ABSTRACT
Orbital exploration missions define very specific requirements and have high demands for propulsion systems to ensure the missions success. This paper provides an overview of the chemical propulsion system solutions and technologies developed by ArianeGroup for past and current exploration missions towards Moon and Jupiter.
On the example of the JUICE and the European Lunar Lander missions it describes the solutions for mission specific challenges like the protection against harsh radiation environment, the applied precautions to ensure the magnetic cleanliness and the detailed hydraulic characterization of the liquid part of the propulsion system.
- ESA webpage, http://sci.esa.int/juice/50068-science-objectives/, March 2018Google Scholar
- JUICE Industry Day Booklet (ESA and Airbus DS SAS), ESTEC, 27-28 October 2015Google Scholar
- Martin R., Thomas D., David P., S. Kraus, M. Bühner, Propulsion System for the European Lunar Lander -- Development Status and Breadbording Activities (SP2012 - 2394120), 7th Space Propulsion Conference, Bordeaux 2012Google Scholar
- M. Wolf, R. Lescouzères, Propulsion System Development and Verification Activities for the 2016 ExoMars Trace Gas Orbiter, (SP2014_2968951), European Space Propulsion Conference Cologne 2014Google Scholar
- M. Wolf, S. Goodburn, D. Escolar, Propulsion Subsystem Development and Verification Activities for the Jupiter Icy Moons Explorer (JUICE), (SP2018_00255), European Space Propulsion Conference, Seville 2018Google Scholar
- T. Barber, F. Krug, K. Renner, Final Galileo Propulsion System In-Flight Characterization, (AIAA 1997-2946), 33rd AIAA/SME/SAE/ASEE Joint Propulsion Conference 1997ESA webpage, http://sci.esa.int/juice/, March 2018Google Scholar
Index Terms
- Development of Propulsion Systems for Exploration Missions towards Moon and Jupiter
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