Lecture: Monday, Wednesday, Friday, 8:00-8:55 in SE 022.
Instructor: Brett van de Sande,
Lab: meets weekly in SE 227;
Textbook: Douglas C. Giancoli, Physics for Scientists and Engineers with Modern Physics. There will be weekly homework and reading assignments from the textbook.
The use of symmetries is a major theme in this course.
I have written up some notes,
Using symmetries for electric and magnetic fields
(pdf).
Grading:
Test 1 | Feb. 13 | 12% | preparation sheet 1 (pdf) | |
Test 2 | March 10 | 12% | preparation sheet 2 (pdf) | (postponed to March 12) |
Test 3 | April 16 | 12% | preparation sheet 3 (pdf) | (postponed to April 23) |
Final exam | May 5 | 24% | final preparation sheet (pdf) | |
Homeworks | 20% | |||
Labs | 20% |
Physics is learned by practice, id est by doing lots of homework problems. Although these homework sets will be graded, it is the responsibility of the student to learn how to solve any problems that were missed, either by asking other students or by asking the instructor. The exams may include a few vocabulary and definition questions, but will strongly emphasize the homework problems. If you master the homework problems, then you should do well on the exams.
I encourage students to work together on the homework problems. It is often helpful to discuss with others how a problem should be solved. However, when you write down the solution to be handed in, it should be in your own words. Don't hand in something that you have copied or that you do not understand. That is cheating.
For both homeworks and exams, solutions should include intermediate steps. If you just write down the answer, even if it is correct, you will not get full credit. Also, don't fall into the trap of just writing down equations; you should always include sentences, as needed, describing what you are doing.
In lecture, we found the electric field produced by an electric dipole for points on the x axis.  For the same dipole, find the electric field for points above the dipole on the z axis.  Give the behavior of the electric field in the limit of large z.  (Hint: use a common denominator.) |