RMS Seismic Attributes with RGB Color Blending Technique for Fault Interpretation

For many generations, the use of seismic attributes has enabled the seismic interpreters to better understand the geological information in the subsurface. The objective of this study is to determine the fault and polygonal fault patterns to aid the structural interpretation inside the 3D Bonaventur...

Full description

Saved in:
Bibliographic Details
Main Authors: Gritsadapong Leaungvongpaisan, Pisanu Wongpornchai
Language:English
Published: Science Faculty of Chiang Mai University 2020
Subjects:
Online Access:http://epg.science.cmu.ac.th/ejournal/dl.php?journal_id=7610
http://cmuir.cmu.ac.th/jspui/handle/6653943832/67356
Tags: Add Tag
No Tags, Be the first to tag this record!
Institution: Chiang Mai University
Language: English
id th-cmuir.6653943832-67356
record_format dspace
spelling th-cmuir.6653943832-673562020-04-02T14:45:04Z RMS Seismic Attributes with RGB Color Blending Technique for Fault Interpretation Gritsadapong Leaungvongpaisan Pisanu Wongpornchai Fault detection RGB color blending RMSseismic attribute For many generations, the use of seismic attributes has enabled the seismic interpreters to better understand the geological information in the subsurface. The objective of this study is to determine the fault and polygonal fault patterns to aid the structural interpretation inside the 3D Bonaventure seismic survey in Western Australia. In this study, three Root Mean Square (RMS) seismic attributes each with a different number of seismic samples are combined using the Red Green Blue (RGB) color blending technique to highlight the fault patterns using the Petrel platform. As the result, the fault images from the seismic time slices could be captured from the top to the bottom of seismic cube with the adjustment of the RGB color blending transformation function. The stretch and squeeze of RGB color blending functions provide a significant improvement on the fault delineation and visualization, especially at the bottom part of seismic cube, where the signal to noise ratio is usually low. The fault patterns from the RGB color blending technique are directly compared to the results from other structural seismic attributes such as variance, amplitude contrast and chaos at the same seismic time slice. The same fault trends, from the north to south direction, could be determined. The proposed method could be an alternative approach for fault interpretation in terms of t fault delineation and computation time. Finally, the ultimate goal of seismic attribute analysis is to improve the accuracy of seismic interpretation in order to reduce the uncertainty for hydrocarbon exploration and production. 2020-04-02T14:45:04Z 2020-04-02T14:45:04Z 2020 Chiang Mai Journal of Science 43, 6 (Special Issue - December 2016), 1292-1298 0125-2526 http://epg.science.cmu.ac.th/ejournal/dl.php?journal_id=7610 http://cmuir.cmu.ac.th/jspui/handle/6653943832/67356 Eng Science Faculty of Chiang Mai University
institution Chiang Mai University
building Chiang Mai University Library
country Thailand
collection CMU Intellectual Repository
language English
topic Fault detection
RGB color blending
RMSseismic attribute
spellingShingle Fault detection
RGB color blending
RMSseismic attribute
Gritsadapong Leaungvongpaisan
Pisanu Wongpornchai
RMS Seismic Attributes with RGB Color Blending Technique for Fault Interpretation
description For many generations, the use of seismic attributes has enabled the seismic interpreters to better understand the geological information in the subsurface. The objective of this study is to determine the fault and polygonal fault patterns to aid the structural interpretation inside the 3D Bonaventure seismic survey in Western Australia. In this study, three Root Mean Square (RMS) seismic attributes each with a different number of seismic samples are combined using the Red Green Blue (RGB) color blending technique to highlight the fault patterns using the Petrel platform. As the result, the fault images from the seismic time slices could be captured from the top to the bottom of seismic cube with the adjustment of the RGB color blending transformation function. The stretch and squeeze of RGB color blending functions provide a significant improvement on the fault delineation and visualization, especially at the bottom part of seismic cube, where the signal to noise ratio is usually low. The fault patterns from the RGB color blending technique are directly compared to the results from other structural seismic attributes such as variance, amplitude contrast and chaos at the same seismic time slice. The same fault trends, from the north to south direction, could be determined. The proposed method could be an alternative approach for fault interpretation in terms of t fault delineation and computation time. Finally, the ultimate goal of seismic attribute analysis is to improve the accuracy of seismic interpretation in order to reduce the uncertainty for hydrocarbon exploration and production.
author Gritsadapong Leaungvongpaisan
Pisanu Wongpornchai
author_facet Gritsadapong Leaungvongpaisan
Pisanu Wongpornchai
author_sort Gritsadapong Leaungvongpaisan
title RMS Seismic Attributes with RGB Color Blending Technique for Fault Interpretation
title_short RMS Seismic Attributes with RGB Color Blending Technique for Fault Interpretation
title_full RMS Seismic Attributes with RGB Color Blending Technique for Fault Interpretation
title_fullStr RMS Seismic Attributes with RGB Color Blending Technique for Fault Interpretation
title_full_unstemmed RMS Seismic Attributes with RGB Color Blending Technique for Fault Interpretation
title_sort rms seismic attributes with rgb color blending technique for fault interpretation
publisher Science Faculty of Chiang Mai University
publishDate 2020
url http://epg.science.cmu.ac.th/ejournal/dl.php?journal_id=7610
http://cmuir.cmu.ac.th/jspui/handle/6653943832/67356
_version_ 1681426619872313344