def speed(nb_qbits, nb_circuits, repeat=1, depth=2, gpu=False, multicore = False):
if gpu: params = cupy.pi * cupy.random.rand(depth, nb_qbits, nb_circuits)
else: params = np.pi * np.random.rand(depth, nb_qbits, nb_circuits)
start_time = ftime()
for _ in range(repeat):
mq.initQreg(nb_qbits, nb_circuits, gpu = gpu, multicore = multicore)
for l in range(depth):
for i in range(nb_qbits):
mq.SX(i)
mq.RZ(i, params[l,i])
mq.SX(i)
for i in range(nb_qbits - 1):
mq.CZ(i, i+1)
for i in range(nb_qbits):
mq.SX(i)
mq.measureAll()
end_time = ftime()
return (end_time - start_time)/repeat
import manyq as mq import numpy as np angles = np.array([np.pi/3,np.pi/2,2*np.pi/3]) mq.initQreg(2,angles.shape[0]) mq.SX(0) mq.SX(1) mq.RZ(0,angles) mq.SX(0) mq.SX(1) mq.measureAll() shots = mq.makeShots(100) np.set_printoptions(precision=2) print(mq.Qreg.inQ,"\n") print(mq.Qreg.mQ,'\n') print(shots)
import manyq as mq
import numpy as np
# angles = np.array([[np.pi/3,np.pi/2,2*np.pi/3]])
omega = np.array([[np.pi / 3, np.pi / 2, 2 * np.pi / 3],
[-np.pi / 3, -np.pi / 2, 2 * np.pi / 3]])
theta = np.array([-np.pi / 3, np.pi / 3])
mq.initQreg(2, omega.shape[1])
mq.SX(0)
mq.SX(1)
# mq.RZ(0,angles)
mq.RZ(0, omega[0])
mq.RZ(0, theta[0])
mq.RZ(1, omega[1])
mq.RZ(1, theta[1])
# mq.fSIM(0,1,angles,angles)
mq.SX(0)
mq.SX(1)
mq.measureAll()
shots = mq.makeShots(100)
np.set_printoptions(precision=2, suppress=True)
print(mq.Qreg.inQ, "\n")
print(mq.Qreg.mQ, '\n')
# print(shots)
def __init__(self, nbqbits, batch_size, *args, gpu=False, **kwargs):
super().__init__(nbqbits)
mq.initQreg(nbqbits, batch_size, gpu=gpu)
self.__txt = ""
import manyq as mq import numpy as np mq.initQreg(2, 3) mq.H(1) mq.CX(1, 0) mq.measureAll() np.set_printoptions(precision=2) print(mq.Qreg.inQ, '\n') # quantum state (vector of amplitudes) print(mq.Qreg.mQ, '\n') # measurement (vector of probabilities) print(mq.makeShots(2000)) # 2000 shots (nb of occurence of each bit string)