Consider that GM = KM = 1, GP = K/(τ1s+1), and GD = KD/(τ1s+1). a) Write the transfer function for a setpoint change, Y′(s)/Ysp′(s), given that GC1 = K1, GC2 = K1 /τIs and GC3 = K1τDs. b) Write the transfer function for a setpoint change, Y′(s)/Ysp′(s), given that GC1 = K1, GC2 = K1 and GC3 = K1(1 + τDs)(1 + 1/τIs). c) Consider the following values: τ1 = 2, τI = 1, τD = 5, K1 = 3, K = 2. Write the expressions and plot (not sketch!) the response for both system a) and system b) to a step change of Ysp′ = S(t).

Consider that GM = KM = 1, GP = K/(τ1s+1), and GD = KD/(τ1s+1). a) Write the transfer function for a setpoint change, Y′(s)/Ysp′(s), given that GC1 = K1, GC2 = K1 /τIs and GC3 = K1τDs. b) Write the transfer function for a setpoint change, Y′(s)/Ysp′(s), given that GC1 = K1, GC2 = K1 and GC3 = K1(1 + τDs)(1 + 1/τIs). c) Consider the following values: τ1 = 2, τI = 1, τD = 5, K1 = 3, K = 2. Write the expressions and plot (not sketch!) the response for both system a) and system b) to a step change of Ysp′ = S(t).

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Consider that G M = K M = 1 , G P = K / ( τ 1 s + 1 ) , and G D = K D / ( τ 1 s + 1 ) . a) Write the transfer function for a setpoint change, Y ( s ) / Y s p ( s ) , given that G C 1 = K 1 , G C 2 = K 1 / τ I s and G C 3 = K 1 τ D s . b) Write the transfer function for a setpoint change, Y ( s ) / Y s p ( s ) , given that G C 1 = K 1 , G C 2 = K 1 and G C 3 = K 1 ( 1 + τ D s ) ( 1 + 1 / τ I s ) . c) Consider the following values: τ 1 = 2 , τ I = 1 , τ D = 5 , K 1 = 3 , K = 2 . Write the expressions and plot (not sketch!) the response for both system a) and system b) to a step change of Y s p = S ( t ) .

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