Numerical study on active wave devouring propulsion

The possibility of extracting energy from gravity waves for marine propulsion was numerically studied by a two-dimensional oscillating hydrofoil in this study. The commercially available computational fluid dynamics software FLUENT was used for the unstructured grid based on the Reynolds-average Nav...

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Published in	Journal of marine science and technology Vol. 17; no. 3; pp. 261 - 275
Main Authors	De Silva, Liyanarachchi Waruna Arampath, Yamaguchi, Hajime
Format	Journal Article
Language	English
Published	Japan Springer Japan 01.09.2012 Springer Springer Nature B.V
Subjects	Analysis Automotive Engineering Design parameters Engineering Engineering Design Engineering Fluid Dynamics Flapping foil Fluid dynamics Free surfaces Gravity Gravity waves Hydrodynamics Hydrofoils Marine Mathematical analysis Mathematical models Mechanical Engineering Navier-Stokes equations Numerical analysis Numerical simulation Offshore Engineering Original Article Oscillating Surface waves Wave devouring propulsion Wave energy Wave power Wave devouring propulsion Numerical simulation Flapping foil
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Abstract	The possibility of extracting energy from gravity waves for marine propulsion was numerically studied by a two-dimensional oscillating hydrofoil in this study. The commercially available computational fluid dynamics software FLUENT was used for the unstructured grid based on the Reynolds-average Navier–Stokes equation. The free surface waves and motion of the flapping foil were implemented by customizing the FLUENT solver using a user-defined function technique. In addition, dynamic mesh technology and post processing capabilities were fully utilized. The validation of the model was carried out using experimental data for an oscillation hydrofoil under the waves. The results of the simulation were investigated in detail in order to explain the increase of propeller efficiency in gravity waves. Eight design parameters were identified and it was found that some of them greatly affected the performance of wave energy extraction by the active oscillating hydrofoil. Finally, the overall results suggested that when the design parameters are correctly maintained, the present approach can increase the performance of the oscillating hydrofoil by absorbing energy from sea waves.
AbstractList	The possibility of extracting energy from gravity waves for marine propulsion was numerically studied by a two-dimensional oscillating hydrofoil in this study. The commercially available computational fluid dynamics software FLUENT was used for the unstructured grid based on the Reynolds-average Navier-Stokes equation. The free surface waves and motion of the flapping foil were implemented by customizing the FLUENT solver using a user-defined function technique. In addition, dynamic mesh technology and post processing capabilities were fully utilized. The validation of the model was carried out using experimental data for an oscillation hydrofoil under the waves. The results of the simulation were investigated in detail in order to explain the increase of propeller efficiency in gravity waves. Eight design parameters were identified and it was found that some of them greatly affected the performance of wave energy extraction by the active oscillating hydrofoil. Finally, the overall results suggested that when the design parameters are correctly maintained, the present approach can increase the performance of the oscillating hydrofoil by absorbing energy from sea waves. The possibility of extracting energy from gravity waves for marine propulsion was numerically studied by a two-dimensional oscillating hydrofoil in this study. The commercially available computational fluid dynamics software FLUENT was used for the unstructured grid based on the Reynolds-average Navier-Stokes equation. The free surface waves and motion of the flapping foil were implemented by customizing the FLUENT solver using a user-defined function technique. In addition, dynamic mesh technology and post processing capabilities were fully utilized. The validation of the model was carried out using experimental data for an oscillation hydrofoil under the waves. The results of the simulation were investigated in detail in order to explain the increase of propeller efficiency in gravity waves. Eight design parameters were identified and it was found that some of them greatly affected the performance of wave energy extraction by the active oscillating hydrofoil. Finally, the overall results suggested that when the design parameters are correctly maintained, the present approach can increase the performance of the oscillating hydrofoil by absorbing energy from sea waves.[PUBLICATION ABSTRACT]
Audience	Academic
Author	DE SILVA Liyanarachchi Waruna Arampath YAMAGUCHI Hajime
Author_xml	– sequence: 1 givenname: Liyanarachchi Waruna Arampath surname: De Silva fullname: De Silva, Liyanarachchi Waruna Arampath email: waruna@fluidlab.sys.t.u-tokyo.ac.jp organization: The University of Tokyo – sequence: 2 givenname: Hajime surname: Yamaguchi fullname: Yamaguchi, Hajime organization: The University of Tokyo
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Cites_doi	10.1016/j.euromechflu.2003.10.002 10.1017/S0022112071000570 10.1017/S0022112060001110 10.2534/jjasnaoe1968.1982.54 10.2534/jjasnaoe1968.1984.156_102 10.1017/S0022112094002016 10.1017/S0022112071000685 10.1017/S0022112071000697 10.1017/S0022112097008392 10.1017/S0022112061000949 10.1115/1.1412235 10.1002/fld.525 10.2534/jjasnaoe1968.1984.156_82 10.1017/S0022112088000205
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References	Jakobsen E (1981) The foil propeller, wave power for propulsion. 2nd International Symposium on Wave and Tidal Energy. BHRA fluid Engineering, pp 363–369 WuTYHydromechanics of swimming propulsion. Part 1. Swimming of a two dimensional flexible plate at variable forward speeds in inviscid fluidJ Fluid Mech1971463373550242.7600910.1017/S0022112071000570 IsshikiHMurakamiMA theory of wave devouring propulsion (4th report)J Soc Nav Archit Jpn1984156102114 Yamaguchi H, Bose N (1994) Oscillating foils for marine propulsion. Proceedings of the Fourth International offshore and polar engineering conference, Osaka, pp 539–544 WuTYHydromechanics of swimming propulsion. Part 3. Swimming and optimum movement of slender fish with side finsJ Fluid Mech19714654556810.1017/S0022112071000697 GuglielminiLBlondeauxPPropulsive efficiency of oscillating foilsEur J Mech B Fluid2004232552781068.7601610.1016/j.euromechflu.2003.10.002 WuTYSwimming of a waving plateJ Fluid Mech1961103213441270530116.1680110.1017/S0022112061000949 Isshiki H, Murakami M, Terao Y (1984) Utilization of wave energy into propulsion of ships-wave devouring propulsion. In: 15th Symposium on Naval Hydrodynamics. National Academy Press, Washington, D.C., pp 539–552 TeraoYA floating structure which moves towards the wave (possibility of wave devouring propulsion)J Kansai Soc Nav Archit19821845154(in Japanese) LaiPSKBoseNMcgregorRCWave propulsion from flexible-armed, rigid-foil propulsorMarine Technol19933012836 KudoTKubotaAYamaguchiHStudy on propulsion by practically elastic foil (2nd report) (in Japanese)J Soc Nav Archit Jpn19841568594 GrueJMoAPalmEPropulsion of a foil moving in water wavesJ Fluid Mech19881863934170662.7601710.1017/S0022112088000205 LighthillMJNote on the swimming of slender fishJ Fluid Mech1960930531711545410.1017/S0022112060001110 WuTYHydromechanics of swimming propulsion. Part 2. Some optimum shape problemsJ Fluid Mech19714652154410.1017/S0022112071000685 PedroGSulemanADjilaliNA numerical study of the propulsive efficiency of a flapping hydrofoilInt J Numer Meth Fluids20034249352619848971030.7606510.1002/fld.525 Bose N (1992) A time-domain panel method for analysis of foils in unsteady motion as oscillating propulsors. Proceedings of the 11th Australian Fluid Mechanics Conference, University of Tasmania, Hobart, pp 1201–1204 AndersonJMStreitlienKBarrettDSOscillating foils of high propulsive efficiencyJ Fluid Mech1998360417216215350922.7602310.1017/S0022112097008392 SternFWilsonRVColemanHWComprehensive approach to verification and validation of CFD simulation-part1: methodology and proceduresJ Fluid Eng200112379380210.1115/1.1412235 IsshikiHA theory of wave devouring propulsion (1st report)J Soc Nav Archit Jpn1982151546410.2534/jjasnaoe1968.1982.54 GopalkrishnanRTriantafyllouMSTriatafyllouGSActive vorticity control in a shear flow using flapping foilJ Fluid Mech199427412110.1017/S0022112094002016 KubotaAKudoTKatoHStudy on propulsion by practically elastic foil (1st report)J Soc Nav Archit Jpn198415695105(in Japanese) WuTYExtraction of flow energy by a wing oscillating in wavesJ Ship Res19721416678 TY Wu (169_CR7) 1971; 46 L Guglielmini (169_CR14) 2004; 23 R Gopalkrishnan (169_CR17) 1994; 27 TY Wu (169_CR6) 1971; 46 TY Wu (169_CR5) 1961; 10 F Stern (169_CR22) 2001; 123 G Pedro (169_CR13) 2003; 42 J Grue (169_CR21) 1988; 186 169_CR18 169_CR20 169_CR1 169_CR10 JM Anderson (169_CR16) 1998; 360 169_CR12 T Kudo (169_CR11) 1984; 156 169_CR9 MJ Lighthill (169_CR4) 1960; 9 PSK Lai (169_CR15) 1993; 30 169_CR2 H Isshiki (169_CR19) 1982; 151 169_CR3 TY Wu (169_CR8) 1971; 46
References_xml	– reference: WuTYHydromechanics of swimming propulsion. Part 3. Swimming and optimum movement of slender fish with side finsJ Fluid Mech19714654556810.1017/S0022112071000697 – reference: Jakobsen E (1981) The foil propeller, wave power for propulsion. 2nd International Symposium on Wave and Tidal Energy. BHRA fluid Engineering, pp 363–369 – reference: Yamaguchi H, Bose N (1994) Oscillating foils for marine propulsion. Proceedings of the Fourth International offshore and polar engineering conference, Osaka, pp 539–544 – reference: IsshikiHA theory of wave devouring propulsion (1st report)J Soc Nav Archit Jpn1982151546410.2534/jjasnaoe1968.1982.54 – reference: SternFWilsonRVColemanHWComprehensive approach to verification and validation of CFD simulation-part1: methodology and proceduresJ Fluid Eng200112379380210.1115/1.1412235 – reference: GuglielminiLBlondeauxPPropulsive efficiency of oscillating foilsEur J Mech B Fluid2004232552781068.7601610.1016/j.euromechflu.2003.10.002 – reference: GrueJMoAPalmEPropulsion of a foil moving in water wavesJ Fluid Mech19881863934170662.7601710.1017/S0022112088000205 – reference: LighthillMJNote on the swimming of slender fishJ Fluid Mech1960930531711545410.1017/S0022112060001110 – reference: IsshikiHMurakamiMA theory of wave devouring propulsion (4th report)J Soc Nav Archit Jpn1984156102114 – reference: TeraoYA floating structure which moves towards the wave (possibility of wave devouring propulsion)J Kansai Soc Nav Archit19821845154(in Japanese) – reference: WuTYHydromechanics of swimming propulsion. Part 1. Swimming of a two dimensional flexible plate at variable forward speeds in inviscid fluidJ Fluid Mech1971463373550242.7600910.1017/S0022112071000570 – reference: GopalkrishnanRTriantafyllouMSTriatafyllouGSActive vorticity control in a shear flow using flapping foilJ Fluid Mech199427412110.1017/S0022112094002016 – reference: KubotaAKudoTKatoHStudy on propulsion by practically elastic foil (1st report)J Soc Nav Archit Jpn198415695105(in Japanese) – reference: WuTYHydromechanics of swimming propulsion. Part 2. Some optimum shape problemsJ Fluid Mech19714652154410.1017/S0022112071000685 – reference: WuTYExtraction of flow energy by a wing oscillating in wavesJ Ship Res19721416678 – reference: AndersonJMStreitlienKBarrettDSOscillating foils of high propulsive efficiencyJ Fluid Mech1998360417216215350922.7602310.1017/S0022112097008392 – reference: KudoTKubotaAYamaguchiHStudy on propulsion by practically elastic foil (2nd report) (in Japanese)J Soc Nav Archit Jpn19841568594 – reference: LaiPSKBoseNMcgregorRCWave propulsion from flexible-armed, rigid-foil propulsorMarine Technol19933012836 – reference: PedroGSulemanADjilaliNA numerical study of the propulsive efficiency of a flapping hydrofoilInt J Numer Meth Fluids20034249352619848971030.7606510.1002/fld.525 – reference: WuTYSwimming of a waving plateJ Fluid Mech1961103213441270530116.1680110.1017/S0022112061000949 – reference: Isshiki H, Murakami M, Terao Y (1984) Utilization of wave energy into propulsion of ships-wave devouring propulsion. In: 15th Symposium on Naval Hydrodynamics. National Academy Press, Washington, D.C., pp 539–552 – reference: Bose N (1992) A time-domain panel method for analysis of foils in unsteady motion as oscillating propulsors. 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Snippet	The possibility of extracting energy from gravity waves for marine propulsion was numerically studied by a two-dimensional oscillating hydrofoil in this study....
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SubjectTerms	Analysis Automotive Engineering Design parameters Engineering Engineering Design Engineering Fluid Dynamics Flapping foil Fluid dynamics Free surfaces Gravity Gravity waves Hydrodynamics Hydrofoils Marine Mathematical analysis Mathematical models Mechanical Engineering Navier-Stokes equations Numerical analysis Numerical simulation Offshore Engineering Original Article Oscillating Surface waves Wave devouring propulsion Wave energy Wave power
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Title	Numerical study on active wave devouring propulsion
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