty years away for seventy years. That's not an exaggeration; it's the actual timeline. The D-He3 pathway has additional physics challenges beyond those already limiting conventional D-T fusion. Extracting Helium-3 as a business plan requires two simultaneous miracles: the engineering miracle of economical lunar mining, and the physics miracle of D-He3 reactor viability. Neither is impossible. Stacking two unsolved problems into a single business case is a structure that should be noted without dismissing the underlying science.

Anyone describing Helium-3 extraction as commercially imminent is selling something. Note what they're selling and to whom.

Rare earth elements and platinum group metals. The Moon's crust contains rare earth elements in concentrations broadly similar to Earth's, without the concentrations that make specific terrestrial deposits economic to mine. The story here is not the crust but the meteoritic deposits: billions of years of asteroid and meteorite impacts have delivered platinum-group metals, including platinum, palladium, osmium, iridium, and gold, with far less geological redistribution than occurs on Earth. Modeling by Srivastava et al. (2025) suggests that basin-forming impacts could have produced platinum-group metal concentrations in impact melt sheets comparable to economic terrestrial ore grades of roughly 1-5 grams per tonne. The extraction challenge is that these deposits are diffuse, not in veins, and the infrastructure required to exploit them doesn't yet exist. This is a genuine long-term resource story, not a near-term commercial one.

The honest summary: water ice is real and near-term relevant; rare earth and platinum deposits are real but long-term and infrastructure-dependent; Helium-3 is real as a physical resource and speculative as a commercial proposition, conditional on breakthroughs that remain unsolved.

The Players on the Field

The race isn't metaphorical. It involves real capital, real hardware, and real government programs advancing on real timelines.

NASA and the Artemis contractors. The Artemis program's stated goal is sustained human presence on and around the Moon, with the lunar south pole as the target zone. The Infrastructure being developed includes the Lunar Gateway (an orbital station), the Human Landing System (SpaceX Starship variant, under contract), and eventually surface habitation and resource utilization systems. NASA's MOXIE experiment aboard the Perseverance rover demonstrated in-situ oxygen extraction from Martian atmosphere in 2021, proving the principle that local resources can be harvested in space. A lunar version, drawing on ice deposits, is a documented program objective. The contractors holding these programs are large American aerospace firms and SpaceX. Their business objective is delivering returns to investors, which is a reasonable objective for a company. The question the governance gap leaves unanswered is what mechanism, other than the preferences of the current administrator, constrains how those contracts are awarded and what conditions attach to them.

ispace (Japan). The commercial lunar company has attempted two lunar lander missions, with its Resilience mission in 2023 failing at touchdown after a successful transit. Mission 2 carried the TENACIOUS micro-rover built by ispace Europe. Its business model centers on delivering payloads to the lunar surface commercially and eventually enabling resource extraction by clients. ispace has signed agreements with JAXA and has a U.S.-incorporated subsidiary pursuing contracts under the NASA CLPS (Commercial Lunar Payload Services) program.

Astrobotic and Intuitive Machines. Both are CLPS contractors delivering NASA and commercial payloads to the Moon. Astrobotic's Peregrine mission in January 2024 experienced a propellant leak and couldn't land; its Griffin lander, intended to carry NASA's VIPER water-prospecting rover, was delayed. Intuitive Machines' IM-1 mission successfully landed in February 2024, becoming the first American commercial soft landing on the Moon, though the lander came to rest nearly on its side after catching a foot on the surface. IM-2 followed. These are incremental steps toward the operational infrastructure lunar resource extraction requires.

China's CNSA and the Chang'e program. This is the part of the picture that the "race to the Moon" framing is designed to make legible, and the framing isn't wrong. Chang'e-5 returned 1.73 kilograms of lunar samples in December 2020. Chang'e-6 returned samples from the far side in June 2024, a first in history. Chang'e-7 and Chang'e-8 are designed to explore water ice at the south pole and test in-situ resource utilization. The International Lunar Research Station, developed in partnership with Russia and with additional partners including Venezuela, South Africa, Pakistan, and Azerbaijan, targets a permanent robotic base by 2035 and eventual crewed operations. China's program is methodical, well-funded, and on a timeline that places crewed Moon landings in the 2030 range.

Luxembourg and the regulatory entrepreneurs. In 2017, Luxembourg passed the Law on the Exploration and Use of Space Resources, granting Luxembourg companies the right to own resources extracted from celestial bodies. This makes Luxembourg, a country of roughly 660,000 people that doesn't currently have a lunar program, one of the more thoughtful actors in this space. The law attracted investment from Planetary Resources (since acquired) and other space resource startups and established Luxembourg as a favorable jurisdiction for space mining ventures. The United Arab Emirates and Japan have passed similar legislation. These laws matter not because any of these countries is about to start mining the Moon, but because they are constructing the domestic legal architecture that companies will use to establish property rights claims when extraction becomes feasible. Building the legal infrastructure now, before the question is contested in earnest, is how you shape the answer.

AstroForge. The asteroid mining company is worth mentioning not because it's a lunar player but because it represents the adjacent commercial logic. AstroForge launched an orbiter in 2023 to demonstrate refining technology in space and is targeting asteroid mining for platinum-group metals. The economics it's trying to prove are the same economics that make lunar platinum deposits interesting: off-world extraction of materials too scarce or too expensive to mine competitively on Earth. If AstroForge or its competitors validate the model for asteroids, the playbook transfers.

The Legal Architecture, Such As It Is

Two frameworks govern humanity's relationship to the Moon, and they're incompatible with each other, and neither is adequate to the situation.

The Outer Space Treaty (1967). Ratified by 118 nations including the United States, Russia, and China, the OST establishes the foundational legal regime for space. Article II is the key provision: outer space, including the Moon and other celestial bodies, "is not subject to national appropriation by claim of sovereignty, by means of use or occupation, or by any other means." The Moon belongs to no one. This principle was written to prevent the Cold War powers from claiming territory in space the way they had claimed territory everywhere else.

What the OST doesn't say, because no one in 1967 thought to include it, is anything definitive about resource extraction. It prohibits sovereignty. It doesn't explicitly address whether a private company can extract resources and sell them. This gap is now load-bearing.

The Moon Agreement (1979). The Agreement tried to close that gap. Article 11 declares that the Moon and its natural resources are "the common heritage of mankind," that neither the surface nor the subsurface shall become the property of any state, international intergovernmental organization, non-governmental organization, national organization, or non-governmental entity, and that an international regime should be established to govern exploitation when it becomes feasible.

The Moon Agreement has 17 state parties. The United States has not signed. Russia has not signed. China has not ratified it. The European Space Agency's major member states have not signed it. The countries that signed are, with a few exceptions, countries that aren't currently running Moon programs. The treaty articulating the most comprehensive common-property framework for lunar resources is one that no major space power accepts as binding. It's a legal instrument with the reach of a local ordinance and the authority of a strongly worded suggestion.

The US Commercial Space Launch Competitiveness Act (2015). Passed during the Obama administration, the SPACE Act explicitly grants US citizens the right to own resources they extract from asteroids or other celestial bodies, while stipulating that the US doesn't claim sovereignty over those bodies. The law is a careful legal construction: it works within the OST's prohibition on sovereignty claims while treating resource extraction as a property right that attaches to the extractor rather than the location. Luxembourg's 2017 law, Japan's 2021 framework, and the UAE's 2019 space law follow the same structural logic.

This interpretation isn't settled international law. It's a domestic legislative interpretation of an international treaty. Other signatories to the OST are under no obligation to accept it. The strategy appears to be to establish the interpretation through legislation and practice, and present it as the functional international norm before a competing framework can congeal.

The Artemis Accords. Developed in 2020, the Accords now carry 61 signatories. They commit signatories to peaceful operations, transparency, interoperability, emergency assistance, and registration of space objects. They also commit signatories to the interpretation that space resource extraction is consistent with the Outer Space Treaty, the same interpretation embedded in the SPACE Act. China has not signed. Russia has not signed. The Accords are bilateral agreements with the United States, not a multilateral treaty ratified through the UN. They're, legally, executive agreements: instruments that carry the weight of the executive branch that established them and don't require Senate ratification.

The Accords aren't a UN framework. They're a coalition of nations that have agreed with the United States that the United States' interpretation of the OST is correct. There's a meaningful difference between "this is what the treaty means" and "61 nations who signed agreements with us agree with our reading of the treaty." The distinction is precisely the one that matters when the question comes before any future body that needs to resolve competing claims.

The South Pole Problem

Both the Artemis program and China's ILRS target the lunar south pole. The reason is the same: that is where the water ice is. Permanently shadowed craters in the south polar region, including Shackleton, Haworth, Nobile, and the Cabeus basin that LCROSS hit in 2009, contain the confirmed ice deposits that make a permanent base economically and logistically feasible. The south pole is also a region of elevated terrain with near-continuous sunlight for solar power generation.

The south pole is, in short, the only place on the Moon where a permanent crewed base makes near-term practical sense. Both major programs know this. Both are targeting it. The combined footprint of infrastructure from two competing programs operating under incompatible governance frameworks, in the same geography, on overlapping timelines, is a situation that has no agreed mechanism for resolution.

One plausible scenario is that the first program to establish a permanent presence at a high-value south pole site claims, in practice if not in legal theory, something that functions like priority. Not sovereignty, which the OST prohibits. Priority: the operational fact of being there, with equipment in place, with resource extraction underway, before anyone else. That's how resource races have historically worked when the law hasn't caught up to the technology.

The Historical Parallels Worth Taking Seriously

The comparison most often reached for is the seabed. UNCLOS took over a decade to negotiate among competing sovereign interests and produced the International Seabed Authority to govern deep-sea mineral extraction. The United States helped design it, pushed for fewer benefit-sharing obligations, and declined to ratify it. The ISA has spent recent years under sustained pressure from mining industry interests to authorize extraction before the science can establish what extraction damages. It exists. It is captured. Powerful states participate when it suits them and route around it when it doesn't. This is not a failure of the model. It is the model.

The Arctic is the more uncomfortable parallel. The Arctic Ocean contains an estimated 13 percent of undiscovered global oil and natural gas resources. It's governed by overlapping and contested claims under UNCLOS and bilateral agreements, with Russia, Canada, the United States, Norway, and Denmark all pressing competing positions. The frameworks that govern it are a patchwork of claims and counter-claims assembled in the absence of comprehensive governance, by the parties with the most to gain from particular answers. The result is a zone of managed ambiguity that serves the powerful better than the powerless, and that will require either a crisis or a political transformation to resolve. That's the model the Moon is currently tracking toward.

The oldest and most instructive parallel is the English Enclosure Acts. Between roughly 1750 and 1850, Parliamentary legislation converted common land, which had been collectively used by rural communities for grazing, foraging, and subsistence for centuries, into private property. The commons were productive. They supported livelihoods. They encoded centuries of accumulated local knowledge about sustainable use. The argument for enclosure was that private ownership would make the land more productive. The effect was displacement on a massive scale, the destruction of subsistence economies, and the creation of a landless industrial working class. The commons didn't become more productive for the people who had used them. They became more productive for the people who owned them.

The Moon isn't the English commons. No one lives there; no one will be displaced. The analogy is not about the Moon's current inhabitants, who do not exist... it's about the structure: a resource that has been, by legal treaty, a commons, being progressively re-categorized as a site for private extraction by the parties with the technological and financial capacity to extract it, while the legal framework nominally protecting its commons status is acknowledged, worked around, and treated as an inconvenience by the parties drafting the replacement norms. The structure is recognizable regardless.

The Next Decade, Honestly Mapped

If current trajectory holds, the likely arc through the mid-2030s looks something like this.

Near-term robotic missions from multiple programs will confirm the precise location and concentration of south polar ice deposits. NASA's VIPER rover was designed to do this; its timeline has slipped but the mission objective remains. China's Chang'e-7, targeting 2026, carries instruments designed for the same purpose. The data produced by these missions, particularly questions about which specific deposits are most accessible, will be commercially valuable before the first extraction machine lands.

The first in-situ resource utilization demonstrations will occur in the late 2020s, likely by NASA-contracted systems and possibly by China's program on parallel tracks. These are proof-of-concept operations, not commercial extraction. But proof of concept is the precursor to commercial license.

Based on current trajectories, the governance question won't be resolved by treaty before the first commercial extraction attempt. The political conditions for a comprehensive multilateral framework don't currently exist, and a framework built under those conditions would reflect the interests of whoever dominated its drafting, as every such framework has. The US-China geopolitical context makes the negotiating environment actively hostile. If current trends continue, the framework that emerges will be something closer to the Arctic model: competing and overlapping claims, bilateral agreements between aligned parties, managed ambiguity, and the eventual establishment of facts on the ground that the law then retrospectively accommodates.

The mechanism through which market activity produces broad benefit, rather than concentrated benefit for early movers, is governance. The governance architecture being constructed right now determines whether private lunar development resembles a competitive open market or a government-granted monopoly with preferred contractors. That distinction is real, consequential, and the current framework doesn't resolve it.

What Is Actually at Stake

The Moon's resources are finite. The water ice in permanently shadowed craters accumulated over billions of years at a deposition rate that extraction will overwhelm in short order if extraction becomes large-scale. This isn't a reason to prohibit extraction; it's a reason to think carefully about governance before the extraction begins in earnest, while the thinking still has leverage.

The question of who governs lunar resources is the question of who governs the infrastructure for deep space activity for the foreseeable future. Water ice as rocket propellant means that whoever controls south pole extraction controls, in a meaningful sense, the logistics of the entire cislunar economy: the supply lines to any future lunar base, the fuel for missions to Mars and the asteroid belt, the cost structure of any human activity beyond Earth orbit. Control of that chokepoint is the kind of structural advantage that compounds across decades.

There's a version of this that goes well. Governance frameworks are late and imperfect but functional, extraction is managed sustainably with broad benefit-sharing, and the Moon becomes what the optimists say it can be: a stepping stone for the species. There's a version where the south pole becomes the first extraterrestrial site of an established territorial fact, with two incompatible programs operating in uncomfortable proximity and the law scrambling to accommodate whatever happened. History suggests the second version is more likely when the parties authoring the governance framework are the same parties that benefit most from a permissive reading of it, a dynamic that describes the Artemis Accords' drafting process accurately.

The resources are real. The governance gap is real. The companies describing their extraction plans as a gift to humanity are real, and they have shareholders. None of this requires manufactured alarm. The situation, described accurately, is sufficient.

The Futurist Writer covers where the species is going, and tries to be useful about it.