def test_measure_all_noncontig():
prog = Program(H(0), H(10))
prog.measure_all()
assert prog.out() == "\n".join([
"H 0", "H 10", "DECLARE ro BIT[11]", "MEASURE 0 ro[0]",
"MEASURE 10 ro[10]", ""
])
def get_points(num_bits, num_samples):
# the max number we can have with the specified number of bits
max_num = 2**(num_bits) - 1
qvm = QVMConnection()
# create the Quill program
# each Qubit is put through an H gate to put it in the Hammard state. Every
# time we measure a qubit in this state, it has a 50-50 chance of being a 1
# or 0. By doing this we can generate random bits
p = Program()
for i in range(0, num_bits):
p.inst(H(i)) # put each qubit in the Hammard state
p.measure_all()
# run the Quill program on the quantum virtual machine
xs = qvm.run(p, trials=num_samples)
# convert the list of lists of results for each trial into a list of
# floating point numbers between 0-1. These will be our x coordinates
xs = list(map(lambda x: bits_to_int(x) / max_num, xs))
ys = qvm.run(p, trials=num_samples)
ys = list(map(lambda y: bits_to_int(y) / max_num, ys))
return zip(xs, ys)
def MagicNBall(N):
""" Takes N, number of options and creates required number of Qubits into a super position and returns an integer out of the number of possible combinations of N. Example N=5, returns a number {0, 1, 2, 3, 4}. """
# We can only deal with 2^nQubits possibilities, so this places limits on N.
r = math.log(N) / math.log(2)
nQubits = int(r)
if r > int(r):
nQubits += 1
# Now create the required number of qubits in the correct initial Hadamard State using the H gate. Each qubit is specified by i up to the nQubits.
p = Program()
for i in range(0, nQubits):
p += Program(H(i))
p.measure_all()
result = quantum_simulator.run(p)
option = sum([result[0][i] * 2**i for i in range(0, nQubits)])
# Deal with the addition options over specified N
print("Number of Qubits: ", nQubits)
print("Number of Quantum possibilities: ", 2**nQubits)
print("Number of possibilities you chose: ", N)
return option % N
def build_circuit(self, qubit_ops):
program = Program()
self.qubits = [program.alloc() for _ in range(len(qubit_ops))]
program_readout_reg = program.declare("ro",
memory_type="BIT",
memory_size=len(self.qubits))
for qb, gatestr in zip(self.qubits, qubit_ops):
if gatestr == "I":
pass
elif gatestr == "X":
program.gate("X", qubits=[qb], params=[])
elif gatestr == "H":
program.gate("H", qubits=[qb], params=[])
elif gatestr == "K": # our one char CX label
program.gate(
"CNOT",
qubits=[self.qubits[self.qubits.index(qb) - 1], qb],
params=[])
program.measure_all(*zip(self.qubits, program_readout_reg))
program = address_qubits(program)
program.wrap_in_numshots_loop(shots=10)
self.program = program
def test_measure_all_noncontig():
prog = Program(
H(0),
H(10),
)
prog.measure_all()
assert prog.out() == '\n'.join([
'H 0',
'H 10',
'DECLARE ro BIT[11]',
'MEASURE 0 ro[0]',
'MEASURE 10 ro[10]',
'',
])
def test_measure_all():
p = Program()
mem = p.declare("ro", memory_size=4)
p.measure_all((0, mem[0]), (1, mem[1]), (2, mem[3]))
assert p.out(
) == "DECLARE ro BIT[4]\nMEASURE 0 ro[0]\nMEASURE 1 ro[1]\nMEASURE 2 ro[3]\n"
p = Program([H(idx) for idx in range(4)])
p.measure_all()
for idx in range(4):
assert p[idx + 5] == MEASURE(idx, MemoryReference("ro", idx))
p = Program()
p.measure_all()
assert p.out() == ""
def test_measure_all():
p = Program()
p.measure_all((0, 0), (1, 1), (2, 3))
assert p.out() == 'MEASURE 0 [0]\n' \
'MEASURE 1 [1]\n' \
'MEASURE 2 [3]\n'
p = Program([H(idx) for idx in range(4)])
p.measure_all()
for idx in range(4):
assert p[idx + 4] == MEASURE(idx, idx)
p = Program()
p.measure_all()
assert p.out() == ''
def test_measure_all():
p = Program()
p.measure_all((0, 0), (1, 1), (2, 3))
assert p.out() == 'DECLARE ro BIT[4]\n' \
'MEASURE 0 ro[0]\n' \
'MEASURE 1 ro[1]\n' \
'MEASURE 2 ro[3]\n'
p = Program([H(idx) for idx in range(4)])
p.measure_all()
for idx in range(4):
assert p[idx + 5] == MEASURE(idx, idx)
p = Program()
p.measure_all()
assert p.out() == ''
def test_measure_all():
p = Program()
p.measure_all((0, 0), (1, 1), (2, 3))
assert p.out() == 'MEASURE 0 [0]\n' \
'MEASURE 1 [1]\n' \
'MEASURE 2 [3]\n'
from pyquil.api import QVMConnection
from pyquil.gates import H
from functools import reduce
import math
qvm = QVMConnection()
n = float(input('N: '))
sides = math.ceil(math.log(n, 2))
gates = []
for i in range(0, sides):
gates.append(H(i))
dice = Program(gates)
roll_dice = dice.measure_all()
dice_value = n + 1
while dice_value > n:
result = qvm.run(roll_dice)
dice_value = reduce(lambda x, y: 2 * x + y, result[0], 0) + 1
print("Quantum roll:", dice_value)
'''
# Testing to see if truly N-sided die
num_dict = {}
for i in range (0, 10000):
# print ("Attempt #", i)
dice_value = n + 1
while dice_value > n:
result = qvm.run(roll_dice)
from pyquil.quil import Program
from pyquil.gates import *
from pyquil import get_qc
outcomes = {'heads': 1, 'tails': 0}
p = Program()
ro = p.declare('ro', 'BIT', 1)
p += H(0)
p += MEASURE(0, ro[0])
qc = get_qc('1q-qvm')
exe = qc.compile(p)
print("Guess the outcome!\n")
coin_toss = p.measure_all()
guess = input("heads or tails?")
result = qc.run(exe)
try:
if (result == outcomes[guess]):
print("Your guessed right!!\n")
else:
print("Oops! Wrong guess")
except:
pass
class Game(object):
"""
Holds the players, the gate-deck.
Manages turns, checking up on player state.
Instantiates with certain paramaters: how many players, how many bits per player, how is the game started, etc.
"""
deckContents = [['H',4],['CNOT',2],['X',2],['SWAP',2],['MEASURE',2]]
numPlayers = 2
numOfBits = 4 #number of bits, to be divided amongst the players.
start = '0' #What operation to start each bit with
deal = 'Random' #'Random' or 'Identical'
longLineSuppress = True #Supress wavefunctions and state probabilites if more than 4 bits.
def __init__(self):
if self.numOfBits % self.numPlayers != 0:
raise ValueError("numOfBits must be evenly divisible by numPlayers")
self.theGame = Program()
#Create the deck
self.deck = self.makeDeck()
self.handSize = int(len(self.deck)/self.numPlayers)
#Initialize the bits to be used in the game.
if self.start == 'H': #Start every player with every state being equally likely.
for bit in range(self.numOfBits):
self.theGame.inst(sg['H'](bit))
elif self.start == '0': #Start every player with all bits zero.
for bit in range(self.numOfBits):
self.theGame.inst(sg['MEASURE'](bit,0))
elif self.start == '1': #Start every player with all bits one.
for bit in range(self.numOfBits):
self.theGame.inst(sg['X'](bit))
elif self.start == 'Random': #Start every player with all bits having a random gate applied from the deck.
for bit in range(self.numOfBits):
randGateFunc = rd.choice(self.deck)
try:
randGate = randGateFunc(bit)
if str(randGate).split()[0] == 'MEASURE':
self.theGame.inst(randGateFunc(bit)(0))
else:
self.theGame.inst(randGate)
except:
self.theGame.inst(randGateFunc(bit,(bit+1)%self.numOfBits))
#Initialize the players
self.players = [Player(i+1,self.deck,self.handSize) for i in range(self.numPlayers)]
#Start the Game!
self.playGame()
def makeDeck(self):
"""Creates the deck for the game based on deckContents"""
deckList = self.deckContents.copy()
for i in range(len(deckList)):
if len(deckList[i]) == 2: #No parameters for the gate
deckList[i] = [sg[deckList[i][0]],deckList[i][1]]
elif len(deckList[i]) == 3: #1 parameter for the gate
deckList[i] = [sg[deckList[i][0]](deckList[i][1]),deckList[i][2]]
deck = []
for g,num in deckList:
deck += [g]*num
if (self.deal == 'Random'):
if (len(deck) % self.numPlayers != 0):
raise ValueError("Length of deck must be evenly divisible by numPlayers")
rd.shuffle(deck)
return deck
def playGame(self):
"""Starts the game"""
while self.playerHasCards():
for player in self.players:
self.displayState()
self.theGame.inst(player.turn())
self.theGame.measure_all()
#print(self.theGame)
qvm = QVMConnection()
results = qvm.run(self.theGame)
resultsRev = results[0][:]
resultsRev.reverse() #So the printed results are in the same order as everything else.
print('The bits were measured as: ',resultsRev)
winners = self.checkWinner(results[0])
if len(winners) != 1:
print("It's a draw!")
else:
print("Player " + str(winners[0]+1) + " wins!")
def playerHasCards(self):
"""Returns true iff there exists a player with a non-empty hand"""
for player in self.players:
if player.hand != []:
return True
return False
def displayState(self):
qvm = QVMConnection()
wf = qvm.wavefunction(self.theGame)
probs = wf.probabilities()
if self.numOfBits <= 4 or not self.longLineSuppress: #Avoids printing long wavefunctions.
print('Wavefunction:',wf)
print('State Probabilities:',[round(i,2) for i in probs])
print('Win Probabilities:', self.winProbabilities(probs))
def winProbabilities(self, probs):
"""Displays the probabilites that each player will win based on the current wavefunction"""
winProbs = [0 for i in range(self.numPlayers + 1)] #the last entry is probability of draw
for prob,bits in zip(probs,it.product([0,1],repeat=self.numOfBits)):
winners = self.checkWinner(bits)
if len(winners) != 1:
winProbs[-1] += prob
else:
winProbs[winners[0]] += prob
winProbs = [round(i,3) for i in winProbs]
return winProbs
def checkWinner(self,bitList):
#grouper method from https://docs.python.org/3/library/itertools.html#itertools-recipes
def grouper(iterable, n, fillvalue=None):
"Collect data into fixed-length chunks or blocks"
args = [iter(iterable)] * n
return it.zip_longest(*args, fillvalue=fillvalue)
totals = [0 for i in range(self.numPlayers)]
groupedBits = list(grouper(bitList,int(self.numOfBits/self.numPlayers)))
for groupedBitsIndex in range(len(groupedBits)):
totals[groupedBitsIndex] = sum(groupedBits[groupedBitsIndex])
maxScore = max(totals)
winners = []
while maxScore in totals:
winners.append(totals.index(maxScore))
totals.remove(maxScore)
return winners
def randomq():
circ = Program(H(0), H(1), H(2), H(3))
mes = circ.measure_all()
result = qvm.run(mes)
value = reduce(lambda x, y: 2 * x + y, result[0], 0)
return value