Satellite internet has become the most fiercely contested frontier in connectivity – and Starlink now sits at the center of a land grab in low orbit. SpaceX’s constellation has grown past 7,000 satellites as of mid-2026, blanketing much of the planet in broadband from low-Earth orbit. But governments in Europe and the United States are no longer content to let a single private company dominate that territory. In a span of months, the European Commission locked in a multibillion-euro contract to build a rival constellation, and U.S. regulators pushed new rules that could let ordinary cellphones connect directly to satellites overhead. The orbital land grab is no longer theoretical. It is underway, and the stakes stretch from rural villages with no broadband to the strategic calculations of entire governments.
Europe bets billions on a sovereign constellation
The European Commission awarded its IRIS² secure-connectivity concession to the SpaceRISE consortium, a grouping of major European aerospace and telecom firms including Eutelsat, SES, and Airbus. The deal tasks SpaceRISE with building and operating a sovereign satellite constellation designed to serve two purposes: encrypted government communications and commercial broadband for the public, with a specific mandate to extend satellite coverage to rural and remote areas across the EU.
The program carries a reported budget of roughly 6 billion euros, with about 2.4 billion coming from EU funds and the rest from member states and private investment. The European Parliament adopted the IRIS² regulation in February 2023, establishing the legal framework well before the concession was formally awarded in late 2024. First launches are not expected until around 2029, which means the EU faces a significant gap: Starlink already serves customers in dozens of countries, while IRIS² remains on paper.
Key details are still missing from the public record. The exact disbursement schedule for EU funds, the industrial-return commitments that typically dictate how work is shared among member states, and the technical specifications of the planned satellites have not appeared in Commission releases reviewed for this report. Without those figures, it is hard to judge whether IRIS² will concentrate capability in a handful of large contractors or spread investment across Europe’s industrial base. And without a concrete launch timeline, the question of whether IRIS² can meaningfully compete with Starlink’s head start remains open.
Washington opens the door to satellite-to-phone service
On the U.S. side, the Federal Communications Commission adopted its Supplemental Coverage from Space framework in March 2024, and the rule has since entered a new phase of oversight. The GAO confirmed receipt of FCC rule 24-28, titled “Single Network Future: Supplemental Coverage from Space; Space Innovation,” under the Congressional Review Act. That procedural step gives Congress formal oversight authority over a rule that would allow mobile carriers and satellite operators to beam service directly to standard cellphones, filling dead zones where no tower reaches.
The rule did not emerge in a vacuum. T-Mobile and SpaceX have been testing direct-to-cell capability through Starlink satellites, while AST SpaceMobile, partnered with AT&T, has conducted its own orbital tests of broadband-to-phone service. The FCC’s framework is meant to set ground rules for this emerging hybrid of terrestrial and satellite networks, covering issues like spectrum sharing, interference protection, and emergency-service compatibility.
Congress has not yet signaled publicly how it will handle the rule. No hearing records, floor statements, or committee correspondence tied to the submission have appeared in GAO or congressional dockets as of June 2026. The Congressional Review Act allows a defined window for lawmakers to introduce a disapproval resolution, so the silence could mean the rule will take effect without challenge, or it could mean objections are being assembled out of public view. For now, the filing confirms the regulatory process has advanced past the proposal stage, but the political outcome is unresolved.
Starlink’s scale draws independent scrutiny
While governments build frameworks, SpaceX keeps launching. An empirical study published as an arXiv preprint by researchers at the University of Strathclyde tracked Starlink’s constellation deployment, configuration changes, and orbital dynamics using publicly observable data. The researchers documented satellite additions, failure patterns, and altitude adjustments across the network, offering a rare independent look at how rapidly SpaceX has scaled its operations and how it manages hardware that fails or needs repositioning.
That kind of third-party technical analysis matters because SpaceX itself discloses relatively little. The company has not released granular, time-stamped satellite failure and de-orbit statistics to regulators or the public in the sources examined here. Without operator-disclosed data or verification from a body like the FCC or the European Space Agency, the preprint stands as the best available independent evidence of constellation behavior, though it has not undergone formal peer review. Questions about long-term reliability, debris mitigation, and congestion in specific orbital shells remain open.
Still, the preprint’s findings intersect directly with the policy debates. If a single commercial operator can fill orbital shells faster than governments can plan their own constellations, the window for sovereign alternatives narrows with every launch. That dynamic is part of what drove the EU to commit to IRIS² and what makes the FCC’s direct-to-cell rules politically sensitive: the longer regulators deliberate, the more entrenched the incumbent becomes.
The competitors Starlink cannot ignore
Starlink is not the only private player in this race. Amazon’s Project Kuiper, which launched its first prototype satellites in late 2024, plans a constellation of more than 3,200 satellites and has secured launch contracts with United Launch Alliance, Arianespace, and Blue Origin. Amazon has committed over $10 billion to the project and must deploy half its constellation by mid-2026 under FCC license conditions, a deadline the company has acknowledged will be tight.
Eutelsat OneWeb, now merged with Eutelsat and part of the SpaceRISE consortium, already operates a constellation of roughly 630 satellites in a higher orbit than Starlink, focused on enterprise and government customers. Telesat’s Lightspeed program, backed by the Canadian government, targets a smaller but highly capable constellation for business and institutional users. And AST SpaceMobile is pursuing a different architecture entirely: large satellites with massive antenna arrays designed to connect directly to unmodified phones, potentially leapfrogging the need for specialized ground terminals.
Each of these competitors faces its own funding, technical, and regulatory hurdles. But their collective presence means the low-orbit broadband market is not a foregone conclusion for any single company, even one with SpaceX’s launch cost advantages and operational head start.
Why the timeline matters for communities still waiting on broadband
For the roughly 24 million Americans the FCC estimates still lack adequate broadband, and for millions more in rural and remote parts of Europe, the orbital land grab is not an abstraction. Satellite internet is, for many of these communities, the only realistic path to reliable connectivity. Starlink already serves some of them, but at prices and with capacity limits that not everyone can afford or access.
IRIS² promises to extend coverage across the EU with a public-service mandate, but its first satellites are years away. The FCC’s direct-to-cell rules could eventually let anyone with a standard phone pick up a signal from orbit, but the regulatory and technical details are still being worked out. Amazon’s Kuiper has not yet begun commercial service.
The pattern across all of these efforts is the same: ambitious commitments backed by real money and real engineering, but with timelines and outcomes that remain genuinely uncertain. The race for low-Earth orbit has started in earnest. The rules are still being written. And for the communities that stand to benefit most, the question is not whether satellite broadband will arrive, but when, from whom, and on whose terms.
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*This article was researched with the help of AI, with human editors creating the final content.
