Donald F. Collins
Old 2007 weekly schedule (for reference). The Weekly activities, homework, and daily schedule are posted at the MOODLE site.
[Note: This syllabus is posted on-line at:
http://www.warren-wilson.edu/%7Ephysics/physics2/PhysicsII2007/phy2sylabus.html]
The major goals in Physics I and Physics II are to:
In addition to the above, Physics II emphasizes:
The students will experience the learning of physics mainly through active participation in class, laboratories, and simulations. Lectures will be minimized except when students want further explanations.
Textbook (Required): Physics: Calculus - Second Ed. by Eugene Hecht. Students are expected to read material from the text, work the assigned problems, and to supplement the textbook material with Internet material.
Lab Notebook (Required): Each student will need a quadrille-ruled laboratory notebook for entering laboratory descriptions, data, and summary drafts (no spiral bindings). In addition, the laboratory notebook will be used for problem solving related to each laboratory assignment and occasional in-class peer writing. The student must have the lab notebook for every class and laboratory session, otherwise the student will be required to retrieve it.
Internet account: Each student is required to maintain his/her WWC server account on which to save data. A number of simulations will gain access through the WilsOnLine MOODLE course-management system. The student must have an active WWC e-mail account in order to access this essential part of the course. In addition, each student will compose a web page research paper stored in his/her server account.
Laboratory
- 30% (notebooks for 14 experiments: 14%; 7 lab reports:
16%)
Exams - 40%
Problem solving - 13%
Simulations and on-line activiteis -
10%
Research product published on-line - 7%
Attendance - see classroom protocol
below.
The laboratory material is the primary material regarding the course material. Each week the class activities will be centered around a particular laboratory phenomenon and experiment. The whole class meets as a single group on Monday and Wednesday. Smaller groups meet for "lab" on Tuesday and Thursday. Class time (M, W) will be spent on Interactive Lecture Demonstrations (ILDs), making predictions, illustrating concepts, problem solving assignments, and simulations. Lectures will be minimal, and the lab notebook will be needed at every class meeting.
Lab time (T, Th) will involve written instructions for each week’s
experiment. All the data, calculations, computer output,
graphs, etc. will be entered in the lab notebooks. No loose
papers! The lab
notebooks for each week will be evaluated as "acceptable" or "returned
for improvement" (see below). Only about half the experiments
will be written as reports.
Laboratory - 30%. The large contribution to the
grade from
the laboratory is justified by the fact that half of the class
experience is spent in the laboratory exploring phenomena. The
30% is divided between lab notebooks and lab reports.
14 experiments will be conducted
during the
course. For the lab grade in the course, each student must have
sufficient entries in the lab notebook for each lab (14%). Each
student will write a lab report for 7 the
experiments. (16%)
Lab notebooks - 14%. Each
student must present the laboratory notebook to the professor for
instant evaluation. The notebook will be rated "acceptable" or
"unacceptable", and
the student may re-submit the book after making the adjustments.
The notebook should be acceptable by the end of the Thursday lab
session. If not, the student must complete the notebook by 4:00
pm on Friday at the professor's office. The criteria for
acceptibility include:
Exams - 40%. An exam will be given on every fourth Monday:
Feb. 11; Mar. 10; Apr.14; May 12.
.
The purpose of exams is to motivate the review of concepts
learned in the course, to reinforce the retention of knowledge, and
to build the student's confidence that he/she can perform in a
setting where textbooks are unavailable, and to extend the physics
concepts to a new situation where rote memory does not work. Each
exam will
primarily cover material since the previous exam, but common
analytical techniques will appear in all exams. If necessary,
some material may re-appear on later exams if the material presented
significant difficulty on previous exams.
Problem Solving (13%) Physics II is considerably more
analytical than Physics I. Learning begins with concepts
experienced in the first day of the labs; enhanced by explaining and
summarizing the concepts in each lab summary; and culminates in the
ability to calculate parameters and results to new situations
(problem solving). Numerical problems will be assigned with
each week (due Tuesday). To receive complete credit for a
problem assignment, the student must show and explain the problem
solution to the evaluator. A sheet with only a listing of the
answers is not appropriate. Each problem must be explained
correctly in order to receive credit for the assignment. The
students are encouraged to form teams of 2 - 4 students for the
purpose of problem solving and group learning, but each student’s
solution must be submitted separately.
Simulations and on-line activity
(10%). There will be about 13 simulations that each
student must visit and answer a few simple questions. The
simulations serve to enhance the concepts of the material in the course
- especially dynamical simulations. The simulations
will be accessed through the WilsOnLine
- MOODLE Course Management
System. Each student must enroll in the on-line section of
Physics II during the first week. The course enrollment key is
_____________, which is needed only for the first time. Quizzes
or other on-line activities will demonstrate
that
the students have explored the on-line simulations. The system is
set-up so that students may repeat the exercises as many times as
desired to get a perfect score on each "quiz" without having to report
activity through a cumbersome e-mail system. Students should make
the most of exploring the simulations. The "quizzes" only scratch
the surface. It is also hoped that each student may view his/her
own gradebook progress through the course management system.
Research paper published on- the
Internet (7%). Each student will prepare a 2-4 page
report on
some topic of physics and publish the report as a web site that is
viewable by anyone in the world with Internet access. As with all
research papers these reports must be documented with bibliographies
and sources. The experiments and topics in class should lead to
more extended projects. We will begin these projects about week
10, drafts due on Monday, April 28. The final publication is due
on Wednesday, May 14, 2007.
Possible topics (by no means is this a complete list):
| LED's and color control Lasers X-Rays Photoelectric effect - expand to many modern devices Superconductivity - especially high temperature superconductivity Magnetic levitation Mass spectroscopy The Second Law of Thermodynamics - some aspect of it Greenhouse effect Spectroscopy applications |
Astrophysics Star formation
Speed of lightStar aging and evolution H-R diagrams Variable stars Black holes Cosmology Optical information storage and processing Mechanical oscillations and resonance |
Weekly Activities Outline (see schedule posted on the MOODLE
site.
Monday - Introduce the activities for the new week; Conduct the
activities for the whole group; hour exam every 4th Monday.
Tuesday - Problem solving due for previous week.
Conduct activities in the smaller lab groups. Lab reports and/or
optional e-drafts are due.
Wednesday - Continue with the laboratory activities; answer questions; peer problem solving; peer writing; demonstrations.
Thursday - Finish the experimental activities and analysis; complete
the lab notebooks - no loose papers, include calculations of relative
errors, include a concluding statement, and have the notebook approved
by face-to-face session with the professor.
The topics treated in the course are listed by their laboratories and respective chapters from Hecht.
Topic Textbook Chapter(s) (Hecht)
1. Temperature/Heat transfer Ch. 12, 13
2. First Law of Thermo Ch. 14
3. Thermodynamic Engines Ch. 14
4. High Temperature Superconductivity
5. Harmonic Motion Ch. 10
6. Speeed of Sound, Thermodynamic model. Ch. 11, 14
7. Speectral analysis of Sound, Ch. 11
8. Magnetic Fields and Electron Deflection Ch. 19
9. Speed of Light and laser physics Ch. 22
10. Diffraction and Interference Ch. 25
11. Diffraction grating and spectra Ch. 25
12. X-Ray diffraction Ch. 27, 28
13. Photoelectric effect Ch. 28
14. Electron diffraction Ch. 29
15. Astrophysics H-R diagrams.
Late papers. Late lab summaries and problem solutions will receive a 10% penalty between one day and one week late. No papers will be accepted later than one week past the due date.
Missed and late classes. Because a substantial amount of
physics learning takes place in the classroom, regular attendance is
required. A student is allowed three absences from class
or laboratory activities. No distinction is made between
sickness, field trips, athletic events, Natural Science Seminar
preparation, or goofing off. The only exception will be
extended illness (more than 3 days for a single infirmity or family
emergency), both of which will require documentation. The
academic
work will have to be completed in an extended time on a case-by-case
basis. Lateness to class (between 1
and 30 minutes according to the instructor's watch) will count
as half an absence. Each excessive absence will result in a grade
penalty (2 points out of 100 points) in the final course
score. Students arriving beyond 30 minutes late will be counted
as absent. If the instructor is late, the students
who are waiting in the classroom before the instructor arrives will
receive credit for half an absence.
If a student misses an exam due to sickness or family emergency, then with the presentation of adequate documentation, the student will allowed to make-up the missed exam for full credit. If the missed test results from an alarm clock failure, oversleeping, attending a cousin’s wedding and a delayed flight, then the student will be allowed to make-up the missed exam for 50% maximum credit. Attending a relative’s wedding, participating in athletic event, or other planned event should be pre-arranged with the instructor, especially if there is a chance of transportation delays.
Students are expected to arrive on time and stay in class until the class period ends. If a student knows in advance that she/he will need to leave early, she/he should notify the instructor before the class period begins. Students are expected to treat the instructor and fellow students with respect. For example, students must not disrupt class by leaving and reentering during class, blatantly falling asleep in class, or by eating during class.
Special Needs A student with a diagnosed learning
handicap may request
special arrangements such as additional time for exams, taping class
sessions, taping exam answers, using classmates’ notes, etc. To request
academic accommodations due to a
disability, please contact Deborah Braden, Educational Access
Coordinator at
ext. 3791 or dbraden@warren-wilson.edu. Office location is lower level, Dodge House.
Students are encouraged to
develop ways of coping with special learning needs, but special
requests for accommodations for special needs must be made at the
beginning of the semester with the Educational Access
Coordinator. Do not make requests to the
professor until the special needs have been documented. A
learning-handicapped student is still responsible for learning the
material in the course. The methods of testing and evaluation
may be varied to accommodate the handicapped student.