Question For the questions (Q11), (Q12) and (Q13) please refer to the following first order system: \[ G(s)=\frac{10}{s+4} \] (Q)1) Find the time constant of \( G(s) \). Find the rise time of the unit step response of \( G(s) \). Find the settling time and steady state value of the unit step response of \( G(s) \).

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Transcribed Image Text: For the questions (Q11), (Q12) and (Q13) please refer to the following first order system: \[ G(s)=\frac{10}{s+4} \] (Q)1) Find the time constant of \( G(s) \). Find the rise time of the unit step response of \( G(s) \). Find the settling time and steady state value of the unit step response of \( G(s) \).
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Transcribed Image Text: For the questions (Q11), (Q12) and (Q13) please refer to the following first order system: \[ G(s)=\frac{10}{s+4} \] (Q)1) Find the time constant of \( G(s) \). Find the rise time of the unit step response of \( G(s) \). Find the settling time and steady state value of the unit step response of \( G(s) \).
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【General guidance】The answer provided below has been developed in a clear step by step manner.Step1/2The first order transfer function is given:\( \mathrm{{G}{\left({s}\right)}=\frac{{10}}{{{s}+{4}}}{\quad\text{or}\quad}\frac{{2.5}}{{{0.25}{s}+{1}}}} \)Above transfer function compare with, \( \mathrm{\frac{{K}}{{\tau{s}+{1}}}} \)Here, \( \mathrm{\tau} \)is a time constant\( \mathrm{\tau={0.25}{\sec{}}} \)\( \mathrm{{K}} \)is a DC gain or steady state gain\( \mathrm{{K}={2.5}} \)Explanation:Please refer to solution in this step.Step2/2Define the rise time of the unit step response of \( \mathrm{{G}{\left({s}\right)}} \)Where, \( ... See the full answer