Three-Phase Modeling of Dynamic Kill in Gas-Condensate Well Using Advection Upstream Splitting Method Hybrid Scheme

Understanding and modeling of three-phase transient flow in gas-condensate wells play a vital role in designing and optimizing dynamic kill procedure of each well that needs to capture the discontinuities in density, geometry, and velocity of phases but also the effect of temperature on such paramet...

Full description

Bibliographic Details
Main Authors: Saeed Shad, Abouzar Daneshpajouh
Format: Article
Language:English
Published: Reaserch Institute of Petroleum Industry 2019-05-01
Series:Journal of Petroleum Science and Technology
Subjects:
Online Access:https://jpst.ripi.ir/article_955_0a927eb5552eca437f14f9dc8c920aeb.pdf
_version_ 1818912893314269184
author Saeed Shad
Abouzar Daneshpajouh
author_facet Saeed Shad
Abouzar Daneshpajouh
author_sort Saeed Shad
collection DOAJ
description Understanding and modeling of three-phase transient flow in gas-condensate wells play a vital role in designing and optimizing dynamic kill procedure of each well that needs to capture the discontinuities in density, geometry, and velocity of phases but also the effect of temperature on such parameters. In this study, two-phase Advection-Upstream-Splitting-Method (AUSMV) hybrid scheme is extended to a three-phase model capable of modeling blowout and dynamic kill in gas-condensate-water wells. In order to better understand and model such a process, density and viscosity changes are calculated using the Peng-Robinson equation of state. Moreover, the resulted simulator enables us to study and model highly changing flow conditions during blowout and dynamic kill process applied to a well in a gas condensate reservoir. In addition, a sensitivity analysis has been conducted on the relief well kill rate, pump step down schedule, and well intersection depth. Moreover, the results reveal the impact and influence of each of these parameters on dynamic kill process. Finally, the model introduced here and the results of the sensitivity analysis using this transient three-phase model can be used to better design a control process for wells in gas condensate reservoirs.
first_indexed 2024-12-19T23:21:50Z
format Article
id doaj.art-066a5b131fe24fbf9e9ca7ea23c4e209
institution Directory Open Access Journal
issn 2251-659X
2645-3312
language English
last_indexed 2024-12-19T23:21:50Z
publishDate 2019-05-01
publisher Reaserch Institute of Petroleum Industry
record_format Article
series Journal of Petroleum Science and Technology
spelling doaj.art-066a5b131fe24fbf9e9ca7ea23c4e2092022-12-21T20:01:56ZengReaserch Institute of Petroleum IndustryJournal of Petroleum Science and Technology2251-659X2645-33122019-05-0192546910.22078/jpst.2018.3230.1515955Three-Phase Modeling of Dynamic Kill in Gas-Condensate Well Using Advection Upstream Splitting Method Hybrid SchemeSaeed Shad0Abouzar Daneshpajouh1Sharif University of TechnologySharif University of TechnologyUnderstanding and modeling of three-phase transient flow in gas-condensate wells play a vital role in designing and optimizing dynamic kill procedure of each well that needs to capture the discontinuities in density, geometry, and velocity of phases but also the effect of temperature on such parameters. In this study, two-phase Advection-Upstream-Splitting-Method (AUSMV) hybrid scheme is extended to a three-phase model capable of modeling blowout and dynamic kill in gas-condensate-water wells. In order to better understand and model such a process, density and viscosity changes are calculated using the Peng-Robinson equation of state. Moreover, the resulted simulator enables us to study and model highly changing flow conditions during blowout and dynamic kill process applied to a well in a gas condensate reservoir. In addition, a sensitivity analysis has been conducted on the relief well kill rate, pump step down schedule, and well intersection depth. Moreover, the results reveal the impact and influence of each of these parameters on dynamic kill process. Finally, the model introduced here and the results of the sensitivity analysis using this transient three-phase model can be used to better design a control process for wells in gas condensate reservoirs.https://jpst.ripi.ir/article_955_0a927eb5552eca437f14f9dc8c920aeb.pdfthree phase modelingdynamic killgas-condensate welladvection upstream splitting methodhybrid scheme
spellingShingle Saeed Shad
Abouzar Daneshpajouh
Three-Phase Modeling of Dynamic Kill in Gas-Condensate Well Using Advection Upstream Splitting Method Hybrid Scheme
Journal of Petroleum Science and Technology
three phase modeling
dynamic kill
gas-condensate well
advection upstream splitting method
hybrid scheme
title Three-Phase Modeling of Dynamic Kill in Gas-Condensate Well Using Advection Upstream Splitting Method Hybrid Scheme
title_full Three-Phase Modeling of Dynamic Kill in Gas-Condensate Well Using Advection Upstream Splitting Method Hybrid Scheme
title_fullStr Three-Phase Modeling of Dynamic Kill in Gas-Condensate Well Using Advection Upstream Splitting Method Hybrid Scheme
title_full_unstemmed Three-Phase Modeling of Dynamic Kill in Gas-Condensate Well Using Advection Upstream Splitting Method Hybrid Scheme
title_short Three-Phase Modeling of Dynamic Kill in Gas-Condensate Well Using Advection Upstream Splitting Method Hybrid Scheme
title_sort three phase modeling of dynamic kill in gas condensate well using advection upstream splitting method hybrid scheme
topic three phase modeling
dynamic kill
gas-condensate well
advection upstream splitting method
hybrid scheme
url https://jpst.ripi.ir/article_955_0a927eb5552eca437f14f9dc8c920aeb.pdf
work_keys_str_mv AT saeedshad threephasemodelingofdynamickillingascondensatewellusingadvectionupstreamsplittingmethodhybridscheme
AT abouzardaneshpajouh threephasemodelingofdynamickillingascondensatewellusingadvectionupstreamsplittingmethodhybridscheme