How to use the andes.utils.math.aeqb function in andes
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cuihantao / andes / andes / models / pss.py View on Github 
def update_ctrl(self):
self.Ic1 = aeqb(self.Ic, 1)
self.Ic2 = aeqb(self.Ic, 2)
self.Ic3 = aeqb(self.Ic, 3)
self.Ic4 = aeqb(self.Ic, 4)
self.Ic5 = aeqb(self.Ic, 5)
self.lsmax += mul(aeqb(self.lsmax, 0.0), 9999)
self.lsmin += mul(aeqb(self.lsmin, 0.0), -9999)def update_ctrl(self):
self.u0 = mul(self.u, self.uavr,
self.usyn) # effective PSS connectivity status
self.Ic11 = aeqb(self.Ic1, 1)
self.Ic12 = aeqb(self.Ic1, 2)
self.Ic13 = aeqb(self.Ic1, 3)
self.Ic14 = aeqb(self.Ic1, 4)
self.Ic15 = aeqb(self.Ic1, 5)
self.Ic21 = aeqb(self.Ic2, 1)
self.Ic22 = aeqb(self.Ic2, 2)
self.Ic23 = aeqb(self.Ic2, 3)
self.Ic24 = aeqb(self.Ic2, 4)
self.Ic25 = aeqb(self.Ic2, 5)
# ignore the hard limiters if vcu == 0 or vcl == 0
self.vcu += mul(aeqb(self.vcu, 0.0), 9999)
self.vcl += mul(aeqb(self.vcl, 0.0), -9999)
self.vtmax = self.v0 + self.vcu
self.vtmin = self.v0 + self.vcldef update_ctrl(self):
self.Ic1 = aeqb(self.Ic, 1)
self.Ic2 = aeqb(self.Ic, 2)
self.Ic3 = aeqb(self.Ic, 3)
self.Ic4 = aeqb(self.Ic, 4)
self.Ic5 = aeqb(self.Ic, 5)
self.lsmax += mul(aeqb(self.lsmax, 0.0), 9999)
self.lsmin += mul(aeqb(self.lsmin, 0.0), -9999)def update_ctrl(self):
self.Ic1 = aeqb(self.Ic, 1)
self.Ic2 = aeqb(self.Ic, 2)
self.Ic3 = aeqb(self.Ic, 3)
self.Ic4 = aeqb(self.Ic, 4)
self.Ic5 = aeqb(self.Ic, 5)
self.lsmax += mul(aeqb(self.lsmax, 0.0), 9999)
self.lsmin += mul(aeqb(self.lsmin, 0.0), -9999)def update_ctrl(self):
self.u0 = mul(self.u, self.uavr,
self.usyn) # effective PSS connectivity status
self.Ic11 = aeqb(self.Ic1, 1)
self.Ic12 = aeqb(self.Ic1, 2)
self.Ic13 = aeqb(self.Ic1, 3)
self.Ic14 = aeqb(self.Ic1, 4)
self.Ic15 = aeqb(self.Ic1, 5)
self.Ic21 = aeqb(self.Ic2, 1)
self.Ic22 = aeqb(self.Ic2, 2)
self.Ic23 = aeqb(self.Ic2, 3)
self.Ic24 = aeqb(self.Ic2, 4)
self.Ic25 = aeqb(self.Ic2, 5)
# ignore the hard limiters if vcu == 0 or vcl == 0
self.vcu += mul(aeqb(self.vcu, 0.0), 9999)
self.vcl += mul(aeqb(self.vcl, 0.0), -9999)
self.vtmax = self.v0 + self.vcu
self.vtmin = self.v0 + self.vcldef update_ctrl(self):
self.u0 = mul(self.u, self.uavr,
self.usyn) # effective PSS connectivity status
self.Ic11 = aeqb(self.Ic1, 1)
self.Ic12 = aeqb(self.Ic1, 2)
self.Ic13 = aeqb(self.Ic1, 3)
self.Ic14 = aeqb(self.Ic1, 4)
self.Ic15 = aeqb(self.Ic1, 5)
self.Ic21 = aeqb(self.Ic2, 1)
self.Ic22 = aeqb(self.Ic2, 2)
self.Ic23 = aeqb(self.Ic2, 3)
self.Ic24 = aeqb(self.Ic2, 4)
self.Ic25 = aeqb(self.Ic2, 5)
# ignore the hard limiters if vcu == 0 or vcl == 0
self.vcu += mul(aeqb(self.vcu, 0.0), 9999)
self.vcl += mul(aeqb(self.vcl, 0.0), -9999)
self.vtmax = self.v0 + self.vcu
self.vtmin = self.v0 + self.vcldef update_ctrl(self):
self.u0 = mul(self.u, self.uavr,
self.usyn) # effective PSS connectivity status
self.Ic11 = aeqb(self.Ic1, 1)
self.Ic12 = aeqb(self.Ic1, 2)
self.Ic13 = aeqb(self.Ic1, 3)
self.Ic14 = aeqb(self.Ic1, 4)
self.Ic15 = aeqb(self.Ic1, 5)
self.Ic21 = aeqb(self.Ic2, 1)
self.Ic22 = aeqb(self.Ic2, 2)
self.Ic23 = aeqb(self.Ic2, 3)
self.Ic24 = aeqb(self.Ic2, 4)
self.Ic25 = aeqb(self.Ic2, 5)
# ignore the hard limiters if vcu == 0 or vcl == 0
self.vcu += mul(aeqb(self.vcu, 0.0), 9999)
self.vcl += mul(aeqb(self.vcl, 0.0), -9999)
self.vtmax = self.v0 + self.vcu
self.vtmin = self.v0 + self.vcldef update_ctrl(self):
self.u0 = mul(self.u, self.uavr,
self.usyn) # effective PSS connectivity status
self.Ic11 = aeqb(self.Ic1, 1)
self.Ic12 = aeqb(self.Ic1, 2)
self.Ic13 = aeqb(self.Ic1, 3)
self.Ic14 = aeqb(self.Ic1, 4)
self.Ic15 = aeqb(self.Ic1, 5)
self.Ic21 = aeqb(self.Ic2, 1)
self.Ic22 = aeqb(self.Ic2, 2)
self.Ic23 = aeqb(self.Ic2, 3)
self.Ic24 = aeqb(self.Ic2, 4)
self.Ic25 = aeqb(self.Ic2, 5)
# ignore the hard limiters if vcu == 0 or vcl == 0
self.vcu += mul(aeqb(self.vcu, 0.0), 9999)
self.vcl += mul(aeqb(self.vcl, 0.0), -9999)
self.vtmax = self.v0 + self.vcu
self.vtmin = self.v0 + self.vcldef update_ctrl(self):
self.u0 = mul(self.u, self.uavr,
self.usyn) # effective PSS connectivity status
self.Ic11 = aeqb(self.Ic1, 1)
self.Ic12 = aeqb(self.Ic1, 2)
self.Ic13 = aeqb(self.Ic1, 3)
self.Ic14 = aeqb(self.Ic1, 4)
self.Ic15 = aeqb(self.Ic1, 5)
self.Ic21 = aeqb(self.Ic2, 1)
self.Ic22 = aeqb(self.Ic2, 2)
self.Ic23 = aeqb(self.Ic2, 3)
self.Ic24 = aeqb(self.Ic2, 4)
self.Ic25 = aeqb(self.Ic2, 5)
# ignore the hard limiters if vcu == 0 or vcl == 0
self.vcu += mul(aeqb(self.vcu, 0.0), 9999)
self.vcl += mul(aeqb(self.vcl, 0.0), -9999)
self.vtmax = self.v0 + self.vcu
self.vtmin = self.v0 + self.vclandes
Python software for symbolic power system modeling and numerical analysis.
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