01Clean · Low-carbon
Always-on Solar Power
Dawn-dusk orbits enjoy near-continuous sunlight, turning solar energy straight into compute — clean, low-carbon and off the terrestrial grid.
Space Computing · Orbital Cloud
Compute in Orbit.Data Centers in Space.
A space computing platform that moves the data center into orbit. Satellite constellations carry radiation-hardened AI chips, run on solar power, radiate heat into deep space and link up via inter-satellite lasers into an orbital compute network — processing data where it is born and returning only results, breaking the energy and bandwidth limits of ground-based compute.
- Solar Powered
- Deep-Space Cooling
- Elastic Compute
- Laser Mesh
- 1361W/m²
- Solar constant in orbit — no night, no clouds
- ~3K
- Deep-space background for radiative cooling
- 0L
- Cooling water used, zero land footprint
- 10²+Gbps
- Class of inter-satellite laser bandwidth
Positioning & Vision
The cloud’s compute pool — built in space
AI is ultimately bounded by energy. Ground data centers are constrained by grid capacity, cooling water and land permits, making expansion ever slower and costlier. StarWeave builds self-powered data centers in orbit and opens them up like the cloud: request on demand, scale elastically, pay for what you use — without caring which satellite runs your workload.
SAT
Compute Constellation
Every satellite is a server in space — launched in batches, expanded continuously.
RAD-AI
Rad-hard AI Chips
Energy-efficient AI training and inference hardened for space.
OISL
Laser Links
High-bandwidth, low-latency optical backbone in orbit.
ORBIT CLOUD
Orbital Cloud
A self-powered, on-demand, elastically scalable data center in space.
Core Features
Breaking four bottlenecks of ground compute
Rebuilding compute infrastructure on the physical advantages of space.
01
02Zero water · Zero land
Natural Deep-Space Cooling
Heat is radiated into near-absolute-zero space. No water, no land — no cooling towers and no competition for water resources.
03Real-time · Bandwidth-light
Compute at Capture
Imagery, communications and sensor data are inferred in orbit in real time; only structured results come down, saving downlink bandwidth and time.
04Elastic · Scalable
Inter-satellite Laser Mesh
Satellites interconnect via laser links into one network. Compute nodes join on demand, scaling elastically like the cloud.
Architecture
Use space compute the way you use the cloud
Users submit jobs on the ground; orbital clusters run them and deliver results. Access works just like cloud computing — the compute simply lives in space.
- 01
Submit
Send AI training, inference and compute jobs via API or console, on demand.
- 02
Uplink & schedule
Ground stations and optical links route jobs, models and data to the best orbital nodes.
- 03
Compute in orbit
Solar-powered satellites form a laser-linked cluster and run workloads in parallel.
- 04
Deliver
Results return to Earth through cloud APIs; data born in orbit is processed in place.
Ground data center vs orbital cloud
Ground data center
StarWeave orbital cloud
Energy
Bought from the grid; growth capped by power quotas
Direct solar, near-continuous sunlight
Cooling
Chillers and towers consuming water and power
Radiated into deep space, zero water
Siting
Needs land and lengthy permits
No land — the orbit is the server hall
Scaling
New campuses take years
Launch new compute satellites to join the mesh
Use Cases
One orbital cloud, every industry
Like the cloud, orbital compute is delivered as a service — from large models to enterprise workloads, available on demand.
Inference API/ 01LLM Inference Service
Orbital AI inference exposed as an API, billed per call and ready to use.
Training · Batch/ 02AI Training & HPC
Long-running training, rendering and scientific jobs scheduled onto energy-rich orbital clusters.
Zero-carbon/ 03Green Compute
Solar-powered and water-free, helping enterprises meet ESG and emissions goals.
Process in place/ 04Satellite Data Processing
EO and comms operators tap nearby orbital compute — process at capture, return only results.
Global reach/ 05Compute Everywhere
Oceans, aviation and remote regions access compute over satellite links — no local data center needed.
Resilience/ 06Disaster Recovery
Compute independent of ground grids and natural disasters, as off-site backup for critical workloads.
Why Now
Four trends are converging
AI energy demand
Large models keep driving compute and power consumption up; ground energy and cooling are now hard limits.
Falling launch costs
Reusable rockets and mass-produced satellites make large constellations economically viable.
Chip efficiency leaps
Efficient AI silicon and radiation hardening have matured — one satellite can host meaningful compute.
Laser comms mature
Inter-satellite laser links are in large-scale orbital use, providing a high-speed backbone.
Roadmap
Validate — Demonstrate — Constellate — Commercialize
01
Validate
Ground simulation & payload prototypes
02
Demonstrate
First compute satellites in orbit
03
Constellate
Laser-linked, elastic expansion
04
Commercialize
Global orbital cloud services
StarWeave
Partner · Invest · Connect
Shape the future of space computing with us
We welcome investors, aerospace and semiconductor partners, and research teams worldwide to build with us.
Capital
Strategic & Early-stage Investment
We are actively seeking venture capital, industry funds and sovereign funds as strategic and early-stage partners to lead the emerging category of orbital cloud infrastructure.
- Venture & early-stage investment
- Industry & strategic funds
- Global capital and market synergy
Industry
Industrial Partnership & Joint R&D
We invite partners in satellite manufacturing, launch, AI chips, optical communications and cloud computing to engineer and commercialize orbital compute together.
- Satellite platform & launch partnerships
- Joint R&D on AI chips and laser comms
- Compute partnerships with clouds & AI firms
Contact
Let’s talk
Whether you are exploring an investment, a technical partnership or buying compute, we would love to hear from you.
venslu.pro@gmail.com