Europe’s $11.5B IRIS² satellite network aims to rival Starlink, and keep EU communications secure

Europe is moving to build its own secure satellite internet system, one designed to keep government communications running during crises and to bring broadband to places where fiber and cell coverage still fall short.

The project, called IRIS², would put roughly 300 satellites into multiple orbits by 2030, with service expected to come online around 2030 or early 2031. European officials see it as critical infrastructure: a backup when terrestrial networks fail, and a way to reduce reliance on private, non-European providers.

At stake is more than faster internet. For the European Union, often compared to a looser, multinational version of the U.S. federal system, IRIS² is also about sovereignty: controlling the pipes that carry sensitive data in an era of cyberattacks, war, and geopolitical pressure.

A roughly $11.5 billion bet on “strategic autonomy”

The European Commission, the EU’s executive branch, and the European Space Agency (ESA) signed contracts in December 2024 to push IRIS² into an industrial buildout phase. The total budget is listed at €10.6 billion, or about$11.5 billionat current exchange rates.

The financing is structured as a public-private partnership, meant to spread risk beyond taxpayers. ESA is contributing €550 million, about$600 million, from funding approved at its 2022 ministerial meeting, with the rest coming from EU-level funding and private investment.

The private-sector anchor is SpaceRISE, a consortium led by three major European satellite operators: Eutelsat (France), SES (Luxembourg), and Hispasat (Spain). SpaceRISE says it will invest €4.1 billion, roughly$4.5 billion, with each partner putting in at least €500 million (about$545 million).

That structure is also a political message: Europe wants committed “champions,” not just contractors. But it sets up a familiar tension, commercial incentives don’t always align neatly with government security priorities.

How IRIS² is built: three orbits, one network

IRIS² is designed as a multi-orbit constellation, a more complex approach intended to balance coverage, speed, and resilience.

The plan includes18 satellites in medium Earth orbit(MEO) at about4,970 milesabove Earth (roughly 8,000 kilometers), using Ka-band capacity. That layer is aimed at broad coverage and stable service, useful for institutional communications that can’t blink out when networks are congested or disrupted.

Most of the system would sit in low Earth orbit. The main “LEO High” layer calls for about264 satellitesat roughly746 milesup (about 1,200 kilometers), operating in Ku and Ka bands commonly used for broadband.

A smaller “LEO Low” layer,10 satellites or more, would orbit between about249 and 466 miles(400 to 750 kilometers). Officials describe it as a technology testbed, a way to keep the network from aging out as satellite tech evolves quickly.

The tradeoff: multi-orbit systems are harder to integrate. Different altitudes mean different performance profiles, different payloads, and more complicated network management. The promise to users is seamless switching if one segment fails; the challenge for engineers is making that handoff reliable at scale.

Security is the selling point, especially for governments

European leaders aren’t pitching IRIS² as just another consumer internet option. They’re selling it as a security and sovereignty tool, with encryption and hardened infrastructure at the center.

A key feature is planned integration withEuroQCI, the EU’s quantum-secure communications initiative. The goal is to future-proof sensitive links against increasingly capable interception and decryption attempts, an issue that has moved from academic to urgent as governments prepare for next-generation cyber threats.

IRIS² is also meant to complement terrestrial networks, not replace them. In practical terms, that means continuity during disasters, think storms that sever fiber lines along a coastline, wildfires that knock out cell towers, or cyber incidents that disrupt key interconnections. In those moments, satellites can provide a redundant path for emergency services and government agencies.

The coverage ambitions extend well beyond EU borders, including the Arctic and major surrounding seas, the Atlantic, Baltic, Black Sea, and Mediterranean, plus reach into parts of the Middle East and Africa where Europe has strategic and security interests.

Still, security isn’t just encryption. It’s also secure terminals, strict access controls, vetted supply chains, and disciplined operations. A “secure constellation” can be undermined if user equipment is poorly managed or compromised.

The Starlink comparison, and the scale problem

IRIS² is arriving in a world already shaped by commercial mega-constellations, especially SpaceX’s Starlink. And the comparison is unavoidable: IRIS² is targeting about300 satellites, while Starlink operates thousands.

Supporters argue smaller can be more governable and more tailored to public needs. Critics counter that fewer satellites can mean less total capacity, and potentially higher costs for user terminals compared with mass-market consumer hardware.

Europe also lacks one of Starlink’s biggest advantages: tight vertical integration. SpaceX builds satellites, launches them on its own rockets, iterates quickly, and reinvests at speed. Europe’s space ecosystem is more fragmented, which can slow timelines and complicate cost control.

And IRIS² won’t start from zero. Several European countries already operate military communications satellites, France’s Syracuse, Italy’s Sicral, and Germany’s SATCOMBw among them, and OneWeb already provides low Earth orbit connectivity. That raises a blunt political question: does IRIS² deliver a step-change, or does it add another expensive layer?

What happens next: rollout by 2030, service by 2031

The official timeline calls for a phased deployment through2030, with service starting around2030and full operational capability expected by early2031. The difference matters: early service can mean limited coverage and capacity, while “full service” implies the network is largely built out and integrated.

For everyday residents, the most visible promise is broadband for underserved areas, rural communities, mountainous regions, islands, and places where building fiber is slow or prohibitively expensive. The EU frames IRIS² as a supplement to ground networks, offering either a bridge until fiber arrives or a permanent solution where it never will.

The hardest decisions may be political, not technical: when bandwidth is tight, who gets priority, government users, critical infrastructure operators, businesses, or the general public? IRIS² is being sold as both a security backbone and a connectivity tool. Making it work will require choosing which mission comes first when the system is under stress.