A linear control system and the corresponding time response to a unit-step input are shown in Fig.3a, whenK = 1. Determine the value of K so that the steady- state crror is equal to zero.R(s)KC(s)0.8D.60.22Time (sec)Fig.3a6

Answered: Image /qna-images/answer/0c1348a0-0b64-4b37-8bc4-92760046c6ba.jpg

linear control system and the coresponding time response to a unit-siep input are shown in Fig.3a, when = 1. Determine the value of K so that the steady-state crror is equal to zero. R(s) K C(s) G(s) 0.8 D.6 0.4 02 t. Fig.3a 2 Time (sec)

linear control system and the coresponding time response to a unit-siep input are shown in Fig.3a, when = 1. Determine the value of K so that the steady-state crror is equal to zero. R(s) K C(s) G(s) 0.8 D.6 0.4 02 t. Fig.3a 2 Time (sec)

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

See similar textbooks

Similar questions

Anesthesia induces muscle relaxation (paralysis) and unconsciousness in the patient. Muscle relaxation can be monitored using electro-myogram signals from nerves in the hand; unconsciousness can be monitored using the cardio-vascular system's mean arterial pressure. The anesthetic drug is a mixture of isoflurane and atracurium. An approximate model relating muscle relaxation to the percent isoflurane in the mixture is: P(s) 0.0763 U(s) s2 + 1. 15s + 0.28 where P(s) is muscle relaxation measured as a fraction of total paralysis (normalized to unity) and U(s) is the percent mixture of isoflurane. a. Find the damping ratio and the natural frequency of the paralysis transient response. b. Find the step-response if a 1% mixture of isoflurane is used. c. Find the maximum possible percent paralysis if a 2% mixture of isoflurane is used. d. What percent isoflurane would have to be used for 100% paralysis (Hint: step input)?
Ex. 150. An exponential function of time starts at t=0 and y=20 and decreases exponentially until it reaches a steady state value of y=10. The time constant is 3 seconds. The function can be expressed as: y (t) = A exp( B t ) + c. ans:3 Determine A,B, and C.
LC steady state: 3K What is Vs, ie, Ve at stady -state ? す Vs 7mH 3 Live IMF Vc SmH 20V Need those values at a steady state, thank you in advance
For step response of an under damped second order system, the settling times are given as: ts1: for 1% tolerance band, ts2: for 10% tolerance band. Then determine the ratio between ts2 and ts1 13.33 O 0.5 02 0 1
as ap Q2c
Suppose you are planning to go on a country-side tour riding your bike. In an unfortunate situation, you find the bike battery drained and currently you don’t have access to any spare battery or workshop. The only power source you have access to is the AC supply of 120V (rms) at 50 Hz. You check the battery and it’s clear from the description level that the battery requires 12V DC source to charge up. Moreover, you are well aware that the socket mounted to your available AC source gives spike that’s sometimes provide higher value than the rated one. To solve this problem, you plan to build a diode-based circuit to obtain a continuous and fixed voltage output as well as solve the instability problem of the source. Criteria: 1. Consider regular diodes, Zener diodes, resistor, and capacitor as your available components. However, the only available diodes here are Ge based and Si based. 2. You must choose a diode with PIV rating higher than the peak value of AC input. 3. Your…
A control system is shown in figure below. Determine the steady state error for a unit, step input when K-out and Gpls) = 2. Select an appropriate value for Gpls) so that the steady Stafe error is zero. 215) Gapi ((5) - K 5 (5+2) 543
Short Problem: Given a parallel RLC circuit comprised of the following element: 63.92-ohm resistor, ideal inductor with reactance of 46.65 ohms; and a capacitor with reactance of 8.65 ohms. Compute for reactive power in VArs given an ac voltage source of 100 cis 0 volts. Give only the absolute value. Note: Follow this reminder carefully. Compute to the nearest 4 decimal places. No Scientific notation. Do not round off in the middle of calculation. Use stored values. Write the numerical values only. No units in your final answer. Spaces are not allowed. Excessive number of decimals as compared to the required number of decimals may result to an incorrect answer.
Given a parallel RLC circuit comprised of the following element: 92.68-ohm resistor, ideal inductor with reactance of 42.36 ohms; and a capacitor with reactance of 15.94 ohms. Compute for reactive power in VArs given an ac voltage source of 100 cis 0 volts. Give only the absolute value. Compute to the nearest 4 decimal places. No Scientific notation. Do not round off in the middle of calculation. Use stored values.
Consider the following system in open loop: G(s)- 338 / ( 5 s? + 24 s + 270 ) Compute the value of the output in steady state for the system in closed loop with a proportional controller K-21 and a reference r(t)-7. Introduce your answer with 3 decimal. Consider the following system in open loop: G(s) 12/(8s + 4) Compute the output in steady state for the system in closed loop with a control gain K-43 and a reference r(t) 4. Introduce your answer with 3 decimal.
Short Problem: Given a parallel RLC circuit comprised of the following element: 63.27-ohm resistor, ideal inductor with reactance of 63.75 ohms; and a capacitor with reactance of 6.25 ohms. Compute for reactive power in VArs given an ac voltage source of 100 cis 0 volts. Give only the absolute value. Note: Follow this reminder carefully. Compute to the nearest 4 decimal places. No Scientific notation. Do not round off in the middle of calculation. Use stored values. Write the numerical values only. No units in your final answer. Spaces are not allowed. Excessive number of decimals as compared to the required number of decimals may result to an incorrect answer.
3