Future space transportation networkEngineering concept · not operational

SPACE TRANSPORTATION,
REIMAGINED.

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.

01
Launch
02
Orbit
03
Transfer
04
Destination
05
Return
06
Reuse

Close that loop enough times and the individual flight stops being the product. The network becomes the product.

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
LEO
Departure node
Lunar Orbit
Transfer node
Moon
Destination
Mars
Later expansion
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.

Autonomous operation

Navigation, guidance and fault handling without a crew in the loop.

Design objective
Orbital rendezvous

Docking with orbital infrastructure at both ends of the route.

Design objective
Cargo transport

Standardised payload carriers rather than bespoke mission hardware.

Design objective
Repeat missions

A vehicle designed for many transfers, not a single flight.

Design objective
Servicing & refuelling

Propellant and maintenance where infrastructure permits.

Design objective
Return & reuse

Coming back to the departure node ready for the next assignment.

Design objective
04 · Mission Architecture

One reference mission: LEO → lunar orbit → LEO.

A single reusable transporter performing a complete round trip through the Earth–Moon system.

  1. 01
    LEO Departure

    Vehicle loiters in low Earth orbit until the translunar injection window.

  2. 02
    Translunar Transfer

    A high-energy ellipse raises apogee toward the Moon's orbital radius.

  3. 03
    Lunar Orbit

    Braking at periselene captures the vehicle into lunar orbit.

  4. 04
    Mission Operations

    Cargo delivery, rendezvous or station-keeping in the lunar node.

  5. 05
    Return Transfer

    Departure burn places the vehicle on an Earth-return trajectory.

  6. 06
    LEO Arrival

    Arrival at the Earth node, ready to be turned around for reuse.

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.

06 · Technology Roadmap

A future roadmap, not a deployed capability.

Each phase depends on the one before it. SpaceOro is currently in Phase 1.

Phase 1Current
Research & Simulation
  • · Orbital mechanics
  • · Mission architecture
  • · Vehicle studies
  • · Trajectory optimisation
Phase 2
Earth Demonstrators
  • · Autonomous navigation
  • · Rendezvous systems
  • · Robotics
  • · Propulsion demonstrations
Phase 3
Lunar Transportation
  • · LEO ↔ lunar orbit
  • · Autonomous cargo transport
  • · Reusable orbital infrastructure
Phase 4
Lunar Network
  • · Orbital hubs
  • · Cargo logistics
  • · Surface transportation
  • · Servicing infrastructure
Phase 5
Mars Transportation
  • · Earth ↔ Moon ↔ Mars
  • · Interplanetary logistics
  • · Reusable transport network
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
08 · The Transportation Network

SpaceOro is not one spacecraft. It is a transportation architecture.

Route APrimary focus
  1. LEO Hub
  2. Lunar Transfer
  3. Lunar Orbit Hub
  4. Moon Surface
Route BLater expansion
  1. Lunar Hub
  2. Mars Transfer
  3. Mars Orbit
  4. Mars Surface
09 · Future Economics

Recurring demand needs recurring transportation.

A future business model and economic hypothesis — not current revenue, pricing or contracted service.

Cargo transportationOrbital logisticsLunar cargo deliveryInfrastructure deploymentSatellite servicingLunar supply chainsInterplanetary logistics

THE NEXT SPACE ECONOMY NEEDS TRANSPORTATION INFRASTRUCTURE.

SpaceOro explores what that infrastructure could become.