Teaching Packages
Integrated Photonics

Integrated Silicon Photonics provides an introduction to optical confinement and waveguide constraints for a planar CMOS-compatible platform, followed by a review of the performance criteria for key passive/active planar devices, materials science or device physics insights for their chip integration, and leading-edge device designs and performance achievements.
When you click on the below link to download the teaching package, you will be first asked to fill out a survey, and then a terms-of-use agreement, and then will be able to download the file.

There are two modules within Photonic Materials and Devices:
PMD1 - Fundamentals
PMD2 - Materials and Passive Devices
They can be used individually, or in sequence.
Here you can find the seven parts of the PMD1- Fundamentals module (files PMD1.1-PMD1.7), as well as a folder that includes all seven sections (PMD1).
PMD1.1: Information Evolution and Integrated Photonics
Multicore chip evolution
Metal line delay and photonics for data transfer
PIC technology timeline forecast
PMD1.2: Light-Matter Interaction
Optics and the Wave Equation
Polarizability model for dielectric constant
Dispersion absorption
PMD1.3: Bands and Bonds
Atomic bonding and optical, thermal, mechanical property trends
Bandstructure, band gap, and effective mass
Carrier scattering
PMD1.4: Materials Design
Alloy design
Thin-film strain design
Structural and thermal properties
Case study: materials design for fiber-optic systems
PMD1.5: Optical Links
WDM optical communications link
Dispersion/attenuation limited link design
PMD1.6: System Design
Attenuation-limited versus dispersion-limited optical link
Advanced modulation formats
PMD1.7: WDM Device Components
Principal device components for a WDM capacity optical link

There are two modules within Photonic Materials and Devices:
PMD1 - Fundamentals
PMD2 - Materials and Passive Devices
They can be used individually, or in sequence.
Here you can find the five parts of the PMD2- Materials and Passive Devices (files PMD2.1-PMD2.5), as well as a folder that includes all five sections (PMD2).
PMD2.1: Propagation of Light
Ray/Wave Optics
EM Wave Optics: the Traveling Wave Equation
Materials Polarizability Model for Refractive Index, Absorption
Field Polarization and Jones Matrices
PMD2.2: Transfer Matrix Formalism for Traveling EM Waves
Transfer Matrices
TE, TM Mode Transmission
Reflectivity
PMD2.3: Optical Waveguiding
Waveguide Confinement
Finite Difference Method
Fourier Optics
PMD2.4: Resonances and Interferences for Spectral Filters
WDM Resolver vs Filter
Fabry-Pérot Cavity, Filter
WDM Network Needs
PMD2.5: Integrated Resonator Devices
Bragg Filters versus Ring Resonators
Coupled-Mode Theory Design Parameters
Design

Design of Photonic Integrated Devices and Circuits provides learners with approaches for designing photonic integrated devices and circuits using available photonic design automation tools, and how the essential building blocks, such as various passive and active devices, are combined to form various photonic integrated circuits.
The teaching package will be posted soon.