BODE PLOT transfer function is represented in standard time constant form as \(T\left( s \right) = \FRAC{{k\left( {\frac{s}{{{\omega _{{c_1}}}}} + 1} \right) \ldots }}{{\left( {\frac{s}{{{\omega _{{c_2}}}}} + 1} \right)\left( {\frac{s}{{{\omega _{{c_3}}}}} + 1} \right) \ldots }}\)ωc1, ωc2, … are corner frequencies.In a Bode magnitude plot,For a pole at the ORIGIN, the initial slope is -20 dB/decadeFor a zero at the origin, the initial slope is 20 dB/decadeThe slope of magnitude plot changes at each corner frequencyThe corner frequency associated with poles causes a slope of -20 dB/decadeThe corner frequency associated with poles causes a slope of -20 dB/decadeThe final slope of Bode magnitude plot = (Z – P) × 20 dB/decadeWhere Z is the number zeros and P is the number of polesApplication:The given system is second order system. So, the number of poles is 2.The slope of the asymptote = 2 × 20 dB/decade = 40 dB/decade20 bB/decade = 6 dB/octaveTherefore, the slope of the asymptote = 12 dB/octave

"> BODE PLOT transfer function is represented in standard time constant form as \(T\left( s \right) = \FRAC{{k\left( {\frac{s}{{{\omega _{{c_1}}}}} + 1} \right) \ldots }}{{\left( {\frac{s}{{{\omega _{{c_2}}}}} + 1} \right)\left( {\frac{s}{{{\omega _{{c_3}}}}} + 1} \right) \ldots }}\)ωc1, ωc2, … are corner frequencies.In a Bode magnitude plot,For a pole at the ORIGIN, the initial slope is -20 dB/decadeFor a zero at the origin, the initial slope is 20 dB/decadeThe slope of magnitude plot changes at each corner frequencyThe corner frequency associated with poles causes a slope of -20 dB/decadeThe corner frequency associated with poles causes a slope of -20 dB/decadeThe final slope of Bode magnitude plot = (Z – P) × 20 dB/decadeWhere Z is the number zeros and P is the number of polesApplication:The given system is second order system. So, the number of poles is 2.The slope of the asymptote = 2 × 20 dB/decade = 40 dB/decade20 bB/decade = 6 dB/octaveTherefore, the slope of the asymptote = 12 dB/octave

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Slope of the asymptote in Bode plot for a second-order system is:

General Knowledge General Awareness in General Knowledge 9 months ago

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Concept:BODE PLOT transfer function is represented in standard time constant form as \(T\left( s \right) = \FRAC{{k\left( {\frac{s}{{{\omega _{{c_1}}}}} + 1} \right) \ldots }}{{\left( {\frac{s}{{{\omega _{{c_2}}}}} + 1} \right)\left( {\frac{s}{{{\omega _{{c_3}}}}} + 1} \right) \ldots }}\)ωc1, ωc2, … are corner frequencies.In a Bode magnitude plot,For a pole at the ORIGIN, the initial slope is -20 dB/decadeFor a zero at the origin, the initial slope is 20 dB/decadeThe slope of magnitude plot changes at each corner frequencyThe corner frequency associated with poles causes a slope of -20 dB/decadeThe corner frequency associated with poles causes a slope of -20 dB/decadeThe final slope of Bode magnitude plot = (Z – P) × 20 dB/decadeWhere Z is the number zeros and P is the number of polesApplication:The given system is second order system. So, the number of poles is 2.The slope of the asymptote = 2 × 20 dB/decade = 40 dB/decade20 bB/decade = 6 dB/octaveTherefore, the slope of the asymptote = 12 dB/octave

Posted on 19 Nov 2024, this text provides information on General Knowledge related to General Awareness in General Knowledge. Please note that while accuracy is prioritized, the data presented might not be entirely correct or up-to-date. This information is offered for general knowledge and informational purposes only, and should not be considered as a substitute for professional advice.

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