Difference between revisions of "Main Page"

From CleanEnergyWIKI
Jump to navigation Jump to search
Line 3: Line 3:
'''This wiki is a repository of the text of the first round of graduate modules. It provides an organization framework for learning objects that are being created.'''
'''This wiki is a repository of the text of the first round of graduate modules. It provides an organization framework for learning objects that are being created.'''


A) Overview of STC - 1 or 2 lectures (Include how Thrust 1 ties to Thrust 2) (Reid & Armstrong)
GRADUATE COURSE MODULES
OUTLINE
(Only thrust 2 contribution is included)
 
A) Center Overview - “Photonic Integration--Size, Weight, and Power Savings and Dramatic Performance, Enhancements and Cost Reduction for Computing, Telecommunications, Transportation, Health Care, and Defense" – Larry Dalton
   
   
B) Basics of light and fields – 90 minutes  (Perry and Kippelen)
B) Basics of light– (JLB)
*Free space concepts
• Propagation of Light
*Propagation in lossless, non dispersive dielectrics
• Reflection and Refraction
*Propagation in anistropic media
• Total Internal Reflection
• Dispersion and Scattering of Light
• Diffraction of Light


C) Radiometry, Photometry and Color – 60 minutes (Kippelen)
C) Luminescence and Color – (Kippelen)
*fundamentals of radiometry, definitions
• Luminescence Phenomena
*luminance
• Introduction to Electromagnetic Radiation
*radiative transfer equation
• Electromagnetic Spectrum
*photometric units
• Color
*point and extended sources
• Chromaticity Diagram
*CIE chromaticity diagram
Additive and Substractive Color Mixing
*Additive and substractive color mixing


D) Molecular Orbitals – 150 minutes (Marder & JLB)
D) Molecular Orbitals – (Marder & JLB)
*Carbon valency
• Atomic Orbitals and Nodes
*Nodes
• Electronegativity and Bonding between Atoms
*Sigma and pi orbitals
Sigma and pi orbitals
*Donors and acceptors
• Electronic Coupling between Orbitals
*Functional groups
Donors and acceptors
*Ionization potential and electron affinity
*Definition of HOMO and LUMO
*Distinction between an orbital and state


E) Absorption and Emission of Light 2 lectures (Perry) – SETH AND JLB ???
E) Electronic Band Structure of Organic Materials – (JLB)
*Jablonski diagram
o Introduction
*Absorption and chemical structure
• Electronic Structure of Hydrogen
*fluorescence, ISC, phosphorescence, nonradiative decay
• The Polyene Series, Part 1
*Transition dipole moment, oscillator strength, extinction coefficient
• The Polyene Series, Part 2
*Stokes shift
• Bloch's Theorem, Part 1
*Energy transfers
• Bloch's Theorem, Part 2
• Electrical Properties
• Electronic States versus Molecular Levels


F) Electronic Processes and Materials 150 Minutes (Kippelen )
F) Absorption and Emission of Light – (JLB & Marder)
*Current, conductors, and organic semiconductors
• Introduction
*Classical electron theory of charge transport
• Changes in Absorption Spectra
*Charge mobility, resistivity, sheet resistance, transparent conducting oxides
• Jablonski diagram
*Dielectrics and capacitors, energy and potential
• Absorption, Internal Conversion, Fluorescence, Intersystem Crossing, and Phosphorescence Processes
*Charge transport in amorphous solids, disorder formalism
• Spectroscopy, Extinction Coefficient, Oscillator Strength, Transition Dipole Moment
*Time-of-flight experiments
• Absorption and Emission
*Metal organic semiconductor contacts, Ohmic and Schottky contacts
• Photochromism
*Space-charge limited currents
• Interchain Interactions
*Electroluminescence
*Photogeneration of carriers
*Photodetectors


G) Introduction to Liquid Crystals – 100 Minutes (Marder, Kippelen)
G) Transport Properties– (JLB)
*Liquid crystals
• Introduction
*Director – Classification of LCs
• Band Regime versus Hopping Regime
*Alignment
• Electronic Coupling
*Alignment layers
• Model Calculations of Electronic Coupling, Part 1
*Birefringence
• Model Calculations of Electronic Coupling, Part 2
*Freederickz transition
• Small Electronic Couplings and Marcus Theory
*Characterization of liquid crystals
• Intramolecular Reorganization Energy
*Dielectric anisotropy
• Electron-Phonon Coupling
*Viscoelastic properties of LCs


H) Liquid Crystal Displays – 80 Minutes (Kippelen, Marder)
H) Liquid Crystals and Displays – (Marder)
*Polarized light
• Introduction to Liquid Crystals
*Twisted nematic cell
• Double Refraction and Birefringence
*Active and passive matrix displays
• History of Liquid Crystals
*Pixel driver circuits
• Director – Degrees of order in Liquid Crystals
• Classification and Examples of Liquid Crystals, Part 1
• Classification and Examples of Liquid Crystals, Part 2
• Alignment
• Freederickz Transition and Dielectric Anisotropy
• Liquid Crystal Displays


I) OLEDs - 4 lectures. (Armstrong)  
I) OLEDs (Armstrong)  
• Preface
• Light Emitting Electrochemical Processes, Part 1
• Light Emitting Electrochemical Processes, Part 2
• What is a Light Emitting Diode?
• The first OLEDs
• Organic/Organic’ Heterojunctions in OLEDs
• OLED Charge Mobilities
• Organic Heterojunctions
• Adding Highly Fluorescent/Phosphorescent Dopants to OLEDS to Enhance Light Output and Stability, Part 1
• Adding Highly Fluorescent/Phosphorescent Dopants to OLEDS to Enhance Light Output and Stability, Part 2


*Preface
J) Introduction to Organic Solar Cells (JLB)
*Sections 1,2 Light Emitting Electrochemical Processes
• Introduction
*Section 3 What is a light emitting diode?
• Energy Needs
*Section 4 The first OLEDs
• Solar Technologies
*Section 5 O/O’ Heterojunctions in OLEDs (include small molecules and materials section)
• Major Processes in Organic Solar Cells
*Section 7 Organic Heterojunctions Revisited
• Materials used in Organic Solar Cells
*Sections 8,9 Enhancing OLED Efficiency with added fluorescent/phosphorescent dopants
Organic Heterojunctions
• Physics of Solar Cells
• Energy vs Charge Transfer at Heterojunctions


J) Introduction to Organic Solar Cells
K) Organic Photonics Applications in Information Technology
*Overview of crystalline silicon and thin-film photovoltaic technologies
• Modulators for fiber communication
*Donor/acceptor heterojunctions
*Exciton generation, diffusion and dissociation
*Solar spectrum
*Power conversion efficiency, external quantum efficiency
*Equivalent circuit and modeling, diode parameters
*Examples of multilayer and bulk heterojunction organic solar cells
*Electrochemical solar cells. 


K) Recent results of “state-of-the-art” STC research (Armstrong, Kippelen and others)
L) Recent results of “state-of-the-art” STC research

Revision as of 12:40, 21 January 2009

Center for Materials and Devices for Information Technology Research

This wiki is a repository of the text of the first round of graduate modules. It provides an organization framework for learning objects that are being created.

GRADUATE COURSE MODULES OUTLINE (Only thrust 2 contribution is included)

A) Center Overview - “Photonic Integration--Size, Weight, and Power Savings and Dramatic Performance, Enhancements and Cost Reduction for Computing, Telecommunications, Transportation, Health Care, and Defense" – Larry Dalton

B) Basics of light– (JLB) • Propagation of Light • Reflection and Refraction • Total Internal Reflection • Dispersion and Scattering of Light • Diffraction of Light

C) Luminescence and Color – (Kippelen) • Luminescence Phenomena • Introduction to Electromagnetic Radiation • Electromagnetic Spectrum • Color • Chromaticity Diagram • Additive and Substractive Color Mixing

D) Molecular Orbitals – (Marder & JLB) • Atomic Orbitals and Nodes • Electronegativity and Bonding between Atoms • Sigma and pi orbitals • Electronic Coupling between Orbitals • Donors and acceptors

E) Electronic Band Structure of Organic Materials – (JLB) o Introduction • Electronic Structure of Hydrogen • The Polyene Series, Part 1 • The Polyene Series, Part 2 • Bloch's Theorem, Part 1 • Bloch's Theorem, Part 2 • Electrical Properties • Electronic States versus Molecular Levels

F) Absorption and Emission of Light – (JLB & Marder) • Introduction • Changes in Absorption Spectra • Jablonski diagram • Absorption, Internal Conversion, Fluorescence, Intersystem Crossing, and Phosphorescence Processes • Spectroscopy, Extinction Coefficient, Oscillator Strength, Transition Dipole Moment • Absorption and Emission • Photochromism • Interchain Interactions

G) Transport Properties– (JLB) • Introduction • Band Regime versus Hopping Regime • Electronic Coupling • Model Calculations of Electronic Coupling, Part 1 • Model Calculations of Electronic Coupling, Part 2 • Small Electronic Couplings and Marcus Theory • Intramolecular Reorganization Energy • Electron-Phonon Coupling

H) Liquid Crystals and Displays – (Marder) • Introduction to Liquid Crystals • Double Refraction and Birefringence • History of Liquid Crystals • Director – Degrees of order in Liquid Crystals • Classification and Examples of Liquid Crystals, Part 1 • Classification and Examples of Liquid Crystals, Part 2 • Alignment • Freederickz Transition and Dielectric Anisotropy • Liquid Crystal Displays

I) OLEDs – (Armstrong) • Preface • Light Emitting Electrochemical Processes, Part 1 • Light Emitting Electrochemical Processes, Part 2 • What is a Light Emitting Diode? • The first OLEDs • Organic/Organic’ Heterojunctions in OLEDs • OLED Charge Mobilities • Organic Heterojunctions • Adding Highly Fluorescent/Phosphorescent Dopants to OLEDS to Enhance Light Output and Stability, Part 1 • Adding Highly Fluorescent/Phosphorescent Dopants to OLEDS to Enhance Light Output and Stability, Part 2

J) Introduction to Organic Solar Cells (JLB) • Introduction • Energy Needs • Solar Technologies • Major Processes in Organic Solar Cells • Materials used in Organic Solar Cells • Organic Heterojunctions • Physics of Solar Cells • Energy vs Charge Transfer at Heterojunctions

K) Organic Photonics Applications in Information Technology • Modulators for fiber communication

L) Recent results of “state-of-the-art” STC research