Surface-to-borehole TEM for reservoir monitoring

The increasing need for continuous reservoir monitoring is one of the primary concerns to the oil industry to improve the hydrocarbon recovery factor and production efficiency. Several monitoring scenarios with geophysical methods can be derived including surface and borehole-based methods and their...

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Main Authors: Azizuddin Abdul Aziz, Kurt Strack, Tilman Hanstein
Other Authors: University of Houston
Format: Article
Published: 2018
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Online Access:https://repository.li.mahidol.ac.th/handle/123456789/11846
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spelling th-mahidol.118462018-05-03T15:10:22Z Surface-to-borehole TEM for reservoir monitoring Azizuddin Abdul Aziz Kurt Strack Tilman Hanstein University of Houston KMS Technologies Mahidol University Earth and Planetary Sciences The increasing need for continuous reservoir monitoring is one of the primary concerns to the oil industry to improve the hydrocarbon recovery factor and production efficiency. Several monitoring scenarios with geophysical methods can be derived including surface and borehole-based methods and their combinations. One is a surface electric current dipole and a vertical electric borehole receiver which has the strongest coupling in detecting the water flood front changes and is easy to implement. The surface-to-borehole electromagnetic if combined with seismic can give excellent resolving capabilities. A modeling study was performed to generate several results based on the given model. This is to support feasibility studies as well as to determine survey acquisition parameters. A 3-layer model was used with a hydrocarbon reservoir in the second layer. The optimum transmitter offset was determined by the modeling result and the value was used for the rest of the experiment. The resistivity of the hydrocarbon reservoir was also varied to observe the received vertical electric field. A time lapse study is relevant for the reservoir monitoring. We built and simulated 3-D model to apply this technology to real reservoirs. In combinations with reservoir simulator results it predicts the outcome of potential surveys. The model is then translated to time lapse fluid changes in order to design the survey layout such that we can get a maximum response. © 2011 Society of Exploration Geophysicists. 2018-05-03T08:10:22Z 2018-05-03T08:10:22Z 2011-01-01 Article SEG Technical Program Expanded Abstracts. Vol.30, No.1 (2011), 1882-1886 10.1190/1.3627574 10523812 2-s2.0-84857594318 https://repository.li.mahidol.ac.th/handle/123456789/11846 Mahidol University SCOPUS https://www.scopus.com/inward/record.uri?partnerID=HzOxMe3b&scp=84857594318&origin=inward
institution Mahidol University
building Mahidol University Library
continent Asia
country Thailand
Thailand
content_provider Mahidol University Library
collection Mahidol University Institutional Repository
topic Earth and Planetary Sciences
spellingShingle Earth and Planetary Sciences
Azizuddin Abdul Aziz
Kurt Strack
Tilman Hanstein
Surface-to-borehole TEM for reservoir monitoring
description The increasing need for continuous reservoir monitoring is one of the primary concerns to the oil industry to improve the hydrocarbon recovery factor and production efficiency. Several monitoring scenarios with geophysical methods can be derived including surface and borehole-based methods and their combinations. One is a surface electric current dipole and a vertical electric borehole receiver which has the strongest coupling in detecting the water flood front changes and is easy to implement. The surface-to-borehole electromagnetic if combined with seismic can give excellent resolving capabilities. A modeling study was performed to generate several results based on the given model. This is to support feasibility studies as well as to determine survey acquisition parameters. A 3-layer model was used with a hydrocarbon reservoir in the second layer. The optimum transmitter offset was determined by the modeling result and the value was used for the rest of the experiment. The resistivity of the hydrocarbon reservoir was also varied to observe the received vertical electric field. A time lapse study is relevant for the reservoir monitoring. We built and simulated 3-D model to apply this technology to real reservoirs. In combinations with reservoir simulator results it predicts the outcome of potential surveys. The model is then translated to time lapse fluid changes in order to design the survey layout such that we can get a maximum response. © 2011 Society of Exploration Geophysicists.
author2 University of Houston
author_facet University of Houston
Azizuddin Abdul Aziz
Kurt Strack
Tilman Hanstein
format Article
author Azizuddin Abdul Aziz
Kurt Strack
Tilman Hanstein
author_sort Azizuddin Abdul Aziz
title Surface-to-borehole TEM for reservoir monitoring
title_short Surface-to-borehole TEM for reservoir monitoring
title_full Surface-to-borehole TEM for reservoir monitoring
title_fullStr Surface-to-borehole TEM for reservoir monitoring
title_full_unstemmed Surface-to-borehole TEM for reservoir monitoring
title_sort surface-to-borehole tem for reservoir monitoring
publishDate 2018
url https://repository.li.mahidol.ac.th/handle/123456789/11846
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