Math 6320, section 09479 - Fall 2002

Theory of Functions of a Real Variable


Exams


Assignments

The problems below are from Royden's book. Please write the solutions on separate pages (i.e., do not hand in a note-book).

Some of the problems might have the answer or a hint in the textbook. If you have to hand in such a problem, you are welcome to use the hint but have to still write a complete solution.
More difficult problems are marked by a *.

HOMEWORKS
  Section     HAND IN (due date)   Solve only, do not hand in 
2.1     1, 2, 3
2.4   15 (due Sept. 10)   8, 9, 10, 23 (use 22, etc.)
2.5     24-36
(37-39 are about the Cantor set)
2.6   47 (due Sept. 12)   40^, 43*, 49, 50 (c^, etc.), 51
(the Cantor function: 48)
1.4     19, 20
2.7     52^, 53, 54^
3.1   1, 2 (due Sept. 12)   3%, 4%
3.2   5 (due Sept. 19)   7%, 8%
3.3   14 (due Sept. 19)
  11 (due Sept. 26)
  9%, 10%
3.4   15, 16 (due Sept. 26)   this example of a non-measurable
set is due to Vitali
3.5   19, 20, 25 (Due Tu, 10/01)   18^, 21^, 24^, 26, 27, 28*
review (Oct. 1)     look at the problems above marked with
% (6 problems, these are "short") and
^ (7 problems)
2.7   54 (due Oct. 10)  
3.6   29, 30 (due Oct. 17; we proved Prop. 3.24 in class)   32* (explain why  ft   is measurable)
4.1   1 (due Oct. 17)  
Oct. 15     1.16-1.18, 1.19, 1.20, 2.36
  2.51 (do only: g(x)=h(x) => f cont. at x  ; {h-g < a} is open)
  2.53 (see hint given in class; oscf(x)=h(x)-g(x))
  3.21, 3.26, 3.27
4.2   parts of 2.51, and 2.53; see details here (deadline extended to Oct. 29)
NOTE: there was a typo, corrected on 10/22.
2
4.3   3, 4, 5 (with extra Q: is F uniformly continuous?)
(deadline extended to Nov. 7)
  6, 7, 9
4.4   14 (include a proof of Thm. 4.17 as well),
  19 (use, without proof, problem 2.49f mentioned in 4.18)
(due Nov. 12)
Hint: both parts of problem 14 can be solved with Thm. 4.17.
  all the rest of 10-18
5.1   1 (due Nov. 26)   4
5.2   7 (due Nov. 26)   8-11

NOTE: you have to prove all statements, unless they were discussed in class or are part of the previous homework assignments.

Last modified: December 10, 2002


Course description

The book that we will be mainly using this semester is

The prerequisites are MATH 4332 or consent of the instructor.

The course will introduce Lebesgue measure and integration, differentiation of real functions, functions of bounded variation, absolute continuity, the classical Lp spaces, general measure theory, and elementary topics in functional analysis.

There will be regular homework assignments (the lowest grade will be dropped), and the exams (some might be take-home).

Other books that might be useful are (library call numbers included):

I will put these books on reserve. [They are on reserve by now.]

Last modified: August 29, 2002