A continuous-time LTI system is represented by the ordinary differential equation dy(t) dt -y(t) + x (t) a. Determine the magnitude and phase angle of the system at w = 0, ±1, and ± ∞o. Use four decimal places w rad/sec -1 |H (w)| (w) radians b. What type of filter is the given system? c. If the input to the LTI system is a (t) places. w rad/sec |Y (w)| -8 0 -1 1 sin(t) , determine the magnitude response of the output |Y(w)| at w=0, ±1, and ± ∞. Use four decimal at 0 8 1

A continuous-time LTI system is represented by the ordinary differential equation dy(t) dt -y(t) + x (t) a. Determine the magnitude and phase angle of the system at w = 0, ±1, and ± ∞o. Use four decimal places w rad/sec -1 |H (w)| (w) radians b. What type of filter is the given system? c. If the input to the LTI system is a (t) places. w rad/sec |Y (w)| -8 0 -1 1 sin(t) , determine the magnitude response of the output |Y(w)| at w=0, ±1, and ± ∞. Use four decimal at 0 8 1

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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