Seismic interpretation pitfalls caused by interference effects, exemplified by seismic modeling of outcropping chalk successions

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Standard

Seismic interpretation pitfalls caused by interference effects, exemplified by seismic modeling of outcropping chalk successions. / Qu, Dongfang; Anderskouv, Kresten; Stemmerik, Lars; Nielsen, Lars.

I: Interpretation (United Kingdom), Bind 10, Nr. 3, 2022, s. T441-T449.

Publikation: Bidrag til tidsskriftTidsskriftartikelForskningfagfællebedømt

Harvard

Qu, D, Anderskouv, K, Stemmerik, L & Nielsen, L 2022, 'Seismic interpretation pitfalls caused by interference effects, exemplified by seismic modeling of outcropping chalk successions', Interpretation (United Kingdom), bind 10, nr. 3, s. T441-T449. https://doi.org/10.1190/INT-2021-0185.1

APA

Qu, D., Anderskouv, K., Stemmerik, L., & Nielsen, L. (2022). Seismic interpretation pitfalls caused by interference effects, exemplified by seismic modeling of outcropping chalk successions. Interpretation (United Kingdom), 10(3), T441-T449. https://doi.org/10.1190/INT-2021-0185.1

Vancouver

Qu D, Anderskouv K, Stemmerik L, Nielsen L. Seismic interpretation pitfalls caused by interference effects, exemplified by seismic modeling of outcropping chalk successions. Interpretation (United Kingdom). 2022;10(3):T441-T449. https://doi.org/10.1190/INT-2021-0185.1

Author

Qu, Dongfang ; Anderskouv, Kresten ; Stemmerik, Lars ; Nielsen, Lars. / Seismic interpretation pitfalls caused by interference effects, exemplified by seismic modeling of outcropping chalk successions. I: Interpretation (United Kingdom). 2022 ; Bind 10, Nr. 3. s. T441-T449.

Bibtex

@article{20fc60cb0c9641508058e76cabf34861,
title = "Seismic interpretation pitfalls caused by interference effects, exemplified by seismic modeling of outcropping chalk successions",
abstract = "Interference and inherent resolution limitations are well-recognized problems in reflection seismic data and have over time led to misinterpretations. Acquisition of seismic data containing a broad range of frequencies, including high frequencies, does not solve this problem but merely moves the problem to a finer scale. Forward seismic modeling of known geologic scenarios is a valuable tool for studying anticipated seismic responses of successions with a given set of geologic and/or rock physical characteristics and for predicting interpretational challenges. We perform finite-difference-based seismic forward modeling on a conceptual geologic model derived from outcropping chalk sections in southeast Denmark and evaluate possible pitfalls that may hamper interpretation of seismic data acquired from strata with similar characteristics. We demonstrate that interbedded strata with contrasting physical properties and variable thickness can result in interference effects resembling faults and fractures. The result has significance for characterization, e.g., geothermal sites, potential CO2 storage targets, groundwater reservoirs, and hydrocarbon exploration sites, in which the proper imaging of faults and fractures from seismic data is an essential task.",
keywords = "faults, high-resolution, imaging, interpretation, modeling",
author = "Dongfang Qu and Kresten Anderskouv and Lars Stemmerik and Lars Nielsen",
note = "Publisher Copyright: {\textcopyright} 2022, SAGE Publications Ltd. All rights reserved.",
year = "2022",
doi = "10.1190/INT-2021-0185.1",
language = "English",
volume = "10",
pages = "T441--T449",
journal = "Interpretation",
issn = "0020-9643",
publisher = "Union Theological Seminary",
number = "3",

}

RIS

TY - JOUR

T1 - Seismic interpretation pitfalls caused by interference effects, exemplified by seismic modeling of outcropping chalk successions

AU - Qu, Dongfang

AU - Anderskouv, Kresten

AU - Stemmerik, Lars

AU - Nielsen, Lars

N1 - Publisher Copyright: © 2022, SAGE Publications Ltd. All rights reserved.

PY - 2022

Y1 - 2022

N2 - Interference and inherent resolution limitations are well-recognized problems in reflection seismic data and have over time led to misinterpretations. Acquisition of seismic data containing a broad range of frequencies, including high frequencies, does not solve this problem but merely moves the problem to a finer scale. Forward seismic modeling of known geologic scenarios is a valuable tool for studying anticipated seismic responses of successions with a given set of geologic and/or rock physical characteristics and for predicting interpretational challenges. We perform finite-difference-based seismic forward modeling on a conceptual geologic model derived from outcropping chalk sections in southeast Denmark and evaluate possible pitfalls that may hamper interpretation of seismic data acquired from strata with similar characteristics. We demonstrate that interbedded strata with contrasting physical properties and variable thickness can result in interference effects resembling faults and fractures. The result has significance for characterization, e.g., geothermal sites, potential CO2 storage targets, groundwater reservoirs, and hydrocarbon exploration sites, in which the proper imaging of faults and fractures from seismic data is an essential task.

AB - Interference and inherent resolution limitations are well-recognized problems in reflection seismic data and have over time led to misinterpretations. Acquisition of seismic data containing a broad range of frequencies, including high frequencies, does not solve this problem but merely moves the problem to a finer scale. Forward seismic modeling of known geologic scenarios is a valuable tool for studying anticipated seismic responses of successions with a given set of geologic and/or rock physical characteristics and for predicting interpretational challenges. We perform finite-difference-based seismic forward modeling on a conceptual geologic model derived from outcropping chalk sections in southeast Denmark and evaluate possible pitfalls that may hamper interpretation of seismic data acquired from strata with similar characteristics. We demonstrate that interbedded strata with contrasting physical properties and variable thickness can result in interference effects resembling faults and fractures. The result has significance for characterization, e.g., geothermal sites, potential CO2 storage targets, groundwater reservoirs, and hydrocarbon exploration sites, in which the proper imaging of faults and fractures from seismic data is an essential task.

KW - faults

KW - high-resolution

KW - imaging

KW - interpretation

KW - modeling

U2 - 10.1190/INT-2021-0185.1

DO - 10.1190/INT-2021-0185.1

M3 - Journal article

AN - SCOPUS:85132255312

VL - 10

SP - T441-T449

JO - Interpretation

JF - Interpretation

SN - 0020-9643

IS - 3

ER -

ID: 329742489