High-Precision Terrain Modeling of Tailing Ponds Using UAV LiDAR Point Cloud Data

This study proposes a high-precision methodology for dry beach extraction and safety parameter calculation in tailing ponds using UAV LiDAR data. Leveraging the Difference Consistency Iterative Closest Point (DICP) algorithm, this approach achieves precise point cloud registration, while an improved progressive morphological filtering method effectively separates ground and non-ground points. Bilinear interpolation is further applied to address data gaps, enhancing data completeness and terrain continuity. The resulting Digital Elevation Model (DEM) exhibits high spatial resolution and minimal elevation error, meeting the precision requirements of engineering applications. This method demonstrates the viability and efficiency of UAV LiDAR technology for detailed terrain monitoring and safety assessment in tailing pond environments. The study concludes with a discussion on optimizing these techniques for complex terrains and exploring their potential applications in broader environmental monitoring contexts.

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Publication Details

Published
2024-11-24
DOI
https://doi.org/10.1109/iccvit63928.2024.10872570
Primary Topic
Soil erosion and sediment transport
Type
article
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article

High-Precision Terrain Modeling of Tailing Ponds Using UAV LiDAR Point Cloud Data

Yachun Mao, Jinwei Dong, Yingjie Wu, Yuan Xingwei et al.
Soil erosion and sediment transport
article

High-Precision Terrain Modeling of Tailing Ponds Using UAV LiDAR Point Cloud Data

Yachun Mao, Jinwei Dong, Yingjie Wu, Yuan Xingwei, Cheng Wang
article en

Abstract

This study proposes a high-precision methodology for dry beach extraction and safety parameter calculation in tailing ponds using UAV LiDAR data. Leveraging the Difference Consistency Iterative Closest Point (DICP) algorithm, this approach achieves precise point cloud registration, while an improved progressive morphological filtering method effectively separates ground and non-ground points. Bilinear interpolation is further applied to address data gaps, enhancing data completeness and terrain continuity. The resulting Digital Elevation Model (DEM) exhibits high spatial resolution and minimal elevation error, meeting the precision requirements of engineering applications. This method demonstrates the viability and efficiency of UAV LiDAR technology for detailed terrain monitoring and safety assessment in tailing pond environments. The study concludes with a discussion on optimizing these techniques for complex terrains and exploring their potential applications in broader environmental monitoring contexts.

Northeastern University (CN)
Climate action
Openalex Percentile: Top 63%
Soil erosion and sediment transport
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High-Precision Terrain Modeling of Tailing Ponds Using UAV LiDAR Point Cloud Data — Yachun Mao, Jinwei Dong, et al. · (2024) | TGRS Research Map | TGRS