DSP Lecture 7: The Discrete-Time Fourier Transform
8
DSP Lecture 8: Introduction to the z-Transform
9
DSP Lecture 9: Inverse z-Transform; Poles and Zeros
10
DSP Lecture 10: The Discrete Fourier Transform
11
DSP Lecture 10a: Exam 1 Review
12
DSP Lecture 11: Radix-2 Fast Fourier Transforms
13
DSP Lecture 12: The Cooley-Tukey and Good-Thomas FFTs
14
DSP Lecture 13: The Sampling Theorem
15
DSP Lecture 14: Continuous-time filtering with digital systems; upsampling and downsampling
16
DSP Lecture 15: Multirate signal processing and polyphase representations
17
DSP Lecture 16: FIR filter design using least-squares
18
DSP Lecture 17: FIR filter design (Chebyshev)
19
DSP Lecture 18: IIR filter design
20
DSP Lecture 19: Introduction to adaptive filtering; ARMA processes
21
DSP Lecture 20: The Wiener filter
22
DSP Lecture 22a: Exam 2 format/review
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DSP Lecture 21: Gradient descent and LMS
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DSP Lecture 22: Least squares and recursive least squares
25
DSP Lecture 23: Introduction to quantization
26
DSP Lecture 24: Differential quantization and vocoding
27
DSP Lecture 25: Perfect reconstruction filter banks and intro to wavelets
28
DSP Lecture 1a: Matlab for DSP; introduction to Cody Coursework
Description:
Dive into a comprehensive lecture series on Digital Signal Processing, covering fundamental concepts and advanced techniques. Explore signals, linear time-invariant systems, convolution, Fourier Series and Transform, frequency response, and z-Transform. Learn about Discrete-Time Fourier Transform, Discrete Fourier Transform, and various Fast Fourier Transform algorithms. Delve into sampling theorem, continuous-time filtering with digital systems, multirate signal processing, and filter design techniques for both FIR and IIR filters. Investigate adaptive filtering, ARMA processes, Wiener filters, gradient descent, and least squares methods. Examine quantization, vocoding, filter banks, and an introduction to wavelets. Gain practical skills with an introduction to MATLAB for DSP applications and Cody Coursework.