Finite elements methods

Salsabili, Neda and Prieto Barrio, María Isabel and Santiago López, Joaquín (2019). Finite elements methods. In: "4º Congreso Internacional de Innovación Tecnológica en Edificación (CITE 2019)", 6-8 marzo 2019, Madrid, España. ISBN 978-84-1639-788-4. pp. 121-122.

Description

Title: Finite elements methods
Author/s:
  • Salsabili, Neda
  • Prieto Barrio, María Isabel
  • Santiago López, Joaquín
Item Type: Presentation at Congress or Conference (Other)
Event Title: 4º Congreso Internacional de Innovación Tecnológica en Edificación (CITE 2019)
Event Dates: 6-8 marzo 2019
Event Location: Madrid, España
Title of Book: Libro de actas = Abstracts book
Date: 2019
ISBN: 978-84-1639-788-4
Subjects:
Freetext Keywords: Finite Element, Modelling, Validation
Faculty: E.T.S. de Edificación (UPM)
Department: Tecnología de la Edificación
Creative Commons Licenses: Recognition - No derivative works - Non commercial

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Abstract

Finite element analysis (FEA) or element method (FEM) is the product of the digital age in the 1950s by the promotion of digital computers. It is a numerical way and a computer-based tool that uses mathematical calculations in a virtual environment to simulate and analyze products and systems by engineers and scientists in a different range of industries. This article describes the ways to develop the finite element of each structure by validating its data step by step for doing further studying and modeling. According to different research sources in finite elements methods until the end of January 2019, the finite element method involves modeling the structure by using meshing process, different range of properties, verified data, and different software according to its purposes. Moreover, the most important step after modeling is a validation of the model by testing decompression and stabilization procedures thereby comparing with experimentally validated data. The modeling method introduced in this study can be used for future analysis and modeling in a wide range of industries, biomechanics, and buildings since it benefits from handling any mathematical or physical problem, optimizing performance, designs and cost, reducing the development time, testing, the number of physical prototypes , and material usage, improving safety, information and quality, having freedom to select the elements, its functions and different materials, and making complex geometrical calculations. The adoption of this method makes it easy to predict the product performance and reliability, determine the role of material properties and behavior and perform parametric analysis of loadings.

More information

Item ID: 64559
DC Identifier: http://oa.upm.es/64559/
OAI Identifier: oai:oa.upm.es:64559
Deposited by: Memoria Investigacion
Deposited on: 20 Nov 2020 10:39
Last Modified: 20 Nov 2020 10:39
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