Mathematical Methods of Physics: Problems with Solutions
This book, translated from Russian, is a comprehensive guide to mathematical methods in physics, offering theoretical insights and problem-solving techniques. Authored by experienced physicists, it is suitable for self-study and has been effectively used in fields such as theoretical physics, plasma physics, and hydrodynamics. The English edition aims to equip readers with the skills to master modern mathematical methods applicable to different physical problems. 

1145680645
Mathematical Methods of Physics: Problems with Solutions
This book, translated from Russian, is a comprehensive guide to mathematical methods in physics, offering theoretical insights and problem-solving techniques. Authored by experienced physicists, it is suitable for self-study and has been effectively used in fields such as theoretical physics, plasma physics, and hydrodynamics. The English edition aims to equip readers with the skills to master modern mathematical methods applicable to different physical problems. 

149.95 In Stock
Mathematical Methods of Physics: Problems with Solutions

Mathematical Methods of Physics: Problems with Solutions

Mathematical Methods of Physics: Problems with Solutions

Mathematical Methods of Physics: Problems with Solutions

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$149.95 
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Overview

This book, translated from Russian, is a comprehensive guide to mathematical methods in physics, offering theoretical insights and problem-solving techniques. Authored by experienced physicists, it is suitable for self-study and has been effectively used in fields such as theoretical physics, plasma physics, and hydrodynamics. The English edition aims to equip readers with the skills to master modern mathematical methods applicable to different physical problems. 


Product Details

ISBN-13: 9789815129212
Publisher: Jenny Stanford Publishing
Publication date: 10/11/2024
Pages: 360
Product dimensions: 6.00(w) x 9.00(h) x (d)

About the Author

Igor V. Kolokolov is a Russian physicist known for his work on magnetism, soft matter physics and statistical hydrodynamics. He is professor at the Physical Department at Higher School of Economics, Moscow, and Director of Landau Institute of Theoretical Physics, Chernogolovka, Russia.

Evgeny A. Kuznetsov is a Russian physicist known for his work on nonlinear physics, soliton stability theory, and Hamiltonian formalism for nonlinear waves. He is a member of the Russian Academy of Sciences (RAS), professor at the Moscow Institute of Physics and Technology, and a principal researcher at the Tamm Theoretical Physics Department of the Lebedev Physics Institute of the RAS.

Alexander I. Milstein is a Russian physicist, specialist in theoretical elementary particle physics, nuclear and atomic physics, head of the Theoretical Department at Budker Institute of Nuclear Physics, and professor at Novosibirsk State University (NSU).

Evgeny V. Podivilov is a Russian physicist known for his work on nonlinear optics and nonlinear interactions of waves in fibers. He is a professor at NSU and a principal researcher at the Institute of Automation and Electrometry of the RAS.

Alexander I. Chernykh holds a PhD in physics and mathematics and is engaged in numerical modeling. He has taught various subjects, including methods of mathematical physics, analytical mechanics, statistical physics, and general theory of relativity.

David A. Shapiro is a Russian physicist. He is professor at NSU and heads the Photonics Laboratory at the Institute of Automation and Electrometry of the RAS. His current research interests include fiber optics, nanophotonics, and plasma physics.

Elena G. Shapiro holds a PhD in physics and mathematics. In 1985, she became a member of the Institute of Automation and Electrometry of the RAS. She had been teaching undergraduate students at the Physics Department of NSU since 1988.

Table of Contents

1 Linear Operators

1.1 Finite Dimensional Space

1.2 Functionals and Generalized Functions

1.3 Hilbert Space and Completeness

1.4 Self-Adjoint Operators

1.5 Ket- and Bra- Vectors

 

2 Method of Characteristics

2.1 Linear First-Order PDE

2.2 Quasilinear Equation

2.3 System of Equations

 

3 Second-Order Linear Equations

3.1 Canonical Form

3.2 Curvilinear Coordinates

3.3 Separation of Variables

3.4 Fourier Method

 

4 Self-Similarity and Nonlinear Equations

4.1 Symmetry of Equations

4.2 Nonlinear Equations

 

5 Special Functions

5.1 Singular Points

5.2 Hypergeometric Functions

5.3 Orthogonal Polynomials

 

6 Asymptotic Methods

6.1 Asymptotic Power Series

6.2 A Laplace Integral

6.3 Method of Stationary Phase

6.4 Method of Steepest Descents

6.5 The Averaging Method

 

7 Green’s Functions Method

7.1 Green’s Functions

7.2 Continuous Spectrum

7.3 Resolvent

 

8 Integral Equations

8.1 Fredholm Equations

8.2 Degenerate Kernel

8.3 Symmetric Kernel

8.4 Inverse Problem for Schrödinger Operator

 

9 Groups and Representations

9.1 Groups

9.2 Representations

 

10 Continuous Groups

10.1 Lie Groups and Algebras

10.2 Representations of the Rotation Group

 

11 Group Theory in Physics

11.1 Molecular Oscillations

11.2 Level Splitting

11.3 Selection Rules

11.4 Invariant Tensors

 

 

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