AEGIS Propulsion Systems Integration

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AEGIS Propulsion Systems Integration Alabama Experiment for Galactic-ray In-situ Shielding PRC Presentation – 2/28/2020 AEGIS Project Presentation - Goals 6U CubeSat developed by 5 (7 in the future) Universities in Alabama sponsored by the ASGC • Science Goals: • Measure the performance of lunar regolith- based shielding for reducing radiation. • Acquire data to use for validating shielding simulations. • Educational Goals: • Students participate in the design and development of real aerospace system Slide 2 Project Presentation – Launch Vehicle Artemis-2 Secondary Payload 6U Cubesat Slide 3 Science Orbit Trade Science Requirement • Science observational distance (from Earth): 400,000 km (+- 150k km) Orbit Trade • Lunar orbit • Cons à ~6months transfer. Complicated trajectory highly EQUULEUS trajectory in the Sun–Earth rotating frame. depending on initial vector and launch date • Pros à Close to the moon, better science return (marginal) • Cislunar Orbit: • Cons à Not close to the moon • Pros à Stable, science mission can start sooner. Decision: Cislunar Orbit à Need to be able to impart 12 m/s ΔV before perilune AEGIS current Baseline Trajectory Slide 4 Trade Study Low Volume High ΔV Thrust Vectoring Slide 5 Current State • IFM Nano Thruster • 145 g of fuel remaining for disposal, or future changes to AEGIS current Baseline Trajectory the orbit maneuvers Maneuver ΔV [m/s] Fuel [g] • Thrust vectoring allows to drop RCS system for Pre-Lunar Fly-by Burn 11.92 7.67 desaturation in pitch and yaw Apoapsis Lowering Burn 36.75 23.6 • Risk: Due to the low thrust depending on the actual trajectory and bus stop availability for Artemis 2 this Reaction Wheels Desaturation - 53 propulsion system might not be able to provide the Current Margin - 145.73 required ΔV before perilune Slide 6 Questions? Slide 7 Backup Figures Slide 8.

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