The final exam will cover all of the following topics.
The Real Numbers
- The Natural Numbers
- Mathematical Induction
- Well-Ordering Principle
- Ordered Fields
- Ordered Field Axioms (basic algebra with inequalities)
- Triangle Inequality
- All ordered fields contain \(\mathbb{Q}\)
- Examples: \(\mathbb{Q}\), \(\mathbb{R}\)
- The Completeness Axiom
- Upper and Lower Bounds
- Bounded Sets
- The Completeness Axiom (aka Least Upper Bound Principle)
- Supremums and Infimums
- \(\mathbb{Q}\) is Dense in \(\mathbb{R}\)
- The Archimedean Principle
- Topology
- Neighborhoods
- Interior Points and Boundary Points
- Open Sets and Closed Sets
- Accumulation Points and Isolated Points
- Closure of a Set
- Examples:
- All open intervals \((a,b)\) are open.
- All closed intervals \([a,b]\) are closed.
- All singleton sets \(\{x\}\) are closed.
- \(\mathbb{R}\) and \(\varnothing\) are both open and closed at the same time.
- Compact Sets
- Compact Sets
- Open Covers and Subcovers
- Heine-Borel Theorem
- Balzano-Weierstrass Theorem
Sequences
- Convergence
- \(\epsilon\)-\(M\) definition of limit
- Tail of a sequence
- Bounded sequences
- Limit Theorems
- Addition/Subtraction/Multiplication rules
- Monotone and Cauchy Sequences
- Monotone Convergence Theorem
- Cauchy Convergence Criteria
- Subsequences
- Limit superior and limit inferior (limsup and liminf)
- Subsequential limits (the set of these is always a closed set)
Limits and Continuity
- Limits of Functions
- \(\epsilon\)-\(\delta\) definition of limit
- Other characterizations of limits (sequential and topological)
- Limits rules (addition, multiplication, etc.)
- Continuous Functions
- Definition of continuity at a point and on a set
- Other characterizations of continuity (sequential and topological)
- Continuity rules (addition, multiplication, and composition)
- Pre-images of open sets are open
- Pre-images of closed sets are closed
- Properties of Continuous Functions
- Images of compact sets are compact
- Images of bounded sets are bounded
- Images of connected sets are connected
- Extreme Value Theorem (a continuous function achieves its maximum and minimum values on any compact domain)
- Intermediate Value Theorem
Differentiation
- The Derivative
- Definition of derivative and differentiable
- Differentiable implies continuous
- The Mean Value Theorem
- Fermat's Theorem (Max/min values of differentiable functions on open intervals occur when derivative is zero)
- Rolle's Theorem
- Mean Value Theorem
Integration
- The Riemann Integral
- Definitions: Partitions, upper and lower sums, upper and lower integrals
Properties of the Riemann Integral
The Fundamental Theorem of Calculus
- Version 1
- The Evaluation Theorem (version 2)