| 定价： | ¥ 69 | ||
| 作者： | 焦其祥 主编 | ||
| 出版： | 科学出版社 | ||
| 书号： | 9787030349798 | ||
| 语言： | 简体中文 | ||
| 日期： | 2012-07-01 | ||
| 版次： | 1 | 页数： | 433 |
| 开本： | 16开 | 查看： | 0次 |
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《电磁场与电磁波(第2版英文版)》主要讲述电磁场与电磁波的基本理论和计算方法。本书可作为高等院校电子信息、通信工程、微波工程及相关专业本科生的教材，也可供相关教学和工程技术人员参考。
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《电磁场与电磁波(第2版英文版)》中文版是普通高等教育“十一五”国家级规划教材，也是北京邮电大学通信工程国家级特色专业建设点主干教材。全书共11章，主要讲述电磁场与电磁波的基本理论和计算方法。本书在叙述上由浅入深、循序渐进，强调数学与物理概念的结合，思路清晰，易于学习。对一些重要内容和例题采用了不同的分析方法，强调分析方法的多样性，拓展思考空间，扩大适应面。书中配有近百道例题，以帮助学生分析问题，引导学生自学。《电磁场与电磁波(第2版英文版)》可作为高等院校电子信息、通信工程、微波工程及相关专业本科生的教材，也可供相关教学和工程技术人员参考。
目录
Preface to the Second Edition
Preface to the Fit Edition
Main Character, Paramete and The Expressio of Gradient, Divergence,
Rotation
Chapter 1 Vector Analysis
1.1 Scalar and Vector Fields
1.2 Operation of Vector
1.3 Flux and Divergence of Vector
1.4 Gauss's Theorem
1.5 Vector Circulation and Rotation
1.6 Stockes' Theorem
1.7 Gradient of a Scalar Field
1.8 The Helmholtz Theorem
Exercises
Chapter 2 Electrostatic Fields
2.1 Electrostatic Field's Divergence Equation and Rotation
Equation
2.2 Electric Potential and Electric Potential Gradient
2.3 Laplace's equation and Poisson's equation
2.4 Electric Dipole
2.5 Conducto in the Electrostatic Field
2.6 Dielectrics in the Electrostatic Field
2.7 The Boundary Conditio of the Electrostatic Field
2.8 Capacitance of Conductor System
2.9 Energy of Electrostatic Field and Electrostatic Force
2.10 5 Function and Its Related Properties
Exercises
Chapter 3 Cotant Magnetic Field
3.1 The Curl Equation and Divergence Equation of Cotant Magnetic
Field
3.2 Magnetic Vector Potential A and Scalar Magnetic Potential em
3.3 Magnetic Dipole
3.4 Medium in Cotant Magnetic Field
3.5 Boundary Condition of Cotant Magnetic Field
3.6 Self Inductance and Mutual Inductance
3.7 Magnetic Energy and Magnetic Force
Exercises
Chapter 4 Steady Electric Field
4.1 Current Deity
4.2 Current Continuity Equation
4.3 Steady Electric Fields are Irrotational Fields
4.4 Loss of Energy in A Conducting Medium
4.5 Boundary Condition of the Steady Electric Field
4.6 Analogy of the Steady Electric Field and the Electrostatic
Field
4.7 Capacitor Coidering the Loss of Medium
Exercises
Chapter 5 Solutio of Electrostatic Field Boundary Value Problem
5.1 Electrostatic Field Boundary Value Problems
5.2 Uniqueness Theorem
5.3 Solving the One-Dimeion Field by Integral
5.4 Using Separation of Variables to Solve Two-Dimeion and
Three-Dimeion
Laplace's Equation
5.5 Image Method
5.6 Conformal Traformation, or Called Conformal Mapping
5.7 Finite-Difference Method--Numerical Computation Methods
5.8 Green's Function and Green's Fit, Second Identities
Exercises
Chapter 6 Alternating Electromagnetic Fields
6.1 Maxwell's Equatio
6.2 Law of Induction and Maxwell's Second Equation
6.3 Ampere's Circuital Law and Maxwell's Fit Equation
6.4 Gauss's Law and Maxwell's Third Equation
6.5 Maxwell's Fourth Equation
6.6 Maxwell's Equatio and Auxiliary Equatio
6.7 Complex Format of Maxwell's Equatio
6.8 Boundary Conditio for Alternating Fields
6.9 Poynting's Theorem and Poynting Vector
6.10 Potentials and Fields for Alternating Fields
6.11 On Lorentz Gauge
Exercises
Chapter 7 Propagation of Plane Wave in Infinite Medium
7.1 Wave Equatio and Solutio
7.2 Plane Wave in Perfect Dielectric
7.3 Polarization of Electromagnetic Wave
7.4 Plane Wave in A Conducting Medium
7.5 Loss Tangent tan 5 and Medium Category
7.6 Plane Wave in A Good Dielectric
7.7 Plane Wave in A Good Conductor
7.8 Skin Effect
7.9 Surface Impedance Zs of A Good Conductor
7.10 Power Loss in A Conducting Medium
7.11 Dispeive Medium, Dispeive Distortion and Normal Dispeion,
Anomalous
Dispeion
7.12 Electromagnetic Waves in Ferrite Medium
Exercises
Chapter 8 Reflection and Refraction of Electromagnetic Waves
8.1 Plane Wave Normally Incident on the Surface of Perfect
Conductor
8.2 Plane Wave Normally Incident on the Interface between
Perfect Dielectrics
8.3 Plane Waves Obliquely Incident upon the Surface of Perfect
Conductor
8.4 Plane Wave Obliquely Incident upon the Interface between
Perfect
Dielectrics
8.5 Reflection and Refraction of Waves on the Interface between
Conductive
Media
8.6 Plane Waves Normally Incident upon the Interfaces among
Multi-layered
Media
8.7 On the Multiformity of the Definitio of Fresnel Equatio (R,
T)
Exercises
Chapter 9 Two-Conductor Tramission Lines--Travee
Electromagnetic Wave Guiding System
9.1 Introduction
9.2 Properties of Wave Equatio for TEM Waves
9.3 Parallel-Plate Tramission System
9.4 Two-Wire Tramission Lines
9.5 Coaxial Cable
9.6 Quasi-TEM Waves in Lossy Tramission Lines
Exercises
Chapter 10 TE and TM Modes Tramission System--Waveguide
10.1 Rectangular Waveguide
10.2 Circular Waveguide
10.3 Higher Modes in Coaxial Line
Exercises
Chapter 11 Electromagnetic Radiation
11.1 Lag Potential of Alternating Field
11.2 Electric Dipole
11.3 The Magnetic Dipole
11.4 Dipole Antenna and the Concept of Antenna Array
11.5 Duality Theory
Exercises
References
Appendix Common Formula
Awer
Preface to the Second Edition
Preface to the Fit Edition
Main Character, Paramete and The Expressio of Gradient, Divergence,
Rotation
Chapter 1 Vector Analysis
1.1 Scalar and Vector Fields
1.2 Operation of Vector
1.3 Flux and Divergence of Vector
1.4 Gauss's Theorem
1.5 Vector Circulation and Rotation
1.6 Stockes' Theorem
1.7 Gradient of a Scalar Field
1.8 The Helmholtz Theorem
Exercises
Chapter 2 Electrostatic Fields
2.1 Electrostatic Field's Divergence Equation and Rotation
Equation
2.2 Electric Potential and Electric Potential Gradient
2.3 Laplace's equation and Poisson's equation
2.4 Electric Dipole
2.5 Conducto in the Electrostatic Field
2.6 Dielectrics in the Electrostatic Field
2.7 The Boundary Conditio of the Electrostatic Field
2.8 Capacitance of Conductor System
2.9 Energy of Electrostatic Field and Electrostatic Force
2.10 5 Function and Its Related Properties
Exercises
Chapter 3 Cotant Magnetic Field
3.1 The Curl Equation and Divergence Equation of Cotant Magnetic
Field
3.2 Magnetic Vector Potential A and Scalar Magnetic Potential em
3.3 Magnetic Dipole
3.4 Medium in Cotant Magnetic Field
3.5 Boundary Condition of Cotant Magnetic Field
3.6 Self Inductance and Mutual Inductance
3.7 Magnetic Energy and Magnetic Force
Exercises
Chapter 4 Steady Electric Field
4.1 Current Deity
4.2 Current Continuity Equation
4.3 Steady Electric Fields are Irrotational Fields
4.4 Loss of Energy in A Conducting Medium
4.5 Boundary Condition of the Steady Electric Field
4.6 Analogy of the Steady Electric Field and the Electrostatic
Field
4.7 Capacitor Coidering the Loss of Medium
Exercises
Chapter 5 Solutio of Electrostatic Field Boundary Value Problem
5.1 Electrostatic Field Boundary Value Problems
5.2 Uniqueness Theorem
5.3 Solving the One-Dimeion Field by Integral
5.4 Using Separation of Variables to Solve Two-Dimeion and
Three-Dimeion
Laplace's Equation
5.5 Image Method
5.6 Conformal Traformation, or Called Conformal Mapping
5.7 Finite-Difference Method--Numerical Computation Methods
5.8 Green's Function and Green's Fit, Second Identities
Exercises
Chapter 6 Alternating Electromagnetic Fields
6.1 Maxwell's Equatio
6.2 Law of Induction and Maxwell's Second Equation
6.3 Ampere's Circuital Law and Maxwell's Fit Equation
6.4 Gauss's Law and Maxwell's Third Equation
6.5 Maxwell's Fourth Equation
6.6 Maxwell's Equatio and Auxiliary Equatio
6.7 Complex Format of Maxwell's Equatio
6.8 Boundary Conditio for Alternating Fields
6.9 Poynting's Theorem and Poynting Vector
6.10 Potentials and Fields for Alternating Fields
6.11 On Lorentz Gauge
Exercises
Chapter 7 Propagation of Plane Wave in Infinite Medium
7.1 Wave Equatio and Solutio
7.2 Plane Wave in Perfect Dielectric
7.3 Polarization of Electromagnetic Wave
7.4 Plane Wave in A Conducting Medium
7.5 Loss Tangent tan 5 and Medium Category
7.6 Plane Wave in A Good Dielectric
7.7 Plane Wave in A Good Conductor
7.8 Skin Effect
7.9 Surface Impedance Zs of A Good Conductor
7.10 Power Loss in A Conducting Medium
7.11 Dispeive Medium, Dispeive Distortion and Normal Dispeion,
Anomalous
Dispeion
7.12 Electromagnetic Waves in Ferrite Medium
Exercises
Chapter 8 Reflection and Refraction of Electromagnetic Waves
8.1 Plane Wave Normally Incident on the Surface of Perfect
Conductor
8.2 Plane Wave Normally Incident on the Interface between
Perfect Dielectrics
8.3 Plane Waves Obliquely Incident upon the Surface of Perfect
Conductor
8.4 Plane Wave Obliquely Incident upon the Interface between
Perfect
Dielectrics
8.5 Reflection and Refraction of Waves on the Interface between
Conductive
Media
8.6 Plane Waves Normally Incident upon the Interfaces among
Multi-layered
Media
8.7 On the Multiformity of the Definitio of Fresnel Equatio (R,
T)
Exercises
Chapter 9 Two-Conductor Tramission Lines--Travee
Electromagnetic Wave Guiding System
9.1 Introduction
9.2 Properties of Wave Equatio for TEM Waves
9.3 Parallel-Plate Tramission System
9.4 Two-Wire Tramission Lines
9.5 Coaxial Cable
9.6 Quasi-TEM Waves in Lossy Tramission Lines
Exercises
Chapter 10 TE and TM Modes Tramission System--Waveguide
10.1 Rectangular Waveguide
10.2 Circular Waveguide
10.3 Higher Modes in Coaxial Line
Exercises
Chapter 11 Electromagnetic Radiation
11.1 Lag Potential of Alternating Field
11.2 Electric Dipole
11.3 The Magnetic Dipole
11.4 Dipole Antenna and the Concept of Antenna Array
11.5 Duality Theory
Exercises
References
Appendix Common Formula
Awer
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