The space agency NASA has officially announced its intention to establish a permanent lunar outpost by 2030. This plan, analyzed in detail by Clive Neal—a geologist with 40 years of experience in lunar research and crewed flight—in a column for The Independent, suggests that implementing the project will require a fundamental rethinking of the philosophy behind space missions.

From Expeditions to Permanent Presence

The agency's strategy is based on sequential development. Following the successful lunar flyby by the Artemis II crew, scheduled for spring 2026, NASA has outlined a clear action plan. Neal draws a parallel with the historic Apollo 8 flight in 1968, calling the upcoming transit the "Artemis moment" for a new generation of explorers.

The main goal of the program is to teach humanity how to live and work effectively beyond Earth, creating a base for future missions to Mars. The ambitious plan provides for 79 launches and 73 landings on the Moon by 2036. Most missions before 2027 will be robotic; however, the agency then plans to conduct two crewed landings annually.

Neal emphasizes that building a base is a far more complex task than one-off expeditions. The agency will have to change its approach: instead of one-time spacewalks, it will need to return to the same location so that each subsequent mission builds upon the achievements of the previous one.

Criteria for Choosing the Base Location

The question of the lunar outpost's location is key. The geologist highlights several criteria that the construction site must meet:

  • Flat terrain: necessary for safe launch and landing zones for equipment.
  • Space for expansion: important for scaling infrastructure and attracting private investors.
  • Energy autonomy: requires 24/7 access to energy from solar panels, fuel cells, or nuclear fission.
  • Presence of water ice: critical for both crew life support and as raw material for producing rocket fuel.

Lunar Resources: From Helium-3 to Rare Earth Metals

According to the author, the Moon is interesting not only as a staging ground for flights but also as a source of resources for export to Earth. In particular, this refers to helium-3—an element widely distributed on Earth's satellite but rare on the planet itself. It can be used to cool quantum computers and potentially become fuel for fusion energy.

Furthermore, planetary scientists have identified locations in orbital imagery where rare earth metals may be deposited. These elements are critical for electronics, clean energy, and the defense industry. However, as Neal notes, it is currently unknown whether these reserves are sufficient or if mining them will be profitable. Scientists must determine the exact composition of the deposits and develop extraction technologies adapted to lunar conditions.

Technologies for Earth

Developing new technologies for life on the Moon could also benefit Earth itself. In particular, closed-loop waste processing systems and methods of resource extraction without using water could help solve environmental problems, such as cleaning up toxic tailings ponds after mine closures. History already knows similar precedents: the Apollo program gave the world miniaturized electronics, which later became the foundation of modern smartphones.