Math 2.0

Resources / course

Measure Theory 7B7J82V8A2

URIm2://res/7B7J82V8A2
Kindcourse
CreatorsE. K. Narayanan (instructor)
Date2020-01-20
Scopein
Idscourse 04dese585:111108135

Expressions

e1: edition

Languageen
Date2020-01-20
Contents
  • part 1: Sigma algebras, Measures and Integration
  • session 1: Review of Riemann integration and introduction to sigma algebras
  • session 2: Sigma algebras and measurability
  • session 3: Measurable functions and approximation by simple functions
  • session 4: Properties of countably additive measures
  • session 5: Integration of positive measurable functions
  • part 2: Integration and convergence theorems
  • session 6: Some properties of integrals of positive simple functions
  • session 7: Monotone convergence theorem and Fatou's lemma
  • session 8: Integration of complex valued measurable functions
  • session 9: Dominated convergence theorem
  • session 10: Sets of measure zero and completion
  • part 3: Outer measure
  • session 11: Consequences of MCT, Fatou's lemma and DCT
  • session 12: Rectangles in R^n and some properties
  • session 13: Outer measure on R^n
  • session 14: Properties of outer measure on R^n
  • session 15: Lebesgue measurable sets and Lebesgue measure on R^n
  • part 4: Lebesgue measure and its properties
  • session 16: Lebesgue sigma algebra
  • session 17: Lebesgue measure.
  • session 18: Fine properties of measurable sets
  • session 19: Invariance properties of Lebesgue measure
  • session 20: Non measurable set
  • part 5: Lebesgue measure and positive Borel measures on locally compact spaces
  • session 21: Measurable functions.
  • session 22: Riemann and Lebesgue integrals
  • session 23: Locally compact Hausdorff spaces
  • session 24: Riesz representation theorem
  • session 25: Positive Borel measures
  • part 6: Lebesgue measure and invariance properties
  • session 26: Lebesgue measure via Riesz representation theorem
  • session 27: Construction of Lebesgue measure
  • session 28: Invariance properties of Lebesgue measure.
  • session 29: Linear transformations and Lebesgue measure
  • session 30: Cantor set
  • session 31: Cantor function
  • part 7: L^p spaces and completeness
  • session 32: Lebesgue set which is not Borel
  • session 33: L^p spaces
  • session 34: L^p norm
  • session 35: Completeness of L^p
  • session 36: Properties of L^p spaces
  • session 37: Examples of L^p spaces
  • part 8: Product spaces and Fubini's theorem
  • session 38: Product sigma algebra
  • session 39: Product measures I
  • session 40: Product measures II
  • session 41: Fubini's theorem I
  • session 42: Fubini's theorem II
  • part 9: Applications of Fubini's theorem and complex measures
  • session 43: Completeness of product measures
  • session 44: Polar coordinates
  • session 45: Applications of Fubini's theorem
  • session 46: Complex measures I
  • part 10: Complex measures and Radon-Nikodym theorem
  • session 47: Complex measures II
  • session 48: Absolutely continuous measures
  • session 49: L^2 space
  • session 50: Continuous linear functionals
  • session 51: Radon-Nikodym theorem I
  • part 11: Radon-Nikodym theorem and applications
  • session 52: Radon Nikodym theorem II
  • session 53: Consequences of Radon-Nikodym theorem I
  • session 54: Consequences of Radon-Nikodym theorem II
  • session 55: Continuous linear functionals on L^p spaces I
  • session 56: Continuous linear functionals on L^p spaces II
  • part 12: Riesz representation theorem and Lebesgue differentiation theorem
  • session 57: Riesz representation theorem I
  • session 58: Riesz representation theorem II
  • session 59: Hardy-Littlewood maximal function
  • session 60: Lebesgue differentiation theorem
  • session 61: Absolutely continuous functions I
  • session 62: Absolutely continuous functions II
  • part 13: Live Session
  • session 63: Live Session 09-03-2021
  • session 64: Live Session 30-03-2021

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