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Electricity and Magnetism: Maxwell’s Equations

S#	Lecture	Course	Institute	Instructor	Discipline
51	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
52	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
53	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
54	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
55	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
56	The Story Continues – the Higgs Particle	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
57	L29v4: LC Oscillator 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
58	L36DD1: Proof of Energy Conservation with the Poynting Vector	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
59	W14PS2: Worked Example – Poynting Vector for a Solenoid	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
60	L36v1: Conservation Laws	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
61	W14PS3: Worked Example – Poynting Vector for a Resistor	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
62	L36v2: Poynting Vector	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
63	L36v3: Direction of the Poynting Vector	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
64	Why Study Electromagnetism	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
65	L36v6: Power and Poynting Vector from a Radially Symmetric Source	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