nanohubtechtalks

ECE Purdue Boltzmann Law Physics to Computers: Epilogue

Nanophotonics & Metamaterials L3.2: Enabling Nanophotonics with Plasmonics

nanoHUB-U Nanophotonic Modeling L1.2: Photonic Bandstructures and Bandgaps: 1D Bandstructures

nanoHUB-U Nanophotonic Modeling L3.15: MEEP - Photonic Bandstructures

nanoHUB-U Nanophotonic Modeling L1.14: Formulating the Photonic Bandstructure Calculation

nanoHUB-U Nanophotonic Modeling L4.14: Thermal Transport Modeling

nanoHUB-U Nanophotonic Modeling L1.11: Other 2D Photonic Structures

Running a Python 3 Script in a nanoHUB Jupyter Notebook

NACK - Novel Two-dimensional (2D) Materials and Devices for Biomimetic Sensing and Computing

nanoHUB-U Nanophotonic Modeling L1.18: Running MIT Photonic Bands

nanoHUB-U Nanophotonic Modeling L1.20: MPB for 3D Lattices and Bandgap Maximization

nanoHUB-U Nanophotonic Modeling L1.15: Methods for Solving the Photonic Bandstructure

Modeling of P-N Junction Devices using Various Materials for Photovoltaic Applications

nanoHUB-U Nanophotonic Modeling L3.16: MEEP - Defect Resonant Modes

Mathematica for CUDA and OpenCL Programming

nanoHUB-U Nanophotonic Modeling L4.3: Photonic Crystal Lasers

Nanophotonics & Metamaterials L3.1: Enabling Nanophotonics with Plasmonics

nanoHUB-U Nanophotonic Modeling L2.2: Connecting Ray Optical Matrices

nanoHUB-U Nanophotonic Modeling L4.10: An FEM Waveguide Mode Solver

nanoHUB-U Nanophotonic Modeling L2.4: Multilayered Photonic Systems: Computational Tools I

nanoHUB-U Fundamentals of Nanoelectronics I: M4.3 The "Spinning" Electron - Spin Potentials

nanoHUB-U Nanophotonic Modeling L1.1: Introduction

nanoHUB-U Nanophotonic Modeling L1.8: Defects in 2D Photonic Crystals

nanoHUB-U Nanophotonic Modeling L2.1: Introduction

nanoHUB-U Nanophotonic Modeling L1.7: Sysmmetries in 2D Photonic Crystals

nanoHUB-U Nanophotonic Modeling L1.13: Rod-Hole 3D Photonic Crystals

nanoHUB-U Nanophotonic Modeling L1.2: Bloch Theorem

nanoHUB-U Nanophotonic Modeling L2.2: Multilayered Photonic Systems: Wave Optics Transfer Matrices

nanoHUB-U Nanophotonic Modeling L1.4: Reciprocal Lattice Vectors

nanoHUB-U Nanophotonic Modeling L1.4: Photonic Bandstructures and Bandgaps: 2D Photonic Crystal

nanoHUB-U Nanophotonic Modeling L1.5: Photonic Bandstructures and Bandgaps: Crystal Waveguides

nanoHUB-U Nanophotonic Modeling L1.3: Photonic Bandstructures and Bandgaps: 2D Bandstructures

Solar Cells Lecture 2: Physics of Crystalline Solar Cells

nanoHUB-U Nanophotonic Modeling L4.11: Evaluating FEM Waveguide Solvers

nanoHUB-U Nanophotonic Modeling L1.6: 2D Photonic Crystal Bandgaps

nanoHUB-U Nanophotonic Modeling L1.12: 3D Photonic Crystals

nanoHUB-U Nanophotonic Modeling L1.22: Summary of Unit 1

nanoHUB-U MOSFET Essentials L3.5: MOS Electrostatics - MOS CV

Teaching Engineering using Jupyter Notebooks

Density Functional Theory: Introduction and Applications

Debugging Neural Networks

Hands-on Teaching with Jupyter Notebooks on nanoHUB

ECE 606 Solid State Devices L14.3: Temperature Dependence of Carrier Concentration

The Eötvös Paradox: The Enduring Significance of Eötvös' Most Famous Experiment

ABACUS PN Junctions (Spring 2022)

nanoHUB-U Nanophotonic Modeling L3.5: Light Trapping in Photovoltaics

Tunnel FETs - Device Physics and Realizations

nanoHUB-U Fundamentals of AFM L1.5: Tip-Surface Interactions (Non-Contact) - Keesom Force

nanoHUB-U Fundamentals of AFM L2.3: Tip-Surface Interactions (Contact) - Dejaugin Approximation

nanoHUB-U Nanoscale Transistors L3.2: The Ballistic Nanotransistor - Modes

nanoHUB-U Nanoscale Transistors L1.1: The Transistor - The Transistor as a Black Box