Imagine if satellites were built like LEGO sets instead of single, permanent pieces of hardware. This system lets operators swap out parts or add new features in space, similar to downloading a new app on a phone. It means instead of launching a whole new satellite when a part breaks or gets old, you just replace the specific module.
Satellites are traditionally built as single-use units, meaning a single component failure or an outdated sensor can render a multi-million euro asset useless. This creates high waste and extreme costs for mission updates.
A modular satellite architecture including the SIROM interface and a Satellite Construction Kit. Physical breadboard modules for power (MEPS3) and data handling (MIA) were manufactured and tested.
If you are a fleet operator dealing with rapidly aging hardware—this project developed a modular ORU system that allows in-orbit upgrades. This extends the lifespan of your infrastructure and reduces the need for costly new launches.
If you are a servicing company dealing with complex repair missions—this project developed a 'plug-and-play' interface (SIROM) that makes swapping components straightforward. This reduces the technical risk and time required for orbital maintenance.
If you are a manufacturer dealing with rigid, custom-built designs—this project developed a Satellite Construction Kit. This allows you to create standardized building blocks that are compatible across various mission types and payloads.
By using interchangeable modules and in-orbit servicing, the system reduces the need for expensive new launches and makes space more accessible. Based on available project data, the modularity significantly lowers the cost of space missions.
Yes, the system is designed to be scalable and adaptable to a wide range of mission types and payloads. It uses a modular architecture to ensure compatibility across various space applications.
Based on available project data, the project follows an 'Open-Architecture' mentality for modules like avionics, though specific licensing terms are not detailed.
Integration is handled through the SIROM standard interfaces, which ensure seamless connection between the modular building blocks and payloads.
The project ran from 2023-01-01 to 2024-12-31, completing phases from system requirements and preliminary design to manufacturing and validation.
The consortium is heavily industry-driven with an 83% industry ratio, consisting of 6 partners across 6 countries. It is led by SENER Aeroespacial and includes major aerospace players like Thales Alenia Space (France and Italy), indicating high commercial intent and a strong pipeline for integrating these modules into actual satellite fleets.
Contact SENER Aeroespacial Sociedad Anonima regarding the Satellite Construction Kit
Request technical specifications for SIROM interfaces
