Tutorial Sheet No. 4 (Time domain analysis)Q.1/ Find the output response, c(t), for each of the systems shown in Figure 1.Also find the time constant, rise time, and settling time for each case.C(s)s+5(а)20C(s)s+20(b)Figure 1Q.2/ For each of the second-order systems that follow, find 3, wn,ts, tp, tr, and 0S% .16a. T(s)s2+ 3s + 160.04b. T(s)s2 +0.02s + 0.041.05 x 107с. Т(s)s2 +1.6 x 10s + 1.05 × 107Figure 2second-order system that yiel0.3/ Find the transfer function ofovershoot and a settling time of 1 second.a 12.3%0.4/ For each pair of second-order system specifications that follow, find thelocation of the second-order pair of poles.a. %OS = 12%; Ty = 0.6 second%3Db. %OS = 10%; Tp = 5 secondsc. T =7 seconds; Tp = 3 seconds

please post other questions as separate questions because according to guidelines we have to solve…

Q.1/ Find the output response, c(t), for each of the systems shown in Figure 1. Also find the time constant, rise time, and settling time for each case. 5 C(s) s+5 (a) 20 C(s) s+20 (b) Figure 1 115 -1/5

Q.1/ Find the output response, c(t), for each of the systems shown in Figure 1. Also find the time constant, rise time, and settling time for each case. 5 C(s) s+5 (a) 20 C(s) s+20 (b) Figure 1 115 -1/5

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

(b) Figure Q1(b) shows the step response for a second-order system. Find its peak time and percentage of overshoot. Hence, obtain its transfer function. 1.6 1.4 1.2 1.0 0.8 0.6 0.4 0.2 0.0 0. 6 10 12 14 16 18 20 22 24 Time (s) Figure Q1(b) Response
Subject: Control System
Q6 only
Ineed answer within 20 minutes please please with my best wishes
Some practice questions for class test(1).pdf - Adobe Acrobat Reader DC (32-bit) File Edit View Sign Window Help Home Tools Some practice ques... x UNIVERSITY OF UL.. 早2 画Q 21 180% Search 'Crop P (b) For the comparator circuit shown below, a sinusoidal input signal with a peak voltage P Export F Edit PD (Vp) of 5 V and a frequency of 1 Hz is applied to the non-inverting terminal. Assume +Vcc Create as +12V and -Vcc as -12 V, with corresponding saturation voltages of +Vsat of +11 V and - Comm Vsat of -11 V and R1 and R2 values of 100 kM and 50 kN, respectively. Assuming that the i Comb El Orgar signal frequency is well below the slew rate limit, describe and draw what would be the Delete, insert rotate pages. comparator output. Cor +Vcc A Rec Vin Pro 5 V VN Ac +Vcc V Vo to R1 R2 1 s -Vcc DELL く P. 近

Please fill out table and show all work. I could not read the last explanation so please do not answer in typed form with no spaces in between words. I will give good rating. Thank you!
A sinusoid signal v(n) = 5 sin( @₂ .n) with f=5 Hz and fs = 10 kHz has to be quantized @ (Vq(n) = Q[v(n)]) with a midtreat quantizer. The range of the signal is ±5 V and the word length of the quantizer 4 bits. The quantizer is at digital full scale. (a) How many quantization levels L does the quantizer have? What is the value of A? (b) Sketch the input-output characteristic of the quantizer. How different is a midtreat quantizer to a midrise quantizer. (c) For time index n = 1250 calculate the quantized value v₁ (n), the quantization error eq(n) and represent vą (n) using RZ code. (d) Calculate the power P of the quantization noise. (e) Determine the SNR in dB.
Q1: For the system shown in figure (1) 0.5 - R(s) C(s) 16 (s + 4) 1.5 Figure (1) (1) obtain the maximum over shoot, settling time for approximately 5% error, rise time and peak time when the input is a step function (2) sketch the output response for step input.
Consider the given system with input R(s) and output C(s) as shown in figure. • Calculate the natural frequency of oscillations, damping ratio, peak time, rise time, settling time, percentage overshoot and damped frequency of oscillations. • Also find the (time domain) expression for unit step response and Plot. Note: x=3
The steady-state tracking error to a unit step input R(s)=1/swith Ta(s) = 0 is: K a. ess = KiK2 Ka K+K2 b. ess= C. ess= Ke K(K+K) d. ess = 品品 R(s) K₁ 0.09 (ii) K, 0.09 Y(s)
What is the z-transfer function of the system
a) Find Tc,TS of -4 CSt(-4>) b.) Draw the time response