A real lunar base processes regolith for several outputs at once — excavation feedstock, sintered construction material, helium-3, oxygen, and propellant — all sharing one power budget. This hub models the whole system so you can see the combined economics and where the megawatts go.
It ties together the individual ISRU steps into a single dashboard: total power, mass, and annual economic value across every product stream.
Each product stream draws a characteristic share of power and yields a characteristic output per tonne processed. The hub sums those into total power draw and total mass, then values the combined output annually so you can compare a diversified operation against a single-product one.
The key insight it surfaces is balance: sintering for construction, oxygen and propellant for logistics, and helium-3 for export each compete for the same solar field, and the most valuable base is usually the one that shares power across all of them rather than maximising any single stream.
Running excavation, sintering, oxygen, propellant, and a helium-3 module together shows total economic value per year alongside the power each consumes — making clear that construction and propellant, not helium-3, usually anchor the near-term case while helium-3 rides along on shared infrastructure.
It shows the shared-power trade-off across all streams at once, which single tools can't.
Usually oxygen/propellant and construction material near-term; helium-3 is a long-shot export.
Each stream's output is multiplied by an adjustable value and summed annually.
No — transparent first-order planning estimates.
25 languages, runs in your browser.