TY - GEN
T1 - Preliminary design of a stand-alone Mars Cubesat mission integrating dlr in-house technologies
AU - Marí, Héctor Juan
AU - Noomen, Ron
AU - Grundmann, Jan Thimo
AU - Ho, Tra Mi
PY - 2025
Y1 - 2025
N2 - This work presents a design for a stand-alone Mars exploration mission utilizing a 12U CubeSat, showcasing the integration of DLR's in-house technologies. Focused on demonstrating the capabilities of miniaturized satellites in deep space, this innovative 4-year mission will travel independently to Mars propelled by a low-thrust propulsion system. Upon reaching Mars, the spacecraft will insert itself into a highly elliptical orbit, transitioning to a Primary Science Orbit (PSO) at 250 km altitude through aerobraking. This orbit is strategically chosen for its sun-synchronous and near-circular properties, optimizing scientific operations aimed at studying Mars' lower atmosphere and gravity field. The CubeSat features a 20.8 kg wet mass, a 6.3 km/s maneuvering capability, and can generate up to 90 W of power. It is equipped with a 2U infrared spectrometer, a 1U gravimeter, and a 12 Mpx CMOS camera for scientific data collection. Utilizing DLR's technology, including an integrated avionics stack combining communications, power, and onboard computer subsystems, the mission seeks to advance the CubeSat platform for interplanetary use, significantly reducing costs and fostering future exploration opportunities.
AB - This work presents a design for a stand-alone Mars exploration mission utilizing a 12U CubeSat, showcasing the integration of DLR's in-house technologies. Focused on demonstrating the capabilities of miniaturized satellites in deep space, this innovative 4-year mission will travel independently to Mars propelled by a low-thrust propulsion system. Upon reaching Mars, the spacecraft will insert itself into a highly elliptical orbit, transitioning to a Primary Science Orbit (PSO) at 250 km altitude through aerobraking. This orbit is strategically chosen for its sun-synchronous and near-circular properties, optimizing scientific operations aimed at studying Mars' lower atmosphere and gravity field. The CubeSat features a 20.8 kg wet mass, a 6.3 km/s maneuvering capability, and can generate up to 90 W of power. It is equipped with a 2U infrared spectrometer, a 1U gravimeter, and a 12 Mpx CMOS camera for scientific data collection. Utilizing DLR's technology, including an integrated avionics stack combining communications, power, and onboard computer subsystems, the mission seeks to advance the CubeSat platform for interplanetary use, significantly reducing costs and fostering future exploration opportunities.
UR - https://www.scopus.com/pages/publications/105002245292
U2 - 10.1117/12.3061588
DO - 10.1117/12.3061588
M3 - Conference contribution
AN - SCOPUS:105002245292
T3 - Proceedings of SPIE - The International Society for Optical Engineering
BT - Small Satellites Systems and Services Symposium, 4S 2024
A2 - de Mallorca, Palma
PB - SPIE
T2 - 2024 Small Satellites Systems and Services Symposium, 4S 2024
Y2 - 27 May 2024 through 31 May 2024
ER -