Partial Differential Equations: An Introduction, Enhanced eText

Höfundur: Walter A. Strauss (Útgáfa: 2)
Partial Differential Equations: An Introduction, Enhanced eText

Kaup valmöguleikar

Partial Differential Equations presents a balanced and comprehensive introduction to the concepts and techniques required to solve problems containing unknown functions of multiple variables. While focusing on the three most classical partial differential equations (PDEs)--the wave, heat, and Laplace equations--this detailed text also presents a broad practical perspective that merges mathematical concepts with real-world application in diverse areas including molecular structure, photon and electron interactions, radiation of electromagnetic waves, vibrations of a solid, and many more.

Rigorous pedagogical tools aid in student comprehension; advanced topics are introduced frequently, with minimal technical jargon, and a wealth of exercises reinforce vital skills and invite additional self-study. Topics are presented in a logical progression, with major concepts such as wave propagation, heat and diffusion, electrostatics, and quantum mechanics placed in contexts familiar to students of various fields in science and engineering.

By understanding the properties and applications of PDEs, students will be equipped to better analyze and interpret central processes of the natural world. Partial Differential Equations presents a balanced and comprehensive introduction to the concepts and techniques required to solve problems containing unknown functions of multiple variables. While focusing on the three most classical partial differential equations (PDEs)--the wave, heat, and Laplace equations--this detailed text also presents a broad practical perspective that merges mathematical concepts with real-world application in diverse areas including molecular structure, photon and electron interactions, radiation of electromagnetic waves, vibrations of a solid, and many more.

Rigorous pedagogical tools aid in student comprehension; advanced topics are introduced frequently, with minimal technical jargon, and a wealth of exercises reinforce vital skills and invite additional self-study. Topics are presented in a logical progression, with major concepts such as wave propagation, heat and diffusion, electrostatics, and quantum mechanics placed in contexts familiar to students of various fields in science and engineering.

Nánar um bókina

Útgefandi
Wiley Global Education US
ISBN
9781119496694
Print ISBN
9780470054567
Format
ePub
Útgáfa
2
Höfundar
Walter A. Strauss
Tungumál
English
Útgefið
2018-11-12
Prent takmörkun á líftíma
100
Prent takmörkun
10
Afritunar takmörkun
2

Kaflar

  • COVER
  • PREFACE
  • PREFACE TO SECOND EDITION
  • 1 WHERE PDEs COME FROM
  • 1.1 WHAT IS A PARTIAL DIFFERENTIAL EQUATION?
  • 1.2 FIRST-ORDER LINEAR EQUATIONS
  • 1.3 FLOWS, VIBRATIONS, AND DIFFUSIONS
  • 1.4 INITIAL AND BOUNDARY CONDITIONS
  • 1.5 WELL-POSED PROBLEMS
  • 1.6 TYPES OF SECOND-ORDER EQUATIONS
  • 2 WAVES AND DIFFUSIONS
  • 2.1 THE WAVE EQUATION
  • 2.2 CAUSALITY AND ENERGY
  • 2.3 THE DIFFUSION EQUATION
  • 2.4 DIFFUSION ON THE WHOLE LINE
  • 2.5 COMPARISON OF WAVES AND DIFFUSIONS
  • 3 REFLECTIONS AND SOURCES
  • 3.1 DIFFUSION ON THE HALF-LINE
  • 3.2 REFLECTIONS OF WAVES
  • 3.3 DIFFUSION WITH A SOURCE
  • 3.4 WAVES WITH A SOURCE
  • 3.5 DIFFUSION REVISITED
  • 4 BOUNDARY PROBLEMS
  • 4.1 SEPARATION OF VARIABLES, THE DIRICHLET CONDITION
  • 4.2 THE NEUMANN CONDITION
  • 4.3 THE ROBIN CONDITION
  • 5 FOURIER SERIES
  • 5.1 THE COEFFICIENTS
  • 5.2 EVEN, ODD, PERIODIC, AND COMPLEX FUNCTIONS
  • 5.3 ORTHOGONALITY AND GENERAL FOURIER SERIES
  • 5.4 COMPLETENESS
  • 5.5 COMPLETENESS AND THE GIBBS PHENOMENON
  • 5.6 INHOMOGENEOUS BOUNDARY CONDITIONS
  • 6 HARMONIC FUNCTIONS
  • 6.1 LAPLACE'S EQUATION
  • 6.2 RECTANGLES AND CUBES
  • 6.3 POISSON'S FORMULA
  • 6.4 CIRCLES, WEDGES, AND ANNULI
  • 7 GREEN’S IDENTITIES AND GREEN’S FUNCTIONS
  • 7.1 GREEN’S FIRST IDENTITY
  • 7.2 GREEN’S SECOND IDENTITY
  • 7.3 GREEN’S FUNCTIONS
  • 7.4 HALF-SPACE AND SPHERE
  • 8 COMPUTATION OF SOLUTIONS
  • 8.1 OPPORTUNITIES AND DANGERS
  • 8.2 APPROXIMATIONS OF DIFFUSIONS
  • 8.3 APPROXIMATIONS OF WAVES
  • 8.4 APPROXIMATIONS OF LAPLACE’S EQUATION
  • 8.5 FINITE ELEMENT METHOD
  • 9 WAVES IN SPACE
  • 9.1 ENERGY AND CAUSALITY
  • 9.2 THE WAVE EQUATION IN SPACE-TIME
  • 9.3 RAYS, SINGULARITIES, AND SOURCES
  • 9.4 THE DIFFUSION AND SCHRŐDINGER EQUATIONS
  • 9.5 THE HYDROGEN ATOM
  • 10 BOUNDARIES IN THE PLANE AND IN SPACE
  • 10.1 FOURIER’S METHOD, REVISITED
  • 10.2 VIBRATIONS OF A DRUMHEAD
  • 10.3 SOLID VIBRATIONS IN A BALL
  • 10.4 NODES
  • 10.5 BESSEL FUNCTIONS
  • 10.6 LEGENDRE FUNCTIONS
  • 10.7 ANGULAR MOMENTUM IN QUANTUM MECHANICS
  • 11 GENERAL EIGENVALUE PROBLEMS
  • 11.1 THE EIGENVALUES ARE MINIMA OF THE POTENTIAL ENERGY
  • 11.2 COMPUTATION OF EIGENVALUES
  • 11.3 COMPLETENESS
  • 11.4 SYMMETRIC DIFFERENTIAL OPERATORS
  • 11.5 COMPLETENESS AND SEPARATION OF VARIABLES
  • 11.6 ASYMPTOTICS OF THE EIGENVALUES
  • 12 DISTRIBUTIONS AND TRANSFORMS
  • 12.1 DISTRIBUTIONS
  • 12.2 GREEN’S FUNCTIONS, REVISITED
  • 12.3 FOURIER TRANSFORMS
  • 12.4 SOURCE FUNCTIONS
  • 12.5 LAPLACE TRANSFORM TECHNIQUES
  • 13 PDE PROBLEMS FROM PHYSICS
  • 13.1 ELECTROMAGNETISM
  • 13.2 FLUIDS AND ACOUSTICS
  • 13.3 SCATTERING
  • 13.4 CONTINUOUS SPECTRUM
  • 13.5 EQUATIONS OF ELEMENTARY PARTICLES
  • 14 NONLINEAR PDES
  • 14.1 SHOCK WAVES
  • 14.2 SOLITONS
  • 14.3 CALCULUS OF VARIATIONS
  • 14.4 BIFURCATION THEORY
  • 14.5 WATER WAVES
  • APPENDIX
  • A.1 CONTINUOUS AND DIFFERENTIABLE FUNCTIONS
  • A.2 INFINITE SERIES OF FUNCTIONS
  • A.3 DIFFERENTIATION AND INTEGRATION
  • A.4 DIFFERENTIAL EQUATIONS
  • A.5 THE GAMMA FUNCTION
  • REFERENCES
  • INDEX
  • END USER LICENSE AGREEMENT