-Paul Hewitt
We observe physics everyday. Everyday phenomena from satellite motion to the morning
dew can be explained using the ideas that do not require mathematical rigor. What
does it mean to be "weightless"? Why do bees buzz? What is radon and why is it
dangerous? Why does it feel hotter when it is humid? You will be able to answer these questions
and many more after taking Physics of Everyday Life. More importantly, you will become experienced in discovering physics as it pertains
to your own experiences and life.
In a traditional physics course, the formal laws of physics are presented in a lecture
and later demonstrated in a laboratory. However, this physics course is not going
to be a traditional physics course. In this course, we are going to combine experience with formal learning during lectures. Physics will be presented by actually doing
and seeing the physics. The traditional lecture is usually a passive experience.
Instead we will use both lecture time and laboratory time for activities and labs.
We will do a lot of learning during class. You will have at your side your classmates
and instructor acting as guides to help you along. Coming to class to both contribute
and receive help is important!
We will work in small groups extensively in this course. Whenever possible we will
do "Activities" which will enable you to use real things to help you visualize and
conceptualize the physics we are studying. Laboratories will also be used to achieve
this goal as well as to learn sound experimental laboratory techniques and methods.
Physics can be a demanding course. One of the rules to succeed is to KEEP UP. You can not slack off for a week and expect to catch up. You have to work
on physics every day. Many things have been built into the course
to help you succeed: group work, BETA groups, experiential learning, computer simulations,
etc. (the Tutoring Center usually has tutors available as well). (In the past, students who miss more than 2 classes usually have found that their
grade suffers).
You will be expected to communicate with me and each other using email. The course
will have its own web page and you are expected
to check the page at least once a week for announcements or other messages. Of course,
we will learn as a class how to do this!
Your learning will depend on what you give and take back from your experiences during
lecture and laboratory time.

Student Role in the Classroom:
Essence of the Course:
a. Objectives:
1. The student will learn how to take a more perceptive view of their physical surroundings
by learning the central ideas, principle, and relationships of physics. 2. The
students will learn how to take hands-on approach to learning which will readily
transfer to the elementary as well as secondary classrooms.
3. The student will learn the "scientific method" - both practically and historically.
4. The student will learn how to communicate physics both through writing and speaking
as it pertains to their own experiences and everyday phenomena.
b. Topical Outline: The text which will be used initially is Conceptual Physics by
Paul Hewitt. It is a respected text for the non-science major. Other possible
texts include:
Physics for Poets, Robert March; Physics as a Liberal Art, James Trefil; Invitation
to Physics, Ken Greider
The course will include selected topics from the sections presented in the textbook:
I.
Mechanics: Motion, Newton's Laws, Momentum, Energy, Gravitation, Rotational Motion,
Special Relativity
II. Properties of Matter: Atomic Nature, Solids, Liquids, Gases
III. Heat: Temperature, Thermal Expansion, Transmission of Heat, Change of State
IV. Sound & Light: Vibration and Waves, Sound, Light, Color, Optics
V. Electricity & Magnetism: Electrostatics, Electric Field and Potential, Electric
Current, Electric Circuits. Magnetism, Electromagnetic Induction
VI. Atomic and Nuclear Physics: Atoms and Quanta, Radioactivity, Nuclear Fission
and Fusion
Physics of Everyday Life is a prerequisite for Patterns of Nature II: Projects in
Calculus and Physics, and is taken as a physical science general education lab course
by a significant number of elementary education majors. (Elementary
Education majors need a specified curriculum
related to NJ core science standards). Therefore,
the following core of material should be included from the above list, however the
extent of coverage is flexible:
The laboratories will emphasize doing and seeing the physics studied in class. There
will be approximately 12 laboratories selected from activities such as (but not limited
to):
1: Free fall: Students will measure their reaction time by catching a ruler that
is dropped.
2: Conservation of Momentum: Collisions
3: Two-dimensional Motion: Projectiles
4: Angular Momentum: Gyroscopes, bicycle wheels and rotating platforms
5: Mechanical Advantage: Pulleys and ramps
6: Archimedes Principle: Buoyancy
7: Pressure and Bernoulli's Principle: Barometers and differences in pressure
8: Sound Waves: Wavelength, frequency, harmonics of sound waves
9: Color Lab: Filters, Addition, Subtraction of Colors
10: Polarization: Half-wave, quarter wave filters and light
11: Optics & the Pinhole Camera
12: Converging and Diverging Lenses
13: Electrostatics: Like and Unlike Charges
14: The Banana Battery
15: Magnetism: Mapping magnetic fields of permanent magnets and electric currents
16: Radioactivity: Radon Monitoring, Activity, Half-life
c. Evaluation Procedures:
Students will be evaluated by exams, laboratory write ups, homework, class participation
(level of participation in small groups, level of contributing everyday physics discoveries,
level of communicating physics to the class)
, and a final.
d. Course Evaluations:
The departmental teaching evaluation form will be used at the end of the course.
An evaluation (anonymous) will also be given to give the students a chance to say
what they like and don't like about the course/methods, as well as what they perceive
"works" and "doesn't work" with the course. This evaluation can be given the first
day, mid-semester, and/or end of semester to see how student perception evolves.
Conceptual Physics, Hewitt 8th Edition
Conceptual Physics Lab Manual, Robinson
Practicing Physics, Hewitt
3.5" Computer Disk (Macintosh Formatted) (you can reformat DOS disks to MAC)

Physics Workshop
Studies have shown that students who study in small study groups perform better than
students who work independently. Students usually find that studying with a group
is a more efficient method of studying - they don't seem to get "hung up or stuck".
When studying in a group, students can pool their knowledge and work together toward
the final answer. Since this is the method used in the "real world," it is a good
idea to learn how to work efficiently in a group and how to use it as effectively
as possible.
There will be a scheduled physics workshop every week. In the past students who regularly
attended workshop had higher homework grades than students who did not. Homework
is 25% of your grade (more than a test). It will make a difference in your final grade.
Workshops will usually be a place where students can work on and compare HW. It is
best to have tried all the problems before coming to workshop so you'll know what
you need help on, and be able to help others. Workshops will also help prepare students
for the 3 exams given during the semester.
The purpose of the workshop is for students to work with students. There will be
a lab monitor present at all the workshops. The monitor's job is to help students
when the group gets "stuck" on the problem. The monitor is not there to do the problem.
In general, the lab monitors will not be given answers to the problems. Monitors are
students who have successfully completed their physics courses and are there to give
their "educated input." Asking the monitor for help should come after the "group"
decides it is stuck. (In the "real world" there are no monitors to go to....)
The goal of this course is to expose students with a non-science background to physics. The students will experience the excitement of physics by examining phenomena of our everyday environment. The historical development of such ideas will be studied as well. Topics selected for study include Mechanics, Matter, Heat, Sound, Light, Electricity, Magnetism, Atomic, and Nuclear Physics. Physics will be communicated conceptually rather than mathematically.