Topic outline

  • Digital Signal Processing (DSP)


  • Introduction

    Rationale: Digital Signal Processing (DSP) is one of the hottest areas in circuit branches.  DSP is a regular course for ETE, CSE, IT and EEE students, both in Undergraduate and in Post Graduate Level. DSP has also found applications in all engineering disciplines. However, critical understanding of the concepts from both theoretical and practical dimension is still lacking. This training program will help the faculty and students to bridge this gap and enable them to better concepts for real life applications. Here we learn about MATLAB.

    Objective:   Upon completion of this course student will be able to:

    • Apply digital signal processing fundamentals.
    • Understand the processes of analog-to-digital and digital-to-analog conversion.
    • Master the representation of discrete-time signals in the frequency domain, using z-transform, discrete Fourier transform (DFT), and cosine transform.
    • Understand the implementation of the DFT in terms of the FFT, as well as some of its applications (computation of convolution sums, spectral analysis).
    • Learn the basic forms of FIR and IIR filters, and how to design filters with desired frequency responses.
    • Appreciate relationships between first order low pass, and high pass filters, and between second-order Peaking and Notching filters. Design digital filters using MATLAB.
    • Use appropriate windows to diminish the effect of leakage.
    • Demonstrate the effect of the time window length on the achievable spectral resolution.
    • Learn the design procedures for filter bank.
    • Do a time-frequency analysis of a signal.
    • Become aware of some applications of digital signal processing.

     

  • Lecture-1-2: Signals, System and Signal Processing


  • Lecture-3-4: Classification of Signals


  • Lecture-5-6: Discrete Time Sinusoidal Signal


  • Lecture-7-8: Discrete Time Signal & System Part1


  • Lecture-9-10: Analysis of Discrete-Time Linear Time-Invariant Systems.


  • Lecture-11-13: Discrete Time Signal Classification, Correlation of Discrete Time Signal (Extension)


  • Lecture-14-15-16: Correlation and Convolutions of Discrete Time Signal Part 1


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  • Lecture-16-17: The z- transform and It’s Application to the of LTI System part 1


  • Lecture-18-19: The z- transform and It’s Application to the of LTI System part 2


  • Lecture-20: Inversion of the z-Transform.


  • Lecture-21: Frequency Analysis and The z- transform and It’s Application to the of LTI System part 3


  • Lecture: 21-22 Frequency analysis and filter design


  • Math Problem

    Instructions:

    • You will be given your data and requirements related to your assignment in the class. 
    • The last date will be mentioned here. It is worth declare that you have to submit the assignment within due time and the system will be maintained strictly
    • Complete your assignment and submit it in the following "Assignment Submission" page


  • Lecture: 13 Frequency analysis of Discrete-Time Signals Part 2


  • Lecture: 14 Frequency analysis of Discrete-Time Signals Part 3


  • Lecture: 15 Discrete Fourier Transform Part 1


  • Lecture 16: Discrete Fourier Transform Part 2


  • Lecture 17:Discrete Fourier Transform Part 3


  • Lecture 18: Linear Time-Invariant systems as Frequency Selective Filters Part 1


  • Lecture 19: Linear Time-Invariant systems as Frequency Selective Filters Part 2


  • lecture 20: Linear Time-Invariant systems as Frequency Selective Filters Part 3


  • Final Exam-Week

    Final Exam includes:  One sided z transformations, Rational Z transformations, Frequency Analysis, Continuous Fourier Transformation, Discrete Fourier Transformations, Filters, Correlation, and Convolutions.