| S# |
Lecture |
Course |
Institute |
Instructor |
Discipline |
| 3901 |
L16v2: Capacitors in Parallel
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3902 |
L19v3: Magnetic Dipole Moment
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3903 |
Resistors, equilibrium, and Poisson's equation (M-I-T)
|
Introduction to Computational Thinking (Fall 2020) (M-I-T)
|
MIT
|
Prof. Alan Edelman, Prof. David P. Sanders, Grant Sanderson, Dr. James Schloss, and Henri Drake
|
Applied Sciences
|
| 3904 |
Why you don't game on supercomputers (M-I-T)
|
Introduction to Computational Thinking (Fall 2020) (M-I-T)
|
MIT
|
Prof. Alan Edelman, Prof. David P. Sanders, Grant Sanderson, Dr. James Schloss, and Henri Drake
|
Applied Sciences
|
| 3905 |
L16v3: Capacitors in Series
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3906 |
L19v4: Understanding Magnetic Attraction and Repulsion Through Field Lines
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3907 |
Working with images in Julia (M-I-T)
|
Introduction to Computational Thinking (Fall 2020) (M-I-T)
|
MIT
|
Prof. Alan Edelman, Prof. David P. Sanders, Grant Sanderson, Dr. James Schloss, and Henri Drake
|
Applied Sciences
|
| 3908 |
|
Introduction to Computational Thinking (Fall 2020) (M-I-T)
|
MIT
|
Prof. Alan Edelman, Prof. David P. Sanders, Grant Sanderson, Dr. James Schloss, and Henri Drake
|
Applied Sciences
|
| 3909 |
L16v4: Charging a Capacitor
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3910 |
Writing self-documenting code (M-I-T)
|
Introduction to Computational Thinking (Fall 2020) (M-I-T)
|
MIT
|
Prof. Alan Edelman, Prof. David P. Sanders, Grant Sanderson, Dr. James Schloss, and Henri Drake
|
Applied Sciences
|
| 3911 |
L20v1: Torque on a Compass Needle
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3912 |
Seam carving live coding session (M-I-T)
|
Introduction to Computational Thinking (Fall 2020) (M-I-T)
|
MIT
|
Prof. Alan Edelman, Prof. David P. Sanders, Grant Sanderson, Dr. James Schloss, and Henri Drake
|
Applied Sciences
|
| 3913 |
L16v5: Analytic Solution to a Charging Capacitor
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3914 |
Macroscopic models of epidemic dynamics (M-I-T)
|
Introduction to Computational Thinking (Fall 2020) (M-I-T)
|
MIT
|
Prof. Alan Edelman, Prof. David P. Sanders, Grant Sanderson, Dr. James Schloss, and Henri Drake
|
Applied Sciences
|
| 3915 |
L20v2: Force and Torque on a Dipole in a Uniform Magnetic Field
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3916 |
Stencils and boundary conditions (M-I-T)
|
Introduction to Computational Thinking (Fall 2020) (M-I-T)
|
MIT
|
Prof. Alan Edelman, Prof. David P. Sanders, Grant Sanderson, Dr. James Schloss, and Henri Drake
|
Applied Sciences
|
| 3917 |
L23v1: Electromotive Force
|
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
|
| 3918 |
L16v6: Charging Capacitor Time Constant
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3919 |
Reflections on an epidemic video (M-I-T)
|
Introduction to Computational Thinking (Fall 2020) (M-I-T)
|
MIT
|
Prof. Alan Edelman, Prof. David P. Sanders, Grant Sanderson, Dr. James Schloss, and Henri Drake
|
Applied Sciences
|
| 3920 |
L20v3: Potential Energy of a Dipole in a Magnetic Field
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3921 |
|
Introduction to Computational Thinking (Fall 2020) (M-I-T)
|
MIT
|
Prof. Alan Edelman, Prof. David P. Sanders, Grant Sanderson, Dr. James Schloss, and Henri Drake
|
Applied Sciences
|
| 3922 |
|
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
|
| 3923 |
L17DD1: Deep Dive: Measurements to Define the Magnetic Field
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3924 |
L20v4: Worked Example – Force on a Magnetic Dipole
|
Electricity and Magnetism: Magnetic Fields and Forces
|
MIT
|
Peter Dourmashkin, Krishna Rajagopal, Kerstin Perez, Analia Barrantes, Michelle Tomasik, Robert Redwin
|
Basic and Health Sciences
|
| 3925 |
L24v1: Bar Magnet Through a Coil of Wire
|
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
|
