Busy Beaver really likes composite numbers. One day he saw a number on a blackboard and wanted to make it composite without changing it too much.
You are given a positive integer $N$, whose digits are all $1$'s and $2$'s.
Delete at most one digit from $N$, possibly leaving $\boldsymbol{N}$ the same as before, so that $N$ becomes composite. You cannot reorder digits you do not delete. To prove that your new number is composite, you also need to output a nontrivial factor.
A positive integer $d$ is a nontrivial factor of a positive integer $n$ if $n$ is a multiple of $d$, $d \neq 1$, and $d \neq n$.
Input
The first line contains a positive integer $T$ ($1 \le T \le 200$), the number of test cases.
Each test case contains one line: a positive integer $N$ ($10^3 < N < 10^{200}$) consisting of only the digits $1$ and $2$.
Output
For each test case, output a line with two numbers separated by a space.
First output a positive integer $M$, such that either $M = N$ or $M$ is missing one of the digits of $N$. Then output a positive integer $K$ such that $M$ is a multiple of $K$ and $1 < K < M$.
It can be shown that a solution always exists under the problem's constraints. If there are multiple possible values for $M$ and/or $K$, any valid combination will be accepted.
Scoring
- ($10$ points) $N$'s digits are all $2$'s.
- ($10$ points) $N$'s digits are all $1$'s.
- ($10$ points) $N < 10^4$.
- ($20$ points) $N < 10^8$.
- ($50$ points) No other constraints.
Examples
Input 1
4 121212 11121 12211 212221112112211
Output 1
121212 10101 1121 59 2211 67 21221112112211 4933994911
Note
In the first sample test case, $121212$ is already composite, so we don't have to delete any digit, and we can output one of its nontrivial factors. $10101$ is one possibility, since $121212 = 12 \cdot 10101$.
In the second sample, we can delete the first $1$ to turn the number into $1121$, which is composite since $1121 = 19 \cdot 59$, and outputting either $19$ or $59$ would work. We could also have left $11121$ as it is; if we do that, some of the possible answers are 11121 33 and 11121 337.
In the third sample, $12211$ is prime, so we must delete some digit. Some other possible solutions are 1211 7 and 1221 37.