def PT1():
PT1a = rt.PT1(T=1)
PT1b = rt.PT1(T=5)
PT1c = rt.PT1(T=0.1)
elements = [PT1a, PT1b, PT1c]
labels = ["$T = 1s$", "$T = 5s$", "$T = 0,1s$"]
plot(elements, labels, "PT1", -1, 3, [-3, 1], 10, [0, 1.2])
def IT1():
I = rt.I(T=1)
PT1a = rt.PT1(T=1)
PT1b = rt.PT1(T=5)
PT1c = rt.PT1(T=0.1)
IT1a = rt.PROD([I, PT1a])
IT1b = rt.PROD([I, PT1b])
IT1c = rt.PROD([I, PT1c])
elements = [IT1a, IT1b, IT1c]
labels = ["$T = 1s$", "$T = 5s$", "$T = 0,1s$"]
plot(elements, labels, "IT1", -2, 3, [-7, 2], 10, [0, 10])
def PDT1():
print("PDT1")
PD = rt.PD(T=1)
PT1a = rt.PT1(T=1)
PT1b = rt.PT1(T=5)
PT1c = rt.PT1(T=0.1)
PDT1a = rt.PROD([PD, PT1a])
PDT1b = rt.PROD([PD, PT1b])
PDT1c = rt.PROD([PD, PT1c])
elements = [PDT1a, PDT1b, PDT1c]
labels = ["$T = 1s$", "$T = 5s$", "$T = 0,1s$"]
plot(elements, labels, "PDT1", -2, 3, [-2, 2], 10, [0, 10])
def PT3():
PT1 = rt.PT1(T=0.1)
PT2a = rt.PT2(omega=10, D=1)
PT2b = rt.PT2(omega=10, D=0.7)
PT2c = rt.PT2(omega=10, D=0.5)
PT2d = rt.PT2(omega=10, D=0)
PT3a = rt.PROD([PT1, PT2a])
PT3b = rt.PROD([PT1, PT2b])
PT3c = rt.PROD([PT1, PT2c])
PT3d = rt.PROD([PT1, PT2d])
elements = [PT3a, PT3b, PT3c, PT3d]
labels = [r"$D=1$", r"$D=0,7$", r"$D=0,5$", r"$D=0$"]
plot(elements, labels, "PT3", -1, 3, [-6, 2], 5, [0, 2])
def IT3():
I = rt.I(T=1)
PT1 = rt.PT1(T=0.5)
PT2a = rt.PT2(omega=10, D=1)
PT2b = rt.PT2(omega=10, D=0.7)
PT2c = rt.PT2(omega=10, D=0.5)
PT2d = rt.PT2(omega=10, D=0.05)
IT3a = rt.PROD([I, PT1, PT2a])
IT3b = rt.PROD([I, PT1, PT2b])
IT3c = rt.PROD([I, PT1, PT2c])
IT3d = rt.PROD([I, PT1, PT2d])
elements = [IT3a, IT3b, IT3c, IT3d]
labels = [r"$D=1$", r"$D=0,7$", r"$D=0,5$", r"$D=0,05$"]
plot(elements, labels, "IT3", -1, 3, [-9, 1], 2, [0, 2])
def DT3():
D = rt.D(T=1)
PT1 = rt.PT1(T=0.1)
PT2a = rt.PT2(omega=10, D=1)
PT2b = rt.PT2(omega=10, D=0.7)
PT2c = rt.PT2(omega=10, D=0.5)
PT2d = rt.PT2(omega=10, D=0.05)
DT3a = rt.PROD([D, PT1, PT2a])
DT3b = rt.PROD([D, PT1, PT2b])
DT3c = rt.PROD([D, PT1, PT2c])
DT3d = rt.PROD([D, PT1, PT2d])
elements = [DT3a, DT3b, DT3c, DT3d]
labels = [r"$D=1$", r"$D=0,7$", r"$D=0,5$", r"$D=0,05$"]
plot(elements, labels, "DT3", -1, 3, [-5, 3], 5, [-10, 10])
def PDT3():
print("PDT3")
PD = rt.PD(T=1)
PT1 = rt.PT1(T=0.1)
PT2a = rt.PT2(omega=10, D=1)
PT2b = rt.PT2(omega=10, D=0.7)
PT2c = rt.PT2(omega=10, D=0.5)
PT2d = rt.PT2(omega=10, D=0.05)
PDT3a = rt.PROD([PD, PT1, PT2a])
PDT3b = rt.PROD([PD, PT1, PT2b])
PDT3c = rt.PROD([PD, PT1, PT2c])
PDT3d = rt.PROD([PD, PT1, PT2d])
elements = [PDT3a, PDT3b, PDT3c, PDT3d]
labels = [r"$D=1$", r"$D=0,7$", r"$D=0,5$", r"$D=0,05$"]
plot(elements, labels, "PDT3", -1, 3, [-5, 3], 5, [-6, 8])
import regelungstechnik as rt
# Example transfer function is a product of a PT1 and PT2 transfer function
# F(s) = V / (Ts + 1) * 1 / ((s/omega)^2 + 2D/omega * s + 1)
PT1 = rt.PT1(T=2e-3, V=0.2)
PT2 = rt.PT2(omega=1000, D=0.2)
PT3 = rt.PROD([PT1, PT2])
# Make a list of the transfer functions with corresponding labels
elements = [PT3, PT1, PT2]
labels = [
r"$H = PT_1 \cdot PT_2$",
r"$PT_1$",
r"$PT_2$"
]
# Create a Bode-Diagram and save several plots
bode = rt.BodeDiagramm(elements, labels, start=1.0, stop=5.0, ticks=[-7, 2], lang="EN")
bode.save(pick=[], path="images/", filename="bode_canvas.png")
bode.save(pick=[0], path="images/", filename="bode_single.png")
bode.save(path="images/", filename="bode_all.png")
# Create a Step-Response and save several plots