Quantum Mechanics 13 - Schrodinger Wave Equation
APA
Epp, R. (2008). Quantum Mechanics 13 - Schrodinger Wave Equation. Perimeter Institute. https://pirsa.org/08080088
MLA
Epp, Richard. Quantum Mechanics 13 - Schrodinger Wave Equation. Perimeter Institute, Aug. 16, 2008, https://pirsa.org/08080088
BibTex
@misc{ pirsa_PIRSA:08080088,
doi = {},
url = {https://pirsa.org/08080088},
author = {Epp, Richard},
keywords = {},
language = {en},
title = {Quantum Mechanics 13 - Schrodinger Wave Equation},
publisher = {Perimeter Institute},
year = {2008},
month = {aug},
note = {PIRSA:08080088 see, \url{https://pirsa.org}}
}
University of Waterloo
Talk number
PIRSA:08080088
Collection
Abstract
A “derivation” of the Schrodinger wave equation based on simple calculus.
Learning Outcomes:
• How to express the de Broglie wave of a free particle, i.e. a complex traveling wave, in terms of the particle’s energy and momentum, and how to differentiate this wave with respect to its space and time variables (x and t).
• How to combine the above mathematical results with the Newtonian expression for the total energy of a particle to get Schrodinger’s wave equation.
• Dirac’s extension of these ideas to Einstein’s expression for the total energy of a particle: introduction to spin, antimatter, and the Standard Model of particle physics.
Learning Outcomes:
• How to express the de Broglie wave of a free particle, i.e. a complex traveling wave, in terms of the particle’s energy and momentum, and how to differentiate this wave with respect to its space and time variables (x and t).
• How to combine the above mathematical results with the Newtonian expression for the total energy of a particle to get Schrodinger’s wave equation.
• Dirac’s extension of these ideas to Einstein’s expression for the total energy of a particle: introduction to spin, antimatter, and the Standard Model of particle physics.