Intelligent Identification of Continuously Illuminated Regions at Lunar South Pole Based on Deep Learning

Taking the connecting ridge between Shackleton and de Gerlache craters as the research area, based on real-time illumination simulation data from November 1, 2026, to February 28, 2027, a dynamic illumination dataset with a spatial resolution of 20 m/pixel and a temporal resolution of 1 hour was constructed. A deep-learning framework is proposed to recognize regions with continuous 3-day illumination, in which an improved VGG network extracts illumination-friendly regions from each temporal frame, a bidirectional GRU network captures temporal illumination characteristics, and a consistent temporal-spatial attention mechanism highlights key spatiotemporal illumination features. An output head network integrates these features to generate target regions. Based on the extracted regions and an eight-direction rover mobility model, a Sun-synchronous A* path planning algorithm is further optimized to enable illumination-aware navigation. Simulation results demonstrate that the proposed method accurately recognizes 3-day consecutive illumination-friendly regions in the 20 m/pixel dynamic dataset and effectively supports efficient rover path planning in well-illuminated areas of the lunar south pole.

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Publication Details

Journal
Journal of Deep Space of Exploration
Published
2025-12-01
DOI
https://doi.org/10.3724/j.issn.2096-9287.2025.20250044
Primary Topic
Planetary Science and Exploration
Type
article
Field-Weighted Citation Impact
0.00
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article

Intelligent Identification of Continuously Illuminated Regions at Lunar South Pole Based on Deep Learning

Guangfei Wei, Qingliang Miao, J. Lu, Hao Zhang et al.
Journal of Deep Space of Exploration
Planetary Science and Exploration
article

Intelligent Identification of Continuously Illuminated Regions at Lunar South Pole Based on Deep Learning

Guangfei Wei, Qingliang Miao, J. Lu, Hao Zhang, Yang CHEN
article en

Abstract

Taking the connecting ridge between Shackleton and de Gerlache craters as the research area, based on real-time illumination simulation data from November 1, 2026, to February 28, 2027, a dynamic illumination dataset with a spatial resolution of 20 m/pixel and a temporal resolution of 1 hour was constructed. A deep-learning framework is proposed to recognize regions with continuous 3-day illumination, in which an improved VGG network extracts illumination-friendly regions from each temporal frame, a bidirectional GRU network captures temporal illumination characteristics, and a consistent temporal-spatial attention mechanism highlights key spatiotemporal illumination features. An output head network integrates these features to generate target regions. Based on the extracted regions and an eight-direction rover mobility model, a Sun-synchronous A* path planning algorithm is further optimized to enable illumination-aware navigation. Simulation results demonstrate that the proposed method accurately recognizes 3-day consecutive illumination-friendly regions in the 20 m/pixel dynamic dataset and effectively supports efficient rover path planning in well-illuminated areas of the lunar south pole.

Journal of Deep Space of ExplorationVol. 12(6)
Openalex Percentile: Top 24%
Planetary Science and Exploration
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