1. Wave Mechanics
1:12:272. Wave Mechanics (continued)
1:22:583. Wave Mechanics (continued) and Stern-Gerlach Experiment
1:22:184. Spin One-half, Bras, Kets, and Operators
1:24:315. Linear Algebra: Vector Spaces and Operators
1:22:116. Linear Algebra: Vector Spaces and Operators (continued)
1:20:347. Linear Algebra: Vector Spaces and Operators (continued)
1:21:288. Linear Algebra: Vector Spaces and Operators (continued)
1:22:32Lecture 9: Dirac's Bra and Ket Notation (8.05)
1:20:53Lecture 10: Uncertainty Principle and Compatible Observables (8.05)
1:23:35Lecture 11: Uncertainty Principle and Compatible Observables (continued) (8.05)
1:29:00Lecture 12: Quantum Dynamics (8.05)
1:21:51Lecture 13: Quantum Dynamics (continued) | Heisenberg Picture (8.05)
1:21:22Lecture 14: Quantum Dynamics (continued) (8.05)
1:27:49Lecture 15: Quantum Dynamics (continued) (8.05)
1:25:30Lecture 16: Quantum Dynamics (continued) and Two State Systems (8.05)
1:20:22Lecture 17: Two State Systems (continued) (8.05)
1:27:48Lecture 18: Two State Systems (continued), Multiparticle States and Tensor Products (8.05)
1:28:12Lecture 19: Multiparticle States and Tensor Products (continued) (8.05)
1:28:29Lecture 20: Multiparticle States and Tensor Products (continued) and Angular Momentum (8.05)
1:23:50Lecture 21: Angular Momentum (continued) (8.05)
1:26:28Lecture 22: Angular Momentum (continued) (8.05)
1:25:361. Wave Mechanics
This lecture introduces the fundamental principles of quantum wave mechanics, deriving the time-dependent and time-independent Schrödinger equations, and exploring their application to stationary solutions for quantum systems. It establishes the mathematical framework for understanding particle behavior at the quantum level.
MIT 8.05 Quantum Physics II, Fall 2013
View the complete course: http://ocw.mit.edu/8-05F13
Instructor: Barton Zwiebach
Seminar notes & discussion
No public seminar notes on this lecture yet.
