The switch in the circuit in (Figure 1) has been in position a for a longtime. At t = 0, the switch moves instantaneously to position b.Figure12.5 kna20 mA1=010 nFне10 ΚΩwwwiL150 kQ1 of 1 >+4 H V▼▼Part AConstruct the s-domain circuit for t> 0 and find VoExpress your answer in volt-seconds in terms of s, where s is in reciprocal seconds. Express the coefficients using three significant figures.▸ View Available Hint(s)15. ΑΣΦΑV₂ =SubmitPart BIL =Request AnswerSubmitFind IL-Express your answer in volt-seconds in terms of s, where s is in reciprocal seconds. Express the coefficients using three significant figures.► View Available Hint(s)VE ΑΣΦΑPart C Complete previous part(s)vecPart D Complete previous part(s)www. ?vecV-s?A-s

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Answered: The switch in the circuit in (Figure 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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For the circuit shown below, the initial conditions are zero, Idc is a current source continuous and switch S is open at t = 0.a)Determine the equivalent impedance to the right of points a and b of the circuit, Z(s).b)Obtain the voltage between points a and b of the circuit in the frequency domain, V(s). Employ the initial and final value properties and calculate the values of v(0) and v(∞).c)Find the expression for v(t). Check that the values of v(0) and v(∞) agree with those calculated in the previous item.d)Obtain currents i1(t) and i2(t).
For the circuit shown below, the initial conditions are zero, Vdc is a voltage source continuous and switch S is closed at t = 0.a)Determine the equivalent impedance to the right of points a and b of the circuit, Z(s).b)Obtain the input current of the circuit in the frequency domain, I(s). employ the properties of the initial and final value and calculate the values of i(0) and i(∞).c)Find the expression for i(t). Check if the values of i(0) and i(∞) agree with those calculated in the previous item.d)Obtain voltages v1(t) and v2(t).
3. (a) Find the characteristic polynomial, characteristic equation, characteristic roots, and characteristic modes of this system. (b) Find y(t) the zero-input component of the response for t >= 0, if the initial conditions are y(0) = 1 and y'(0)= -2 for [(D^2)+4D+8]y(t) = Dx(t)
The system function of a discrete-time causal LTI system is H(z) = z / (z2 +1.5 z -1) a) Show the poles/zeros and the ROC in the Z-plane. Is this system stable? Explain. b) Calculate the impulse response h(n). c) Give the difference equation of this system. d) Repeat questions (a), (b), (c) if this system is changed to be stable.
Transfer function of the pulmonary system that represents alveolar pressure PA to Pao is given by H(s)=0.8∗8,5s2+4s+8,5H(s)=0.8∗8,5s2+4s+8,5 . for Pao = 5 mmH2O, PA at steady-state is …… mmH2O
For the circuit given below, it is given as R1=R2=1Ω, L1=1H, c=1F, V1=2V. If IL1(0)=1A and Vc1(0)=2V I1(s)=? I2(s)=?
Let i(0)=2 A. (a)In the s-domain, what is the Thevenin impedance seen by the 1-ohm resistor? (b) what is the Thevenin voltage seen by the 1-ohm resistor in the s-domain? (c) In the Thevenin equivalent circuit based on questions a & b, the expression for the current i(s) is in the form A/(Bs+C). If B=1, what is the value of C? (d)The expression for the voltage v(s) is in the form A/(Bs+C). If B=1, using i(s) and referring to the original circuit, what is the value of A?
Let i(0) = 2A Determine: a.) Working in the s-domain, find the Thevenin impedance seen by the 1 ohm resistor. b.)The Thevenin voltage seen by the 1 ohm resistor. (There is no "s" term in the answer.) c.) In the Thevenin equivalent circuit, the expression of the current, i(s), is in the form of A/(Bs+C). If B = 1, what is C? d.)The expression for v(s) is in the form A/(Bs+C.) If B=1, what is A?
Please provide Handwritten answer. 3) k=0.7, a=1, b=0.5, and Gd(s) is connected in series with G(s). close loop system Find the range of T to be stable (provided that T > 0).
Derive the expression of the equivalent circuit. (R1;=5 kΩ ,R2=10 ΚΩ, rπ, =10 kΩ)
Enter the value of the K coefficient required for the marginally stable/unstable system of a system whose characteristic equation is given as s3+6s2+3s+K=0.
For the circuit shown below, determine:a)The expression of the input current of the circuit in the time and frequency domain, respectively, i(t) and I(s).b)The circuit impedance, Z(s) = V(s)/I(s).c)The stress expression, v(t).d)The currents in the resistor, iR(t), and in the capacitor, iC(t).e)Repeat items c and d if v(0) = – 5 V.

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The switch in the circuit in (Figure 1) has been in position a for a long time. At t=0, the switch moves instantaneously to position b