Lecture Description
This lecture is devoted to the electron diffraction experiment of 1927, where the wavelike nature of electron beams was experimentally established, thus supporting an underlying principle of quantum mechanics. Professor Sylvia Ceyer discusses how to calculate λ from θ, de Broglie wavelength, and concludes with Schrodinger's equation of motion for matter waves.
Course Description
This is an introductory chemistry course, emphasizing basic principles of atomic and molecular electronic structure, thermodynamics, acid-base and redox equilibria, chemical kinetics, and catalysis. This course also introduces the chemistry of biological, inorganic, and organic molecules.
Related Resources
Transcript
| Lecture Notes
Course Index
- Atomic Theory of Matter
- Discovery of Nucleus
- Wavelike Properties of Radiation
- Particle-like Nature of Light
- Matter As a Wave
- The Hydrogen Atom
- Hydrogen Atom Wavefunctions
- P Orbitals
- Electronic Structure of Multielectron Atoms
- Periodic Trends in Elemental Properties
- Covalent Bonds
- Lewis Diagrams
- Breakdown of Octet Rule
- Molecular Orbital Theory
- Valence Bond Theory and Hybridization
- Hybridization and Chemical Bonding
- Bond Energies / Bond Enthalpies
- Free Energy of Formation
- Chemical Equilibrium
- Chemical Equilibrium (cont.)
- Acid-Base Equilibrium
- Acid-Base Equilibrium (cont.)
- Acid-Base Equilibrium: Titrations
- Acid Base Titrations and Oxidation/Reduction
- Oxidation/Reduction
- Oxidation/Reduction (cont.)
- Transition Metals 1
- Transition Metals 2: Crystal Field Theory
- The Shapes of Molecules: VSEPR Theory
- Transition Metals 3
- Kinetics 1
- Kinetics 2
- Kinetics 3
- Kinetics 4
- Kinetics 5: Catalysis
- Review for Principles of Chemical Science, Normal Track
