An advanced guidance algorithm, Fully Numerical Predictor-corrector Aerocapture Guidance (FNPAG), has been developed to perform aerocapture maneuvers in an optimal manner. It is a model-based, numerical guidance that benefits from requiring few adjustments across a variety of different hypersonic vehicle lift-to-drag ratios, ballistic co-efficients, and atmospheric entry conditions. In this paper, FNPAG is first applied to the Mars Rigid Vehicle (MRV) mid lift-to-drag ratio concept. Then the study is generalized to a design map of potential Mars aerocapture missions and vehicles, ranging from the scale and requirements of recent robotic to potential human and precursor missions. The design map results show the versatility of FNPAG and provide insight for the design of Mars aerocapture vehicles and atmospheric entry conditions to achieve desired performance.
Application of a Fully Numerical Guidance to Mars Aerocapture
2017
15 pages
Report
No indication
English
Astronautics , Spacecraft Trajectories & Flight Mechanics , Astronomy & Astrophysics , Extraterrestrial Exploration , Unmanned Spacecraft , Manned Spacecraft , Predictor-corrector methods , Aerocapture , Atmospheric entry , Reentry guidance , Mars atmosphere , Atmospheric models , Hypersonic vehicles , Reentry vehicles , Lift drag ratio , Design analysis , Mathematical models , Monte carlo method , Algorithms , Transfer orbits , Trajectory analysis , Trajectory control , Manned mars missions , Nasa space programs
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