3 In the circuit shown in Figure P6.8, if L = 190 mH R = 2.3 k2 C = 55 nF R2 = 1.1 k2 a. Determine how the input impedance behaves at extremely high or low frequencies. b. Find an expression for the input impedance in the form [1+jh(@) ] 1+ jh(@) ] Z jw) = Z, Z, = R + w*R\ LC – R – R fi(@) = w(R RC + L) wLC – 1 f2(w) : @CR2 c. Determine the four frequencies at which f (@) = +1 or –1 and f2(@) = +1 or –1. d. Plot the impedance (magnitude and phase) versus frequency. I(ju) Vja)
3 In the circuit shown in Figure P6.8, if L = 190 mH R = 2.3 k2 C = 55 nF R2 = 1.1 k2 a. Determine how the input impedance behaves at extremely high or low frequencies. b. Find an expression for the input impedance in the form [1+jh(@) ] 1+ jh(@) ] Z jw) = Z, Z, = R + w*R\ LC – R – R fi(@) = w(R RC + L) wLC – 1 f2(w) : @CR2 c. Determine the four frequencies at which f (@) = +1 or –1 and f2(@) = +1 or –1. d. Plot the impedance (magnitude and phase) versus frequency. I(ju) Vja)
Introductory Circuit Analysis (13th Edition)
13th Edition
ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
Section: Chapter Questions
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Question
![3 In the circuit shown in Figure P6.8, if
L = 190 mH R = 2.3 k2
C = 55 nF
R2 = 1.1 k2
a. Determine how the input impedance behaves at
extremely high or low frequencies.
b. Find an expression for the input impedance in the
form
[1+jh(@) ]
1+ jh(@) ]
Z jw) = Z,
Z, = R +
w*R\ LC – R – R
fi(@) =
w(R RC + L)
wLC – 1
f2(w) :
@CR2
c. Determine the four frequencies at which
f (@) = +1 or –1 and f2(@) = +1 or –1.
d. Plot the impedance (magnitude and phase) versus
frequency.
I(ju)
Vja)](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F464b8544-f91b-48ac-ad97-90b4c92585f3%2F0d4267ac-df86-4dcc-8b6b-fbbd9366ad53%2Fchzzc0c.png&w=3840&q=75)
Transcribed Image Text:3 In the circuit shown in Figure P6.8, if
L = 190 mH R = 2.3 k2
C = 55 nF
R2 = 1.1 k2
a. Determine how the input impedance behaves at
extremely high or low frequencies.
b. Find an expression for the input impedance in the
form
[1+jh(@) ]
1+ jh(@) ]
Z jw) = Z,
Z, = R +
w*R\ LC – R – R
fi(@) =
w(R RC + L)
wLC – 1
f2(w) :
@CR2
c. Determine the four frequencies at which
f (@) = +1 or –1 and f2(@) = +1 or –1.
d. Plot the impedance (magnitude and phase) versus
frequency.
I(ju)
Vja)
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