def GSA2(hidden_element=0, pyzx=True):
GSA2 = QuantumCircuit(3)
GSA2.h(0)
GSA2.h(1)
GSA2.h(2)
##Hiden cell
if hidden_element == 0:
GSA2 = GSA2_0(GSA2)
elif hidden_element == 1:
GSA2 = GSA2_1(GSA2)
elif hidden_element == 2:
GSA2 = GSA2_2(GSA2)
else:
GSA2 = GSA2_3(GSA2)
GSA2.h(0)
GSA2.h(1)
GSA2.x(0)
GSA2.x(1)
GSA2.cz(0, 1)
GSA2.x(0)
GSA2.x(1)
GSA2.h(0)
GSA2.h(1)
if pyzx is True:
return zx.sqasm(GSA2.qasm(), simplify=False)
else:
return GSA2
def QFT3(pyzx=True):
QFT_3 = QuantumCircuit(3)
QFT_3.h(0)
QFT_3.barrier()
QFT_3 = cRn(QFT_3, 0, 1, 2)
QFT_3.barrier()
QFT_3 = cRn(QFT_3, 0, 2, 3)
QFT_3.barrier()
QFT_3.h(1)
QFT_3.barrier()
QFT_3 = cRn(QFT_3, 1, 2, 2)
QFT_3.barrier()
QFT_3.h(2)
if pyzx is True:
return zx.sqasm(QFT_3.qasm(), simplify=False)
else:
#QFT_3.swap(0,2)
return QFT_3
def QEC3(pyzx=True):
Three_qec = QuantumCircuit(5)
Three_qec.cx(0, 3)
Three_qec.cx(1, 3)
Three_qec.cx(1, 4)
Three_qec.cx(2, 4)
if pyzx is True:
return zx.sqasm(Three_qec.qasm(), simplify=False)
else:
return Three_qec
def QHA(pyzx=True):
circ = QuantumCircuit(3)
circ.h(2)
circ = ccz(circ, 0, 1, 2)
circ.h(2)
circ.cx(1, 2)
if pyzx is True:
return zx.sqasm(circ.qasm(), simplify=False)
else:
return circ
def QFT2(pyzx=True):
QFT_2 = QuantumCircuit(2)
QFT_2.h(0)
QFT_2 = cRn(QFT_2, 0, 1, 2)
QFT_2.h(1)
if pyzx is True:
return zx.sqasm(QFT_2.qasm(), simplify=False)
else:
#QFT_2.swap(0,1)
return QFT_2
def QEC3_1Garanteed(pyzx=True, error_qubit=random.randint(0, 3)):
circ = QuantumCircuit(3)
circ.cx(0, 1)
circ.cx(0, 2)
"""Error"""
circ.x(error_qubit)
circ.cx(0, 1)
circ.cx(0, 2)
circ.h(0)
circ = ccz(circ, 1, 2, 0)
circ.h(0)
if pyzx is True:
return zx.sqasm(circ.qasm(), simplify=False)
else:
return circ
def QFT4(pyzx=True):
QFT_4 = QuantumCircuit(4)
QFT_4.h(0)
QFT_4.barrier()
QFT_4 = cRn(QFT_4, 0, 1, 2)
QFT_4.barrier()
QFT_4 = cRn(QFT_4, 0, 2, 3)
QFT_4.barrier()
QFT_4 = cRn(QFT_4, 0, 3, 4)
QFT_4.barrier()
QFT_4.h(1)
QFT_4.barrier()
QFT_4 = cRn(QFT_4, 1, 2, 2)
QFT_4.barrier()
QFT_4 = cRn(QFT_4, 1, 3, 3)
QFT_4.barrier()
QFT_4.h(2)
QFT_4.barrier()
QFT_4 = cRn(QFT_4, 2, 3, 2)
QFT_4.barrier()
QFT_4.h(3)
if pyzx is True:
return zx.sqasm(QFT_4.qasm(), simplify=False)
else:
#QFT_4.swap(0,3)
#QFT_4.swap(1,2)
return QFT_4
def QFT_N(n, pyzx=True):
QFT = QuantumCircuit(n)
rep = n
lis = []
for i in range(n):
lis.append(i)
QFT.h(i)
for j in np.arange(1, rep):
QFT = cRn(QFT, i, i + j, 1 + j)
rep = rep - 1
# ~ return QFT_clean
if pyzx is True:
QFT_pyzx = zx.sqasm(QFT.qasm(), simplify=False)
return QFT_pyzx
else:
return QFT
def QEC7(pyzx=True):
circ = QuantumCircuit(10)
circ.cx(0, 7)
circ.cx(2, 7)
circ.cx(4, 7)
circ.cx(6, 7)
circ.cx(1, 8)
circ.cx(2, 8)
circ.cx(5, 8)
circ.cx(6, 8)
circ.cx(3, 9)
circ.cx(4, 9)
circ.cx(5, 9)
circ.cx(6, 9)
if pyzx is True:
return zx.sqasm(circ.qasm(), simplify=False)
else:
return circ
def GSA3(hidden_element=0, iterations=2, pyzx=True):
GSA3 = QuantumCircuit(4)
GSA3.h(0)
GSA3.h(1)
GSA3.h(2)
GSA3.h(3)
for i in range(iterations):
##Hiden cell
GSA3 = GSA3_hidden_element(GSA3, k=hidden_element)
GSA3.h(0)
GSA3.h(1)
GSA3.h(2)
GSA3.x(0)
GSA3.x(1)
GSA3.x(2)
GSA3 = ccz(GSA3, 0, 1, 2)
GSA3.x(0)
GSA3.x(1)
GSA3.x(2)
GSA3.h(0)
GSA3.h(1)
GSA3.h(2)
if pyzx is True:
return zx.sqasm(GSA3.qasm(), simplify=False)
else:
return GSA3
def QFT5(pyzx=True):
QFT_5 = QuantumCircuit(5)
QFT_5.h(0)
QFT_5.rz(Rn(2 + 1), 0)
QFT_5.rz(Rn(2 + 1), 1)
QFT_5.cx(0, 1)
QFT_5.rz(Rn(2 + 1, True), 1)
QFT_5.cx(0, 1)
QFT_5.rz(Rn(3 + 1), 0)
QFT_5.rz(Rn(3 + 1), 2)
QFT_5.cx(0, 2)
QFT_5.rz(Rn(3 + 1, True), 2)
QFT_5.cx(0, 2)
QFT_5.rz(Rn(4 + 1), 0)
QFT_5.rz(Rn(4 + 1), 3)
QFT_5.cx(0, 3)
QFT_5.rz(Rn(4 + 1, True), 3)
QFT_5.cx(0, 3)
QFT_5.rz(Rn(5 + 1), 0)
QFT_5.rz(Rn(5 + 1), 4)
QFT_5.cx(0, 4)
QFT_5.rz(Rn(5 + 1, True), 4)
QFT_5.cx(0, 4)
QFT_5.h(1)
QFT_5.rz(Rn(2 + 1), 1)
QFT_5.rz(Rn(2 + 1), 2)
QFT_5.cx(1, 2)
QFT_5.rz(Rn(2 + 1, True), 2)
QFT_5.cx(1, 2)
QFT_5.rz(Rn(3 + 1), 1)
QFT_5.rz(Rn(3 + 1), 3)
QFT_5.cx(1, 3)
QFT_5.rz(Rn(3 + 1, True), 3)
QFT_5.cx(1, 3)
QFT_5.rz(Rn(4 + 1), 1)
QFT_5.rz(Rn(4 + 1), 4)
QFT_5.cx(1, 4)
QFT_5.rz(Rn(4 + 1, True), 4)
QFT_5.cx(1, 4)
QFT_5.h(2)
QFT_5.rz(Rn(2 + 1), 2)
QFT_5.rz(Rn(2 + 1), 3)
QFT_5.cx(2, 3)
QFT_5.rz(Rn(2 + 1, True), 3)
QFT_5.cx(2, 3)
QFT_5.rz(Rn(3 + 1), 2)
QFT_5.rz(Rn(3 + 1), 4)
QFT_5.cx(2, 4)
QFT_5.rz(Rn(3 + 1, True), 4)
QFT_5.cx(2, 4)
QFT_5.h(3)
QFT_5.rz(Rn(2 + 1), 3)
QFT_5.rz(Rn(2 + 1), 4)
QFT_5.cx(3, 4)
QFT_5.rz(Rn(2 + 1, True), 4)
QFT_5.cx(3, 4)
QFT_5.h(4)
if pyzx is True:
return zx.sqasm(QFT_5.qasm(), simplify=False)
else:
#QFT_5.swap(0,4)
#QFT_5.swap(1,3)
return QFT_5