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The AAPG/Datapages Combined Publications Database
AAPG Bulletin
Abstract
AAPG Bulletin, V.
2010. The American Association of Petroleum Geologists. All rights reserved.
DOI:10.1306/10130909046
Evaluating hydrocarbon
trap
integrity during
fault
reactivation using geomechanical three-dimensional modeling: An example from the Timor Sea, Australia
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Laurent Langhi,1 Yanhua Zhang,2 Anthony Gartrell,3 Jim Underschultz,4 David Dewhurst5
1Commonwealth Scientific and Industrial Research Organization Petroleum, ARRC, 26 Dick Perry Ave., Kensington, Perth, WA 6151, Australia; [email protected]
2Commonwealth Scientific and Industrial Research Organization Exploration and Mining, ARRC, 26 Dick Perry Ave., Kensington, Perth, WA 6151, Australia
3Commonwealth Scientific and Industrial Research Organization Petroleum, ARRC, 26 Dick Perry Ave., Kensington, Perth, WA 6151, Australia; present address: Brunei Shell Petroleum, BSP Head Office, Seria, KB 3534, Brunei
4Commonwealth Scientific and Industrial Research Organization Petroleum, ARRC, 26 Dick Perry Ave., Kensington, Perth, WA 6151, Australia
5Commonwealth Scientific and Industrial Research Organization Petroleum, ARRC, 26 Dick Perry Ave., Kensington, Perth, WA 6151, Australia
ABSTRACT
Three-dimensional (3-D) coupled deformation and fluid-flow numerical modeling are used to simulate the response of a relatively complex set of trap
-bounding faults to extensional reactivation and to investigate hydrocarbon preservation risk for structural traps in the offshore Bonaparte Basin (Laminaria High, the Timor Sea, Australian North West Shelf).
The model results show that the distributions of shear strain and dilation as well as fluid flux are heterogeneous along fault
planes inferring lateral variability of
fault
seal effectiveness. The distribution of high shear strain is seen as the main control on structural permeability and is primarily influenced by the structural architecture. Prereactivation
fault
size and distribution within the modeled
fault
population as well as
fault
corrugations driven by growth processes represent key elements driving the partitioning of strain and up-
fault
fluid flow. These factors are critical in determining oil preservation during the late reactivation phase on the Laminaria High.
Testing of the model against leakage indicators defined on 3-D seismic data correlates with the numerical prediction of fault
seal effectiveness and explains the complex distribution of paleo- and preserved oil columns in the study area.
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