PHYSCS 174                    Introductory Physics III                    Fall 2007

Course Webpage: Log into D2L via the UW-Whitewater main webpage (www.uww.edu)

Instructor: Dr. Adam Tregre
Office:
156 Upham Hall
Phone
: 262 472-5116
E-mail
: tregrea@uww.edu
Office Hours:
   MF
10am-12pm, 1pm-2pm

 Other hours may be available by appointment. Please note that I am not on campus on Tuesdays or Thursdays.

Course Prerequisites: PHYSCS 172 is a prerequisite, MATH 254 is a corequisite.

Required text:
(available at Text Rental)

Physics for Scientists and Engineers with Modern Physics, Serway & Jewett, Vol. 2, 6th edition

Other required materials:

Clickers available from University Bookstore. You will need to register your clicker on line at http://clickers.uww.edu. We will do a dry run of clickers next class period. Starting the following week you will be expected to have your clickers every class period.

Scientific calculator, graphing capability is not necessary. You might also wish to buy a Texas Instruments TI-30X IIS calculator to get used to using the same calculator as will be provided during the exam.

Recommended materials:

• Student Solutions Manual & Study Guide for Serway & Jewett’s Physics for Scientists and Engineers with Modern Physics, Volume 2 by J.R. Gordon, R. V. McGrew, & Raymond A. Serway (ISBN 0-534-40856-7). Copies of this guide will be available in my office, in the Society of Physics Students room (Upham 155), and on reserve at Andersen Library.

Web Site for Textbook:

http://www.brookscole.com/cgi-brookscole/course_products_bc.pl?fid=M20b&product_isbn_issn=0534408427&discipline_number=13

University of Illinois-Practice Exams:   

http://online.physics.uiuc.edu/courses/phys211/fall04/practice/

Course Objectives: Introductory Physics III is the conclusion of the calculus-based course sequence designed for science majors. The principle objectives are:

 

 

Attendance: It is a disadvantage to miss any lectures because the lectures, demonstrations, and in-class activities will greatly enhance your ability to understand the material. There will be daily questions done in class that are worth points. If you are ill, please contact me before class to make arrangements to make up in-class work. Otherwise, you will lose the points for any day you are absent. Late exams are not allowed, but in special cases you may take an exam early.

Grading policy: The grade you earn in this class will be based upon the five assignment types listed below. The maximum percentage for the class is 100% (not counting extra credit). A grading scale is given below for your reference. You can use the score below to determine your guaranteed grade. At the end of the course, if four people have not earned an A with the grading scale below, the grading scale will be uniformly slid downward so that four people earn A’s. For example, if the fourth highest score in the class is an 85%, then the grading scale becomes A (85-100%), B (75-84%), C (60-74%) and so on.  Grades are not curved, encouraging you to work together, but I expect each student to hand in their own work. 

 

Grading Scale

 

Grade Breakdown

Letter

Score

 

Assignment

Weight

A

90-100

 

Midterm exams

30%

B

80-89

 

Final exam

20%

C

65-79

 

Homework

20%

D

50-64

 

Labs

20%

F

0-49

 

Participation

10%

 

 

Exams (3 exams each count for 10% of class total ): Midterm exams are scheduled for Oct 8 (Mon), Nov 7 (Wed), and Dec 7 (Fri).

Final exam (20% of class total): The comprehensive final exam is on Friday, December 14 at 7:45am.

Homework (20% of class total): Homework will generally be due at 11 PM on Thursdays; any written part will be due on Fridays. The homework will be turned in on-line using a web-based system developed at the University of Illinois/Urbana-Champaign and served off a computer at UW-Madison. For each homework, there are two due dates to keep in mind. To receive full credit, the homework must be completed by the assigned due date. Homework completed after the assigned due date, but before the second due date will be awarded 80% credit. No credit is given for homework completed after this second due date. You may work a problem as many times as you like and only the highest grade is recorded in the gradebook. You can never lower your score by reworking a problem.

 Note that the homework questions have their own point system. To convert from homework points to class points: 

Class percentage= (homework points earned)/(total homework points)*20%

You should consider the homework the minimum number of problems needed to understand the material. I recommend that you work out at least five additional problems for each chapter from the text. The answers to odd problems are provided and I have the solutions to even problems as well.

Discussion (5% of class total):  Class participation scores will be via clickers.

                                    Class points= (discussion points earned)/(total homework points)*100

Preflight quizzes (5% of class total):  Before every lecture, you will have a series of questions to answer (“preflight”) on your reading assignment for that lecture. Your answers must be submitted by 11 AM the day of the lecture. If for some reason you can’t get a computer connection, you can print out the questions and turn in your answers at the beginning of class. I will be using your preflight answers to put together my lecture so please do the best job you can. Your grade comes from turning in the preflight, not for whether you get the answers right. After the preflight is closed, you can check the form for the correct answers.

Labs (20% of class total): I will also be your instructor for the lab section of this course, and will give you a separate syllabus covering this section of the course, and how the grades will be assigned.

Extra Credit (maximum of 2.5% of class total): The Physics department will be arranging a series of colloquium on Fridays (see the Physics department website). You can receive extra credit by attending these talks and turning in a half-page single-spaced summary (either written or typed) of what the talk was about and what you learned. Each report will earn 5 extra credit class points. You can receive no more than 25 extra credit points during the semester. For those of you unable to attend these talks/events, you can receive extra credit by doing some research and writing up the solution to an alternate set of questions that will be posted to the course News page.

How to do well in this course: 50% of your grade in this course comes from exams, so it is important to make sure that you prepare properly for the exams. I will be providing additional help/pointers as the first exam draws near. But note that 50% of your grade is completely under your control. If you start your homework promptly, turn in all your preflights, and do all of the class activities, there’s no reason why you can’t get 100% on this part of the course. You will seriously hurt your grade if you don’t turn in the homework, preflights, and attend the classes/in-class activities.  

Returned Papers: I will return assignments to the class after they have been graded. If you do not pick up your assignment on that day, old assignments will be stored in a clearly labeled box stored in the new SPS (Society of Physics Students) room: Upham 122. This room is heavily used by physics majors, and will generally be open during the day.

Course Schedule:  This course will cover Chapter 23 through Chapter 39 of the book, covering electricity and magnetism, light and optics, and modern physics. The tentative topic schedule, homework deadlines, and pre-flight question deadlines are given on the on-line course planner. 

Special needs statement: Students with special needs should contact the instructor to make appropriate arrangements.

The University of Wisconsin-Whitewater is dedicated to a safe, supportive and non-discriminatory learning environment. It is the responsibility of all undergraduate and graduate students to familiarize themselves with University policies regarding Special Accomodations, Misconduct, Religious Beliefs Accomodation, Discrimination and Absence for University Sponsored Events. (For details please refer to the Undergraduate and Graduate Timetables; the Rights and Responsibilities section of the Undergraduate Catalog; the Academic Requirements and Policies and the Facilities and Services sections of the Graduate Catalog; and the Student Academic Disciplinary Procedures [UWS Chapter 14]; and the Student Nonacademic Disciplinary Procedures [UWS Chapter 17].)

 

WEEK

Day

Date

 

 

 

 

 

 

 

TOPIC

LECNO

CHAPTER

PAGES

1

Wed

5-Sep

Course Introduction

1

 

 

 

Fri

7-Sep

Coulombs Law

2

23.1-23.3

707-715

 

LAB

 

 

 

 

 

2

Mon

10-Sep

Electric Fields with Calculus

3

23.4-23.5

715-723

 

Wed

12-Sep

Motion of Charged Particles

4

23.6-23.7

723-729

 

Fri

14-Sep

Gauss's Law

5

24.1-24.2

740-745

 

LAB

 

Electric Field Mapping: Numerical Techniques

 

 

 

3

Mon

17-Sep

Application of Gauss' Law

6

24.3-24.5

746-754

 

Wed

19-Sep

Electric Potential I (*)

7

25.1-25.4

763-774

 

Fri

21-Sep

Electric Potential II

8

25.5-25.8

774-784

 

LAB

 

Electric Potential Maps: Experimental Methods

 

 

 

4

Mon

24-Sep

Capacitance

9

26.1-26.3

796-806

 

Wed

26-Sep

Capacitor Storage

10

26.4-26.5, 26.7

807-814, 817-820

 

Fri

28-Sep

Resistance and Power (*)

11

27.1-27.5

823-849

 

LAB

 

Capacitors and Resistors

 

 

 

5

Mon

1-Oct

DC Circuits

12

28.1-28.2

859-869

 

Wed

3-Oct

Kirchoff's Laws

13

28.3

869-873

 

Fri

5-Oct

Exam 1 Review

14

 

 

 

LAB

 

DC and RC Circuits (Read Ch 28.4-28.6)

 

 

 

6

Mon

8-Oct

Exam 1 (Ch 23-28)

 

 

 

 

Wed

10-Oct

B fields and forces(*)

15

29.1-29.3

895-907

 

Fri

12-Oct

B fields and particles

16

29.4-29.6

907-916

 

LAB

 

Charge to Mass Ratio for an Electron

 

 

 

7

Mon

15-Oct

Ampere's Law

17

30.1-30.3

927-937

 

Wed

17-Oct

Magnetic Flux and Displacement Current

18

30.4-30.7

938-944

 

Fri

19-Oct

Magnetism in Matter and the Earth

19

30.8-30.9

944-954

 

LAB

 

Magnetic Field Maps: Experimental Techniques

 

 

 

8

Mon

22-Oct

Faraday's Law

20

31.1-31.3

968-980

 

Wed

24-Oct

EMFs and Generators

21

31.4-31.7

981-989

 

Fri

26-Oct

Inductance

22

32.1-32.4

1004-1014

 

LAB

 

Introduction to the Oscilloscope

 

 

 

9

Mon

29-Oct

RLC Circuits

23

32.5-32.6

1015-1022

 

Wed

31-Oct

AC Circuits and Phasors

24

33.1-33.5

1034-1047

 

Fri

2-Nov

AC Power and Resonance

25

33.6-33.9

1047-1057

 

LAB

 

Alternating Current Circuits

 

 

 

10

Mon

5-Nov

Exam Review

26

 

 

 

Wed

7-Nov

Exam 2 (Ch 29-33)

 

 

 

 

Fri

9-Nov

E&M Waves

27

34.1-34.6

1067-1082

 

LAB

 

Geometric Optics (Read Sec 36.4)

 

 

 

11

Mon

12-Nov

Interference I

28

37.1-37.4

1177-1187

 

Wed

14-Nov

Interference II

29

37.5-37.7

1188-1197

 

Fri

16-Nov

Diffraction

30

38.1-38.3

1206-1216

 

LAB

 

Laser Optics (Read Sec 38.4)

 

 

 

12

Mon

19-Nov

Polarization

31

38.6

1225-1232

 

Wed

21-Nov

Quantum Photons

32

40.1-40.2

1285-1297

 

Fri

23-Nov

THANKSGIVING BREAK

 

 

 

 

LAB

 

THANKSGIVING BREAK

 

 

 

13

Mon

26-Nov

Quantum Particles

33

40.5-40.8

1301-1311

 

Wed

28-Nov

Bohr Model

34

42.1-42.4

1352-1364

 

Fri

30-Nov

Quantum Numbers

35

42.7-42.10

1374-1389

 

LAB

 

Atomic Spectroscopy

 

 

 

14

Mon

3-Dec

Nuclear Physics

36

44.1-44.3

1441-1452

 

Wed

5-Dec

Radioactive Decay

37

44.4-44.6

1452-1465

 

Fri

7-Dec

Exam 3 (Ch34, 37-38, 40, 42, 44)

 

 

 

 

LAB

 

Exam Review

 

 

 

15

Mon

10-Dec

Quarks

38

46.1, 46.4, 46.9

1512-1513, 1518-1520, 1529-1532

 

Wed

12-Dec

The End of Physics

39

No reading

No reading