A second-order real system has the following properties:The damping ratio \(\xi = 0.5\) and undamped natural frequency \({\omega _n} = 10\;rad/s\), the steady state value at zero is 1.02.The transfer function of the system is

\(\frac{{100}}{{{s^2} + 10s + 100}}\)

\(\frac{{1.02}}{{{s^2} + 5s + 100}}\)

\(\frac{{102}}{{{s^2} + 10s + 100}}\)

\(\frac{{102}}{{{s^2} + 5s + 100}}\)

A second-order real system has the following properties:The damping ra

1.	A second-order real system has the following properties:The damping ratio \(\xi = 0.5\) and undamped natural frequency \({\omega _n} = 10\;rad/s\), the steady state value at zero is 1.02.The transfer function of the system is
A.	\(\frac{{1.02}}{{{s^2} + 5s + 100}}\)
B.	\(\frac{{102}}{{{s^2} + 10s + 100}}\)
C.	\(\frac{{100}}{{{s^2} + 10s + 100}}\)
D.	\(\frac{{102}}{{{s^2} + 5s + 100}}\)
Answer» C. \(\frac{{100}}{{{s^2} + 10s + 100}}\)

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A second-order real system has the following properties:The damping ratio \(\xi = 0.5\) and undamped natural frequency \({\omega _n} = 10\;rad/s\), the steady state value at zero is 1.02.The transfer function of the system is

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