Lecture 1 - Introduction Lecture 2 - Properties of Materials Lecture 3 - Thermal Expansion Lecture 4 - Measuring Electrical Conductivity: DC and AC Lecture 5 - Free Electron Gas Lecture 6 - The Ideal Gas Lecture 7 - Drude Model: Electrical Conductivity Lecture 8 - Drude Model: Thermal Conductivity Lecture 9 - Drude Model: Successes and Limitations Lecture 10 - Drude Model: Source of Shortcomings Lecture 11 - Large Systems and Statistical Mechanics Lecture 12 - Maxwell Boltzmann Statistics Lecture 13 - Classical Particles and Quantum Particles Lecture 14 - History of Quantum Mechanics - 1 Lecture 15 - History of Quantum Mechanics - 2 Lecture 16 - Introduction to Drude Sommerfeld model Lecture 17 - Fermi-Dirac Statistics - Part 1 Lecture 18 - Fermi-Dirac Statistics - Part 2 Lecture 19 - Features of the Fermi Dirac Distribution Function Lecture 20 - Maxwell-Boltzmann Distribution Vs Fermi-Dirac Distribution Lecture 21 - Anisotropy and Periodic Potential in a Solid Lecture 22 - Confinement and Quantization - Part 1 Lecture 23 - Confinement and Quantization - Part 2 Lecture 24 - Density of States Lecture 25 - Fermi Energy, Fermi Surface, Fermi Temperature Lecture 26 - Electronic Contribution to Specific Heat at Constant Volume Lecture 27 - Reciprocal Space-1: Introduction to Reciprocal Space Lecture 28 - Reciprocal Space-2: Condition for Diffraction Lecture 29 - Reciprocal Space-3: Ewald sphere, Simple Cubic, FCC and BCC in Reciprocal Space Lecture 30 - Wigner Seitz Cell and Introduction to Brillouin Zones Lecture 31 - Brillouin Zones, Diffraction, and Allowed Energy Levels Lecture 32 - E Vs k, Brillouin Zones and the Origin of Bands Lecture 33 - Calculating Allowed Energy Bands and Forbidden Band Gaps Lecture 34 - Bands; Free Electron Approximation, Tight Binding Approximation Lecture 35 - Semiconductors Lecture 36 - Magnetic Properties Lecture 37 - Electron Compounds; Phonons, Optoelectronic Materials Lecture 38 - Superconductivity Lecture 39 - Bose-Einstein Statistics Lecture 40 - Physics of Nano Scale Materials; Course Summary

Lecture 1 - Introduction Lecture 2 - Properties of Materials Lecture 3 - Thermal Expansion Lecture 4 - Measuring Electrical Conductivity: DC and AC Lecture 5 - Free Electron Gas Lecture 6 - The Ideal Gas Lecture 7 - Drude Model: Electrical Conductivity Lecture 8 - Drude Model: Thermal Conductivity Lecture 9 - Drude Model: Successes and Limitations Lecture 10 - Drude Model: Source of Shortcomings Lecture 11 - Large Systems and Statistical Mechanics Lecture 12 - Maxwell Boltzmann Statistics Lecture 13 - Classical Particles and Quantum Particles Lecture 14 - History of Quantum Mechanics - 1 Lecture 15 - History of Quantum Mechanics - 2 Lecture 16 - Introduction to Drude Sommerfeld model Lecture 17 - Fermi-Dirac Statistics - Part 1 Lecture 18 - Fermi-Dirac Statistics - Part 2 Lecture 19 - Features of the Fermi Dirac Distribution Function Lecture 20 - Maxwell-Boltzmann Distribution Vs Fermi-Dirac Distribution Lecture 21 - Anisotropy and Periodic Potential in a Solid Lecture 22 - Confinement and Quantization - Part 1 Lecture 23 - Confinement and Quantization - Part 2 Lecture 24 - Density of States Lecture 25 - Fermi Energy, Fermi Surface, Fermi Temperature Lecture 26 - Electronic Contribution to Specific Heat at Constant Volume Lecture 27 - Reciprocal Space-1: Introduction to Reciprocal Space Lecture 28 - Reciprocal Space-2: Condition for Diffraction Lecture 29 - Reciprocal Space-3: Ewald sphere, Simple Cubic, FCC and BCC in Reciprocal Space Lecture 30 - Wigner Seitz Cell and Introduction to Brillouin Zones Lecture 31 - Brillouin Zones, Diffraction, and Allowed Energy Levels Lecture 32 - E Vs k, Brillouin Zones and the Origin of Bands Lecture 33 - Calculating Allowed Energy Bands and Forbidden Band Gaps Lecture 34 - Bands; Free Electron Approximation, Tight Binding Approximation Lecture 35 - Semiconductors Lecture 36 - Magnetic Properties Lecture 37 - Electron Compounds; Phonons, Optoelectronic Materials Lecture 38 - Superconductivity Lecture 39 - Bose-Einstein Statistics Lecture 40 - Physics of Nano Scale Materials; Course Summary