Лекции

1
Lecture 1. Basics of Functional Analysis. Metric Spaces
01:33:50

2
Lecture 2. Metric Spaces. Normed Spaces. Seminorms and Polynormed Spaces. Banach Spaces
01:31:24

3
Lecture 3. Euclidean and Hilbert Spaces
01:37:15

4
Lecture 4. Separable Hilbert Spaces. Bases in Hilbert Spaces
01:18:25

5
Lecture 5. Compact and Precompact Sets in Metric Spaces
01:22:51

6
Lecture 6. Compact and Precompact Sets: Exercises
01:24:49

7
Lecture 7. Linear Operators and Functionals in Normed Spaces
01:25:57

8
Lecture 8. Linear Operators and Functionals in Normed Spaces: Exercises
01:19:08

9
Lecture 9. The Hahn–Banach Theorem and the Corollaries
01:26:33

10
Lecture 10. (C[a,b])*. Norms of Functionals
01:29:41

11
Lecture 11. Hilbert Space Duality. Modes of Convergence
01:28:04

12
Lecture 12. Reproducing Kernels and Weak Convergence: Exercises
01:29:06

13
Lecture 13. Adjoint, Self-Adjoint, and Normal Operators. Hellinger–Toeplitz Theorem
01:55:20

14
Lecture 14. Adjoint Operators: Exercises
01:00:13

15
Lecture 15. Compact Operators. Inverse Operator
01:33:14

16
Lecture 16. Exercises on Compact and Inverse Operators
01:21:54

17
Lecture 17. Spectrum of a Bounded Operator. Classification of Points in the Spectrum
01:33:59

18
Lecture 18. Exercises on Spectra of Operators
01:30:59

19
Lecture 19. The Hilbert–Schmidt Theorem
01:40:43

20
Lecture 20. Applications of the Hilbert–Schmidt Theorem
01:20:46

21
Lecture 21. Fredholm Theory
01:31:07

22
Lecture 22. Fredholm Theory: Exercises
01:26:41

23
Lecture 23. Unbounded Operators: Introduction
01:33:20

24
Lecture 24. Symmetric Operators
01:25:38

25
Lecture 25. Isometric Operators and the Cayley Transform. Self-Adjoint Extensions of Symmetric Operators
01:36:28

26
Lecture 26. Functional Calculus
01:32:56

27
Lecture 27. Spectral Theorem for Self-Adjoint Operators. Fourier Transform in L₁
01:28:44

28
Lecture 28. Fourier Transform in L₁, S, and L₂
01:28:41

29
Lecture 29. Test Functions and Distributions
01:23:06

30
Lecture 30. Convolution
01:20:04