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| 0542-4223 | Introduction to Finite Elements | ||||||||||||||||||||||||||||||||||
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| FACULTY OF ENGINEERING | |||||||||||||||||||||||||||||||||||
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University credit hours: 4.0
Course description
Credit Points: 3.5
Prerequisites: Introduction to Theory of Elasticity (Concurrent); or Mechanics of Solids (2)
Topics: Finite Element Method in modern design; Basic concepts; Formulation of Finite Element Equations, global and local points of view; Direct stiffness method FE modeling –meshing, element connections, constraints; Postprocessing – interpretation of FE results, accuracy, convergence; Linear interpolation, isoparametric elements, element matrices; Computer implementations, data processing arrays; Using Finite Element Software (ANSYS, NASTRAN); Applications- structures, torsion, elasticity.
Prerequisites: Introduction to Theory of Elasticity (Concurrent); or Mechanics of Solids (2)
Topics: Finite Element Method in modern design; Basic concepts; Formulation of Finite Element Equations, global and local points of view; Direct stiffness method FE modeling –meshing, element connections, constraints; Postprocessing – interpretation of FE results, accuracy, convergence; Linear interpolation, isoparametric elements, element matrices; Computer implementations, data processing arrays; Using Finite Element Software (ANSYS, NASTRAN); Applications- structures, torsion, elasticity.