The short answer

Europe has working alternatives to parts of Starlink, but not one like-for-like replacement. A household can already order European-operated geostationary satellite broadband in several countries. Paris-based Eutelsat operates OneWeb, the only fully operational global LEO network under European control, but it usually reaches customers through distributors and professional contracts. Luxembourg-based SES operates O3b mPOWER for telecom, mobility, government and enterprise buyers. The EU's IRIS² system moved into full-scale deployment in August 2026, but its first launches are scheduled for 2029.

Choose the job before the satellite

Start with the job, not the flag. A remote household needs an address-level offer, transparent equipment and installation costs, enough priority data, and latency suitable for its applications. A company or municipality may instead need a service-level agreement, fixed IP addressing, backup connectivity, security controls and field support. A ship, aircraft, mobile operator or government network buys still another product. Starlink combines those questions behind a familiar retail checkout; Europe's current market separates them among satellite operators, national internet providers, terminal makers and integrators.

Verified 2 November 2026

What can a European buyer actually obtain?

Coverage is not the same as an orderable service. This matrix separates direct household retail, partner-led professional connectivity and future infrastructure.

OptionStatus nowBest fitThe important difference
Fibre, fixed wireless or 4G/5GCommission technology guide ↗Address-specific and widely soldHomes and small organisationsUsually lower latency and simpler equipment; check this before satellite.
European GEO household satelliteCommission household ranges ↗Orderable country by countryRemote homes and small businessesDirect retail exists now, but typical latency is around 600–700 ms and contract terms vary.
Eutelsat OneWeb LEOEutelsat OneWeb ↗Operational through partnersEnterprise, government, telecom, aviation, maritime and remote sitesEuropean-controlled LEO capacity without one pan-European household checkout.
SES O3b mPOWER MEOSES system factsheet ↗Operational professional serviceTelecom, mobility, government, cloud and enterpriseManaged connectivity and service-level commitments, not a residential broadband plan.
EU IRIS² multi-orbitCommission 2026 agreement ↗Full-scale deployment; not orderableGovernment and emergency users first, plus future commercial services348 planned satellites; first launches in 2029 and early secure services intended soon after.
Starlink LEO referenceOfficial availability map ↗Direct retail in many European locationsHomes, mobile users and businessesThe current easy-to-order LEO benchmark, operated and controlled outside Europe.

Availability, prices and performance are address- and plan-specific. Recheck the provider before ordering; the table describes market role, not guaranteed local service.

What a European household can order now

For a home, check fibre, cable, fixed wireless and 4G or 5G before satellite. The European Commission's broadband technology guide describes fibre as the strongest long-term option and satellite as a practical way to reach scattered or underserved premises without building a local access network. Satellite becomes compelling when the address has no adequate terrestrial offer, when installation would take too long, or when an independent backup route matters more than minimum latency.

European residential satellite internet is real, but it is mainly GEO. The Commission's current orientation gives indicative EU consumer equipment costs of about €350–€600 and monthly prices of roughly €20–€60 for GEO service; actual offers vary by country, address, data policy and subsidy. Germany-based skyDSL says it sells household service across much of Europe, with country-specific plans rather than one EU price. In France, Nordnet currently advertises Eutelsat-powered residential plans up to 100–200 Mb/s, with different equipment, commitment and priority-data terms. These are examples to verify, not blanket endorsements.

France also shows why the word alternative can mislead. Nordnet's consumer neosat range uses Eutelsat's geostationary infrastructure and is advertised for households. Its separate OneWeb-based NEOSAT SUPRA offer is presented to professional buyers with about 100 ms latency, a 50 GB rechargeable allowance, fixed IP and much more expensive terminal terms. The same European operator therefore supports a direct household GEO product and a partner-sold professional LEO product; neither fact proves that OneWeb has become a mass-market household service across Europe.

Why LEO, MEO and GEO feel different

Orbit determines much of the experience. Eutelsat places OneWeb at about 1,200 km, SES places O3b mPOWER at 8,000 km, and a GEO satellite sits about 35,786 km above the equator. A simple straight-up round-trip propagation floor—four times the altitude divided by the speed of light—is about 16 ms for OneWeb, 107 ms for O3b and 478 ms for GEO. Real traffic takes slanted paths and passes through terminals, gateways, routing and processing, so measured latency is higher. The Commission gives typical broad ranges of about 20–40 ms for LEO and about 600 ms for GEO; Nordnet quotes approximately 100 ms for its OneWeb professional offer and 700 ms for GEO.

Comparison of Starlink-like LEO, OneWeb LEO, SES O3b MEO and GEO orbit heights with theoretical propagation floors
Original calculation: 4 × orbital altitude ÷ 299,792 km/s. These are propagation-only lower bounds, not speed-test predictions; real networks add slant distance, gateways, routing, congestion and processing.

OneWeb and SES are operational—but sold differently

Eutelsat OneWeb is the closest operational European-controlled network to Starlink at the space layer. Eutelsat describes more than 600 satellites in 12 orbital planes at 1,200 km, covering land, sea and air. The group is headquartered in Paris; its Gen 1 OneWeb constellation operates under UK and international space regulation, so this is a European system rather than an EU-only one. Its commercial strength is partner delivery to governments, businesses, telecom operators, aviation and maritime customers. Buyers should ask the local integrator for the terminal, coverage, committed information rate, data allowance, support boundary and contract—not assume that constellation coverage equals retail availability.

SES solves a different problem. Its O3b mPOWER satellites use medium Earth orbit and managed ground infrastructure to deliver predictable professional connectivity. SES's system factsheet identifies mobility, telecom, government and enterprise markets, not household subscriptions. Ten satellites were operational when SES launched the final three on 13 September 2026; the company says those newly launched spacecraft are due to become operational by mid-2027. SES is headquartered in Luxembourg, but Boeing built the satellites and SpaceX launched them: European operational control and a global industrial supply chain can both be true.

IRIS² moved into full deployment in 2026

IRIS² is now more concrete than the original version of this guide reported. A September 2025 Commission factsheet described more than 290 satellites entering service in 2030. On 7 August 2026, however, the Commission and SpaceRISE signed a new implementation agreement that expanded the baseline to 348 satellites—330 in higher LEO and 18 in MEO—and moved first launches forward to 2029. Early sovereign services are intended to follow. IRIS² remains a public-private secure-connectivity programme for government, defence, emergencies and commercial services; the current agreement is not a consumer product launch or a promise of a 2029 household tariff.

European control does not mean autarky

European does not mean every component is European or that every packet stays inside the EU. The useful questions are who controls the operator, which law governs the service, where gateways and network operations sit, who can update terminals, which launcher and spacecraft suppliers are involved, and whether a customer can obtain support during a crisis. OneWeb, SES and IRIS² strengthen European choice. They also depend on global semiconductor, launch, cloud, terminal and manufacturing chains. Strategic autonomy is the ability to make and sustain critical decisions, not an impossible claim of total autarky.

The buyer's contract and installation check

Before ordering, obtain the contract summary and write down six numbers: normal monthly price, equipment and installation cost, minimum term, maximum upload and download rates, priority or capped data, and expected latency. Then check line of sight, landlord or planning permission, power draw, weather resilience, router mode, static IP or carrier-grade NAT, VPN compatibility, pause and cancellation rules, repair time and what happens after the priority allowance. Run address checks with at least one terrestrial and one satellite provider; a national broadband map can reveal a fixed-wireless or fibre build that a general search misses.

What Europe has achieved—and what comes next

The European achievement is already substantial: a French-headquartered operator runs a global LEO constellation, a Luxembourg operator runs the world's leading commercial MEO system, European providers sell household GEO connections, and the EU has converted IRIS² from a political proposal into contracted deployment. The unfinished part is equally specific: turn that capacity into simple, competitive household LEO offers, keep professional networks resilient, launch IRIS² on schedule, and make public support buy measurable coverage and choice. A stronger federal Europe should be able to connect a remote home and protect a continental emergency network without pretending they are the same product.