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Bridgewater College - Fall 2011 | |
PHYS 308 Modern Physics Course Syllabus |
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Instructor: Dr. Richard L. Bowman |
INDEX
Office: MCK 239 | M, W, F: 10:00-11:30 a.m. | |
M, W, F: 3:00-4:00 p.m. | ||
Other times by appointment or as available | ||
E-mail: rbowman@bridgewater.edu | ||
Phone: 828-5441 |
From the beginning of the 20th Century until the present, a lot of strangely different physics has emerged through experiments and the theoretical models that have helped us to understand the observed phenomena. Some of this has become part of our everyday life so that even persons who are not physicists know and accept such ideas as that particles cannot accelerate to speeds faster than the speed of light and the idea that all of normal matter is composed of electrons and quarks. In addition, lasers are so common that a person can buy a laser pointer for under $10 US. In this course we will explore many of these experiments and theories.
By the end of this course, each student will have:
1. Learned to describe much of the strange behavior of particles as their velocities near the speed of light.
2. Been introduced to the basis for the particle-wave duality of light and particles.
3. Explored some of the quantum mechanical models of how electrons behave in atoms.
4. Studied the basic ideas of solid stat physics.
5. Been introduced to nuclear structure, radioactivity and reactions and the conservation laws involved.
6. Learned something about the menagerie of elementary particles and their classifications and quark compositions.
7. Explored the basic ideas of general relativity.
8. Become acquainted with some of the theories of cosmology.
These goals will be approached through the use of lectures, discussions, and homework assignments. Evaluation of how well a student is meeting these objectives will be accomplished by the grading of quizzes, homework, and exams as described below.
Kenneth S. Krane, Modern Physics, 2nd Edition. Wiley, 1996.
Most of the topics presented in chapters 1-7 and 11-16 will be covered during this semester.
Dates | Week | Topic |
Sept. 7, 9 | 1 | Special Theory of Relativity |
12, 14, 16 | 2 | |
19, 21, 23 | 3 | |
26, 28, 30 | 4 | Particle-Wave Duality |
Oct. 3, 5, 7 | 5 | Introduction to Quantum Mechanics |
12, 14 | 6 | |
17, 19, 21 | 7 | |
224, 26, 28 | 8 | |
31, Nov. 2, 4 | 9 | Solid-State Physics |
7, 9, 11 | 10 | Nuclear Structure and Reactions |
14, 16, 18 | 11 | |
21 | 12 | Elementary Particles |
28, 30, Dec. 2 | 13 | General Relativity |
5, 7, 9 | 14 | Cosmology |
Dec. 13 | Final Exam |
One of the best ways to truly learn physics concepts is through solving problem involving the concepts covered in the class. Thus during the discussion of the material covered each chapter in the textbook, problems will be assigned from the textbook. The instructor will also include instruction in using Mathematica for solving physics problems and will assign additional work that must be done in Mathematica. For the best learning experience, students should attempt to solve these assigned problems first by themselves before seeking assistance from the instructor or fellow students. Straight copying of work from another student is cheating.
Homework | 100 |
Exams (3) | 300 |
Total | 400 |
The first two exams will be on Friday, October 7, and Friday, November 11. The third exam will be over the material covered in the last third of the course and will be given during finals week on Tuesday, December 13, 8:00 a.m.
Final letter grades for the course will be assigned as follows:
Grade | Percentage of Maximum Points |
A | 100-90 |
B | 90-75 |
C | 75-60 |
D | 60-50 |
F | below 50 |
Special Note:
Created and maintained by: Richard L. Bowman (last updated: 9-Sep-11)