Mathematical Analysis I
MATH-4200-01, Fall 2006


Instructor: Victor Roytburd (Amos Eaton 405, Ph. 276-6889, roytbv at rpi dot edu)

Class meets: M, Th 2:00 – 3:50PM, RICKETTS 212       

Office hours: Tuesday 2-4, Thursday 4-6 (or by appointment)

Web page: http://www.rpi.edu/~roytbv/ma/ma1.html

TEXTS: (1) (required) The Way of Analysis, by R. S. Strichartz, Jones and Bartlett 2000 ISBN 0-7637-1497-6;
(2) (recommended) Introduction to Analysis, by Maxwell Rosenlicht, Dover 1986 ISBN 0-486-65038-3. This very brief (and cheap) book gives a different perspective on the subject;
(3)
(recommended) How to read and do proofs, by Daniel Sollow, John Wiley 2002 ISBN 0-471-40647-3. This book is devoted mostly to ”proof techniques.” Any other book that explains, how to read and do proofs, will work as well, check, for example,
How to prove it, by Daniel Velleman or
Reading, Writing, and Proving, by Ulrich Daepp and Pamela Gorkin, Springer 2000 ISBN 0-387-00834.

You may also find helpful the books Professor Harry McLaughlin wrote for the Fundamentals of Mathematics class:
Fundamentals of mathematics: Notes
Fundamentals of mathematics: Workbook


In this course we will revisit some basic notions of calculus. The emphasis will be on the conceptual understanding of calculus and on mathematical rigor. I don't have a rigid agenda as to how much material to cover. The pace of the course will be mostly determined by our progress, which will be measured by the performance on the homework assignments and tests. I expect to cover the material of at least six first chapters of the text by Strichartz. Here are the key topics:

  First Exam

·        Basic logic. Countable and uncountable sets, cardinality, Cantor’s diagonalization.

·        Cauchy sequences. Limits, sups and infs. (The real number system.)

·        Open sets and closed sets; Cantor sets.

  Second Exam

·        Compacts.

·        Continuity and uniform continuity. Continuity via open sets.

·        The intermediate value theorem. Continuous functions on compact domains. Monotone functions.

·        Definition of the derivative. Big O and little o.

 Third Exam

·        Local behavior of a function and the sign of its derivative.  The mean value theorem.

·        The calculus of derivatives. Taylor’s theorem.

·        Integrals of continuous functions. Fundamental theorem of calculus.

·        The Riemann integral. Improper integrals.

·        Basics of complex numbers.

·        Numerical series and sequences.

·        Uniform convergence of functional sequences.


Next is a tentative course outline:

 

Week

Topics

Sections

8/28, 8/31

The logic of quantifiers. Countable and uncountable sets. Cantor’s diagonalization.

 1.1 – 1.4

9/4

 Labor Day

 

9/7

Cauchy sequences. Limits, sups, and infs.

 2.1 (pp. 25-34), 3.1.1

9/11, 9/14

The real number system. Review of different ways of establishing the real number system.

  Notes, 2.1.2, 2.4.1-2

9/18, 9/21

 Limits, open sets and closed sets.

 3.1–3.2

9/25, 9/28

Compact sets. Pre-test review

 3.3

10/2

EXAM 1

First 3 items in the list of topics.

10/5

 Continuity

 4.1

10/10

 (Monday schedule). Concepts of continuity

 4.1 – 4.2

10/12

 Properties of continuous functions

 4.2

10/16, 10/19

 Properties of continuous functions

 4.2

10/23, 10/26

 Derivative and its properties. Pre-test review

 5.1 – 5.2

10/30

 EXAM 2

 

11/2

Properties of the derivative. Calculus rules.

 5.2 – 5.3

11/6, 11/9

Taylor’s theorem. Integral of continuous functions.

 5.3.3 – 5.4, 6.1 – 6.2

11/13

The Riemann integral. Improper integrals. Odds and ends.

 6.2 – 6.3

11/16

 Primer of complex numbers.

7.1

11/20

 Numerical series.

7.2

11/22-11/26

 Thanksgiving break

 

11/27

 Uniform convergence. (It will be included in the final)

 7.3

11/30

 Review

 

12/4

EXAM 3

Blue topics

12/7

Last day of classes

 

Tuesday 12/12

 Course review: 4:00-7:00 pm, Amos Eaton 216

 

12/14

Final Exam: 6:30 – 9:30 pm. SAGE 4101

Uniform convergence will not be on the final exam

 


Homework problems: There will be weekly homework assignments that will be collected and graded. As a rule, homework assignments are due on Thursday by 4:00 pm, every week except exam weeks. Late homework
is not accepted.

Tests: I plan to give two three midterm tests and a final. Only two best test results will be counted for the course grade. Exam 2 is scheduled for 10/30; Exam 3 is scheduled for 12/04.

Grading: Homework 30%, Tests 40%, Final 30%

In case I decide to give weekly quizzes on basic definitions, the weight will change as follows: Homework 25%, Quizzes 10%, Tests 35%, Final 30%


STATEMENT OF ACADEMIC INTEGRITY: The guiding principle is that work that you present for grading as your own should in fact BE your own. With respect to exams, this means that no assistance or collaboration of any kind is permitted. With respect to homework, you are free to seek assistance from any person, or book. But before working together on the homework, it is in your best interest to think over the problems on your own. You must write up your solutions on your own. You are not allowed to just copy from a shared (or someone else's) set of notes.


HOMEWORK ASSIGNMENTS

Note: Extra credit problems do not have expiration date; you can hand them in separately and after the homework they first time appeared in.
List of all
Extra credit problems to date.

Assignment #1, due 7 September
Assignment #2, due 14 September
Assignment #3, due 21 September.   Solutions to selected homework problems from first three assignments.
Assignment #4, due 28 September.   Solutions #4
Assignment #5, due 12 October.      Solutions #5
Assignment #6, due 19 October.        Solutions #6
Assignment #7, due 26 October.        Solutions #7

EXAM 2 Solutions
Assignment #8, due 9 November: correction the problem # should read 5.2.4.2. Solutions #8
Assignment #9, due November 16, Solutions #9
Assignment #10, due November 30, Solutions #10

EXAM 3 Solutions

Uniform convergence will not be on the final exam.

Tuesday 12/12

 Course review: 4:00-7:00 pm, Amos Eaton 216


          TOPICS for BRIEF (extra credit) PRESENTATIONS

Cantor – Bernstein’s theorem.
Continued fractions

Basics of Nonstandard Analysis.


LATEST NEWS

Sept. 1 – An outstanding book written by one of the top mathematicians of the 20th century: Introductory Real Analysis by A.N. Kolmogorov and S.V. Fomin, Dover, ISBN 0-486-61226-0, $15.95.
Oct. 20 Exam 2 is scheduled for 10/30; Exam 3 is scheduled for 12/04.

Now we are meeting on Wednesdays for problem discussions. Room Amos Eaton 402 is reserved from 5-7 pm.


OLD EXAMS

Test 1 from 2002

Test 2 from 2002

Final Exam 2002

Final Exam 2005

 

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