Introduction to Quantum Superposition
1:16:06Experimental Facts of Life — Photoelectric Effect, Double Slit & Bell
1:20:12The Wave Function, Born's Rule & Fourier Wave Packets
1:17:54Expectation Values, Momentum Operator & Heisenberg Uncertainty
1:20:07Linear Operators, Eigenfunctions & The Schrödinger Equation
1:23:14Unitary Time Evolution, Stationary States & Infinite Square Well
1:22:18More on Energy Eigenstates
1:15:53Quantum Harmonic Oscillator
1:21:00Operator Methods for the Harmonic Oscillator
1:17:54Clicker Bonanza and Dirac Notation
1:21:32Dispersion of the Gaussian and the Finite Well
1:21:05The Dirac Well and Scattering off the Finite Step
1:23:48More on Scattering
1:22:35Resonance and the S-Matrix
1:23:56Eigenstates of the Angular Momentum Part 1
1:24:42Eigenstates of the Angular Momentum Part 2
1:20:38More on Central Potentials
1:20:42"Hydrogen" and its Discontents
1:20:07Identical Particles
1:23:01Periodic Lattices Part 1
1:24:20Periodic Lattices Part 2
1:22:21Metals, Insulators, and Semiconductors
1:26:35Eigenstates of the Angular Momentum Part 1
This lecture explores energy degeneracy in three-dimensional quantum systems and its fundamental link to rotational symmetry. It meticulously derives angular momentum operators and their crucial commutation relations.
MIT 8.04 Quantum Physics I, Spring 2013
In this lecture, Prof. Adams discusses energy degeneracy in 3D systems and its connection to rotational symmetry. The latter part of the lecture focuses on the angular momentum operators and their commutation relations.
Resonance and the S-Matrix
Next · Lecture 16Eigenstates of the Angular Momentum Part 2