Jerry D. Wilson and Anthony J. Buffa
| A. Kinematics (including vectors, vector algebra, components of vectors, coordinate systems, displacement, velocity, and acceleration) |
| 1. Motion in one dimension |
SE/TE: 32–63 |
| 2. Motion in two dimensions, including projectile motion |
SE/TE: 64–102 |
| B. Newton's laws of motion (including friction and centripetal force) |
| 1. Static equilibrium (first law) |
SE/TE: 103–106, 115–140 |
| 2. Dynamics of a single particle (second law) |
SE/TE: 106–113, 115–140 |
| 3. Systems of two or more bodies (third law) |
SE/TE: 113–115, 115–140 |
| C. Work, energy, power |
| 1. Work and work-energy theorem |
SE/TE: 141–154, 171–178 |
| 2. Conservative forces and potential energy |
SE/TE: 154–159, 174–178 |
| 3. Conservation of energy |
SE/TE: 157–167, 174–178 |
| 4. Power |
SE/TE: 167–170, 176–178 |
| D. Systems of particles, linear momentum |
| 1. Center of mass |
SE/TE: 202–208, 216–218 |
| 2. Impulse and momentum |
SE/TE: 179–187, 210–218 |
| 3. Conservation of linear momentum, collisions |
SE/TE: 187–202, 213–218 |
| E. Circular motion and rotation |
| 1. Uniform circular motion |
SE/TE: 226–233, 254–259 |
| 2. Angular momentum and its conservation |
|
| —a. Point particles |
SE/TE: 287–288, 300–304 |
| —b. Extended bodies, including rotational inertia |
SE/TE: 288–294, 300–304 |
| 3. Torque and rotational statics |
SE/TE: 260–274, 294–304 |
| 4. Rotational kinematics and dynamics |
SE/TE: 219–235, 253–259, 274–287, 297–304 |
| F. Oscillations and gravitation |
| 1. Simple harmonic motion (dynamics and energy relationships) |
SE/TE: 444–457, 471–474 |
| 2. Mass on a spring |
SE/TE: 445–452, 471–474 |
| 3. Pendulum and other oscillations |
SE/TE: 453–454, 472–474 |
| 4. Newton's law of gravity |
SE/TE: 236–243, 257–259 |
| 5. Orbits of planets and satellites |
|
| —a. Circular |
SE/TE: 245–249, 258–259 |
| —b. General |
SE/TE: 243–253, 258–259 |
| A. Electrostatics |
| 1. Charge, field, and potential |
SE/TE: 513–520, 526–533, 539–544, 545–558, 572–576 |
| 2. Coulomb's law and field and potential of point charges |
SE/TE: 520–530, 540–544, 549–553, 572–573 |
| 3. Fields and potentials of other charge distributions |
|
| —a. Planar |
SE/TE: 530–533 |
| —b. Spherical symmetry |
SE/TE: 530–533 |
| —c. Cylindrical symmetry |
SE/TE: 530–533 |
| 4. Gauss's law |
SE/TE: 537–538, 543–544 |
| B. Conductors, capacitors, dielectrics |
| 1. Electrostatics with conductors |
SE/TE: 533–537, 542–544, 557–558 |
| 2. Capacitors |
|
| —a. Parallel plate |
SE/TE: 559–562, 574–576 |
| —b. Spherical and cylindrical |
SE/TE: 559–562, 574–576 |
| 3. Dielectrics |
SE/TE: 562–566, 575–576 |
| C. Electric circuits |
| 1. Current, resistance, power |
SE/TE: 577–600 |
| 2. Steady-state direct current circuits with batteries and resistors only |
SE/TE: 601–616, 627–633 |
| 3. Capacitors in circuits |
|
| —a. Steady state |
SE/TE: 567–570, 575–576 |
| —b. Transients in RC circuits |
SE/TE: 616–619, 630–633 |
| D. Magnetostatics |
| 1. Forces on moving charges in magnetic fields |
SE/TE: 634–643, 662–668 |
| 2. Forces on current-carrying wires in magnetic field |
SE/TE: 644–650, 664–668 |
| 3. Fields of long current-carrying wires |
SE/TE: 650–654, 666–668 |
| 4. Biot-Savart and Ampere's law |
SE/TE: 650 |
| E. Electromagnetism |
| 1. Electromagnets induction (including Faraday's law and Lenz's law) |
SE/TE: 669–688, 695–701 |
| 2. Inductance (including LR and LC circuits) |
SE/TE: 702–722 |
| 3. Maxwell's equations |
SE/TE: 688–689 |
| A. Atomic physics and quantum effects |
| 1. Photons and the photoelectric effect |
SE/TE: 875–883, 898–901 |
| 2. Atomic energy levels |
SE/TE: 886–892, 900–901, 910–920, 926 |
| 3. Wave-particle duality |
SE/TE: 883–886, 902–909, 925–927 |
| B. Nuclear physics |
| 1. Nuclear reactions (including conservation of mass number and charge) |
SE/TE: 928–944, 958–962, 963–977, 987–991 |
| 2. Mass-energy equivalence |
SE/TE: 944–949, 960–962 |
