Functional Analysis (M.Sc/BS)
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Lecture 1,2,3 : Definition of metric space and examples, Examples 1,2,3,4
Lecture 4,5 : Example 5,6,7
Lecture 6,7 Exercises 1.1 (Kreyszig) Q.1 to Q.9
Lecture 8,9 : Exercise 1.1 Q.11 to 15
Lecture 10,11 Further Examples of Metric Space, Example 1 (Sequence space s) Example 2 (The Space B(A) of bounded Functions)
Lecture 12 : The Space Lp
lecture 13,14,15 Exercise 1.2 Q.1 to Q.7
Lecture 1,2 : Open Ball, closed ball, interior, limit point of a set, Seperable spaces (two examples)
Lecture 3 : L-infinity space is not seperable
Lecture 4 : Lp Space is seperable
Lecture 5,6 : Convergence in Metric Space
Lecture 7 : Cauchy sequence, Th.1.4-4,5.
Lecture 8,9 : Theorem 1.4-6, Theorem 1.4-7
Lecture 10,11 : Rn and Cn are complete (PU Annual)
Lecture 12,13 : Space L-infinity is complete (PU Annual)
Lecture 14,15 : sequence space c is complete
Lecture 16,17 : Lp-Space is complete
Lecture 18,19 : C[a,b] is complete, Q is not complete
Lecture 1,2 : Normed Space
Lecture 3,4 : Example 1, Example 2
Lecture 5,6 : Example 3,4
Lecture 7 : Example 2.2-8, Lemma 2.2-9(translation invariance)
Lecture 8: Convex Set, Example (Closed unit Ball B(1,0) is convex)
Lecture 9,10 : Subspace of a Normed Space, Sequential and Series Convergence in norm
Lecture 11,12 : Schauder Basis, Normed Space having Schauder Basis is Seperable
Lecture 13,14 : Theorem-Finite dimensionsional Normed space is complete
Lecture 15, 16 : Equivalent norms
Lecture 17,18 : Compactness in Metric space, Lemma 2
Lecture 19,20 : Theorem 2.5.3 (A subset of a fine dimensional norms space is compact if and only if it is closed and bounded) PU Annual
Lecture 21,22 : Reisz Lemma, Th.2.5-5 (A Normed space having compact closed unit Ball is finite dimensional) PU Annual
Wasif Ahmed
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