The Bubble Cup hypothesis stood unsolved for 130 years. Who ever proves the hypothesis will be regarded as one of the greatest mathematicians of our time! A famous mathematician Jerry Mao managed to reduce the hypothesis to this problem:

Given a number m, how many polynomials P with coefficients in set {\{0,1,2,3,4,5,6,7\}} have: P(2)=m?

Help Jerry Mao solve the long standing problem!

Input

The first line contains a single integer t (1 ≤ t ≤ 5⋅ 10^5) - number of test cases.

On next line there are t numbers, m_i (1 ≤ m_i ≤ 10^{18}) - meaning that in case i you should solve for number m_i.

Output

For each test case i, print the answer on separate lines: number of polynomials P as described in statement such that P(2)=m_i, modulo 10^9 + 7.

Example

Input


2
2 4


Output


2
4

Note

In first case, for m=2, polynomials that satisfy the constraint are x and 2.

In second case, for m=4, polynomials that satisfy the constraint are x^2, x + 2, 2x and 4.
#include <bits/stdc++.h>
using namespace std;
const int iinf = 1e9 + 10;
const long long inf = 1ll << 60;
const long long mod = 1e9 + 7;
void GG() {
  cout << "0\n";
  exit(0);
}
long long mpow(long long a, long long n, long long mo = mod) {
  long long re = 1;
  while (n > 0) {
    if (n & 1) re = re * a % mo;
    a = a * a % mo;
    n >>= 1;
  }
  return re;
}
long long inv(long long b, long long mo = mod) {
  if (b == 1) return b;
  return (mo - mo / b) * inv(mo % b, mo) % mo;
}
const int maxn = 1e6 + 5;
signed main() {
  ios_base::sync_with_stdio(0);
  cin.tie(0);
  ;
  int t;
  cin >> t;
  while (t--) {
    long long m;
    cin >> m;
    if (m <= 2) {
      cout << m << '\n';
    } else {
      m -= 3;
      long long x = (m) / 4;
      long long re = ((x + 1) % mod * ((x + 2) % mod)) % mod;
      ;
      re += (m % 4 >= 1 ? x + 2 : 0) + (m % 4 >= 3 ? x + 2 : 0);
      cout << re % mod << '\n';
    }
  }
}
