def fund(n):
lower, upper = bounds(n)
p = 0
for b in range(lower, upper+1):
r = n - b
for seq in mtools.comb(range(1,n+1), r):
a = mtools.mul(seq)
p += a
return mtools.fac(n+1)/p
def sum_c(n):
s = 0
l = range(n)
for i in range(2, n-1):
combs = mtools.comb(l, i)
combs2 = [c for c in combs]
#print combs2
s += to_compare(combs2)
return s
def solve():
l = [str(x) for x in mtools.sieve_primes(1000000)]
for i in range(5,8):
dls = mtools.comb(range(i-1), 3)
for l2 in dls:
l2.sort()
print i, l2
n, p = detect(i, l, l2)
if n == 8:
return p
def select_p(p, c, n):
l = []
for i in range(len(p)):
if c[i] > n:
l = l + [i]*n
elif c[i] > 0:
l = l + [i]*c[i]
lc = mtools.comb(l, n)
lu = unique_list(lc)
lu.sort(cmp=lambda x,y: cmp(mul_p(p, x), mul_p(p, y)))
return lu
def extend_list(l, sz, lim):
if len(l) == sz:
return [l]
s = set(range(lim)) - set(l)
n = sz - len(l)
ls = mtools.comb(list(s), n)
lr = []
for le in ls:
lt = l + le
lt.sort()
lr.append(list(lt))
return lr
def solve():
m = 0
le = mtools.comb(range(1,10), 4)
for es in le:
l = target_numbers(es)
t = consecutive_numbers(l)
#print es, t
if t > m:
m = t
lr = list(es)
lr.sort()
print lr, t
return lr
def is_special_set(l):
l.sort()
tab = {}
i = 1
while i < len(l):
m = get_max(l, i)
for subs in mtools.comb(l, i):
s = sum(subs)
if s <= m:
return False
try:
if tab[s]:
return False
except KeyError:
tab[s] = i
i += 1
return True
