ThermoEdge · Orbit
The thermodynamically advantaged
orbital data center.
Solar in. Heat out. Compute between.
01 · Physics-informed computing
Thermodynamically advantaged across every lever.
The orbital data center has one currency: joules per useful operation. ThermoEdge attacks the joule-sinks in the order their magnitude demands — system overhead, dynamic switching, static leakage, the Landauer floor.
Every operation runs on the substrate whose physics performs it natively. Every watt has a destination. The fabric closes the loop at every rung of the dissipation ladder.
Energy flow · one tile
Hex tile farm · planar scaling
6−degree mesh · planar farm · additive scaling
02 · Modular by design
Hex tiles. Additive scaling. Dock to grow.
Each module is a hex tile — solar on one face, radiator on the other, six EPM-docked edges, six inter-tile data paths. Add a tile, gain a node, gain a radiator, gain six routes.
The tile is the unit and the unit is the artifact. Conformations follow the orbital zone: planar farm in LEO, boom in GEO, accretion on a host vehicle. Same tile, same docking protocol, same compute.
03 · Integrated by physics
Data center and comms share an envelope.
On a small spacecraft, transmitting a bit costs more than computing one — by orders of magnitude. So the architectural answer is to compute where the data is and emit decisions, not streams.
When the data center and the comms backbone are the same hex tiles, the inter-satellite mesh is the system bus. Every tile is both compute and relay. The link budget and the joule budget land in one shape.
Orbital mesh · one envelope
compute relays · mesh routes · one downlink
04 · The science is yours to inspect
Open principles. Closed engineering.
ThermoEdge publishes the laws our architecture is built on — the dissipation ladder, the mass cascade, the link budget, the docking conformations. What stays with us is the engineering that turns them into silicon.
The levers
Physics
The single metric. The dissipation ladder. The mass cascade. The link budget. Every formula on one page.
/physics →The shape
Modular
Hex vs square. Planar vs spherical. Why the tile geometry is chosen by physics, not aesthetics. Interactive demo inside.
/modular →The network
Integrated
Why compute, comms, and storage collapse into one envelope — and what it costs not to.
/integrated →Where each pattern wins
Orbital Zones
LEO · MEO · GEO · Lagrange · cislunar. Radiation, thermal, power, link — per zone, per conformation.
/orbital-zones →
The crucible
Design once, to the vacuum limit.
Deploy the identical core everywhere easier.
A node engineered to close its energy and heat budget in orbit closes it trivially in every gentler envelope — at the harvested edge, in a sealed pod, on the side of a road.
TESilicon
The system on module that runs inside every tile — reversible logic, in-memory analog compute, unified persistent memory, on-die energy harvesting.
tesilicon.thermoedge.ai →Corridor
The same core, deployed along every American mile. Energy, compute, and communications from one integrated install on existing infrastructure.
corridor.thermoedge.ai →UDA
Unified Design Architecture — one artifact, one design, one team. The frame under which a vacuum-closing node can ship at all.
uda.thermoedge.ai →