def main():
#global Pred
i = 0
#thread.start_new_thread(adquisicion2,(i,))
while True:
n = excel.main(float(16), 0)
n = int(n)
mcpras.set_value(n)
time.sleep(0.2)
# P1=Node611.sensorm()
# try:
Pred = adquisicion2()
#
# except:
# time.sleep(0.1)
# Pred=adquisicion2()
#
#
# result = client.read_holding_registers(11729, 2, unit=1)#Current A 1100
# decoder = BinaryPayloadDecoder.fromRegisters(result.registers, byteorder=Endian.Big )
# print(result.registers)
# print(decoder.decode_32bit_float())
# result.registers=0
#archivo.write(str(Pred)+'\n')
print(Pred)
i = i + 1
def main():
#global Pred
v = 14.5
i = 0
k = 1
j = 1
#thread.start_new_thread(adquisicion2,(i,))
while True:
n = excel.main(float(v), 0)
n = int(n)
mcpras.set_value(n)
time.sleep(0.3)
# P1=Node611.sensorm()
Psol = n611_adquisicion.adquisicion()
try:
Pred = adquisicion2()
except:
time.sleep(1)
Pred = adquisicion2()
Pload = Psol * 0.76 + Pred * 0.56
hoja.write(j, 0, str(k))
hoja.write(j, 1, time.strftime("%X"))
hoja.write(j, 2, str(v))
hoja.write(j, 3, str(Pred))
hoja.write(j, 4, str(Psol))
hoja.write(j, 5, str(Pload))
# result = client.read_holding_registers(11729, 2, unit=1)#Current A 1100
# decoder = BinaryPayloadDecoder.fromRegisters(result.registers, byteorder=Endian.Big )
# print(result.registers)
# print(decoder.decode_32bit_float())
# result.registers=0
#archivo.write(str(Pred)+'\n')
print(Pred)
print(Psol)
print(v)
v = v + 0.1
i = i + 1
j = j + 1
if i == 35:
k = k + 1
i = 0
v = 14.5
def SetVoltage():
if request.method == 'POST':
vol = request.form['voltaje']
volt = float(vol)
R2 = 360 * ((volt / 1.25) - 1)
n = 256 * (R2 - 3200 - 75) / 10000
n = round(n)
n = int(n)
mcpras.set_value(n)
cur = mysql.connection.cursor()
cur.execute(
'INSERT INTO parametros (id, voltaje, corriente) VALUES (%s, %s, %s)',
(0, vol, 5))
mysql.connection.commit()
flash('Voltaje Ajustado')
return redirect(url_for('Index'))
##Rules
rule1 = ctrl.Rule(Pdif['P'], Vrefd['P'])
rule2 = ctrl.Rule(Pdif['N'], Vrefd['N'])
rule3 = ctrl.Rule(Pdif['Z'], Vrefd['Z'])
vref_ctrl = ctrl.ControlSystem([rule1, rule2, rule3])
vrefout = ctrl.ControlSystemSimulation(vref_ctrl)
i = True
v = 17
while True:
n = excel.main(float(v), 0)
n = int(n)
mcpras.set_value(n)
P1 = Node611.sensorm()
time.sleep(1)
n = excel.main(float(v), 0)
n = int(n)
mcpras.set_value(n)
P2 = Node611.sensorm()
Pdif = P2 - P1
vrefout.input['Pdif'] = Pdif
vrefout.compute()
Vrefin = round(vrefout.output['Vrefd'], 2)
# v=v+Vrefin
def main():
i = True
#thread.start_new_thread(adquisicion2,(i,))
dired = 0.1
Vdif = 0.2
v2 = 18.6
n = excel.main(float(v2), 0)
n = int(n)
mcpras.set_value(n)
Ired2 = adquisicion2()
while True:
vrefout.input['dired'] = dired
vrefout.input['Vdif'] = Vdif
vrefout.compute()
Vrefin = round(vrefout.output['Vrefd'], 2)
#if Vrefin==0:
#n = excel.main(float(v2),0)
#n = int(n)
#mcpras.set_value(n)
#time.sleep(1)
#P2=Node611.sensorm()
#n = excel.main(float(v2-0.3),0)
#n = int(n)
#mcpras.set_value(n)
#time.sleep(1)
#P1=Node611.sensorm()
#Pdif=P2-P1
#Vdif=0.2
#else:
v = v2
v2 = v2 + Vrefin
Vdif = v2 - v
Ired = Ired2
try:
n = excel.main(float(v2), 0)
n = int(n)
mcpras.set_value(n)
except:
n = excel.main(float(14.5), 0)
n = int(n)
mcpras.set_value(n)
v2 = 14.5
time.sleep(0.2)
Ired2 = adquisicion2()
dired = Ired2 - Ired
Vdif = round(Vdif, 2)
# print("Corriente de la red t= "+str(Ired))
# print("Corriente de la red t+1 = "+str(Ired2))
print("Cambio de corriente =" + str(dired))
# print("Vref1"+str(v))
print("Vref2 = " + str(v2))
# print("diferencia de voltaje v2-v"+str(Vdif))
# print("Cambio de potencia/voltaje = "+str(dpdv))
print("Cambio de voltaje = " + str(Vrefin))
def fuzzy():
i = True
#thread.start_new_thread(adquisicion2,(i,))
dIdv = 2
v2 = 18.5
n = excel.main(float(v2), 0)
n = int(n)
mcpras.set_value(n)
Ired2 = corrienteRed()
while True:
vrefout.input['dIdv'] = dIdv
vrefout.compute()
Vrefin = round(vrefout.output['Vrefd'], 3)
Vrefinabs = abs(Vrefin)
#print("Corriente de la red t= "+str(Ired))
print("Corriente de la red t+1 = " + str(Ired2))
# print("Cambio de corriente ="+str(dired))
# print("Vref1"+str(v))
print("Vref2 = " + str(v2))
# print("diferencia de voltaje v2-v"+str(Vdif))
print("Cambio de corriente/voltaje = " + str(dIdv))
print("Cambio de voltaje = " + str(Vrefin))
if Vrefinabs < 0.1:
if v2 < 14.6:
v2 = 14.5
elif v2 > 18.5:
v2 = 18.5
#dIdv=0
n = excel.main(float(v2), 0)
n = int(n)
mcpras.set_value(n)
time.sleep(0.2)
Ired = corrienteRed()
n = excel.main(float(v2 + 0.1), 0)
n = int(n)
mcpras.set_value(n)
time.sleep(0.2)
Ired2 = corrienteRed()
if Ired <= 1.01 * Ired2 and Ired >= 0.09 * Ired2:
dIdv = 2
else:
dIdv = 0
#dired=Ired2-Ired
else:
v2 = v2 + Vrefin
Ired = Ired2
if v2 < 14.6:
v2 = 14.5
elif v2 > 18.5:
v2 = 18.6
n = excel.main(float(v2), 0)
n = int(n)
mcpras.set_value(n)
time.sleep(0.2)
try:
Ired2 = corrienteRed()
except:
try:
time.sleep(0.5)
Ired2 = corrienteRed()
except:
time.sleep(0.5)
Ired2 = corrienteRed()
dired = Ired2 - Ired
dIdv = dired / Vrefin
if dIdv >= 500:
dIdv = 500
elif dIdv <= -500:
dIdv = -500
def fuzzy():
sw = 0
i = True
#thread.start_new_thread(adquisicion2,(i,))
dpdv = 100
v2 = 18.5
dpred = 0
n = excel.main(float(v2), 0)
n = int(n)
mcpras.set_value(n)
time.sleep(0.2)
Pred2 = potenciaRed()
k = 0
while True:
if sw == 0:
vrefout.input['dpdv'] = dpdv
vrefout.compute()
Vrefin = round(vrefout.output['Vrefd'], 3)
Vrefinabs = abs(Vrefin)
elif sw == 1:
Vrefin = 0.1
sw = 0
elif sw == 2:
Vrefin = -0.1
sw = 0
# print("Corriente de la red t= "+str(Ired))
# print("Corriente de la red t+1 = "+str(Pred2))
# print("Cambio de corriente ="+str(dpred))
# print("Vref1"+str(v))
# print("Vref2 = "+str(v2))
# print("diferencia de voltaje v2-v"+str(Vdif))
# print("Cambio de corriente/voltaje = "+str(dpdv))
print("Cambio de voltaje= " + str(Vrefin) + "\n")
k = k + 1
v2 = v2 + Vrefin
print("Vref2 = " + str(v2))
print(time.strftime("%X"))
Pred = Pred2
hoja1.write(k, 0, str(v2))
hoja1.write(k, 1, time.strftime("%X"))
# print(v2)
if v2 < 14.6:
v2 = 14.5
elif v2 > 18.5:
v2 = 18.5
n = excel.main(float(v2), 0)
n = int(n)
mcpras.set_value(n)
time.sleep(1)
# try:
Pred2 = potenciaRed()
#except:
# try:
# time.sleep(0.5)
# Ired2=corrienteRed()
# except:
# time.sleep(0.5)
# Ired2=corrienteRed()
dpred = Pred2 - Pred
# try:
if Vrefin < 0:
dpdv = dpred * -10
elif Vrefin > 0:
dpdv = dpred * 10
else:
sw = 1
#dpdv=dpred/Vrefin
# except:
# sw=1
# if dpred>0.05*Pred2:
# Predbck=potenciaRed()
# if Predbck<0.9*Pred2 and Predbck>1.1*Pred2:
# sw=1
# Pred2=Predbck
# dpred=Pred2-Pred
# else:
# sw=1
if abs(Vrefin) < 0.09 and abs(dpdv) > 35:
#dIdv=1.5
if dpdv < 0:
sw = 1
else:
sw = 2
if dpdv >= 500:
dpdv = 500
elif dpdv <= -500:
dpdv = -500