FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2196339097> ?p ?o ?g. }

• W2196339097 endingPage "10" @default.
• W2196339097 startingPage "1" @default.
• W2196339097 abstract "The field under study is located offshore Norway. Due to the need for pressure support, it is anticipated that seawater will be injected and continuous gas lift will be used in a number of wells. Barium sulphate scale deposition is expected as high concentrations of barium have been measured in the formation brine. Scale inhibitor squeeze treatments will form an important part of the scale mitigation plan. Squeeze treatments entail the injection of an inhibitor chemical to prevent scale deposition, the treatment generally consists of the following stages: preflush, main treatment, overflush and shut-in. The preflush stage is normally injected to condition the formation, with typically a mutual solvent being deployed to improve inhibitor retention and well clean-up times. The chemical slug is injected in the main treatment stage, generally as an aqueous phase. The overflush stage is deployed to displace the chemical slug deeper into the reservoir and thus expose the chemical to a greater surface area of rock to achieve a higher level of retention. Commonly, the overflush is deployed as an aqueous phase; however, it is not always feasible to inject large volumes of water in wells which are water sensitive or which already require artificial lift. Water is denser than hydrocarbons, and therefore more difficult to lift. In these circumstances, a non-aqueous overflush, generally marine diesel, may be preferable. The diesel volumes required are feasible for scale squeezes during the first years, although some additional logistic effort and costs are to be considered. The objective of this paper is to compare squeeze treatment lifetime achieved by conventional aqueous and non-conventional squeeze treatments, where non-conventional refers to treatments where the overflush is split into aqueous and non-aqueous stages, typically diesel being used for the non-aqueous stage. The simulation and optimisation calculations were performed using a specialised near wellbore model for scale treatments, where a two-phase flow model was used to describe the displacement process during the multi-stage overflush. Splitting the overflush was found to reduce the squeeze lifetime marginally, as the non-aqueous overflush is not as effective as a purely aqueous overflush in propagating scale inhibitor deeper into the formation. However, this is counterbalanced by the fact that a smaller volume of water needs to be injected in the formation, and so reducing the risk of formation damage and most important for this particular case, a smaller volume of water will need to be lifted, so the well may be set back to production with ease." @default.
• W2196339097 created "2016-06-24" @default.
• W2196339097 creator A5014817799 @default.
• W2196339097 creator A5022590850 @default.
• W2196339097 creator A5074692689 @default.
• W2196339097 creator A5086899206 @default.
• W2196339097 date "2016-02-01" @default.
• W2196339097 modified "2023-10-18" @default.
• W2196339097 title "Non-aqueous vs aqueous overflush scale inhibitor squeeze treatment in an oilfield offshore Norway" @default.
• W2196339097 cites W1975562103 @default.
• W2196339097 cites W1975798904 @default.
• W2196339097 cites W1979138974 @default.
• W2196339097 cites W1993821469 @default.
• W2196339097 cites W1995198462 @default.
• W2196339097 cites W1998185461 @default.
• W2196339097 cites W2000095335 @default.
• W2196339097 cites W2012060034 @default.
• W2196339097 cites W2017622975 @default.
• W2196339097 cites W2032376655 @default.
• W2196339097 cites W2044312547 @default.
• W2196339097 cites W2047070928 @default.
• W2196339097 cites W2070145933 @default.
• W2196339097 cites W2071623928 @default.
• W2196339097 cites W2172741156 @default.
• W2196339097 cites W3152827167 @default.
• W2196339097 doi "https://doi.org/10.1016/j.petrol.2015.11.033" @default.
• W2196339097 hasPublicationYear "2016" @default.
• W2196339097 type Work @default.
• W2196339097 sameAs 2196339097 @default.
• W2196339097 citedByCount "22" @default.
• W2196339097 countsByYear W21963390972016 @default.
• W2196339097 countsByYear W21963390972017 @default.
• W2196339097 countsByYear W21963390972018 @default.
• W2196339097 countsByYear W21963390972019 @default.
• W2196339097 countsByYear W21963390972020 @default.
• W2196339097 countsByYear W21963390972021 @default.
• W2196339097 countsByYear W21963390972022 @default.
• W2196339097 countsByYear W21963390972023 @default.
• W2196339097 crossrefType "journal-article" @default.
• W2196339097 hasAuthorship W2196339097A5014817799 @default.
• W2196339097 hasAuthorship W2196339097A5022590850 @default.
• W2196339097 hasAuthorship W2196339097A5074692689 @default.
• W2196339097 hasAuthorship W2196339097A5086899206 @default.
• W2196339097 hasConcept C111368507 @default.
• W2196339097 hasConcept C124101348 @default.
• W2196339097 hasConcept C127313418 @default.
• W2196339097 hasConcept C139002025 @default.
• W2196339097 hasConcept C147789679 @default.
• W2196339097 hasConcept C162284963 @default.
• W2196339097 hasConcept C178790620 @default.
• W2196339097 hasConcept C184651966 @default.
• W2196339097 hasConcept C185592680 @default.
• W2196339097 hasConcept C187320778 @default.
• W2196339097 hasConcept C197248824 @default.
• W2196339097 hasConcept C2775865663 @default.
• W2196339097 hasConcept C2776957854 @default.
• W2196339097 hasConcept C2778059233 @default.
• W2196339097 hasConcept C2778163939 @default.
• W2196339097 hasConcept C39432304 @default.
• W2196339097 hasConcept C41008148 @default.
• W2196339097 hasConcept C78762247 @default.
• W2196339097 hasConceptScore W2196339097C111368507 @default.
• W2196339097 hasConceptScore W2196339097C124101348 @default.
• W2196339097 hasConceptScore W2196339097C127313418 @default.
• W2196339097 hasConceptScore W2196339097C139002025 @default.
• W2196339097 hasConceptScore W2196339097C147789679 @default.
• W2196339097 hasConceptScore W2196339097C162284963 @default.
• W2196339097 hasConceptScore W2196339097C178790620 @default.
• W2196339097 hasConceptScore W2196339097C184651966 @default.
• W2196339097 hasConceptScore W2196339097C185592680 @default.
• W2196339097 hasConceptScore W2196339097C187320778 @default.
• W2196339097 hasConceptScore W2196339097C197248824 @default.
• W2196339097 hasConceptScore W2196339097C2775865663 @default.
• W2196339097 hasConceptScore W2196339097C2776957854 @default.
• W2196339097 hasConceptScore W2196339097C2778059233 @default.
• W2196339097 hasConceptScore W2196339097C2778163939 @default.
• W2196339097 hasConceptScore W2196339097C39432304 @default.
• W2196339097 hasConceptScore W2196339097C41008148 @default.
• W2196339097 hasConceptScore W2196339097C78762247 @default.
• W2196339097 hasLocation W21963390971 @default.
• W2196339097 hasOpenAccess W2196339097 @default.
• W2196339097 hasPrimaryLocation W21963390971 @default.
• W2196339097 hasRelatedWork W2255580135 @default.
• W2196339097 hasRelatedWork W2373141161 @default.
• W2196339097 hasRelatedWork W2383987326 @default.
• W2196339097 hasRelatedWork W2393031206 @default.
• W2196339097 hasRelatedWork W2527965427 @default.
• W2196339097 hasRelatedWork W2553026080 @default.
• W2196339097 hasRelatedWork W3094480802 @default.
• W2196339097 hasRelatedWork W3161205713 @default.
• W2196339097 hasRelatedWork W4213084607 @default.
• W2196339097 hasRelatedWork W4286500909 @default.
• W2196339097 hasVolume "138" @default.
• W2196339097 isParatext "false" @default.
• W2196339097 isRetracted "false" @default.
• W2196339097 magId "2196339097" @default.
• W2196339097 workType "article" @default.