Localization in Spatial-Spectral Method for Water Wave Applications

    Research output: Chapter in Book/Report/Conference proceedingConference contributionAcademicpeer-review

    3 Citations (Scopus)

    Abstract

    In the description of water waves, dispersion is one of the most important physical properties; it specifies the propagation speed as function of the wavelength. Accurate modelling of dispersion is essential to obtain high-quality wave propagation results. The relation between speed and wavelength is given by a non-algebraic relation; for finite element/difference methods this relation has to be approximated and leads to restrictions for waves that are propagated correctly. By using a spectral implementation dispersion can be dealt with exactly above flat bottom using a pseudo-differential operator so that all wavelengths can be propagated correctly. However, spectral methods are most commonly applied for problems in simple domains, while most water wave applications need complex geometries such as (harbour) walls, varying bathymetry, etc.; also breaking of waves requires a local procedure at the unknown position of breaking. This paper deals with such inhomogeneities in space; the models are formulated using Fourier integral operators and include non-trivial localization methods. The efficiency and accuracy of a so-called spatial-spectral implementation is illustrated here for a few test cases: wave run-up on a coast, wave reflection at a wall and the breaking of a focussing wave. These methods are included in HAWASSI software (Hamiltonian Wave-Ship-Structure Interaction) that has been developed over the past years.
    Original languageUndefined
    Title of host publicationSpectral and High Order Methods for Partial Differential Equations ICOSAHOM 2014
    EditorsRobert M. Kirby, Martin Berzins, Jan S. Hesthaven
    Place of PublicationSwitzerland
    PublisherSpringer
    Pages305-313
    Number of pages9
    ISBN (Print)978-3-319-19799-9
    DOIs
    Publication statusPublished - 2015

    Publication series

    NameLecture Notes in Computational Science and Engineering
    PublisherSpringer International Publishing
    Volume106
    ISSN (Print)1439-7358

    Keywords

    • EWI-26457
    • IR-98256
    • METIS-315032

    Cite this

    Kurnia, R., & van Groesen, E. W. C. (2015). Localization in Spatial-Spectral Method for Water Wave Applications. In R. M. Kirby, M. Berzins, & J. S. Hesthaven (Eds.), Spectral and High Order Methods for Partial Differential Equations ICOSAHOM 2014 (pp. 305-313). (Lecture Notes in Computational Science and Engineering; Vol. 106). Switzerland: Springer. https://doi.org/10.1007/978-3-319-19800-2_27
    Kurnia, Ruddy ; van Groesen, Embrecht W.C. / Localization in Spatial-Spectral Method for Water Wave Applications. Spectral and High Order Methods for Partial Differential Equations ICOSAHOM 2014. editor / Robert M. Kirby ; Martin Berzins ; Jan S. Hesthaven. Switzerland : Springer, 2015. pp. 305-313 (Lecture Notes in Computational Science and Engineering).
    @inproceedings{68c7c844aae24ee29b12f55737650297,
    title = "Localization in Spatial-Spectral Method for Water Wave Applications",
    abstract = "In the description of water waves, dispersion is one of the most important physical properties; it specifies the propagation speed as function of the wavelength. Accurate modelling of dispersion is essential to obtain high-quality wave propagation results. The relation between speed and wavelength is given by a non-algebraic relation; for finite element/difference methods this relation has to be approximated and leads to restrictions for waves that are propagated correctly. By using a spectral implementation dispersion can be dealt with exactly above flat bottom using a pseudo-differential operator so that all wavelengths can be propagated correctly. However, spectral methods are most commonly applied for problems in simple domains, while most water wave applications need complex geometries such as (harbour) walls, varying bathymetry, etc.; also breaking of waves requires a local procedure at the unknown position of breaking. This paper deals with such inhomogeneities in space; the models are formulated using Fourier integral operators and include non-trivial localization methods. The efficiency and accuracy of a so-called spatial-spectral implementation is illustrated here for a few test cases: wave run-up on a coast, wave reflection at a wall and the breaking of a focussing wave. These methods are included in HAWASSI software (Hamiltonian Wave-Ship-Structure Interaction) that has been developed over the past years.",
    keywords = "EWI-26457, IR-98256, METIS-315032",
    author = "Ruddy Kurnia and {van Groesen}, {Embrecht W.C.}",
    note = "10.1007/978-3-319-19800-2_27",
    year = "2015",
    doi = "10.1007/978-3-319-19800-2_27",
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    series = "Lecture Notes in Computational Science and Engineering",
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    Kurnia, R & van Groesen, EWC 2015, Localization in Spatial-Spectral Method for Water Wave Applications. in RM Kirby, M Berzins & JS Hesthaven (eds), Spectral and High Order Methods for Partial Differential Equations ICOSAHOM 2014. Lecture Notes in Computational Science and Engineering, vol. 106, Springer, Switzerland, pp. 305-313. https://doi.org/10.1007/978-3-319-19800-2_27

    Localization in Spatial-Spectral Method for Water Wave Applications. / Kurnia, Ruddy; van Groesen, Embrecht W.C.

    Spectral and High Order Methods for Partial Differential Equations ICOSAHOM 2014. ed. / Robert M. Kirby; Martin Berzins; Jan S. Hesthaven. Switzerland : Springer, 2015. p. 305-313 (Lecture Notes in Computational Science and Engineering; Vol. 106).

    Research output: Chapter in Book/Report/Conference proceedingConference contributionAcademicpeer-review

    TY - GEN

    T1 - Localization in Spatial-Spectral Method for Water Wave Applications

    AU - Kurnia, Ruddy

    AU - van Groesen, Embrecht W.C.

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    PY - 2015

    Y1 - 2015

    N2 - In the description of water waves, dispersion is one of the most important physical properties; it specifies the propagation speed as function of the wavelength. Accurate modelling of dispersion is essential to obtain high-quality wave propagation results. The relation between speed and wavelength is given by a non-algebraic relation; for finite element/difference methods this relation has to be approximated and leads to restrictions for waves that are propagated correctly. By using a spectral implementation dispersion can be dealt with exactly above flat bottom using a pseudo-differential operator so that all wavelengths can be propagated correctly. However, spectral methods are most commonly applied for problems in simple domains, while most water wave applications need complex geometries such as (harbour) walls, varying bathymetry, etc.; also breaking of waves requires a local procedure at the unknown position of breaking. This paper deals with such inhomogeneities in space; the models are formulated using Fourier integral operators and include non-trivial localization methods. The efficiency and accuracy of a so-called spatial-spectral implementation is illustrated here for a few test cases: wave run-up on a coast, wave reflection at a wall and the breaking of a focussing wave. These methods are included in HAWASSI software (Hamiltonian Wave-Ship-Structure Interaction) that has been developed over the past years.

    AB - In the description of water waves, dispersion is one of the most important physical properties; it specifies the propagation speed as function of the wavelength. Accurate modelling of dispersion is essential to obtain high-quality wave propagation results. The relation between speed and wavelength is given by a non-algebraic relation; for finite element/difference methods this relation has to be approximated and leads to restrictions for waves that are propagated correctly. By using a spectral implementation dispersion can be dealt with exactly above flat bottom using a pseudo-differential operator so that all wavelengths can be propagated correctly. However, spectral methods are most commonly applied for problems in simple domains, while most water wave applications need complex geometries such as (harbour) walls, varying bathymetry, etc.; also breaking of waves requires a local procedure at the unknown position of breaking. This paper deals with such inhomogeneities in space; the models are formulated using Fourier integral operators and include non-trivial localization methods. The efficiency and accuracy of a so-called spatial-spectral implementation is illustrated here for a few test cases: wave run-up on a coast, wave reflection at a wall and the breaking of a focussing wave. These methods are included in HAWASSI software (Hamiltonian Wave-Ship-Structure Interaction) that has been developed over the past years.

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    KW - IR-98256

    KW - METIS-315032

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    M3 - Conference contribution

    SN - 978-3-319-19799-9

    T3 - Lecture Notes in Computational Science and Engineering

    SP - 305

    EP - 313

    BT - Spectral and High Order Methods for Partial Differential Equations ICOSAHOM 2014

    A2 - Kirby, Robert M.

    A2 - Berzins, Martin

    A2 - Hesthaven, Jan S.

    PB - Springer

    CY - Switzerland

    ER -

    Kurnia R, van Groesen EWC. Localization in Spatial-Spectral Method for Water Wave Applications. In Kirby RM, Berzins M, Hesthaven JS, editors, Spectral and High Order Methods for Partial Differential Equations ICOSAHOM 2014. Switzerland: Springer. 2015. p. 305-313. (Lecture Notes in Computational Science and Engineering). https://doi.org/10.1007/978-3-319-19800-2_27