Numerical Simulation Investigation of Vortex Finder Depth Effects on Flow Field and Performance of Desanding Mini-Hydrocyclones

Sand has significant side effects on oil production and offshore platform processing system. Mini-hydrocyclones is a very important component to desanding operation system. However, even a slight modification on the structural parameter of hydrocylone might result in a significant influence on its f...

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Main Authors: Fengqin He, Decao Zhao, Jiangang Wang, Yuan Huang, Qibin Liu
Format: Article
Language:English
Published: MDPI AG 2022-10-01
Series:Journal of Marine Science and Engineering
Subjects:
Online Access:https://www.mdpi.com/2077-1312/10/11/1600
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author Fengqin He
Decao Zhao
Jiangang Wang
Yuan Huang
Qibin Liu
author_facet Fengqin He
Decao Zhao
Jiangang Wang
Yuan Huang
Qibin Liu
author_sort Fengqin He
collection DOAJ
description Sand has significant side effects on oil production and offshore platform processing system. Mini-hydrocyclones is a very important component to desanding operation system. However, even a slight modification on the structural parameter of hydrocylone might result in a significant influence on its flow field and separation efficiency. So, analysis on flow field characteristics and separation efficiency of the mini-hydrocyclones can help to optimize its structural parameters. In this work, five mini-hydrocycloness were designed, and flow patterns and particle separation ability of a mini-hydrocyclones with various vortex finder depths were investigated through Computational Fluid Dynamics (CFD) simulation method. The research shows that vortex finder depth has a significant influence on the separation function partition of mini-hydrocyclones. The deeper the vortex finder depth is, the larger the volume of pre-separation area, the smaller the volume of the main separation area and the bigger the energy consumption are. These characteristics are disadvantage to improve separation performance of hydrocyclone. Ratio (L<sub>0</sub>/D) of vortex finder depth (L<sub>0</sub>) to the hydrocyclone cylinder diameter (D) is about 1.0.
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spelling doaj.art-77b4faa8a19945a3a0e0c41bff69e24e2023-11-24T05:21:33ZengMDPI AGJournal of Marine Science and Engineering2077-13122022-10-011011160010.3390/jmse10111600Numerical Simulation Investigation of Vortex Finder Depth Effects on Flow Field and Performance of Desanding Mini-HydrocyclonesFengqin He0Decao Zhao1Jiangang Wang2Yuan Huang3Qibin Liu4The College of Information, Mechanical and Electrical Engineering, Shanghai Normal University, Shanghai 200234, ChinaThe College of Information, Mechanical and Electrical Engineering, Shanghai Normal University, Shanghai 200234, ChinaCollege of Mechanical Engineering, Shanghai Institute of Technology, Shanghai 201418, ChinaInstitute of Environmental Pollution and Health, School of Environmental and Chemical Engineering, Shanghai University, Shanghai 200444, ChinaThe College of Information, Mechanical and Electrical Engineering, Shanghai Normal University, Shanghai 200234, ChinaSand has significant side effects on oil production and offshore platform processing system. Mini-hydrocyclones is a very important component to desanding operation system. However, even a slight modification on the structural parameter of hydrocylone might result in a significant influence on its flow field and separation efficiency. So, analysis on flow field characteristics and separation efficiency of the mini-hydrocyclones can help to optimize its structural parameters. In this work, five mini-hydrocycloness were designed, and flow patterns and particle separation ability of a mini-hydrocyclones with various vortex finder depths were investigated through Computational Fluid Dynamics (CFD) simulation method. The research shows that vortex finder depth has a significant influence on the separation function partition of mini-hydrocyclones. The deeper the vortex finder depth is, the larger the volume of pre-separation area, the smaller the volume of the main separation area and the bigger the energy consumption are. These characteristics are disadvantage to improve separation performance of hydrocyclone. Ratio (L<sub>0</sub>/D) of vortex finder depth (L<sub>0</sub>) to the hydrocyclone cylinder diameter (D) is about 1.0.https://www.mdpi.com/2077-1312/10/11/1600mini-hydrocyclonesvortex findercomputational fluid dynamicseparation efficiencydesanding
spellingShingle Fengqin He
Decao Zhao
Jiangang Wang
Yuan Huang
Qibin Liu
Numerical Simulation Investigation of Vortex Finder Depth Effects on Flow Field and Performance of Desanding Mini-Hydrocyclones
Journal of Marine Science and Engineering
mini-hydrocyclones
vortex finder
computational fluid dynamic
separation efficiency
desanding
title Numerical Simulation Investigation of Vortex Finder Depth Effects on Flow Field and Performance of Desanding Mini-Hydrocyclones
title_full Numerical Simulation Investigation of Vortex Finder Depth Effects on Flow Field and Performance of Desanding Mini-Hydrocyclones
title_fullStr Numerical Simulation Investigation of Vortex Finder Depth Effects on Flow Field and Performance of Desanding Mini-Hydrocyclones
title_full_unstemmed Numerical Simulation Investigation of Vortex Finder Depth Effects on Flow Field and Performance of Desanding Mini-Hydrocyclones
title_short Numerical Simulation Investigation of Vortex Finder Depth Effects on Flow Field and Performance of Desanding Mini-Hydrocyclones
title_sort numerical simulation investigation of vortex finder depth effects on flow field and performance of desanding mini hydrocyclones
topic mini-hydrocyclones
vortex finder
computational fluid dynamic
separation efficiency
desanding
url https://www.mdpi.com/2077-1312/10/11/1600
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AT jiangangwang numericalsimulationinvestigationofvortexfinderdeptheffectsonflowfieldandperformanceofdesandingminihydrocyclones
AT yuanhuang numericalsimulationinvestigationofvortexfinderdeptheffectsonflowfieldandperformanceofdesandingminihydrocyclones
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