2.0 Credits, 1, 2 Year, SprAB Tue3,4 Kazuki Katagishi
This cource provides distributions(hyperfunctions)-based complete proof of Shannon's sampling theory and then "Fluency information theory" which can be considered as a generalization of Shannon's sampling theory
Identical to 01CF202 and 01CH102.
lectures
This cource provides distributions(hyperfunctions)-based complete proof for Shannon's sampling theory and "Fluency information theory" as post Shannon. (1)Students should understand the mathematical relation between Fourier transform and Fourier series in waveform(singnal) analysis. (2)Students should understand importance of distributions(hyperfunctions) in modern waveform analysis. (3)Students should understand complete proof for Shannon's sampling theory based on distributions(hyperfunctions). (4)Students should understand Fluency sampling theory as a generalization of Shannon's sampling theory. (5)Students should understand Fluency information theory as modern information theory.
Distributions(Hyperfunctions), δ-functions, Shannon's sampling theory, Fluency sampling theory, Fluency information theory
(1)Fourier transform and Fourier series (2)Distributions(Hyperfunctions) for waveform(signal) analysis (3)Distributions-based complete proof of Shannon's sampling theory (4)Fluency sampling theory as generalized Shannon's sampling theory (5)Fluency information theory as a pair of Fluency sampling functions(DA functions) and their biorthogonal sampling functions(AD functions)
Nothing special
Comprehensively evaluate 20 points for the report and 80 points for the final examination, and pass 60 points or more.
Questions will be asked in class, so please submit a report in the next class.
Distribute materials that summarize the contents of the lecture every time. <references> 1. A. Papoulis, "Signal Analysis", McGraw-Hill, New York, NY, 1977. 2. E.O. Brigham, "The Fast Fourier Transform", Englewood Cliffs, NJ, Prentice-Hall, 1974.
17:30-18:30 after this class, Academic Computing and Communications Center (room number 404) E-mail: katagisi@cc.tsukuba.ac.jp
It is desirable to have prior knowledge of under graduated level "linear algebra" and "analysis" in math, but consider so that you can understand the contents of the class without prior knowledge.