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Yes): particülár sölütion Let x(1) = 8(1), the Dirac's delta signal. Fill in the blanks in Table 1. Let x(t) = u(1), the unit-step signal. Fill in the blanks in Table 2. Now change the input and the state in the above dynamical system and let dy(t) -3y(t) – 28(t) + 3u(t) dt y(0-) = -5. Fill in the blanks in Table 3. Table 1

Yes): particülár sölütion Let x(1) = 8(1), the Dirac's delta signal. Fill in the blanks in Table 1. Let x(t) = u(1), the unit-step signal. Fill in the blanks in Table 2. Now change the input and the state in the above dynamical system and let dy(t) -3y(t) – 28(t) + 3u(t) dt y(0-) = -5. Fill in the blanks in Table 3. Table 1

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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Consider the 1* -order continuous-time (CT) LTI dynamical system given by the input-output differential equation dy(t) = -3y(t) + x(t) dt y(0-) =0. Let the following symbols be used: and the state Y'm(0): impulse response Yzın (t): zero-input response Vzsa (1): zero-state response Yea (1): complete response Yesa () : unit-step response Yus (1): homogeneous solution Ys 1): particular solution Let x(1) = 8(1), the Dirac's delta signal. Fill in the blanks in Table 1. Let x(t) = u(t), the unit-step signal. Fill in the blanks in Table 2. Now change the input and the state in the above dynamical system and a) b) c) let dy(t) = -3y(t) – 28(t) + 3u(t) dt y(0") = -5. Fill in the blanks in Table 3. Table 1 Yzz(1) Yzz (1) Ycr(1) Table 2 Yese (1) Yzz(1) Table 3 Yz (1) Ys (1)
Transcribed Image Text:Consider the 1* -order continuous-time (CT) LTI dynamical system given by the input-output differential equation dy(t) = -3y(t) + x(t) dt y(0-) =0. Let the following symbols be used: and the state Y'm(0): impulse response Yzın (t): zero-input response Vzsa (1): zero-state response Yea (1): complete response Yesa () : unit-step response Yus (1): homogeneous solution Ys 1): particular solution Let x(1) = 8(1), the Dirac's delta signal. Fill in the blanks in Table 1. Let x(t) = u(t), the unit-step signal. Fill in the blanks in Table 2. Now change the input and the state in the above dynamical system and a) b) c) let dy(t) = -3y(t) – 28(t) + 3u(t) dt y(0") = -5. Fill in the blanks in Table 3. Table 1 Yzz(1) Yzz (1) Ycr(1) Table 2 Yese (1) Yzz(1) Table 3 Yz (1) Ys (1)
d) Consider the input-output differential equation: +Sy(t) = 3 de(1) di dr di Perform the necessary operations on the above equation in order to put it into the appropriate form such that you can draw the first- canonical form of the block-diagram model of this equation. e) Draw the first-canonical form of the block-diagram model.
Transcribed Image Text:d) Consider the input-output differential equation: +Sy(t) = 3 de(1) di dr di Perform the necessary operations on the above equation in order to put it into the appropriate form such that you can draw the first- canonical form of the block-diagram model of this equation. e) Draw the first-canonical form of the block-diagram model.
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