Lecture notes

These notes have been reorganized because I lost count of the lectures at some point, and do not reflect the exact sequence of topics covered in class.

  • CAL1_L1
    • The p-norm
  • CAL1_L2
    • Equivalence of p-norms
  • CAL1_L3
    • Equivalence of all norms on a finite dimensional normed linear space
  • CAL1_L4
    • Example of complete normed linear space, inner product spaces (mostly stuff covered in ALG1)
  • CAL1_L5
    • Examples of finding limits in

Metric space topology

Ref: Royden & Fitzpatrick

  • CAL1_L6
    • Cantor intersection theorem, constructing the completion of a metric space
  • CAL1_L7
    • Finite intersection property, total boundedness, characterization of compact sets
  • CAL1_L8
    • Extreme value theorem, Lebesgue covering theorem
  • CAL1_L9
    • Separable metric spaces, Lindelöf covering theorem, Baire category theorem
  • CAL1_L10
    • Banach contraction principle

Multivariable functions

Ref: Ghorpade & Limaye

  • CAL1_L11
    • Order properties of , Intervals, disks, and bounded sets
  • CAL1_L12
    • Monotonicity and Bimonotonicity, bounded variation and bivariation
  • CAL1_L13
    • Convexity and Concavity, paths, local extrema and saddle points
  • CAL1_L14
    • Intermediate value property

Multivariable calculus

Ref: Apostol (Mathematical Analysis) ch12 & ch13, Rudin ch9

  • CAL1_L15
    • Partial and directional derivatives
  • CAL1_L16
    • Total derivatives, the Jacobian matrix
  • CAL1_L17
    • The chain rule
  • CAL1_L18
    • The mean value theorem for differentiable functions
  • CAL1_L19
    • Sufficient conditions for differentiability and equality of mixed partial derivatives
  • CAL1_L20
    • Taylor’s formula for functions from to
  • CAL1_L21
    • Inverse function theorem
  • CAL1_L22
    • Implicit function theorem
  • CAL1_L23
    • Extrema of real valued functions
  • CAL1_L24
    • Extremum problems with side conditions