Week | Date | Lecture | Topics | Reading Material in Griffiths | This weeks' tutorial |
1 | Sept 6 | 1 | Vector Algebra, Differential and Integral Calculus used in this E&M course | Sections 1.1, 1.2 and 1.3 | vector algebra review, vector calculus review: divergence, curl, integral calculus, Green's/Gauss' Theorem, Stoke's Theorem, Dirac Delta Function, Derivatives in Cartesian/Cylindrical/Spherical coordinates (read Griffiths 1.3, 1.4, 1.5) |
Sept 8 | 2 | Finish off vector calculus review in cylindrical and spherical coordinates. The Dirac delta function. Coulomb's Law, Electric Field due to discrete and continuous charge distributions | Sections 1.5, 1.6, 2.1 | ||
2 | Sept 11 | 3 | Electric field, Gauss' Law, curl and div of E field | 2.2 | |
Sept 13 | 4 | Gauss' Law, Electric Potential, Poisson's eqn, Laplace's eqn | 2.3 | examples using Gauss' Law and Coulomb's law to calculate E field | |
Sept 15 | 5 | Electrostatic Boundary Conditions, Electrostatic Energy | 2.3, 2.4 | ||
3 | Sept 18 | 6 | Conductors | 2.5 | |
Sept 20 | 7 | Laplace's equation, Uniqueness Theorem Solutions to Laplace's eqn | 3.1 | conductors, capacitors and examples | |
Sept 22 | 8 | Method of Images | 3.2 | ||
4 | Sept 25 | 9 | Solving Laplace's eqn, Method of Separation of variables, Fourier series, examine in Cartesian coordinates | 3.3 | |
Sept 27 | 10 | Laplace's eqn, Separation of variables, examined in spherical coordinates | 3.3 | examples using Method of Images, Solutions of Laplace's eqn, review of Fourier analysis | |
Sept 29 | 11 | Multipole Expansions | 3.4 | ||
5 | Oct 2 | 12 | Dielectrics, Polarized materials | 4.1 | |
Oct.4 | 13 | Polarization and bound charges & Wimshurst Generator demo | 4.2 | Dipoles, polarization, examples | |
Oct.6 | 14 | Electric Displacement, D & Van de Graaf Generator demo | 4.3 | ||
6 | Oct.11 | 15 | Linear Dielectrics | 4.4 | review for Midterm Exam 1 |
Oct.13 | MIDTERM EXAM #1 - covers all material Chapters 1-3 Griffiths | Chapters 1,2,3 | |||
7 | Oct.16 | 16 | Linear Dielectrics | 4.4 | Do MIDTERM EXAM #1 in tutorial |
Oct.18 | 17 | Lorentz Force, Magnetic field due to moving charge. (Current carrying wire in B field demo.) | 5.1 | ||
Oct.20 | 18 | Biot-Savart Law, Relativity and E&M (Capacitors - Big Bang Demo) | 5.2, 12.3 | ||
8 | Oct.23 | 19 | Cyclotron Motion, (Particle accelerator demo), Biot-Savart Law | 5.1, 5.2 | examples from dielectrics and examples using Biot-Savart and Ampere's Law |
Oct.25 | 20 | Biot-Savart Law, Ampere's Law | 5.3 | ||
Oct.27 | 21 | A, the vector magnetic potential, boundary conditions, magnetic multipole expansion | 5.4 | ||
9 | Oct.30 | 22 | Magnetic fields in matter, paramagnetism, diamagnetism | 6.1 | magnetic dipoles & examples |
Nov.1 | 23 | Magnetization and bound currents, the H field | 6.2, 6.3 | ||
Nov.3 | 24 | Guest lecture by Jens Schmid on magnetic shielding | Ch 6 | ||
10 | Nov.6 | 25 | Magnetic properties, Ferromagnetism | 6.4 | motors/generators |
Nov.8 | 26 | Ohm's Law, Electromotive Force, Faraday's Law. demos: DC motor, AC/DC generator | 7.1 | ||
Nov.10 | 27 | Faraday's Law, Particle accelerators | 7.1,7.2 | ||
11 | Nov.15 | 28 | Induction, Mutual Inductance, Self Inductance, circuits | 7.2 | Review for Midterm Exam 2 |
Nov.17 | MIDTERM EXAM #2 | Chapters 1-5 | |||
12 | Nov.20 | 29 | Maxwell's eqns summary, displacement current, wave equation, Magnetic monopoles? Demo:mutual induction | 10.1, 7.3, 7.4 | Do Midterm Exam 2 in tutorial |
Nov.22 | 30 | Electric and Magnetic Potentials in electrodymanics, Eddy currents. Demos:eddy currents | 7.1, 7.4 | ||
Nov.24 | 31 | Gauge transformations, Transformers, Demos: Tesla Coil and Nail-Frying Transformer | 10.1, 7.1, 7.2 | ||
13 | Nov.27 | 32 | Feynman's Paradox, Conservation of Energy and Momentum in E&M Fields, Poynting Vector. Demo: Eddy currents/levitating disk | 7.2, 8.1,8.2 | Flash Review of Entire Course ! |
Nov.29 | 33 | Maxwell's Stress Tensor, E&M waves | 8.2, 9.1, 9.2 | ||
Dec.1 | 34 | Special Relativity and E&M in 4-vector/tensor notation | 12.3 | ||
Dec.9 | FINAL EXAM, Saturday at noon: 3 hour final. 6 questions. Choose 5 of 6, or try all 6 and your best 5 count. Covers all material in Chapters 1-8. |