Consider the following continuous time expression of a PID controller: Considering t = NT, find out the recursive discrete time formulation of u(NT) by approximating the derivative by backward difference and integral by backward rectangular integration technique. u(t) = K„e(t) + K; e(T)dr + K, de(t) Ка %3D
Consider the following continuous time expression of a PID controller: Considering t = NT, find out the recursive discrete time formulation of u(NT) by approximating the derivative by backward difference and integral by backward rectangular integration technique. u(t) = K„e(t) + K; e(T)dr + K, de(t) Ка %3D
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Consider the following continuous time expression of a PID controller:
Considering t = NT, find out the recursive discrete time formulation
of u(NT) by approximating the derivative by backward difference
and integral by backward rectangular integration technique.
de(t)
u(t) = K„e(t) + K; | e(7)dr + Ka-
dt](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fe4c4e6fa-184f-4b51-893e-5ef72e69d395%2F3ab6e332-1962-428e-a98b-094308c45bed%2Fhwlc58_processed.jpeg&w=3840&q=75)
Transcribed Image Text:H.W
Consider the following continuous time expression of a PID controller:
Considering t = NT, find out the recursive discrete time formulation
of u(NT) by approximating the derivative by backward difference
and integral by backward rectangular integration technique.
de(t)
u(t) = K„e(t) + K; | e(7)dr + Ka-
dt
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