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6. Given the D.E: y = 9y + 20y = r(t) y(0) = 10 y(O) = 2 that describes a circuit with input r(t). To find the impulse resp

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Answer #1

We can not find the impulse response by considering the initial condition...Because we are getting the equation which is not easier to solve..

So Without considering the Initial conditions we can get the impulse response...

Considering the Initial Conditions...

solo- Griven differential eqreation y = .94+ 20y = rit) yo) = 10, yo =2 Initial Conditions Initial conditions are given so wget impulse response. 08 - 2+90 -105 sels). Applying initial Conditions Śy(s) – 5 (10) - 2) +9 (sy(s) – 10) – 20403) = RIS)

Without Considering the Initial Conditions

S42 -9465)—20408) = R(S). we need to make initial condition Hence zeso then Basics- yit E YCS) yt) LY SYL) y(t) 2544). yH(S) Šas-20 HIS) (S-10-844) (st1844) Asing partial fractions A B + S-10.844) (5+1.844) s-losun St1.844. AS +A(1.844) +B5-B(10Then 0.0788 0.0788 H(S) - (5-10-844) (st1844) Applying Biverse deplace HS) L bit) at LT s-a -a ld I LY sta they 0.0788 O 0788So without Considering initial conditions finding h(t) by taking Inverse Laplace we get the Impulse response...

so option (ii) is my choice...

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