Study on climbing strategy and analysis of Mars rover

To ensure the safety and efficiency of Zhurong Mars rover when climbing a slope on Mars, the forces of the rover under four climbing methods, which are normal climbing, Z‐type climbing, diagonal climbing, and bionic wriggle climbing, are analyzed. Each method corresponds to different maximum climbin...

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Published inJournal of field robotics Vol. 40; no. 5; pp. 1172 - 1186
Main Authors Chen, Zhen, Zou, Meng, Pan, Dong, Chen, Lining, Liu, Yansong, Yuan, Baofeng, Zhang, Qiang
Format Journal Article
LanguageEnglish
Published Hoboken Wiley Subscription Services, Inc 01.08.2023
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ISSN1556-4959
1556-4967
DOI10.1002/rob.22177

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Abstract To ensure the safety and efficiency of Zhurong Mars rover when climbing a slope on Mars, the forces of the rover under four climbing methods, which are normal climbing, Z‐type climbing, diagonal climbing, and bionic wriggle climbing, are analyzed. Each method corresponds to different maximum climbing slopes. The experiments are carried out with a backup rover on dense and soft terrains to determine the range of climbing slope for different climbing methods. According to the slope, peak current, cost of transport, and state of terrain, the climbing strategy is given. For dense and soft terrains, the soil cohesive is 0.99 and 1.4 kN/mn+1 and soil friction modules are 1528 and 700 kN/mn+2, respectively. Specifically, normal climbing is recommended for low‐range slopes, while Z‐type or diagonal climbing are suggested for medium‐range slopes, and bionic wriggle climbing is found to be optimal for high‐range slopes. To ensure the safety of the Zhurong Mars rover, it fails climbing if the critical values are exceeded. These results provide valuable insights for human operators when planning the rover's slope‐climbing actions on Mars.
AbstractList To ensure the safety and efficiency of Zhurong Mars rover when climbing a slope on Mars, the forces of the rover under four climbing methods, which are normal climbing, Z‐type climbing, diagonal climbing, and bionic wriggle climbing, are analyzed. Each method corresponds to different maximum climbing slopes. The experiments are carried out with a backup rover on dense and soft terrains to determine the range of climbing slope for different climbing methods. According to the slope, peak current, cost of transport, and state of terrain, the climbing strategy is given. For dense and soft terrains, the soil cohesive is 0.99 and 1.4 kN/mn+1 and soil friction modules are 1528 and 700 kN/mn+2, respectively. Specifically, normal climbing is recommended for low‐range slopes, while Z‐type or diagonal climbing are suggested for medium‐range slopes, and bionic wriggle climbing is found to be optimal for high‐range slopes. To ensure the safety of the Zhurong Mars rover, it fails climbing if the critical values are exceeded. These results provide valuable insights for human operators when planning the rover's slope‐climbing actions on Mars.
To ensure the safety and efficiency of Zhurong Mars rover when climbing a slope on Mars, the forces of the rover under four climbing methods, which are normal climbing, Z‐type climbing, diagonal climbing, and bionic wriggle climbing, are analyzed. Each method corresponds to different maximum climbing slopes. The experiments are carried out with a backup rover on dense and soft terrains to determine the range of climbing slope for different climbing methods. According to the slope, peak current, cost of transport, and state of terrain, the climbing strategy is given. For dense and soft terrains, the soil cohesive is 0.99 and 1.4 kN/m n +1 and soil friction modules are 1528 and 700 kN/m n +2 , respectively. Specifically, normal climbing is recommended for low‐range slopes, while Z‐type or diagonal climbing are suggested for medium‐range slopes, and bionic wriggle climbing is found to be optimal for high‐range slopes. To ensure the safety of the Zhurong Mars rover, it fails climbing if the critical values are exceeded. These results provide valuable insights for human operators when planning the rover's slope‐climbing actions on Mars.
Author Yuan, Baofeng
Zou, Meng
Chen, Zhen
Liu, Yansong
Zhang, Qiang
Chen, Lining
Pan, Dong
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  email: zhangqiang@jlu.edu.cn
  organization: Jilin University
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CitedBy_id crossref_primary_10_1016_j_jterra_2024_101002
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Snippet To ensure the safety and efficiency of Zhurong Mars rover when climbing a slope on Mars, the forces of the rover under four climbing methods, which are normal...
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SubjectTerms Bionics
Climbing
climbing methods
climbing strategy
dense and soft terrain
Mars
Mars rovers
Safety
Slopes
Soils
Strategy
Zhurong Mars rover
Title Study on climbing strategy and analysis of Mars rover
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Frob.22177
https://www.proquest.com/docview/2832226358
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