Transfer Functions-Digital Signal Processing-Assignment Solution, Exercises of Digital Signal Processing

This is solution manual for Digital Signal processsing. It was helpful in solving assignment given by Sir. Pranav Boparai at Bengal Engineering and Science University. It includes: Network, Branch, Equation, Inverse, Zero, Phase, Inverse, Graph, Possible, Implementing

Typology: Exercises

2011/2012

Uploaded on 07/26/2012

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183 G.1. We proceed by obtaining the transfer functions for each of the networks. For network 1, ¥(z) = 2r cos @2“¥ (2) — 22-°¥ (z) + X(z) or ¥(z) | 1 X(z} 1 = 2rcos@z-! 4722-7 For network 2, define W(z) as in the figure below: By(z)= Wiz) zo rood =rsing rsind rcosé fate me vip] wo then W(z) = X(z) —rsin6z7'¥ (z) + rcos@z 7 W(z) and ¥(z) =rsin@z7'W{z) + 6 cos 82~'Y(z) Eliminate W(z) to get ¥(2) rsin@z— Xz) = 2p cosBz7) + r22-2 Bence the two networks have the same poles. Ay(z) = 6.2. The only input to the y{n] node is a unity branch connection from the z[n] node. The rest of the network does not affect the input-output relationship. The difference equation is y(n] = z[n]. 6.3. 24327! BQ Ta System (d) is recognizable as a transposed direct form I] implementation of H(z). 6.4, (a) From the flow graph, we have: ¥ (2) = 2X(2) + GX) ~ Pe) + Sy(eet