
Space race next: US, China rushing to nuclearize the moon
In April 2025, China reportedly unveiled plans to build a nuclear power plant on the moon by 2035. This plant would support its planned international lunar research station. The United States countered in August, when acting NASA Administrator Sean Duffy reportedly suggested a US reactor would be operational on the moon by 2030.
While it might feel like a sudden sprint, this isn't exactly breaking news. NASA and the Department of Energy have spent years quietly developing small nuclear power systems to power lunar bases, mining operations and long-term habitats.
As a space lawyer focused on long-term human advancement into space, I see this not as an arms race but as a strategic infrastructure race. And in this case, infrastructure is influence.
A lunar nuclear reactor may sound dramatic, but it's neither illegal nor unprecedented. If deployed responsibly, it could allow countries to peacefully explore the moon, fuel their economic growth and test out technologies for deeper space missions. But building a reactor also raises critical questions about access and power.
Nuclear power in space isn't a new idea. Since the 1960s, the US and the Soviet Union have relied on radioisotope generators that use small amounts of radioactive elements – a type of nuclear fuel – to power satellites, Mars rovers and the Voyager probes. Nuclear energy in space isn't new – some spacecraft are nuclear-powered. This photo shows the nuclear heat source for the Mars Curiosity rover encased in a graphite shell. The fuel glows red hot because of the radioactive decay of plutonium-238. Photo: Idaho National Laboratory, CC BY
The United Nations' 1992 Principles Relevant to the Use of Nuclear Power Sources in Outer Space, a nonbinding resolution, recognizes that nuclear energy may be essential for missions where solar power is insufficient. This resolution sets guidelines for safety, transparency and international consultation.
Nothing in international law prohibits the peaceful use of nuclear power on the moon. But what matters is how countries deploy it. And the first country to succeed could shape the norms for expectations, behaviors and legal interpretations related to lunar presence and influence.
The 1967 Outer Space Treaty, ratified by all major spacefaring nations including the US, China and Russia, governs space activity. Its Article IX requires that states act with 'due regard to the corresponding interests of all other States Parties.'
That statement means if one country places a nuclear reactor on the moon, others must navigate around it, legally and physically. In effect, it draws a line on the lunar map. If the reactor anchors a larger, long-term facility, it could quietly shape what countries do and how their moves are interpreted legally, on the moon and beyond.
Other articles in the Outer Space Treaty set similar boundaries on behavior, even as they encourage cooperation. They affirm that all countries have the right to freely explore and access the moon and other celestial bodies, but they explicitly prohibit territorial claims or assertions of sovereignty.
At the same time, the treaty acknowledges that countries may establish installations such as bases — and with that, gain the power to limit access. While visits by other countries are encouraged as a transparency measure, they must be preceded by prior consultations. Effectively, this grants operators a degree of control over who can enter and when.
Building infrastructure is not staking a territorial claim. No one can own the moon, but one country setting up a reactor could shape where and how others operate – functionally, if not legally.
Building a nuclear reactor establishes a country's presence in a given area. This idea is especially important for resource-rich areas such as the lunar south pole, where ice found in perpetually shadowed craters could fuel rockets and sustain lunar bases.
These sought-after regions are scientifically vital and geopolitically sensitive, as multiple countries want to build bases or conduct research there. Building infrastructure in these areas would cement a country's ability to access the resources there and potentially exclude others from doing the same. Dark craters on the moon, parts of which are indicated here in blue, never get sunlight. Scientists think some of these permanently shadowed regions could contain water ice. Photo: NASA's Goddard Space Flight Center
Critics may worry about radiation risks. Even if designed for peaceful use and contained properly, reactors introduce new environmental and operational hazards, particularly in a dangerous setting such as space. But the UN guidelines do outline rigorous safety protocols, and following them could potentially mitigate these concerns.
The moon has little atmosphere and experiences 14-day stretches of darkness. In some shadowed craters, where ice is likely to be found, sunlight never reaches the surface at all. These issues make solar energy unreliable, if not impossible, in some of the most critical regions.
A small lunar reactor could operate continuously for a decade or more, powering habitats, rovers, 3D printers and life-support systems. Nuclear power could be the linchpin for long-term human activity. And it's not just about the moon – developing this capability is essential for missions to Mars, where solar power is even more constrained. The U.N. Committee on the Peaceful Uses of Outer Space sets guidelines to govern how countries act in outer space. Photo: United States Mission to International Organizations in Vienna, CC BY-NC-ND
The United States has an opportunity to lead not just in technology but in governance. If it commits to sharing its plans publicly, following Article IX of the Outer Space Treaty and reaffirming a commitment to peaceful use and international participation, it will encourage other countries to do the same.
The future of the Moon won't be determined by who plants the most flags. It will be determined by who builds what and how. Nuclear power may be essential for that future. Building transparently and in line with international guidelines would allow countries to more safely realize that future.
A reactor on the Moon isn't a territorial claim or a declaration of war. But it is infrastructure. And infrastructure will be how countries display power – of all kinds – in the next era of space exploration.
Michelle L D Hanlon is professor of Air and Space Law, University of Mississippi
This article is republished from The Conversation under a Creative Commons license. Read the original article.
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AllAfrica
3 days ago
- AllAfrica
Space race next: US, China rushing to nuclearize the moon
The first space race was about flags and footprints. Now, decades later, landing on the moon is old news. The new race is to build there, and doing so hinges on power. In April 2025, China reportedly unveiled plans to build a nuclear power plant on the moon by 2035. This plant would support its planned international lunar research station. The United States countered in August, when acting NASA Administrator Sean Duffy reportedly suggested a US reactor would be operational on the moon by 2030. While it might feel like a sudden sprint, this isn't exactly breaking news. NASA and the Department of Energy have spent years quietly developing small nuclear power systems to power lunar bases, mining operations and long-term habitats. As a space lawyer focused on long-term human advancement into space, I see this not as an arms race but as a strategic infrastructure race. And in this case, infrastructure is influence. A lunar nuclear reactor may sound dramatic, but it's neither illegal nor unprecedented. If deployed responsibly, it could allow countries to peacefully explore the moon, fuel their economic growth and test out technologies for deeper space missions. But building a reactor also raises critical questions about access and power. Nuclear power in space isn't a new idea. Since the 1960s, the US and the Soviet Union have relied on radioisotope generators that use small amounts of radioactive elements – a type of nuclear fuel – to power satellites, Mars rovers and the Voyager probes. Nuclear energy in space isn't new – some spacecraft are nuclear-powered. This photo shows the nuclear heat source for the Mars Curiosity rover encased in a graphite shell. The fuel glows red hot because of the radioactive decay of plutonium-238. Photo: Idaho National Laboratory, CC BY The United Nations' 1992 Principles Relevant to the Use of Nuclear Power Sources in Outer Space, a nonbinding resolution, recognizes that nuclear energy may be essential for missions where solar power is insufficient. This resolution sets guidelines for safety, transparency and international consultation. Nothing in international law prohibits the peaceful use of nuclear power on the moon. But what matters is how countries deploy it. And the first country to succeed could shape the norms for expectations, behaviors and legal interpretations related to lunar presence and influence. The 1967 Outer Space Treaty, ratified by all major spacefaring nations including the US, China and Russia, governs space activity. Its Article IX requires that states act with 'due regard to the corresponding interests of all other States Parties.' That statement means if one country places a nuclear reactor on the moon, others must navigate around it, legally and physically. In effect, it draws a line on the lunar map. If the reactor anchors a larger, long-term facility, it could quietly shape what countries do and how their moves are interpreted legally, on the moon and beyond. Other articles in the Outer Space Treaty set similar boundaries on behavior, even as they encourage cooperation. They affirm that all countries have the right to freely explore and access the moon and other celestial bodies, but they explicitly prohibit territorial claims or assertions of sovereignty. At the same time, the treaty acknowledges that countries may establish installations such as bases — and with that, gain the power to limit access. While visits by other countries are encouraged as a transparency measure, they must be preceded by prior consultations. Effectively, this grants operators a degree of control over who can enter and when. Building infrastructure is not staking a territorial claim. No one can own the moon, but one country setting up a reactor could shape where and how others operate – functionally, if not legally. Building a nuclear reactor establishes a country's presence in a given area. This idea is especially important for resource-rich areas such as the lunar south pole, where ice found in perpetually shadowed craters could fuel rockets and sustain lunar bases. These sought-after regions are scientifically vital and geopolitically sensitive, as multiple countries want to build bases or conduct research there. Building infrastructure in these areas would cement a country's ability to access the resources there and potentially exclude others from doing the same. Dark craters on the moon, parts of which are indicated here in blue, never get sunlight. Scientists think some of these permanently shadowed regions could contain water ice. Photo: NASA's Goddard Space Flight Center Critics may worry about radiation risks. Even if designed for peaceful use and contained properly, reactors introduce new environmental and operational hazards, particularly in a dangerous setting such as space. But the UN guidelines do outline rigorous safety protocols, and following them could potentially mitigate these concerns. The moon has little atmosphere and experiences 14-day stretches of darkness. In some shadowed craters, where ice is likely to be found, sunlight never reaches the surface at all. These issues make solar energy unreliable, if not impossible, in some of the most critical regions. A small lunar reactor could operate continuously for a decade or more, powering habitats, rovers, 3D printers and life-support systems. Nuclear power could be the linchpin for long-term human activity. And it's not just about the moon – developing this capability is essential for missions to Mars, where solar power is even more constrained. The U.N. Committee on the Peaceful Uses of Outer Space sets guidelines to govern how countries act in outer space. Photo: United States Mission to International Organizations in Vienna, CC BY-NC-ND The United States has an opportunity to lead not just in technology but in governance. If it commits to sharing its plans publicly, following Article IX of the Outer Space Treaty and reaffirming a commitment to peaceful use and international participation, it will encourage other countries to do the same. The future of the Moon won't be determined by who plants the most flags. It will be determined by who builds what and how. Nuclear power may be essential for that future. Building transparently and in line with international guidelines would allow countries to more safely realize that future. A reactor on the Moon isn't a territorial claim or a declaration of war. But it is infrastructure. And infrastructure will be how countries display power – of all kinds – in the next era of space exploration. Michelle L D Hanlon is professor of Air and Space Law, University of Mississippi This article is republished from The Conversation under a Creative Commons license. Read the original article.


RTHK
6 days ago
- RTHK
Apollo 13 astronaut Jim Lovell dies at 97
Apollo 13 astronaut Jim Lovell dies at 97 Lovell was considered one of the greats of the US lunar space programme. File photo: AFP US astronaut Jim Lovell, the commander of the Apollo 13 mission to the Moon which nearly ended in disaster in 1970 after a mid-flight explosion, has died at the age of 97, Nasa announced Friday. Lovell, who was played by actor Tom Hanks in the 1995 movie "Apollo 13," never made it to the lunar surface, but was considered one of the greats of the US lunar space programme. "NASA sends its condolences to the family of Capt. Jim Lovell, whose life and work inspired millions of people across the decades," the US space agency said in a statement, adding that the astronaut died on Thursday in a Chicago suburb. Launched on April 11, 1970 -- nine months after Neil Armstrong became the first person to walk on the Moon -- Apollo 13 was intended to be humanity's third lunar landing. However, an oxygen tank exploded on the way there. The disaster prompted Lovell's crewmate Jack Swigert to famously tell mission control: "Houston, we've had a problem." Lovell then repeated the phrase, according to Nasa. A chaotic space odyssey ensued, during which the United States followed along on the ground, fearing losing its first astronauts in space. But the leadership of Lovell, who was nicknamed "Smilin' Jim" by his fellow astronauts, to get his crew home safely to Earth earned him widespread praise. Lovell's "character and steadfast courage helped our nation reach the Moon and turned a potential tragedy into a success from which we learned an enormous amount," NASA said. Lovell was also one of three astronauts who became the first people to orbit the Moon during the Apollo 8 mission in 1968, paving the way for a lunar landing, NASA said. (AFP)


South China Morning Post
6 days ago
- South China Morning Post
Apollo 13 commander James Lovell dies at 97
James Lovell, the pioneering US astronaut whose two dramatic missions to the moon included Apollo 13, the nearly disastrous trip that captivated the world and decades later inspired a triumphant Hollywood blockbuster, has died. He was 97. Advertisement He died on August 7 in Lake Forest, Illinois, the National Aeronautics and Space Administration announced, without citing a cause. A member of Nasa's second astronaut class, Lovell made history repeatedly during the heyday of the US space programme, notching the first rendezvous with a crewed spacecraft; the longest American space flight of the 1960s, in Gemini 7; and the first lunar mission, the Apollo 8 orbital journey that captured the iconic image of a blue-and-white Earth suspended against lonely, black emptiness. His two trips during the Gemini programme and two more in Apollo capsules made him the first person to fly into space on four separate occasions and the first to fly twice to the moon. His 29-plus days in space were the most of any American until the shuttle began roaring into low Earth orbit in the 1980s. Advertisement The most riveting moments of Lovell's astronaut career came during the Apollo 13 accident, a four-day drama that unspooled while Nasa worked feverishly to bring the three-man crew home and a global audience pondered the awful prospect that they might be stranded on a one-way trip. The Apollo 13 mission 'was a disappointment, it was a failure', Lovell said in a 2002 interview with Charlie Rose.