EML 5611

CONTINUUM MECHANICS

Fall 2004

Dr. N. Chandra

Dept of Mechanical Engineering

345 Engineering Building Phone: 410--6320

Class Hours: #9; #9;

Tuesday, Thursday 8:45 to 10:00 am

Office Hours:

Tuesday 2:00 to 4:00 pm

A. COURSE OBJECTIVE

To introduce the concept of the mechanics of deformation of

continuous media in general and that of solids in particular, and

To apply the principles to solve elastic boundary value

problems.

B. TEXTBOOK:

Introduction to continuous mechanics by W.M.~Lai,

D.~Rubin and E.~Krempl, Pergaman Press, Third Edition, 1993

 

C. REFERENCE BOOKS:

Theory of elasticity by S. Timoshenko and J.N.~Goodier,

Mc-Graw Hill Book Company, Second Edition, 1951.

Foundations of solid mechanics by Y.C. Fung, Prentice-Hall Inc, 1965.

Introduction to the mechanics of continuous medium

by L.E.~Malvern, Prentice-Hall Inc, Second Edition, 1979.

A first course in continuum mechanics by Y.C. Fung, Second

Edition, Prentice-Hall Inc., 1977

Tensor analysis, Theory and Application} by Sokolnikoff,

1951.

Vector analysis and Cartesian tensors with selected

applications by K. Karamcheti, Holden-Day Publishers, 1967.}

D. PREREQUISITES:

A graduate standing in mechanical engineering, or the approval of

instructor.

E. COURSE OUTLINE:

See the attached sheet.

F. GRADING SCHEME:

1

Exams (2)

40%

2

Homework

30%

3

Final

30%

 

 

4

Total

100%

 

 

 

EML 5611

CONTINUUM MECHANICS

Course Outline

  1. Introduction (2 Lectures)
  2. Continuum Theory

    Definition and Ramifications

    Solids and Fluids

    General Principles and Field Equations

     

  3. Cartesian Tensor Theory (6 Lectures)
  4. Indicial Notation

    Scalars, Vectors, Tensors

    Types and Order of Tensors

    Tensorial Operations

    Manipulation of Indicial quantities

    Exam 1

  5. Kinematics of Deformation (5 Lectures)
  6. Displacement in Eulerian and Lagrangian descriptions

    Engineering, Logarithmic, Almansi and Green strain

    Pure and Simple Shear, Shear Strain

    Plane strain and strain rosettes

    Compatibility conditions

    Velocity and Rate of Deformation

     

  7. Stress (5 Lectures)
  8. Definition

    Stress vector and Tensor

    Cauchys Formula

    Equations of Equilibrium

    Plane stress

    Principal stress

    Shearing stress

    Boundary Conditions

    Exam 2

  9. Constitutive Equations of (4 Lectures)
  10. Definition

    Thermodynamic Constraints

    Hooke's Law

    Elasticity Tensor

    Isotropy, Orthotropy, Anisotropy

    Uniaxial and Multiaxial behavior

    Experimental Determination of elastic constants

    Newtonian Viscous Fluid

  11. General Field Equations (6 Lectures)

Basic Equations

Green's and Divergence Theorems

General Principles

Formulation and Solution of Boundary Value

Problems

Final