The 2025 Lunar Scoreboard

2025 was the most active year for lunar missions since the Apollo era. Multiple commercial landers reached the surface β€” some successfully, others less so β€” but the sheer volume of attempts signals that the infrastructure for a permanent lunar presence is being built in real time.

The pattern is clear: landing on the Moon is getting normalized, even if it remains difficult. Each attempt β€” success or failure β€” generates engineering data that makes the next one more likely to succeed.

Artemis II: The Countdown Begins

On January 16, NASA announced that the Artemis II rocket would roll out to Kennedy Space Center the following day. The mission β€” a 10-day crewed flight around the Moon without landing β€” will be the first time humans have traveled beyond low Earth orbit since Apollo 17 in 1972.

Launch is targeted for early March 2026. The crew of four will loop around the Moon, testing the Orion spacecraft's life support systems and navigation in deep space. While Artemis II won't land, it's the critical precursor to Artemis III β€” the mission that will return astronauts to the lunar surface.

Interlune's Quiet Momentum

While the landing missions grabbed headlines, Interlune continued building the most credible lunar mining operation. The company's Helium-3 harvester β€” tested in parabolic flight and on Earth β€” is being refined based on 2025 test data. Their multispectral camera, scheduled to launch to the lunar surface in July 2026, will characterize regolith composition at prospective mining sites.

Interlune also secured a new round of funding, bringing total investment to over $20 million. The company's resource development mission in 2027 remains on track β€” making it potentially the first dedicated lunar mining mission in history.

The Private Lander Pipeline for 2026

The next 12 months promise an even busier lunar calendar:

What It Means for Mining

Every successful landing reduces the cost per kilogram of delivering equipment to the lunar surface. Every new lander design creates options for where and how mining hardware can be deployed. The 2025 results β€” even the failures β€” accelerate the timeline for commercial resource extraction.

The bottleneck is no longer "can we get there?" It's shifting to "can we operate continuously once we arrive?" That's a fundamentally different engineering problem, and it's the one the mining industry needs to solve next.

Sources

  1. Open Lunar Foundation β€” "Achievements and shortfalls in global lunar exploration in 2025", Jan 2026
  2. Wikipedia β€” "Artemis II"
  3. SpaceNews β€” "Interlune plans to gather scarce lunar Helium-3", Jan 2025
  4. NASA β€” "NASA Receives Data from IM-2", Mar 2025
  5. Intuitive Machines β€” "IM-3 Lunar Mission"
  6. Spaceflight Now β€” "ispace crash", Jun 2025