Basic Partial Differential Equations by D. Bleecker and G. Csordas

In summary, "Basic Partial Differential Equations" is an introductory textbook by David Bleecker and George Csordas that covers a range of topics related to partial differential equations (PDEs). The book begins with a review of ordinary differential equations and generalities about PDEs, before delving into first-order PDEs and the heat equation. It then covers Fourier series and Sturm-Liouville theory, the wave equation, Laplace's equation, and Fourier transforms. The book also includes a section on numerical solutions of PDEs and concludes with a discussion on PDEs in higher dimensions. "Basic Partial Differential Equations" is highly recommended as a secondary textbook for anyone starting out with PDEs.

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Table of Contents:
Code:
[LIST]
[*] Preface
[*] Review and Introduction
[LIST]
[*] A Review of Ordinary Differential Equations
[*] Generalities about PDEs
[*] General Solutions and Elementary Techniques
[/LIST]
[*] First-Order PDEs
[LIST]
[*] First-Order Linear PDEs (Constant Coefficients)
[*] Variable Coefficients
[*] Higher Dimensions, Quasi-linearity, Applications
[*] Supplement on General Nonlinear First-Order PDEs (Optional
[/LIST]
[*] The Heat Equation
[LIST]
[*] Derivation of the Heat Equation and Solutions of the Standard Initial/Boundary-Value Problems
[*] Uniqueness and the Maximum Principle
[*] Time-Independent Boundary Conditions
[*] Time-Dependent Boundary Conditions and Duhamel's Principle for Inhomogeneous Heat Equations
[/LIST]
[*] Fourier Series and Sturm-Liouville Theory
[LIST]
[*] Orthogonality and the Definition of Fourier Series
[*] Convergence Theorems for Fourier Series
[*] Sine and Cosine Series and Applications
[*] Sturm-Liouville Theory
[/LIST]
[*] The Wave Equation
[LIST]
[*] The Wave Equation - Derivation and Uniqueness
[*] D'Alambert's Solution of Wave Problems
[*] Other Boundary Conditions and Inhomogeneous Wave Equations
[/LIST]
[*] Laplace's Equation
[LIST]
[*] General Orientation
[*] The Dirichlet Problem for a Rectangle
[*] The Dirichlet Problem for Annuli and Disks
[*] The Maximum Principle and Uniqueness for the Dirichlet Problem
[*] Complex Variable Theory with Applications
[/LIST]
[*] Fourier Transforms
[LIST]
[*] Complex Fourier Series
[*] Basic Properties of Fourier Transforms
[*] The Inversion Theorem and Parseval's Equality
[*] Fourier Transform Methods for PDEs
[*] Applications to Problems on Finite and Semi-Finite Intervals
[/LIST]
[*] Numerical Solutions of PDEs - An Introduction
[LIST]
[*] The O Symbol and Approximations of Derivatives
[*] The Explicit Difference Method and the Heat Equation
[*] Difference Equations and Round-off Errors
[*] An Overview of Some Other Numerical Methods for PDEs (Optional)
[/LIST]
[*] PDEs in Higher Dimensions
[LIST]
[*] Higher-Dimensional PDEs - Rectangular Coordinates
[*] The Eigenfunction Viewpoint
[*] PDEs in Spherical Coordinates
[*] Spherical Harmonics, Laplace Series and Applications
[*] Special Functions and Applications
[*] Solving PDEs on Manifolds
[/LIST]
[*] Appendix
[LIST]
[*] The Classification Theorem
[*] Fubini's Theorem
[*] Leibniz's Rule
[*] The Maximum/Minimum Theorem
[*] A Table of Fourier Transforms
[*] Bessel Functions
[/LIST]
[*] References
[*] Selected Answers
[*] Index of Notation
[*] Notation
[/LIST]
 
Last edited:
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  • #2
I've tried to use many PDE books over the years but have found this intro book very accessible. It's a nice read, not too complicated, not too many proof, and works very well for an intro course. It goes over first orders briefly, then second orders (of two varables) in detail. It then briefly introduces the student to PDE of more than three variables, and then presents a very nice section on numerical methods.

I highly recommend this text as a secondary textbook for anyone just starting with PDEs.
 

FAQ: Basic Partial Differential Equations by D. Bleecker and G. Csordas

1. What is the main focus of the book "Basic Partial Differential Equations"?

The book "Basic Partial Differential Equations" by D. Bleecker and G. Csordas is primarily focused on providing a comprehensive understanding of the basic concepts and techniques of partial differential equations. It covers topics such as classification of PDEs, separation of variables, and the method of characteristics.

2. Is this book suitable for beginners or is it more geared towards advanced mathematicians?

This book is suitable for both beginners and advanced mathematicians. It starts with the fundamentals and gradually progresses to more advanced topics, making it accessible to readers with varying levels of mathematical background.

3. Are there any real-world applications discussed in the book?

Yes, the book includes numerous real-world applications of partial differential equations such as heat conduction, wave propagation, and diffusion. These applications help to illustrate the relevance and usefulness of PDEs in various fields of science and engineering.

4. Does the book provide exercises and solutions for practice?

Yes, the book includes a variety of exercises at the end of each chapter to help readers reinforce their understanding of the concepts. Solutions to selected exercises are also provided at the end of the book.

5. Do I need to have a strong background in mathematics to understand this book?

While some familiarity with basic calculus and linear algebra is helpful, the book does not assume a strong mathematical background. It explains the concepts in a clear and concise manner, making it accessible to readers with varying levels of mathematical knowledge.

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