Notes Posted by Professors
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==Quantum== | ==Quantum== | ||
===Dr. John Scales=== | ===Dr. John Scales=== | ||
| + | Note: On the Modern II 2006 Wiki page Dr. Scales has posted many links to outside resources. | ||
====Modern Physics II 2006==== | ====Modern Physics II 2006==== | ||
*[[Modern_2:Evolution_of_Wavepackets|Time Evolution of a Wavefunction]] | *[[Modern_2:Evolution_of_Wavepackets|Time Evolution of a Wavefunction]] | ||
| Line 18: | Line 19: | ||
*[[Modern_2:More_on_Eigenfunctions_and_Measurements|Energy/Time and Schrodinger's equation]] | *[[Modern_2:More_on_Eigenfunctions_and_Measurements|Energy/Time and Schrodinger's equation]] | ||
*[[Modern_2:Square_Well_Potentials|Square Well Resources]] | *[[Modern_2:Square_Well_Potentials|Square Well Resources]] | ||
| + | *[[Exam_2_overview|Infinite Square Well Worked]] | ||
| + | *[[Classical_vs_quantum_harmonic_oscillator._Correspondance_principle|Harmonic Oscillator: Classical & Quantum]] | ||
| + | *[http://mesoscopic.mines.edu/~jscales/320/lecture04-17-06.pdf Raising/Lowering Operators, Hamiltonian Eigenvalues, Harmonic Oscillator] | ||
| + | *[http://mesoscopic.mines.edu/~jscales/320/lecture04-19-06.pdf State Vector, Fourier Representation, Number Operator] | ||
| + | *[http://mesoscopic.mines.edu/~jscales/320/lecture04-21-06.pdf Number, Destruction, and Creation Operators, Casimir Force] | ||
| + | *[http://mesoscopic.mines.edu/~jscales/320/lecture04-26-06.pdf Power Series solutions to ODEs] | ||
| + | *[[Coherent states versus number (harmonic oscillator) states]] | ||
| + | |||
==Statistical== | ==Statistical== | ||
===Dr. Jim McNeil=== | ===Dr. Jim McNeil=== | ||
Revision as of 22:53, 22 January 2007
Contents |
Electromagnetism
Dr. Frank Kowalski
Intermediate Electromagnetism 2007
- Coulumb's Law and r vs. r'
- Pretest, Charged Sphere, "physlets", and Gauss's Law
- Flux, Areas, and Infinite Plane
- Gauss's Law, Divergence of E, More Sphere, and the Dirac Delta
- More Dirac Delta, Conservation Laws, Work
- Work from V, Relationships between V, E, and ρ
Quantum
Dr. John Scales
Note: On the Modern II 2006 Wiki page Dr. Scales has posted many links to outside resources.
Modern Physics II 2006
- Time Evolution of a Wavefunction
- Measurements and the Momentum Operator
- Operators, Observables, and Measurement
- Observables, Energy, and Eigenstate Theorems
- Energy/Time and Schrodinger's equation
- Square Well Resources
- Infinite Square Well Worked
- Harmonic Oscillator: Classical & Quantum
- Raising/Lowering Operators, Hamiltonian Eigenvalues, Harmonic Oscillator
- State Vector, Fourier Representation, Number Operator
- Number, Destruction, and Creation Operators, Casimir Force
- Power Series solutions to ODEs
- Coherent states versus number (harmonic oscillator) states
Statistical
Dr. Jim McNeil
Thermal Physics 2007
- Course Introduction
- Temperature
- Degrees of Freedom, Equipartition Theorem and Energy
- Work Processes
- Heat Capacities
- Heat Capacities and Enthalpy
- Energy and Introduction to Entropy
- 2-state Systems, Sterling's Approximation and Multiplicity Functions
- Einstein Solids and Numbers
- Einstein Solids Continued
- Ideal Gas
- Entropy
- Entropy Continued
- Blackholes and Information
- Another Look at Entropy, Heat Capacity, and Heat
- Temperature, Entropy and The 2-state Paramagnet
- 2-state Paramagnets, Thermal and Mechnical Equilibrium, and Thermodynamic Identities
- Diffusive Equilibrium, Thermodynamic Identities, and Chemical Potential
- Classical Thermodynamics and the Carnot Cycle
- Heat Engines: Carnot and Otto Cycle
- Steam Engines
- Refrigerators and Magnetic Cooling
- Thermodynamic Potentials and Gibbs Free Energy
- Gibbs Free Energy Continued
- Maxwell's Relations and the Claussius Clapeyron Relation
- Claussius-Clapeyron Continued and The Van der Walls Model
- Boltzmann Factor
- Physics 100 Review: Waves on a String
- The Partition Function
- Equipartition Theorem and Maxwell's Velocity Distribution
- Helmholtz Free Energy, The Partition Function and The Boltzmann H-Theorem
- Partition Function for an Ideal Gas and Average Energy
- Partition Function and Chemical Potential
- Catch-up/Review
- Thermal Equilibrium, Diffusive Equilibrium, and the Grand Partition Function
- Fermi-Dirac Distribution, Degenerate Fermi Gas, and Density of States
- Bose-Einstein Statistics and Blackbody Radiation
- Bose-Einstein Statistics, Stefan-Boltzmann Law, Wein Displacement Law
- Photons
- Relativistic Electron/Positron Gas
- Debye Theroy of Solids
- Fermion Statistics and The Sommerfield Expansion
