Search
At present, the largest part of the catalogued space debris population consists of fragments originating from accidental explosions of spacecraft and upper stages, but it is expected that hypervelocity collisions involving large objects could become the primary source of new debris in the mid-term future. In this context, understanding the physical processes involved in spacecraft collisions is crucial, because these big impacts are one of the key drivers of the long-term evolution of the amount of space debris.
CISAS
The technical objective of this study was to understand the net effect of using deorbiting technologies like sails or tethers over the future debris population around Earth. In principle, indeed, these attractive technologies will support the compliancy to post-mitigation disposal guidelines, for small missions. However, the increased cross section also increases the collision risk.
Politechnico di Milano
In this activity, LSI's Airbus, OHB and Thales Alenia Space evaluated CleanSat technologies.
Thales Alenia Space
Filter by programme:
Filter by start year:
Filter by end year:
Filter by keywords:
- CleanSpace (2) Apply CleanSpace filter
- Demisability (2) Apply Demisability filter
- Space debris (2) Apply Space debris filter
- Catastrophic collisions (1) Apply Catastrophic collisions filter
- CDF (1) Apply CDF filter
- CleanSat (1) Apply CleanSat filter
- Deorbit (1) Apply Deorbit filter
- Hypervelocity (1) Apply Hypervelocity filter
- Simulation (1) Apply Simulation filter
Filter by contractor:
Filter by country:
- (-) Remove Italy filter Italy
Filter by application domain:
Filter by competence domain:
- (-) Remove 10-Astrodynamics, Space Debris and Space Environment filter 10-Astrodynamics, Space Debris and Space Environment