The New Space Race: Who Controls the Infrastructure Hanging Above Our Heads
On any given night, a satellite passes over your head roughly every ninety seconds. Most are invisible to the naked eye. Most are American. And the proportion is shifting faster than any international treaty anticipated.
Since the first Starlink deployments in 2019, the number of active satellites in low Earth orbit has grown from roughly 2,000 to more than 9,000 — a transformation driven almost entirely by a single company. SpaceX's constellation now accounts for the majority of all operational satellites ever launched, cumulatively, across all nations and operators since Sputnik. Amazon is building its own mega-constellation. OneWeb is partially operational. China's Guowang constellation is approved for deployment. The assumption that outer space is a shared commons is colliding with the reality that a handful of corporate and state actors are carving it up by stealth.
The ownership question matters beyond the technical. Satellites carry the internet traffic that crosses oceans. They provide the GPS signals that guide shipping, farming equipment, and precision munitions. They form the backbone of modern financial markets. When Starlink cut off service to terminals it believed were being used for unauthorized purposes — citing its own terms of service — it demonstrated that a private company's commercial decisions could interrupt critical infrastructure for entire regions. That power, and who controls it, is the defining space governance question of this decade.
The Concentration of Control
The numbers are stark. SpaceX has FAA approval to deploy 12,000 Starlink satellites and has applied for clearance for an additional 30,000. Planet Labs operates the largest fleet of Earth-observation satellites — more than 500 devices imaging the entire land surface of the Earth daily. OneWeb's constellation, partially launched, aims for 648 satellites providing broadband to remote and underserved areas. Amazon's Kuiper project, approved for 3,236 satellites, has yet to begin large-scale deployment but has contracted with United Launch Alliance and ArianeSpace for future launches.
Traditional state operators — NASA, Roscosmos, ESA, CNSA, ISRO — still fly satellites, but the pace of commercial deployment has made them peripheral to the story of who shapes the orbital environment. The United States, through both government programs and the commercial sector, accounts for the majority of active satellites. This is not accidental: successive administrations cultivated the conditions for commercial space dominance through regulatory relaxation, launch subsidy programs, and the deliberate offshoring of functions that NASA once performed directly.
The counter-argument to alarm about concentration is straightforward. Markets produce efficiency. Starlink's service is genuinely delivering broadband to areas that fiber cannot reach. Planet's imaging data has democratized access to real-time Earth observation for researchers, journalists, and aid organizations. Competition among providers will, in time, erode whatever advantage SpaceX currently holds. Amazon, OneWeb, and national programs will provide alternatives.
That argument has merit. It also has limits. Competition among satellite internet providers does not address the underlying governance vacuum. There is no international mechanism with the authority to compel any operator to maintain service, to prevent debris-generating collisions, or to allocate spectrum in a way that prevents interference with other operators or with ground-based radio astronomy. The Outer Space Treaty of 1967, still the foundational document of space governance, was drafted when a satellite was a rare government enterprise costing hundreds of millions of dollars. It assumes a world that no longer exists.
Ukraine and the Demonstration Effect
The clearest illustration of what concentrated commercial satellite infrastructure means in practice came during the Russia-Ukraine conflict. Starlink terminals arrived in Ukraine within days of Russia's full-scale invasion in February 2022, providing Ukraine's military and civilian infrastructure with connectivity that state-run systems could not maintain under bombardment.
Ukrainian officials described Starlink as indispensable to battlefield communications. Western military analysts noted that Ukraine's ability to maintain command and control, to coordinate drone operations, and to conduct precision strikes was materially dependent on the continued operation of SpaceX's terminals. SpaceX CEO Elon Musk publicly acknowledged that the company had "turned off" Starlink service near Russian-occupied Crimea to prevent the equipment from being used in attacks on Russian naval assets — a decision that generated immediate controversy about where a private company derived the authority to make such determinations.
The episode exposed a structural tension. Commercial satellite infrastructure, deployed primarily for profit, was operating as a de facto tool of state power. SpaceX's decisions about where and when to activate service were shaping the battlefield calculus of a sovereign state at war. No treaty, no domestic law, no international convention governed that relationship. The company held the keys and exercised its own judgment about when to use them.
China took note. Chinese state media, and subsequently Chinese government policy documents, identified Starlink's role in Ukraine as a demonstration of the military risk created by American commercial space dominance. China's military and civil space programs have accelerated since 2022, with explicit attention to developing alternatives to American-provided satellite services. The Guowang constellation, approved by Chinese authorities in 2021, is explicitly positioned as a national-capacity response to the dependency exposed by the Ukraine conflict. For Beijing, the lesson was clear: relying on American commercial space infrastructure for critical communications is a strategic vulnerability.
Debris, Spectrum, and the Tragedy of the Commons
The governance gap is not only about power. It is about the physical constraints of the orbital environment. Low Earth orbit is not infinite. At current rates of launch, the density of objects in certain orbital shells will increase substantially over the next decade. Each satellite has a operational lifespan — typically five to seven years for commercial constellations — after which it must either be actively deorbited or moved to a disposal orbit. Failure to do so converts operational satellites into debris, adding to the estimated 27,000 pieces of trackable debris currently in orbit.
SpaceX has argued that its Starlink satellites are designed with autonomous collision avoidance and that end-of-life disposal is built into the operational design. Critics note that the sheer scale of planned deployments — even under the most optimistic compliance rates — will increase the collision risk in heavily used orbital shells. The European Space Agency published data in 2023 showing that conjunctions — near-misses between tracked objects — have increased substantially as Starlink and other constellations have filled low Earth orbit.
Spectrum allocation presents a parallel governance problem. Satellites in the same orbital shell must operate on different radio frequencies to avoid interference. The International Telecommunication Union coordinates spectrum allocation internationally, but the process is slow, political, and increasingly contested as demand for satellite broadband grows. When OneWeb and Starlink found themselves in adjacent orbital shells in 2022, accusations of harmful interference flew in both directions. The ITU had no mechanism to resolve the dispute in real time. The operators negotiated bilaterally. The episode illustrated that the governance framework governing radio spectrum above nation-states is a committee process, not a regulatory authority.
The China Factor and the Coming Bifurcation
For the United States and its allies, the primary long-term concern is not SpaceX's market dominance per se but what that dominance means for the ability of adversaries to access space-derived services. The Starlink network is, in effect, a global communications and intelligence infrastructure that the United States has not had to fund directly but that it can rely upon in conflict because its operator is American.
China and Russia face a different calculus. Both have concluded, on the evidence of the Ukraine conflict, that access to commercial American satellite infrastructure cannot be assumed to be available in a crisis. China's response has been to accelerate its own satellite manufacturing and launch programs and to develop alternative global navigation and communications satellite systems. Russia has moved, with less success, toward developing domestic alternatives and reducing its exposure to American-provided services.
The result is likely to be a bifurcation of the orbital environment into spheres of influence. American-aligned operators will cluster around American-controlled constellations. Chinese-aligned operators will increasingly rely on Chinese systems. The international governance framework, already strained, will face the additional pressure of competing technical standards, incompatible equipment, and explicitly national-security-driven deployment decisions.
This is not hypothetical. Several countries in the Global South have accepted Starlink terminals under commercial arrangements with SpaceX. Others have received or are in negotiation for Chinese BeiDou navigation services or Chinese-built communications satellite capacity. The question of who provides satellite services is becoming an element of great-power alignment, with implications for technology standards, data sovereignty, and military compatibility.
What Comes Next
The immediate trajectory is continued growth. SpaceX is not slowing Starlink deployment. Amazon is entering the market. China is building out its constellation. The governance framework will continue to lag deployment, partly because the nations with the most to lose from regulatory constraints are the same nations whose companies are deploying at scale.
The longer-term question is whether the international community can develop mechanisms adequate to managing an orbital environment that has become critical infrastructure for the entire planet. Spectrum coordination, debris remediation standards, collision avoidance protocols, and rules governing service termination in conflict zones — all of these require international agreements that the current political environment makes difficult to negotiate. The Outer Space Treaty needs revision. The ITU needs enforcement authority. Neither is on the horizon.
In the meantime, a small number of companies — most of them American — control the infrastructure through which the world communicates, navigates, and, in extremis, wages war. The assumption that space is a commons has not been replaced by any formal alternative. It has simply been rendered inaccurate by the pace of commercial deployment. What happens next will depend on whether the political will exists to govern the new space race before it produces consequences that governance frameworks cannot address.
Desk note: The thread surfaced the satellite ownership question through a cross-post from AngelList and ProductHunt aggregating public-sourced data on active satellite counts and operator identification. Monexus drew on those inputs, combined with open-source registry data and confirmed reports of Starlink's Ukraine deployment, to construct this piece. Primary-source URLs from the thread are listed in full below.
Wire provenance
This editorial synthesis draws on the following public wire/social posts:
- https://t.me/AngelList/48347
- https://t.me/producthunt/48347
- https://t.me/TSN_ua/13432