Lectures:
Lecture 1: Where Do We Start?
Lecture 2: The Real Numbers
Lecture 3: Countability
Lecture 4: Metric Spaces, Open Sets
Lecture 5: Closed Sets
Lecture 6: Compact Sets
Lecture 7: Compact Subsets of Euclidean Space
Lecture 8: Completeness
Lecture 9: Sequences and Series
Lecture 10: Continuity
Lecture 11: Continuity and Sets
Lecture 12: Continuity and Compactness
Lecture 13: First In-Class Test
Lecture 14: Differentiability
Lecture 15: Mean Value Theorem
Lecture 16: Riemann-Stieltjes Integral Defined
Lecture 17: Integrability of a Continuous Function
Lecture 18: Riemann-Stieltjes Integral
Lecture 19: Fundamental Theorem of Calculus
Lecture 20: Sequences of Functions
Lecture 21: Second In-Class Test
Lecture 22: Uniform Convergence
Lecture 23: Equicontinuity
Lecture 24: Power Series
Lecture 25: Fundamental Theorem of Algebra
Lecture 26: Final Review
Final Exam
Lecture Outlines
Lecture 1: Where Do We Start?
Reading: Rudin Pages 1-11
Problems: Rudin Chapter 1, Problems 1, 3, 5
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First 'Proof' -- that there is no rational with square 2
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Naive Set Theory
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Fields, Rational Numbers
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Ordering
Lecture 2: The Real Numbers
Reading: Rudin Pages 11-17
Problems: Rudin Chapter 1, Problems 8, 9, 10
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Least Upper Bound Property
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Archimedean Property of Real Numbers
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Euclidean Spaces
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Schwarz Inequality
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Triangle Inequality
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Complex Numbers
Lecture 3: Countability
Reading: Rudin Pages 24-30
Problems: Rudin Chapter 2, Problems 2, 3, 4
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Maps, Surjectivity, Injectivity, Bijectivity
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Equivalence of sets
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Finite Sets, Countable Sets, Uncountable Sets, At-most-countable Sets, Infinite sets
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Countability of the Integers (duh)
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A Countable Union of Countable Sets is Countable
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Cartesian Product of Two Countable Sets is Countable
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Countability of the Rationals
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The Noncountability of the Set of Sequences with Values in {0,1}
Lecture 4: Metric Spaces, Open Sets
Reading: Rudin Pages 31-35
Problems: Rudin Chapter 2, Problems 9a, 9b, 9c, 11
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Metric Spaces, Definition and Examples -- Euclidean Metric, Discrete Metric and Supremum Metric
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Open Balls in a Metric Space
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Open Subsets of a Metric Space
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Unions and Countable Intersections of Open Sets are Open
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Open Balls are Open (duh)
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Limit Points and Closed Sets
Lecture 5: Closed Sets
Reading: Rudin Pages 34-36
Problems: Rudin Chapter 2, Problems 10, 22, 23
Metric Spaces, Basic Theory
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Complements of closed sets are open and vice versa
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Closure of a set
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Relatively open subsets
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Compact sets are closed
Problem set 3 is due on the same day as lecture #6.
Lecture 6: Compact Sets
Reading: Rudin Pages 36-38
Problems: Rudin Chapter 2, Problems 12, 16, 25
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Infinite Subsets of Compact Sets have Limit Points
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Countable intersection property
Lecture 7: Compact Subsets of Euclidean Space
Reading: Rudin Pages 38-40
Problems: Rudin Chapter 2, Problems 24, 26, 29
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Compactness of the unit cube
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Heine-Borel theorem
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Weierstrass's theorem
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Connectedness of sets
Lecture 8: Completeness
Reading: Rudin Pages 42-43, 47-55
Problems: Rudin Chapter 2, Problems 19, 20, 21
Problem set 4 due at the end of class.
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Sequential Compactness
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Convergence of Sequences
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Cauchy Sequences
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Completeness
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Completeness of Euclidean spaces
Lecture 9: Sequences and Series
Reading: Rudin Pages 55-69, 71-75
Problems: Rudin Chapter 3, Problems 2, 7, 12, 16
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Completeness of compact spaces
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Sequential compactness
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Did not do series, root, ratio tests, absolute convergence
Lecture 10: Continuity
Reading: Rudin pages 83-86
Problems: Rudin Chapter 4, Problems 1, 4, 15
Problem set 5 is due on the same day as this lecture.
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Limits of functions at a point
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Continuity of functions at a point
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Continuity of composites
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Continuity of maps
Lecture 11: Continuity and Sets
Reading: Rudin pages 85-93
Problems: Rudin Chapter 4, Problems 1, 4, 15
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Continuity and open sets
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Continuity and closed sets
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Continuity of components
Lecture 12: Continuity and Compactness
Reading: Rudin pages 89-93
Problems: -
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Continuity and compactness
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A continuous function on a compact set has a maximum
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Continuity of connectedness
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A continuous function on an interval takes intermediate values
Lecture 13: First In-Class Test Covering All Material In Lectures 1-10
Lecture 14: Differentiability
Reading: Rudin pages 103-107
Problems: -
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Differentiability and the derivative
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Differentiability implies continuity
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Sums and products
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Chain rule
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Maxima and minima
Lecture 15: Mean Value Theorem
Reading: Rudin pages 107-110
Problems: -
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Mean value theorems
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Increasing and decreasing functions
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l'Hopital's rule
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Higher derivatives
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Taylor's theorem
Lecture 16: Riemann-Stieltjes Integral Defined
Reading: Rudin pages 120-124
Problems: -
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Upper and lower sums
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Upper and lower integrals
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Integrability
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Refinement
Lecture 17: Integrability of a Continuous Function
Reading: Rudin pages 124-127
Problems: -
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Integrability criterion
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Continuous functions are Riemann integrable
Lecture 18: Riemann-Stieltjes Integral
Reading: Rudin pages 128-133
Problems: -
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Riemann-Stieltjes Integral
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Properties of the integral
Lecture 19: Fundamental Theorem of Calculus
Reading: Rudin pages 133-136
Problems: -
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Integration by parts
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FTC version 1
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FTC version 2
Lecture 20: Sequences of Functions
Reading: Rudin pages 143-151
Problems: -
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Pointwise convergence of sequences of functions
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Uniform convergence
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Cauchy criterion
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Uniform convergence and continuity
Lecture 21: Second In-Class Test
Lecture 22: Uniform Convergence
Reading: Rudin pages 150-154
Problems: -
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The metric space of bounded continuous functions on a metric space
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Uniform convergence and integration
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Uniform convergence and differentiation
Lecture 23: Equicontinuity
Reading: Rudin pages 154-161
Problems: -
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Equicontinuity and compactness
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Stone-Weierstrass theorem
Lecture 24: Power Series
Reading: Rudin pages 83-86
Problems: -
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Convergent Taylor series
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Analytic Functions
Lecture 25: Fundamental Theorem of Algebra
Reading: Rudin pages 180-185
Problems: -
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Exponential, logarithm and trigonometric functions
Lecture 26: Final Review
Reading: -
Problems: -
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Final Exam review
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Indications of what we could have covered with more time
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Structure of final exam
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Relationship of this material to other mathematics courses
Final Exam