Motion Perception Simulation for Lunar Rover Driving Using the Spatial Orientation Observer Model
Reduced gravity may impair motion perception accuracy, especially in the absence of visual cues, which could degrade astronauts’ driving performance. The lack of prior research makes simulating realistic motion perception for lunar rover driving particularly challenging. We created a simulation syst...
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MDPI AG
2025-06-01
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author | Wei Chen Fang Du Shao-Li Xie Ming An Hua Deng Wan-Hong Lin Jian-Gang Chao |
author_facet | Wei Chen Fang Du Shao-Li Xie Ming An Hua Deng Wan-Hong Lin Jian-Gang Chao |
author_sort | Wei Chen |
collection | DOAJ |
description | Reduced gravity may impair motion perception accuracy, especially in the absence of visual cues, which could degrade astronauts’ driving performance. The lack of prior research makes simulating realistic motion perception for lunar rover driving particularly challenging. We created a simulation system to quantitatively simulate the motion characteristics of a lunar rover at different gravity levels, and a software program based on the spatial orientation observer model was developed for the comparison of motion perception differences between Earth’s and lunar gravity. In comparison to Earth’s gravity, the lunar rover in lunar gravity demonstrates the following differences: (1) The rover exhibits a greater propensity to float and slip, and slower acceleration and deceleration. (2) Dynamic tilt perception may be more complicated with single vestibular information, while static tilt perception is greatly reduced; the introduction of visual information can notably improve the perception accuracy. Simulation results demonstrate that motion characteristics and perception of lunar rover driving exhibit a more variable trend at different gravity levels. An intuitive mathematical formulation was proposed to explain the single vestibular results. Our findings provide a basis for further optimizing lunar rover driving motion simulation strategies. |
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language | English |
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spelling | doaj-art-9e7aef0d80a34d6cb7e5e4e549a0c08f2025-06-25T14:30:19ZengMDPI AGVehicles2624-89212025-06-01725610.3390/vehicles7020056Motion Perception Simulation for Lunar Rover Driving Using the Spatial Orientation Observer ModelWei Chen0Fang Du1Shao-Li Xie2Ming An3Hua Deng4Wan-Hong Lin5Jian-Gang Chao6National Key Laboratory of Human Factors Engineering, China Astronaut Research and Training Center, Beijing 100094, ChinaNational Key Laboratory of Human Factors Engineering, China Astronaut Research and Training Center, Beijing 100094, ChinaNational Key Laboratory of Human Factors Engineering, China Astronaut Research and Training Center, Beijing 100094, ChinaNational Key Laboratory of Human Factors Engineering, China Astronaut Research and Training Center, Beijing 100094, ChinaNational Key Laboratory of Human Factors Engineering, China Astronaut Research and Training Center, Beijing 100094, ChinaNational Key Laboratory of Human Factors Engineering, China Astronaut Research and Training Center, Beijing 100094, ChinaNational Key Laboratory of Human Factors Engineering, China Astronaut Research and Training Center, Beijing 100094, ChinaReduced gravity may impair motion perception accuracy, especially in the absence of visual cues, which could degrade astronauts’ driving performance. The lack of prior research makes simulating realistic motion perception for lunar rover driving particularly challenging. We created a simulation system to quantitatively simulate the motion characteristics of a lunar rover at different gravity levels, and a software program based on the spatial orientation observer model was developed for the comparison of motion perception differences between Earth’s and lunar gravity. In comparison to Earth’s gravity, the lunar rover in lunar gravity demonstrates the following differences: (1) The rover exhibits a greater propensity to float and slip, and slower acceleration and deceleration. (2) Dynamic tilt perception may be more complicated with single vestibular information, while static tilt perception is greatly reduced; the introduction of visual information can notably improve the perception accuracy. Simulation results demonstrate that motion characteristics and perception of lunar rover driving exhibit a more variable trend at different gravity levels. An intuitive mathematical formulation was proposed to explain the single vestibular results. Our findings provide a basis for further optimizing lunar rover driving motion simulation strategies.https://www.mdpi.com/2624-8921/7/2/56motion perceptionlunar roverdriving simulationspatial orientationobserver model |
spellingShingle | Wei Chen Fang Du Shao-Li Xie Ming An Hua Deng Wan-Hong Lin Jian-Gang Chao Motion Perception Simulation for Lunar Rover Driving Using the Spatial Orientation Observer Model Vehicles motion perception lunar rover driving simulation spatial orientation observer model |
title | Motion Perception Simulation for Lunar Rover Driving Using the Spatial Orientation Observer Model |
title_full | Motion Perception Simulation for Lunar Rover Driving Using the Spatial Orientation Observer Model |
title_fullStr | Motion Perception Simulation for Lunar Rover Driving Using the Spatial Orientation Observer Model |
title_full_unstemmed | Motion Perception Simulation for Lunar Rover Driving Using the Spatial Orientation Observer Model |
title_short | Motion Perception Simulation for Lunar Rover Driving Using the Spatial Orientation Observer Model |
title_sort | motion perception simulation for lunar rover driving using the spatial orientation observer model |
topic | motion perception lunar rover driving simulation spatial orientation observer model |
url | https://www.mdpi.com/2624-8921/7/2/56 |
work_keys_str_mv | AT weichen motionperceptionsimulationforlunarroverdrivingusingthespatialorientationobservermodel AT fangdu motionperceptionsimulationforlunarroverdrivingusingthespatialorientationobservermodel AT shaolixie motionperceptionsimulationforlunarroverdrivingusingthespatialorientationobservermodel AT mingan motionperceptionsimulationforlunarroverdrivingusingthespatialorientationobservermodel AT huadeng motionperceptionsimulationforlunarroverdrivingusingthespatialorientationobservermodel AT wanhonglin motionperceptionsimulationforlunarroverdrivingusingthespatialorientationobservermodel AT jiangangchao motionperceptionsimulationforlunarroverdrivingusingthespatialorientationobservermodel |