Sovereign Agentics

Sovereign Agentics.

Abundant cheap energy is the lever for computation, industry, and spaceflight, and these pages put the assumptions where a reader can change them.

Independent publisher. First-order models, not engineering or investment sign-off. Not affiliated with SpaceX, NASA, or any agency.

Worked case

100 MW AI campus, base case: 100.0 MW facility, $687.3M solar-plus-storage capex, $0.414 per million tokens at the energy floor.

First-order estimates, not a bid. Not an engineering or investment sign-off.

A second door is lunar cargo, lunar dollars per kilogram, and fleet size.

Mare regolith at 4–20 ppb. At 8 ppb, one kilogram of helium-3 implies heating about 125,000 tonnes of dirt.

A 1.2 kW GPU at 60 tok/s and PUE 1.25 uses 6.9 Wh per 1,000 tokens — electricity at $0.42 per million, hardware more.

Rack watts times PUE, from a single aisle to a campus. The load you actually have, written as facility megawatts.

A 100 MW 24/7 load at CF 0.25 needs about 400 MW of nameplate plus night storage. The overbuild is the story.

Terawatts, capacity factor, land, and overbuild. Planetary scale with the same first-order model as a campus.

No night, no clouds, a beaming problem, and a launch bill. When the watts should stay in orbit.

Payload, tanker ratio, and a launch window. Fleet size is cargo divided by payload, then multiplied by the tankers.

Expendable chemical delivery versus a mass driver that spreads capex over tonnes. The contrast is the argument.

Lunar escape is about 2.38 km/s. Track length, g-load, and the electrical energy in ½mv².

Oxygen from regolith, polar ice, and which process to run first when power is the scarce input.

The suite of energy, data-center, lunar, and orbital calculators. Assumptions on the page.

One 100 MW campus scenario, six models, one registry. Copy a brief. Change a constant.

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