Earth viewed from orbit with a global satellite network
Off-World Compute Infrastructure

Building the Digital Infrastructure Beyond Earth

Sterling Orbital is developing next-generation orbital computing platforms, space-based data centres, and cislunar network infrastructure designed for the future of artificial intelligence, communications, and humanity's expansion beyond Earth.

Generation I

LEO Compute Infrastructure

In Research

Orbital AI Processing

Roadmap 2032

Cislunar Connectivity

7,534

Total Launches · All Nations · Live

Live launch activity

The world's orbital tempo, in real time.

A live picture of humanity's launch cadence across every spacefaring nation — total launches recorded since the start of the space age, the next missions on the manifest, and the local time at the world's primary spaceports.

Total orbital & suborbital launches
7,534
All countries · all time · source: The Space Devs — Launch Library 2 (cached)
Local time at primary spaceports
KSCGMT-4
04:34:04
Cape Canaveral
USA · Wed 17 Jun
VBGGMT-7
01:34:04
Vandenberg SFB
USA · Wed 17 Jun
BAIGMT+5
13:34:04
Baikonur Cosmodrome
Kazakhstan · Wed 17 Jun
PLEGMT+3
11:34:04
Plesetsk Cosmodrome
Russia · Wed 17 Jun
CSGGMT-3
05:34:04
Guiana Space Centre
French Guiana · Wed 17 Jun
WCHGMT+8
16:34:04
Wenchang Spaceport
China · Wed 17 Jun
JIUGMT+8
16:34:04
Jiuquan SLC
China · Wed 17 Jun
TANGMT+9
17:34:04
Tanegashima Space Center
Japan · Wed 17 Jun
SHAGMT+5:30
14:04:04
Satish Dhawan SC
India · Wed 17 Jun
MAHGMT+12
20:34:04
Mahia Peninsula
New Zealand · Wed 17 Jun

Data refreshed Wed, 17 Jun 2026 08:34:04 GMT · auto-updating

Why Space Compute

Earth-based infrastructure is reaching its limits.

The exponential growth of artificial intelligence is creating unprecedented demand for energy, cooling, secure compute capacity, data sovereignty, and global connectivity. Orbital data centres open a new frontier.

Unlimited solar energy

Continuous power generation in orbital environments.

Passive space cooling

Radiate heat directly into the vacuum of space.

Global coverage

Serve any region of the planet from above.

Reduced terrestrial constraints

Free from land, water, and grid limitations.

Resilient infrastructure

Distributed by design, survivable by architecture.

Lunar economy integration

Forward-compatible with cislunar expansion.

Orbital Data Centres

Data centres without borders.

Sterling Orbital's long-term roadmap deploys generational platforms — from early Earth-connected nodes to a fully cislunar compute fabric.

1

Gen I

Earth-connected orbital processing nodes

Distributed compute modules integrated with terrestrial networks.

2

Gen II

Autonomous AI compute satellites

Self-managing inference and training clusters operating in LEO.

3

Gen III

Orbital server constellations

Mesh-networked server fabric spanning multiple orbital regimes.

4

Gen IV

Moon-connected cislunar infrastructure

Compute and storage tied into lunar gateway and surface assets.

Orbital data centre satellite with server racks and solar arrays

Space-Hardened Compute

AI Processing Modules

Optical Communications

Quantum-Secure Networks

Autonomous Operations

Edge Computing From Orbit

Cislunar Networks

The internet between worlds.

Future human activity will extend beyond Earth orbit. Sterling Orbital is researching the network infrastructure required to connect Earth, LEO, MEO, GEO, the lunar gateway, and the Moon.

Network Stack

Earth → Moon

GND

Earth

Ground stations and terrestrial backbone

LEO

LEO

Low Earth Orbit · 200–2,000 km

MEO

MEO

Medium Earth Orbit · 2,000–35,786 km

GEO

GEO

Geostationary Orbit · 35,786 km

GTW

Lunar Gateway

Cislunar relay infrastructure

MOON

Moon

Lunar surface networks

Cislunar network visualization showing Earth, orbital rings, satellites, and the Moon
Earth ↔ Orbit comms
Satellite-to-satellite mesh
Lunar gateway
Moon-surface networks
Autonomous robotics
Space economy
AI in Space

Artificial intelligence needs a new frontier.

The next generation of AI requires massive compute, energy-efficient infrastructure, low-latency global deployment, and secure sovereign environments. Sterling Orbital's vision is orbital AI infrastructure built for this scale.

AI model processing
Scientific simulation
Earth observation analytics
Defence applications
Climate modelling
Autonomous spacecraft

Partnership

Partner in the Next Infrastructure Frontier.

Sterling Orbital is seeking aerospace primes, cloud providers, AI laboratories, satellite manufacturers, and sovereign institutions to co-develop the foundational layer of off-world digital infrastructure.

Technology Roadmap

A decade-long mission profile.

Phase 1

2026 – 2028

Research & Strategic Partnerships

Architectural research, simulation, and foundational partnerships across aerospace, AI, and defence.

Phase 2

2028 – 2032

Prototype Orbital Compute Modules

First flight-ready space-hardened compute modules and ground-orbit network demonstrators.

Phase 3

2032 – 2035

First Generation Orbital Data Platforms

Operational orbital data platforms serving early enterprise, AI, and sovereign workloads.

Phase 4

2035+

Cislunar Infrastructure Expansion

Cislunar relay nodes, lunar gateway integration, and forward presence toward the Moon.

Research & Roadmap

A long-term research programme.

Sterling Orbital is developing a long-term research roadmap focused on orbital compute feasibility, space-hardened infrastructure, autonomous network operations, energy-efficient orbital processing, and future lunar data systems.

Orbital compute feasibility

Modelling thermal, radiation, and power envelopes for sustained on-orbit processing.

Space-hardened infrastructure

Researching fault-tolerant architectures, shielding strategies, and long-duration reliability.

Autonomous network operations

Designing self-managing orbital fabrics with optical mesh routing and on-orbit orchestration.

Energy-efficient orbital processing

Studying solar-direct compute scheduling and passive radiative cooling at scale.

Future lunar data systems

Planning cislunar relays, lunar surface storage, and Earth–Moon data architectures.

Sovereign & resilient compute

Researching jurisdiction-agnostic, survivable platforms for institutional workloads.

Industries

Built for the institutions defining the next era.

Government & Defence

Secure sovereign orbital infrastructure

Artificial Intelligence

Next-generation compute capacity

Telecommunications

Global connectivity networks

Space Industry

Infrastructure for the new space economy

Research

Scientific computing beyond Earth

Cloud Infrastructure

Off-world extension of terrestrial cloud

Partners

Building the space infrastructure ecosystem.

Sterling Orbital seeks long-term collaboration across the aerospace, AI, and government ecosystem to architect off-world compute together.

Become a Partner
Concept of lunar surface infrastructure with Earth in background
Aerospace companiesSatellite manufacturersCloud providersAI companiesUniversitiesGovernmentsSpace agencies

Programme Status

Early-stage development and partnership formation.

Sterling Orbital is currently in early-stage development and partnership formation. The systems described across this site are under active research, design, or planning. Sterling Orbital does not currently operate satellites, orbital servers, or lunar infrastructure. Our roadmap is presented openly to invite mission-aligned investors, aerospace partners, and government innovation offices into the conversation.

Collaboration

Build With Sterling Orbital.

Whether you represent a government agency, aerospace partner, cloud infrastructure company, or research institution — we welcome engagement on technology, research, and long-horizon planning.