subject
Engineering, 19.03.2021 18:00 abbydamaso5048

A control system has the following open-loop transfer function: Ls= 2 s2 +0.6s +9 /3 s2 1
a) Draw the Bode magnitude and the phase plots for L(s). Use two plots to draw the contribution of each factor (i. e., constant gain, zeros, poles) and other two for the magnitude and phase of L(s)
In particular:
Draw the asymptotes and indicate their slopes, then sketch the real curves.
Clearly mark the cutoff frequencies.
b) Calculate the phase margin (PM), the crossover frequency (Wc) and indicate them on the Bode plots. Using φΡΜ, estimate the damping ratio ζ for the closed-loop poles
c) Calculate the gain margin GM, the frequency at -180 deg (w- π) and indicate them on the Bode plots.
d) Calculate the bandwidth (WB) and the gain in dB for w -[infinity] and indicate them on the Bode plots.
e) Calculate the resonance frequency (wr) and the magnitude at such frequency (i. e. 20LogL(iw)) and indicate the values on the Bode plots For parts b) through e), indicate all the quantities in the second pair of plots .

ansver
Answers: 3

Another question on Engineering

question
Engineering, 04.07.2019 18:10
Different types of steels contain different elements that alter the characteristics of the steel. for each of the following elements, explain what the element does when alloyed with steel.
Answers: 2
question
Engineering, 04.07.2019 18:10
Water at the rate of 1 kg/s is forced through a tube with a 2.5 cm inner diameter. the inlet water temperature is 15°c, and the outlet water temperature is 50°c. the tube wall temperature is 14°c higher than the local water temperature all along the length of the tube. what is the length of the tube?
Answers: 3
question
Engineering, 04.07.2019 18:20
How much power could a wind turbine produce if it had the following specifications? cp = 0.45 -d=1.2kg/m3 d=50m v 5m/s
Answers: 2
question
Engineering, 04.07.2019 19:20
At steady state, air at 200 kpa, 325 k, and mass flow rate of 0.5 kg/s enters an insulated duct having differing inlet and exit cross-sectional areas. the inlet cross-sectional area is 6 cm2. at the duct exit, the pressure of the air is 100 kpa and the velocity is 250 m/s. neglecting potential energy effects and modeling air as an 1.008 kj/kg k, determine ideal gas with constant cp = (a) the velocity of the air at the inlet, in m/s. (b) the temperature of the air at the exit, in k. (c) the exit cross-sectional area, in cm2
Answers: 2
You know the right answer?
A control system has the following open-loop transfer function: Ls= 2 s2 +0.6s +9 /3 s2 1
a)...
Questions
question
Social Studies, 25.05.2021 14:10
question
Mathematics, 25.05.2021 14:10