Consider an n × m matrix of chars M, which may include ‘.’, ‘X’, ‘p’ and ‘n’. Define the “negative” of M as the matrix result of replacing each ‘.’ by ‘X’, each ‘X’ by ‘.’, each ‘p’ by ‘n’, and each ‘n’ by ‘p’. For instance, the negative of
XpX .n. .n. XpX
is
We can use M to create some kind of fractals,
by repeatedly replacing each character c of the current matrix by an n × m matrix,
with these rules:
With the example above, after one step we get
XXXXpXXXX XXX.n.XXX ....n.... ...XpX...
and after two steps we get
XXXXXXXXXXXXXpXXXXXXXXXXXXX XXXXXXXXXXXX.n.XXXXXXXXXXXX XXXXXXXXX....n....XXXXXXXXX XXXXXXXXX...XpX...XXXXXXXXX .............n............. ............XpX............ .........XXXXpXXXX......... .........XXX.n.XXX.........
Can you simulate this process k times?
Input
Input consists of several cases. Every case begins with n, m and k, followed by an n × m matrix M as explained above. Assume that n and m are between 1 and 100, and k ≥ 1.
Output
Print k matrices for each case: the result after one step, two steps, etc. Separate these matrices by blank lines. End each case with 10 asteriscs. When printing the results, replace each ‘p’ by ‘X’, and each ‘n’ by ‘.’. With the given cases, no result will have more than 106 chars.
Input
2 3 2 XpX .n. 1 1 1 n 1 2 4 pn 2 3 2 p.p ppp
Output
XXXXXXXXX XXX...XXX ......... ...XXX... XXXXXXXXXXXXXXXXXXXXXXXXXXX XXXXXXXXXXXX...XXXXXXXXXXXX XXXXXXXXX.........XXXXXXXXX XXXXXXXXX...XXX...XXXXXXXXX ........................... ............XXX............ .........XXXXXXXXX......... .........XXX...XXX......... ********** X ********** X..X X..X.XX. X..X.XX..XX.X..X X..X.XX..XX.X..X.XX.X..XX..X.XX. ********** X.X...X.X XXX...XXX X.XX.XX.X XXXXXXXXX X.X...X.X.........X.X...X.X XXX...XXX.........XXX...XXX X.XX.XX.X.........X.XX.XX.X XXXXXXXXX.........XXXXXXXXX X.X...X.XX.X...X.XX.X...X.X XXX...XXXXXX...XXXXXX...XXX X.XX.XX.XX.XX.XX.XX.XX.XX.X XXXXXXXXXXXXXXXXXXXXXXXXXXX **********