Automated extraction of mining‐induced ground fissures using deep learning and object‐based image classification

Author:

Huangfu Wenchao12,Qiu Haijun123ORCID,Cui Peng4,Yang Dongdong12,Liu Ya12,Ullah Mohib1,Kamp Ulrich5

Affiliation:

1. College of Urban and Environmental Sciences Northwest University Xi'an China

2. Institute of Earth Surface System and Hazards Northwest University Xi'an China

3. Shaanxi Key Laboratory of Earth Surface System and Environmental Carrying Capacity Northwest University Xi'an China

4. Institute of Mountain Hazards and Environment Chinese Academy of Sciences Chengdu China

5. Earth and Environmental Sciences Discipline, Department of Natural Sciences University of Michigan‐Dearborn Dearborn Michigan USA

Abstract

AbstractAccurate extraction of ground fissures caused by intense coal mining has the potential to significantly improve the efficiency of environmental monitoring in mining areas. However, the extraction results using previous methods have often exhibited issues of discontinuity and substantial deviation from ground truth data, resulting in low extraction accuracy. In this study, a novel approach, ENVINet5‐OBIC, for extracting ground fissures in mining areas is proposed, which integrates object‐based image classification (OBIC) with the pixel‐based deep learning model ENVINet5. ENVINet5‐OBIC uses OBIC to segment high‐resolution unmanned aerial vehicle (UAV) images across different scales, effectively considering shape, texture and correlative information between adjacent pixels. Furthermore, by utilizing homogeneous objects as building blocks, it establishes a deep learning model for the automated extraction of ground fissures. Experimental results show that ENVINet5‐OBIC performs better when compared with OBIC, U‐Net, PSPNet and ENVINet5 methods in terms of continuity, accuracy and error reduction. In addition, the ground fissure area extracted by ENVINet5‐OBIC closely aligns with ground truth data. This study provides a more effective method for automatic extraction of ground fissures, which improves the efficiency of environmental monitoring in mining areas.

Funder

National Natural Science Foundation of China

Key Research and Development Projects of Shaanxi Province

Publisher

Wiley

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