Analysis 2 - Spring 2003
 Isaac Newton December 25, 1642 - March 21, 1727 (old calender); January 4, 1643 - March 31, 1727 (new calender) |
 Augustin-Louis Cauchy August 21, 1789 - May 23, 1857 |
 Karl Weierstrass October 31, 1815 - February 19, 1897 |
 Georg Friedrich Bernhard Riemann September 17, 1826 - July 20, 1866 |
Images from Keith Lynn's "Pictures of Mathematicians" webpage and the The MacTutor History of Mathematics archive.
COURSE: MATH 4227/5227
Call # 14650/14655
TIME AND PLACE: 10:05-11:20 MW in Gilbreath 205
INSTRUCTOR:
Dr. Robert Gardner
OFFICE HOURS: TBA
OFFICE: Room 308G of Gilbreath Hall
PHONE: 439-6977 (308G Gilbreath), Math Department Office 439-4349
E-MAIL:
gardnerr@etsu.edu
WEBPAGE:
www.etsu.edu/math/gardner/gardner.htm (see my webpage for a copy of this course syllabus and updates for the course).
COURSE WEBPAGE:
http://www.etsu.edu/math/gardner/4217/silspr03.htm
TEXT: An Introduction to Analysis, 2nd edition, by J. R. Kirkwood, Published by PWS Publishing Company and Waveland Press, Inc. 1995.
GRADING: Homework will be assigned and collected regularly. This
will be the basis of your grade.
Grades will be assigned based on a 10 point scale with ``plus'' and
"minus" grades being assigned as appropriate.
NOTE. This term, we will study integration, and sequences and series
of functions. We will prove the most difficult result in the book: the
Riemann-Lebesgue Theorem. This theorem gives necessary and sufficient conditions
for a function to be Riemann integrable. The topic of sequences of
functions and their interaction with integration is one of the main topics
of real analysis. Our main result along these lines is Corollary 8-10(b).
This result is a real foreshadowing of what you would see in a graduate
level real analysis course.
OUTLINE: We will cover the following chapters and topics:
- Chapter 5 = Differentiation, Mean Value Theorems.
- Chapter 6 = Riemann integration, properties of Riemann
integration, the ``Riemann-Lebesgue Theorem,'' Riemann-Stieltjes
integration (and its application to the ``Dirac delta function'' from
electricity and magnetism).
- Chapter 7 = Series of numbers, convergence, operations on series
(such as rearrangements).
- Chapter 8 = Sequences of functions, series of functions, power
series, Taylor series.
- Chapter 9 = Fourier series, Fourier coefficients.
If time permits, we will motivate the topics of Chapter 9 with
applications. In particular, we will briefly explore partial differential
equations and boundary conditions.
In commemoration of our proof of the so called Riemann-Lebesgue Theorem ("A bounded function f is Riemann integrable on ,a, b] if and only if it's set of discontinuities has measure zero") during the week of February 17, 2003, we present a photo of Henri Lebesgue from the The MacTutor History of Mathematics archive:
Henri Lebesgue, 1875-1941
HOMEWORK
| ASSIGNMENT NUMBER |
PROBLEMS | DUE DATE |
POINTS |
| HW 1 |
5.1.1a, 5.1.1b, 5.1.2a | January 22 | 3+3+3=9 |
| HW 2 |
5.1.5b, 5.1.5d, 5.1.5e, 5.1.8a, 5.1.8b, 5.1.8c, 5.1.9, 5.1.13 | January 22 | 3+3+3+3+3+3+4+3=25 |
| HW 3 |
5.2.2a, 5.2.2b, 5.2.4a(i), 5.2.7a, 5.2.7b, 5.2.13 | February 3 | 3+3+3+3+2+3=17 |
| HW 4 |
6.1.3, 6.1.4a, 6.1.4b, 6.1.6, Bonus 1 | February 10 | 3+3+3+3+(3)=12+(3) |
| HW 5 |
6.1.10, 6.1.14, 6.1.15a, 6.1.5b | February 19 | 3+3+3+3=12 |
| HW 6 |
6.2.1a, 6.2.1b, 6.2.1c, 6.2.2a, 6.2.2b, 6.2.4a, 6.2.4b, Bonus 2 | March 5 | 3+3+3+3+4+3+3+(4)=22+(4) |
| HW 7 |
6.2.16, 6.2.17, 6.2.19a, 6.2.19b, 6.2.19c, Bonus 3 | March 12 | 3+3+3+3+3+(4)=15+(3+3+1+3+3) |
| HW 8 |
6.3.1, 6.3.2a | March 24 | 4+3=7 |
| HW 9 |
7.1.1c, 7.1.5, 7.1.13a, Bonus 4 | March 28 | 3+3+3+(6)=9 |
| HW 10 |
7.2.2a, 7.2.6a, 7.2.6c, 7.2.7, Bonus 5, Bonus 6 | April 4 | 3+3+3+3+(4+3)=12 |
| HW 11 |
8.1.2, 8.1.4, 8.1.6a, 8.1.6b, 8.1.15a, Bonus 7 | April 14 | 3+3+2+3+3+(4)=14 |
| HW 12 |
8.2.1d, 8.2.1e, 8.2.6, 8.2.7 | April 21 | 3+3+3+3=12 |
| HW 13 |
8.2.11, 8.2.12, Bonus 8 | April 23 | 3+4+(9)=7+(9) |
| HW 14 |
8.3.2, 8.3.8, 8.3.10, Bonus 9 | April 29, noon | 3+3+4+(4)=10+(4) |
| TOTAL |
- | - | 183+(50) |
NOTICE: The number of POINTS in the fourth column are for the graduate homework assignments, with bonus problems in parentheses.
BONUS PROBLEMS
- Bonus 1. Prove that the Riemann integral of the function of Example 4.7 is 0.
- Bonus 2. 6.2.5
- Bonus 3. 6.2.21
- Bonus 4. 7.1.19
- Bonus 5. 7.2.11
- Bonus 6. Find an alternating series whose terms approach zero, but the series diverges.
- Bonus 7. Verify that |1-x^(r-r_n)| < |1-M^(r-r_n)| for x in [1,M] and M > 1.
- Bonus 8. 8.2.15
- Bonus 9. 8.3.9
Return to
Bob Gardner's home page