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

URE Experience - DFT Thermoelectric Calculations

Message-Passing Neural Networks for Molecular Property Prediction Using Chemprop

Interactive Modeling of Materials with DFT Using Quantum ESPRESSO within the MIT Atomic ScaleToolkit

Blockchain and Proof of Work Lab

Like Driving a Car: Acquiring Quality SEM/FESEM Images in Different Situations

Chemistry and Materials with the Amsterdam Modeling Suite

NACK - Quick Overview of Top Down, and Botton up Manufacturing in Nanofabrication

Integrating Microelectronics into Classrooms: Thermo-Calc Online for the Design of Solder Materials

Manufacturing for a Sustainable Future

URE Experience - LAMMPS Data File Generator Tool Demo

NanoHUB Jupyter Notebooksfor Research and Education