A BOX-YOLOv8 framework for automated hyperspectral core analysis

• A framework for automated core analysis has been proposed by integrating hyperspectral imaging technology with deep learning. • An ensemble of various deep learning models is utilized for core extraction. • BOX-YOLOv8 improves accuracy & speed over YOLOv8m for hyperspectral core analysis. • Spatial transforms integrate data from three diverse cameras for comprehensive borehole analysis. • Framework automates core analysis, accelerating geological assessment & decision-making. Hyperspectral imaging (HSI) offers significant potential for soil and geological core analysis, yet challenges of large data volume and complex processing hinder its broader usage. To tackle these issues, we introduce an innovative automated framework for hyperspectral soil and core analysis. This framework leverages a synergistic integration of deep learning models—specifically BOX-YOLOv8, SAM2, and a custom MLP—to achieve efficient, automated end-to-end processing. The framework identifies core boxes (BOX-YOLOv8, achieving 99.5% [email protected]), precisely segments these boxes for geometric correction (SAM2), and segments core/soil material from the background using spectral differences (MLP). This automated pipeline significantly improves processing time compared to manual methods. A key innovation is the accurate (sub-1-pixel) spatial transformation enabling the fusion of multi-sensor data (SWIR, MWIR, RGB) for comprehensive borehole characterization. Furthermore, the framework facilitates detailed spectral analyses, including mineral mapping and spectral library matching, advancing soil-related analysis by providing insights into composition and structure. Overall, this deep learning-driven framework significantly automates soil/core analysis, improves assessment speed, and enhances decision-making in resource exploration, soil survey, and environmental studies.

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Publication Details

Journal
Geoderma
Published
2025-05-03
DOI
https://doi.org/10.1016/j.geoderma.2025.117325
Citations
3
Primary Topic
Remote-Sensing Image Classification
Type
article
Field-Weighted Citation Impact
3.41
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article

A BOX-YOLOv8 framework for automated hyperspectral core analysis

Russell Rogers, Chengzhi Lin, Jun‐Li Xu, S. Joe Qin et al.
3 citations
Geoderma
Remote-Sensing Image Classification
3.41
article

A BOX-YOLOv8 framework for automated hyperspectral core analysis

Russell Rogers, Chengzhi Lin, Jun‐Li Xu, S. Joe Qin, Junhao Xie, Jackey J. K. Chai, Hongyan Zhu, Anjie Li
article en
3 citations

Abstract

• A framework for automated core analysis has been proposed by integrating hyperspectral imaging technology with deep learning. • An ensemble of various deep learning models is utilized for core extraction. • BOX-YOLOv8 improves accuracy & speed over YOLOv8m for hyperspectral core analysis. • Spatial transforms integrate data from three diverse cameras for comprehensive borehole analysis. • Framework automates core analysis, accelerating geological assessment & decision-making. Hyperspectral imaging (HSI) offers significant potential for soil and geological core analysis, yet challenges of large data volume and complex processing hinder its broader usage. To tackle these issues, we introduce an innovative automated framework for hyperspectral soil and core analysis. This framework leverages a synergistic integration of deep learning models—specifically BOX-YOLOv8, SAM2, and a custom MLP—to achieve efficient, automated end-to-end processing. The framework identifies core boxes (BOX-YOLOv8, achieving 99.5% [email protected]), precisely segments these boxes for geometric correction (SAM2), and segments core/soil material from the background using spectral differences (MLP). This automated pipeline significantly improves processing time compared to manual methods. A key innovation is the accurate (sub-1-pixel) spatial transformation enabling the fusion of multi-sensor data (SWIR, MWIR, RGB) for comprehensive borehole characterization. Furthermore, the framework facilitates detailed spectral analyses, including mineral mapping and spectral library matching, advancing soil-related analysis by providing insights into composition and structure. Overall, this deep learning-driven framework significantly automates soil/core analysis, improves assessment speed, and enhances decision-making in resource exploration, soil survey, and environmental studies.

GeodermaVol. 458
University College Dublin (IE), Geological Survey of Ireland (IE), Trinity College Dublin (IE), Guangxi Normal University (CN)
Openalex Percentile: Top 8%
Remote-Sensing Image Classification
3.41
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