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Purdue PHYS 342 L11.5: Electron States in Periodic Solids: Energy Gaps
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Table of Contents:
00:09 Lecture 11.5: Energy Gaps in the Nearly Free Electron Model
01:57 Life in a Perfectly Periodic World
05:53 A neat way to re-map an arbitrary k'
10:26 IMPORTANT
13:32 Summary
14:53 Putting it all together
16:30 Example: Allowed states for 1d chain of five atoms
18:19 For large N - The Reduced Zone Scheme
20:16 Implications
22:49 Semiconductors Allow Control of Electrical Conduction by Doping
25:57 Up Next
Purdue PHYS 342 provides an introduction to the physical principles underlying topics in Modern Physics. This course is intended to provide engineering undergraduate students with a firm base from which they can extend their understanding of the quantum world.
00:09 Lecture 11.5: Energy Gaps in the Nearly Free Electron Model
01:57 Life in a Perfectly Periodic World
05:53 A neat way to re-map an arbitrary k'
10:26 IMPORTANT
13:32 Summary
14:53 Putting it all together
16:30 Example: Allowed states for 1d chain of five atoms
18:19 For large N - The Reduced Zone Scheme
20:16 Implications
22:49 Semiconductors Allow Control of Electrical Conduction by Doping
25:57 Up Next
Purdue PHYS 342 provides an introduction to the physical principles underlying topics in Modern Physics. This course is intended to provide engineering undergraduate students with a firm base from which they can extend their understanding of the quantum world.
Purdue PHYS 342 L11.5: Electron States in Periodic Solids: Energy Gaps
Purdue PHYS 342 L11.1: Electron States in Periodic Solids: Free Electron Model
Purdue PHYS 342 L11.4: Electron States in Periodic Solids: Nearly Free Electron Model
Purdue PHYS 342: Modern Physics L6.5: Hydrogen Atom: Optical Absorption
Purdue PHYS 342: Modern Physics L5.6: Schrödinger Equation and Hydrogen: Energy Eigenvalues
Purdue PHYS 342 L1.5: Classical Models: Discrete Line Spectra and Bohr’s Model
Purdue PHYS 342 L11.3: Electron States in Periodic Solids: Occupied States
Purdue PHYS 342 L7.2: Pauli's Exclusion Principle: Electron Spin
Purdue PHYS 342 L13.6: Special Relativity-Kinematics Relativistic Energy
Purdue PHYS 342 L2.6: Schrödinger Equation in 1D: The Finite Square Well
Purdue PHYS 342 L1.6: Classical Models: Compton Effect
Purdue PHYS 342 L7.6: Pauli's Exclusion Principle: Many-Particle Wavefunctions
Purdue PHYS 342 L2.5: Schrödinger Equation in 1D: 1D Infinite Square Well
Purdue PHYS 342: Modern Physics L5.5: Schrödinger Equation and Hydrogen: Eigenfunctions
Purdue PHYS 342: Modern Physics L6.4: Hydrogen Atom: Radiative Atomic Transitions
Purdue PHYS 342 L4.1: Heisenberg's Uncertainty: Scattering of Matter-Waves from a Step Potentia...
Purdue PHYS 342: Modern Physics L5.4: Schrödinger Equation and Hydrogen: Separation of Variables
Purdue PHYS 342 L2.1: Schrödinger Equation in 1D: Wave-Particle Duality
Purdue PHYS 342 L1.3: Classical Models: Energy in a Wave, Radiation Pressure, and Interference
Purdue PHYS 342 L14.1: Relativistic Kinematics: Compton Scattering
Purdue PHYS 342 L9.6: Statistical Laws of Nature: The Partition Function - a Few Examples
Purdue PHYS 342 L16.1: Nuclear Reactions: Fission
Purdue PHYS 342: Modern Physics L5.1: Schrödinger Equation and Hydrogen: 2D Schrödinger's Equat...
Purdue PHYS 342 L16.3: Nuclear Reactions: Final Thoughts
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