Open Cosmos announced a 192-satellite foundation for ConnectedCosmos on October 5, 2026, outlining a European communications network for governments, institutions, and businesses. Its schedule targets more than 96 satellites in orbit by the end of 2028 and global coverage by 2030. Those figures describe a deployment plan, not an operating global service.
ConnectedCosmos addresses a practical concern behind the demand for sovereign satellite communications: who controls access to information when ordinary connections become unavailable or politically uncertain. Satellite ownership alone doesn’t answer that question. The more useful test is whether customers can retain dependable access, protect sensitive information, and understand which organizations control the service on which they depend.
The project has already reached orbit in an initial form. On January 22, 2026, Open Cosmos launched two telecommunications satellites aboard a Rocket Lab Electron rocket from New Zealand. The company described their role as testing operations, validating system development, and demonstrating its network concept. That flight provides a concrete starting point, but two test satellites cannot establish the coverage, capacity, or reliability of a completed constellation.
This distinction matters when assessing commercial readiness. A successful launch shows that spacecraft have reached orbit; testing must establish what they can deliver there. A communications customer ultimately needs an end-to-end service, including a working terminal, usable connections, network management, and support when equipment fails. Progress on one part of that chain doesn’t establish performance across the whole chain.
The company’s proposed architecture uses optical links, which transmit information with light, to move data between spacecraft. Open Cosmos says this would allow traffic to bypass vulnerable intermediate ground infrastructure and subsea cables. Its intended customer offering combines communications with the delivery of Earth-observation information, including data gathered by other satellites. These are design objectives whose value depends on implementation.
The underlying relay principle is established. The European Space Agency’s laser communications explanation describes how its European Data Relay System receives information from lower-orbiting observation satellites and forwards it toward ground stations. A relay reduces the need for an observing spacecraft to wait until it passes a suitable receiving station. ConnectedCosmos proposes a different network arrangement, so EDRS demonstrates the general mechanism rather than validating this company’s design.
Optical connections also don’t remove the need to reach users on Earth. Information still needs an entry point, an exit point, and equipment that can interpret and protect it. A network that avoids an intermediate terrestrial route can reduce one dependency without eliminating every other dependency. Buyers should distinguish the route taken by their data from the security of the devices, software, and organizations handling it.
That distinction gives substance to the debate about sovereign satellite networks. Sovereignty can involve authority over encryption, traffic priorities, operational decisions, and the legal conditions governing access. It needn’t mean that every component was manufactured within one country. Conversely, a domestically owned spacecraft offers incomplete assurance if essential service decisions remain outside the customer’s control.
For a government buyer, these questions belong in procurement documents. Contracts should specify what happens during congestion, which users receive priority, how incidents are reported, and what remedies follow an outage. Security requirements should also define the customer’s access to testing and evidence. A promise of sovereign capacity becomes more useful when it can be translated into enforceable responsibilities.
Open Cosmos announced €300 million in funding on September 14, 2026. The company said the money would support satellite manufacturing and the expansion of ConnectedCosmos, OpenConstellation, and DataCosmos, alongside engineering and software teams. That allocation matters: the financing supports a broader business, rather than constituting a disclosed, dedicated budget for every element of the communications network.
The financing announcement also describes the commercial logic of integrating observation, processing, and transmission. A satellite image has limited operational value until it reaches someone who can interpret or act on it. Combining those functions could shorten the journey from collection to decision. The investment case nevertheless depends on customers paying for useful information and dependable delivery, rather than simply rewarding a larger fleet.
The funding release gives a proposed forest-fire application: detecting a possible fire from space and passing information to responders. It presents that sequence as a capability the combined system could provide, not as a documented emergency deployment. Evaluating such a service would require evidence about detection accuracy, delivery time, false alarms, and whether emergency teams can use the resulting information.
Manufacturing and launch schedules require equally careful interpretation. A deployment target is a milestone against which progress can be judged, rather than a guarantee that all associated services will become available simultaneously. Buyers need dated evidence of commissioned spacecraft, tested coverage, and service acceptance. Announced fleet size is useful planning information, but it isn’t a substitute for a demonstrated connection.
Expansion also brings responsibilities in orbit. ESA’s 2026 space environment assessment, based on data through the end of 2025, describes increasing congestion and the need for better collision avoidance and disposal practices. For constellation operators, avoiding collisions and removing retired spacecraft belong within the operating model. Reliable connectivity depends partly on preserving the orbital environment that makes the service possible.
The strongest way to assess ConnectedCosmos is through measurable service outcomes. Published performance, customer acceptance, security testing, and delivery against the announced schedule would each answer a different question. No single launch or financing announcement settles all of them. A government seeking assured communications needs evidence that remains convincing during disruption, when spare capacity, recovery procedures, and contractual priorities face their hardest test.
Open Cosmos has made its intended scale clearer and has both initial spacecraft and newly announced financing behind its program. The next commercial task is to turn those foundations into a service customers can assess and rely on. Its significance will rest on the control and continuity delivered to users, with the satellite count serving as one input rather than the final measure of success.
Useful Books Available on Amazon
