Flow through fractured reservoirs under geological and geomechancial uncertainty

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Abstract

The main aim of this work is the efficient preservation of fracture related geological and geomechanical uncertainties in naturally fractured reservoirs throughout the modelling, simulation and decision-making cycle of a field. For this purpose a workflow is designed that relies on multiple-point statistics (MPS) to represent the spatial complexity that comes with fracture network modelling with an emphasis on the uncertainties that are involved around fracture network distributions and the impact that could have on flow behaviour. This is tested on a synthetic field that is based upon a conceptual model for fracture distribution in folded carbonate rocks. The results indicate that the suggested MPS-based workflow is capable of carrying fracture related uncertainties, in particular uncertainties around fracture network distributions, throughout the modelling cycle for naturally fractured reservoirs. The results also imply that not considering these uncertainties could eventually lead to water handling issues during production, if the facilities are not designed for all possible scenarios. This shows, how including more geological realism into the model building workflow for naturally fractured reservoirs can help assessing the overall risk of a project.

Original languageEnglish
Title of host publication81st EAGE Conference and Exhibition 2019
PublisherEAGE Publishing BV
ISBN (Electronic)9789462822894
Publication statusPublished - 3 Jun 2019
Event81st EAGE Conference and Exhibition 2019 - London, United Kingdom
Duration: 3 Jun 20196 Jun 2019

Conference

Conference81st EAGE Conference and Exhibition 2019
CountryUnited Kingdom
CityLondon
Period3/06/196/06/19

Fingerprint

fracture network
modeling
Electric power distribution
carbonate rock
decision making
Statistics
statistics
cycles
Carbonates
simulation
distribution
Uncertainty
carbonates
Decision making
Rocks
rocks
water
Water
Computer simulation

ASJC Scopus subject areas

  • Geochemistry and Petrology
  • Geophysics

Cite this

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title = "Flow through fractured reservoirs under geological and geomechancial uncertainty",
abstract = "The main aim of this work is the efficient preservation of fracture related geological and geomechanical uncertainties in naturally fractured reservoirs throughout the modelling, simulation and decision-making cycle of a field. For this purpose a workflow is designed that relies on multiple-point statistics (MPS) to represent the spatial complexity that comes with fracture network modelling with an emphasis on the uncertainties that are involved around fracture network distributions and the impact that could have on flow behaviour. This is tested on a synthetic field that is based upon a conceptual model for fracture distribution in folded carbonate rocks. The results indicate that the suggested MPS-based workflow is capable of carrying fracture related uncertainties, in particular uncertainties around fracture network distributions, throughout the modelling cycle for naturally fractured reservoirs. The results also imply that not considering these uncertainties could eventually lead to water handling issues during production, if the facilities are not designed for all possible scenarios. This shows, how including more geological realism into the model building workflow for naturally fractured reservoirs can help assessing the overall risk of a project.",
author = "B. Steffens and V. Demyanov and G. Couples and D. Arnold and H. Lewis",
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Steffens, B, Demyanov, V, Couples, G, Arnold, D & Lewis, H 2019, Flow through fractured reservoirs under geological and geomechancial uncertainty. in 81st EAGE Conference and Exhibition 2019. EAGE Publishing BV, 81st EAGE Conference and Exhibition 2019, London, United Kingdom, 3/06/19.

Flow through fractured reservoirs under geological and geomechancial uncertainty. / Steffens, B.; Demyanov, V.; Couples, G.; Arnold, D.; Lewis, H.

81st EAGE Conference and Exhibition 2019. EAGE Publishing BV, 2019.

Research output: Chapter in Book/Report/Conference proceedingConference contribution

TY - GEN

T1 - Flow through fractured reservoirs under geological and geomechancial uncertainty

AU - Steffens, B.

AU - Demyanov, V.

AU - Couples, G.

AU - Arnold, D.

AU - Lewis, H.

PY - 2019/6/3

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N2 - The main aim of this work is the efficient preservation of fracture related geological and geomechanical uncertainties in naturally fractured reservoirs throughout the modelling, simulation and decision-making cycle of a field. For this purpose a workflow is designed that relies on multiple-point statistics (MPS) to represent the spatial complexity that comes with fracture network modelling with an emphasis on the uncertainties that are involved around fracture network distributions and the impact that could have on flow behaviour. This is tested on a synthetic field that is based upon a conceptual model for fracture distribution in folded carbonate rocks. The results indicate that the suggested MPS-based workflow is capable of carrying fracture related uncertainties, in particular uncertainties around fracture network distributions, throughout the modelling cycle for naturally fractured reservoirs. The results also imply that not considering these uncertainties could eventually lead to water handling issues during production, if the facilities are not designed for all possible scenarios. This shows, how including more geological realism into the model building workflow for naturally fractured reservoirs can help assessing the overall risk of a project.

AB - The main aim of this work is the efficient preservation of fracture related geological and geomechanical uncertainties in naturally fractured reservoirs throughout the modelling, simulation and decision-making cycle of a field. For this purpose a workflow is designed that relies on multiple-point statistics (MPS) to represent the spatial complexity that comes with fracture network modelling with an emphasis on the uncertainties that are involved around fracture network distributions and the impact that could have on flow behaviour. This is tested on a synthetic field that is based upon a conceptual model for fracture distribution in folded carbonate rocks. The results indicate that the suggested MPS-based workflow is capable of carrying fracture related uncertainties, in particular uncertainties around fracture network distributions, throughout the modelling cycle for naturally fractured reservoirs. The results also imply that not considering these uncertainties could eventually lead to water handling issues during production, if the facilities are not designed for all possible scenarios. This shows, how including more geological realism into the model building workflow for naturally fractured reservoirs can help assessing the overall risk of a project.

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M3 - Conference contribution

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Steffens B, Demyanov V, Couples G, Arnold D, Lewis H. Flow through fractured reservoirs under geological and geomechancial uncertainty. In 81st EAGE Conference and Exhibition 2019. EAGE Publishing BV. 2019