human
Alice and Bob play a game. The game consists of several sets, and each set consists of several rounds. Each round is won either by Alice or by Bob, and the set ends when one of the players has won x rounds in a row. For example, if Bob won five rounds in a row and x = 2, then two sets ends.

You know that Alice and Bob have already played n rounds, and you know the results of some rounds. For each x from 1 to n, calculate the maximum possible number of sets that could have already finished if each set lasts until one of the players wins x rounds in a row. It is possible that the last set is still not finished — in that case, you should not count it in the answer.

Input

The first line contains one integer n (1 ≤ n ≤ 10^6) — the number of rounds.

The second line contains one string s of length n — the descriptions of rounds. If the i-th element of the string is 0, then Alice won the i-th round.
if it is 1, then Bob won the i-th round, and if it is ?, then you don't know who won the i-th round.

Output

In the only line print n integers. The i-th integer should be equal to the maximum possible number of sets that could have already finished if each set lasts until one of the players wins i rounds in a row.

Examples

Input

6
11?000

Output

6 3 2 1 0 0 

Input

5
01?01

Output

5 1 0 0 0 

Input

12
???1??????1?

Output

12 6 4 3 2 2 1 1 1 1 1 1 

Note

Let's consider the first test case:

  * if x = 1 and s = 110000 or s = 111000 then there are six finished sets.

  * if x = 2 and s = 110000 then there are three finished sets.

  * if x = 3 and s = 111000 then there are two finished sets.

  * if x = 4 and s = 110000 then there is one finished set.

  * if x = 5 then there are no finished sets.

  * if x = 6 then there are no finished sets.
assistant
#Here is Python program to print n integers.

class BalancingTree:
    def __init__(self, n):
        self.N = n
        self.root = self.node(1<<n, 1<<n)

    def append(self, v):
        v += 1
        nd = self.root
        while True:
            if v == nd.value:

                return 0
            else:
                mi, ma = min(v, nd.value), max(v, nd.value)
                if mi < nd.pivot:
                    nd.value = ma
                    if nd.left:
                        nd = nd.left
                        v = mi
                    else:
                        p = nd.pivot
                        nd.left = self.node(mi, p - (p&-p)//2)
                        break
                else:
                    nd.value = mi
                    if nd.right:
                        nd = nd.right
                        v = ma
                    else:
                        p = nd.pivot
                        nd.right = self.node(ma, p + (p&-p)//2)
                        break

    def leftmost(self, nd):
        if nd.left: return self.leftmost(nd.left)
        return nd

    def rightmost(self, nd):
        if nd.right: return self.rightmost(nd.right)
        return nd

    def find_l(self, v):
        v += 1
        nd = self.root
        prev = 0
        if nd.value < v: prev = nd.value
        while True:
            if v <= nd.value:
                if nd.left:
                    nd = nd.left
                else:
                    return prev - 1
            else:
                prev = nd.value
                if nd.right:
                    nd = nd.right
                else:
                    return prev - 1

    def find_r(self, v):
        v += 1
        nd = self.root
        prev = 0
        if nd.value > v: prev = nd.value
        while True:
            if v < nd.value:
                prev = nd.value
                if nd.left:
                    nd = nd.left
                else:
                    return prev - 1
            else:
                if nd.right:
                    nd = nd.right
               ...