EU Space Strategy and the Global Race for Orbital Sovereignty

As the US, China, Russia, and the European Union accelerate military launch capacity and low Earth orbit constellations, space is shifting from a commercial arena into a contest for national security. From Brussels’ €15.6 billion IRIS² sovereign satellite network to Washington’s 1,000-launch ambition and China's reusable rockets, satellite bandwidth and launch cadence now dictate strategic autonomy on Earth.
Space is becoming an industrial system in which launch frequency, satellite bandwidth, intelligence, and computing capacity increasingly determine how much strategic autonomy a state can exercise on Earth.
The end of cheap access as a US monopoly
For much of the commercial space era, the United States enjoyed an important advantage: reusable launch technology and the emergence of large private constellations placed Washington and its companies at the centre of the new orbital economy.
That advantage is now being contested.
A Chinese aerospace company has successfully landed a reusable rocket booster, bringing China into a technological club previously dominated by SpaceX and Blue Origin. The immediate significance is economic. Reusability can reduce the cost of putting payloads into orbit, making it easier to launch large numbers of satellites and replenish constellations.
The strategic consequences are larger. A country capable of repeatedly launching relatively inexpensive payloads can build orbital infrastructure at a scale that was previously prohibitively expensive. That affects military communications, reconnaissance, and other dual-use capabilities as much as commercial markets.
The contest is therefore moving from individual rockets to industrial capacity.
China does not need to reproduce the US space industry model exactly to challenge American influence. The ability to generate launch cadence and lower the cost of orbital access is enough to weaken the assumption that US providers will remain the indispensable gateway to low Earth orbit.
Ukraine changed the calculation
The battlefield in Ukraine has provided the clearest demonstration of why this matters.
Space-based communications are no longer a supporting service sitting behind military operations. They have become part of the operational architecture itself. Starlink’s role in Ukraine demonstrated the value of persistent, commercially provided low Earth orbit connectivity for communications, drones and battlefield management.
The decision to restrict Russian access also exposed the vulnerability inherent in that model: a military can become dependent on infrastructure controlled by a private company whose strategic decisions are outside the state's direct command.
Russia’s response has been unusually revealing. Moscow has deployed two orbital packages of its Rassvet low Earth orbit internet constellation ahead of schedule, with the stated objective of restoring tactical communications and targeting capabilities after the loss of Starlink access.
The significance of Rassvet is therefore not merely that Russia is developing another satellite network. It is that battlefield experience has turned sovereign access to low Earth orbit into an operational requirement.
The lesson is spreading.
States increasingly have to consider not only whether they possess satellites, but whether they control enough of the surrounding industrial ecosystem to keep those satellites supplied, connected and replaceable during a conflict.
Europe is buying independence
Europe's response is taking shape through a mixture of EU programmes, national defence spending and industrial policy.
The centrepiece is IRIS², for which the European Commission has finalised a €15.6 billion contract with the SpaceRISE consortium of SES, Eutelsat and Hispasat. The system has been expanded to 348 satellites - 330 in low Earth orbit and 18 in medium Earth orbit - with initial launches planned for 2029 and full operations by 2030.
The most important change is not simply the size of the constellation. IRIS² includes a dedicated 66-satellite military Ka-band layer for European armed forces.
That gives Europe something civilian commercial networks cannot provide on their own: a communications architecture designed with military requirements directly embedded in the system. Secure connectivity becomes less dependent on whatever capacity happens to be available from foreign commercial operators.
The EU is also developing the European Space Defense Shield and the Earth Observation Governmental Service under its Defense Readiness 2030 roadmap, with the stated objective of reducing reliance on US intelligence data. The European Space Agency has approved its first defence-focused initiative, the €1.35 billion European Resilience from Space programme.
Europe's space policy is thus becoming indistinguishable from its wider argument over strategic autonomy.
France and Germany are pushing national capabilities while Brussels seeks a common infrastructure. Spain has committed €325 million to the ERS programme and launched the SpainSat NG-II secure communications satellite. Poland has increased its ESA contribution tenfold over three years to €731 million and contracted ICEYE for a €200 million sovereign radar reconnaissance network known as MikroSAR.
Germany's scale is particularly striking. Berlin's new national security space strategy commits €35 billion between 2026 and 2030 to early-warning, synthetic-aperture radar and signals-intelligence satellites, while Germany is pledging €5.4 billion to ESA.
That spending shifts the balance inside Europe. France remains a major military-space power, but Germany is emerging as a financial and procurement heavyweight whose defence strategy treats space as a central component of national security rather than a specialised technological field.
Washington wants speed, but infrastructure is the constraint
The United States is responding with an equally industrial vision.
President Donald Trump has directed federal agencies to prepare the country's space infrastructure for more than 1,000 commercial launches and re-entries annually by 2030. That is a dramatic increase from the 205 operations authorised by the Federal Aviation Administration in the last fiscal year.
The FAA has proposed streamlined licensing rules, recognising that regulation itself can become a constraint when launch frequency rises sharply. But the bigger problem may lie underneath the regulatory system.
The NASA Inspector General has warned that ageing launch infrastructure and declining maintenance budgets are already bottlenecks. Increasing the number of licences does not automatically create the physical capacity to process, fuel, launch and recover thousands of vehicles.
SpaceX's proposed Starbase Louisiana illustrates the scale of infrastructure now being contemplated. The planned $100 billion, 125,000-acre commercial spaceport on Pecan Island is designed to support late-stage Starship development and potentially thousands of flights a year by 2029. Its proposed infrastructure includes methane production, power generation and deep-water shipping, with potential airport facilities.
The ambition goes well beyond a conventional launch site. It points towards a self-contained industrial platform built around orbital throughput.
SpaceX also links the wider expansion to its long-term objective of deploying 1 million AI data-processing satellites in sun-synchronous orbits, alongside NASA's Artemis programme. If such ambitions become technically and economically viable, satellites cease to be principally communications relays or observation platforms. They become distributed infrastructure for processing information in orbit.
That would make launch cadence a strategic resource in its own right.
Private companies are becoming strategic infrastructure
The transformation creates an awkward dependency for governments.
Commercial space companies have supplied the innovation and scale that state programmes often struggled to produce. Yet the Ukraine experience showed the strategic problem clearly: when military operations depend on commercially controlled infrastructure, sovereignty can become conditional.
That tension is becoming more important as constellations grow larger and more integrated into defence systems.
A government can finance a satellite network, but it still needs launch providers, fuel production, ground infrastructure, replacement capacity and industrial supply chains. If those components are concentrated in a handful of private companies, the distinction between public infrastructure and corporate infrastructure becomes increasingly difficult to maintain.
The US is trying to solve the problem through scale, with federal policy pushing commercial launch towards unprecedented volumes. Europe is taking a different route, combining public money with private contractors while embedding sovereign and military requirements in programmes such as IRIS² and ERS.
Neither model eliminates the dependency. It changes where it sits.
The battlefield is moving into the supply chain
The emerging competition is therefore less about planting national flags in orbit than about controlling the machinery that keeps orbital systems functioning.
Reusable rockets make frequent launches economically possible. Dense constellations make communications and sensing persistent. Military layers give governments assured access. Earth observation and signals intelligence turn satellites into instruments of national security. Increasingly, computing capacity itself is being pushed into orbit.
This creates a new form of strategic depth. A state that can launch frequently, replace satellites quickly and maintain independent communications and intelligence networks is harder to isolate during a conflict.
The inverse is also true.
Europe's 2030 target for full IRIS² operations leaves a period in which European forces remain dependent on existing commercial and foreign capabilities. Washington's 1,000-launch ambition faces the less visible problem of ageing infrastructure. Russia is trying to restore capabilities after discovering the consequences of losing access to a private network. China is narrowing the technological gap in reusable launch systems.
The contest for low Earth orbit is consequently becoming a contest over who can sustain an orbital economy under pressure. The decisive advantage may no longer belong to the country with the most advanced satellite, but to the one capable of launching, replacing, processing and securing thousands of them when access to space itself becomes contested.
Read also:
- Europe’s private rocket sector is approaching a decisive test, with Isar Aerospace, Rocket Factory Augsburg (RFA), and PLD Space racing to achieve commercial orbit before 2027. Yet as Isar prepares for its second Spectrum launch attempt from Norway, Europe’s challenge is no longer just engineering - it is building the industrial ecosystem required to break SpaceX’s orbital dominance.
Sources: Thе Washington Post, Reuters, Breaking Defense, The European Commission
