Frequently Asked Questions

A self-bootstrapping orbital manufacturing venture targeting Earth-Sun L4 — a gravitationally stable point in Earth's orbit, 60° ahead of Earth. The core concept: land a single seed factory on a C-type asteroid, process the asteroid's own material into the tools and structures needed to build a full-scale factory, and scale up from there. The factory mines, refines, and manufactures everything from radiation-hardened diamond semiconductors to graphene to structural materials — using sunlight and asteroid feedstock, not resupply from Earth.

L4 is gravitationally stable — material naturally collects there, which is why asteroids (Trojans) are found at the equivalent points around other planets too. It offers continuous, unobstructed sunlight, no atmosphere, no gravity well to fight, and genuine asteroid-belt-class material to work with — XL5, the primary target, is a real, catalogued 1.18km C-type Earth Trojan, not a hypothetical body.

Both, by design. The underlying physics, chemistry, and materials science behind every system — CVD diamond fabrication, graphene production, radiation-hard electronics, orbital mechanics — are real, sourced, and checked against published research wherever possible. Where something is genuinely unverified or speculative, the engineering documentation says so explicitly rather than presenting it as settled. 400 patent claims have been filed on the resulting inventions, with a priority date of March 22, 2026.

$2.5B USD investment, full return within 24 months of L4 arrival, plus a perpetual 50% discount on all products. No equity, no SAFE, no convertible notes.

Outreach is active and ongoing across multiple channels, including government and institutional contacts. Specifics are shared directly with serious counterparties rather than published here — if you're evaluating the project, reach out directly.

Yes, under executed NDA. The full engineering documentation covers the complete factory architecture in detail — manufacturing processes, drone fleet design, power systems, and the underlying physics and chemistry behind each.

Silicon-based electronics fail under sustained radiation exposure — a real, serious problem for any spacecraft or orbital hardware. CVD diamond has a much wider bandgap, far higher breakdown voltage, and tolerates extreme temperature swings silicon can't survive. The DRAD chip family is built on exactly this principle — diamond substrate, radiation-hard by physics rather than by added shielding.

Manufactured on-site from asteroid-sourced carbon, using a continuous open-frame CVD process — copper foil drawn through a heated zone, methane (synthesized locally via the Sabatier process) decomposing onto the copper surface, graphene forming as a self-limiting monolayer. The copper substrate is reused in a closed loop rather than consumed.

A staged hierarchy: fusion as the long-term primary source, with mirror-cascade solar concentration and locally-produced GaAs photovoltaic film bridging the gap until fusion comes online. The same staged approach extends to planned Mars and outer-system operations.

Engineering lead time plus transit is estimated at 2–3 years from funding to L4 arrival, accounting for procurement, integration, and a conservative transit estimate. Much of the core engineering work is already complete, which compresses the schedule relative to a typical from-scratch aerospace program.

Chip production begins within days of arrival, using seed-ship hardware and the first processed asteroid material. Full-scale graphene and structural material production scales up over the following months as the factory builds out its own equipment from local feedstock — the entire point of the self-bootstrapping approach.