The Orbital Data Infrastructure

Researching the transition of global computing to space: powered by infinite solar, cooled by the void, and enabled by the next generation of heavy-lift launch.

Power Delta

+35% Intensity

Latency (LEO)

< 15 ms

Launch Price

$200 / kg

The Problem: Terrestrial Caps

Data centers currently consume nearly **3% of global electricity**. On the current trajectory of AI training (demanding 10x compute every 18 months), we will reach a "Thermodynamic Wall" where the cost of cooling on Earth exceeds the value of the computation.

Critical Insight: Moving compute to space isn't just about efficiency; it's about avoiding the 40% energy waste inherent in terrestrial AC systems.

The Solution: Orbit

By utilizing Sun-Synchronous Orbits and passive radiative cooling, orbital data centers achieve a near-perfect PUE of 1.05. This eliminates the need for Earth's freshwater and local power grids.

Thermodynamics: Earth vs Space

Projected Global Compute Demand

Cooling Efficiency (PUE)

Terrestrial (Fans/AC)

1.58

Orbital (Radiative)

1.05

Orbital Dynamics Simulator

Dawn-Dusk synchronization for 24/7 solar uptime.

Signal Latency:3.3 ms
Solar Uptime:66%

The Space Cloud Race

The Enabler Layer

SpaceX (Starlink)

The vertical stack of compute: Launch (Starship) + Network (Laser Links) + Platform (Starshield). SpaceX owns the only infrastructure capable of massive orbital server deployment.

LIFELINE EDGE-AI

Market Specialists

EU Project ASCEND

Studying 200MW clusters to bypass European energy grid constraints. Aiming for sovereign green cloud clusters.

Lonestar Data

Disaster recovery in Lunar lava tubes. The "Global Reset" backup for human data civilization.

Microsoft Azure Space

Edge compute for real-time Earth Observation processing. Shrinking the data from petabytes to kilobytes in-situ.

xAI / Colossus

Potential client for space-training. Moving the massive AI heat load off-planet to scale intelligence indefinitely.

The "Starship Effect" on Strategy

100T

Payload to LEO

Allows for heavy lead/water radiation shielding and full-sized server racks.

$20M

Internal Launch Cost

Makes the capital expenditure of space lower than terrestrial land acquisition.

Daily

Flight Cadence

Enables rapid hardware replacement Cycles (Moore's Law integration).

Economic Viability

Launch Cost Disruption (Log Scale)

Cumulative 10-Year TCO Analysis