M1 = M1()
# Inicjalizacja Bramek
X = PauliX()
Y = PauliY()
Z = PauliZ()
H = Hadamard()
CNOT = Cnot()
I = Identity()
# Splątany Qubity Alicji i Boba
x = Qubit(Complex(1, 0), Complex(0, 0))
y = Qubit(Complex(1, 0), Complex(0, 0))
x = x * H
xy = tensordot(x, y)
xy = np.tensordot(CNOT, xy, axes=[1, 0])
print("splątany = ", xy)
# Pierwszy krok
print("What you whant encode?")
opcja = input()
if opcja == '00':
first = xy
elif opcja == '01':
X = np.kron(X, I)
print(X)
first = np.tensordot(X, xy, axes=[1, 0])
elif opcja == '10':
Z = np.kron(Z, I)
print(Z)
M0 = M0()
M1 = M1()
# Inicjalizacja Bramek
H = Hadamard()
CNOT = Cnot()
I = Identity()
RY_pi_4 = RY(pi / 4)
RY_pi_8 = RY(pi / 8)
# Splątany Qubity Alicji i Boba
qx = Qubit(Complex(1, 0), Complex(0, 0))
qy = Qubit(Complex(1, 0), Complex(0, 0))
qx = qx * H
xy = tensordot(qx, qy)
first = np.tensordot(CNOT, xy, axes=[1, 0])
# print("splątany = ", xy)
RYGATE = np.kron(RY(pi / 4), RY(pi / 8))
# print(RY)
second = np.tensordot(RYGATE, first, axes=[1, 0])
# print(second)
# print(x, y)
# Alice
if x == 0:
M01 = np.kron(M0, M1)
P = np.tensordot(M01, second, axes=[1, 0])
elif x == 1:
RY_pi_4 = np.kron(RY(pi / 4), I)
from qubit import Qubit, tensordot, Hadamard, Cnot, Measure, Identity, RCnot, randomQ from complex import Complex import numpy as np import math Cnot = Cnot() I = Identity() q1 = randomQ() q2 = Qubit(Complex(1 / math.sqrt(2), 0), Complex(1 / math.sqrt(2), 0)) q3 = randomQ() Q = tensordot(q1, q3) # Q = np.kron(Q, q3.vector()) print(Q) # Cnot = np.kron(Cnot, I) # print(Cnot) # # Q = np.tensordot(Cnot, Q, axes=[1,0]) # print(Q)