A secret team of programmers is plotting to disrupt the programming language landscape and bring punched cards back by introducing a new language called Punched Card Python that lets people code in Python using punched cards! Like good disrupters, they are going to launch a viral campaign to promote their new language before even having the design for a prototype. For the campaign, they want to draw punched cards of different sizes in ASCII art.

The ASCII art of a punched card they want to draw is similar to an ~R \times C~ matrix without the top-left cell. That means, it has ~(R \cdot C)-1~ cells in total. Each cell is drawn in ASCII art as a period (.) surrounded by dashes (-) above and below, pipes (|) to the left and right, and plus signs (+) for each corner. Adjacent cells share the common characters in the border. Periods (.) are used to align the cells in the top row.

For example, the following is a punched card with ~R = 3~ rows and ~C = 4~ columns:

..+-+-+-+
..|.|.|.|
+-+-+-+-+
|.|.|.|.|
+-+-+-+-+
|.|.|.|.|
+-+-+-+-+

There are more examples with other sizes in the samples below. Given the integers ~R~ and ~C~ describing the size of a punched card, print the ASCII art drawing of it as described above.

Input Specification

The first line of the input gives the number of test cases, ~T~. ~T~ lines follow, each describing a different test case with two integers ~R~ and ~C~: the number of rows and columns of the punched card that must be drawn.

Output Specification

For each test case, output one line containing Case #x:, where ~x~ is the test case number (starting from ~1~). Then, output ~(2 \cdot R)+1~ additional lines with the ASCII art drawing of a punched card with ~R~ rows and ~C~ columns.

Limits

~1 \le T \le 81~.

~2 \le R \le 10~.

~2 \le C \le 10~.

Sample Input

3
3 4
2 2
2 3

Sample Output

Case #1:
..+-+-+-+
..|.|.|.|
+-+-+-+-+
|.|.|.|.|
+-+-+-+-+
|.|.|.|.|
+-+-+-+-+
Case #2:
..+-+
..|.|
+-+-+
|.|.|
+-+-+
Case #3:
..+-+-+
..|.|.|
+-+-+-+
|.|.|.|
+-+-+-+

Explanation for Sample

Sample Case #1 is the one described in the problem statement. Sample Cases #2 and #3 are additional examples. Notice that the output for each case contains exactly ~R \cdot C+3~ periods.