| S# |
Lecture |
Course |
Institute |
Instructor |
Discipline |
| 4001 |
Fraunhofer Diffraction — Multiple Slits (M-I-T)
|
Demonstrations in physical optics (M-I-T)
|
MIT
|
Prof. Shaoul Ezekiel
|
Applied Sciences
|
| 4002 |
|
Demonstrations in laser fundamentals (M-I-T)
|
MIT
|
Prof. Shaoul Ezekiel
|
Applied Sciences
|
| 4003 |
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4004 |
L38v3: Red Laser Interference
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4005 |
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4006 |
Fraunhofer Diffraction — Rectangular Aperture (M-I-T)
|
Demonstrations in physical optics (M-I-T)
|
MIT
|
Prof. Shaoul Ezekiel
|
Applied Sciences
|
| 4007 |
L32v7: Step-up and Step-Down Transformers
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4008 |
Single frequency argon laser (M-I-T)
|
Demonstrations in laser fundamentals (M-I-T)
|
MIT
|
Prof. Shaoul Ezekiel
|
Applied Sciences
|
| 4009 |
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4010 |
L33v1: Displacement Current
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4011 |
Fraunhofer Diffraction — Thin Wires (M-I-T)
|
Demonstrations in physical optics (M-I-T)
|
MIT
|
Prof. Shaoul Ezekiel
|
Applied Sciences
|
| 4012 |
L29DD1: Analogy of LC Circuits to Simple Harmonic Motion
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4013 |
Spectrum of laser light (M-I-T)
|
Demonstrations in laser fundamentals (M-I-T)
|
MIT
|
Prof. Shaoul Ezekiel
|
Applied Sciences
|
| 4014 |
L38v5: Red Laser Diffraction
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4015 |
L33v2: Right Hand Rule for Ampere-Maxwell Equation
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4016 |
L29v1: Review of Simple Harmonic Motion
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4017 |
Tunable dye laser (M-I-T)
|
Demonstrations in laser fundamentals (M-I-T)
|
MIT
|
Prof. Shaoul Ezekiel
|
Applied Sciences
|
| 4018 |
Fraunhofer Diffraction — Two Slits (M-I-T)
|
Demonstrations in physical optics (M-I-T)
|
MIT
|
Prof. Shaoul Ezekiel
|
Applied Sciences
|
| 4019 |
L38v6: Diffraction and Interference
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4020 |
L29v2: Introduction to LC Circuits
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4021 |
L34v1: Maxwell's Equations in Vacuum
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4022 |
Fresnel Diffraction — Adjustable Slit (M-I-T)
|
Demonstrations in physical optics (M-I-T)
|
MIT
|
Prof. Shaoul Ezekiel
|
Applied Sciences
|
| 4023 |
L38v7: Red Laser Interference and Diffraction
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4024 |
L29v3: LC Circuit and Mass on a Spring Analogy
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
| 4025 |
L34v2: Plane Wave Solution to Maxwell's Equations in Vacuum
|
Electricity and Magnetism: Maxwell’s Equations
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Dr. Kerstin Perez, Dr. Analia Barrantes, Dr. Michelle Tomasik, Prof.Robert Redwine
|
Basic and Health Sciences
|
