01
Autonomous operation
Navigation, guidance and fault handling without a crew in the loop.
Design objective
Future space transportation networkEngineering concept · not operational
REUSABLE SPACE
VEHICLE AND MOON BASE
A future network of autonomous reusable transporters connecting Earth orbit, the Moon, and eventually Mars.
01 · Vision
Build transportation infrastructure, not just individual missions.
Space transportation today is largely mission-by-mission: a new vehicle, a new architecture and a new operations campaign for every payload. SpaceOro explores the opposite premise — a persistent transportation layer that routes cargo between fixed orbital destinations, again and again.
Close that loop enough times and the individual flight stops being the product. The network becomes the product.
Market Outlook
The next trillion-dollar economy will be built beyond Earth.
As humanity moves from exploration to commercial activity, every new space industry will need transportation, logistics and infrastructure.
Moon Economy
Lunar logistics, surface infrastructure, habitats, resources and continuous commercial operations.
Asteroid Economy
Access to water, volatiles and high-value metals that could become the raw materials of a space-based economy.
Space Tourism
A new premium transportation market connecting people to orbit, the Moon and eventually destinations beyond.
Mars Economy
The first long-distance interplanetary transportation network supporting crews, cargo, infrastructure and permanent settlement.
The opportunity is not simply to reach these markets.
It is to own the transportation layer that connects them.
SpaceOro is positioning itself at the center of the emerging space economy.
02 · The SpaceOro Network
Earth → LEO → Lunar Orbit → Moon.
The Moon is the first major transportation node. Mars is a later expansion of the same architecture, not a parallel programme.
Earth
Surface
0 km
LEO
Departure node
400 km
Lunar Orbit
Transfer node
384,400 km
Moon
Destination
Surface ops
Mars
Later expansion
≈ 225M km
03 · Autonomous Transporters
Reusable vehicles that shuttle between established destinations.
These are design objectives for a future vehicle architecture. None of them are built or demonstrated capabilities today.
02
Orbital rendezvous
Docking with orbital infrastructure at both ends of the route.
Design objective
03
Cargo transport
Standardised payload carriers rather than bespoke mission hardware.
Design objective
04
Repeat missions
A vehicle designed for many transfers, not a single flight.
Design objective
05
Servicing & refuelling
Propellant and maintenance where infrastructure permits.
Design objective
06
Return & reuse
Coming back to the departure node ready for the next assignment.
Design objective
2027 Mission Objective
ORBITING THE MOON
Finding the best landing sites. Mapping lunar ice. Surveying terrain. Identifying resources. Preparing the next generation of lunar surface missions.
Landing sites
Terrain-ranked candidate zones
Lunar ice mapping
Polar cold-trap surveys
Resource ID
Regolith & volatile targets
Orbit·Survey·Map·Prepare
05 · Transit Envelope
20days
LEO ↔ Lunar orbit · round trip
Full mission cycle: translunar injection, lunar orbit operations, trans-Earth injection and arrival back at the Earth node.
180days*
LEO ↔ Mars · return transit
Later expansion of the same architecture, flown on interplanetary transfer arcs rather than translunar ones.
* Dependent on orbital geometry at departure — transfer duration varies with the launch window, phase angle and synodic alignment of the departure and arrival orbits.
07 · Research & Engineering
A concept grounded in orbital mechanics.
The architecture is developed through trajectory modelling and mission analysis rather than renderings alone.
Research
- Mission studies
- Orbital mechanics
- Trajectory analysis
- Transportation architecture
Simulation
- NASA GMAT studies
- Trajectory modelling
- Δv analysis
- Payload scenarios
Engineering
- Vehicle architecture
- Propulsion concepts
- Autonomy
- Mission operations
Latest articles
- Where the Water Actually Is: Mapping Ice at the Lunar South PoleHow lunar ice was detected, why permanently shadowed regions matter, and what still separates a detection from a landing-quality map.
- Why a Moonbase Needs a Map Before It Needs a BuildingSite selection drives habitat design, power, thermal control and landing safety at the lunar south pole.
- The European Lunar Push: What EU Space Startups Are Actually BuildingESA's Argonaut and Moonlight programmes, European smallsat suppliers, and the missions now flying to the Moon.
- ISRU Explained: Turning Lunar Ice Into Fuel, Air and WaterHow in situ resource utilisation works on the Moon, what it takes to split water into propellant, and what still has to be proven.
- Small Satellites, Big Distances: How CubeSats Became Deep Space HardwareFrom university experiments to interplanetary missions: how CubeSats reached the Moon and Mars, and what limits them now.
09 · Future Economics
Recurring demand needs recurring transportation.
Cargo transportationOrbital logisticsLunar cargo deliveryInfrastructure deploymentSatellite servicingLunar supply chainsInterplanetary logistics
THE NEXT SPACE ECONOMY NEEDS TRANSPORTATION INFRASTRUCTURE.
SpaceOro explores what that infrastructure could become.