Laboratory Manual for Introductory Circuit Analysis
Laboratory Manual for Introductory Circuit Analysis
13th Edition
ISBN: 9780133923780
Author: Robert L. Boylestad, Gabriel Kousourou
Publisher: PEARSON
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Textbook Question
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Chapter 21, Problem 1P

Find the resonant ω s and fs for the series circuit with the following parameters:

a. R  = 10Ω,  L  = 1H,  C  = 16 μ F

b. R  = 300Ω,  L  = 0 .51H,  C  = 0 .16 μ F

c. R  = 20Ω,  L  = 0 .27mH,  C  = 7 .5 μ F

Expert Solution
Check Mark
To determine

(a)

The resonant frequency ωs and fs for a given series circuit.

Answer to Problem 1P

The value of resonant is ωs=250rad/sec and fs=39.79Hz.

Explanation of Solution

Given:

The series circuit has following parameters

  R=10ΩL=1HC=16μF

Formula used:ωs is calculated by

  ωs=1LC

Resonant frequency fs is calculated by

  fs=12πLC

Calculation:

With the known values, ωs is calculated as

  ωs=1 LC=1 1×(16× 10 6 )=14× 10 3=0.25×103ωs=250rad/sec

Resonant frequency fs  is calculated as

  fs=12π LC=12π 1(16× 10 6 )=.03979×103fs=39.79Hz

Conclusion:

Therefore, the value of resonant is ωs=250rad/sec and fs=39.79Hz

Expert Solution
Check Mark
To determine

(b)

The resonant frequency ωs and fs for a given series circuit.

Answer to Problem 1P

The value of resonant is ωs=3500rad/sec and fs=557Hz

Explanation of Solution

Given:

The series circuit has following parameters

  R=300ΩL=0.51HC=0.16μF

Formula used:ωs  is calculated by

  ωs=1LC

Resonant frequency fs  is calculated by

  fs=12πLC

Calculation:

With the known values, ωs  is calculated as

  ωs=1 LC=1 (0.51)(0.16× 10 6 )=3.5×103ωs=3500rad/sec

Resonant frequency fs is calculated as

  fs=12π LC=12π (0.51)(0.16× 10 6 )=.557×103fs=557Hz

Conclusion:

Therefore, the value of resonant is ωs=3500rad/sec and fs=557Hz

Expert Solution
Check Mark
To determine

(c)

The resonant frequency ωs and fs for a given series circuit.

Answer to Problem 1P

The value of resonant is ωs=22.22×103rad/sec and fs=3.536kHz

Explanation of Solution

Given:

The given circuit has parameters

  R=20ΩL=0.27mHC=7.5μF

Formula used:ωs is calculated by

  ωs=1LC

Resonant frequency fs is calculated by

  fs=12πLC

Calculation:

With the known values, ωs is calculated as

  ωs=1 LC=1 (0.27× 10 3 )(7.5× 10 6 )=22.22×103ωs=22.22×103rad/sec

Resonant frequency fs  is calculated as

  fs=12π LC=12π (0.27× 10 3 )(7.5× 10 6 )=3.536×103fs=3.536kHz

Conclusion:

Therefore, the value of resonant is ωs=22.22×103rad/sec and fs=3.536kHz.

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Laboratory Manual for Introductory Circuit Analysis

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