EECS 220 Handouts

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CHAPTER 2: VECTOR ANALYSIS

 

Section 2-2: Physical Quantities and Units (pp. 7-11)

Examples of Physical Quantities

The Directed Distance

 

Section 2-3: Vector Algebra (pp. 11-16)

Arithmetic Operations of Vectors

Multiplicative Operations of Vectors and Scalars

The Unit Vector

The Dot Product

Orthogonal and Orthonormal Vector Sets

The Cross Product

The Triple Product

Scalar Vector or Neither

 

Section 2-4: Orthogonal Coordinate Systems (pp. 16-33)

Cartesian Coordintes

Cylindrical  Coordinates

Spherical Coordinates

Coordinate Transformations

Example: Coordinate Transformations

Cartesian Base Vectors

Vector Expansion using Base Vectors

Vector Algebra using Orthonormal Base Vectors

Spherical Base Vectors

Cylindrical Base Vectors

Example: Expressing Vector Fields with Coordinate Systems

The Position Vector

 

Section 2-5: The Calculus of Scalar and Vector Fields (pp. 33-55)

 

The Line Integral

Differential Line Vector Elements

The Differential Line Vector for Coordinate Systems

The Line Integral

The Contour C

Line Integrals with Complex Contours

Steps for Analyzing Line Integrals

Example: The Line Integral

 

The Surface Integral

Differential Surface Vectors

The Surface Integral

The Differential Surface Vector for Coordinate Systems

The Surface S

Integrals with Complex Surfaces

Steps for Analyzing a Surface Integral

Example: The Surface Integral

 

The Volume Integral

The Differential Volume Element

The Volume V

 

The Gradient

The Gradient

The Gradient Operator in Other Coordinate Systems

The Conservative Vector Field

Example: Line Integrals of Conservative Fields

 

Divergence

The Divergence of a Vector Field

Divergence in Cylindrical and Spherical Coordinate Systems

The Divergence Theorem

 

Curl

The Curl of a Vector Field

Curl in Cylindrical and Spherical Coordinate Systems

Stokes Theorem

The Curl of a Conservative Field

 

The Laplacian

The Solenoidal Vector Field

Helmholtz Theorems

 

 

CHAPTER 3: ELECTROMAGNETIC SOURCES, FORCES, AND FIELDS

 

Section 3-2: Charge and Charge Density (pp. 62-63)

Charge Density

Total Charge

 

Section 3-3: Current and Current Density (pp. 63-68)

Charge and Current

Volume Current Density

The Current I through Surface S

Surface Current Density

Charge Velocity and Current Density

 

Section 3-4: The Law of Charge Conservation (pp. 68-71)

The Continuity Equation

The Point Form of the Continutiy Equation

 

Section 3-5: Two Action-at-a-Distance Force Laws (pp. 71-75)

Coulomb’s Law of Force

Vector Form of Coulomb’s Law of Force

Ampere’s Law of Force

Example: Ampere’s Law of Force

 

Section 3-6: The Lorentz Force Law and the Field Concept of Electromagnetics (pp. 75-81)

The Lorentz Force Law

The Differential Form of the Lorentz Force Law

 

Section 3-7: Maxwell’s Equations (pp. 81-84)

Maxwell’s Equations

 

 

CHAPTER 4: ELECTROSTATIC FIELDS IN FREE SPACE

 

Section 4-2: Maxwell’s Equations for Electrostatics in Free Space (pp. 88-90)

The Integral Form of Electrostatics

 

Section 4-3: Coulomb’s Law (pp. 90-93)

Coulomb's Law

Coulomb's Law for Charge Density

 

Section 4-4: E-field Calculations Using Coulomb’s Law (pp. 93-98)

The Uniform Infinite Line Charge

The Uniform Disk of Charge

An Infinite Charge Plane

 

Section 4-5: Field Computation Using Gauss’s Law (pp. 98-107)

Spherically Symmetric Charge Densities

Cylindrically Symmetric Charge Densities

Example Using Gauss Law to Determine the Electric Field

 

Section 4-6: Voltage and Electric Potential (pp. 107- 116)

Voltage and Electric Potential

Electric Potential for Point Charge

Electric Potential Function for Charge Densities

Example: The Electric Dipole

The Dipole Moment

 

Section 4-7: Poisson’s and Laplace’s Equations (pp. 116-117)

Poisson’s and Laplace’s Equations

 

 

CHAPTER 5: ELECTROSTATIC FIELDS IN MATERIAL MEDIA

 

Section 5-2: Conductors (pp. 123-132)

Dielectrics and Conductors

Ohm's Law

Resistors

Joule’s Law

Kirchoff's Voltage Law

 

Section 5-3: Dielectrics (pp. 132-149)

The Polarization Vector

Polarization Charge Distributions

Electric Flux Density

Electrostatic Field Equations in Dielectrics

Dielectric Boundary Condition

Boundary Conditions on Perfect Conductors

Example: Boundary Conditions

 

Section 5-4: Electrostatic Boundary Value Problems (pp. 149-157)

Example: The Electrostatic Fields of a Coaxial Line

Example: Dielectric Filled Parallel Plates

Example: Charge Filled Parallel Plates

Example: Solutions Inolving Imhogeneous Dielectrics

 

 

CHAPTER 6: CAPACITANCE AND ELECTRIC ENERGY

 

Section 6-2: Capacitance (pp. 180-195)

Capacitance

Capacitance of a Coaxial Transmission Line

The Parallel Plate Capacitor

 

Section 6-3: The Energy Contained in an Electrostatic Charge Distribution (pp.195-200)

The Stored Energy of Charge Distributions

 

Section 6-4: Energy Storage in Capacitors (pp. 200-201)

Energy Storage in Capacitors

 

An Electrostatics Study Guide

 

 

CHAPTER 7: MAGNETOSTATIC FIELDS IN FREE SPACE

 

Section 7-2: Maxwell’s Equatons for Magnetostatics in Free Space (pp. 206-207)

Maxwells Equations for Magnetostatics

The Integral Form of Magnetostatics

 

Section 7-3: The Biot-Savart Law and the Magnetic Vector Potential (pp. 208-218)

The Magnetic Vector Potential

Solutions to Amperes Law

The Biot Savart Law

Example An Infinite Line of Current

B-field from an Infinite Sheet of Current

 

Section 7-4: Field  Calculations Using Ampere’s Law (pp. 218-227)

B-field from Cylindrically Symmetic Current Distributions

Example: A Hollow Tube of Current

Example: The B-field of a Coaxial Cable

Solenoids

 

Section 7-5: Magnetic Potentials (pp. 227-236)

The Integral Definition of Magnetic Vector Potential

The Magnetic Dipole

 

 

CHAPTER 8: MAGNETOSTATIC FIELDS IN MATERIAL MEDIA

 

Section 8-3: Magnetic Materials (244-260)

The Magnetic Dipole in B field

Magnetic Materials

The Magnetization Vector

Magnetization Currents

The Magnetic Field H

Field Equations in Magnetic Materials

Magnetic Boundary Conditions

 

Section 8-4: Magnetic Boundary Value Problems (pp. 260-263)

Example: A Magnetic Boundary Value Problem

 

Section 8-5: Permantent Magnets and Magnetic Recording (pp.265-267)

Permanent Magnets

 

 

CHAPTER 9:  MAGNETIC INDUCTANCE, ENERGY, AND FORCES

 

Section 9-2: Faraday’s Law of Induction (pp. 278-290)

Faradays Law of Induction

The Electromotive Force

The Ideal Transformer

Eddy Currents

 

Section 9-3:  Inductance (pp. 290-307)

Inductance

Example The Inductance of a Solenoid

Energy and Magnetic Fields

The Inductance of a Coaxial Transmission Line

 

Section 9-4:  Magnetic Forces and Torques (pp. 310-318)

 

A Magnetostatics Study Guide

 

 

CHAPTER 10: TIME-VARYING ELECTROMAGNETIC FIELDS

 

Section 10-2:  Displacement Current (pp. 326-330)

Maxwell’s Equations (Yet Again)

 

Section 10-3: Maxwell’s Equations for Time-Varying Fields (pp. 330-331)

Propagation of Electromagnetic Waves

 

 

 

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