TY - JOUR
T1 - Multi-Dimensional Parachute Deployment Box for Mars Precision Landing
AU - Xing, Zhehao
AU - Liang, Zixuan
N1 - Publisher Copyright:
© 2025, Beijing Institute of Technology. All rights reserved.
PY - 2025
Y1 - 2025
N2 - The parachute deployment conditions during the terminal entry phase in Mars landing missions exhibit critical impact on landing precision. In this article, aiming at the requirements of safe parachute deployment and accurate landing, a multi- dimensional parachute deployment box for determining deployment condition during Mars landing was proposed. First, an extreme- range optimization model was established, synthesizing the dynamics and constraints of both parachute descent and powered descent phases. Then, on the basis of the two-dimensional altitude-velocity deployment box, a multi-dimensional parachute deployment box characterized by altitude, velocity, flight-path angle, and extreme range was constructed through the integration of extreme range information. Furthermore, an evaluation index for landing precision was formulated and a deployment control logic was proposed for minimizing landing deviation. Finally, the proposed deployment box was simulated in a Mars landing mission. The results demonstrate that the proposed box effectively satisfies safe deployment and landing precision demands, eliminating the range-to-go error at the terminal of the entry phase.
AB - The parachute deployment conditions during the terminal entry phase in Mars landing missions exhibit critical impact on landing precision. In this article, aiming at the requirements of safe parachute deployment and accurate landing, a multi- dimensional parachute deployment box for determining deployment condition during Mars landing was proposed. First, an extreme- range optimization model was established, synthesizing the dynamics and constraints of both parachute descent and powered descent phases. Then, on the basis of the two-dimensional altitude-velocity deployment box, a multi-dimensional parachute deployment box characterized by altitude, velocity, flight-path angle, and extreme range was constructed through the integration of extreme range information. Furthermore, an evaluation index for landing precision was formulated and a deployment control logic was proposed for minimizing landing deviation. Finally, the proposed deployment box was simulated in a Mars landing mission. The results demonstrate that the proposed box effectively satisfies safe deployment and landing precision demands, eliminating the range-to-go error at the terminal of the entry phase.
KW - Mars exploration
KW - multiple constraints
KW - parachute deployment box
KW - parachute deployment control
KW - precision landing
UR - https://www.scopus.com/pages/publications/105030721648
U2 - 10.3724/j.issn.2096-9287.2025.20250045
DO - 10.3724/j.issn.2096-9287.2025.20250045
M3 - Article
AN - SCOPUS:105030721648
SN - 2096-9287
VL - 12
SP - 629
EP - 638
JO - Journal of Deep Space Exploration
JF - Journal of Deep Space Exploration
IS - 6
ER -