# D(n) -- Count of Euclid modulus operations for the GCD
# Will calculate 50 iterations
print("\n## Running D(n) ##")
print("iteratively building fibonacci sequnece array for D(n)")
iterations = 51 # iterations will become 50 due to range() function
fib_seq_literal = [0, 1]
for n in range(2, 51):
fib_seq_literal.append(fib_seq_literal[n - 1] + fib_seq_literal[n - 2])
gcd_mods_arr = []
for n in range(0, 50):
gcd_mods_arr.append(0)
a = fib_seq_literal[n + 1]
b = fib_seq_literal[n]
gcd.gcd(a, b, gcd_mods_arr, n)
print("D(n) complete")
# M(n) -- Count of multiplications for three different
# implementations of exponentiation
print("\n## Running M(n) ##")
dbo_arr, dbf_arr, dac_arr = [], [], []
for n in range(0, 51):
dbo_arr.append(0)
dbf_arr.append(0)
dac_arr.append(0)
exp.dec_by_one(2, n, dbo_arr, n)
exp.dec_by_fctr(2, n, dbf_arr, n)
exp.div_and_conq(2, n, dac_arr, n)
print("M(n) complete")
while response == 'y' or response == 'Y':
fib_arr, gcd_arr = [0], [0]
placeholder = [0]
task_1_prompt_file = open('task_1_prompt.txt')
task_1_prompt = task_1_prompt_file.read()
print(task_1_prompt)
k = int(input("Enter a value for 'k' (recommended k < 36):"))
print("Fib(", k, ") is:", fib.fib(k, fib_arr, 0))
print("Additions:", fib_arr[0])
m = fib.fib(k + 1, placeholder, 0)
n = fib.fib(k, placeholder, 0)
print("GCD(", m, ",", n, ") is:", gcd.gcd(m, n, gcd_arr, 0))
print("Modulos:", gcd_arr[0])
task_1_prompt_file.close()
response = input("Would you like to repeat this task? y/n: ")
while response not in responses:
print(
"Please enter 'y' to repeat or 'n' to continue to the next task.")
response = input("Would you like to repeat this task? y/n: ")
print("\n")
response = 'y'
while response == 'y' or response == 'Y':
dbo_arr, dbf_arr, dac_arr = [0], [0], [0]
task_2_prompt_file = open('task_2_prompt.txt')
def testGcdCase1(self):
self.assertEquals(gcd(8, 3), 1)
def testGcd(self):
self.assertEquals(gcd(8, 4), 4)
def test_true_case2(self):
self.assertEqual(gcd(360, 465), 15)
def testGcdCase0(self):
self.assertEquals(gcd(8, 0), 8)
def test_true_case1(self):
self.assertEqual(gcd(36, 48), 12)
def testGcdCase0(self):
self.assertEquals(gcd(8, 0), 8)
def testGcd(self):
self.assertEquals(gcd(8, 4), 4)
def testGcdCase1(self):
self.assertEquals(gcd(8, 3), 1)
def lcm(a, b):
return abs(a * b) / gcd(a=a, b=b)
