Sustainable resource extraction for the cis-lunar economy.
View ProspectusWe are looking up.
Earth is finite. The Moon is the gateway to the solar system. Regolith Mining Corp is dedicated to the exploration, categorization, and eventual extraction of Helium-3 and rare earth metals from the lunar surface.
We believe that heavy industry belongs in orbit, preserving Earth as a garden while we harvest the dead rocks of the moon to power our future.
Remote spectral analysis of the South Pole-Aitken basin.
Deployment of autonomous rovers for regolith sifting samples.
In-situ resource utilization (ISRU) tests and oxygen generation.
Extracting oxygen from lunar soil via molten regolith electrolysis. NASA has demonstrated >20% oxygen yield per gram of regolith in vacuum conditions (Sanders, 2025).
Robotic drilling and thermal extraction of water ice from permanently shadowed craters. Estimated 600M–10B metric tons at the lunar poles (NASA LCROSS, 2009).
Concentrated sunlight fuses loose regolith into solid building materials and landing pads — no imported binders needed. ESA and DLR have demonstrated the process with lunar simulant.
Estimated total reserve values based on published research and market data.
| Resource | Low Est. | Mid Est. | High Est. | Key Source |
|---|---|---|---|---|
| Helium-3 | $1.3T | $3.5T | $20T | Schmitt & Kulcinski; Interlune |
| Rare Earth Elements | $100B | $300B | $500B | USGS (2025); Metzger (2017) |
| Titanium (Ilmenite) | $50B | $150B | $300B | Apollo sample analysis; USGS |
| Water Ice | $50B | $200B | $500B | Sowers et al. (2019); NASA JPL |
| Total Estimated Reserves | $1.5T | $4.2T | $21.3T | Average of estimates |
Values represent estimated total extractable reserves based on published research, not annual production. Helium-3 valuations assume viable D-³He fusion technology. Range reflects uncertainty in extraction costs and market development. See references below.
Space mining is a capital-intensive, century-long play. We are accepting inquiries from accredited institutional partners.
Request DeckInsights from the frontier of lunar industrialization.
NASA cancels SLS Block 1B, inserts a new LEO docking mission as Artemis 3, and pushes the first crewed landing to 2028. The logic: fly more, take smaller steps, beat China.
NASA targets March 6 for launch. Interlune wins NASA excavator contract. China's Chang'e 7 and India's south pole site selection advance the global lunar mining race.
Six landing attempts, two successes, and a fundamentally changed landscape. Artemis II approaches, and the private sector proves it can reach the Moon.
As nations converge on the lunar south pole, the absence of clear international mining rules becomes urgent. Plus: the CLPS scoreboard and competing lander designs.
Standing on the shoulders of giants.
Decades of lunar exploration data, mission architecture, and materials science research form the foundation of modern space industrialization. The Apollo program's legacy continues to guide commercial lunar operations.
Reusable launch systems and point-to-point space transport have dramatically reduced the cost of payload delivery. This infrastructure makes lunar mining economically feasible and enables sustained off-world operations.
Inquiries from institutional partners, researchers, and press.