1. For the multi-tone discrete time periodic signal 1 3 [n] = sin(0.24) + cos(0.4лn) + a. Find the fundamental frequencies (F₁ and F2) and periods (N₁ and N₂) of the sine and cosine functions individually. Use these to determine the fundamental period length (N) of the multi-tone signal. b. Using the alternate representation of the multi-tone signal x[n] given below, and the period length N you found in Part (a), determine the DTFS coefficients (ck) for the signal. You do not need to write out any zero-valued Ck coefficients. 1 5n π π 2 치[n]=ee-1(품)on-e-He/(품)3n + Lex()sm + He-1()sn 1 + 2 c. Calculate the complex values of each non-zero Ck coefficient you found in Part (b) in the form k = a + jb (you may round your answers to four decimal places).

1. For the multi-tone discrete time periodic signal 1 3 [n] = sin(0.24) + cos(0.4лn) + a. Find the fundamental frequencies (F₁ and F2) and periods (N₁ and N₂) of the sine and cosine functions individually. Use these to determine the fundamental period length (N) of the multi-tone signal. b. Using the alternate representation of the multi-tone signal x[n] given below, and the period length N you found in Part (a), determine the DTFS coefficients (ck) for the signal. You do not need to write out any zero-valued Ck coefficients. 1 5n π π 2 치[n]=ee-1(품)on-e-He/(품)3n + Lex()sm + He-1()sn 1 + 2 c. Calculate the complex values of each non-zero Ck coefficient you found in Part (b) in the form k = a + jb (you may round your answers to four decimal places).

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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