CE 541 STRUCTURAL ANALYSIS   Spring 2000

 

Instructor: Professor T. Krauthammer

221-B Sackett bldg.

Tel.: 865-3102

 

Textbook: K. J. Bathe, "Finite Element Procedures in Engineering Analysis," Prentice Hall, 1996. Additional references will be discussed during the course.

 

Project: Students will be required to work on projects to be assigned during the semester.

 

Exams: One mid-term, and one final.

 

Grading Policy:

Homework: 25%

Projects: 25%

Mid-term: 25%

Final: 25%

 

Description: See p. 159 of 1998-2000 Graduate Degree Programs Bulletin.

Some differences from that description should be expected. This course will be modified during the semester. Students should be prepared for extensive computer work, development of individual finite element codes, and the use of existing programs.

 

Prerequisites: CE 447 or equivalent.


CE 541 - STRUCTURAL ANALYSIS

       COURSE OUTLINE

 

 

  1.            Introduction to the Finite Element Method.

 

  2.            Introduction to the Theory of Elasticity.

 

  3.            Review of Matrix Structural Analysis.

 

  4.       The Direct Stiffness Method.

 

4.1. The Bar Element.

4.2. Needs for Optimal Storage and Solution of Equilibrium Equations.

 

  5.            Solutions of Systems of Linear Equations.

 

  6.            General Formulation by the Direct Stiffness Method.

 

  7.            Introduction to Variational Approaches to the Finite Element Method.

 

  8.       More Variational Approaches.

 

8.1. Galerkin's Method in Finite Element Analysis.

8.2 Other Variational Methods of Element Formulation.

 

  9.       A Systematic Approach for the Finite Element Method.

 

9.1. The Constant Stress Triangle (CST) Element

 

10.            Functional Representation of Element Behavior and Geometry

 

11.       Higher Order Elements

 

11.1 The Linear Strain Triangle (LST) Element.

11.2 The Linear Strain Quadrilateral (LSQ) Element.

 

12.            Isoparametric Elements.

 

12.1 1-D Isoparametric Elements.

12.2 Linear Isoparametric Plane Elements.

 

13.            Axisymmetric Solid Elements.

 

14.       A General Plane Frame Element.

 

15.       Solid Finite Elements.


16.            Introduction to Plate Bending Theory.

 

17.       Plate Bending Elements.

 

17.1 Quadrilateral 12 DOF Element.

17.2 The Cross-Beam Approach.

17.3 Triangular Plate Elements.

17.4 Isoparametric Plate Elements.

 

18.            Introduction to Thin Elastic Shells.

 

19.       FEM Approaches for Shell Analysis.

 

20.            Dynamic Analysis of Linear Elastic Structures with FEM.

 

21.            Application of the Finite Element Method to Civil Engineering Problems.

 

22.            Introduction to Finite Elements for Fluid Flow and Heat Transfer.

 

23.       An Overview of the Finite Element Method - Advantages, Limitations, and Other Topics.

 

24.            Computer Programs for Finite Element Analysis.