Math 110.211: Honors Multivariable Calculus

Spring 2008 Course Syllabus

http://www.mathematics.jhu.edu/brown/Spring08211.htm

 

 

Dr. Richard Brown

MW 12:00pm - 1:15pm:  Room Shaffer 304

[email protected]

.

403 Krieger Hall

 

410-516-8179

 

Office Hours:

 

M

2:30-3:30 pm

by appt. other times

W

2:30-3:30 pm

 

Below is some basic information relevant to this course.A more detailed schedule of course material, homework assignments, and testing dates will follow shortly.

 

Text:Vector Calculus, 3rd Edition by Susan Jane Colley ,ISBN-10: 0131858742

 

Current Recitation Sections:

Section

Time

Place

Instructor

1

Friday 12:00pm

Shaffer 304

Zulkowski

 

 

Course Material: The core of the course will center on the text material, and will cover the portions of the book detailed below.

 

Grade Policy:��� There will be homework sets offered weekly (30%), 2 in-lecture exams (40%) and a final (30%).The schedule of these exams is given with the homework problems below.There will be no make-ups on homework or exams.If you miss an exam, you will have to be cleared by the department to be excused from the exam.This only means, however, that the ultimate grade for that exam will be calculated based on your performance on future exams and the final.

 

Homework: �� Homework based on the week�s lectures will be posted on the course web site sometime on Tuesday. That assignment will be due the following Wednesday at the start of lecture. You are encouraged to do your homework in groups. You are required, however, to write up your homework on your own. Homework is essential educational part of the course. You will be graded mostly on your ability to work problems on quizzes and exams. You cannot work problems on quizzes and exams if you have not practiced the techniques within the homework problems. If you misuse homework by not doing it yourself, or not checking that you can solve a problem on your own after having been shown how to do it, then your exam scores and corresponding grade will reflect this. Talk to Patrick Zulkowski about how to turn in a homework if you cannot go to class.

 

Course Policy: You are responsible for lecture notes, any course material handed out, and attendance in class.While I will not formally record your attendance, I will get to know you and your rate of presence over time.The quizzes are designed to evaluate your understanding of the current focus of the class.They will strongly mimic homework assignment problems.The lectures will be conducted as if you have already read the material and attempted some homework problems. In this manner, you can focus mainly on those parts of the lectures that cover the areas of your reading you found difficult to understand. My teaching style is that of interactive discussion and I will rely on your input in developing the material.Active participation in the classroom is a great way to generate the discussion necessary to fully grasp the material.

 

Help Room: ���� 213 Kreiger Hall.The hours are 9am � 9pm on Monday through Thursday, and 9am � 5pm on Friday.This free service is a very valuable way to get one-on-one help on the current material of a class from other students outside the course.It is staffed by graduate students and advanced undergraduates.

Ethics Statement:  The strength of the university depends on academic and personal integrity. In this course, you must be honest and truthful. Ethical violations include cheating on exams, plagiarism, reuse of assignments, improper use of the Internet and electronic devices, unauthorized collaboration, alteration of graded assignments, forgery and falsification, lying, facilitating academic dishonesty, and unfair competition.

Report any violations you witness to the instructor. You may consult the associate dean of students and/or the chairman of the Ethics Board beforehand. See the guide on "Academic Ethics for Undergraduates" and the Ethics Board web site http://ethics.jhu.edu for more information.

Students with Disabilities:  Students with documented disabilities or other special needs that require accommodation must register with the Office of Academic Advising. After that, remind me of your needs at least 5 days prior to each exam; we will need to have received confirmation from Academic Advising.

Spring 2008 Tentative Schedule

 

The details of this material will be updated and reformed as the semester progresses.

 

 

Week

Sections

Homework

Due in Lecture

January 28, 30

Course Overview

 

February 6

Solutions

1.1 Vectors

1.2 More About Vectors

1.3 The Dot Product

1.4 The Cross Product

1.5 Equations for Planes

22,25
11,16,22,34
7,12,17,25
14,26
16, 23, 26

February 4, 6

1.7 New Coordinate Systems

1.8 Chapter 1 Extra

2.1 Functions of Several Variables

2, 4, 8, 10, 16, 18

Verify and/or explain: 12,18,22,26,EP1,EP2

2,4,9,15,32,34,36,47

February 13

Solutions

EP Solutions

February 11, 13

2.2 Limits

2.3 Derivatives

3,6,8,18,22,30,42,44,46,48,EP3

5,10

February 20

Solutions

EP Solutions

February 18, 20

2.3 Derivatives

2.4 Properties of Derivatives

������ (no Newton Method)

2.5 Chain Rule

18,21,28,30,36,50

6,11,20,21

 

2,6,10

February 27

Solutions

February 25, 27

2.5 Chain Rule

2.6 Directional Derivative/Gradient

����� (Implicit/Inverse Fnc Thms)

3.1 Parameterized Curves (no Kepler)

12,16,23,28,29

4,12,17,22,34,40,46

(see here for a discussion of the Imp. Fnc Thm)

4,9,18,26,30

March 5

Solutions

March 3

3.2 Arc Length (no geometry)

3.3 Vector Fields

4,12,35,EP4

3,4,18,20

March 12

Solutions

EP Solutions

March 5

Exam 1

All listed sections up to February 27

Solutions

March 10

Canceled

 

 

March 12

3.3 Vector Fields

3.4 Div, Grad, Curl. Del

3.5 Chapter 3 Extra

4.1 Differentials/Taylor�s Thm.

26,30,31

28,31,32,EP5

Verify and/or explain: 1,2,3,19,24,29,30

4,15,18,26

March 26

Solutions

March 17, 19

Spring Break

March 24, 26

4.2 Extrema of Functions

4.3 Lagrange Multipliers

2,22,32,35,46

17,18,24,26

April 2

Solutions

March 31, April 2

5.1 Areas and Volumes

5.2 Double Integrals

5.3 Changing Order of Integration

5.4 Triple Integrals

16

6,13,20,25,28,EP6

1,10,14

9

April 9

Solutions

EP Solution

April 7, 9

5.5 Change of Variables

6.1 Line Integrals

6.2 Green�s Theorem

6,7,8,23

10,18,23,28,EP7

6,19,20,23

April 16

Solutions

April 14, 16

7.1 Parameterized Surfaces

7.2 Surface Integrals

7.5 T/F Exercises

1,4,6,18,28

3,9,12,14,24,25

Verify and/or disprove: 14,20,22

April 23

Solutions

April 21, 23

7.3 Stoke�s and Gauss� Theorems

7.5 T/F Exercises

8.1 Differential Forms

4,8,16,17,18,19,21

Verify and/or disprove: 24,30

April 30 

April 28

Exam 2

All included sections from 3.2 to 7.3

Solutions

April 30

Generalized Stoke�s Thm and the FTC

See here for an example calculation,

 

May 5-7

Reading Period

 

 

 

May 12

Final Exam Number 7 Solution

9am - 12pm Room: Krieger 300 New Room!

 

 

Extra Problems (labeled by EP# in homework):Let denote the real n-dimensional space where n is a natural number, and .For , we denote .

 

EP1:  Do the following:

a.    Show the function is injective if at least one of its component functions is injective.

b.   Show is surjective if all of its components are surjective.

EP2:  Let and be two vectors in which are not on the same line, so that the equation defines a plane parameterized by the two real variables s, t.Given the non-parameterized equation of the plane , write the constants A, B, C, D in terms of , and .

EP3:  Let be open.Show is continuous at iff .

EP4:  Show that the length of a differentiable curve in is independent of its parameterization (Hint:Use the Chain Rule).

EP5:  Modify the proof of formula (4) of Theorem 4.5, page 219, to verify formula (3).

EP6:  Let be continuous on the rectangular region .For and , define .Show that .This says that Fubini�s Theorem for continuous functions implies the equality of mixed partials.

EP7:  Let be a gradient vector field on a domain which contains a curve .Show that .Discuss what one can say in general about line integrals of gradient vector fields over curves, in terms of the actual path one takes from any chosen point A to another point B?What about if the curve is closed?