In the system shown below, let h,(t)6(t), h2(t) = 8(t-6), h3(t) =66(t-2),%D%3Dh4(t) =u(t-15) and h5(t) =3u(t),x(t)h1(t)hs(t)y(t)hs(t)h2(t)ha(t)The total impulse response of thesystem isa. 3u(t)+66(t-2)+u(t-21)b. 36(t)+68(t-2)+6(t-21)c. 3u(t)+6u(t-2)+u(t-9)d. 36(t)+66(t-2)+u(t-21)e. 3u(t)+66(t-2)+u(t-15)

Answered: Image /qna-images/answer/defb420f-55da-4366-b97c-f37ce19f6530.jpg

In the system shown below, let h,(t) = 6(t), h2(t) = 6(t-6), h3(t) =65(t-2), %3D %3D h4(t) =u(t-15) and h5(t) =3u(t), x(t) ht(t) hs(t) y(t) hs(t) ha(t) ha(t) The total impulse response of the system is a. 3u(t)+66(t-2)+u(t-21) b. 36(t)+66(t-2)+5(t-21) c. 3u(t)+6u(t-2)+u(t-9) d. 36(t)+66(t-2)+u(t-21) e. 3u(t)+68(t-2)+u(t-15)

In the system shown below, let h,(t) = 6(t), h2(t) = 6(t-6), h3(t) =65(t-2), %3D %3D h4(t) =u(t-15) and h5(t) =3u(t), x(t) ht(t) hs(t) y(t) hs(t) ha(t) ha(t) The total impulse response of the system is a. 3u(t)+66(t-2)+u(t-21) b. 36(t)+66(t-2)+5(t-21) c. 3u(t)+6u(t-2)+u(t-9) d. 36(t)+66(t-2)+u(t-21) e. 3u(t)+68(t-2)+u(t-15)

Power System Analysis and Design (MindTap Course List)

6th Edition

ISBN:9781305632134

Author:J. Duncan Glover, Thomas Overbye, Mulukutla S. Sarma

Publisher:J. Duncan Glover, Thomas Overbye, Mulukutla S. Sarma

Chapter6: Power Flows

Section: Chapter Questions

Problem 6.15P

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