Score : $300$ points

Problem Statement

We have a grid with $H$ horizontal rows and $W$ vertical columns. We denote by $(i, j)$ the cell at the $i$-th row from the top and $j$-th column from the left of the grid. Each cell in the grid has a symbol # or . written on it. Let $C[i][j]$ be the character written on $(i, j)$. For integers $i$ and $j$ such that at least one of $1 \leq i \leq H$ and $1 \leq j \leq W$ is violated, we define $C[i][j]$ to be ..

$(4n+1)$ squares, consisting of $(a, b)$ and $(a+d,b+d),(a+d,b-d),(a-d,b+d),(a-d,b-d)$ $(1 \leq d \leq n, 1 \leq n)$, are said to be a cross of size n centered at (a,b) if and only if all of the following conditions are satisfied:

• $C[a][b]$ is #.
• $C[a+d][b+d],C[a+d][b-d],C[a-d][b+d]$, and $C[a-d][b-d]$ are all #, for all integers $d$ such that $1 \leq d \leq n$,
• At least one of $C[a+n+1][b+n+1],C[a+n+1][b-n-1],C[a-n-1][b+n+1]$, and $C[a-n-1][b-n-1]$ is ..

For example, the grid in the following figure has a cross of size $1$ centered at $(2, 2)$ and another of size $2$ centered at $(3, 7)$.

The grid has some crosses. No # is written on the cells except for those comprising a cross. Additionally, no two squares that comprise two different crosses share a corner. The two grids in the following figure are the examples of grids where two squares that comprise different crosses share a corner; such grids are not given as an input. For example, the left grid is invalid because $(3, 3)$ and $(4, 4)$ share a corner.

Let $N = \min(H, W)$, and $S_n$ be the number of crosses of size $n$. Find $S_1, S_2, \dots, S_N$.

Constraints

• $3 \leq H, W \leq 100$
• $C[i][j]$ is # or ..
• No two different squares that comprise two different crosses share a corner.
• $H$ and $W$ are integers.

Input

The input is given from Standard Input in the following format:

$H$ $W$

$C[1][1]C[1][2]\dots C[1][W]$

$C[2][1]C[2][2]\dots C[2][W]$

$\vdots$

$C[H][1]C[H][2]\dots C[H][W]$

Output

Print $S_1, S_2, \dots$, and $S_N$, separated by spaces.

5 9
#.#.#...#
.#...#.#.
#.#...#..
.....#.#.
....#...#

1 1 0 0 0

As described in the Problem Statement, there are a cross of size $1$ centered at $(2, 2)$ and another of size $2$ centered at $(3, 7)$.

3 3
...
...
...

0 0 0

There may be no cross.

3 16
#.#.....#.#..#.#
.#.......#....#.
#.#.....#.#..#.#

3 0 0

15 20
#.#..#.............#
.#....#....#.#....#.
#.#....#....#....#..
........#..#.#..#...
#.....#..#.....#....
.#...#....#...#..#.#
..#.#......#.#....#.
...#........#....#.#
..#.#......#.#......
.#...#....#...#.....
#.....#..#.....#....
........#.......#...
#.#....#....#.#..#..
.#....#......#....#.
#.#..#......#.#....#

5 0 1 0 0 0 1 0 0 0 0 0 0 0 0