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(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 3 2. 2 t. Figure Q2(a)

(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 3 2. 2 t. Figure Q2(a)

Introductory Circuit Analysis (13th Edition)
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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(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)
Transcribed Image Text:(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)
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