Chapter 1: One Hundred Years Ago
1.1  Classical Physics of the 1890s
1.2 The Kinetic Theory of Gases
1.3 Waves and Particles
1.4 Conservation Laws and Fundamental Forces
1.5 The Atomic Theory of Matter
1.6 Unresolved Questions of 1895 and New Horizons
Chapter 2: Special Theory of Relativity
2.1 The Apparent Need for Ether
2.2 The Michelson-Morley Experiment
2.3 Einstein's Postulates
2.4 The Lorentz Transformation
2.5 Time Dilation and Length Contraction
2.6 Addition of Velocities
2.7 Experimental Verification
2.8 Twin Paradox
2.9 Spacetime
2.10 Doppler Effect
2.11 Relativistic Momentum
2.12 Relativistic Energy
2.13 Computations in Modern Physics
2.14 Electromagnetism and Relativity
Chapter 3: The Experimental Basis of Quantum Theory
3.1  Discovery of the X-Ray and the Electron
3.2 Determination of Electron Charge
3.3 Line Spectra
3.4 Quantization
3.5 Blackbody Radiation
3.6 Photoelectric Effect
3.7 X-Ray Production
3.8 Compton Effect
3.9 Pair Production
Chapter 4: Structure of the Atom
4.1  The Atomic Models of Thomson and Rutherford
4.2 Rutherford Scattering
4.3 The Classical Atomic Model
4.4 Bohr Model of the Hydrogen Atom
4.5 Successes and Failures of the Bohr Model
4.6 Characteristic X-Ray Spectra and Atomic Number
4.7 Atomic Excitation by Electrons
Chapter 5: Wave Properties of Matter and Quantum Mechanics I
5.1  X-Ray Scattering
5.2 De Broglie Waves
5.3 Electron Scattering
5.4 Wave Motion
5.5 Waves or Particles?
5.6 Uncertainty Principle
5.7 Probability, Wave Functions, and the Copenhagen Interpretation
5.8 Particle in a Box
Chapter 6: Quantum Mechanics II
6.1  The Schrödinger Wave Equation
6.2 Expectation Values
6.3 Infinite Square-Well Potential
6.4 Finite Square-Well Potential
6.5 Three-Dimensional Infinite-Potential Well
6.6 Simple Harmonic Oscillator
6.7 Barriers and Tunneling
Chapter 7: The Hydrogen Atom
7.1  Application of the Schrödinger Equation to the Hydrogen Atom
7.2 Solution of the Schrödinger Equation for Hydrogen
7.3 Quantum Numbers
7.4 Magnetic Effects on Atomic Spectra - The Normal Zeeman Effect
7.5 Intrinsic Spin
7.6 Energy Levels and Electron Possibility
Chapter 8: Atomic Physics
8.1  Atomic Structure and the Periodic Table
8.2 Total Angular Momentum
8.3 Anomalous Zeeman Effect
Chapter 9: Statistical Physics
9.1  Historical Overview
9.2 Maxwell Velocity Distribution
9.3 Equipartition Theorem
9.4 Maxwell Speed Distribution
9.5 Classical and Quantum Statistics
9.6 Fermi-Dirac Statistics
9.7 Bose-Einstein Statistics
Chapter 10: Molecules, Lasers, and Solids
10.1 Molecular Bonding and Spectra
10.2 Stimulated Emission and Lasers
10.3 Structural Properties of Solids
10.4 Thermal and Magnetic Properties of Solids
10.5 Superconductivity
10.6 Applications of Superconductivity
Chapter 11: Semiconductor Theory and Devices
11.1 Band Theory of Solids
11.2 Semiconductor Theory
11.3 Semiconductor Devices
11.4 Nanotechnology
Chapter 12: The Atomic Nucleus
12.1; Discovery of the Neutron
12.2 Nuclear Properties
12.3 The Deuteron
12.4 Nuclear Forces
12.5 Nuclear Stability
12.6 Radioactive Decay
12.7 Alpha, Beta, and Gamme Decay
12.8 Radioactive Nuclides
Chapter 13: Nuclear Interactions and Applications
13.1 Nuclear Reactions
13.2 Reaction Kinematics
13.3 Reaction Mechanisms
13.4 Fission
13.5 Fission Reactors
13.6 Fusion
13.7 Special Applications
Chapter 14: Particle Physics
14.1 Early Discoveries
14.2 The Fundamental Interactions
14.3 Classification of Particles
14.4 Conservation Laws and Symmetries
14.5 Quarks
14.6 The Families of Matter
14.7 Beyond the Standard Model
14.8 Accelerators
Chapter 15: General Relativity
15.1 Tenets of General Relativity
15.2 Tests of General Relativity
15.3 Gravitational Waves
15.4 Black Holes
15.5 Frame Dragging
Chapter 16: Cosmology and Modern Astrophysics-- The Beginning and the End
16.1 Evidence of the Big Bang
16.2 The Big Bang
16.3 Stellar Evolution
16.4 Astronomical Objects
16.5 Problems with the Big Bang
16.6 The Age of the Universe
16.7 The Standard Model of Cosmology
16.8 The Future