def main():
print "My application starts..."
a = 2
b = 3
x = True
y = False
print add(a, b)
print mul(a, b)
print and_(x, y)
print or_(x, y)
def main():
print "debut"
a=2
b=3
x=True
y=False
print add(a,b)
print nul(a,b)
print and_(a,b)
print or_(a,b)
print or_(x,y)
def fib(x):
# Takes a variable x and will find that number in the Fibonacci Sequence
if x == 0:
return 0
elif x == 1:
return 1
else:
return add(fib(subtract(x, 1)), fib(subtract(x, 2)))
def pythagorean(a, b, mode="h"):
if mode == "h":
c = power(add(power(a, 2), power(b, 2)), .5)
#c = ((a ** 2 + b ** 2) ** (1 / 2))
else:
c = power(absolute_value(subtract(power(b, 2), power(a, 2))), .5)
#c = ((b ** 2 - a ** 2) ** (1 / 2))
return c
def dft(k,n, message, fullTable, expos, logs): m = generateMessage(k,n,message) t = generateTransform(n,fullTable) code = np.zeros((n,1)) for row in range(0,n): rowSum = 0 for idx, val in enumerate(t[row]): product = operators.multiply(int(val), int(m[idx,0]), expos, logs) rowSum = operators.add(rowSum, product) code[row,0] = rowSum return code
def __sub__(self, X):
"Y.__sub__(X) <==> X-Y"
return add(self, -X)
def __radd__(self, X):
"Y.__radd__(X) <==> Y+X"
return add(X, self)
def __add__(self, X):
"Y.__add__(X) <==> X+Y"
return add(self, X)
def __sub__(self, X):
"Y.__sub__(X) <==> X-Y"
return add(self, -X)
def __add__(self, X):
"Y.__add__(X) <==> X+Y"
return add(self, X)
def __add__(self, data):
return op.add(self, data)
def test_add():
a = 10
b = 20
assert operators.add(10, 20) == 30
def continuous_fib(x):
for i in range(add(x, 1)):
print(fib(i))
return fib(x)
print("select")
print("1.add")
print("2.substract")
print("3.multiply")
print("4.divide")
print("5.power")
choice=input("enter choice 1/2/3/4/5 :")
x=(int(input("enter 1st")))
y=(int(input("enter 2nd value")))
if choice == "1":
operators.add(x,y)
elif choice == "2":
operators.subtract(x,y)
elif choice== "3":
operators.multiply(x,y)
elif choice== "4":
operators.divide(x,y)
elif choice== "5":
operators.power(x,y)
else:
import numpy
import operators
x = int(input("enter 1st num: "))
y = int(input("enter 2nd num: "))
ans1 = operators.add(x, y)
ans2 = operators.mult(x, y)
print(ans1)
print(ans2)
def __rsub__(self, X):
"Y.__rsub__(X) <==> Y-X"
return add(X, -self)
from operators import subtract
from operators import multiply
from operators import divide
print("select operation.")
print("1.Add")
print("2.Subtract")
print("3.Multiply")
print("4.Divide")
# Take input from the user
choice = input("Enter choice(1/2/3/4: ")
num1 = float(input("Enter First Number: "))
num2 = float(input("Enter Second Number: "))
if choice == '1':
print(num1, "+", num2, "=", add(num1, num2))
elif choice == '2':
print(num1, "-", num2, "=", subtract(num1, num2))
elif choice == '3':
print(num1, "*", num2, "=", multiply(num1, num2))
elif choice == '4':
print(num1, "/", num2, "=", divide(num1, num2))
else:
print("Invalid Input")
def __radd__(self, data):
return op.add(data, self)
def test_add(self):
self.assertEquals(operators.add(2,3),5)
import qiskit from qiskit import QuantumRegister, QuantumCircuit from operators import add from utils import print_vector q = qiskit.QuantumRegister(4) a, b, s, c = q circuit = qiskit.QuantumCircuit(q) circuit.h([a, b]) add(circuit, a, b, s, c) print_vector(circuit, width=4)
def __radd__(self, X):
"Y.__radd__(X) <==> Y+X"
return add(X, self)
def test_add(self):
a = 2
b = 3
self.assertEquals(operators.add(a, b), 5)
def __rsub__(self, X):
"Y.__rsub__(X) <==> Y-X"
return add(X, -self)
def add256(a,b): return operators.add(int(a),int(b))
