APPENDIX A

APPENDIX A

Symbols and Units

Symbol

Quantity

SI Unit

Comments

A

Magnetic  vector potential

Wb/m

weber/meter

B

Magnetic flux density

T (or Wb/m2 )

tesla (or weber/meter2 )

B

Susceptance

S

siemen

C

Capacitance

F

farad

Cz

Capacitance per unit length

F/m

farad/meter

D

Electric flux density

C/m2

coulomb/meter2

D

Electric displacement

C/m2

coulomb/meter2

E

Electric field intensity

V/m

volt/meter

F

Force

N

newton

G

Conductance

S

siemen

Gz

Conductance per unit length

S/m

siemen/m

H

Magnetic field intensity

A/m

ampere/meter

I

Current

A

ampere

J

Current density (volume)

A/m2

amperes/meter2

Js

Current density (surface)

A/m

amperes/meter

K

Surface current density

A/m

ampere/meter

L

Inductance

H

henry

L

Length

m

meter

Lz

Inductance per unit length

H/m

henry/meter

M

Magnetization intensity

A/m

ampere/meter

N

Number of turns

--

dimensionless

P

Electric polarization density

C/m2

coulomb/meter2

P

Power

W

watt

𝓟

Poynting vector

W/m2

watt/meter2

Q

Electric charge

C

coulomb

R

Radial distance

m

meter

R

Resistance

Ω

ohm

Rz

Resistance per unit length

Ω/m

ohm per meter

Reluctance

H-1

henry-1

S

Area

m2

meter2

S

Standing wave ratio

--

dimensionless ratio

T

One-way propagation coefficient

--

dimensionless ratio

T

Time period

s

second

T

Torque

N·m

newton.meter

U

Energy stored

J

joule

V

Electric potential

V

volt

V

Voltage

V

volt

Vm

Magnetic scalar potential

A

ampere

W

Work, energy

J

joule

X

Reactance

Ω

ohm

Y

Admittance

S

siemen

Z

Impedance

Ω

ohm

Zo

Characteristic impedance

Ω

ohm

 

Symbols and Units (contd)

Symbol

Quantity

SI Unit

Comments

a

Unit vector

--

dimensionless

b

Normalized susceptance

--

dimensionless ratio

c

Velocity

m/s

meter/second

cg

Group velocity

m/s

meter/second

co

Velocity of light

m/s

meter/second

cph

Phase velocity

m/s

meter/second

d

Length, distance

m

meter

e

Electronic charge

C

coulomb

emf

Electromotive force (emf)

V

volt

f

Frequency

Hz

hertz

fc

Cut-off frequency

Hz

hertz

g

Normalized conductance

--

dimensionless ratio

i

Current, instantaneous

A

Ampere

k

Wave number

rad/m

radian/meter

kc

Cut-off wave number

rad/s

radian/second

Length

m

meter

m

Magnetic dipole moment

A·m2

ampere.meter2

mmf

Magnetomotive force

A

ampere

n

Index of refraction

--

dimensionless ratio

n

Number of turns per unit length

m-1

meter-1

p

Electric dipole moment

C.m

coulomb.meter

q

Electric charge (point)

C

Coulomb

r

Normalized resistance

--

dimensionless ratio

r

Radial distance

m

meter

r

Spherical coordinate distance

m

meter

s

Standing wave ratio

--

dimensionless ratio

t

Time

s

second

tan(δ)

Loss tangent

--

dimensionless

u

parametric variable

varies

varies

v

Velocity

m/s

meter/second

v

voltage, instantaneous

V

volt

v

Volume

m3

meter3

w

Energy density

J/m3

joules/meter3

x

Cartesian coordinate distance

m

meter

x

Normalized reactance

--

dimensionless ratio

y

Cartesian coordinate distance

m

meter

z

Cartesian coordinate distance

m

meter

 

 

Symbols and Units (contd)

Symbol

Quantity

SI Unit

Comments

α

Attenuation coefficient

nep/m

neper/meter

β

Phase constant (wave number)

rad/m

radian/meter

γ

Propagation constant

m−1

meter−1

Γ

Reflection coefficient

--

dimensionless ratio

δ

Skin depth

m

meter

ε

Permittivity

F/m

farad/meter

εo

Permittivity of free space

F/m

farad/meter

εr

Dielectric constant

--

dimensionless ratio

εr

Relative permittivity

--

dimensionless ratio

η

Intrinsic impedance

Ω

ohm

θ

Angle of incidence

rad

radian

θ

Spherical coordinate

rad

radian

λ

Wavelength

m

meter

λg

Wavelength in waveguides

m

meter

Λ

Magnetic flux linkage

Wb

weber

μ

Permeability

H/m

henry/meter

μo

Permeability of free space

H/m

henry/meter

μr

Relative permeability

--

dimensionless ratio

μ+-

Mobility (electron,  hole)

m2/(V.s)

meter2/(volt·second)

ρ

Cylindrical coordinate radius

m

meter

ρ

Resistivity

Ω.m

ohm.meter

ρL

Charge density (linear)

C/m

coulomb/meter

ρS

Charge density (surface)

C/m2

coulomb/meter2

ρν

Charge density (volume)

C/m3

coulomb/meter3

ρ

Reflection coefficient, local

--

dimensionless ratio

Ρ

Reflection coefficient phasor, Local

--

dimensionless ratio

σ

Conductivity

S/m

siemen/meter

τ

Time delay

s

second

τ

Transmission coefficient

--

dimensionless ratio

φ

Cylindrical & Spherical coordinate

rad

radian

φ

Phase angle

rad

radian

χe

Electric susceptibility

--

dimensionless ratio

χm

Magnetic susceptibility

--

dimensionless ratio

ψe

Electric flux

C

coulomb

ψm

Magnetic flux

Wb

weber

ω

Angular velocity

rad/s

radian/second

ω

Radian frequency

rad/s

radian/second

 


 

 

APPENDIX B

APPENDIX B

Constants

Symbol

Quantity

Value

SI Unit

Electron charge

e

1.60217733×10−19

C

Electron mass

m

9.1093897×10−31

kg

Permittivity  of free space

εo

8.854187817×10-12

F/m

Permeability of free space

μo

4π×10−7

H/m

Velocity of light in free space

co

2.99792458×108

m/s

intrinsic impedance of free space

ηo

376.7~l20π

ohm

FUNDAMENTAL Sl (Rationalized MKSA) Units

Physical Quantity

UNIT

SYMBOL

Mass

kilogram

kg

Length

meter

m

Time

second

s

Temperature

kelvin

K

Amount of substance

mole

mol

Electric current

ampere

A

Luminous Intensity

candela

cd

Power of 10 Prefixes

Multiplication Factor

Power of 10

Prefix

Symbol

1,000,000,000,000,000,000 = 10+18

+18

exa

E

1,000,000,000,000,000 = 10+15

+15

peta

p

1,000,000,000,000 = 10+12

+12

tera

T

1,000,000,000  = 10+9

+9

giga

G

1,000,000 = 10+6

+6

mega

M

1,000 = 10+3

+3

kilo

k

100 = 10+2

+2

hecto

h

10 = 10+1

+1

deka

da

0.1 = 10-1

-1

deci

d

0.01 = 10-2

-2

centi

c

0.001 = 10-3

-3

milli

m

0.000,001 = 10-6

-6

micro

μ

0.000,000,001 = 10-9

-9

nano

n

0.000,000,000,001 = 10-12

-12

pico

p

0.000,000,000,000,001 = 10-15

-15

femto

f

0.000,000,000,000,000,001 = 10-18

-18

atto

a

 

 

 

APPENDIX C

APPENDIX C

Material Properties

Note that the constitutive parameters of some of the materials are frequency and temperature dependent. The listed values are average low-frequency values at room temperature

Material Conductivities S/m

Sorted Alphabetically

 

Sorted Descending

Material

Scientific Format

Engineering Format

 

Scientific Format

Engineering Format

Material

Aluminum

3.54E+07

35.40E+06

 

6.17E+07

6.17E+07

Silver

Bakelite

1.00E-09

1.00E-09

 

5.80E+07

5.80E+07

Copper

Brass

1.57E+07

15.70E+06

 

4.10E+07

4.10E+07

Gold

Bronze

1.00E+07

10.00E+06

 

3.54E+07

3.54E+07

Aluminum

Carbon

3.00E+04

30.00E+03

 

1.82E+07

1.82E+07

Tungsten

Clay

5.00E-03

5.00E-03

 

1.67E+07

1.67E+07

Zinc

Constantan

2.26E+06

2.26E+06

 

1.57E+07

1.57E+07

Brass

Copper

5.80E+07

58.00E+06

 

1.45E+07

1.45E+07

Nickel

Diamond

2.00E-13

200.00E-15

 

1.03E+07

1.03E+07

Iron

Ferrite  (typical)

1.00E+02

100.00E+00

 

1.00E+07

1.00E+07

Bronze

Germanium

2.20E+06

2.20E+06

 

1.00E+07

1.00E+07

Phosphor bronze

Germanium (pure)

2.20E+00

2.20E+00

 

9.00E+06

9.00E+06

Tin

Glass

1.00E-12

1.00E-12

 

7.00E+06

7.00E+06

Solder

Gold

4.10E+07

41.00E+06

 

6.00E+06

6.00E+06

Steel (carbon)

Granite

1.00E-06

1.00E-06

 

5.00E+06

5.00E+06

Lead

Graphite

7.00E+04

70.00E+03

 

2.27E+06

2.27E+06

Manganin

Iron

1.03E+07

10.30E+06

 

2.26E+06

2.26E+06

Constantan

Lead

5.00E+06

5.00E+06

 

2.20E+06

2.20E+06

Germanium

Limestone

1.00E-02

10.00E-03

 

1.10E+06

1.10E+06

Steel (stainless)

Manganin

2.27E+06

2.27E+06

 

1.00E+06

1.00E+06

Mercury

Marble

1.00E-08

10.00E-09

 

1.00E+06

1.00E+06

Nichrome

Mercury

1.00E+06

1.00E+06

 

7.00E+04

7.00E+04

Graphite

Mica

1.00E-15

1.00E-15

 

3.00E+04

3.00E+04

Carbon

Nichrome

1.00E+06

1.00E+06

 

2.30E+03

2.30E+03

Silicon

Nickel

1.45E+07

14.50E+06

 

1.00E+02

1.00E+02

Ferrite  (typical)

Oil (transformer)

1.00E-11

10.00E-12

 

4.00E+00

4.00E+00

Water (sea)

Paraffin

1.00E-15

1.00E-15

 

2.20E+00

2.20E+00

Germanium (pure)

Phosphor bronze

1.00E+07

10.00E+06

 

1.00E-02

1.00E-02

Limestone

Polystyrene

1.00E-16

100.00E-18

 

1.00E-02

1.00E-02

Soil (wet) ~

Porcelain

2.00E-13

200.00E-15

 

5.00E-03

5.00E-03

Clay

Quartz

1.00E-17

10.00E-18

 

1.00E-03

1.00E-03

Water (fresh) ~

Rubber

1.00E-15

1.00E-15

 

4.40E-04

4.40E-04

Silicon (pure)

Silicon

2.30E+03

2.30E+03

 

1.00E-04

1.00E-04

Soil (dry) ~

Silicon (pure)

4.40E-04

440.00E-06

 

1.00E-04

1.00E-04

Water (distilled) ~

Silver

6.17E+07

61.70E+06

 

1.00E-05

1.00E-05

Soil (sandy) ~

Soil (dry) ~

1.00E-04

100.00E-06

 

1.00E-06

1.00E-06

Granite

Soil (sandy) ~

1.00E-05

10.00E-06

 

1.00E-08

1.00E-08

Marble

Soil (wet) ~

1.00E-02

10.00E-03

 

1.00E-09

1.00E-09

Bakelite

Solder

7.00E+06

7.00E+06

 

1.00E-11

1.00E-11

Oil (transformer)

Steel (carbon)

6.00E+06

6.00E+06

 

1.00E-12

1.00E-12

Glass

Steel (stainless)

1.10E+06

1.10E+06

 

2.00E-13

2.00E-13

Diamond

Tin

9.00E+06

9.00E+06

 

2.00E-13

2.00E-13

Porcelain

Tungsten

1.82E+07

18.20E+06

 

1.00E-15

1.00E-15

Mica

Water (distilled) ~

1.00E-04

100.00E-06

 

1.00E-15

1.00E-15

Paraffin

Water (fresh) ~

1.00E-03

1.00E-03

 

1.00E-15

1.00E-15

Rubber

Water (sea)

4.00E+00

4.00E+00

 

1.00E-16

1.00E-16

Polystyrene

Wax

1.00E-17

10.00E-18

 

1.00E-17

1.00E-17

Quartz


Material Relative Permittivities

Sorted Alphabetically

 

Sorted Ascending

Material

$\epsilon '$

$\epsilon " / \epsilon '$

 

$\epsilon '$

$\epsilon " / \epsilon '$

Material

Air

1.0

0.00000

 

1.0

0.00000

Vacuum

Alcohol (ethyl)

25.0

0.10000

 

1.0

0.00000

Water (dehydrated)

Aluminum  oxide

8.8

0.00060

 

1.0

0.00000

Air

Amber

2.7

0.00200

 

1.0

 

Carbon dioxide

Ammonia

22.0

 

 

1.0

0.00010

Styrofoam

Bakelite

4.7

0.02200

 

1.5 - 4.0

0.01000

Wood (dry)

Bakelite

5.0

 

 

2.0 - 4.0

0.00800

Paper

Barium titanate

1200.0

0.01300

 

2.1

 

Petroleum oil

Carbon dioxide

1.0

 

 

2.1

0.00030

Teflon

Distilled water

81.0

 

 

2.2

 

Paraffin  wax

Dry soil

2.5 - 3.5

 

 

2.3

0.00030

Polypropylene

Dry Soil

2.8 - 4.0

0.05000

 

2.3

0.00020

Polyethylene

Ferrite (NiZn)

12.4

0.00025

 

2.3

 

Oil

Formica

6.0

 

 

2.3 - 4.0

0.00200

Rubber

Germanium

16.0

 

 

2.5 - 3.5

 

Dry soil

Glass

4.0 - 7.0

0.00200

 

2.6

0.00005

Polystyrene

Ice

4.2

0.05000

 

2.7

0.00200

Amber

Mica

5.4 - 6.0

0.00060

 

2.8 - 4.0

0.05000

Dry Soil

Neoprene

6.6

0.01100

 

3.3

0.50000

Snow

Nylon

3.5

0.02000

 

3.5

0.03000

Plexiglas

Oil

2.3

 

 

3.5

0.02000

Nylon

Paper

2.0 - 4.0

0.00800

 

3.8 - 5.0

0.00075

Quartz

Paraffin  wax

2.2

 

 

3.8

0.00075

Silica

Petroleum oil

2.1

 

 

4.0 - 7.0

0.00200

Glass

Plexiglas

3.5

0.03000

 

4.0

0.00060

Pyrex glass

Polyethylene

2.3

0.00020

 

4.2

0.05000

Ice

Polypropylene

2.3

0.00030

 

4.4

0.00050

Pyranol

Polystyrene

2.6

0.00005

 

4.7

0.02200

Bakelite

Porcelain

5.7

0.01400

 

5.0

 

Bakelite

Pyranol

4.4

0.00050

 

5.4 - 6.0

0.00060

Mica

Pyrex glass

4.0

0.00060

 

5.7

0.01400

Porcelain

Quartz

3.8 - 5.0

0.00075

 

5.8

0.00300

Steatite

Rubber

2.3 - 4.0

0.00200

 

5.9

0.00010

Sodium chloride

Seawater

72.0 - 80.0

4.00000

 

6.0

 

Formica

Silica

3.8

0.00075

 

6.6

0.01100

Neoprene

Silicon

11.8

 

 

8.8

0.00060

Aluminum  oxide

Snow

3.3

0.50000

 

11.8

 

Silicon

Sodium chloride

5.9

0.00010

 

12.4

0.00025

Ferrite (NiZn)

Steatite

5.8

0.00300

 

16.0

 

Germanium

Styrofoam

1.0

0.00010

 

22.0

 

Ammonia

Teflon

2.1

0.00030

 

25.0

0.10000

Alcohol , ethyl

Titanium  dioxide

100.0

0.00150

 

72.0 - 80.0

4.00000

Seawater

Vacuum

1.0

0.00000

 

80.0

0.04000

Water (distilled)

Water (dehydrated)

1.0

0.00000

 

81.0

 

Distilled water

Water (distilled)

80.0

0.04000

 

100.0

0.00150

Titanium  dioxide

Wood (dry)

1.5 - 4.0

0.01000

 

1200.0

0.01300

Barium titanate

 

Material Relative Permeabilities

Sorted Alphabetically

 

Sorted Ascending

Material

$\mu '$

 

$\mu '$

Material

Diamagnetic ≈ 1.0

 

Diamagnetic ≈ 1.0

Bismuth

0.99983400

 

0.99983400

Bismuth

Copper

0.99999400

 

0.99996000

Gold

Gold

0.99996000

 

0.99997000

Mercury

Mercury

0.99997000

 

0.99998000

Silver

Paraffin

0.99999942

 

0.99999200

Water

Sapphire

0.99999976

 

0.99999400

Copper

Silver

0.99998000

 

0.99999942

Paraffin

Water

0.99999200

 

0.99999976

Sapphire

 

 

 

 

Paramagnetic ≈ 1.0

 

Paramagnetic ≈ 1.0

Air

1.00000037

 

1.00000000

Manganese sulfate

Aluminum

1.00002200

 

1.00000037

Air

Beryllium

1.00000079

 

1.00000043

Wood

Magnesium

1.00001200

 

1.00000079

Beryllium

Manganese sulfate

1.00000000

 

1.00001200

Magnesium

Nickel chloride

1.00004000

 

1.00002200

Aluminum

Palladium

1.00082000

 

1.00004000

Nickel chloride

Platinum

1.00026500

 

1.00008000

Tungsten

Titanium

1.00018000

 

1.00018000

Titanium

Tungsten

1.00008000

 

1.00026500

Platinum

Wood

1.00000043

 

1.00082000

Palladium

 

 

 

 

Ferromagnetic (nonlinear)

 

Ferromagnetic (nonlinear)

Carbon Steel

 100.0

 

 60.0

Cast iron

Cast iron

 60.0

 

 70.0

Nickel

Cobalt

 100.0

 

 100.0

Cobalt

Ferrite (typical)

 1,000.0

 

 100.0

Carbon Steel

Iron (pure)

 5,000.0

 

 100.0

Powdered iron

Machine steel

 300.0

 

 300.0

Machine steel

Mild steel

 2,000.0

 

 1,000.0

Ferrite (typical)

Mumetal

 20,000.0

 

 2,000.0

Mild steel

Nickel

 70.0

 

 2,500.0

Permalloy 45

Permalloy 45

 2,500.0

 

 3,000.0

Transformer iron

Powdered iron

 100.0

 

5,000.0

Iron (pure)

Purified iron

 200,000.0

 

 7,000.0

Silicon iron

Sendust

 30,000.0

 

20,000.0

Mumetal

Silicon iron

 7,000.0

  30,000.0

Sendust

Supermalloy

 100,000.0

 

 100,000.0

Supermalloy

Transformer iron

 3,000.0

 

200,000.0

Purified iron

 

Ferromagnetic materials are highly nonlinear. Listed values for low magnetic flux densities. Maximum permeabilities may be much higher.

 

APPENDIX D

APPENDIX D
Summary EM Relationships
Maxwell’s Equations


Static Form of Maxwell’s Equations

Maxwell’s Equations

in the Integral Form

in the Point Form

Magnetic Field Circulation

$\oint\overrightarrow{\text{H}}\cdot \text{ }\!\!~\!\!\text{ }\overrightarrow{\text{d}\ell }=\sum {{\text{I}}_{\text{Linkage}}}$

$\vec{\nabla }\times \overrightarrow{\text{H}}=\overrightarrow{\text{J}}$

Electric Field Circulation

$\oint \overrightarrow{\text{E}}\cdot \overrightarrow{\text{d}\ell }=0$

$\vec{\nabla }\times \overrightarrow{\text{E}}=0$

Electric Flux Divergence

$\unicode{x222F}_{\text{S}}\overrightarrow{\text{D}}\cdot \overrightarrow{\text{dS}} =\sum {{\text{Q}}_{\text{enclosed}}}$

$\vec{\nabla }\cdot \overrightarrow{\text{D}}={{\text{ }\!\!\rho\!\!\text{ }}_{\text{v}}}$

Magnetic Flux Divergence

$\unicode{x222F}_{\text{S}}\overrightarrow{\text{B}}\cdot \overrightarrow{\text{dS}} =0$

$\vec{\nabla }\cdot \overrightarrow{\text{B}}=0$


Dynamic Form of Maxwell’s Equations

Maxwell’s Equations

in the Integral Form

in the Point Form

Ampere’s Law

$\oint \overrightarrow{\text{H}}\cdot \overrightarrow{\text{d}\ell }=\iint_{\text{S }\!\!~~\!\!\text{ contoured }\!\!~~\!\!\text{ by }\!\!~~\!\!\text{ C}}\text{ }\!\!~~\!\!\text{ }[\overrightarrow{\text{J}}+\frac{\partial \overrightarrow{\text{D}}}{\partial \text{t}}\cdot \text{dS}]$
$\vec{\nabla }\times \overrightarrow{\text{H}}=\overrightarrow{\text{J}}+\frac{\partial \overrightarrow{\text{D}}}{\partial \text{t}}$

Faraday’s Law

$\oint \overrightarrow{\text{E}}\cdot \overrightarrow{\text{d}\ell }=-\iint_{\text{S }\!\!~~\!\!\text{ contoured }\!\!~~\!\!\text{ by }\!\!~~\!\!\text{ C}}\text{ }\!\!~~\!\!\text{ }[\frac{\partial \overrightarrow{\text{B}}}{\partial \text{t}}\cdot \text{dS}]$

$\vec{\nabla }\times \overrightarrow{\text{E}}=-\frac{\partial \overrightarrow{\text{B}}}{\partial \text{t}}$

Gauss’ Law for Electric Flux

$\unicode{x222F}_{\text{S}}\overrightarrow{\text{D}}\cdot \overrightarrow{\text{dS}} =\iiint_{\text{volume }\!\!~~\!\!\text{ enclosed }\!\!~~\!\!\text{ by }\!\!~~\!\!\text{ S}}{{{\text{ }\!\!~~\rho\!\!\text{ }}_{\text{v}}}\,\text{dv}}$

$\vec{\nabla }\cdot \overrightarrow{\text{D}}={{\text{ }\!\!\rho\!\!\text{ }}_{\text{v}}}$

Gauss’ Law for Magnetic Flux

$\unicode{x222F}_{\text{S}}\overrightarrow{\text{B}}\cdot \overrightarrow{\text{dS}} =0$

$\vec{\nabla }\cdot \overrightarrow{\text{B}}=0$

 

Constitutive Relationships

Material Permittivity

$\overrightarrow{\text{D}}=\text{ }\!\!\varepsilon\!\!\text{ }\overrightarrow{\text{E}}$

Material Permeability

$\overrightarrow{\text{B}}=\text{ }\!\!\mu\!\!\text{ }\overrightarrow{\text{H}}$

Material Conductivity

$\overrightarrow{\text{J}}=\text{ }\!\!\sigma\!\!\text{ }\overrightarrow{\text{E}}$

 

Potential Relationships

Electrostatic /  Magnetostatic Relationships

Time-Varying Modifications

$\overrightarrow{\text{E}}=-\vec{\nabla }\text{V}$

(5.44)

$\overrightarrow{\text{E}}=-\vec{\nabla }\text{V}-\frac{\partial \overrightarrow{\text{A}}}{\partial ~\text{t}}$

(10.41)

$\overrightarrow{\text{B}}=\vec{\nabla }\times \overrightarrow{\text{A}}$   &    $\vec{\nabla }\cdot \text{ }\!\!~\!\!\overrightarrow{\text{A}}=0$

(8.64)

$\overrightarrow{\text{B}}=\vec{\nabla }\times \overrightarrow{\text{A}}$   & $\text{ }\!\!~\!\!\text{  }\!\!~\!\!\text{ }\vec{\nabla }\cdot \text{ }\!\!~\!\!\overrightarrow{\text{A}}=-\text{ }\!\!\mu\!\!\text{  }~~\!\!\epsilon\!\!\text{ }~\frac{\partial \text{V}}{\partial ~\text{t}}$

(10.46)

${{\nabla }^{2}}\text{V}=-\frac{{{\text{ }\!\!\rho\!\!\text{ }}_{~~\text{v}}}}{\text{ }\!\!\varepsilon\!\!\text{ }}$

(7.3)

${{\nabla }^{2}}\text{V}=-\frac{{{\text{ }\!\!\rho\!\!\text{ }}_{~~\text{v}}}}{\text{ }\!\!\varepsilon\!\!\text{ }}+\text{ }\!\!\mu\!\!\text{  }~~\!\!\epsilon\!\!\text{ }~\frac{{{\partial }^{2}}\text{V}}{\partial {{~\text{t}}^{2}}}$

(10.50)

${{\nabla }^{2}}\overrightarrow{\text{A}}=-\text{ }\!\!\mu\!\!~\overrightarrow{\text{J}}$

(8.68)

${{\nabla }^{2}}\overrightarrow{\text{A}}=-\text{ }\!\!\mu\!\!~\overrightarrow{\text{J}}+\text{ }\!\!\mu\!\!\text{  }~~\!\!\epsilon\!\!\text{ }~\frac{{{\partial }^{2}}\overrightarrow{\text{A}}}{\partial {{~\text{t}}^{2}}}$

(10.47)

 

The Divergence Theorem:
$\unicode{x222F}_{\text{S}}\overrightarrow{\text{D}}\cdot \overrightarrow{\text{dS}} =\iiint_{\text{volume }\!\!~~\!\!\text{ enclosed }\!\!~~\!\!\text{ by }\!\!~~\!\!\text{ S}}{{{\text{ }\!\!~~\!\!\text{ }}\vec{\nabla }\cdot \overrightarrow{\text{D}} }\,\text{dv}}$                                                                                                                                       (4.18)
Stoke’s Theorem
$\underset{\text{C}}{\mathop \oint }\,\overrightarrow{\text{H}}\cdot \text{ }\!\!~\!\!\text{ }\overrightarrow{\text{d}\ell }=\iint_{\text{S }\!\!~~\!\!\text{ contoured }\!\!~~\!\!\text{ by }\!\!~~\!\!\text{ C}}\text{ }\!\!~~\!\!\text{ }\text{[} \vec{\nabla }\times \overrightarrow{\text{H}} \text{]}\cdot \text{ }\!\!~\!\!\text{ }\overrightarrow{\text{dS}}$                                                                                                                                       (8.60)
Complex Material Properties
${{\text{ }\!\!\varepsilon\!\!\text{ }}^{\star }}=\varepsilon\text{'}-\text{j}\frac{\text{ }\!\!\sigma\!\!\text{ }}{\text{ }\!\!\omega\!\!\text{ }}=\varepsilon\text{'}-\text{j}\varepsilon\text{''}$                                                                                                                    (11.56)
${{\text{ }\!\!\mu\!\!\text{ }}^{\star }}=\mu\text{'}-\text{j}\mu\text{''}$                                                                                                                                                                                   (11.58)
$\tan \delta{{\text{ }\!\!~\!\!\text{ }}_{\text{ }\!\!\varepsilon\!\!\text{ }}}=\varepsilon\text{''}/\varepsilon\text{'}$                                                                 (11.159)
$\tan \delta{{\text{ }\!\!~\!\!\text{ }}_{\text{ }\!\!\mu\!\!\text{ }}}=\mu\text{''}/\mu\text{'}$                              (11.160)
Complex Wave Parameters
$\text{ }\!\!\gamma\!\!\text{ }=\text{ }\!\!\alpha\!\!\text{ }+\text{j }\!\!\beta\!\!\text{ }=\sqrt{-{{\text{ }\!\!\omega\!\!\text{ }}^{2}}{{\text{ }\!\!\mu\!\!\text{ }}^{\star }}{{\text{ }\!\!\varepsilon\!\!\text{ }}^{\star }}}$     and      $\text{ }\!\!\eta\!\!\text{ }=\sqrt{{{\text{ }\!\!\mu\!\!\text{ }}^{\star }}/{{\text{ }\!\!\varepsilon\!\!\text{ }}^{\star }}}$ (11.60)
Skin Depth
$\text{ }\!\!\delta\!\!\text{ }=1/\text{ }\!\!\alpha\!\!\text{ }\cong 1/\sqrt{\text{ }\!\!\pi\!\!\text{ f}{{\text{ }\!\!\mu\!\!\text{ }}_{\text{o}}}\text{ }\!\!\sigma\!\!\text{ }}$                                                                                                                                     (11.62)
Poynting Vector
$\overrightarrow{\text{ }\mathcal{P}}=\overrightarrow{\text{E}}\times \overrightarrow{\text{H}}$                                                                         (11.63)

 

APPENDIX E

APPENDIX E

Vector Identities

The Gradient

Cartesian

(5.45)

Cylindrical

(5.46)

Spherical

(5.47)

The Divergence

Cartesian

(4.13)

Cylindrical

(4.14)

Spherical

(4.15)

The Curl

Cartesian*

(8.56)

Cylindrical

(8.57)

Spherical

(8.58)

The Laplacian Operator

Cartesian

(7.5)

Cylindrical

,

(7.6)

Spherical

,

(7.7)

* Cartesian Curl can also be expressed as:

                                                                                  (8.53)

Vector Identities