GATE Exam  >  GATE Questions  >  The output response of a system is denoted as... Start Learning for Free
The output response of a system is denoted as y(t), and its Laplace transform is given by
10
Y(s) = s(s 2 +s+100√2) .
The steady state value of y(t) is?
Most Upvoted Answer
The output response of a system is denoted as y(t), and its Laplace tr...
Steady State Value of y(t)

To find the steady state value of y(t), we need to determine the value of y(t) as t approaches infinity. In the Laplace domain, the steady state value corresponds to the value of Y(s) as s approaches zero.

Given Information:
The Laplace transform of the system's output, Y(s), is given by:
10Y(s) = s(s^2 - s + 100√2)

Step 1: Simplify the Laplace transform expression:
To find the steady state value of y(t), we need to solve for Y(s). Let's simplify the given expression:

10Y(s) = s(s^2 - s + 100√2)

Step 2: Solve for Y(s):
Divide both sides of the equation by 10:

Y(s) = (s(s^2 - s + 100√2))/10

Step 3: Take the limit as s approaches zero:
To find the steady state value, we need to evaluate Y(s) as s approaches zero:

lim(s→0) Y(s) = lim(s→0) (s(s^2 - s + 100√2))/10

Step 4: Evaluate the limit:
Let's evaluate the limit using algebraic simplification:

lim(s→0) (s(s^2 - s + 100√2))/10
= (0(0^2 - 0 + 100√2))/10
= 0

Step 5: Interpretation:
The steady state value of y(t) is 0. This means that as time approaches infinity, the output of the system settles at zero. In other words, the system reaches a steady state where the output remains constant at zero.

Summary:
The steady state value of y(t) for the given system is 0. This indicates that the output of the system settles at zero as time approaches infinity.
Explore Courses for GATE exam
The output response of a system is denoted as y(t), and its Laplace transform is given by10Y(s) = s(s 2 +s+100√2) .The steady state value of y(t) is?
Question Description
The output response of a system is denoted as y(t), and its Laplace transform is given by10Y(s) = s(s 2 +s+100√2) .The steady state value of y(t) is? for GATE 2024 is part of GATE preparation. The Question and answers have been prepared according to the GATE exam syllabus. Information about The output response of a system is denoted as y(t), and its Laplace transform is given by10Y(s) = s(s 2 +s+100√2) .The steady state value of y(t) is? covers all topics & solutions for GATE 2024 Exam. Find important definitions, questions, meanings, examples, exercises and tests below for The output response of a system is denoted as y(t), and its Laplace transform is given by10Y(s) = s(s 2 +s+100√2) .The steady state value of y(t) is?.
Solutions for The output response of a system is denoted as y(t), and its Laplace transform is given by10Y(s) = s(s 2 +s+100√2) .The steady state value of y(t) is? in English & in Hindi are available as part of our courses for GATE. Download more important topics, notes, lectures and mock test series for GATE Exam by signing up for free.
Here you can find the meaning of The output response of a system is denoted as y(t), and its Laplace transform is given by10Y(s) = s(s 2 +s+100√2) .The steady state value of y(t) is? defined & explained in the simplest way possible. Besides giving the explanation of The output response of a system is denoted as y(t), and its Laplace transform is given by10Y(s) = s(s 2 +s+100√2) .The steady state value of y(t) is?, a detailed solution for The output response of a system is denoted as y(t), and its Laplace transform is given by10Y(s) = s(s 2 +s+100√2) .The steady state value of y(t) is? has been provided alongside types of The output response of a system is denoted as y(t), and its Laplace transform is given by10Y(s) = s(s 2 +s+100√2) .The steady state value of y(t) is? theory, EduRev gives you an ample number of questions to practice The output response of a system is denoted as y(t), and its Laplace transform is given by10Y(s) = s(s 2 +s+100√2) .The steady state value of y(t) is? tests, examples and also practice GATE tests.
Explore Courses for GATE exam
Signup for Free!
Signup to see your scores go up within 7 days! Learn & Practice with 1000+ FREE Notes, Videos & Tests.
10M+ students study on EduRev