Stanford University Fall 2001

ME235A Finite Element Analysis

Professor Peter M. Pinsky

Welcome to the ME235A web site for the Fall 2001 quarter!


Announcements


Assignments

    Reading Assignment

    Problem Set #1 (due Oct. 10)

    Problem Set #2 (due Oct. 17)

    Problem Set #3 (due Oct. 24)

    Problem Set #4 (due Oct. 31)

    Computing Assignment #1 (due Nov. 7)

    Problem Set #5 (due Nov. 19)

    Computing Assignment #2 (due Nov. 28)

    Problem Set #6 (due Dec. 3)

    Problem Set #7 (due Dec. 7)


Course Overview

ME235A Introduces fundamental concepts and technologies of primal finite element methods for linear elliptic boundary value problems. Topics covered include : overview of finite element method for a one-dimensional model problem including the weak, Galerkin and matrix forms, error analysis and superconvergence; extension of the finite element method for heat equation and elasticity in two and three space dimensions; element formulations and data structures; analysis of errors and convergence of approximation; treatment of constraints and variational crimes. For computing assignments, students will work with and extend a simple but effective finite element code using Matlab and use the Matlab PDE Toolnox for convenient pre- and post-processing features.

ME235B Treats the development and analysis of finite element methods for linear parabolic (time-dependent heat equation), linear hyperbolic (structural dynamics) and eigenvalue (free vibration and stability) problems.

ME235C Introduction to finite element formulations for nonlinear elliptic, parabolic and hyperbolic problems; methods for solving nonlinear algebraic systems.


Staff

        Professor : Peter M. Pinsky

        pinsky@stanford.edu

        Office : Durand 275

        Phone : 3-9327

        Office Hours : Tues 2:00 - 4:00, Thur 2:00 - 3:00

 

        TA : Jee Rim

        jrim@stanford.edu

        Office : Durand 266

        Phone : 3-8104

        Office Hours : Tues 4:15 - 6:15, Fri 1:00 - 3:00

 

        Grader: To be announced

 


Class Schedule

    MW 2:15 - 3:30

     McCullough 122

 


Text (Required)

    The Finite Element Method : Linear Static and Dynamic Finite Element Analysis

    Thomas J. R. Hughes, Dover, 2000

 


Other Reading

   The Finite Element Method, Zienkiewicz and Taylor, two volumes, McGraw-Hill, 2000

    Computational Differential Equations, Eriksson et al., Cambridge, 1996

    An Analysis of FEM, Strang and Fix, Prentice-Hall, 1974

    FEM for Elliptic Problems, Ciarlet, North-Holland, 1978

    Mathematical Theory of FEM, Brenner and Scott, Springer, 1994

    Numerical Solution of PDE by FEM, Johnson, Cambridge, 1990

    Finite Element Procedures, K-J Bathe, Prentice-Hall, 1996

    Concepts and Applications of FEM, Cook et al., Wiley, 1988

 


Prerequisites

 


Matlab Help