The space competition between the United States and China is accelerating. The Artemis program has consumed more than $93 billion since 2012, and the bill continues to rise. Meanwhile, Beijing is methodically advancing toward a crewed landing before 2030, with a space budget in constant growth. “It is highly unlikely that the United States will beat China’s projected timeline” according to experts at the U.S. Senate. The Moon is no longer an exploration objective: it is the terrain of strategic competition for resources, norms, and infrastructure in cislunar space.
Artemis II marked the first human return to the Moon in 53 years and validates the technologies necessary for future permanent installations. Each Artemis launch costs more than $4 billion, placing the program among the most expensive ever attempted. The space sector in 2026 is at an inflection point: commercial entities are taking over from governments for operations in low Earth orbit and beyond.
China Accelerates American Effort
Even the most vocal advocates of the American effort now express doubts about NASA’s ability to beat China’s space agency in the race to return humans to the lunar surface. NASA Administrator Jared Isaacman declared on March 24: “The clock is ticking in this great power competition, and success or failure will be measured in months, not years.” The urgency directly responds to Chinese advances.
China is progressing on all the equipment necessary to reach the Moon, with a stated objective of crewed landing before 2030. Chinese officials reaffirmed this timeline in April 2024, noting that the “program development” for major mission components, including the Long March 10 rocket, the Mengzhou crewed spacecraft, the Lanyue lunar lander, and lunar spacesuits, was already complete.
The Chinese approach differs radically. Artemis is the product of a start-stop debate taking place within the American government since the end of Apollo in the 1970s. Objectives have changed repeatedly, often when new presidents took office. In contrast, the Chinese campaign is the product of a plan called Project 921, first backed by the Chinese Communist Party in 1992. There have been updates and some technical setbacks, but China has roughly stuck to it since then.
Chang’e 8 will test the technologies necessary to build a permanent base. The two uncrewed missions play a role in China’s plans for the International Lunar Research Station, an “experimental scientific facility composed of sections on the lunar surface, in lunar orbit, and on Earth.” The first phase of the base will be constructed by 2035 in the lunar south pole region.
The Lunar Economy Drives Investment Despite Costs
Several estimates place the size of the lunar economy over the coming decade between $8 and $10 billion per year. Governments are investing heavily in lunar programs, but we are also seeing private companies building landers, rovers, and logistics systems to support sustained lunar activity.
NASA’s Office of Inspector General calculated $4 billion as the operational cost of the Space Launch System and Orion spacecraft for a single Artemis mission. A 2021 audit placed the figure at $4.1 billion per launch, and a follow-up 2024 audit revealed that by the originally planned launch window in September 2025, NASA will have spent more than $55 billion on SLS, Orion, and its ground exploration systems combined.
Over the coming decade, the Moon will likely transition from occasional missions to permanent economic and geopolitical presence. The program irrigates the real economy well beyond launch bases. “There are 2,700 suppliers that are part of the Artemis program. That covers everything, from small family businesses manufacturing valves, nuts, washers to the largest.”
The potentially most valuable lunar resource is water ice, a chemically different resource from terrestrial ice that could be vital for human missions and installations. Found primarily at the lunar south pole, in permanently shadowed craters, the deposits could be transformed into rocket fuel and oxygen for breathing. Finding a way to efficiently extract and process this lunar ice could transform the Moon into an autonomous refueling station for deep space exploration.
Private Companies Become Space Giants
SpaceX has dramatically reduced launch costs through reusability, allowing its subsidiary Starlink to dominate satellite deployment in low Earth orbit and support orbital space tourism missions. The drop in launch costs and private innovation are making low Earth orbit a rapidly growing global market.
A decade ago, putting a satellite in orbit cost $10,000 per kilogram. SpaceX has reduced this to approximately $2,700 through reusability and operational efficiency. Now the same economic logic is hitting lunar missions. Launch costs have fallen from more than $100 million per flight to less than $70 million for some commercial rockets, and reusable boosters mean companies can fly more missions with less capital.
Intuitive Machines brought the United States back to the lunar surface in 2024 (uncrewed), the first soft American landing since Apollo 17, and did so again at the south pole in 2025. Blue Origin is preparing its Blue Moon Mark 1 lander for a technology demonstration mission. Unlike the smaller CLPS landers, Blue Moon is designed to deliver up to three metric tons of cargo to the lunar surface.
Space Geopolitics Redefines Alliances
International competition adds urgency to financial considerations. The implications of lunar leadership extend beyond national prestige. They include access to lunar resources, such as water ice locked at the lunar poles, which could be used to support a lunar base.
The United States must invest in fundamental R&D, modernize rules that hamper commercial innovation, and deepen alliances. Failing to leverage our space economy risks ceding the advantage in this era of great power competition.
The United States is restructuring its space strategy in the face of this competition. The agency suspended work on Lunar Gateway, a multinational space station intended to replace the International Space Station, to focus on a lunar base. Artemis III was moved from 2028 to 2027 but reduced to an orbital test, with Artemis IV in 2028 becoming the first landing mission.
The stakes go beyond symbolism. Daily life on Earth depends heavily on space assets — climate monitoring, communications, navigation, connectivity. On the Moon, resources (water ice convertible to fuel) and orbital positions are finite, creating direct strategic competition between Washington and Beijing.
Space Infrastructure Becomes Critical to the Terrestrial Economy
Space supports almost all critical systems we rely on. Navigation, financial transactions, communications, weather forecasting, food security, disaster response, and climate modeling all depend on satellites operating in an increasingly crowded, commercial, and strategically sensitive environment.
The emerging cislunar economy, the economy extending from low Earth orbit to the Moon and beyond, presents key opportunities in infrastructure development, satellite maintenance, and resource extraction. Governments and private companies are working to establish sustained human presence in cislunar space. This includes mining operations at the lunar poles and permanent habitats at key Lagrange points.
The economic multiplier effects are debated. Older estimates attributed to each NASA dollar a return of seven to fourteen dollars in technology transfers and new industries, but recent research strongly nuances these figures, with some economists estimating Apollo’s actual fiscal multiplier well below these optimistic assessments. Commercial space could change that: private companies optimize for profit rather than politics, which alters the structure of economic spillovers.
The best available counts place cumulative spending in the Artemis era at approximately $93 to $105 billion to date or projected through Artemis IV, while the official reported cost of the Apollo program in 1973 ($25 to $28 billion) converts to approximately $250 to $310 billion in recent inflation-adjusted dollars. Apollo benefited from rapid budget growth that at its peak pushed NASA to more than 4% of federal spending, with annual Apollo-era disbursements of approximately $40 to $42 billion in today’s dollars. Artemis, by contrast, has been funded at a much lower stable annual level, averaging approximately $6 billion per year in inflation-adjusted terms since the program directive in 2017.
Artemis II thus marks far more than a symbolic return to the Moon. Apollo proved we could go there. Artemis must prove we can stay. This will require not only new technology but a new approach to cost, partnerships, and political sustainability. Both powers have ambitious objectives, and human operations on the Moon are so complex that the race will likely last more than a decade. If the first space race was a roller coaster powered by rockets, this one could be closer to the Iditarod. An endurance race where victory will belong to whoever builds the most sustainable infrastructure and the most viable economic ecosystem around the Moon.