Experimental investigation of ventilated supercavitation behind cone-shaped with different angles and disk-shaped cavitators

This paper systematically investigates the effect of the cavitator shape on the characteristics of a ventilated supercavity. These characteristics include ventilation demand, pressure behavior, and deformation of the supercavity due to gravity under different flow conditions. Four cavitators of diff...

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Published inInternational journal of naval architecture and ocean engineering Vol. 14; pp. 100477 - 12
Main Authors Pham, Van-Duyen, Hong, Ji-Woo, Hilo, Ali Kareem, Kim, Kiseong, Ahn, Byoung-Kwon
Format Journal Article
LanguageEnglish
Published Elsevier B.V 01.01.2022
Elsevier
대한조선학회
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Online AccessGet full text
ISSN2092-6782
2092-6790
DOI10.1016/j.ijnaoe.2022.100477

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Abstract This paper systematically investigates the effect of the cavitator shape on the characteristics of a ventilated supercavity. These characteristics include ventilation demand, pressure behavior, and deformation of the supercavity due to gravity under different flow conditions. Four cavitators of different cone angles (45° cone, 90° cone, 135° cone, and 180° cone - disk cavitator) with the same diameter are applied in the experiments. The results reveal that a cavitator with a smaller cone angle requires less ventilation gas to generate and maintain a transparent supercavity than cavitators with a larger cone angle at the same Froude number. In addition, the formation gas ventilation coefficient tends to decrease with a maximum reduction of 27% corresponding to the 135° cone cavitator; however, the collapse gas ventilation coefficient remains almost unchanged as the Froude number increases. The pressure behavior inside the supercavity is investigated using two different monitoring positions. The pressure measurement close to the rear of the supercavity is slightly higher than that near the wake of the cavitator, and the pressure inside the supercavity becomes more uniform with an increase in the Froude number. Moreover, the effects of gravity on the ventilated supercavity geometry under different cavitator shapes and flow conditions are quantitatively investigated. The results show that the centerline of the supercavity becomes more straightforward with a further increasing Froude number, and changes in cavitator shape have a slight effect on the deformation of the supercavity.
AbstractList This paper systematically investigates the effect of the cavitator shape on the characteristics of a ventilated supercavity. These characteristics include ventilation demand, pressure behavior, and deformation of the supercavity due to gravity under different flow conditions. Four cavitators of different cone angles (45 cone, 90 cone, 135 cone, and 180 cone - disk cavitator) with the same diameter are applied in the experiments. The results reveal that a cavitator with a smaller cone angle requires less ventilation gas to generate and maintain a transparent supercavity than cavitators with a larger cone angle at the same Froude number. In addition, the formation gas ventilation coefficient tends to decrease with a maximum reduction of 27% corresponding to the 135 cone cavitator; however, the collapse gas ventilation coefficient remains almost unchanged as the Froude number increases. The pressure behavior inside the supercavity is investigated using two different monitoring positions. The pressure measurement close to the rear of the supercavity is slightly higher than that near the wake of the cavitator, and the pressure inside the supercavity becomes more uniform with an increase in the Froude number. Moreover, the effects of gravity on the ventilated supercavity geometry under different cavitator shapes and flow conditions are quantitatively investigated. The results show that the centerline of the supercavity becomes more straightforward with a further increasing Froude number, and changes in cavitator shape have a slight effect on the deformation of the supercavity. KCI Citation Count: 0
This paper systematically investigates the effect of the cavitator shape on the characteristics of a ventilated supercavity. These characteristics include ventilation demand, pressure behavior, and deformation of the supercavity due to gravity under different flow conditions. Four cavitators of different cone angles (45° cone, 90° cone, 135° cone, and 180° cone - disk cavitator) with the same diameter are applied in the experiments. The results reveal that a cavitator with a smaller cone angle requires less ventilation gas to generate and maintain a transparent supercavity than cavitators with a larger cone angle at the same Froude number. In addition, the formation gas ventilation coefficient tends to decrease with a maximum reduction of 27% corresponding to the 135° cone cavitator; however, the collapse gas ventilation coefficient remains almost unchanged as the Froude number increases. The pressure behavior inside the supercavity is investigated using two different monitoring positions. The pressure measurement close to the rear of the supercavity is slightly higher than that near the wake of the cavitator, and the pressure inside the supercavity becomes more uniform with an increase in the Froude number. Moreover, the effects of gravity on the ventilated supercavity geometry under different cavitator shapes and flow conditions are quantitatively investigated. The results show that the centerline of the supercavity becomes more straightforward with a further increasing Froude number, and changes in cavitator shape have a slight effect on the deformation of the supercavity.
ArticleNumber 100477
Author Hilo, Ali Kareem
Pham, Van-Duyen
Hong, Ji-Woo
Ahn, Byoung-Kwon
Kim, Kiseong
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  givenname: Ji-Woo
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  surname: Hong
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  givenname: Ali Kareem
  surname: Hilo
  fullname: Hilo, Ali Kareem
  email: ali.k.hilo92@gmail.com
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  givenname: Kiseong
  surname: Kim
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  givenname: Byoung-Kwon
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Keywords Ventilation gas
supercavitation
Cone angle
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  year: 2017
  ident: 10.1016/j.ijnaoe.2022.100477_bib20
  article-title: Supercavitating flow around two-dimensional conical, sphericalm disc and stepped disc cavitators
  publication-title: IOP Cond. Series: Mater. Sci. Eng., A
– volume: 79
  start-page: 294
  year: 2016
  ident: 10.1016/j.ijnaoe.2022.100477_bib11
  article-title: Gas entrainment behaviors in the formation and collapse of a ventilated supercavity
  publication-title: Exp. Therm. Fluid Sci.
  doi: 10.1016/j.expthermflusci.2016.08.003
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Snippet This paper systematically investigates the effect of the cavitator shape on the characteristics of a ventilated supercavity. These characteristics include...
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SubjectTerms Cone angle
supercavitation
Ventilation gas
조선공학
Title Experimental investigation of ventilated supercavitation behind cone-shaped with different angles and disk-shaped cavitators
URI https://dx.doi.org/10.1016/j.ijnaoe.2022.100477
https://doaj.org/article/b872bdafe5844ca8952d2ab00706d62c
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Volume 14
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