Coverage Is Not Access
Starlink has roughly nine million subscribers, operates in over 155 countries, and covers enough of Earth's surface to reach 3.1 billion people.
Satellite internet from low Earth orbit is no longer experimental. Starlink has roughly 9,000 satellites in orbit, operating close enough to the surface to keep latency low enough for video calls, cloud software, and large file transfers — in places that will never see a fibre cable. The coverage footprint reaches an estimated 3.1 billion people. As of December 2025, the subscriber base was nine million.
Those two numbers describe the same technology. They are very different things.
Coverage is the geographic area within which the signal can, in principle, be received. Subscribers are the people who can afford to use it, who have the hardware, and who live in markets the provider has chosen to serve. The engineering problem is largely solved. What hasn’t been solved, and what the headline numbers tend to obscure, is the price, the politics, and the question of who gets to decide.
The constellation that already exists
SpaceX’s Starlink is the dominant reality of satellite internet in 2026. Around 9,000 Starlink satellites are in low Earth orbit operating between 340 and 1,200 kilometres above the surface, low enough to keep signal latency to 20–50 milliseconds rather than the 600-millisecond round trips of the old geostationary satellites that made satellite internet frustratingly slow throughout the era of geostationary connectivity. As of December 2025, Starlink had roughly nine million subscribers across more than 155 countries, with coverage reaching an estimated 3.1 billion people. Residential plans in most markets cost around $110 per month, plus an upfront hardware cost of $350–$600 for the dish and router. Speeds typically range from 50 to 220 Mbps under good conditions.
The nearest competitor in low Earth orbit is Eutelsat OneWeb, formed from the merger of the European satellite operator Eutelsat and the British-Indian OneWeb constellation. OneWeb operates 648 satellites, primarily serving enterprise, government and maritime customers, with particular strength in polar regions. It is not a consumer product in the way Starlink is. Amazon Leo, rebranded from Project Kuiper in November 2025, is the most significant new entrant. With approximately 300 production satellites in orbit as of April 2026 and an FCC-authorised constellation of 3,236 planned, Amazon began an enterprise preview in late 2025 and is rolling out service more broadly in 2026 as satellite density increases. Its integration with Amazon Web Services gives it something Starlink lacks: a natural fit with the infrastructure decisions that large organisations have already made. Telesat Lightspeed, Canada’s planned LEO constellation, is targeting 2027.
Provider: Starlink (SpaceX)
Satellites: ~9,000 in orbit; 10,700+ launched
Key details: ~9m subscribers; 155+ countries; ~$110/month residential; long-term plan: 42,000
Provider: Eutelsat OneWeb
Satellites: 648 operational
Key Details: Enterprise/government/maritime; polar region strength; not a consumer product
Provider: Amazon Leo (formerly Kuiper)
Satellites: ~300 in orbit; 3,236 planned
Key Details: Enterprise preview 2025; broader rollout 2026; FCC deadline July 2026 (extension requested)
Provider: Telesat Lightspeed
Satellites: Planned
Key Details: Canadian LEO constellation; targeting 2027
Provider: AST SpaceMobile
Satellites: Launches ongoing
Key Details: Direct-to-mobile-phone; AT&T/Verizon partnerships
A separate development sits alongside the LEO constellations: AST SpaceMobile, which is building satellites that connect directly to standard mobile phones, no specialised dish required, via partnerships with AT&T, Verizon and other carriers. The first generation of service supports messaging and basic data. More capable versions are planned. If AST SpaceMobile delivers on its roadmap, the access barrier shifts entirely: connectivity from orbit available to anyone with an ordinary mobile handset.
Taken together, the technology represents a real shift. Low Earth orbit satellite internet provides broadband speeds with latency approaching that of ground-based cable, to places that will never see a fibre rollout. In Kenya, where Starlink launched in 2023, analysis by Rest of World found that the monthly subscription cost is lower than that of the leading fixed-line providers. In five African countries — Kenya, Ghana, Zimbabwe, Mozambique and Cape Verde — Starlink is cheaper than the cheapest available broadband alternative. In Indonesia, nearly 60% of Starlink’s subscriber base is in rural areas, nearly four times the proportion seen among fixed wireless or fixed-line users, reflecting how the technology has positioned itself in markets where ground-based infrastructure is absent, according to an Opensignal analysis published in November 2025.
The three gaps the headline numbers hide
Stating that Starlink reaches 3.1 billion people is a statement about coverage, the geographic area within which the signal can, in principle, be received. It says nothing about who can afford to use it. The two numbers are very different.
In Nigeria, as of late 2025, the standard Starlink residential subscription costs the equivalent of $39 per month. The national minimum wage is approximately $48 per month. The monthly subscription alone therefore consumes more than 80% of minimum wage earnings — before accounting for the hardware cost of the dish, which runs to around $406. In an analysis published by TechCabal, the conclusion was direct: Starlink in Nigeria is a service for high earners. It addresses a real connectivity gap and is faster than most alternatives, but it is not a vehicle of mass digital inclusion at current pricing. The people it most visibly fails to serve are precisely the ones whose connection to the global economy would benefit most from affordable internet.
The community hub model is a partial answer. A single Starlink terminal shared across a school, a health clinic, or a rural community centre provides access at lower per-user cost than individual subscriptions. Governments in Mexico, parts of Sub-Saharan Africa and Pacific Island nations have subsidised terminal deployments for schools and public institutions. These approaches work within the technology’s constraints, but they provide intermittent shared access rather than the persistent personal connectivity that changes what an individual can do - hold a remote job, study independently, run a small business.
In Nigeria, the standard Starlink monthly subscription consumes more than 80% of the national minimum wage before hardware. The technology covers the ground. The economics do not reach the people who most need it.
The second gap is geopolitical. Starlink is owned and operated by SpaceX, which is owned and personally controlled by Elon Musk. The service is now active in 160 markets, operates across every active military theatre where Western forces are present, and serves as critical communications infrastructure for Ukraine’s armed forces. In 2022, Musk declined to extend Starlink coverage to support a Ukrainian naval drone operation near Crimea, citing his personal assessment of escalation risk. In early 2025, US negotiators were reported to have threatened restrictions on Ukraine’s Starlink access during negotiations over a minerals deal — a threat the US government did not officially confirm, and that Musk denied SpaceX would act on, but one whose credibility was sufficient to generate significant anxiety in Kyiv. When a private company, and effectively a single individual, can decide whether a frontline military has communications access, the relationship has moved beyond commercial. It has become a question of which private actor holds sovereign functions that states have not figured out how to reclaim.
Countries that have noticed this dynamic are responding in predictable ways. China has authorised its own domestic LEO constellation. The European Union is accelerating IRIS², its planned governmental satellite constellation. India is developing its own LEO system. These are expensive and slow. They reflect a rational assessment that dependence on SpaceX for critical communications infrastructure carries political risk that states are not willing to accept indefinitely. For countries without the resources to build a rival system, the options are narrower.
The third consequence is further removed from any individual subscriber but harder to reverse. When no governance mechanism constrains how many objects private operators can place in orbit, the sky fills up faster than anyone has agreed to manage it. Starlink alone has launched more than 10,700 satellites, with an FCC-approved plan for nearly 17,000 second-generation satellites and a stated long-term ambition of 42,000. Amazon Leo plans 3,236. Other constellations add thousands more. The number of operational satellites in low Earth orbit has roughly tripled in five years. This creates a set of problems that have no straightforward commercial solution. Collision risk between satellites and between satellites and other space objects increases with orbital density. Light pollution from reflective satellite trails is now a documented problem for ground-based astronomy. The Kessler syndrome — a cascade of collisions generating debris that makes entire orbital shells unusable — is a theoretical endpoint that gets less theoretical as orbital density increases. Russia has reportedly been developing a weapon designed to flood Starlink’s orbital shells with clouds of high-density pellets. Analysts and intelligence assessments from two NATO nations have warned that such an attack could generate debris cascading out of control, threatening not only Starlink but every constellation in low Earth orbit, including those operated by Russia and China.
What connectivity from orbit actually changes
The changes that satellite internet delivers when access is genuinely affordable are concrete. In rural communities with reliable satellite connectivity, telemedicine consultations become possible, a GP or specialist in a city can see a patient in a remote village. Remote education stops being a compromise of intermittent video and becomes a sustained engagement. Agricultural information services that require real-time connectivity — weather alerts, market prices, crop disease identification through image recognition tools — reach the farmers who most need them. Disaster response changes when communications infrastructure can be re-established in hours via satellite rather than weeks via cable repair.
These are not hypothetical. They are documented in communities across Sub-Saharan Africa, Latin America, Southeast Asia and the Pacific where satellite connectivity has arrived and where the access barrier was cleared, often through subsidised hardware, government procurement, or NGO deployment. The lesson from these communities is not that the technology solves the connectivity problem. It is that the technology, when its economics are addressed, removes one of several barriers that have kept communities disconnected. The remaining barriers power access, device access, digital literacy, content in local languages, do not disappear because the signal arrives from orbit.
The consequences of the geopolitical concentration are slower to manifest but potentially more durable. A world in which critical communications infrastructure for developing nations runs through a constellation controlled by a single billionaire’s company is a world in which the decisions that individual makes about pricing, coverage, and access carry consequences that previously would have required state-level action. SpaceX can raise prices, withdraw from markets, or restrict usage in ways that no regulatory body currently has clear authority to prevent. The International Telecommunication Union governs spectrum allocation. It does not govern service continuity for nations that have come to depend on a private provider for essential communications.
The gap between coverage and access
Satellite internet works best for people when they can actually afford to use it. Where the economics work, where the subscription is affordable and the hardware accessible, the technology removes a real barrier that ground infrastructure failed to remove. A household with a working subscription has gained persistent connectivity: enough for remote work, independent study, a small business operated from somewhere that previously had none of those options. A school with a shared terminal has partial help. A farming community that cannot clear the hardware cost has nothing. The distinction matters because it determines whether the technology fulfils the claim made for it or whether it creates a new tier of the digital divide: connected enough to know what you are missing, not connected enough to benefit from it.
Whether satellite internet adds something that terrestrial networks cannot is answered most clearly at the coverage edge. In places where fibre will not arrive within this generation’s planning horizon, LEO satellite is not a supplement to terrestrial infrastructure. It is the infrastructure. The improvement is real and significant for those communities. For communities where ground-based options exist, satellite is generally a backup or a premium option, and the case is weaker.
The hardest question is not about the technology. The technology does not adapt to the economic circumstances of the people it claims to serve. It adapts to the willingness to pay of the people who can afford it. The pricing structure that works in Germany or Australia does not work in Nigeria or Papua New Guinea. SpaceX has shown some willingness to adjust regional pricing, plans in some African markets run as low as $10 per month for a capped data allowance, but the hardware cost remains a significant barrier even at reduced subscription rates. An adaptive approach would involve structured subsidies, national procurement at scale, or hardware financing models that distribute the upfront cost over time. Some governments are pursuing these. Most are not.
The engineering is largely solved. What isn’t solved is the price, the politics, and the question of who gets to decide.
You’re reading The Next Evolution by Neil Catton, articles that explore the human world and the intersection of technology, they try and ask difficult questions - not to scare - but to inform. If someone forwarded this to you, you can subscribe free at neilcatton.substack.com.
Neil Catton is the author of The Next Evolution, The Cognitive Crucible and The Shadow System - available on Amazon, and writes at the intersection of technology, ethics, and human purpose.