ARMAGEDDON
Earth and the Moon in deep space, the Moon the first destination in an expanding network

Infrastructure 02

The Interplanetary Transport System

Building the infrastructure for civilization beyond Earth.

We are developing the architecture that connects the systems that make expansion beyond Earth repeatable.

01 — From one world to a network of worlds

From one world to a network of worlds

  1. Earth
  2. Moon
  3. Phobos
  4. Mars
  5. Asteroids
  6. Mercury
  7. Solar Orbit
Energy
Materials
Manufacturing
Habitats
Computation
Transportation
Intelligence

A destination can become infrastructure for the next destination.

Autonomous mining and robotic construction machinery on the lunar surface

02 — The first node / Moon industrial base

The first node / Moon industrial base

1,000–5,000 tonnes

01Autonomous mining
02Construction
03Material processing
04Manufacturing
05Habitats
06Solar energy
07AI and computing
08Communications
09Maintenance
10Transportation

The objective is to build an industrial system that can build more of itself.

03 — Industrial self-expansion

Industrial self-expansion

  1. Machines
  2. extract resources
  3. process materials
  4. manufacture infrastructure
  5. build more machines
  6. expand production

Industrial Replication Ratio

> 1×

Conceptual visualization of Sanctuary 1, a reusable interplanetary transportation platform in deep space

04 — Sanctuary 1

Sanctuary 1

Reference specificationDesign targets
100–1,000 tonnes — Preliminary final-mass design envelope
~7 days — Reference Earth–Mars-class transfer
401 million km — Reference distance
~0.447 g — Target acceleration
~1,326 km/s — Peak velocity
~2,652 km/s — Total Δv
Δv breakdown

1,326 km/s acceleration Δv

1,326 km/s deceleration Δv

These are design targets derived from simplified trajectory assumptions—not demonstrated spacecraft capabilities.

05 — Propulsion challenge

Propulsion challenge

  1. 01 — Pure Inertial Confinement Fusion (ICF) / Pulsed Fusion
  2. High-energy inertial-confinement fusion pulses
  3. Magnetic/electromagnetic plasma management
  4. Nozzle systems
  5. Directed spacecraft momentum
  6. 02 — Antimatter-Catalyzed Nuclear Pulse Propulsion
  7. Antimatter catalyst
  8. High-energy nuclear/fusion pulses
  9. Controlled plasma expansion
  10. Electromagnetic exhaust management

5,000–10,000 km/s — Target effective exhaust velocity research range

~510,000–1,020,000 s — Equivalent specific impulse

~440–570 kN — Reference thrust range for the 100-tonne case

~2–3 TW — Approximate useful jet-power requirement for the 100-tonne, 10,000-km/s reference case

~30 tonnes — Approximate reaction mass for the 100-tonne final-mass reference case at 10,000-km/s effective exhaust velocity

~130 tonnes — Approximate initial mass for the 100-tonne final-mass reference case at 10,000-km/s effective exhaust velocity

Neither architecture currently exists at Sanctuary 1 performance. They are research directions being investigated against the Sanctuary requirements.

The objective is to determine whether either architecture can satisfy the required:

  • Exhaust velocity
  • Thrust
  • Specific power
  • Energy conversion efficiency
  • Thermal management
  • Radiation protection
  • Structural requirements
  • Vehicle mass
Large-scale solar power infrastructure in space

06 — Energy layer

Energy layer

  1. Solar generation
  2. Power conversion
  3. Power-beaming network
  4. Spacecraft
  5. Propulsion

Energy generation is separated from transportation.

Sanctuary carries its ability to move. ITS infrastructure can provide additional energy, power beaming, charging, manufacturing and other support, but Sanctuary 1 should not fundamentally depend on external energy infrastructure to complete a mission.

07 — Power network

Power network

Sanctuary 1 can operate independently while using ITS infrastructure when available.

01Energy
02Power beaming
03Communications
04Navigation
05Manufacturing
06Habitats / life-support infrastructure
07Maintenance
08Propellant
09Computing
10Cargo transfer
  1. Node
  2. Node
  3. Node
  4. Node
  5. Node
The Martian surface under a dusty sky

08 — Phobos + Mars

Phobos + Mars

  1. Moon
  2. Phobos
  3. Mars
01Communication systems
02Energy systems
03Manufacturing
04Robotic systems
05Transportation
06Computing
07Habitats

09 — Expanding beyond Mars

Expanding beyond Mars

  1. Mars
  2. Asteroids
  3. Mercury
  4. Solar Orbit
The cratered surface of Mercury under harsh direct sunlight

10 — Mercury

Mercury

01Solar energy
02Resource extraction
03Manufacturing
04Energy-intensive industry
05Solar-orbit infrastructure

11 — Material strategy

Material strategy

  1. Stage 1

    Earth

  2. Stage 2

    Moon

  3. Stage 3

    Asteroids

  4. Stage 4

    Mercury

  5. Stage 5

    Solar orbit

Progressively expand the resource base without destroying the infrastructure that creates future capacity.

The goal is to create more industrial capacity than we consume.

12 — Solar infrastructure

Solar infrastructure

  1. More factories
  2. more solar collectors
  3. more energy
  4. more factories
  5. more infrastructure
Orbital solar collectors and manufacturing structures in sunlight
Independent solar collector structures orbiting the Sun at wide spacing

13 — Dyson swarm

Dyson swarm

  1. Off-Earth resources
  2. autonomous manufacturing
  3. solar-orbit factories
  4. solar collectors
  5. power infrastructure
  6. increasingly large swarm

Turn the Solar System's available energy into infrastructure for civilization.

14 — Computational layer / Terrestrial Brain

Computational layer / Terrestrial Brain

  1. Earth
  2. orbit
  3. Moon
  4. Mars
  5. Solar System
01Data centers
02Storage
03AI computation
04Scientific computing
05Simulation infrastructure
06Physical-world data
07Spatial recordings
08Sensor networks

15 — Reality as data. Simulation as the laboratory.

Reality as data. Simulation as the laboratory.

  1. Observation
  2. data
  3. AI
  4. simulation
  5. prediction
  6. experiment
  7. new observation

The physical universe is our data source.

The simulated universe is our laboratory.

16 — The civilization brain

The civilization brain

  1. Terrestrial Brain
  2. orbital compute
  3. lunar compute
  4. Martian compute
  5. distributed Solar-System intelligence
  6. potentially planetary-scale computational systems
  7. potentially stellar-scale computation

The exact architecture remains an open research question.

17 — AI + robotics

AI + robotics

Autonomous systems

Mining
Construction
Manufacturing
Exploration
Maintenance
Inspection
Logistics
Infrastructure expansion

AI capabilities

Perception
Navigation
Planning
Coordination
Scientific reasoning
Industrial autonomy

It is to create an infrastructure where intelligence can operate throughout the physical environment.

18 — Spatial intelligence

Spatial intelligence

01Sensors
02Optical navigation
03Deep-space tracking
04Communications
05Ranging
06Orbital state estimation
07AI
08Spatial recordings

Earth has maps and addresses.

An interplanetary civilization needs a spatial intelligence layer.

19 — Solar drones

Solar drones

Their specific operational use cases remain under development.

Research
Exploration
Future operational capability

20 — The bootstrap

The bootstrap

  1. Earth provides the seed.

  2. The Moon creates the first industrial base.

  3. The industrial base creates more infrastructure.

  4. The infrastructure reaches new resources.

  5. New resources create more energy and manufacturing capacity.

  6. More energy and manufacturing capacity enable more transportation, habitats and computation.

  7. The system expands.

21 — The numbers

The numbers

1,000–5,000 t

Initial lunar industrial seed — planning range

100–1,000 t

Sanctuary 1 preliminary final-mass design envelope

~30 t

Reference reaction mass at 10,000 km/s effective exhaust velocity

5,000–10,000 km/s

Sanctuary propulsion research range

~2–3 TW

Approximate useful jet-power requirement for the 100-tonne, 10,000-km/s reference case

~7 days

Reference high-speed interplanetary transfer

401 million km

Reference distance

1×+

Industrial self-replication threshold

These numbers describe design targets and planning assumptions, not existing capabilities.

22 — The roadmap

The roadmap

  1. 01 — EARTH
  2. 02 — MOON
  3. 03 — SOLAR INFRASTRUCTURE
  4. 04 — THE SIMULATED UNIVERSE + HABITAT
  5. 05 — SELF-EXPANDING INDUSTRY
  6. 06 — SANCTUARY 1
  7. 07 — PHOBOS + MARS
  8. 08 — ASTEROIDS + MERCURY
  9. 09 — DYSON SWARM
  10. 10 — COMPUTATIONAL CIVILIZATION

23 — We are not waiting for the future

We are not waiting for the future

Some of the technologies required for this vision already exist.

Some are emerging.

Some require major engineering advances.

Some may require breakthroughs we cannot yet predict.

We want to identify those gaps—and build the path across them.

01Transportation
02Energy
03Manufacturing
04Habitats
05Robotics
06AI
07Spatial intelligence
08Computation
09Simulation

Infrastructure for civilization beyond Earth.

Researchers and engineers working on hardware in a laboratory

24 — Join the build

Join the build

Physicists
Engineers
Roboticists
AI researchers
Developers
Materials scientists
Space scientists
Systems researchers
Planetary scientists

Research areas

Propulsion

Energy

Space Manufacturing

Robotics

AI & Simulation

Space Infrastructure

Science

Earth seen from space with the Moon visible in the distance

The Solar System is not the destination.
It is the beginning of the infrastructure.

Build the first node.

Build the next machine.

Build the next factory.

Build the next world.

Then build the infrastructure that connects them all.