Over a period of six months, the organizers of the challenge gradually added various task types to a simulation environment, which then had to be managed autonomously. The tasks included mapping regions on the Earth's surface, observing time-critical events, and locating emergency beacons. At the same time, the challenge involved managing limited resources on the satellite, such as fuel, energy, storage and computational power.
The last 72 hours of the challenge marked the start of the final evaluation phase. For this phase, the entire simulation environment was reset and filled with a host of new, more demanding tasks. Additionally, access to the satellite was artificially restricted: Similar to real LEO satellites (LEO means Low Earth Orbit, these satellites orbit the Earth at a low altitude), communication was now only possible every 90 minutes for about 10 minutes – truly a stress test for the semi-autonomous software on board.
SaTec Students Convince the Jury
With 14 out of 17 mission tasks completed during the evaluation phase, the team qualified for the 'CIARC Day' at the European Space Operations Centre (ESOC) in Darmstadt. During the final presentation and subsequent discussion, both the modular system architecture and the efficient path planner impressed the expert jury. Due to the high degree of flexibility, resource efficiency, and autonomy, the team managed to stand out against strong competition and was honored as the winner of this year's challenge.
The price for the winning JMU students of the Elite Graduate Program “Satellite Technology” was a one week ESA Academy training course on space cybersecurity in Belgium.
Text: Elite Graduate Program “Satellite Technology”