3. Consider a simple RC circuit with resistance R, capacitance C, and input voltage E(t).The voltage v(t) across the capacitor can be modelled by the differential equationE(t) – vRC .dvdt(a) Suppose R = 0.2, C = 1, and E(t) = 0 (zero input source). Find v(t) if v(0) = vo.Ans: v(t) = vo e-5t(b) Suppose R= 0.2, C = 1, and E(t) = 2 (constant voltage source). Find v(t) if v(0) = 0.Ans: v(t) = 2(1 – e-5€)%3D

The circuit this is excited the use of alternating supply is referred to as an AC Circuit. The…

3. Consider a simple RC circuit with resistance R, capacitance C, and input voltage E(t). The voltage v(t) across the capacitor can be modelled by the differential equation dv_ E(t) – v dt RC . (a) Suppose R = 0.2, C = 1, and E(t) = 0 (zero input source). Find v(t) if v(0) = vo. Ans: v(t) = vo e-5t (b) Suppose R = 0.2, C = 1, and E(t) = 2 (constant voltage source). Find v(t) if v(0) = 0. Ans: v(t) = 2(1 – e-5)

3. Consider a simple RC circuit with resistance R, capacitance C, and input voltage E(t). The voltage v(t) across the capacitor can be modelled by the differential equation dv_ E(t) – v dt RC . (a) Suppose R = 0.2, C = 1, and E(t) = 0 (zero input source). Find v(t) if v(0) = vo. Ans: v(t) = vo e-5t (b) Suppose R = 0.2, C = 1, and E(t) = 2 (constant voltage source). Find v(t) if v(0) = 0. Ans: v(t) = 2(1 – e-5)

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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