Course Web Site and Preliminary Syllabus


Introductory Physics Calculus-Based

Physics 211 (Section 1) and 212 (Section 1), Engineering Physics I/II: University of Idaho: 2009 Fall

Don't Panic.
This is so cool.
Unchain your inner nerd.
In science, we are slaves to the truth---only error can set us free.

The course mottos: very reassuring I think.

Sections

  1. Instructor Information
  2. Syllabus Items
  3. Tentative Schedule I: This is for Physics 211.
  4. Tentative Schedule II: This is for Physics 212.
  5. University Sites of Relevance
  6. Teaching & Learning Strategies

Warning: This syllabus is subject to change at the discretion of the instructor. Any changes will be announced in class as well as made on this page.

M31 (Andromeda Galaxy) and Moon



  1. Instructor Information
  2. Instructor:
    Dr. David Jeffery, Engineering/Physics Building, Rm 315, Tel: 208-885-6099, Email: jeffery@nhn.ou.edu, Office hours: as on the instructor's schedule. (If you need to see the instructor for sure, make an appointment. I'm usually happy to see students at any time that I'm relatively free.)


  3. Syllabus Items
    1. Jump in with QUESTIONS? at any time, of course---this applies to the whole course.

    2. Course Web Site: The course web site URL is

      http://physics.nhn.ou.edu/~jeffery/course/c_intro/intrc.html

      which is the page you are maybe viewing right now. This page is the preliminary syllabus and includes syllabus items and the tentative schedules: Tentative Schedule I for 211 and Tentative Schedule II for 212.

      This page is/will be/may be linked from the official physics department course web page.

    3. Place and Time:

      1. Physics 211, Section 1: Engineering/Physics (EP) 122, MWF 9:30--10:20.

        Physics 212, Sections 1 and 2: Engineering/Physics (EP) 216, MWF 12:30--1:40 (1) and 1:30--2:40 (2). (I don't teach these courses.)

        Both as per the Physics schedule.

      2. Note physics laboratories are separate courses with separate instructors---I have no responsibility for them in my role as lecture course instructor---I may in addition be a lab instructor occasionally.

        They are only approximately coordinated with the lecture class.

        No labs in the 1st week of a regular semester. For the summer semester check with your lab instructor.

      3. But there is a voluntary recitation period with the course.

          NO RECITATION IN THE FIRST WEEK OF CLASSES.

          NO RECITATION FOR SUMMER CLASSES.

        Physics 211: Recitation: EP 204, W, 4:30--5:30, Leader: Dinesh.

        Physics 212: Recitation: EP 122, ???, ???, Leader: ???.

        Unfortunately, the recitations are NOT marked on any UI schedule that I can find.

        The recitation periods are NOT in the regular classroom as you can see.

        The course instructor may also be present for some recitation periods for awhile.

        Recitations leader will probably/may mostly run things in group mode: students work in groups on problems and the leader will circulate and facilitate.

        Probably there will be a concentration on getting homework problems answered.

        Group study among students both in recitation and out is great.

        As always, students are encouraged to help each other with material and homework problems.

        But there should be NO straight copying from each other---helping a person through all the steps and comparing answers is good---straight copying is bad.

        Students ideally should get most/all problems done BEFORE the recitation, but undergraduates pioneered just-in-time delivery before anyone else.

        I try to make the homeworks due the class day at 4:00 pm after recitation, but that does not always work out.

    4. Tutoring Help Available: The Physics Department provides scheduled tutoring by TAs in EP 309: the schedule may still need updating for this semester.

        NO PHYSICS DEPARTMENT TUTORING FOR SUMMER CLASSES.

      There is also the Tutoring and Academic Assistance Programs (TAAP), Commons, Rooms 322 and 327. This program offers small group tutoring for students. You can sign up for an existing group or request a new group. Intro physics courses typically have existing groups after a short period into the semester.

        NO TAAP FOR SUMMER CLASSES????.

      This is really a pretty good deal. Group work is very effective and social.

      Ideally students should have their own informal groups in addition to any formal groups, but sometimes it's hard to get to know people and TAAP supplies a warm, fuzzy tutor.

    5. Prerequisites/Corequisites: As specified in the online Physics Course Descriptions.

    6. Breaks: No breaks for 50-minute lectures.

        But for 70-minute summer lectures, we will probably usually take a 5-MINUTE BREAK at the 40-minute mark or so.

    7. Textbook: Serway, Physics for Scientists and Engineers, Chapters 1--39, 7th edition. See Serway for more help.

        Note Serway, Physics for Scientists and Engineers, Chapters 1--39, 6th edition is almost the same text.

        Chapters 6 and 7 look a little remixed and some other sections might be changed a bit.

        In terms of content using a 6th edition would be fine.

        But you will have to adjust to the fact that sections might be a bit re-ordered.

        Also problems might be changed or re-ordered.

        This is no difficulty for any Physics 211,212,213 courses I teach, since I use my own problem bank and do NOT rely on the textbook problems. But other instructors may assign homework questions from the textbook. So if you need to take other courses in the Physics 211,212,213 sequence, you may have to get the questions from someone else which could be a hassle.

        With respect to the actual topics covered, virtually all intro physics textbooks with calculus from the last 30 years if not 50 years are adequate. With enough adaptations on the student's part almost any of these would do.

        Serway is a pretty good book.

        It's a bit on the expensive side, but most of you will use it for the three course sequence Physics 211,212,213, and so you can imagine that it's price is divided by three if that helps any.

        It has lots of words and boxes and examples and stuff.

        To old-timers (e.g., yours truly), it's a bit over-busy.

        For Physics 211, we are planning to cover chapters 1--15, omitting chapter 14 and probably 12. See the Tentative Schedule I below.

        For Physics 212, we are planning to cover chapters 23--34. See the Tentative Schedule II below.

        A comparable textbook Tipler ``Physics for Scientists and Engineers'' has been put on reserve at the library. It can be checked out for 2 hours for reading.

        No extra Serway was available and Tipler covers all the same material in about the same order. All intro physics textbooks are much the same.

    8. Online Notes:

      For Physics 211, the instructor's notes for each chapter of Serway are available online on Tentative Schedule I

      For Physics 212, the instructor's notes for each chapter of Serway are available online on Tentative Schedule II

      The notes are in pdf format.

      Most are handwritten and are of variable legibility and are NOT updated.

      The handwritten ones for Physics 212 are not so bad; those for Physics 211 are not so good.

      Some chapters have latex-ed notes which in various stages of underconstruction---from next to nothing to complete.

      Some semester down the road---way down the road---there will be complete latex-ed notes for all chapters.

      The notes correspond to the chapters of Serway pretty much with a few minor deviations.

      However, I have sometimes rearranged the topics in a chapter to suit my best understanding of their logical ordering.

      It's suggested that you-all download those before they are covered in class and add your own additional notes on them during the lectures.

      But you don't need to do that or to take any notes.

      The textbook Serway covers virtually all the material you need to know in courses Physics 211,212,213 .

      If you knew the book really well, you'd hardly need the notes.

      But notes and Serway are complementary.

      It does help to have alternative sources.

    9. Nature of the Course: This is a course of intro physics calculus-based.

      We will learn some physics.

      At this level physics is rather abstract and idealized.

      We deal with ideal motions, ideal point masses, ideal surfaces, ideal monkeys, ideal systems, ideal charge structures, ideal electric field structures, ideal circuits, ideal optical systems.

      Many real everyday motions and systems are much more complex than the cases we deal with: just think about walking, bike riding, skipping rope.

      In particular, real everyday motions usually involve resistive media and surfaces. We discuss those resistive forces a bit and consider friction and maybe fluid resistance.

      The point of studying such ideal systems is to understand them in terms of the very basic laws of classical physics---pre-20th century physics in terms of discovery, but still very useful in practice.

        Those basic laws are NOT obvious---they are usually hidden in the complexity of everyday motions and systems that we deal with empirically---learnt by trial and error to oversimplify---and usually very effectively.

        You don't need know intro physics to walk, ride a bike, or play catch---or to turn on your lights.

        Moreover, the oceans were sailed west by Columbus, east by the Polynesians, and pyramids and cathedrals were build and all without knowing intro physics.

        But you do need to know it---and whole lot more---to design a rocket ship or a CD player.

        You can only get so far by empirical means alone.

        Note the ``alone'': empirical means are still essential.

      Using these basic laws, systems much more complex than ideal ones can be analyzed---they can be analyzed from first principles---or at least basic principles.

      But first we do the ideal problems---how can you do the real problems, if can't do the ideal ones?

      Now some people in his course may not go on to advanced physics or engineering.

      But you will go on to advanced something---and an improved understanding how to analyze and predict from basic principles will be a boon---for many students, it may be the most important feature of this course.

      That is the empowerment of intro physics.

      Of course, studying intro physics is enlightening.

      It helps understanding eternity and infinity.

      ../../astro/astlec/lec000/infinity_eternity.png Eternity and infinity from our small platform.

      As well as understanding home.

      Earthrise Earthrise from Apollo 11, 1969jul16. Credit: NASA.

      There is some math in this course.

      Quite a bit actually---but that's good.

      You-all are all in programs that need math skills.

      Many of you already know some calculus.

      But since many people in Physics 211 are taking calculus as a corequisite, the tools of calculus are introduced gradually into our developments and problems.

        Beware---sometimes we get a little ahead of the calculus course. We will give introductions to techniques when it seems necessary.

        Calculus courses tend to start off doing limit theorems, and and we need in physics are derivatives and integrels.

      For Physics 212, the necessary tools of calculus are considered known although short reviews will occur as needed.

      Alien consigning math to the flames Not in this course.

      It's no surprise to you that this is a pretty hard course.

      But as I always say, it's nothing like organic chemistry.

        In the SUMMER COURSE, there's the mindnumbing monotony of 5 days a week for 8 weeks.

        But one just accepts that and digs in for the long haul.

        If you are doing both the lecture and corresponding lab course in the summer, then you are doing about 9 hours in class.

        You should do about 2 hours out of class for every hour in class.

        This means about 25 hours per week.

        Basically a half-time job.

      But there are no essays and no term-length projects.

      The math is really never more than simple algebra and calculus---if you find yourself doing a page of calculations, you are way off the path.

      The hardness is conceptual.

      Understand the concepts---and that's often hard---and the rest is relatively easy.

      When confronted with a problem, recognize the concepts needed for a solution, and then you should know or be able to find the right equation and then do the algebra in usually just a couple lines.

      There will a fair number of DERIVATIONS in this course---no apologies.


        http://upload.wikimedia.org/wikipedia/commons/d/d4/Woman_teaching_geometry.jpg

        Caption: "Detail of a scene in the bowl of the letter 'P' with a woman with a set-square and dividers; using a compass to measure distances on a diagram. In her left hand she holds a square, an implement for testing or drawing right angles. She is watched by a group of students. In the Middle Ages, it is unusual to see women represented as teachers, in particular when the students appear to be monks. She may be the personification of Geometry. Illustration at the beginning of Euclid's Elementa, in the translation attributed to Adelard of Bath. Year: 1309--1316, France (Paris)."

        Credit: Unknown 14th century artist, posted by User: Leinad-Z:

        Linked source: Wikipedia image http://en.wikipedia.org/wiki/File:Woman_teaching_geometry.jpg.

        Public domain at least in USA.


      And usually the DERIVATIONS won't be tested in a direct sense---but I've been known to throw a derivation question onto a exam.

      But the DERIVATIONS are part of the course and you are expected to understand them---you should review them as they are presented to make sure you do---and understanding them will help with the tested material.

      I am trying to convince you NOT to take the seemingly easy path of just trying to memorize a trick for every problem you see.

      I am trying to convince you to understand the general approach---that's the way to prepare to deal with problems you've never seen before.

      You should put in TWO HOURS of study for every hour in class:

        ``The art of studying is the art of applying the seat of the pants to the chair.''

                        ---Richard Nixon (1913--1994): quoted approximately from memory.

      The two-hour rule is true for almost all courses actually.

      That study time should be put into doing the readings, reviewing/analyzing the derivations until you understand them, and in doing the homework problems.

        Think about the material.

        Discuss with colleagues, TAs, me.

        How could you ever understand something without thinking about it?

      One of my great goals as a teacher of physics is get students to understand conceptual unity and power---and beauty---of physics.

      Overcoming the student inhibitions to learning is actually the pedagogical challenge.

    10. Homeworks: There are homeworks for each chapter.

      They are/will be posted along with their due dates below on Tentative Schedule I/Tentative Schedule II.

      Homeworks will usually be due on Friday by 4:00 pm for Physics 211 (so just after the official recitation for this class) and ???, for Physics 212 (so just after the official recitation for this class).

      The due dates are subject to adjustment during the semester. These will be announced in class. Schedule II.

        For SUMMER COURSES, the homeworks are due 1 day after a textbook chapter is completed---except if there is a exam on that day in which case, the homework is NOT due at all---solutions will be posted before the exam.

      Homeworks consist of multiple-choice problems and full-answer problems.

      Now for the homework grading scheme:

      1. The first multiple-choice question will always be have you completed the chapter reading before the SECOND DAY on which the chapter is lectured on---the right answer is YES.

        The chapter reading is the chapter in Serway AND/OR the corresponding latex-ed lecture notes if they are labeled complete or nearly complete.

        Having read the material before it is lectured on makes an immense difference to comprehension of the lectures.

        The truth is, it is hard to pay attention to a lecture for more than 20 minutes---but if you have done the reading then losing attention now and then is not such a problem---you can pick up the thread.

        At the end of this course, if you say you never understood anything in the lectures, you should ask yourself if you were ever able to answer YES to the reading question.

      2. 5 marks for having ATTEMPTED every multiple-choice problem.

        There are a lot of these, but most are just identifying keywords and concepts. A few are harder.

      3. 5 marks for having ATTEMPTED each full-answer problem in enough detail that the solution could be followed even if the marker never tries.

        It is a yes/no decision on the marker's part if the answer is sufficiently complete.

        No marks for just writing down a number.

        I'm unlikely to second-guess the grader on his/her decision.

      4. 5 marks for having completed correctly one randomly-chosen full-answer problem. There are part marks for this problem.

        There must be a followable solution for full marks.

      All homeworks count the same no matter what they are marked out of.

      The solutions will be posted eventually on Tentative Schedule I/Tentative Schedule II.

      To access the posted homeworks, homework solutions, and test solutions you need the SUPERSECRET username and password---which you can get from the instructor.

        Actually, the username/password thing is just a little extra security---since computer security is good.

      Typically about 50 to 70 % or more of the exam questions will be drawn from the homeworks or, in the case of the FINAL, past exams also.

      Questions that reappear on the exams might be tweaked a bit from previous versions.

      Homeworks will count 10 % or less of the final grade.

        Homeworks are primarily a learning component of the course, NOT an evaluation component.

        They are worth some marks just for a little frisson.

        The marks are psychological trick to make students do what the should do anyway---we all play these tricks on ourselves.


        Caption: "Holbein d. J., Hans; Title: Deutsch: Porträt des Erasmus von Rotterdam am Schreibpult; Year: 1523".

        The frisson---you see it in his face.

        Credit: Hans Holbein the Younger.

        Linked source: Wikipedia image http://en.wikipedia.org/wiki/File:Hans_Holbein_d._J._047.jpg.

        Public domain at least in USA.


      Handed in homeworks should be stapled, UNFOLDED, and your NAME should appear on the front.

      Nosta bene: I will NOT do all homework problems in class---only 2 or 3 at most.

      The students are strongly encouraged to sweat over them alone first---relying on notes, the textbook, and the power of pure thought---and then seek help from friends, the instructor (office hours per instructor's schedule), in the recitation period, the TAs in EP 309, TAAP groups.

        Deprived summer-course students only have friends and the instructor.

    11. Activity-Mode Courses:

      See Activity-Mode Course.

      Maybe one day I'll try running one of these.

      But not this day.

    12. Exams:

      1. For ACADEMIC-YEAR COURSE, there will be 2 (or less likely 3) in-class exams and a 2-hour COMPREHENSIVE FINAL.


        testing the small fry

        Caption: " `The school exam'. Oil on canvas, 103 × 175 cm. Kunstmuseum Bern. Date 1862".

        Just like this it'll be.

        Credit: Albert Anker (1831--1910).

        Linked source: Wikipedia image ihttp://en.wikipedia.org/wiki/File:Albert_Anker_-_Das_Schulexamen.jpg.

        Public domain at least in USA.


        The in-class exams cover the material up to some cut-off point that will be announced in class.

        The final is about 50 % weighted or more on material since the last in-class exam and about 50 % weighted or less on all the material that came before the last in-class exam.

          The last material may receive less weighting on the final if the time from the last in-class exam is short.

      2. For SUMMER COURSES, there will just be 3 in-class exams.

        These will be equally weighted and each will cover 1/3 of the course.

      Nosta bene: Even though exams are formally restricted to set exam topics, intro physics is intrinsically cumulative and earlier topics are assumed known insofar as they are needed for the exam topics.

      If you are in Physics 212, then earlier topics includes all topics from Physics 211.

      TENTATIVE EXAM SCHEDULE

            _________________________________________________________________
      
            Exam        Date     Solutions (posted post-exam)
            _________________________________________________________________
      
            Physics 211
      
            Exam 1      Sep30 W   Exam 1 solutions
            Exam 2      Nov18 W   Exam 2 solutions 
            Exam 3      ????      Exam 3 solutions Probably will be omitted.
            Final Exam  Dec17 R   Final Exam solutions
                                  The final is 10:00--12:00 am in the regular class room
                                  as specified by Finals Schedule for 2009 Fall.
      
            Physics 212
      
            Exam 1      Jul01 W   Exam 1 solutions
            Exam 2      Jul21 T   Exam 2 solutions
            Exam 3      Aug07 F   Exam 3 solutions Probably omitted, except for summer courses.
            Final Exam  None      Final Exam solutions
                                  The final is 10:00--12:00 am in the regular class room
                                  as specified by Finals Schedule for 2009 Spring.
      
            _________________________________________________________________
            

      The in-class exams will consist of some tens of multiple-choice questions and one or a few full-answer questions.

        For SUMMER COURSES, probably 3 full answer problems and 25 multiple-choice questions.

      Most of the multiple-choice questions are NOT intended to be hard or tricky; they are intended as a warm-up. There might be a few harder mathematical ones in lieu of a full-answer questions. No SCANTRONS are needed---but this might change.

      The final (for academic-year courses) will be somewhat like the in-class exams, but about twice as long.

      The exams are closed book.

      Calculators are permitted for calculational work only. No stored solutions or formulae.

      Cell phones MUST be turned off and be out of sight.

      An equation sheet will be provided with the exams. This is the same equation sheet that comes with the homeworks.

      There are NO scheduled review days. But students can keep the instructor busy answering questions on the day before exams. There are recitation periods recall (except for summer courses). And there might be time for a review day before the final.

      Make-up exams are possible, but students must ask for them promptly and AVOID knowing anything about given exams and AVOID revealing anything to students have not taken the exam.

      Academic dishonesty is not unheard of UI. Believe me, you don't want to come to the attention of Dean of Students Office.

    13. Evaluation and Grading: The grading categories, their weightings, and their drops are:
      
            Academic-year lecture-mode courses
      
                homeworks                  10 % or less     1 drop
                2 or 3 in-class exams      45 % or more     no drop
                1 comprehensive final      45 % or more     no drop
      
                    Each in-class exam is worth 22.5 or 15 % of final grade.
      
            Academic-year activity-mode courses
      
                quizzes                    10 % or less     1 drop
                homeworks                  10 % or less     1 drop
                2 or 3 in-class exams      40 % or more     no drop
                1 comprehensive final      40 % or more     no drop
      
                    Each in-class exam is worth 20 or 13.333 % of final grade.
      
            Summer courses 
      
                homeworks                  10 % or less     1 drop
                3 in-class exams           90 % or more     no drop
      
                    Each in-class exam is worth 30 % of the final grade.
      
            
      Attendance is NOT kept and NO marks are assigned for attendance---except that is in an activity-mode course.

      Students are encouraged to keep good attendance.

        Like any course, just showing up 3/5 times a week for session of physics keeps us moving forward in the course.

        So 3/5 in-class hours and at least 6/10 out-of-class hours.

      There are absolutely NO extra credits.

      Letter grades will be assigned per UI catalog---which allow instructors some freedom of interpretation.

      The instructor uses a curve to automatically assign letter grades during the semester---if there are enough students to make a curve meaningful---if there arn't, the instructor just decides on letter grades. There is NO fixed scale.

      The final grades are decided on by the instructor directly---the curve is NOT used, except as a guide.

      Students can always ask the instructor for their current mark record and letter grades. Queries by email are probably best for this.

      The instructor will submit MIDTERM GRADES and FINAL GRADES as scheduled in the academic calendar---which doesn't specify any midterm grade dates for summer courses.

      Remember that after an instructor has submitted FINAL GRADES, any adjustments (except for purely clerical errors) are NOT allowed by university policy.

        See Policy on Grades from the UI Catalog. Note that E-6 states that grade changes after instructor submission are only allowed for clerical corrections, not for reweighting or additional work. There is another avenue for grade emendation: the Academic Hearing Board (1640.02 C-4) can have a say on grades---but it's not very promising.

      Students should make any queries about their final grades before the instructor submits them.

      Aliens and Grades Beware of aliens bearing grades.

    14. Disability Support Services (DSS): From the DSS memo: ``Reasonable accommodations are available for students who have a documented disability. Please notify your instructor(s) during the first week of class regarding accommodation(s) needed for the course. All accommodations must be approved through Disability Support Services located in the Idaho Commons Building, Room 306.''


  4. Tentative Schedule I of Topics from Serway
  5. No dated schedule has ever been adhered to by the instructor---except for Summer courses.

    So there are no dates for chapters in this tentative schedule.

    However, we have 15/16 weeks in the semester (not counting spring/fall recess) and we may lose about two/one weeks of classes for in-class exams and holidays: e.g., in the fall, Labor Day and in the spring Martin Luther King Day and Presidents Day.

    So about 14 weeks and 42 lecture class hours.

    Since we are planning on 13 or 14 chapters (chapters 1--15 omitting chapter 14 and probably chapter 12), we will be covering about a chapter per week on average.

    Some parts of chapters may be omitted.

    Some parts of chapters may be assigned as readings with NO in-class lecturing on them.

    1. Chapter 1: Physics and Measurements Some of this material should be review.

    2. Chapter 2: Motion in One Dimension

    3. Chapter 3: Vectors

    4. Chapter 4: Motion in Two Dimensions

    5. Chapter 5: The Laws of Motion

    6. Chapter 6: Circular Motion and Other Applications of Newton's Laws

    7. Chapter 7: Energy of a System

        Notes Latex-ed, virtually complete, and the actual lecture notes.
        Homework 7: Due: Nov06, Friday, 4:00 pm.
        Solutions 7:

        1. Systems and Environments
        2. Work Done by a Constant Force
        3. The Scalar Product of Two Vectors
        4. Work Done by a Varying Force
        5. Kinetic Energy and the Work-Kinetic Energy Theorem
        6. Potential Energy
        7. Conservative and Non-Conservative Forces
        8. Conservative Forces and Potential Energy
        9. Energy Diagrams and Equilibrium
        10. energy.html: Online references, images, and animations

    8. Chapter 8: Conservation of Energy

        Notes Latex-ed, virtually complete, and the actual lecture notes.
        Homework 8: Due: Nov13, Friday, 4 pm.
        Solutions 8:
        Exam 2 solutions Nov18, Wednesday.

        1. Non-Isolated Systems and Conservation of Energy
        2. Isolated Systems and the Work-Energy Theorem
        3. Kinetic Friction Cases
        4. Non-Conservative Force Cases
        5. Power

    9. Chapter 9: Linear Momentum and Collisions

        Notes Latex-ed and complete.
        Homework 9: Due: Not handed in or marked. Solutions posted already.
        Solutions 9:

        1. Linear Momentum
        2. Impulse and Momentum
        3. Collisions in One Dimension
        4. Collisions in Two Dimensions (omitted)
        5. Center of Mass
        6. Motion of Systems of Particles
        7. Deformable Systems (Omitted)
        8. Rocket Propulsion

    10. Chapter 10: Rotation of a Rigid Object about a Fixed Axis Really rotational kinematics.

        Notes Handwritten---but illegible.
        Notes Latex-ed, but incomplete.
        Homework 10: Due: Not handed in or marked. Solutions posted already.
        Solutions 10:

        1. Angular Position, Velocity, and Acceleration
        2. Rotational Kinematics with Constant Angular Acceleration
        3. Angular and Translational Quantities
        4. Rotational Kinetic Energy
        5. Moments of Inertia or Rotational Inertia
        6. Torque
        7. Energy and Rotational Motion
        8. Rigid Rollers

    11. Chapter 11: Angular Momentum Really rotational dynamics.

        Notes Latex-ed and complete.
        Homework 11: Due: Not handed in or marked. Solutions posted already.
        Solutions 11:

        1. Cross Product (Vector Product) and Torque
        2. Angular Momentum of a Non-Isolated System
        3. Angular Momentum of a Rigid Rotating Object
        4. Conservation of Angular Momentum
        5. Gyroscopes and Tops (omitted)

    12. Chapter 12: Static Equilibrium and Elasticity This chapter may be omitted if we are behind schedule.

    13. Chapter 13: Universal Gravitation

        Notes Handwritten---but illegible--but also not complete.
        Notes Latex-ed, but incomplete.
        Homework 13: Due: Not handed in or marked. Solutions posted already.
        Solutions 13:

        1. Newton's Law of Universal Gravitation
        2. Free-Fall Acceleration and the Gravitational Force
        3. Kepler's Laws
        4. The Gravitational Field (omitted, but alluded to)
        5. Gravitational Potential Energy
        6. Energy Considerations in Planetary and Satellite Motion
        7. grav.html: Online references, images, and animations

    14. Chapter 15: Oscillatory Motion

        Notes Handwritten---but illegible--but also not complete.
        Notes Latex-ed, but incomplete.
        Homework 15: Due: Not handed in or marked.
        Solutions 15:
        Final exam solutions

        1. Motion with a Spring
        2. Simple Harmonic Motion
        3. Energy and Simple Harmonic Motion
        4. Uniform Motion and Simple Harmonic Motion
        5. Pendulums
        6. Damped Oscillations
        7. Forced Oscillations


  6. Tentative Schedule II of Topics from Serway
  7. No dated schedule has ever been adhered to by the instructor---except for summer courses.

    So there are no dates for chapters in this tentative schedule.

    However, we have 16 weeks in the semester (not counting spring/fall recess) and we may lose about two weeks of classes for in-class exams and holidays: e.g., in the fall, Labor Day and in the spring Martin Luther King Day and Presidents Day.

    So about 14 weeks and 42 lecture class hours.

    Since we are planning on 12 chapters (chapters 23--34), we will be covering about a chapter per week on average.

    In sense, this course covers an awful lot.

    But that's why we have courses, to yoke ourselves together like mule team and just drive forward to the the end in a finite time.

    And it's all great stuff: intellectually exciting, vital for education and career.

    Some parts of chapters may be omitted.

    Some parts of chapters may be assigned as readings with NO in-class lecturing on them.

    1. Electric Charge, Electric Force, and Electric Field

    2. Gauss's Law

    3. Electric Potential Energy and Electrical Potential:

        Notes Handwritten.
        Notes Latex-ed, but incomplete or non-existent.
        Homework 25: Due: Jun26, Friday, 4:00 pm.
        Solutions 25:

        1. Electrical Potential Energy and Electrical Potential
        2. Potential in a Uniform Field
        3. Proof that the Electric Force is Conservative
        4. Electric Field From Electrical Potential
        5. Potential and Continuous Charge Distributions
        6. Potential and Conductors
        7. Online references, images, and animations

    4. Capacitors, Capacitance, and Dielectrics

    5. Current and Resistance

    6. Direct Current Circuits

    7. Magnetic Fields (B-Fields)

        Notes Handwritten.
        Notes Latex-ed, but incomplete or non-existent.
        Homework 29: Due: Jul16, Thursday, 4:00 pm.
        Solutions 29:

        1. Magnetic Fields and Forces
        2. Motion of a Charged Particle in a Uniform Magnetic Field
        3. Cases of Charged Particle Motion in B-Fields
        4. The Magnetic Force on Current-Carrying Conductor
        5. Magnetic Torque on Current Loop (a Magnetic Dipole)
        6. The Hall Effect
        7. Online references, images, and animations

    8. Sources of Magnetic Fields

    9. Faraday's Law of Induction

    10. Inductance

    11. Alternating Current (AC) Circuits Omitted if necessary.

    12. Electromagnetic Radiation (EMR)