Improving GPR Imaging of the Buried Water Utility Infrastructure by Integrating the Multidimensional Nonlinear Data Decomposition Technique into the Edge Detection
Although ground-penetrating radar (GPR) is effective to detect shallow-buried objects, it still needs more effort for the application to investigate a buried water utility infrastructure. Edge detection is a well-known image processing technique that may improve the resolution of GPR images. In this...
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oai:doaj.org-article:ad10ca4e3bd64447958ad3cf77e164232021-11-11T19:58:33ZImproving GPR Imaging of the Buried Water Utility Infrastructure by Integrating the Multidimensional Nonlinear Data Decomposition Technique into the Edge Detection10.3390/w132131482073-4441https://doaj.org/article/ad10ca4e3bd64447958ad3cf77e164232021-11-01T00:00:00Zhttps://www.mdpi.com/2073-4441/13/21/3148https://doaj.org/toc/2073-4441Although ground-penetrating radar (GPR) is effective to detect shallow-buried objects, it still needs more effort for the application to investigate a buried water utility infrastructure. Edge detection is a well-known image processing technique that may improve the resolution of GPR images. In this study, we briefly review the theory of edge detection and discuss several popular edge detectors as examples, and then apply an enhanced edge detecting method to GPR data processing. This method integrates the multidimensional ensemble empirical mode decomposition (MDEEMD) algorithm into standard edge detecting filters. MDEEMD is implemented mainly for data reconstruction to increase the signal-to-noise ratio before edge detecting. A quantitative marginal spectrum analysis is employed to support the data reconstruction and facilitate the final data interpretation. The results of the numerical model study followed by a field example suggest that the MDEEMD edge detector is a competent method for processing and interpreting GPR data of a buried hot spring well, which cannot be efficiently handled by conventional techniques. Moreover, the proposed method should be readily considered a vital tool for processing other kinds of buried water utility infrastructures.Chih-Sung ChenYih JengMDPI AGarticleGPRedge detectionnear-surface imagingspectrogrammultidimensional EMDwater managementHydraulic engineeringTC1-978Water supply for domestic and industrial purposesTD201-500ENWater, Vol 13, Iss 3148, p 3148 (2021) |
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GPR edge detection near-surface imaging spectrogram multidimensional EMD water management Hydraulic engineering TC1-978 Water supply for domestic and industrial purposes TD201-500 |
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GPR edge detection near-surface imaging spectrogram multidimensional EMD water management Hydraulic engineering TC1-978 Water supply for domestic and industrial purposes TD201-500 Chih-Sung Chen Yih Jeng Improving GPR Imaging of the Buried Water Utility Infrastructure by Integrating the Multidimensional Nonlinear Data Decomposition Technique into the Edge Detection |
description |
Although ground-penetrating radar (GPR) is effective to detect shallow-buried objects, it still needs more effort for the application to investigate a buried water utility infrastructure. Edge detection is a well-known image processing technique that may improve the resolution of GPR images. In this study, we briefly review the theory of edge detection and discuss several popular edge detectors as examples, and then apply an enhanced edge detecting method to GPR data processing. This method integrates the multidimensional ensemble empirical mode decomposition (MDEEMD) algorithm into standard edge detecting filters. MDEEMD is implemented mainly for data reconstruction to increase the signal-to-noise ratio before edge detecting. A quantitative marginal spectrum analysis is employed to support the data reconstruction and facilitate the final data interpretation. The results of the numerical model study followed by a field example suggest that the MDEEMD edge detector is a competent method for processing and interpreting GPR data of a buried hot spring well, which cannot be efficiently handled by conventional techniques. Moreover, the proposed method should be readily considered a vital tool for processing other kinds of buried water utility infrastructures. |
format |
article |
author |
Chih-Sung Chen Yih Jeng |
author_facet |
Chih-Sung Chen Yih Jeng |
author_sort |
Chih-Sung Chen |
title |
Improving GPR Imaging of the Buried Water Utility Infrastructure by Integrating the Multidimensional Nonlinear Data Decomposition Technique into the Edge Detection |
title_short |
Improving GPR Imaging of the Buried Water Utility Infrastructure by Integrating the Multidimensional Nonlinear Data Decomposition Technique into the Edge Detection |
title_full |
Improving GPR Imaging of the Buried Water Utility Infrastructure by Integrating the Multidimensional Nonlinear Data Decomposition Technique into the Edge Detection |
title_fullStr |
Improving GPR Imaging of the Buried Water Utility Infrastructure by Integrating the Multidimensional Nonlinear Data Decomposition Technique into the Edge Detection |
title_full_unstemmed |
Improving GPR Imaging of the Buried Water Utility Infrastructure by Integrating the Multidimensional Nonlinear Data Decomposition Technique into the Edge Detection |
title_sort |
improving gpr imaging of the buried water utility infrastructure by integrating the multidimensional nonlinear data decomposition technique into the edge detection |
publisher |
MDPI AG |
publishDate |
2021 |
url |
https://doaj.org/article/ad10ca4e3bd64447958ad3cf77e16423 |
work_keys_str_mv |
AT chihsungchen improvinggprimagingoftheburiedwaterutilityinfrastructurebyintegratingthemultidimensionalnonlineardatadecompositiontechniqueintotheedgedetection AT yihjeng improvinggprimagingoftheburiedwaterutilityinfrastructurebyintegratingthemultidimensionalnonlineardatadecompositiontechniqueintotheedgedetection |
_version_ |
1718431368860401664 |