i need the answer quickly A FIR digital filter has the following specificationPass band frequency ≥ 50 HzStop band frequency ≤ 40 HzPass band ripple0.01 dBStop band attenuation 40 dBSampling Frequencyloo H2sketch the tolerance scheme for the ideal and Practical filter.Ⓒ calculate the first coefficients of FIR digital filter usingHanning window3 Draw the realization block diagram of the filter.Hint: For Hanning window transition width in normalized (3.1/N)Pass band ripple = 0.546 dB, stop band attenuation = 44 dBwindow function = c(n) = 0.5 +0.5 cos (21th)2

A FIR digital filter has the following specification Pass band frequency ≥ 50 Hz Stop band frequency ≤ 40 Hz Pass band ripple 0.01 dB Stop band attenuation 40 dB Sampling Frequency loo H2 > sketch the tolerance scheme for the ideal and Practical filter calculate the first coefficients of FIR digital filter using Hanning window 3 Draw the realization block diagram of the filter. Hint: For Hanning window transition width in normalized (3.1/N) Pass band ripple = 0.546 dB, stop band attenuation = 44 dB window function = c(n) = 0.5 +015 cos (21th) 2 N

A FIR digital filter has the following specification Pass band frequency ≥ 50 Hz Stop band frequency ≤ 40 Hz Pass band ripple 0.01 dB Stop band attenuation 40 dB Sampling Frequency loo H2 > sketch the tolerance scheme for the ideal and Practical filter calculate the first coefficients of FIR digital filter using Hanning window 3 Draw the realization block diagram of the filter. Hint: For Hanning window transition width in normalized (3.1/N) Pass band ripple = 0.546 dB, stop band attenuation = 44 dB window function = c(n) = 0.5 +015 cos (21th) 2 N

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

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