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Geologic and engineering characterization of Geraldine Ford field, Reeves and Culberson Counties, Texas. Topical report -- 1997
Author(s) -
Shirley P. Dutton,
M.A. Malik,
George B. Asquith,
M. D. Barton,
Andrew G. Cole,
J. Gogas,
Sigrid J. Clift,
José I. Guzmán
Publication year - 1998
Publication title -
osti oai (u.s. department of energy office of scientific and technical information)
Language(s) - English
Resource type - Reports
DOI - 10.2172/595625
Subject(s) - petrophysics , geology , reservoir modeling , permeability (electromagnetism) , oil in place , canyon , reservoir simulation , lithology , wireline , petroleum reservoir , petroleum engineering , clastic rock , petrology , reservoir engineering , infill , structural basin , saturation (graph theory) , porosity , mineralogy , geomorphology , geotechnical engineering , petroleum , paleontology , engineering , chemistry , combinatorics , telecommunications , biochemistry , mathematics , structural engineering , membrane , wireless
The objective of this Class III project is to demonstrate that detailed reservoir characterization of clastic reservoirs in basinal sandstones of the Delaware Mountain Group in the Delaware Basin of West Texas and New Mexico is a cost-effective way to recover more of the original oil in place by strategic infill-well placement and geologically based field development. The study focused on Geraldine Ford field, which produces from the upper Bell Canyon formation (Ramsey sandstone). Petrophysical characterization of the Ford Geraldine unit was accomplished by integrating core and log data and quantifying petrophysical properties from wireline logs. The petrophysical data were used to map porosity, permeability, net pay, water saturation, mobile oil saturation, and other reservoir properties. Once the reservoir-characterization study was completed, a demonstration area of approximately 1 mi{sup 2} in the northern part of the unit was chosen for reservoir modeling/simulation. A quarter of a five-spot injection pattern in the demonstration area was selected for flow simulations, and two cases of permeability distribution were considered, one using stochastic permeability distribution generated by conditional simulation and the other using layered permeabilities. Flow simulations were performed using UTCOMP, an isothermal, three-dimensional, compositional simulator for miscible gas flooding. Results indicate that 10--30% (1 to 3 MMbbl) of remaining oil in place in the demonstration area can be produced by CO{sub 2} injection

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