Your favorite music streaming platform has formed a perfectly balanced playlist exclusively for you. The playlist consists of n tracks numbered from 1 to n. The playlist is automatic and cyclic: whenever track i finishes playing, track i+1 starts playing automatically; after track n goes track 1.

For each track i, you have estimated its coolness a_i. The higher a_i is, the cooler track i is.

Every morning, you choose a track. The playlist then starts playing from this track in its usual cyclic fashion. At any moment, you remember the maximum coolness x of already played tracks. Once you hear that a track with coolness strictly less than x/2 (no rounding) starts playing, you turn off the music immediately to keep yourself in a good mood.

For each track i, find out how many tracks you will listen to before turning off the music if you start your morning with track i, or determine that you will never turn the music off. Note that if you listen to the same track several times, every time must be counted.

Input

The first line contains a single integer n (2 ≤ n ≤ 10^5), denoting the number of tracks in the playlist.

The second line contains n integers a_1, a_2, …, a_n (1 ≤ a_i ≤ 10^9), denoting coolnesses of the tracks.

Output

Output n integers c_1, c_2, …, c_n, where c_i is either the number of tracks you will listen to if you start listening from track i or -1 if you will be listening to music indefinitely.

Examples

Input


4
11 5 2 7


Output


1 1 3 2


Input


4
3 2 5 3


Output


5 4 3 6


Input


3
4 3 6


Output


-1 -1 -1

Note

In the first example, here is what will happen if you start with... 

  * track 1: listen to track 1, stop as a_2 < (a_1)/(2). 
  * track 2: listen to track 2, stop as a_3 < (a_2)/(2). 
  * track 3: listen to track 3, listen to track 4, listen to track 1, stop as a_2 < (max(a_3, a_4, a_1))/(2). 
  * track 4: listen to track 4, listen to track 1, stop as a_2 < (max(a_4, a_1))/(2). 



In the second example, if you start with track 4, you will listen to track 4, listen to track 1, listen to track 2, listen to track 3, listen to track 4 again, listen to track 1 again, and stop as a_2 < (max(a_4, a_1, a_2, a_3, a_4, a_1))/(2). Note that both track 1 and track 4 are counted twice towards the result.
import types

_atcoder_code = """
# Python port of AtCoder Library.
__all__ = ["string","lazysegtree","convolution","maxflow","modint"
    ,"mincostflow","segtree","_scc","_math","math","dsu","twosat","fenwicktree","scc","_bit","lca","unverified","graph","matrix","algebra","combinatorics"]
__version__ = '0.0.1'
"""

atcoder = types.ModuleType('atcoder')
exec(_atcoder_code, atcoder.__dict__)

_atcoder__bit_code = """
def _ceil_pow2(n: int) -> int:
    x = 0
    while (1 << x) < n:
        x += 1

    return x


def _bsf(n: int) -> int:
    x = 0
    while n % 2 == 0:
        x += 1
        n //= 2

    return x
"""

atcoder._bit = types.ModuleType('atcoder._bit')
exec(_atcoder__bit_code, atcoder._bit.__dict__)


_atcoder_segtree_code = """
import typing

# import atcoder._bit


class SegTree:
 
    '''
    Segment Tree Library.
    op(S,S) -> S
    e = Identity element
    
    SegTree(op,e,n) := Initialized by [e]*(n)
    SegTree(op,e,vector) := Initialized by vector
    '''

    def __init__(self,
                 op: typing.Callable[[typing.Any, typing.Any], typing.Any],
                 e: typing.Any,
                 v: typing.Union[int, typing.List[typing.Any]]) -> None:
        self._op = op
        self._e = e

        if isinstance(v, int):
            v = [e] * v

        self._n = len(v)
        self._log = atcoder._bit._ceil_pow2(self._n)
        self._size = 1 << self._log
        self._d = [e] * (2 * self._size)

        for i in range(self._n):
            self._d[self._size + i] = v[i]
        for i in range(self._size - 1, 0, -1):
            self._update(i)

    def set(self, p: int, x: typing.Any) -> None:
        '''
        a[p] -> x in O(logN).
        '''
        assert 0 <= p < self._n

        p += self._size
        self._d[p] = x
        for i in range(1, self._log + 1):
            self._update(p >> i)

    def increment(self, p: int, x : typing.Any) -> None:
        '''
        a[p] -> a[p] + x in O(logN).
        '''
        assert 0 <= p < self._n

        p += self._size
        self._d[p] += x
        for i in range(1,self._log + 1):
            self._update(p >> i)
        
    def get(self, p: int) -> typing.Any:
        '''
        return a[p] in O(1).
        '''
        assert 0 <= p < self._n

        return self._d[p + self._size]

    def prod(self, left: int, right: int) -> typing.Any:
        '''
        return op(a[l...r)) in O(logN).
        '''
        assert 0 <= left <= right <= self._n
        sml = self._e
        smr = self._e
        left += self._size
        right += self._size

        while left < right:
            if left & 1:
                sml = self._op(sml, self._d[left])
                left += 1
            if right & 1:
                right -= 1
                smr = self._op(self._d[right], smr)
            left >>= 1
            right >>= 1

        return self._op(sml, smr)

    def all_prod(self) -> typing.Any:
        return self._d[1]

    def max_right(self, left: int,
                  f: typing.Callable[[typing.Any], bool]) -> int:
        '''
        let f(S) -> bool and l is const.
        return maximum r for which f(op[l...r)) == true is satisfied, in O(logN).
        '''
        assert 0 <= left <= self._n
        # assert f(self._e)

        if left == self._n:
            return self._n

        left += self._size
        sm = self._e

        first = True
        while first or (left & -left) != left:
            first = False
            while left % 2 == 0:
                left >>= 1
            if not f(self._op(sm, self._d[left])):
                while left < self._size:
                    left *= 2
                    if f(self._op(sm, self._d[left])):
                        sm = self._op(sm, self._d[left])
                        left += 1
                return left - self._size
            sm = self._op(sm, self._d[left])
            left += 1

        return self._n

    def min_left(self, right: int,
                 f: typing.Callable[[typing.Any], bool]) -> int:
        '''
        let f(S) -> bool and r is const.
        return minimum l for which f(op[l...r)) == true is satisfied, in O(logN).
        '''

        assert 0 <= right <= self._n
        # assert f(self._e)

        if right == 0:
            return 0

        right += self._size
        sm = self._e

        first = True
        while first or (right & -right) != right:
            first = False
            right -= 1
            while right > 1 and right % 2:
                right >>= 1
            if not f(self._op(self._d[right], sm)):
                while right < self._size:
                    right = 2 * right + 1
                    if f(self._op(self._d[right], sm)):
                        sm = self._op(self._d[right], sm)
                        right -= 1
                return right + 1 - self._size
            sm = self._op(self._d[right], sm)

        return 0

    def _update(self, k: int) -> None:
        self._d[k] = self._op(self._d[2 * k], self._d[2 * k + 1])
"""

atcoder.segtree = types.ModuleType('atcoder.segtree')
atcoder.segtree.__dict__['atcoder'] = atcoder
atcoder.segtree.__dict__['atcoder._bit'] = atcoder._bit
exec(_atcoder_segtree_code, atcoder.segtree.__dict__)
SegTree = atcoder.segtree.SegTree

import sys
# from atcoder.segtree import SegTree

#Library Info(ACL for Python/Pypy) -> https://github.com/not522/ac-library-python


def input():
    return sys.stdin.readline().rstrip()


DXY = [(0, -1), (1, 0), (0, 1), (-1, 0)]  # L,D,R,Uの順番

INF = 1 << 32


def main():
    n = int(input())
    a = list(map(int, input().split()))
    
    a1 = a * 2 + [INF]
    a2 = a * 2 + [-INF]

    maxS = SegTree(lambda x,y : max(x,y),-INF,a1)
    minS = SegTree(lambda x,y : min(x,y),INF,a2)

    dp = [-1]*(2 * n)

    b = [(a[i],i) for i in range(n)]
    b.sort(key = lambda x: -x[0])

    for val,idx in b:
        right_bound_idx = maxS.max_right(idx,lambda x: x <= val)
        #b[idx] > val
        if right_bound_idx != 2 * n:
            #such right_bound_idx exists
            right_bound_idx_0 = minS.max_right(idx,lambda x: 2 * x >= val)
            if right_bound_idx_0 < right_bound_idx:
                dp[idx] = right_bound_idx_0 - idx
                dp[idx + n] = dp[idx]
                continue
            else:
                if dp[right_bound_idx] != -1:
                    dp[idx] = dp[right_bound_idx] + (right_bound_idx - idx)
                else:
                    dp[idx] = -1

                dp[idx + n] = dp[idx]
                continue
        else:
            #does not exists
            right_bound_idx = minS.max_right(idx,lambda x: 2 * x >= val)
            if right_bound_idx == 2 * n:
                dp[idx] = -1
            else:
                dp[idx] = right_bound_idx - idx 
            dp[idx + n] = dp[idx]
    print(*dp[:n])
    return 0


if __name__ == "__main__":
    main()
