Terrain-Relative and Beacon-Relative Navigation for Lunar Powered Descent and Landing

被引:0
|
作者
D. Christensen
D. Geller
机构
[1] Utah State University,Mechanical and Aerospace Engineering
关键词
Coarse Grid; Landing Site; Lunar Orbit; Radiometric Measurement; Initial Covariance;
D O I
暂无
中图分类号
学科分类号
摘要
As NASA prepares to return humans to the Moon and establish a long-term presence on the surface, technologies must be developed to access previously unvisited terrain regardless of the condition. Among these technologies is a guidance, navigation, and control (GN&C) system capable of safely and precisely delivering a spacecraft, whether manned or robotic, to a predetermined landing area. This article presents a detailed study of both terrain-relative navigation using a terrain-scanning instrument and radiometric navigation using beacons in lunar orbit or on the surface of the Moon. The models for these sensors are developed along with a baseline sensor suite that includes an IMU, star-camera, altimeter, and velocimeter. Linear covariance analysis is used to rapidly perform the trade studies relevant to this problem and to provide the navigation performance data necessary to determine how each navigation method can be used to support a 100 m 3-σ navigation requirement on landing.
引用
收藏
页码:121 / 151
页数:30
相关论文
共 50 条
  • [21] Experimental results of a Terrain Relative Navigation algorithm using a simulated lunar scenario
    Ansalone, Luigi
    Grava, Eleonora
    Curti, Fabio
    ACTA ASTRONAUTICA, 2015, 116 : 78 - 92
  • [22] Image-Based Lunar Terrain Relative Navigation Without a Map: Measurements
    Christian, John A.
    Hong, Lillian
    McKee, Paul
    Christensen, Randall
    Crain, Timothy P.
    JOURNAL OF SPACECRAFT AND ROCKETS, 2021, 58 (01) : 164 - 181
  • [23] Lunar Terrain Relative Navigation Using a Convolutional Neural Network for Visual Crater Detection
    Downes, Lena M.
    Steiner, Ted J.
    How, Jonathan P.
    2020 AMERICAN CONTROL CONFERENCE (ACC), 2020, : 4448 - 4453
  • [24] Descent image based landing area terrain reconstruction technology for lunar landing mission
    Li, M.
    Liu, S.
    Ma, Y.
    Sun, C.
    Jia, Y.
    IMAGING SCIENCE JOURNAL, 2015, 63 (08): : 440 - 446
  • [25] Relative Terrain Navigation Based Lunar Lander Simulator Using Computer Vision Techniques
    Mondal, Sudip
    Srikant, Sukumar
    2024 IEEE SPACE, AEROSPACE AND DEFENCE CONFERENCE, SPACE 2024, 2024, : 790 - 793
  • [26] Advanced Optical Terrain Absolute Navigation for Pinpoint Lunar Landing
    Mammarella, Marco
    Aviles Rodrigalvarez, Marcos
    Pizzichini, Andrea
    Sanchez Montero, Ana Maria
    ADVANCES IN AEROSPACE GUIDANCE, NAVIGATION AND CONTROL, 2011, : 419 - 430
  • [27] Terrain-Relative Diver Following with Autonomous Underwater Vehicle for Coral Reef Mapping
    Antervedi, Lakshmi Gana Prasad
    Chen, Zhiang
    Anand, Harish
    Martin, Roberta
    Arrowsmith, Ramon
    Das, Jnaneshwar
    2021 IEEE 17TH INTERNATIONAL CONFERENCE ON AUTOMATION SCIENCE AND ENGINEERING (CASE), 2021, : 2307 - 2312
  • [28] Powered descent trajectory guidance and some considerations for human lunar landing
    Sostaric, Ronald R.
    GUIDANCE AND CONTROL 2007, 2007, 128 : 349 - 366
  • [29] Guidance and navigation linear covariance analysis for lunar powered descent
    Moesser, Travis J.
    Geller, David K.
    ASTRODYNAMICS 2007, PTS I-III, 2008, 129 : 1015 - 1026
  • [30] Relative Pose Estimation for Planetary Entry Descent Landing
    Zini, Luca
    Odone, Francesca
    Verri, Alessandro
    Lanza, Piergiorgio
    Marcer, Alessandra
    COMPUTER VISION - ACCV 2010 WORKSHOPS, PT II, 2011, 6469 : 255 - 264