Pigeon SAMLLC / system
Open notebook

The idea farm.

Things we are thinking about. Some of these will become products. Most will be wrong in interesting ways. We publish them because thinking out loud is how the work gets better.


2026-04-30
Concept

Lunar industrial ecosystem: constraint reframing as manufacturing strategy

What if vacuum is not an obstacle but a free processing environment? A closed-loop industrial concept where oxygen is a smelting byproduct that becomes life support, cold welding is a joining method instead of a failure mode, lava tubes are factory floors, and maglev track doubles as a microwave power waveguide. Every byproduct feeds another process. True waste approaches zero.

Executive brief

Problem: Every lunar architecture proposal treats the Moon as Earth-but-harder — importing terrestrial assumptions about atmosphere, gravity, and thermal management. This inverts the approach: vacuum, low gravity, and extreme thermal gradients are not obstacles to mitigate but free processing environments to exploit.

Core insight: Regolith smelting produces oxygen as a byproduct. That oxygen becomes life support. The slag becomes construction material. Solar concentration in vacuum requires no atmosphere correction. Cold welding — a failure mode in every spacecraft engineer’s nightmare — becomes the primary joining method when you control the surfaces. Lava tubes provide pre-built radiation shielding and thermal mass. Maglev track in vacuum encounters zero air resistance and doubles as a waveguide for microwave power transmission from solar farms on the crater rim.

Architecture: A three-zone layout — surface (solar collection + landing pads), tube (habitation + manufacturing), and subsurface (storage + thermal regulation). Every process output feeds another process input. The only external dependency is initial seed equipment and the solar flux.

Why it matters: A self-sustaining lunar industrial base changes the economics of everything beyond LEO. Launch costs become seed costs, not operational costs. The Moon becomes a construction yard, not a destination.

space manufacturing closed-loop infrastructure
2026-04-30
Spec

SFC-100: a space-rated fiber optic connector that replaces copper

A V-cone expanded-beam connector with GRIN collimating lenses, zirconia ferrule inserts, and 24-position configurable keying. Single copper gasket seal, nitrogen purge for ground handling, vacuum-native on orbit. Four multimode fibers in a diamond pattern — two primary, two redundant. Procurement package ready for prototype build.

Executive brief

Problem: Every spacecraft connector in production uses copper contacts designed for atmospheric environments. In vacuum, copper outgasses, thermal cycling fatigues solder joints, and EMI shielding adds mass that compounds across thousands of connections per vehicle. Fiber optic alternatives exist but are fragile, alignment-critical, and have no configurable keying standard.

Solution: The SFC-100 is an expanded-beam fiber optic connector with a V-cone alignment geometry that self-centers on mate. GRIN (gradient-index) collimating lenses expand the beam to 1mm diameter at the interface — eliminating the sub-micron alignment tolerance that makes traditional fiber connectors impractical for field assembly. Zirconia ferrule inserts survive thermal cycling from -180°C to +150°C. A single copper gasket provides the hermetic seal (one metal surface, not dozens of pins). 24-position configurable keying prevents cross-mating across an entire vehicle harness.

Performance: Four multimode fibers in a diamond pattern — two primary, two redundant. Each fiber carries 10× the bandwidth of the copper pair it replaces at 1/8th the mass. The expanded beam design tolerates 50µm of lateral misalignment and 2° of angular error — field-mateable with gloved hands in EVA conditions.

Status: Procurement package and spec sheet (Rev E) complete. Ready for prototype fabrication.

hardware optics space connector
2026-04-20
Working theory

Village: teaching community before economy

What if kids learned how communities work by building one? A first-person village simulator where foundations come before buildings, resilience comes before growth, and every system — water, food, shelter, paths, repair — teaches interdependence through play. Connected across edge devices so each child owns their plot and learns that a healthy community is built from shared systems, not individual ambition.

Executive brief

Problem: Every educational game teaches either individual skill (math drills, puzzle solving) or competitive economics (tycoon games, trading simulators). None teach the thing that actually makes civilization work: interdependent systems maintained by a community. Kids learn to optimize for personal score, not for collective resilience.

Concept: Village is a first-person building game where a child manages one plot in a shared world. The game enforces physical reality: water flows downhill, crops need irrigation, buildings need foundations, paths connect neighbors. You can’t build a roof without walls. You can’t grow food without water infrastructure that your neighbor helped build. The game teaches — through mechanics, not lectures — that a working community is a network of shared systems.

Architecture: Each child’s Coop device hosts their plot. Plots connect over the Lattice network with BFT-validated state — so no child can cheat their neighbor’s resources. The physics engine runs on the server (Godot headless on Coop hardware), streamed to the client. An AI coach (Socratic, never directive) asks questions when a child gets stuck: “What does your village need before it can grow?”

Why it matters: The game is a Trojan horse for the entire Lattice stack — identity (each child has an NFT), consensus (shared world state), sovereignty (own your plot), and hardware (Coop as the platform). It’s also, genuinely, the game we wish existed for our own kids.

education game resilience sovereignty
Briefings

Pitch decks

New entries roughly twice a month.