Computational Harmonic Analysis References Page (Winter, 2002)

Course: MAT 280
CRN: 61380 
Title: Computational Harmonic Analysis
Class: MW 5:40pm-7:00pm, 693 Kerr 

Instructor: Naoki Saito 
Office: 675 Kerr 
Phone: 754-2121 
Email:saito@math.ucdavis.edu  
Office Hours: TTh 2:00pm-3:00pm or by appointment via email

The following references are useful and contains much more details of the topics covered or referred to in my lectures.
I strongly encourage you to take a look at some of them.


Lecture 1: Overture and Motivation

Lecture 2: What is a Signal?  Basics of the Fourier Transforms
For quantization, which will not be discussed in this course, see R. M. Gray and D. L. Neuhoff: "Quantization," IEEE Trans. Inform. Theory , vol. 44, no.6, pp.2325-2383, 1998.

Lecture 3: Basics of the Fourier Transforms II:  L2 Theory, The Heisenberg Uncertainty Principles
Basics:
Details of L2 theory:
Survey on the uncertainty principle (advanced):

Lecture 4: Bandlimited Functions, Prolate Spheroidal Wave Functions, and Sampling Theorems

Prolate Spheroidal Wave Functions:
Sampling Theorems:
For more details on Sampling Theorems and Non-Uniform Sampling Schemes, see:
For the historical articles on the sampling theorems, see:

Lecture 5: Fourier Series; Periodization vs Sampling

Basic Fourier Series Theory:
Generalized Functions (Distributions):
For the other stuff I menioned in the class, the details can be found as follows:

Spherical Harmonics:
Orthogonal Polynomials:

Lecture 6: Discrete Fourier Transform
For advanced topics on DFT, check out the following articles and book:

Lecture 7: Fast Fourier Transform (FFT)

There are many references on FFT, but the following are particularly useful:
For advanced and thought-provoking aspects of FFT, read:
The history of the FFT is another very interesting subject.  See e.g.,
Lecture 8: Basic Sturm-Liouville Theory
For more details, see e.g.,

Lecture 9:
Discrete Cosine & Sine Transforms

Lecture 10: Karhunen-Lo
è
ve Expansion

Discrete version (aka Principal Component Analysis [PCA]):
Continuous version:
    See also:
Applications (too numerous to list all):
Signals:

Images:


Lecture 11: KLT and DCT

Relationship with DCT:
On Toeplitz matrices:
Prolate Spheroidal Wave Functions:
Ramp Process:
Manifold Learning:

Lecture 12: Time-Frequency Analysis and Synthesis
Some historical papers:

Lecture 13: Windowed (or Short-Time) Fourier Transform


Lecture 14: Introductory Frame Theory and the Balian-Low Theorem
See also the following original papers:

Lecture 15: Continuous Wavelet Transform

Lecture 16: Wavelet Frames; Discrete Wavelet Transform
Analytic Signals:

Lecture 17: Discrete Wavelet Transform II; Local Trigonometric Transform

Discrete Wavelet Transforms, Multiresolution Analysis:
Local Trigonometric Transform:


Please email me if you have any comments or questions!
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