FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2011105557> ?p ?o ?g. }

• W2011105557 abstract "Abstract This paper discusses the prediction performance of a two-dimensional area reservoir simulation model. Of particular significance is the strategy to optimally harness the energy of the gas caps and aquifer to achieve maximum recovery from a group of offshore oil and gas reservoirs which are hydraulically connected through a regional aquifer: One major oil reservoir was produced at reasonable rates while the rates for the other reservoirs were automatically adjusted based on a concept of balanced water potentials and correct gas-oil/water-oil contact advance ratios. This strategy worked reasonably well because 96 to 99% of Estimated Ultimate Recoveries (EURs) were achieved. Introduction The lower and edge extremities of oil and gas reservoirs are in physical and hydraulic continuity with the enormous water volume (the aquifer) that fills the formation outside the reservoirs. The water volume may be hundreds to thousands of time larger than the oil and gas volumes. As oil and gas are produced from the reservoirs, the voidages are partially replaced by the water influx from the aquifer. Localised aquifers affecting one field are almost always present while large, regional aquifers affecting groups of fields are less common. Localised aquifers may be primarily classified according to the geometry (radial, linear, or non-symmetrical) and, secondarily, according to the external boundary condition (infinite, finite closed, or finite-outcropping). A large regional aquifer in Woodbine sand formation in the East Texas Basin have been reported to provide driving force for oil and gas recoveries in the East Texas Hawkins Van, Cayuga and several others oil fields. Another report discussed the effects of a regional aquifer (in the Ellenburger dolomite formation in Texas Central Basin Platform, West Texas) on the pressure performance of Martin, Embar, Andector, Txl and Wheeler oil fields. For optimal oil and gas recoveries, free gas and water must breakthrough at the well-bores at about the same time, after much oil has been displaced and produced. Too early or mismatched breakthroughs will cause oil to be bypassed. thus reducing the oil recovery. To ensure timely gas and water breakthroughs, well production rates have to be properly controlled so that gas and water fronts converge at the well-bores at the rates that would result in timely breakthroughs. Often, the strength of the gas drive is quite accurately known because the size of the gas cap and quality of the reservoir sands or carbonates is known from the wells drilled in the field. However, the size and strength of the water drive are much less known initially because very few wells are drilled in the water zone. Thus, beginning with a rough estimate, the strength of water drive has to be regularly updated by analyzing the production and pressure trends in the individual wells and the reservoir as a whole. Figure 1 shows of a group of offshore oil and gas reservoirs (arbitrarily renamed) hydraulically connected through a regional aquifer. This aquifer provides important water drive and pressure support for the hydrocarbon recovery, however, its strength varies in different areas depending on the sand thickness, quality and continuity. P. 377^" @default.
• W2011105557 created "2016-06-24" @default.
• W2011105557 creator A5072727250 @default.
• W2011105557 date "1997-04-14" @default.
• W2011105557 modified "2023-09-27" @default.
• W2011105557 title "Optimal Utilization of Regional Aquifer Energy for Oil and Gas Production" @default.
• W2011105557 doi "https://doi.org/10.2118/38061-ms" @default.
• W2011105557 hasPublicationYear "1997" @default.
• W2011105557 type Work @default.
• W2011105557 sameAs 2011105557 @default.
• W2011105557 citedByCount "0" @default.
• W2011105557 crossrefType "proceedings-article" @default.
• W2011105557 hasAuthorship W2011105557A5072727250 @default.
• W2011105557 hasConcept C127313418 @default.
• W2011105557 hasConcept C127413603 @default.
• W2011105557 hasConcept C139719470 @default.
• W2011105557 hasConcept C162324750 @default.
• W2011105557 hasConcept C175605778 @default.
• W2011105557 hasConcept C187320778 @default.
• W2011105557 hasConcept C24345647 @default.
• W2011105557 hasConcept C2778348673 @default.
• W2011105557 hasConcept C39432304 @default.
• W2011105557 hasConcept C524765639 @default.
• W2011105557 hasConcept C548081761 @default.
• W2011105557 hasConcept C68189081 @default.
• W2011105557 hasConcept C75622301 @default.
• W2011105557 hasConcept C76177295 @default.
• W2011105557 hasConcept C78762247 @default.
• W2011105557 hasConceptScore W2011105557C127313418 @default.
• W2011105557 hasConceptScore W2011105557C127413603 @default.
• W2011105557 hasConceptScore W2011105557C139719470 @default.
• W2011105557 hasConceptScore W2011105557C162324750 @default.
• W2011105557 hasConceptScore W2011105557C175605778 @default.
• W2011105557 hasConceptScore W2011105557C187320778 @default.
• W2011105557 hasConceptScore W2011105557C24345647 @default.
• W2011105557 hasConceptScore W2011105557C2778348673 @default.
• W2011105557 hasConceptScore W2011105557C39432304 @default.
• W2011105557 hasConceptScore W2011105557C524765639 @default.
• W2011105557 hasConceptScore W2011105557C548081761 @default.
• W2011105557 hasConceptScore W2011105557C68189081 @default.
• W2011105557 hasConceptScore W2011105557C75622301 @default.
• W2011105557 hasConceptScore W2011105557C76177295 @default.
• W2011105557 hasConceptScore W2011105557C78762247 @default.
• W2011105557 hasLocation W20111055571 @default.
• W2011105557 hasOpenAccess W2011105557 @default.
• W2011105557 hasPrimaryLocation W20111055571 @default.
• W2011105557 hasRelatedWork W2063440057 @default.
• W2011105557 hasRelatedWork W2136593712 @default.
• W2011105557 hasRelatedWork W2144923626 @default.
• W2011105557 hasRelatedWork W2273046635 @default.
• W2011105557 hasRelatedWork W2361140234 @default.
• W2011105557 hasRelatedWork W2407533246 @default.
• W2011105557 hasRelatedWork W2579922485 @default.
• W2011105557 hasRelatedWork W3005422147 @default.
• W2011105557 hasRelatedWork W3013874337 @default.
• W2011105557 hasRelatedWork W3034451212 @default.
• W2011105557 hasRelatedWork W3047896763 @default.
• W2011105557 hasRelatedWork W3084447683 @default.
• W2011105557 hasRelatedWork W3128686662 @default.
• W2011105557 hasRelatedWork W3136703723 @default.
• W2011105557 hasRelatedWork W2345497982 @default.
• W2011105557 hasRelatedWork W2848456821 @default.
• W2011105557 isParatext "false" @default.
• W2011105557 isRetracted "false" @default.
• W2011105557 magId "2011105557" @default.
• W2011105557 workType "article" @default.