Construction of Mechanical Earth Model (MEM) to Determine the Geomechanical Properties of Reservoirs: A Case Study

The mechanical earth model (MEM) has recently been considered in the oil and gas industry due to its importance in predicting the safe and stable range of drilling mud, better understanding the effective parameters in wellbore instability, safe drilling and reduce exorbitant costs on the industry an...

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Main Authors: Annabelle Graham, Emma Scott, William Ward
Format: Article
Language:English
Published: Bilijipub publisher 2022-12-01
Series:Advances in Engineering and Intelligence Systems
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Online Access:https://aeis.bilijipub.com/article_163960_3984998ba5b4aa336b0bc782a6a462b8.pdf
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author Annabelle Graham
Emma Scott
William Ward
author_facet Annabelle Graham
Emma Scott
William Ward
author_sort Annabelle Graham
collection DOAJ
description The mechanical earth model (MEM) has recently been considered in the oil and gas industry due to its importance in predicting the safe and stable range of drilling mud, better understanding the effective parameters in wellbore instability, safe drilling and reduce exorbitant costs on the industry and understanding the geomechanical properties of the reservoir. The MEM includes a logical set of information related to geology, stress field, mechanical properties of rock (elastic modulus and rock failure properties) and pore pressure which can be employed as a tool to quickly update information for use in drilling and reservoir management. In this paper, a MEM was constructed using well logging data for a well in one of the oil-fields as a case study and calibrated using laboratory results and drilling reports. According to the results obtained from the minimum horizontal stress values and the maximum horizontal stress range, as well as the occurrence of tensile failures in the wellbore, it was found that the stress regime prevailing in the study field is a strike-slip fault regime. The results also show that shear failure occurs in the direction of minimum horizontal stress and tensile failure occurs in the direction of maximum horizontal stress.
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spelling doaj-art-2e155a6382d84da7b5d23d8d430b77cc2025-02-12T08:46:40ZengBilijipub publisherAdvances in Engineering and Intelligence Systems2821-02632022-12-0100104314010.22034/aeis.2022.367650.1048163960Construction of Mechanical Earth Model (MEM) to Determine the Geomechanical Properties of Reservoirs: A Case StudyAnnabelle Graham0Emma Scott1William Ward2Faculty of Science Engineering and Technology, Swinburne University of Technology, Melbourne, Victoria, 3122, AustraliaRMIT University, Melbourne, Victoria, 3000, AustraliaRMIT University, Melbourne, Victoria, 3000, AustraliaThe mechanical earth model (MEM) has recently been considered in the oil and gas industry due to its importance in predicting the safe and stable range of drilling mud, better understanding the effective parameters in wellbore instability, safe drilling and reduce exorbitant costs on the industry and understanding the geomechanical properties of the reservoir. The MEM includes a logical set of information related to geology, stress field, mechanical properties of rock (elastic modulus and rock failure properties) and pore pressure which can be employed as a tool to quickly update information for use in drilling and reservoir management. In this paper, a MEM was constructed using well logging data for a well in one of the oil-fields as a case study and calibrated using laboratory results and drilling reports. According to the results obtained from the minimum horizontal stress values and the maximum horizontal stress range, as well as the occurrence of tensile failures in the wellbore, it was found that the stress regime prevailing in the study field is a strike-slip fault regime. The results also show that shear failure occurs in the direction of minimum horizontal stress and tensile failure occurs in the direction of maximum horizontal stress.https://aeis.bilijipub.com/article_163960_3984998ba5b4aa336b0bc782a6a462b8.pdfmechanical earth modelshear failuretensile failurestress regime
spellingShingle Annabelle Graham
Emma Scott
William Ward
Construction of Mechanical Earth Model (MEM) to Determine the Geomechanical Properties of Reservoirs: A Case Study
Advances in Engineering and Intelligence Systems
mechanical earth model
shear failure
tensile failure
stress regime
title Construction of Mechanical Earth Model (MEM) to Determine the Geomechanical Properties of Reservoirs: A Case Study
title_full Construction of Mechanical Earth Model (MEM) to Determine the Geomechanical Properties of Reservoirs: A Case Study
title_fullStr Construction of Mechanical Earth Model (MEM) to Determine the Geomechanical Properties of Reservoirs: A Case Study
title_full_unstemmed Construction of Mechanical Earth Model (MEM) to Determine the Geomechanical Properties of Reservoirs: A Case Study
title_short Construction of Mechanical Earth Model (MEM) to Determine the Geomechanical Properties of Reservoirs: A Case Study
title_sort construction of mechanical earth model mem to determine the geomechanical properties of reservoirs a case study
topic mechanical earth model
shear failure
tensile failure
stress regime
url https://aeis.bilijipub.com/article_163960_3984998ba5b4aa336b0bc782a6a462b8.pdf
work_keys_str_mv AT annabellegraham constructionofmechanicalearthmodelmemtodeterminethegeomechanicalpropertiesofreservoirsacasestudy
AT emmascott constructionofmechanicalearthmodelmemtodeterminethegeomechanicalpropertiesofreservoirsacasestudy
AT williamward constructionofmechanicalearthmodelmemtodeterminethegeomechanicalpropertiesofreservoirsacasestudy