Lagrange Points

Research and essays defining the geography of space and humanity's future beyond Earth.

Scroll to launch
"Who controls the physical layer of the next era wins. Every zone is a new layer of infrastructure. Every topic answers: who owns it, who built it, who can deny access to it."
— The Frontier Thesis
Zone 1 · Surface

Earth Surface & Launch

All access to space begins here. The physical infrastructure of departure — who can get off the planet, how fast, and at what cost. The launchpad is the bottleneck that determines everything above it.

Published · Space Economy

SpaceX's Bet on 3D Printing

The golden age of space is being printed. SpaceX controls 89% of US launches, and their manufacturing advantage is additive. This is an industrial story, not a tech story.

Key Players — Launch
SpaceX Blue Origin Relativity Space Rocket Lab Velo3D

Additive manufacturing is the moat. "Makes production digital, automation makes it continuous, AI will make it intelligent and iterative."

Key Players — Orbital Transfer
Impulse Space Atomos Space Sierra Space

The in-space last mile. Once you're in orbit, a second transportation layer moves payloads to their final destination.

Ground Connectivity & Telescopes
Northwood Space Deep Space Network PlaneWave Space Fence Radio Telescopes OurSky

The ground layer that makes everything above possible. Telescopes, radar, ground stations, and data relay — the bandwidth bottleneck of the space economy.

89%
US launches by SpaceX
$1.6B
First CRS contract (2008)
86m
Cape Canaveral pad diameter
↑ Reach orbit ↑
Zone 2 · 160–2,000 km

Low Earth Orbit

The most crowded real estate in space. Starlink, GPS, imagery constellations, the ISS, commercial stations, manufacturing experiments, and a growing debris field. This is where the space economy lives today.

Published · Space Economy

Space Lasers

Satellites are starting to use lasers instead of radio, enabling faster, more secure, and interference-free connections. The bandwidth bottleneck is real — and lasers are the fix.

Published · Space Economy

Boost Mobile on Mars

SpaceX and EchoStar are building direct-to-cell from orbit. Interplanetary comms as a carrier business. Starlink isn't just internet — it's the planetary communications backbone.

Comms & Ground Infrastructure
Starlink Northwood Space OurSky Neuraspace
Imaging & Earth Observation
Planet Labs Capella Space Umbra Space MethaneSAT Carbon Mapper
Manufacturing in Space
Redwire Made in Space Axiom Space

Pharma, ZBLAN fiber optics, crystal growth. Microgravity enables 90% better outcomes for certain manufacturing processes.

Defense & Domain Awareness
Space Fence Space Force SDA Tranche OurSky

The Kessler effect is real. ~8,110 satellites and growing. No enforcement mechanism for debris.

~8,110
Satellites in LEO
90 min
Orbital period
90%
Better crystal growth in μg
↑ Higher orbit ↑
Zone 3 · 5,000–36,000 km

Medium & High Earth Orbit

The strategic middle ground. GPS constellations, GEO communications satellites, space-based energy concepts, and the emerging battleground for satellite warfare. Higher orbit means longer dwell time — and harder to reach.

Published · Defense & Governance

Guardians of the Frontier

From satellite defense to commercial innovation, the Space Force comes of age. SpaceWERX, X-37B, and the Proliferated Warfighter Space Architecture.

Energy & Dual-Use
Aetherflux K2 Space APEX

Power beaming from orbit. Space-based solar is 8× more efficient — no atmosphere. "Shaped radio waves, space sails, and solar power all use similar physics. Weapons?"

Counterspace
Golden Dome ($2T) PWSA Lattice OS Shinjian 21 Kosmos 2542

"Low-debris-causing weapons" — jamming, cyber, lasers, microwave, satellite grabbers. First systems expected operational 2026.

31
GPS satellites
14,000
km/hr GPS speed
$2T
Golden Dome est. cost
Solar efficiency in space
↑ Escape GEO ↑
Zone 4 · 36,000–384,400 km

Cislunar Space

The space between Earth and the Moon — and the five Lagrange points where gravitational forces balance. L1 and L2 host humanity's most ambitious instruments. No governance framework exists for this territory. First-mover sets precedent.

Published · Energy & Geopolitics

Orbital Geoengineering

As the planet heats up, it's time to explore space-based geoengineering ideas. Planetary Sunshade at L1, regolith mirrors, 600-module satellite swarms. The last resort may be in orbit.

L1 & L2 — The Gravity Parking Lots
James Webb (L2) Planetary Sunshade (L1) Earth Guard (L1) NASA Gateway CHPS

L1/L2 sit 1.5 million km from Earth. L4/L5 form equilateral triangles with the Earth-Moon system — truly stable, but no operational presence yet.

Space Weather
NOAA SWPC Mission Space (AI) Zohar Satellite

Solar weather propagates inward from the Sun, affecting every zone from GEO to the surface. A "Space Katrina" — extreme geomagnetic storm — could take down the power grid.

1.5M
km to L1/L2
384,400
km to the Moon
5
Lagrange Points
↑ Lunar approach ↑
Zone 5 · 384,400 km

The Moon

Before this decade is out, we will be producing and using our first lunar resources. Water ice in Shackleton Crater. DARPA's Luna-10 program. The base of cislunar civilization — and the next geopolitical contest.

Published · Space Economy

The Moon Strikes Back

Before this decade is out, we will be producing and using our first lunar resources. Water, liquid oxygen, fuel depots, and the race between the US and China for the lunar south pole.

Lunar Economy
Astrolab Intuitive Machines Ethos Space CLPS Program Luna-10 (DARPA)
Lunar Data & Connectivity

Intuitive Machines built a lunar data network for the Odysseus lander — then created a market for lunar data transmission. Relay satellites in Moon orbit complement ground systems. Deep Space Network bandwidth is constrained (JWST takes priority).

What's on the Moon

Water ice, regolith for construction, Peaks of Eternal Light for solar power, potential Helium-3 deposits. 3D photogrammetry models of the surface don't exist yet — Astrolab is building them. ISRU (In-Situ Resource Utilization) is the whole game.

1B+
metric tons water ice (est.)
27
day orbital period
9,396
metric tons for a landing pad
↑ Beyond Earth–Moon ↑
Zone 6 · 225M+ km

Deep Space

Mars, Europa, the asteroid belt, and beyond. The frontier where biology meets physics — where the question "Is Space Nature?" becomes unavoidable. Genetic modification may be a necessity, not a luxury, for a human future out here.

Published · Culture · Sci-Fi Series #1

The Martian

What a windstorm on Earth taught me about being alone on Mars. When science fiction gets the physics right, it changes how people think about the real thing.

The Exploration Frontier
Europa Clipper Psyche (NASA) Artemis Program Pete Worden / Starshot

Europa: 671,000 km from Jupiter, potential subsurface ocean. Mars: 225M km, 0.151 Earths. The distances are the story — and the biology challenge.

The Human Question

Health challenges of living off-planet are immense. Radiation is unavoidable. "Earth Deprivation Syndrome" — the psychological cost of not seeing the planet. Genetic modification as a necessity for a human future in space. Without it, deep space will be dominated by robotics and AI.

225M
km to Mars
671,000
km Europa from Jupiter
1,321×
Jupiter vs. Earth volume