Keyword Index


- A -

About

absorption

angle of incidence

Step 1: Homogeneous silver layers
Configuration of the PL object

anisotropic layer

anisotropic optical properties

automatic fit

Step 4: Determination of tilt angles from experiments
Fitting PL spectra

autoscale

averaging

averaging formulas

- B -

back-scattered radiation

backside

Bergman representation

The problem
Step 2: Testing simple effective medium models
Step 3: The Bergman representation

Bergman representation object

broadening

Bruggeman formula

- C -

Conversion

current transport

- D -

database

decimals

definition points

density gradient

dielectric function

The problem
Step 2: Testing simple effective medium models
Step 1: Optical constants
Reflectance analysis

dielectric function model

dipole approximation

dipole resonance

drag

- E -

effective dielectric function

effective medium

The problem
Step 2: Testing simple effective medium models

Effective Medium Approxiamtion

electric field

electronic transition

Configuration of the PL object
Fitting PL spectra

electronic transitions

EMA

embedded particle

Emission

Excitation

- F -

film thickness

fit

fit parameters

Step 3: Tilt angle as master parameter
Fitting PL spectra

- G -

geometry

Step 2: Testing simple effective medium models
Step 3: The Bergman representation

glass

The problem
Step 1: Homogeneous silver layers

- H -

halfspace

Help&Manual

host

hypertext jumps

- I -

infrared

inhomogeneities

inhomogeneous

insulator

interactions

interband transitions

interference

interference effects

interference fringes

internal efficiency

Introduction
Configuration of the PL object
Fitting PL spectra

island films

islands

- K -

Kim oscillator

Step 1: Optical constants
Configuration of the PL object
Fitting PL spectra

- L -

layer stack

Step 2: Layer stack and spectra
Configuration of the PL object

layer thickness

light wavelength

list of fit parameters

list of layer stacks

list of spectra

Step 2: Layer stack and spectra
Configuration of the PL object
Fitting PL spectra

list of susceptibilities

list of transitions

Looyenga formula

luminescent layer

- M -

magic angle

master parameter

matrix

matrix material

Maxwell Garnett formula

metal islands

microgeometry

molecular orientation

molecules

multiphase-composite

- N -

network

- O -

observation angle

OJL

optical constants

Step 1: Optical constants
Introduction
Reflectance analysis

optical model

orientation

Introduction
Step 3: Tilt angle as master parameter

orientation angles

oscillator

oscillator strength

oscillators

Overview

- P -

parameter variation

Parameters

peak

Introduction
Configuration of the PL object
Fitting PL spectra

Percolation

percolation strength

Step 2: Testing simple effective medium models
Step 3: The Bergman representation

photoluminescence

PL

PL active layer

PL interpretation

PL layer

PL model

PL radiation

PL sources

PL spectrum

Configuration of the PL object
Fitting PL spectra

PL spectrum object

Introduction
Configuration of the PL object

PL spectrum window

polarization

Step 2: Layer stack and spectra
Configuration of the PL object

porous silicon

Introduction
Reflectance analysis
Fitting PL spectra

- R -

random

random orientation

Range

Step 2: Layer stack and spectra
Configuration of the PL object

re-absorption

real part

Reflectance

Step 1: Homogeneous silver layers
Reflectance analysis
Configuration of the PL object

reflection

resonance

resonance frequency

response

Introduction
Step 3: Tilt angle as master parameter

rough

- S -

sample inhomogeneities

silicon

Step 1: Optical constants
Introduction

silver

The problem
Step 1: Homogeneous silver layers

slave parameter

slider

sliders

spectra list

Configuration of the PL object
Fitting PL spectra

spectral density

The problem
Step 2: Testing simple effective medium models
Step 3: The Bergman representation

spectral range

Step 1: Homogeneous silver layers
Step 2: Testing simple effective medium models
Step 2: Layer stack and spectra

spectral unit

spectrum simulation

sputtering

sputtering rate

substrate

superposition

susceptibility list

- T -

technical manual

thickness

Step 2: Testing simple effective medium models
Step 4: Determination of tilt angles from experiments
Reflectance analysis
Fitting PL spectra

thickness variation

tilt angle

Introduction
Step 3: Tilt angle as master parameter

transition

transitions

transmission

Transmittance

Step 1: Homogeneous silver layers
Configuration of the PL object

- U -

unit

- V -

vibrational mode

vibrational modes

volume fraction

The problem
Step 2: Testing simple effective medium models
Step 3: The Bergman representation

- W -

wavelength

The problem
Configuration of the PL object

- X -

x-y-plane

- Z -

z-direction