def find_y(x):
if x in pp:
return x
ddd = mylib.gather_dividers(x)
# print(x, ddd)
dd = [get_f(y) for y in ddd]
return max(dd)
def find_y(x):
if x in pp:
return x
ddd = mylib.gather_dividers(x)
# print(x, ddd)
dd = [get_f(y) for y in ddd]
return max(dd)
def get_number_of_composite_dividers(a):
if a == 1:
return 1
n = 1
for dd in mylib.gather_dividers(a):
n *= len(dd) + 1
return n
def get_number_of_composite_dividers(a):
if a == 1:
return 1
n = 1
for dd in mylib.gather_dividers(a):
n *= len(dd) + 1
return n
def get_square_dividers(c):
ddd = mylib.gather_dividers(c)
out = []
for dd in ddd:
if len(dd) < 2:
continue
for i in range(len(dd) // 2):
out.append(dd[0])
return out
def get_square_dividers(c):
ddd = mylib.gather_dividers(c)
out = []
for dd in ddd:
if len(dd) < 2:
continue
for i in range(len(dd) // 2):
out.append(dd[0])
return out
def rad(n):
out = 1
for e in (d[0] for d in mylib.gather_dividers(n)):
out *= e
return out
def make_cached_dividers(n):
for x in range(1, n + 1):
cached_dividers[x] = mylib.gather_dividers(x)
def rad(n):
out = 1
for e in (d[0] for d in mylib.gather_dividers(n)):
out *= e
return out