Numerical and experimental study of a novel aerodynamic foam breaker for foam drilling fluid

Abstract Defoaming is a key technology for increasing the efficiency of foam drilling in petroleum engineering. To enhance the performance of a mechanical foam breaker in foam drilling, a novel aerodynamic foam breaker with two annular slits was investigated in this study. The computational fluid dy...

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Main Authors: Pinlu Cao, Zhuo Chen, Miaomiao Liu, Hongyu Cao, Baoyi Chen
Format: Article
Language:English
Published: Wiley 2019-12-01
Series:Energy Science & Engineering
Subjects:
Online Access:https://doi.org/10.1002/ese3.428
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spelling doaj-6f7b119fa3114373bfcc6139f372b8612020-11-25T01:42:37ZengWileyEnergy Science & Engineering2050-05052019-12-01762410242010.1002/ese3.428Numerical and experimental study of a novel aerodynamic foam breaker for foam drilling fluidPinlu Cao0Zhuo Chen1Miaomiao Liu2Hongyu Cao3Baoyi Chen4College of Construction Engineering Jilin University Changchun City ChinaCollege of Construction Engineering Jilin University Changchun City ChinaCollege of Construction Engineering Jilin University Changchun City ChinaCollege of Construction Engineering Jilin University Changchun City ChinaCollege of Construction Engineering Jilin University Changchun City ChinaAbstract Defoaming is a key technology for increasing the efficiency of foam drilling in petroleum engineering. To enhance the performance of a mechanical foam breaker in foam drilling, a novel aerodynamic foam breaker with two annular slits was investigated in this study. The computational fluid dynamics code of ANSYS Fluent was used to simulate the velocity and pressure distribution inside the foam breaker, and the optimum distance between the two annular slits was determined based on the simulation methods. Meanwhile, a series of experiments were conducted to test the actual performance of the foam breaker. The results demonstrate that various factors may affect the efficiency of the foam breaker, including the foam gas‐liquid ratio, basic liquid viscosity, and air supply method. A higher gas‐liquid ratio of the foam and air supply pressure result in a superior foam breaker performance. The viscosity of the foam liquid phase exhibits exactly the opposite behavior, meaning that the foam breaker more effectively destroys foam from a lower‐viscosity liquid. This study verifies the practicability of this novel aerodynamic foam breaker and discusses the effects of different parameters on the defoaming percentage, and this study can act as a reference and guidance for subsequent defoaming research.https://doi.org/10.1002/ese3.428Air foam drillingannular slitCoandă effectfoam breaker
collection DOAJ
language English
format Article
sources DOAJ
author Pinlu Cao
Zhuo Chen
Miaomiao Liu
Hongyu Cao
Baoyi Chen
spellingShingle Pinlu Cao
Zhuo Chen
Miaomiao Liu
Hongyu Cao
Baoyi Chen
Numerical and experimental study of a novel aerodynamic foam breaker for foam drilling fluid
Energy Science & Engineering
Air foam drilling
annular slit
Coandă effect
foam breaker
author_facet Pinlu Cao
Zhuo Chen
Miaomiao Liu
Hongyu Cao
Baoyi Chen
author_sort Pinlu Cao
title Numerical and experimental study of a novel aerodynamic foam breaker for foam drilling fluid
title_short Numerical and experimental study of a novel aerodynamic foam breaker for foam drilling fluid
title_full Numerical and experimental study of a novel aerodynamic foam breaker for foam drilling fluid
title_fullStr Numerical and experimental study of a novel aerodynamic foam breaker for foam drilling fluid
title_full_unstemmed Numerical and experimental study of a novel aerodynamic foam breaker for foam drilling fluid
title_sort numerical and experimental study of a novel aerodynamic foam breaker for foam drilling fluid
publisher Wiley
series Energy Science & Engineering
issn 2050-0505
publishDate 2019-12-01
description Abstract Defoaming is a key technology for increasing the efficiency of foam drilling in petroleum engineering. To enhance the performance of a mechanical foam breaker in foam drilling, a novel aerodynamic foam breaker with two annular slits was investigated in this study. The computational fluid dynamics code of ANSYS Fluent was used to simulate the velocity and pressure distribution inside the foam breaker, and the optimum distance between the two annular slits was determined based on the simulation methods. Meanwhile, a series of experiments were conducted to test the actual performance of the foam breaker. The results demonstrate that various factors may affect the efficiency of the foam breaker, including the foam gas‐liquid ratio, basic liquid viscosity, and air supply method. A higher gas‐liquid ratio of the foam and air supply pressure result in a superior foam breaker performance. The viscosity of the foam liquid phase exhibits exactly the opposite behavior, meaning that the foam breaker more effectively destroys foam from a lower‐viscosity liquid. This study verifies the practicability of this novel aerodynamic foam breaker and discusses the effects of different parameters on the defoaming percentage, and this study can act as a reference and guidance for subsequent defoaming research.
topic Air foam drilling
annular slit
Coandă effect
foam breaker
url https://doi.org/10.1002/ese3.428
work_keys_str_mv AT pinlucao numericalandexperimentalstudyofanovelaerodynamicfoambreakerforfoamdrillingfluid
AT zhuochen numericalandexperimentalstudyofanovelaerodynamicfoambreakerforfoamdrillingfluid
AT miaomiaoliu numericalandexperimentalstudyofanovelaerodynamicfoambreakerforfoamdrillingfluid
AT hongyucao numericalandexperimentalstudyofanovelaerodynamicfoambreakerforfoamdrillingfluid
AT baoyichen numericalandexperimentalstudyofanovelaerodynamicfoambreakerforfoamdrillingfluid
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