For a great in-depth scientific notation on peg solitaire puzzles -- and history, one can view my good friend, George Bell's website here . . . . . with many links to other internet areas which help supplement his wealth of information .

A peg (assuming that this is the marker used) can be moved only by jumping it over a neighboring peg to a vacant space directly on the other side. Following such a move, the peg over which the jump was made is removed from the board. Jumps can be made only along the lattice lines (as shown in the diagram); a peg cannot jump diagonally."
There are two kinds of boards used for peg solitaire.
One has 37 cells (top left diagram).
Another eliminates the corner cells, forming a cross-shaped pattern of cells (top right diagram).
"In the most widely known solitaire puzzle the 33-cell board is used. All cells are filled except the one in the center. The player is required to finish the game with a single peg in the central cell.
The number of jumps made in a game of solitaire equals the number of pegs removed. However, a series of consecutive jumps made at one time with a single piece can be regarded as a single move; hence a player can aim not merely at solving a given puzzle, but also at finding the solution that requires the smallest number of moves.
The basic solitaire puzzle on a 33-cell board -- to begin with a single vacancy in the center and to finish with a single peg in the center -- requires 32 jumps, which can be grouped into 18 moves."
~ thus leading us to the following solution ~


