Kevin L. Haglin, WSB 310, Phone: 308-2012,
haglin@stcloudstate.edu
1400-1450 MTWF, WSB 124
0900-1050 R (Sect. 1), 1200-1350 R
(Sect. 2), 1400-1550 R (Sect. 3), WSB 302
0900-1000 TWF, 1000-1100 MT, 1100-1200 RF,
1300-1400 F, 1500-1600 MW, or by appointment
Course information is available at
http://feynman.stcloudstate.edu/haglin/235
The required text for the course is
``University Physics'', 11th Edition, by Young & Freedman,
Pearson Addison Wesley (2004).
Grades of C or
better in Math 221 and Phys 234; Co-requisite: Math 222.
Physics 235 is the second in
a two-semester sequence of calculus-based introductory physics. Students
continue to develop their scientific problem solving skills and critical
thinking through study of waves, sound
phenomena, electricity and magnetism, and optics.
Physics cannot be learned without
actively . Thinking through the assigned
problems represents exercise for building strong
computational abilities and confidence. You are
encouraged to solve as many end-of-chapter problems as you can.
Written solutions to assigned problems are due the beginnings of the
class periods
identified by the instructor throughout the semester. No
late assignments will be accepted without prior arrangement. Full
credit on the problem sets requires not only the correct answers, but
also a documented logical progression of steps taken.
You are encouraged to work
together if you would like on homework problems and on
laboratory activities. However, each student must prepare her or
his own papers. Furthermore, during the examinations absolutely no
assistance from others is allowed.
There will be three
examinations during the semester. An equation sheet will be supplied
for each exam.
The final examination will be
comprehensive. As with the other exams, an equation sheet will be
supplied.
1
Your grade in this course will be determined
by your performance on the three examinations plus the final
examination, by your diligence and success in working the assigned
problems, and by your performance on laboratory reports.
The weight of each component in determining the final grade is shown
below:
Problem Sets
15%
Labs
20%
(3) Exams
45% (15% each)
Final Exam
20%
The overall grading scale will use the so-called shaded grading (the
pluses and minuses) as indicated below.
A+
98%
A
92%
A-
90%
B+
88%
B
82%
B-
80%
C+
78%
C
72%
C-
70%
D+
68%
D
62%
D-
60%
F
60%
The instructor reserves the right to adjust these numbers
downward at the end of the semester.
If you have difficulty with topics
covered in lecture, with problems from the homework, or other
difficulties, please feel free to visit my office during office
hours. Tutoring is also available in WSB 335 during scheduled times
posted outside the room.
2
Sept. 3
Waves
15
Sept. 10
Sound
16
Sept. 17
Electric charge,
Electric field
21
Sept. 24
Gauss's law
EXAM I, Sept. 28 (Thurs.)
22
Oct. 1
Electric potential,
Capacitance
23, 24
Oct. 8
Materials, Current
24, 25
Oct. 15
Circuits
26
Oct. 22
Magnetic fields and forces
EXAM II, Oct. 26 (Thurs.)
27
Oct. 29
Sources of magnetic fields
28
Nov. 5
Electromagnetic induction
29, 30
Nov. 12
Alternating current
31
Nov. 19
Electromagnetic waves
32
Nov. 26
Geometric optics
EXAM III, Nov. 30 (Thurs.)
33, 34
Dec. 3
Interference
35
Dec. 10
Diffraction
36
FINAL EXAMINATION: Wednesday, December 19, 1300-1530
3
Sept. 3
Standing waves on a string
Sept. 10
Speed of sound in air
Sept. 17
Electric field
Sept. 24
EXAM I
Oct. 1
Capacitance
Oct. 8
Ohm's law
Oct. 15
time constant
Oct. 22
EXAM II
Oct. 29
Charge-to-mass ratio of electron
Nov. 5
Electromagnetic Induction
Nov. 12
AC circuit
Nov. 19
No lab!
Nov. 26
EXAM III
Dec. 3
Thin Lenses
The labs are important as they provide hands-on
experience to
help you understand the physics concepts. You may not miss more than two
labs if you wish to have a passing grade for the laboratory component to
the overall course grade. .
4
Student Learning Outcomes
After successfully completing this course students will be expected
above all else to the following skill set.
That is, students will be expected to ...
in
Identify mechanical waves and distinguish between
transverse and longitudinal modes.
Recognize superposition and normal modes.
Manipulate and calculate properties of sound
Be prepared to compute electric fields and electric
potentials for typical charge distributions.
Use capacitance, resistance, and inductance proficiently
to solve elementary circuit problems and wire them appropriately in the
laboratory.
Recognize sources of magnetic fields.
Visualize and draw magnetic field maps for
elementary current distributions.
Manipulate alternating current, both in the
laboratory and in theoretical exercises.
Present some familiarity with electromagnetic waves
and the electromagnetic spectrum.
Identify basic properties of lenses and mirrors.
Apply optics to elementary situations in everyday life.
Distinguish between the words diffraction and interference
use the concepts to solve optical problems at a beginning level.