def ajustaDimensao(self, dimensao, tamanho, nonZeroValues=[], labelRep="Binary"):
if self.binarios == []:
self.binarios = binario.inicializaBinarios(tamanho)
self.dimensao = dimensao
self.tamanho = tamanho
if dimensao == 1:
if nonZeroValues != []:
self.ClearGrid()
self.setTamanho(1, tamanho)
# self.SetRowLabelValue( 0, "0" )
for indice in range(tamanho):
if labelRep == "Binary":
label = "|" + str(self.binarios[nonZeroValues[indice]]) + ">"
self.SetColLabelValue(indice, label)
self.SetColSize(indice, len(label) * 10)
elif labelRep == "Decimal":
label = "|" + str(nonZeroValues[indice]) + ">"
self.SetColLabelValue(indice, label)
self.SetColSize(indice, 100)
else:
self.setTamanho(1, 2 ** tamanho)
self.ClearGrid()
self.SetRowLabelValue(0, "0")
for indice in range(2 ** tamanho):
if labelRep == "Binary":
label = "|" + str(self.binarios[indice]) + ">"
self.SetColLabelValue(indice, label)
self.SetColSize(indice, len(label) * 10)
elif labelRep == "Decimal":
label = "|" + str(indice) + ">"
self.SetColLabelValue(indice, label)
self.SetColSize(indice, 100)
elif dimensao == 2:
self.setTamanho(tamanho + 1, tamanho + 1)
self.ClearGrid()
for indice in range(self.tamx - 1):
self.SetRowLabelValue(
int(indice), str(indice)
) # Colocado para retirar as linhas com ... já que a função de ajuste de nomes ignora essas linhas
self.SetColLabelValue(int(indice), str(indice))
self.SetRowLabelValue(self.tamx - 1, "...")
self.SetColLabelValue(self.tamy - 1, "...")
self.ajustaNomesLinhas(dimensao) # Arrumar os nomes das linhas aqui
else: # Se for mais do que 2 dimensões
nrotabelas = self.calculaTamanhoGrid(
dimensao, tamanho
) # Recebe o número de tabelas de acordo com a dimensão e o tamanho
linhas = nrotabelas * (
tamanho + 1
) # Informa quantas linhas por tabela terá e após isso linhas terá o número de linhas para o grid
self.setTamanho(linhas, tamanho + 1)
self.ClearGrid()
for indice in range(self.tamx - 1):
self.SetRowLabelValue(
int(indice), str(indice)
) # Colocado para retirar as linhas com ... já que a função de ajuste de nomes ignora essas linhas
self.SetColLabelValue(int(indice), str(indice))
ret = self.tamy # Referência de quando em quando ocorre as "..."
self.SetColLabelValue(self.tamy - 1, "...")
while ret <= self.tamx:
self.SetRowLabelValue(ret - 1, "...")
ret = ret + self.tamy
self.ajustaNomesLinhas(dimensao) # Arrumar os nomes das linhas
def ArrumaOperacoes(self, operations):
opList = operations.split(",")
#operations = "(" + operations + ")"
control = False
i = len(opList) - 1
while (i >=0):
op = opList[i]
if op[:7:] == "Control":
control = True
numControls = int(op[7:op.rfind("(")])
break
i-=1
if control == True:
controlQubits = []
controlValues = []
targetQubits = []
targetOperators = []
singleOperator = []
qubitSingleOperator = []
numTargets = 0
numControlQubits = 0
for i in range (numControls):
controlQubits.append([])
controlValues.append([])
targetQubits.append([])
targetOperators.append([])
for qubit in range (len(opList)):
if opList[qubit][:7:] == "Control":
ind = opList[qubit].find("(")
pos = opList[qubit][7:ind:]
controlQubits[int(pos)-1].append(qubit+1)
controlValues[int(pos)-1].append(opList[qubit][ind+1:ind+2:])
numControlQubits += 1
elif opList[qubit][:6:] == "Target":
ind = opList[qubit].find("(")
pos = opList[qubit][6:ind:]
targetQubits[int(pos)-1].append(qubit+1)
ind2 = opList[qubit].find(")")
targetOperators[int(pos)-1].append(opList[qubit][ind+1:ind2:])
numTargets += 1
else:
singleOperator.append(opList[qubit])
qubitSingleOperator.append(qubit+1)
numSingleOperators = len (singleOperator)
## Builds the operator with the informed parameters ##
binario = inicializaBinarios(numControlQubits) # Initializes the set of binary numbers
acao = "(" # String that corresponding to the matrix notation of the operator
operators = []
numId = 0
for pos in range(numControlQubits+numTargets+numSingleOperators):
operators.append([])
for qubit in range (2**int(numControlQubits)):
if acao != "(":
acao += ") + ("
numId = 0
binNumber = binario[qubit] # The binary number defines the operators of tensor product. The bits determines which Control operator will be added to the tensor product.
binNumberList = list(binNumber) # Used to determine the Control operator (Control0 or Control1) to be added to the expession.
for singleOp in range(numSingleOperators):
operators[qubitSingleOperator[singleOp]-1] = singleOperator[singleOp]
while binNumberList != []:
for i in range(numControls):
controlIndex = controlQubits[i]
targetIndex = targetQubits[i]
controlValuesList = list(controlValues[i])
bin = []
for j in range(len(controlValues[i])):
bin.append(binNumberList.pop(0))
correctBin = True
for bit in range(len(bin)):
operators[controlIndex[bit]-1] = "Control"+str(i+1)+"("+bin[bit]+")"
if bin[bit] != controlValuesList[bit]:
correctBin = False
for target in range(len(targetIndex)):
if correctBin == True:
operators[targetIndex[target]-1] = "Target"+str(i+1)+"("+targetOperators[i][target]+")"
else:
numId += 1
operators[targetIndex[target]-1] = "Target"+str(i+1)+"(Id)"
if numId < numTargets:
for op in operators:
acao += op + ","
acao = acao[:len(acao)-1:]
elif acao != "(":
acao = acao[:len(acao)-5:]
acao += ")"
operations = acao
return operations
def Confirms (self, event):
translate = Translate.Translate() # Instance of the translation file.
customMatrices = [] # List of matrices from the customized operators.
operations = "" # String of synchronized operators.
for obj in self.objects:
if obj.gettipo() == "envelope":
self.Desagrupar (obj)
for comboBox in self.cbList:
if comboBox.GetValue().encode() == "":
value = "Id"
else:
value = comboBox.GetValue().encode()
if operations == "":
operations += value # Get the selected operator.
else:
operations = operations + "," + value
for operation in self.customOperators:
if comboBox.GetSelection() == operation[0]:
customMatrices.append(operation[1])
opList = operations.split(",")
control = False
for op in opList:
if op[:7:] == "Control":
control = True
break
if control == True:
controlQubits = []
controlValues = []
targetQubits = []
targetOperators = []
singleOperator = []
qubitSingleOperator = []
numTargets = 0
numControlQubits = 0
for i in range (self.numControls):
controlQubits.append([])
controlValues.append([])
targetQubits.append([])
targetOperators.append([])
for qubit in range (len(opList)):
if opList[qubit][:7:] == "Control":
ind = opList[qubit].find("(")
pos = opList[qubit][7:ind:]
controlQubits[int(pos)-1].append(qubit+1)
controlValues[int(pos)-1].append(opList[qubit][ind+1:ind+2:])
numControlQubits += 1
elif opList[qubit][:6:] == "Target":
ind = opList[qubit].find("(")
pos = opList[qubit][6:ind:]
targetQubits[int(pos)-1].append(qubit+1)
ind2 = opList[qubit].find(")")
targetOperators[int(pos)-1].append(opList[qubit][ind+1:ind2:])
numTargets += 1
else:
singleOperator.append(opList[qubit])
qubitSingleOperator.append(qubit+1)
numSingleOperators = len (singleOperator)
## Builds the operator with the informed parameters ##
binario = inicializaBinarios(numControlQubits) # Initializes the set of binary numbers
acao = "(" # String that corresponding to the matrix notation of the operator
operators = []
numId = 0
for pos in range(numControlQubits+numTargets+numSingleOperators):
operators.append([])
for qubit in range (2**int(numControlQubits)):
if acao != "(":
acao += ") + ("
numId = 0
binNumber = binario[qubit] # The binary number defines the operators of tensor product. The bits determines which Control operator will be added to the tensor product.
binNumberList = list(binNumber) # Used to determine the Control operator (Control0 or Control1) to be added to the expession.
for singleOp in range(numSingleOperators):
operators[qubitSingleOperator[singleOp]-1] = singleOperator[singleOp]
while binNumberList != []:
for i in range(self.numControls):
controlIndex = controlQubits[i]
targetIndex = targetQubits[i]
controlValuesList = list(controlValues[i])
bin = []
for j in range(len(controlValues[i])):
bin.append(binNumberList.pop(0))
correctBin = True
for bit in range(len(bin)):
operators[controlIndex[bit]-1] = "Control"+str(i+1)+"("+bin[bit]+")"
if bin[bit] != controlValuesList[bit]:
correctBin = False
for target in range(len(targetIndex)):
if correctBin == True:
operators[targetIndex[target]-1] = "Target"+str(i+1)+"("+targetOperators[i][target]+")"
else:
numId += 1
operators[targetIndex[target]-1] = "Target"+str(i+1)+"(Id)"
if numId < numTargets:
for op in operators:
acao += op + ","
acao = acao[:len(acao)-1:]
elif acao != "(":
acao = acao[:len(acao)-5:]
acao += ")"
operations = acao
dialog = Dialog.Dialog("representationChoice", self, wx.NewId(), "Representation Choose", size=(500, 400), style=wx.DEFAULT_DIALOG_STYLE)
dialog.CenterOnScreen()
# this does not return until the dialog is closed.
val = dialog.ShowModal()
if val == wx.ID_OK:
representation = dialog.GetChoice()[0]
else:
return None
dialog.Destroy()
position = [self.objects[0].GetX(),self.objects[0].GetY()]
if representation == "Macro":
self.parent.CriaMacroRep(operations, position)
self.parent.Delete3(self.objects)
elif representation == "Proc. Synchronization":
self.parent.CriaPP(self.sincList, operations, "Process")
elif representation == "Proc. Iterative":
self.parent.BuildIterative(operations,position, "Process")
elif representation == "Partial Quantum Process":
dialog = Dialog.Dialog("partialChoice", self, wx.NewId(), "Partial Choose", size=(500, 400), style=wx.DEFAULT_DIALOG_STYLE)
dialog.CenterOnScreen()
# this does not return until the dialog is closed.
val = dialog.ShowModal()
if val == wx.ID_OK:
partial = dialog.GetChoicePartial()
else:
return None
dialog.Destroy()
self.parent.BuildQPP(operations, self.numQubits, int(partial), position)
self.parent.Delete3(self.objects)
elif representation == "Partial Synchronization":
self.parent.CriaPP(operations,position, "Process")
elif representation == "Partial. Iterative":
self.parent.BuildIterative(operations,position, "Process")
self.parent.Thaw()
self.Destroy()
