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An Improved Finite Difference Type Numerical Method for Structural Dynamic Analysis
Author(s) -
SungHoon Kim,
Youn-sik Park
Publication year - 1994
Publication title -
shock and vibration
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.418
H-Index - 45
eISSN - 1875-9203
pISSN - 1070-9622
DOI - 10.1155/1994/139352
Subject(s) - mathematics , partial differential equation , finite difference method , numerical analysis , hyperbolic partial differential equation , convergence (economics) , numerical stability , ftcs scheme , boundary (topology) , boundary value problem , numerical partial differential equations , finite difference , stability (learning theory) , type (biology) , mathematical analysis , differential equation , computer science , ordinary differential equation , differential algebraic equation , ecology , machine learning , economics , biology , economic growth
An improved finite difference type numerical method to solve partial differential equations for one-dimensional (1-D) structure is proposed. This numerical scheme is a kind of a single-step, second-order accurate and implicit method. The stability, consistency, and convergence are examined analytically with a second-order hyperbolic partial differential equation. Since the proposed numerical scheme automatically satisfies the natural boundary conditions and at the same time, all the partial differential terms at boundary points are directly interpretable to their physical meanings, the proposed numerical scheme has merits in computing 1-D structural dynamic motion over the existing finite difference numeric methods. Using a numerical example, the suggested method was proven to be more accurate and effective than the well-known central difference method. The only limitation of this method is that it is applicable to only 1-D structure.

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