2- In the figure below, show that if F1 and F2 are LTI, and if x1 = x2, then y1 = Y2.-Show that by convolving the impulse responses of F1, and F2, we can obtain the impulseresponse of an equivalent LTI system, representing the series connection of the two systems.-Assume that F1, has the impulse responsefi = {1, – 2, 0.5},and that F2, has the impulse responsef2 = {5, 2}.Find the impulse response of the equivalent LTI system, representing the series connectionof F1 and F2. What is the input-output relationship of this system?X2U2Y2F2F1X1VịY1F2

Answered: Image /qna-images/answer/92087d25-11ff-4feb-aada-5d203867f0f2.jpg

Answered: 2- In the figure below, show that if F1…

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...

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Define Impulse Voltage? What are the different types of Impulse voltages? What are standard Impulse voltages, mention their values?
(ВЕКС 2433) QUESTION 2 Most of the circuit are performed using the linear and time-invariant properties. Due to these properties, it can be simplified as a linear-time invariant (LTI) system. The LTI system is performed using a convolution operation that comprises an input signal, an output signal and impulse response as shown in Figure Q2. From the figure, the system is represented as impulse response, h(t). The input signal, x(t) is given to the system to produce the output signal, y(t). Answer all the question below: x (t) y(t) h(t) Figure Q2 (a) Given an impulse response, h(t) as shown in Figure Q2(a) and an input signal, x(t) as expressed in equation (2), use the convolution operation to analyze the output signal, y(t). Sketch the graph of output signal, y(t). x(t) = u(t) – u(t – 1) (2) h(t) 4 Figure Q2(a)
In the electrical network given in the Figure, the output voltage is taken over the coil. R = 1k ohm, C = 1μF and L = 1 mH. a)Since the switch is closed at time t = 0, the input and the relationship between output voltages. Determine the differential equation shows. b)Find the transfer function. c)Unit impulse and unit step function type input voltages versus output voltages calculate and change changes according to time. Draw it to scale.
LESSON : Control Systems SUBJECT : Analysis and Design of Control Systems In the mechanical system given in the figure; a. Obtain the transfer function with input-F(t) and output-x2(t) (all initial values of the system are zero). b. Draw the electrical equivalent of the system (F(t): voltage source). 1 k3 ki Ebs 162 ! Please ! Solve it using a block diagram and a signal flow diagram (SFD). Solving using Laplace transforms
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2.a: An LTI system has an impulse response described in figure. Is the system causal and stable? (The answer should be, that the system is not causal, because the impulse response is left-sided. The system is unsatbke. But my problem is: - When is the system right sided or left sided? - When is the system stable or not stable? - Please explain why, because I really do not understand!)
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The filtering stage of a biomedical device passes signals with frequencies ranging between 20 Hz and 500 Hz while the stage delivers a total gain of 48 Design the electronic circuit of the filtering stage using appropriate numbers of operational amplifiers,resistors, and capacitors. (The filtering are all 1st order active filters and the maximum possible gain is limited to 10 for a single amplifier) B. In the circuit, the capacitors are all 318 nF and the feedback-resistors are all 10 k.ohm find the values of the remaining resistors in the circuit

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