Interlune Interlune is one of the few lunar startups with a product thesis tied to a named Earth customer need. Helium-3 is scarce on Earth and useful for dilution refrigerators in quantum computing, neutron detection, research, and other high-value uses. The company is not asking customers to wait for a full lunar economy before buying. It is arguing that one isotope can justify the first resource supply chain. The Seattle startup has NASA support, government funding, and nearly $500 million in helium-3 purchase agreements. Now it has to prove Moon resources can become a supply business. AI-generated image Editorial visualization of a lunar helium-3 harvesting system. Key Stats 2020 Founded $6.9M NASA Contract ~$500M Purchase Agreements 2028 Target Demo Why Interlune Matters Now Interlune is one of the few lunar startups with a product thesis tied to a named Earth customer need. Helium-3 is scarce on Earth and useful for dilution refrigerators in quantum computing, neutron detection, research, and other high-value uses. The company is not asking customers to wait for a full lunar economy before buying. It is arguing that one isotope can justify the first resource supply chain. That makes Interlune different from companies selling broad lunar mining dreams. The company has said it has nearly $500 million in binding purchase agreements, including demand connected to the U.S. Department of Energy and quantum refrigeration companies. Those agreements do not remove mission risk, but they make the business case more concrete than most resource pitches. The company was founded by former Blue Origin president Rob Meyerson, Apollo 17 astronaut Harrison Schmitt, Gary Lai, Sonny White, and Indra Hornsby. That mix gives it aerospace operations experience, lunar science credibility, and technical depth. The founding team matters because lunar resource extraction is not a software market. It requires systems engineering under brutal constraints. The strategic reason to watch Interlune is simple. If it works, the Moon becomes more than a destination for government payloads. It becomes a source of exported value. That would change the way investors, launch providers, lander companies, and national space agencies think about cislunar infrastructure. The Product: Helium-3 From Regolith Interlune’s plan centers on harvesting helium-3 implanted in lunar regolith by the solar wind. The material is distributed at low concentration, so the business depends on processing large amounts of soil efficiently. The machine has to excavate, heat, extract, separate, store, and prepare gas for transport without the support network available in terrestrial mining. The company has described the work as harvesting rather than ordinary mining. That framing matters because the system is less about digging pits and more about high-throughput regolith handling, thermal processing, gas separation, and logistics. Every kilogram landed on the Moon has a cost. Every watt used by the harvester competes with other mission needs. Interlune said in July 2026 that it produced pure helium-3 from domestic helium using a Cold Capture process intended for the Moon. That is not the same as extracting helium-3 from lunar soil, but it is a meaningful maturation step. It lets the company validate separation and capture techniques on Earth before adding lunar excavation and return transport to the problem. NASA’s $6.9 million lunar resource development contract gives the company a structured external milestone. NASA funding does not guarantee commercial success. It does show that the technology sits inside an exploration need the agency takes seriously. Customers, Contracts, and Funding The nearly $500 million purchase-agreement figure is the strongest demand signal. Public company statements and reporting have connected Interlune’s customer base to quantum refrigeration, including Bluefors and Maybell Quantum, plus government demand. Quantum systems can require helium-3 for ultra-low-temperature operation, and supply scarcity can become a direct scaling constraint. Interlune has raised about $23 million in venture capital and secured roughly $18 million in non-dilutive support from government and related sources. Those numbers are modest for a company proposing lunar resource extraction. They should be read as technology maturation capital, not full industrial deployment money. That capital strategy is reasonable. The company needs to prove specific subsystems before funding a complete lunar production architecture. Investors should want evidence from capture tests, regolith simulant work, terrestrial separation, lander integration, and return logistics before assigning value to a mature mining operation. The customer contracts also shape engineering. A buyer needs purity, volume, delivery timing, packaging, and documentation. Interlune cannot design for a headline alone. It has to design for an isotope supply chain that an Earth customer can actually receive and use. Partnerships and Mission Architecture Interlune cannot own every layer of the mission stack at this stage. It will need launch partners, lunar delivery providers, surface equipment expertise, return transportation, Earth recovery, gas handling, and customer acceptance procedures. The business becomes more plausible if each layer can be bought from a maturing cislunar ecosystem instead of invented from scratch. The Vermeer relationship is useful because material handling is a real industrial discipline. Lunar equipment will not be a standard construction machine, but the habit of thinking in throughput, maintenance, abrasion, power, and uptime is valuable. Mining economics depend on volume moved, not only on rover mobility. Return logistics may be the hardest commercial question. It is not enough to collect gas on the Moon. The product has to be packaged, launched from the surface, returned to Earth, recovered safely, and delivered into a regulated high-value supply chain. Each stage adds cost and risk. That is why the first demonstration architecture deserves close scrutiny. A strong plan will define what is being proven, how much regolith is processed, what purity target matters, what return path is used, and how the data reduces risk for the next mission. The Cislunar Readout Interlune is important because it tests a central claim behind cislunar economics: that infrastructure follows repeat activity, and repeat activity follows value. Payload delivery alone can create a service market, but resource export would create a stronger reason to return. If helium-3 becomes commercially deliverable, it could pull launch, landing, power, robotics, communications, and return systems along with it. Failure would also teach the market something. If helium-3 is too diffuse, extraction too power-hungry, return logistics too costly, or customer delivery too hard, lunar resource economics will look weaker even for a high-value isotope. That would not end lunar development, but it would force a more sober view of timing. The best stance is disciplined interest. Interlune has real founders, customer agreements, NASA support, and credible technical milestones. It also faces an operating environment that punishes optimism. The Moon is cold, dusty, distant, and expensive. A company that can make money there deserves attention. The next two years should therefore be judged by evidence, not theme. Watch for partner names, payload bookings, harvester throughput, return architecture, customer validation, and more purchase agreements from buyers that understand helium-3. Competitive Map Company Core Bet 2026 Test Interlune Lunar helium-3 harvesting Prove extraction and return logistics ispace Lunar delivery Build repeat lander cadence Astrobotic CLPS landers Rebuild confidence after Peregrine OffWorld Mining robots Adapt autonomy to space resources Operating Readout The most important commercial signal is repeatability. A company can win attention with one proto