Europe’s IRIS² satellite network has taken another step from policy document to production programme. On October 30, 2026, MDA Space said it had received an authorization to proceed from Thales Alenia Space for broadband digital phased-array antennas and an antenna controller for 66 early-delivery satellites.
The agreement is worth more than $100 million, according to MDA Space’s announcement. It covers the “Layer 1” spacecraft that are intended to begin launching in 2029. The important caveat is that this is an authorization to start work, while the definitive contract for MDA’s complete scope still has to be finalized.
What MDA Space has been asked to build
MDA will supply elements of its AURORA product line: broadband direct-radiating antenna arrays and the digital controller that manages them. The hardware will be designed, manufactured and tested at MDA’s facility in Montréal.
A conventional satellite antenna can be tied to a relatively fixed coverage pattern. A phased array instead uses many small radiating elements whose signals are coordinated electronically. Digital beamforming lets the system point and reshape beams without mechanically steering a large dish. In practical terms, an operator can direct capacity toward the places and users that need it, then adjust that coverage as demand or an emergency changes.
MDA also describes AURORA as capable of beam hopping. That is a way of switching capacity between coverage areas rather than illuminating every area with the same amount of bandwidth all the time. Those capabilities are particularly relevant to a system expected to support government, defence and emergency communications, where traffic can move suddenly and terrestrial networks may be unavailable.
How the 66 satellites fit into IRIS²
IRIS² stands for Infrastructure for Resilience, Interconnectivity and Security by Satellite. It is the European Union’s planned sovereign connectivity network, designed to complement ground networks with satellites in more than one orbit.
The European Commission and the SpaceRISE consortium completed an implementation agreement in August 2026. The revised plan calls for a main constellation of 348 satellites: 330 in low Earth orbit and 18 in medium Earth orbit. The additional group of 66 higher-LEO satellites is intended to increase capacity for defence, security and emergency-response users. The EU Agency for the Space Programme says the expanded design should raise secure governmental capacity by 60% within the EU and 54% globally.
MDA’s newly announced work concerns that early 66-satellite layer, not every spacecraft in the broader constellation. Thales Alenia Space is the direct customer named in MDA’s agreement, while the wider IRIS² effort involves the European Commission, the European Space Agency, EUSPA, SpaceRISE and multiple industrial partners.
Why antennas matter as much as the satellites
A satellite constellation is often described by its spacecraft count, but the payload determines what those satellites can actually do. The antenna subsystem is the bridge between the satellite’s processing hardware and users on the ground. Its beam shape, power handling, frequency support and reconfigurability affect coverage and usable capacity.
Software-defined and electronically steered payloads also make a long-lived satellite less rigid. Operators can change how capacity is distributed after launch instead of being locked entirely to assumptions made during design. That does not make the system unlimited: total power, spectrum, gateway capacity and ground terminals still set hard boundaries. It does, however, give operators more options when demand changes over the spacecraft’s working life.
MDA says its AURORA arrays are engineered for high-volume production. That is significant because building dozens of matching payloads on a 2029 launch schedule is a manufacturing challenge as well as a radio-engineering one. The company expects to add the authorization to its backlog in the fourth quarter of fiscal 2026.
Who could eventually use IRIS²
The 66-satellite layer is primarily associated with secure public-sector communications. Likely users include European governments, defence organizations, border and maritime services, and emergency teams that need resilient links during disasters or outages.
The broader programme has a commercial side too. The EU’s IRIS² overview says the network is also intended to provide high-speed broadband to citizens and businesses in places where fixed or mobile networks are unavailable or unreliable. That could make IRIS² relevant to rural homes, remote worksites, transport links and critical infrastructure.
However, this antenna order is not a consumer service announcement. There is no retail launch date, monthly subscription price, user terminal, performance tier or country-by-country availability list. It would be premature to compare a future IRIS² household plan with Starlink or other satellite broadband products because the commercial offer has not yet been defined publicly.
Timing and the biggest unknowns
The first launches are targeted for 2029, according to MDA, the European Space Agency and EU programme updates. Deployment and services are expected to arrive in phases rather than all 348 satellites becoming active at once.
Several details remain open. MDA has not disclosed how many antenna panels will be fitted to each satellite, their throughput, operating bands, power consumption or the division of work beyond its own subsystem. Its release values the authorization at more than $100 million but does not spell out the currency in the announcement text. Most importantly, the definitive contract is still subject to finalization.
Launch providers, ground infrastructure, service packages and terminal suppliers will also determine how useful and affordable the final network becomes. A 2029 first-launch target leaves room for design changes, supplier delays and deployment risks common to large space programmes.
What this agreement changes now
The deal does not put a new broadband option on sale. What it does is authorize a specialist supplier to begin building a critical part of 66 spacecraft, giving the reinforced IRIS² layer a clearer hardware path and a named antenna technology.
For Europe, the strategic goal is control: communications capacity that remains available to public agencies and emergency services without relying entirely on non-European satellite networks. For the space industry, the order is another sign that digitally steerable, mass-produced payloads are becoming central to large constellations.
Consumers should watch the programme, but not shop for it yet. The next useful milestones will be a finalized MDA contract, confirmed launch arrangements, completed satellite and ground-segment designs, and concrete information about commercial service and terminals. Until those arrive, IRIS² is best understood as major connectivity infrastructure under construction rather than a finished rival on the satellite-internet price chart.