Fomo

(0 chapter: basic knowledge)

grad

(0 chapter: basic knowledge)

important vector identities

(2)

(0 chapter: basic knowledge)

eulers formula

(0 chapter: basic knowledge)

gaussian (formula integral)

(0 chapter: basic knowledge)

plane wave

(0 chapter: basic knowledge)

div

(0 chapter: basic knowledge)

div: sink or source?

(0 chapter: basic knowledge)

Laplacian

(0 chapter: basic knowledge)

curl / rot

(0 chapter: basic knowledge)

curl / rot:

curl = 0 ?

curl < 0 ?

curl > 0 ?

(0 chapter: basic knowledge)

eigenvalues

(0 chapter: basic knowledge)

delta function (FT)

(0 chapter: basic knowledge)

linear = ?

homogenous = ?

isotropic = ?

(0 chapter: basic knowledge)

Matrixaddition

(0 chapter: basic knowledge)

Matrixmultiplication

(chapter 2)

auxilary fields

(chapter 2)

MW equ. macroscopic

(chapter 2)

MW eq. microscopic

(chapter 2)

charge density and current density

(chapter 2)

P, M, electric and magnetic constant

(chapter 2)

E, B, D, H, roh, j

(chapter 2)

real part of E

(chapter 2)

FT of E

(chapter 2)

MW in FD

(chapter 2)

(chapter 2)

time domain derivation

wave eq. for the magnetic field

(chapter 2)

frequency domain derivation for the electric field (wave eq.)

(chapter 2)

frequency domain for the magnetic field (wave eq.)

(chapter 2)

Decoupling of the vectorial wave eq. (rot rot of E with polarisation)

(chapter 2)

Basics of linear response theory: P in FD and TD

(chapter 2)

Basic of the linear responce theory: response function R

(chapter 2)

Basic of the linear responce theory: susceptibility

(chapter 2)

time domain derivation

wave eq. for the electric field

without current density

and also the auxiliary fields for this case

(chapter 2)

(chapter 2)

Helmholtz equ.

(in FD and TD)

(for homogeneous media)

(chapter 2)

Helmholtz equ.

(in FD)

(for inhomogeneous media)

(chapter 2)

(2)

(chapter 2)

?

(chapter 2)

Pol.? in FD

and susceptibility (definition and sum)

(chapter 2)

and susceptibility (definition and sum)

(chapter 2)

current density in FD

with

(chapter 2)

—> plasma frequency:

hormonic oscillator equation?

(chapter 2)

(chapter 2)

A) Dielectrics (isulators) in the IR spectral range

(chapter 2)

B) Dielectrics (in the VIS spectral range

(and Sellmeier formula)

(chapter 2)

Sellmeier formula

(chapter 2)

C) metals in the visible spectral range

(chapter 2)

D and P in FD for homogeneous and isotropic media

(chapter 2)

Dielectrics: Drude-Lorenz-model of bound charges as damaped harmonic oscillators

P(r,t)=…

(chapter 2)

Metals:

Drude-Lorenz-model of free charges with no restoring forces.

j(r,t)=…

(chapter 2)

time averaged Poynting vector

… shows …

(chapter 2)

time averaged Poynting vector

formula:

(chapter 2)

Time averaged Poynting vector

intensity with poynting vector?

(chapter 2)

Time averaged Poynting vector:

generalized dielectric function

(chapter 2)

Time averaged Poynting vector

Poyntings theorem:

(chapter 2)

Time averaged Poynting vector

energie flux

(chapter 2)

not so important:

….

(chapter 3)

HIER weiter machen!!!!!!!!!!!!!!!!!!!!!!