Week 1: Basic Concepts: Definition and examples of metric spaces, bounded and unbounded metric spaces, Distance between sets, Diameter of a set.
Week 2: Open and Closed Sets: Open and closed balls, lnterior points and interior of a set, Open set, Neighbourhood of a point, Limit point of a set, Closure of a set, Closed set
Week 3: Boundary of a Set and SubSpaces: Boundary points and boundary of a set, Exterior points and exterior of a set, Subspace of a metric space.
Week 4: Convergent Sequences: Sequences and subsequence in a metric space, Convergent and Cauchy sequences
Week 5: Complete Metric Spaces: Complete metric spaces, Relation between completeness and closedness, Cantor lntersection Theorem, Completion Theorem
Week 6: Dense Sets and Related Results: Dense sets, Separable spaces, Nowhere dense sets, Categories and Baire Category Theorem.
Week 7: Compact Metric Spaces: Cover of a metric space, Compact metric spaces, Compact sets and their criterion, Properties of compact sets
Week 8: Finite lntersection Property: Relation between compactness, completeness and closedness, Finite lntersection property
Week 9: Some lmportant Theorems: Bolzano-Weierstrass property, Sequential compactness, Totally bounded spaces
Week 10: Continuous Functions: Continuous functions between two metric spaces, Characterizations of Continuous functions
Week 11: Continuous functions, Uniform continuity: Continuous functions on compact spaces, Uniform continuous functions, Homeomorphism and lsometry,
Week 12: Equicontinuity and Fixed Point Theory: Equicontinuity and Ascoli-Arzela Theorem, Fixed points, Banach contraction theorem.
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