Topic Description

Topic Description
# Topic Description Syllabus
1 Introduction, Some Mathematical Preliminaries
2 Review of Equations of Solid Mechanics
3 Introduction of Variational Calculus, Euler’s Method of Finite Differences
4 The Leibnitz Rule, Fundamental Lemma of Calculus of Variations, The Epsilon-Method (or the Alpha-Method)
5 The Epsilon-Method (or the Alpha-Method) (Continue), Functionals Involoving Higher-Order Derivatives
6 Functionals with Several Dependent Variables
7 The Delta-Operator, Functional Involving More Than One Independent Variable
8 Functionals with Variable (Movable) Boundary, Variable (Movable) Boundary Lying on a Curve
9 Functional with Variable (Movable) Boundaries, First Integrals of Euler’s Equations
10 Functionals with Equality Constraints
11 Introduction to Different Types of Constraints
12 Functionals with Equality Constraints (Continue)
13 Work and Energy
14 Strain Energy and Complementary Strain Energy, Virtual Work
15 Introduction of Energy Principles of Structural Mechanics, The Principle of Virtual Displacements
16 Unit-Dummy-Displacement Method
17 Principle of Minimum Total Potential Energy
18 Catigliano’s Theorem I
19 Principles of Virtual Forces and Complementary Potential Energy
20 MIDTERM EXAMINATION
21 Principles of Complementary Potential Energy, Catigliano’s Theorem II
22 Betti’s and Maxwell’s Reciprocity Theorems
23 Introduction of Dynamic Systems: Hamilton’s Principle
24 Hamilton’s Principle for Particles and Rigid Bodies
25 Hamilton’s Principle for a Continuum
26 Hamilton’s Principle for a Continuum (Continue)
27 Solution of Some Dynamic Problems
28 Introduction of Direct Variational Methods
29 Some Mathematical Concepts
30 The Ritz Method, General Boundary-Value Problems, Introduction to Weighted-Residual Methods