MA 536   -   Schedule


Lec. Date Topics Chapter
 1   1/7   Pointwise convergence and uniform convergence
  of a sequence of functions.
    7
 2   1/10   Uniform convergence. The supremum norm.     7
 3   1/14   Uniform convergence and integration, differentiation.       7
 4   1/17   Uniform convergence of a series of functions.
  Equicontinuous families of functions.
    7
  -   1/21 -- MLK Day --
 5   1/23   Equicontinuous families of functions.     7
 6   1/28   Stone-Weierstass Theorem.  Taylor's Theorem.     7, 8
 7   1/30   Taylor series.  Power series.  Exponential function.     8
 8   2/4   Fourier series.     8
 9   2/6   Orthogonal series. Convergence of the Fourier series.     8
 10   2/11   Vector spaces and linear transformations.     9
 11   2/13   Linear transformations.     9
 12   2/18   Norm of a linear transformation.  Differential.     9
 13   2/20   Differential and partial derivatives.     9
 14   2/25   Gradient and directional derivatives.     9
 15   2/27   Bounded derivative.   Contraction Principle.     9
 16   3/3   Inverse Function Theorem.     9
 17   3/5   Implicit Function Theorem.     9
  - 3/10-16 -- Spring break --
 18   3/17   Midterm Exam  
 19   3/19   Exam discussion.   Examples.  
 20   3/24   Rings and sigma-rings. Set functions.     11
 21   3/26   Regular set functions. Outer measure.     11
 22   3/31   Lebesgue measure.     11
 23   4/2   Lebesgue measure.     11
 24   4/7   Borel sets, sets of measure 0, and measurable sets.     11
 25   4/9   Measurable spaces.   Measurable functions.     11
 26   4/14   Simple functions.  Definition of Lebesgue integral.       11
 27   4/16   Properties of Lebesgue integral.     11
 28   4/21   Properties of Lebesgue integral.     11
 29   4/23   Properties of Lebesgue integral.
  Comparison with Riemann integral.
    11