AP PHYSICS 377 Syllabus
Instructor: Dr.
Office: Room 21
Contact: 884-9126 (office)
249-1362 (home)
E-mail: RWilli@hra.org
Web: http://www.hra.org/~rwilli
Textbook: Serway
& Faughn: College Physics, 6th
Ed.,
Course Description:
A college level physics course exploring the relationships between matter and energy in nature with applications in daily life. The emphasis is on problem solving and lab data interpretation. Topics include: mechanics, gravitation, light, sound, waves, electromagnetism, thermodynamics, special relativity, atomic, and nuclear physics. Students will perform experiments and write lab reports interpreting their lab experiences.
Course Objectives:
·
To guide students
into an exploration of the cause-effect relationships in nature manifest in
physical laws
·
To encourage
students to recognize physics in their daily lives (sports, weather, cell
phones, cars, etc.)
·
To provide a
broad base exposure to modern scientific theories and their technological
applications
Methods of Instruction:
·
Lectures covering major concepts with simple problem solving examples
and strategies.
·
Classroom discussions and interactive problem solving activities
·
Lunch time help-sessions (available for one-on-one instruction with
students in all sections).
·
Use of audio-visual equipment (computer screen projector, laserdisk, videos, etc.).
·
Use of demonstrations (including virtual demos: internet java physics
sites).
·
Laboratory experiments to reinforce concepts behind abstract
mathematical formalism.
Grading/Student Evaluations:
Students
will be evaluated based on their cumulative Lab, Quiz, Test and Exam averages.
The
weighting of each course component has been adjusted so that in the first
Semester, a maximum of 40 points are earned in each grade period (quarter),
with the mid-term exam worth 20% of the Semester I grade. In AP physics
there is no final exam (the end of year AP exams do not affect course grades),
so the Semester II grades are weighted with a maximum of 50 points in each (3rd and 4th)
quarter (see below). The final course grade will be determined from the average
of the Semester I and Semester II grades. The precise method of
determining the grades is summarized below:
Semester I
Semester I Grade% = 0.4*(1st
Quarter% + 2nd Quarter%) +
0.2*MidTermExam%
Semester II
Semester II Grade% = 0.5*(3rd Quarter% + 4th Quarter%)
Final Grade% = ½ (Semester I Grade%
+ Semester II Grade%)
++ Lab grades will be determined based on the quality
of lab
reports in each marking period. Guidelines
for lab reports will be discussed in class. Lab reports are due exactly one
week before the last day of each marking period.
1st Quarter: Quiz 1.1 Sept. 18
Quiz 1.2 Oct. 12
Test 1 Oct. 20
2nd Quarter: Quiz 2.1 Nov. 15
Quiz 2.2 Dec. 1
Test 2 Dec. 11
Mid Term Exam: Thursday, Dec. 14th
3rd Quarter: Quiz 3.1 Jan. 26
Quiz 3.2 Feb. 22
Test 3 Mar. 1
4th Quarter: Quiz 4.1 Apr. 2
Quiz 4.2 Apr. 30
Test 4 May 4
***** AP Physics Exam: Monday,
May 14th *****
1st Quarter: Reports
Due Friday, October 13
Lab 1.1 Vector Nature of Forces: Static equilibrium of coplanar forces;
Graphical and algebraic construction of vectors.
Lab 1.2 Newton’s 2nd Law: Air track/Atwood machine.
2nd Quarter: Reports
Due Tuesday, December 5
Lab 2.1 Conservation of Energy and Linear Momentum: (2-Dim Elastic Collision).
Lab 2.2 Conservation of Energy and Linear Momentum: (Video Measurement).
3rd Quarter: Reports
Due Friday, February 23
Lab 3.1 Thermodynamics: Calorimetry,
Specific Heat, Heat of Fusion, Conduction.
Lab 3.2 Thermodynamics: Ideal Gas Law (Virtual Lab).
4th Quarter: Reports
Due Wednesday, May 16 (Seniors Fri. May 4)
Lab 4.1 DC Circuits: Series/Parallel Resistors & Capacitors (Kirchoff’s
Rules);
Voltage, Current, Power.
Lab 4.2 Thin Lens Optics: Real/Virtual Images;
Apparent Depth,
Refraction/Diffraction/Dispersion.
Course Outline:
I.
Newtonian Mechanics
A. Kinematics (including
vectors, coordinate systems, displacement, velocity, acceleration)
1. Motion in
1-Dimension (graphical representations; slope/area connections)
2. Motion in
2-Dimensions (projectile motion, uniform circular motion)
B. Newton’s Laws of Motion
1. Static
Equilibrium.
2. One body
systems (applications of 2nd law)
3. Two body
systems (applications of 3rd law)
C. Work, Energy, Power
1. Work-Energy
theorem
2. Conservative
forces and potential energy
3.
Conservation of energy
4. Power
D. Systems of Particles/Linear
Momentum
1. Impulse and
momentum
2. Conservation
of linear momentum (collisions)
E. Rotation/Angular Momentum
1. Torque
(rotational acceleration and equilibrium)
2. Moment of inertia
3. Angular
momentum (conservation of angular momentum)
F. Oscillations (Periodic
Systems)/
1. Simple
harmonic motion
2. Mass on a
spring
3. Pendulum
4. Universal Law
of Gravitation (orbits, Kepler’s Laws)
II.
Heat, Kinetic Theory, and Thermodynamics
A. Temperature and Heat
1. Specific and
latent heat (calorimetry).
2. Heat transfer
(
3. Thermal
expansion
B. Kinetic Theory and
Thermodynamics
1. Ideal gases
2. Laws of
thermodynamics (Carnot cycle, heat engines, entropy)
III.
Waves and Optics
A. Wave motion
1. Traveling and
standing waves
2. Doppler effect
3. Superposition
(resonance)
B. Physical Optics
1. Geometric
Optics (reflection/refraction with mirrors and lenses)
2. Interference
and diffraction
3. Dispersion of
light and electromagnetic spectrum
IV.
Electricity and Magnetism
A. Electrostatics
1. Charge,
field, potential
2. Coulomb’s law
B. Conductors, Capacitors
and Dielectrics
C. Electric Circuits (equivalent
resistance, capacitance, steady state power)
D. Magnetostatics
1. Forces on
moving charges in magnetic fields
2. Forces on
current carrying wires in magnetic fields
3. Magnetic
fields of long current carrying wires (Ampere’s Law)
E. Electrodynamics
1. Faraday’s law
of induction (AC/DC motors and generators)
2. Lenz’s law
(polarity of induced EMF)
V.
Modern Physics
A. Atomic physics and quantum
effects
1. Photons and photoelectric
effect
2. Bohr model of
Hydrogen (energy levels, transitions)
3. Wave-particle
duality
B. Nuclear Physics
1. Radioactivity
and half-life
2. Nuclear
reactions (conservation of baryon number, charge)
3. Electroweak
unification (W+-, Zo particles)
4. Quarks and
leptons (color, gluons, strong interactions)
C. Special Relativity
1. Postulates of
special relativity (universal laws and invariance of speed of light)
2. Length
contraction and time dialation (twin paradox)
3. Relativistic
energy and momentum
Academic Conduct/Honor Code
Students
are expected to respect themselves and others at all times with appropriate
behavior, dress, language, honesty, etc.
The student honor code must be strictly obeyed at all times. Cheating or any other misconduct (eg. plagiarism) will not be tolerated.