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The Moon
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ADS-B NETWORK SAS
The Moon · White Paper 2026
🌕 The Moon · March 24, 2026
Moon surface with datacenter modules, lunar dust storm, absence of magnetic field shown by undeflected solar particles
Lunar Analysis · Chapter 5

The Moon: Real Scientific Potential,
Mass-Market Illusion

>60% lunar landing failure rate. No magnetosphere. 1.3s one-way latency. Regolith destroys everything. Scientific use: why not in 2045. Mass-market: not before undefined.

60%+lunar landing failure rate 2019–2025
📸 wp-hero-moon.jpg · 1200×800 · See image_prompts.md
1.3s
One-way Earth-Moon latency
Eliminates 95% commercial use cases
60%+
Lunar landing failure rate
Commercial/national attempts 2019–2025
0
Magnetosphere on Moon
Full 100–400 mSv/yr radiation exposure
2045
Earliest scientific use
Subject to 2yr infrastructure validation
Lunar Analysis · Chapter 5

The Moon: Scientific Potential vs Commercial Reality

The author does not dismiss lunar potential. Scientific embedded use cases have genuine intrinsic logic. Mass-market datacenters do not.

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What Makes Sense — Long Term

Far-side telescopes: shielded from Earth radio frequency interference. Asteroid detection: uninterrupted, atmosphere-free. On-board scientific computing: internal latency acceptable. Very long-term archiving in lava tubes: stable temp, radiation shielding. Horizon: 2045–2060 with validated support infrastructure.

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What Does Not Hold Up

>60% landing failure rate 2019–2025. Lunar regolith: ultra-abrasive, electrostatic, destroys all mechanisms. No magnetosphere: same radiation as LEO surface. 1.3-second one-way latency: eliminates 95% of commercial use cases. No operational energy source for far side.

Obstacle Analysis

Lunar Datacenter — Obstacles as of March 24, 2026

ObstacleSeverityStatus March 2026
Landing success rateCritical ❌>60% failure rate — 10 attempts 2019-2025
Lunar regolithCritical ❌Ultra-abrasive, electrostatic — no industrial solution
Far-side energyCritical ❌No solar access. Nuclear compact not deployed at scale.
LatencyCritical ❌1.3s one-way. Eliminates 95% commercial use cases.
MaintenanceCritical ❌ISS EVA: $M + months prep per component. Moon: 6–18 months.
Radiation protectionCritical ❌No magnetosphere — same as LEO surface (100–400 mSv/yr)
SLA achievableImpossible ❌No insurer. No jurisdiction. No intervention logistics.
Lava tube accessUnknown ⚠️LRO radar data confirms existence — never physically explored

Realistic timeline for operational and reliable scientific lunar datacenters: 2045–2060, subject to a minimum of 2 years of continuous support infrastructure validation first. Timeline for mass-market use: undefined.

— Laurent Duval, ADS-B NETWORK SAS White Paper · March 24, 2026
The Regolith Problem

Lunar Dust: The Obstacle Nobody Models

Apollo and Lunokhod rovers saw their systems degrading within weeks. No business plan models its impact on server racks, connectors and cooling systems over 10 years.

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Electrostatic, ultra-abrasive, omnipresent

Lunar regolith is electrostatically charged and ultra-abrasive with sharp, non-weathered edges. It infiltrates all mechanisms. The Moon has no wind to round the particles — unlike Earth's sand. Every connector, fan, cooling loop, and mechanical joint is at risk. This problem has no demonstrated industrial solution at the scale required for a datacenter.