2D Unstructured Mesh Generation For Oceanic And Coastal Tidal Models From A Localized Truncation Error Analysis With Complex Derivatives

A method for computing target element size for tidal, shallow water flow is developed and demonstrated. The method, Localized truncation error analysis with complex derivatives (LTEA-CD) utilizes localized truncation error estimates of the linearized shallow water momentum equations consisting of co...

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Main Authors: Parrish, D. M., Hagen, S. C.
Format: Text
Language:unknown
Published: STARS 2007
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Online Access:https://stars.library.ucf.edu/scopus2000/6438
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spelling ftunicentralflor:oai:stars.library.ucf.edu:scopus2000-7437 2023-05-15T17:30:24+02:00 2D Unstructured Mesh Generation For Oceanic And Coastal Tidal Models From A Localized Truncation Error Analysis With Complex Derivatives Parrish, D. M. Hagen, S. C. 2007-08-01T07:00:00Z https://stars.library.ucf.edu/scopus2000/6438 unknown STARS https://stars.library.ucf.edu/scopus2000/6438 Scopus Export 2000s Complex derivatives Localized truncation error analysis Shallow water equations Tidal computations Unstructured mesh generation Western North Atlantic tidal model domain text 2007 ftunicentralflor 2022-07-25T17:36:34Z A method for computing target element size for tidal, shallow water flow is developed and demonstrated. The method, Localized truncation error analysis with complex derivatives (LTEA-CD) utilizes localized truncation error estimates of the linearized shallow water momentum equations consisting of complex derivative terms. This application of complex derivatives is the chief way in which the method differs from a similar existing method, LTEA. It is shown that LTEA-CD produces results that are essentially equivalent to those of LTEA (which in turn has been demonstrated to be capable of producing practicable target element sizes) with reduced computational cost. Moreover, LTEA-CD is capable of computing truncation error and corresponding target element sizes at locations up to and including the boundary, whereas LTEA can be applied only on the interior of the model domain. We demonstrate the convergence of solutions over meshes generated with LTEA-CD using an idealized representation of the western North Atlantic Ocean, Caribbean Sea and Gulf of Mexico. Text North Atlantic University of Central Florida (UCF): STARS (Showcase of Text, Archives, Research & Scholarship)
institution Open Polar
collection University of Central Florida (UCF): STARS (Showcase of Text, Archives, Research & Scholarship)
op_collection_id ftunicentralflor
language unknown
topic Complex derivatives
Localized truncation error analysis
Shallow water equations
Tidal computations
Unstructured mesh generation
Western North Atlantic tidal model domain
spellingShingle Complex derivatives
Localized truncation error analysis
Shallow water equations
Tidal computations
Unstructured mesh generation
Western North Atlantic tidal model domain
Parrish, D. M.
Hagen, S. C.
2D Unstructured Mesh Generation For Oceanic And Coastal Tidal Models From A Localized Truncation Error Analysis With Complex Derivatives
topic_facet Complex derivatives
Localized truncation error analysis
Shallow water equations
Tidal computations
Unstructured mesh generation
Western North Atlantic tidal model domain
description A method for computing target element size for tidal, shallow water flow is developed and demonstrated. The method, Localized truncation error analysis with complex derivatives (LTEA-CD) utilizes localized truncation error estimates of the linearized shallow water momentum equations consisting of complex derivative terms. This application of complex derivatives is the chief way in which the method differs from a similar existing method, LTEA. It is shown that LTEA-CD produces results that are essentially equivalent to those of LTEA (which in turn has been demonstrated to be capable of producing practicable target element sizes) with reduced computational cost. Moreover, LTEA-CD is capable of computing truncation error and corresponding target element sizes at locations up to and including the boundary, whereas LTEA can be applied only on the interior of the model domain. We demonstrate the convergence of solutions over meshes generated with LTEA-CD using an idealized representation of the western North Atlantic Ocean, Caribbean Sea and Gulf of Mexico.
format Text
author Parrish, D. M.
Hagen, S. C.
author_facet Parrish, D. M.
Hagen, S. C.
author_sort Parrish, D. M.
title 2D Unstructured Mesh Generation For Oceanic And Coastal Tidal Models From A Localized Truncation Error Analysis With Complex Derivatives
title_short 2D Unstructured Mesh Generation For Oceanic And Coastal Tidal Models From A Localized Truncation Error Analysis With Complex Derivatives
title_full 2D Unstructured Mesh Generation For Oceanic And Coastal Tidal Models From A Localized Truncation Error Analysis With Complex Derivatives
title_fullStr 2D Unstructured Mesh Generation For Oceanic And Coastal Tidal Models From A Localized Truncation Error Analysis With Complex Derivatives
title_full_unstemmed 2D Unstructured Mesh Generation For Oceanic And Coastal Tidal Models From A Localized Truncation Error Analysis With Complex Derivatives
title_sort 2d unstructured mesh generation for oceanic and coastal tidal models from a localized truncation error analysis with complex derivatives
publisher STARS
publishDate 2007
url https://stars.library.ucf.edu/scopus2000/6438
genre North Atlantic
genre_facet North Atlantic
op_source Scopus Export 2000s
op_relation https://stars.library.ucf.edu/scopus2000/6438
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