File : pdf, 2 MB, 252 pages
by Jiří Lebl (or George)
TOC
Introduction
0.1 Notes about these notes
0.2 Introduction to differential equations
1 First order ODEs
1.1 Integrals as solutions
1.2 Slope fields
1.3 Separable equations
1.4 Linear equations and the integrating factor
1.5 Substitution
1.6 Autonomous equations
1.7 Numerical methods: Euler’s method
2 Higher order linear ODEs
2.1 Second order linear ODEs
2.2 Constant coefficient second order linear ODEs
2.3 Higher order linear ODEs
2.4 Mechanical vibrations
2.5 Nonhomogeneous equations
2.6 Forced oscillations and resonance
3 Systems of ODEs
3.1 Introduction to systems of ODEs
3.2 Matrices and linear systems
3.3 Linear systems of ODEs
3.4 Eigenvalue method
3.5 Two dimensional systems and their vector fields
3.6 Second order systems and applications
3.7 Multiple eigenvalues
3.8 Matrix exponentials
3.9 Nonhomogeneous systems
4 Fourier series and PDEs
4.1 Boundary value problems
4.2 The trigonometric series
4.3 More on the Fourier series
4.4 Sine and cosine series
4.5 Applications of Fourier series
4.6 PDEs, separation of variables, and the heat equation
4.7 One dimensional wave equation
4.8 D’Alembert solution of the wave equation
4.9 Steady state temperature
5 Eigenvalue problems
5.1 Sturm-Liouville problems
5.2 Application of eigenfunction series
5.3 Steady periodic solutions
6 The Laplace transform
6.1 The Laplace transform
6.2 Transforms of derivatives and ODEs
6.3 Convolution
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[...] Chapter 1 Initial-Value Problems for Ordinary Differential Equations 1 Introduction Background Explicit Methods Stability Runge-Kutta Methods Implicit Methods Extrapolation Multistep Methods High-Order Methods Based on Knowledge of allay Stiffness Systems of Differential Equations Step-Size Strategies Mathematical Software [...]