We have a rectangular grid of squares with $H$ horizontal rows and $W$ vertical columns. Let $(i,j)$ denote the square at the $i$\-th row from the top and the $j$\-th column from the left. On this grid, there is a piece, which is initially placed at square $(s_r,s_c)$.
Takahashi and Aoki will play a game, where each player has a string of length $N$. Takahashi's string is $S$, and Aoki's string is $T$. $S$ and $T$ both consist of four kinds of letters: `L`, `R`, `U` and `D`.
The game consists of $N$ steps. The $i$\-th step proceeds as follows:
* First, Takahashi performs a move. He either moves the piece in the direction of $S_i$, or does not move the piece.
* Second, Aoki performs a move. He either moves the piece in the direction of $T_i$, or does not move the piece.
Here, to move the piece in the direction of `L`, `R`, `U` and `D`, is to move the piece from square $(r,c)$ to square $(r,c-1)$, $(r,c+1)$, $(r-1,c)$ and $(r+1,c)$, respectively. If the destination square does not exist, the piece is removed from the grid, and the game ends, even if less than $N$ steps are done.
Takahashi wants to remove the piece from the grid in one of the $N$ steps. Aoki, on the other hand, wants to finish the $N$ steps with the piece remaining on the grid. Determine if the piece will remain on the grid at the end of the game when both players play optimally.
## Constraints
* $2 \leq H,W \leq 2 \times 10^5$
* $2 \leq N \leq 2 \times 10^5$
* $1 \leq s_r \leq H$
* $1 \leq s_c \leq W$
* $|S|=|T|=N$
* $S$ and $T$ consists of the four kinds of letters `L`, `R`, `U` and `D`.
## Input
Input is given from Standard Input in the following format:
$H$ $W$ $N$
$s_r$ $s_c$
$S$
$T$
[samples]