Why enroll

Participants join this course to gain a strong understanding of the Finite Element Method (FEM) and its role in solving complex engineering problems. It helps learners develop practical skills in numerical analysis, modeling, and simulation used in modern engineering design. The course also provides hands-on experience with FEM concepts such as discretization, element formulation, and solution techniques. By completing the course, participants enhance their ability to apply FEM tools effectively in real-world engineering and scientific applications.

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Course content

The course is readily available, allowing learners to start and complete it at their own pace.

Mastering Finite Element Analysis: A Comprehensive Guide

31 Lectures

348 min

Quadratic Shape Function
Preview
12 min
Steps in FEM
8 min
Strain Displacement Matrix for Triangular element
7 min
Element Stiffness Matrix
8 min
Penalty Approach
11 min
Introduction to Shape Function
12 min
Isoparametric Formulation Numerical
4 min
Elimination Approach
15 min
Direct Stiffness matrix
11 min
2 D Finite Element Method
10 min
Weighted Residual Method
18 min
Types of Elements in Finite Element Method
11 min
Introduction of Variational Method
13 min
Global stiffness matrix
18 min
Shape function for CST element
16 min
Properties of Stiffness matrix
11 min
Stress ,Strain Relationship Matrix
10 min
Principle of Minimum Potential Energy
22 min
Galerkin Method
6 min
Advantage ,Disadvantage and Application of FEM
6 min
Gauss elimination method
8 min
Strain Displacement Matrix
7 min
Gauss Quadrature Method
8 min
Plane Stress & Plane Strain
16 min
1 D FEM for Structural Analysis
9 min
Variational method Numerical by Rayleigh Ritz Method
13 min
Shape function in Local and Natural coordinate system
17 min
Isoparametric Formulation for 1-D element
6 min
Sub Domain Method
8 min
Need of Matrix Algebra in FEM
16 min
Properties of Shape Functions
11 min

Course details

The Finite Element Method (FEM) is a powerful numerical technique used to solve partial differential equations (PDEs) governing physical phenomena across various engineering and scientific disciplines. This course provides a comprehensive introduction to the theory, implementation, and applications of the Finite Element Method. Topics covered include finite element discretization, interpolation functions, assembly of element equations, solution techniques, error estimation, and practical considerations in FEM analysis. Through theoretical lectures, hands-on programming exercises, and real-world applications, students will develop a solid understanding of FEM principles and gain proficiency in applying FEM to solve complex engineering problems.

Course suitable for

Automotive
Energy & Utilities
Chemical & Process
Civil & Structural
Piping & Layout

Key topics covered

Types of Elements in Finite Element Method
Advantage ,Disadvantage and Application of FEM
Need of Matrix Algebra in FEM
Gauss elimination method
Direct Stiffness matrix
Global stiffness matrix
Properties of Stiffness matrix
1 D FEM for Structural Analysis
Elimination Approach
Penalty Approach
Principle of Minimum Potential Energy
Introduction to Shape Function
Shape function in Local and Natural coordinate system
Isoparametric Formulation for 1-D element
Properties of Shape Functions
Strain Displacement Matrix
Quadratic Shape Function
Steps in FEM
2 D Finite Element Method
Isoparametric Formulation Numerical
Element Stiffness Matrix
Shape function for CST element
Strain Displacement Matrix for Triangular element
Stress ,Strain Relationship Matrix
Plane Stress & Plane Strain
Gauss Quadrature Method
Weighted Residual Method
Galerkin Method
Sub Domain Method
Variational Method Introduction
Variational method Numerical by Rayleigh Ritz Method

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