Europe Takes the Lead on Orbital Cleanup
Mar 22, 2026
Astroscale France and Exotrail have joined forces to develop and demonstrate a controlled deorbiting capability for satellites in Low Earth Orbit. The partnership combines Exotrail’s high-mobility orbital transfer vehicle, known as the spacevan™, with Astroscale’s proven expertise in Rendezvous and Proximity Operations (RPO) and satellite capture technology. The spacevan™ LEO platform offers a delta-V of 500 m/s, making it capable of significant altitude and inclination changes, while Astroscale brings flight-proven docking mechanisms and RPO algorithms drawn from missions such as ADRAS-J and ELSA-d. Together, the two technologies form a complete, end-to-end deorbiting solution that is both technically robust and commercially scalable.
Astroscale France and Exotrail promo. Credit: Astroscale France
The collaboration did not happen overnight – it was formed on a strong foundation of previous research and institutional support. The partnership comes after a successful study phase carried out by Exotrail, under a France 2030 contract with the French space agency CNES, during which both companies evaluated a realistic deorbiting mission for a constellation satellite. That study demonstrated the technical and operational viability of the approach and provided the basis for the current roadmap. Philippe Blatt, Managing Director of Astroscale France, stressed that the combination of Exotrail’s mission leadership on vehicles and maneuvers with Astroscale’s capture and proximity operations expertise was putting France and Europe at the forefront of in-orbit servicing. The initiative is very much in line with European priorities around technological sovereignty and the overall vision of a circular space economy.
The strategic significance of this partnership extends far beyond the technical. Jean-Luc Maria, CEO of Exotrail, said that controlled deorbiting and on-orbit rendezvous capabilities are widely acknowledged as being critical building blocks for both civilian applications and the future of defense infrastructure in space. This view is also supported by similar initiatives in the European space industry, such as ESA’s ECO-Tethers project, which is investigating propellant-free deorbiting technologies based on electrodynamic tethers as a complementary strategy to end-of-life satellite disposal. Taken together, these initiatives are indicative of a concerted European effort to build resilient, sovereign capabilities for the management of orbital infrastructure at scale.
The final objective of the Astroscale-Exotrail collaboration is to conduct a joint demonstration mission before 2030, aiming at the removal of a real commercial satellite that is in orbit. This milestone would be a giant leap for the European in-orbit servicing industry, demonstrating that controlled deorbiting can be safely, repeatably and commercially performed. Beyond this first demonstration, the two companies have defined a common roadmap for the coming years, which includes the creation of permanent European rendezvous and docking infrastructure, capable of supporting future missions involving in-orbit assembly, refueling and maintenance. If successful, this collaboration could become a model for how the global space industry will transition to a more sustainable and responsible use of orbital space.
The problem of orbital congestion is no longer a distant warning – it is the defining challenge of this generation of space actors. Low Earth Orbit is already full of active satellites, defunct hardware, and debris fragments, and shows no sign of slowing down. The traditional “launch, operate, abandon” model has run its course, and partnerships such as the one between Astroscale France and Exotrail are exactly the type of systemic response that the industry needs. If Europe does manage to translate this vision into operational reality before 2030, it will not only be cleaning up its share of the sky – it will be setting the standard for how the entire world deals with the future of space.
