On the evaluation of Poisson equation with dual interpolation boundary face method

This paper presents a new implementation of the dual reciprocity method (DRM) in connection with the dual interpolation boundary face method (DiBFM) for the Poisson equation. In DiBFM, the nodes of an element are categorized into two groups: (i) source nodes (ii) virtual nodes. First layer interpola...

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Veröffentlicht in:European journal of mechanics, A, Solids A, Solids, 2021-07, Vol.88, p.104248, Article 104248
Hauptverfasser: Khan, Suliman, He, Rui, Khan, Feroz, Khan, M. Riaz, Arshad, Muhammad, Shah, Hasrat Hussain
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container_title European journal of mechanics, A, Solids
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creator Khan, Suliman
He, Rui
Khan, Feroz
Khan, M. Riaz
Arshad, Muhammad
Shah, Hasrat Hussain
description This paper presents a new implementation of the dual reciprocity method (DRM) in connection with the dual interpolation boundary face method (DiBFM) for the Poisson equation. In DiBFM, the nodes of an element are categorized into two groups: (i) source nodes (ii) virtual nodes. First layer interpolation is used to interpolate the physical variables, while boundary integrals are evaluated on the source nodes only. Moreover, moving least squares (MLS) interpolation is used and provides additional constraints equations to establish the relationship between source and virtual nodes. Additionally, augmented thin plate spline (ATPS) is used to better interpolate the non-homogeneous term. Finally, it is claimed that the proposed method is much superior to the DRM for Poisson type equation with different geometries, especially for complex geometry. Numerical examples are evaluated and compared with the DRM to ensure the superiority of the proposed method. •A novel implementation of DRM for Poisson equation with dual interpolation boundary face method.•The integrand quantities are calculated from curves rather than from elements, which eliminate the geometric error.•Augmented thin plate spline is used to better interpolate the non-homogeneous term.•The proposed method is more accurate and efficient than the DRM, especially for problems with complex geometries.
doi_str_mv 10.1016/j.euromechsol.2021.104248
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Riaz</creatorcontrib><creatorcontrib>Arshad, Muhammad</creatorcontrib><creatorcontrib>Shah, Hasrat Hussain</creatorcontrib><title>On the evaluation of Poisson equation with dual interpolation boundary face method</title><title>European journal of mechanics, A, Solids</title><description>This paper presents a new implementation of the dual reciprocity method (DRM) in connection with the dual interpolation boundary face method (DiBFM) for the Poisson equation. In DiBFM, the nodes of an element are categorized into two groups: (i) source nodes (ii) virtual nodes. First layer interpolation is used to interpolate the physical variables, while boundary integrals are evaluated on the source nodes only. Moreover, moving least squares (MLS) interpolation is used and provides additional constraints equations to establish the relationship between source and virtual nodes. Additionally, augmented thin plate spline (ATPS) is used to better interpolate the non-homogeneous term. 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Moreover, moving least squares (MLS) interpolation is used and provides additional constraints equations to establish the relationship between source and virtual nodes. Additionally, augmented thin plate spline (ATPS) is used to better interpolate the non-homogeneous term. Finally, it is claimed that the proposed method is much superior to the DRM for Poisson type equation with different geometries, especially for complex geometry. 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subjects Augmented thin plate spline
Complex geometry
Dual interpolation boundary face method
Dual reciprocity method
Interpolation
Moving least squares interpolation
Nodes
Poisson equation
Reciprocity
Thin plates
title On the evaluation of Poisson equation with dual interpolation boundary face method
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