Numerical Simulation of Superheated Steam Flow and Heat Transfer in a Balanced Steam Injection Flow Control Device

Dual-string steam injection pipe is widely used in the production of superheated steam injection in heavy oil horizontal wells. Due to the nonuniform steam injection volume at the heel end and the existence of an interlayer and other factors in the reservoir, the distribution of steam cavity is not...

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Main Authors: Qiuying Du, Mingzhong Li, Chenwei Liu, Sanbao Dong
Format: Article
Language:English
Published: Hindawi-Wiley 2023-01-01
Series:Geofluids
Online Access:http://dx.doi.org/10.1155/2023/9271981
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author Qiuying Du
Mingzhong Li
Chenwei Liu
Sanbao Dong
author_facet Qiuying Du
Mingzhong Li
Chenwei Liu
Sanbao Dong
author_sort Qiuying Du
collection DOAJ
description Dual-string steam injection pipe is widely used in the production of superheated steam injection in heavy oil horizontal wells. Due to the nonuniform steam injection volume at the heel end and the existence of an interlayer and other factors in the reservoir, the distribution of steam cavity is not uniform, so it is necessary to control the flow of the steam injection well. Based on the basic principles of fluid mechanics and heat transfer, a three-phase nozzle outflow control device model is established in this paper. The steam flow and heat transfer law in the flow control device is numerically simulated, and the outflow dynamic law of horizontal well OCD completion in heavy oil reservoir is obtained. On this basis, the influence of OCD aperture parameters, steam injection pressure, and steam injection velocity on OCD throttling effect is studied. The results show that OCD has a good control effect on balancing pressure drop and improving steam injection uniformity. When the throttle aperture occupies 1/3 of the pipe diameter, the throttle effect is the best and the heat loss is low. Increasing the steam injection pressure can rapidly enhance the pressure reduction rate of the throttle hole. The throttling effect of increasing steam injection volume is not obvious, and the energy loss becomes higher. The study of this paper provides a reference for parameter optimization and prediction of steam distribution in the flow control device of horizontal wells.
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spelling doaj.art-2a171d6069dd494998c53d0ea3d595882024-10-03T05:22:41ZengHindawi-WileyGeofluids1468-81232023-01-01202310.1155/2023/9271981Numerical Simulation of Superheated Steam Flow and Heat Transfer in a Balanced Steam Injection Flow Control DeviceQiuying Du0Mingzhong Li1Chenwei Liu2Sanbao Dong3School of Petroleum EngineeringSchool of Petroleum EngineeringSchool of Petroleum EngineeringCollege of Chemistry and Chemical EngineeringDual-string steam injection pipe is widely used in the production of superheated steam injection in heavy oil horizontal wells. Due to the nonuniform steam injection volume at the heel end and the existence of an interlayer and other factors in the reservoir, the distribution of steam cavity is not uniform, so it is necessary to control the flow of the steam injection well. Based on the basic principles of fluid mechanics and heat transfer, a three-phase nozzle outflow control device model is established in this paper. The steam flow and heat transfer law in the flow control device is numerically simulated, and the outflow dynamic law of horizontal well OCD completion in heavy oil reservoir is obtained. On this basis, the influence of OCD aperture parameters, steam injection pressure, and steam injection velocity on OCD throttling effect is studied. The results show that OCD has a good control effect on balancing pressure drop and improving steam injection uniformity. When the throttle aperture occupies 1/3 of the pipe diameter, the throttle effect is the best and the heat loss is low. Increasing the steam injection pressure can rapidly enhance the pressure reduction rate of the throttle hole. The throttling effect of increasing steam injection volume is not obvious, and the energy loss becomes higher. The study of this paper provides a reference for parameter optimization and prediction of steam distribution in the flow control device of horizontal wells.http://dx.doi.org/10.1155/2023/9271981
spellingShingle Qiuying Du
Mingzhong Li
Chenwei Liu
Sanbao Dong
Numerical Simulation of Superheated Steam Flow and Heat Transfer in a Balanced Steam Injection Flow Control Device
Geofluids
title Numerical Simulation of Superheated Steam Flow and Heat Transfer in a Balanced Steam Injection Flow Control Device
title_full Numerical Simulation of Superheated Steam Flow and Heat Transfer in a Balanced Steam Injection Flow Control Device
title_fullStr Numerical Simulation of Superheated Steam Flow and Heat Transfer in a Balanced Steam Injection Flow Control Device
title_full_unstemmed Numerical Simulation of Superheated Steam Flow and Heat Transfer in a Balanced Steam Injection Flow Control Device
title_short Numerical Simulation of Superheated Steam Flow and Heat Transfer in a Balanced Steam Injection Flow Control Device
title_sort numerical simulation of superheated steam flow and heat transfer in a balanced steam injection flow control device
url http://dx.doi.org/10.1155/2023/9271981
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AT chenweiliu numericalsimulationofsuperheatedsteamflowandheattransferinabalancedsteaminjectionflowcontroldevice
AT sanbaodong numericalsimulationofsuperheatedsteamflowandheattransferinabalancedsteaminjectionflowcontroldevice