number 2 a) Find the initial and final current in the inductor.R21kQV120 Vb) Find the time constant. T.e) Find it (t) for t > 0.d) Find vi(t) for t > 0.switch is closed at t = 0.Problem 2 - For the circuit shown below, the capacitor has been charged to 10 V before thea)Find the differential equation for the current in thecircuit, i(t), and express it in the standard form.Find en in terms of the circuit elements, R, L, C.c) Find in terms of R, L, C.b)SW1Vc(0-) = 10Vd) If C = 1 µF and L= 10 mH, what value of R willmake the system over damped?e)If the system is under damped, what is the generalexpression for the current in the resistor, VR (t). Donot solve for the constants.Problem 3 - For the circuit shown:a) What type of filter is this (low-pass, band-pass, etc.)?Explain your answer.b) Find G(jo) = Vo/Vi as a function of R1, C1, and R3.c) What is the frequency where magnitude of G=0.707?d) Sketch the plot of the magnitude of G(jo) vs. 0.e) Sketch the plot of the phase of G(jo) vs. o.Problem 4 - For the circuit shown:a)What type of filter is this (low-pass, band-pass, etc.)?Explain your answer.b)Find the impedance of the series combination of Cland L1 as a function of co.c) Find the resonant frequency, On.+1ViSW1C1wwwR1100 QV1sine1 kHzC1V1 100 nFsine15.9 kHzwwwL11 mH5R11 KQWR1C11 µF10 mlVowwR3900VoR120 Q2

Since you have asked multiple questions in a single request, we will be answering only the first…

below, the capacitor has been charged to 10 V before the SW1 Vc(0-) = 10V switch is closed at t = 0. a) Find the differential equation for the current in the circuit, i(t), and express it in the standard form. b) Find es in terms of the circuit elements, R, L, C. c) Find in terms of R, L, C. d) If C = 1 µF and L= 10 mH, what value of R will make the system over damped? e) If the system is under damped, what is the general expression for the current in the resistor, VR (t). Do not solve for the constants. = C1 www R1

below, the capacitor has been charged to 10 V before the SW1 Vc(0-) = 10V switch is closed at t = 0. a) Find the differential equation for the current in the circuit, i(t), and express it in the standard form. b) Find es in terms of the circuit elements, R, L, C. c) Find in terms of R, L, C. d) If C = 1 µF and L= 10 mH, what value of R will make the system over damped? e) If the system is under damped, what is the general expression for the current in the resistor, VR (t). Do not solve for the constants. = C1 www R1

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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