Schlumberger Technology Corporation

Schlumberger Canada Limited

Services Petroliers Schlumberger

Geoquest Systems B.v.

Adrian Rodriguez Herrera

Hitoshi Onda

Xavier Garcia-Teijeiro

Piyush Pankaj

Oliver Clinton Mullins

Andrew Emil Pomerantz

John E Edwards

Ram Sunder Kalyanraman

Morten Kristensen

Nikolaos Constantinos Koutsabeloulis

Francisco Jose Gomez

Saad Kisra

Sumant Kamat

James Minton

Karsten Fischer

Assef Mohamad Hussein

Andres Alfonso Pena Olarte

Tobias Judd

Nikolaos Koutsabeloulis

Fabian Krzicalla

Systems, methods, and computer readable media, of which the method includes calculating strains, stresses, or both resulting from pressure changes in a subterranean volume using a geomechanical model, determining one or more local correlations between pressure changes and changes in permeability, porosity, or both in the subterranean volume using the calculated strains and stresses, generating one or more compaction tables for the subterranean volume using the local correlations, calculating pressure changes in the subterranean volume by simulating fluid flow in the subterranean volume using a reservoir model, and modifying the reservoir model using the one or more compaction tables and the calculated pressure changes.

Coupled reservoir-geomechanical models using compaction tables

Methods and systems for determining a property of a tubular are described. Measurement data of cross-sectional shapes of the tubular at a plurality of depth positions is provided. A three-dimensional mesh representing the tubular based on the cross-sectional shapes is generated. A stress simulation using the three-dimensional mesh to provide an integrity assessment of the tubular is performed.

Methods and systems for determining integrity and operational boundaries of subterranean wells

A method of performing oilfield operations at a wellsite is disclosed. The wellsite is positioned about a subterranean formation having a wellbore therethrough and a fracture network therein. The fracture network includes natural fractures. The method involves generating fracture parameters including a hydraulic fracture network based on wellsite data including a mechanical earth model, generating reservoir parameters including a reservoir grid based on the wellsite data and the generated fracture wellsite parameters, forming a finite element grid from the fracture and reservoir parameters by coupling the hydraulic fracture network to the reservoir grid, generating integrated geomechanical parameters including estimated microseismic events based on the finite element grid, and performing fracture operations and production operations based on the integrated geomechanical parameters.

Method integrating fracture and reservoir operations into geomechanical operations of a wellsite

A method of performing oilfield operations at a wellsite is disclosed. The wellsite is positioned about a subterranean formation having a wellbore therethrough and a fracture network therein. The fracture network includes natural fractures. The method involves generating fracture parameters including a hydraulic fracture network based on wellsite data including a mechanical earth model, generating reservoir parameters including a reservoir grid based on the wellsite data and the generated fracture wellsite parameters, generating production parameters comprising production rate over time based on the wellsite data and the hydraulic fracture network, forming a finite element grid from the fracture parameters, the production parameters, and the reservoir parameters by coupling the hydraulic fracture network to the reservoir grid, generating integrated geomechanical parameters including estimated microseismic events based on the finite element grid, and performing fracture operations and production operations based on the integrated geomechanical parameters.

Method of integrating fracture, production, and reservoir operations into geomechanical operations of a wellsite

A downhole tool is conveyed within a borehole extending into a subterranean formation. A void is created in a sidewall of the borehole by extending a rotating member from the downhole tool into the sidewall. A portion of the sidewall surrounding the void is mechanically compressed, and the viscosity of hydrocarbons in the subterranean formation proximate the void is reduced by injecting a fluid from the downhole tool into the formation via the void. Fluid comprising the reduced viscosity hydrocarbons and the injected fluid may then be drawn from the subterranean formation into the downhole tool.

Injection for sampling heavy oil

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London, United Kingdom

Adrian Rodriguez Herrera