Amazon Urges FCC to Deny SpaceX Million-Satellite Plan

Amazon Challenges SpaceX’s Million-Satellite Proposal at the FCC

The debate over putting data infrastructure into orbit intensified when Amazon filed a formal complaint urging the Federal Communications Commission to reject SpaceX’s controversial plan to launch a million data centers into Earth’s orbit. Amazon argued that the application lacks solid details on how the ambitious project would actually be achieved. According to the filing, the endeavor would take centuries and force every agency operating in low Earth orbit to schedule around a concept that may never materialize.

Amazon pointed directly to the Commission’s rules under Section 25.112, which mandate the dismissal of applicants that fail to supply complete information or full answers required by licensing rules. The complaint also highlighted concerns that space pollution could negate environmental gains made by shifting data center infrastructure northward, while potentially threatening the entire field of astronomy through the destruction of dark skies.

The pushback drew a sharp response from FCC Chairman Brendan Carr, an ally of SpaceX owner Elon Musk, who publicly scolded Jeff Bezos’ conglomerate in a post on X. Despite the regulatory friction, SpaceX’s proposal outlines an expansive vision. The company’s FCC filing describes a system where one million satellites operate in narrow orbital shells spanning up to 50 kilometers wide. To capture continuous solar energy outside Earth’s shadow, these satellites would orbit at much higher altitudes than typical low Earth orbit constellations, targeting between 500 and 2,000 kilometers.

Traffic Coordination and the Rising Risk of Orbital Congestion

As commercial interest in space-based cloud computing grows, government and industry officials are grappling with the sheer scale of traffic such constellations would introduce. During a July panel discussion organized by the Secure World Foundation, experts examined the urgent need for new safety rules and rules of the road for orbital data center constellations.

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Ezra Feilden, co-founder and chief technology officer of Starcloud—a startup that has filed plans for an 88,000-satellite constellation—pointed to SpaceX’s existing Starlink network as a useful baseline for conjunction avoidance and satellite lifecycle operations. Yet, Starlink operates with roughly 10,000 satellites, meaning a million-satellite data center network would multiply traffic exponentially. Ron Birk, principal director at The Aerospace Corp.’s Space Enterprise Evolution Directorate, noted that current constellations handle hundreds of thousands of maneuvers annually, but an environment with up to a million spacecraft could see roughly half a billion maneuvers.

To manage this density without catastrophic collisions, Feilden suggested operators look at frameworks similar to geostationary orbit coordination. This approach requires all satellites within specific dawn-dusk sun-synchronous orbital shells to travel in the same direction. Opposing traffic flows, he warned, would create head-on collision risks akin to a highway without designated lanes.

Terrestrial Constraints Versus Orbital Energy and Cooling

The push toward space is driven by the severe resource bottlenecks facing terrestrial facilities. Data centers powering artificial intelligence and cloud computing require vast amounts of land, energy, and water, frequently running into local zoning battles, litigation, and permitting delays. Moving these operations into orbit could elide such problems entirely, avoiding noise, municipal opposition, and water consumption.

Energy access represents one of the most compelling arguments for orbital computing. While terrestrial data centers threaten to worsen grid bottlenecks and fuel a massive share of U.S. electricity demand growth by 2030, space offers near-continuous high-intensity solar power. Orbiting arrays can avoid weather and atmospheric attenuation, potentially generating five times more energy than an equivalent terrestrial setup, according to industry analysis cited in reporting on the space race.

Technical hurdles remain formidable. Launch capacity is a central bottleneck; fulfilling SpaceX’s ambitions would require a dramatic escalation in launch cadence from once every few days to every few hours. Furthermore, the specialized hardware needed for orbital data centers will make them substantially larger than previous satellites, placing immense pressure on the development of reliable heavy-lift rockets.

Regulatory Frameworks and Industry-Wide Ambitions

Regulatory bodies are attempting to establish oversight before orbital congestion outpaces policy. Matias Cava, national space policy lead in the Commerce Department’s Office of Space Commerce, pointed to the developing mission authorization system known as Space Commerce Certification, which aims to ensure compliance with the Outer Space Treaty. However, because the system remains voluntary, Cava encouraged operators not to wait for government action and instead adopt proactive best practices.

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Complementary technological breakthroughs are also moving forward on multiple fronts. The California Institute of Technology and Sophia Space announced a patented cooling system designed to manage thermal loads by sending excess heat directly into deep space. Meanwhile, other industry players are taking initial steps: Starcloud sent an Nvidia processing unit into orbit, Axiom Space launched two data-center nodes to lay foundations for space-based cloud computing, and Google partnered with Planet to launch processing units by 2027.

Whether these ambitious constellations redefine digital infrastructure or stall under the weight of regulatory scrutiny, launch limitations, and orbital traffic management remains an open question for the aerospace and tech sectors alike.