5336：XYZ and Drops

XYZ is playing an interesting game called "drops". It is played on a $r * c$ grid. Each grid cell is either empty, or occupied by a waterdrop. Each waterdrop has a property "size". The waterdrop cracks when its size is larger than 4, and produces 4 small drops moving towards 4 different directions (up, down, left and right).

In every second, every small drop moves to the next cell of its direction. It is possible that multiple small drops can be at same cell, and they won't collide. Then for each cell occupied by a waterdrop, the waterdrop's size increases by the number of the small drops in this cell, and these small drops disappears.

You are given a game and a position ($x$, $y$), before the first second there is a waterdrop cracking at position ($x$, $y$). XYZ wants to know each waterdrop's status after $T$ seconds, can you help him?

$1 \le r \le 100$, $1 \le c \le 100$, $1 \le n \le 100$, $1 \le T \le 10000$

The first line contains four integers $r$, $c$, $n$ and $T$. $n$ stands for the numbers of waterdrops at the beginning.
Each line of the following $n$ lines contains three integers $x_i$, $y_i$, $size_i$, meaning that the $i$-th waterdrop is at position ($x_i$, $y_i$) and its size is $size_i$. ($1 \le size_i \le 4$)
The next line contains two integers $x$, $y$.

It is guaranteed that all the positions in the input are distinct.

Multiple test cases (about 100 cases), please read until EOF (End Of File).

$n$ lines. Each line contains two integers $A_i$, $B_i$:
If the $i$-th waterdrop cracks in $T$ seconds, $A_i = 0$, $B_i = $ the time when it cracked.
If the $i$-th waterdrop doesn't crack in $T$ seconds, $A_i = 1$, $B_i = $ its size after $T$ seconds.