vị(t)u(t) + R L eeeee C + vo(t) See the dynamic RLC circuit shown above. It has a time dependent input of vi(t)u(t). A. Redraw the CCT in the s-domain labeling polarities, current directions, and circuit variables. Assume zero initial conditions and label nodes if node voltage analysis is used. B. Derive the transfer function, T(s), from Vi(s) to Vo(s) by combining and reducing the rightmost parallel inductor and capacitor branches into an equivalent impedance. (Hint: create series circuit and use voltage division) Help on part C: C. At the output interface, derive the Thévenin equivalent voltage, VT (s) using the transfer function. Then use the lookback method to derive the Thévenin equivalent impedance, ZT (s), at the output.

vị(t)u(t) + R L eeeee C + vo(t) See the dynamic RLC circuit shown above. It has a time dependent input of vi(t)u(t). A. Redraw the CCT in the s-domain labeling polarities, current directions, and circuit variables. Assume zero initial conditions and label nodes if node voltage analysis is used. B. Derive the transfer function, T(s), from Vi(s) to Vo(s) by combining and reducing the rightmost parallel inductor and capacitor branches into an equivalent impedance. (Hint: create series circuit and use voltage division) Help on part C: C. At the output interface, derive the Thévenin equivalent voltage, VT (s) using the transfer function. Then use the lookback method to derive the Thévenin equivalent impedance, ZT (s), at the output.

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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