Fault characterisation from an ultra-high-resolution seismic for CO2 injection experiment

An ultra-high-resolution mini 3D survey was acquired at the Otway site to characterise structures and discontinuities in a depth range of 0-100 m for the controlled CO2 fault plane release experiment. The survey demonstrated that very high spatial data density is essential for imaging and characteri...

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Main Authors: Urosevic, Milovan, Ziramov, Sasha, Pevzner, Roman, Tertyshnikov, Konstantin, Popik, D., Feitz, A.
Format: Conference Paper
Published: 2017
Online Access:http://hdl.handle.net/20.500.11937/60661
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author Urosevic, Milovan
Ziramov, Sasha
Pevzner, Roman
Tertyshnikov, Konstantin
Popik, D.
Feitz, A.
author_facet Urosevic, Milovan
Ziramov, Sasha
Pevzner, Roman
Tertyshnikov, Konstantin
Popik, D.
Feitz, A.
author_sort Urosevic, Milovan
building Curtin Institutional Repository
collection Online Access
description An ultra-high-resolution mini 3D survey was acquired at the Otway site to characterise structures and discontinuities in a depth range of 0-100 m for the controlled CO2 fault plane release experiment. The survey demonstrated that very high spatial data density is essential for imaging and characterisation of shallow structures. Nevertheless, significant processing efforts were required to precisely image shallow fault geometry and the extent of fault tips. The main fault F1 and the accompanied discontinuities were clearly imaged with a PSDM routine after a 3D velocity model was derived from 3D tomography and then further improved through an iterative process. Fault F1 now appears more complex and additional studies are needed. Further assessment of the fault F1 and its associated discontinuities will be conducted using three component seismic data.
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format Conference Paper
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institution Curtin University Malaysia
institution_category Local University
last_indexed 2025-11-14T10:18:45Z
publishDate 2017
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spelling curtin-20.500.11937-606612018-08-13T05:18:06Z Fault characterisation from an ultra-high-resolution seismic for CO2 injection experiment Urosevic, Milovan Ziramov, Sasha Pevzner, Roman Tertyshnikov, Konstantin Popik, D. Feitz, A. An ultra-high-resolution mini 3D survey was acquired at the Otway site to characterise structures and discontinuities in a depth range of 0-100 m for the controlled CO2 fault plane release experiment. The survey demonstrated that very high spatial data density is essential for imaging and characterisation of shallow structures. Nevertheless, significant processing efforts were required to precisely image shallow fault geometry and the extent of fault tips. The main fault F1 and the accompanied discontinuities were clearly imaged with a PSDM routine after a 3D velocity model was derived from 3D tomography and then further improved through an iterative process. Fault F1 now appears more complex and additional studies are needed. Further assessment of the fault F1 and its associated discontinuities will be conducted using three component seismic data. 2017 Conference Paper http://hdl.handle.net/20.500.11937/60661 10.3997/2214-4609.201701946 restricted
spellingShingle Urosevic, Milovan
Ziramov, Sasha
Pevzner, Roman
Tertyshnikov, Konstantin
Popik, D.
Feitz, A.
Fault characterisation from an ultra-high-resolution seismic for CO2 injection experiment
title Fault characterisation from an ultra-high-resolution seismic for CO2 injection experiment
title_full Fault characterisation from an ultra-high-resolution seismic for CO2 injection experiment
title_fullStr Fault characterisation from an ultra-high-resolution seismic for CO2 injection experiment
title_full_unstemmed Fault characterisation from an ultra-high-resolution seismic for CO2 injection experiment
title_short Fault characterisation from an ultra-high-resolution seismic for CO2 injection experiment
title_sort fault characterisation from an ultra-high-resolution seismic for co2 injection experiment
url http://hdl.handle.net/20.500.11937/60661