Imaging pore space in tight gas sandstone reservoir: insights from broad ion beam cross-sectioning

Monetization of tight gas reservoirs, which contain significant gas reserves world-wide, represents a challenge for the entire oil and gas industry. The development of new technologies to enhance tight gas reservoir productivity is strongly dependent on an improved understanding of the rock prope...

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Main Authors: Konstanty J., Kukla P.A., Urai J.L., Baerle C., Enzmann F., Desbois G.
Format: Article
Language:English
Published: EDP Sciences 2010-06-01
Series:EPJ Web of Conferences
Online Access:http://dx.doi.org/10.1051/epjconf/20100622022
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spelling doaj-e5693507922548979200c1513859e38b2021-08-02T01:17:51ZengEDP SciencesEPJ Web of Conferences2100-014X2010-06-0162202210.1051/epjconf/20100622022Imaging pore space in tight gas sandstone reservoir: insights from broad ion beam cross-sectioningKonstanty J.Kukla P.A.Urai J.L.Baerle C.Enzmann F.Desbois G.Monetization of tight gas reservoirs, which contain significant gas reserves world-wide, represents a challenge for the entire oil and gas industry. The development of new technologies to enhance tight gas reservoir productivity is strongly dependent on an improved understanding of the rock properties and especially the pore framework. Numerous methods are now available to characterize sandstone cores. However, the pore space characterization at pore scale remains difficult due to the fine pore size and delicate sample preparation, and has thus been mostly indirectly inferred until now. Here we propose a new method of ultra high-resolution petrography combining high resolution SEM and argon ion beam cross sectioning (BIB, Broad Ion Beam) which prepares smooth and damage free surfaces. We demonstrate this method using the example of Permian (Rotliegend) age tight gas sandstone core samples. The combination of Ar-beam cross-sectioning facility and high-resolution SEM imaging has the potential to result in a step change in the understanding of pore geometries, in terms of its morphology, spatial distribution and evolution based on the generation of unprecedented image quality and resolution enhancing the predictive reliability of image analysis. http://dx.doi.org/10.1051/epjconf/20100622022
collection DOAJ
language English
format Article
sources DOAJ
author Konstanty J.
Kukla P.A.
Urai J.L.
Baerle C.
Enzmann F.
Desbois G.
spellingShingle Konstanty J.
Kukla P.A.
Urai J.L.
Baerle C.
Enzmann F.
Desbois G.
Imaging pore space in tight gas sandstone reservoir: insights from broad ion beam cross-sectioning
EPJ Web of Conferences
author_facet Konstanty J.
Kukla P.A.
Urai J.L.
Baerle C.
Enzmann F.
Desbois G.
author_sort Konstanty J.
title Imaging pore space in tight gas sandstone reservoir: insights from broad ion beam cross-sectioning
title_short Imaging pore space in tight gas sandstone reservoir: insights from broad ion beam cross-sectioning
title_full Imaging pore space in tight gas sandstone reservoir: insights from broad ion beam cross-sectioning
title_fullStr Imaging pore space in tight gas sandstone reservoir: insights from broad ion beam cross-sectioning
title_full_unstemmed Imaging pore space in tight gas sandstone reservoir: insights from broad ion beam cross-sectioning
title_sort imaging pore space in tight gas sandstone reservoir: insights from broad ion beam cross-sectioning
publisher EDP Sciences
series EPJ Web of Conferences
issn 2100-014X
publishDate 2010-06-01
description Monetization of tight gas reservoirs, which contain significant gas reserves world-wide, represents a challenge for the entire oil and gas industry. The development of new technologies to enhance tight gas reservoir productivity is strongly dependent on an improved understanding of the rock properties and especially the pore framework. Numerous methods are now available to characterize sandstone cores. However, the pore space characterization at pore scale remains difficult due to the fine pore size and delicate sample preparation, and has thus been mostly indirectly inferred until now. Here we propose a new method of ultra high-resolution petrography combining high resolution SEM and argon ion beam cross sectioning (BIB, Broad Ion Beam) which prepares smooth and damage free surfaces. We demonstrate this method using the example of Permian (Rotliegend) age tight gas sandstone core samples. The combination of Ar-beam cross-sectioning facility and high-resolution SEM imaging has the potential to result in a step change in the understanding of pore geometries, in terms of its morphology, spatial distribution and evolution based on the generation of unprecedented image quality and resolution enhancing the predictive reliability of image analysis.
url http://dx.doi.org/10.1051/epjconf/20100622022
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