//works the same as actionsForMax
private static List <Move> actionsForMin(Game state, Player max, Player min, double alpha, double beta, int depthCurrent, int depthFinal)
{
List <Move> moves = new List <Move>();
//looks through all the positions on the board
for (int i = 0; i < 10; i++)
{
for (int j = 0; j < 10; j++)
{
Position searchPos = new Position();
searchPos.row = i;
searchPos.col = j;
//if this position holds a piece that is min's...
try
{
if (state.initialGrid.grid[i, j]._piece.piecePlayer == min)
{ //TODO: == is not defined for the class Player
int returncode;
List <Position> posMoves = state.getMoves(searchPos, out returncode); //let's see if it has some moves
if (returncode == 1)
{ //if it's min's piece and it can move...
for (int k = 0; k < posMoves.Count; k++)
{
int z = 0;
Move move = new Move(searchPos, posMoves[k], z); //we don't know the value of these moves yet but we need them, so null value
moves.Add(move); //add all those moves to the total list
}
}
}
}
catch (System.NullReferenceException) { }
}
}
List <Move> actions = new List <Move>();
//now we're going to minmax all those new potential states that we'll be in
for (int i = 0; i < moves.Count; i++)
{
Game newStateNode = state;
newStateNode.movePiece(moves[i].start, moves[i].end);
double alphaNew = alpha;
double betaNew = beta;
depthCurrent++;
Move move = new Move(moves[i].start, moves[i].end, maxValue(newStateNode, max, min, alphaNew, betaNew, depthCurrent, depthFinal));
actions.Add(move);
//revert all the changes
newStateNode.movePiece(moves[i].end, moves[i].start);
depthCurrent--;
}
return(actions);
}
//this method returns a list of all the moves the max player can take given a particular game state
//the value of those moves involves the actions that the min player game take when given the new situation
//caused by max's actions, creating the recursive tree. It works by first finding all the valid pieces max
//can move, then finding all the places max can move those pieces to, and making a list of all the those
//begining-end moves. After attaining that information, that move is "simulated" in the newStateNode, and
//that new state is passed into the minValue method, furthering the recursion to find the actual value of
//that potential game state. After the value of that state is determined, the move is undone so that the
//original game object is left the same as it was before the search
private List <Move> actionsForMax(Game state, Player max, Player min, int alpha, int beta, int depthCurrent, int DepthFinal)
{
List <> moves = new List <Move>();
//looks through all the positions on the board
for (int i = 0; i < 10; i++)
{
for (int j = 0; j < 10; j++)
{
Position searchPos = new Position();
searchPos.row = i;
searchPos.col = j;
//if this position holds a piece that is max's...
if (state.initialGrid.GridSpace[i, j]._Piece._Player == max)//TODO: == is not defined for Player class
{
int returncode;
List <Position> posMoves = state.getMoves(searchPos, returncode); //let's see if it has some moves
if (returncode == 1) //if it's max's piece and it can move...
{
for (int k = 0; k < posMoves.Count; k++)
{
Move move = new Move(searchPos, posMoves[k], null); //we don't know the value of these moves yet but we need them, so null value
moves.Add(move); //add all those moves to the total list
}
}
}
}
}
//now we're going to minmax all those new potential states that we'll be in
for (int i = 0; i < moves.Count; i++)
{
List <Move> actions = new List <Move>();
Game newStateNode = state;
newStateNode.movePiece(moves[i].start, moves[i].end);
int alphaNew = alpha;
int betaNew = beta;
depthCurrent++;
Move move = new Move(moves[i].start, moves[i].end, minValue(newStateNode, max, min, alphaNew, betaNew, depthCurrent, depthFinal));
actions.Add(move);
//revert all the changes
newStateNode.movePiece(moves[i].end, moves[i].start)
depthCurrent--;
}
return(actions);
}
static void Main(string[] args)
{
Player p1 = new Player("David", SpaceType.Player1, PlayerColor.Red);
Player p2 = new Player("Paul", SpaceType.Player2, PlayerColor.Blue);
Game plop = new Game(p1, p2);
Position pos1 = new Position();
pos1.row = 0;
pos1.col = 0;
Position pos2 = new Position();
pos2.row = 6;
pos2.col = 4;
//plop.setPieceOnGrid(plop.player2Pieces[0], pos1);
//plop.setPieceOnGrid(plop.player1Pieces[0], pos2);
//plop.initPlayerPieces(p1, p2);
// set up a complete board
//int numPieces = plop.player1Pieces.Count();
//plop.setPieceOnGrid(plop.player2Pieces[3], pos1);
int pieceIndex = 0;
for (int i = 0; i < 10; i++)
{
for (int j = 0; j < 4; j++)
{
Position posB = new Position(); // player 2
posB.row = j;
posB.col = i;
plop.setPieceOnGrid(plop.player2Pieces[pieceIndex], posB);
// Player 1
Position posA = new Position();
posA.row = 9 - j;
posA.col = 9 - i;
plop.setPieceOnGrid(plop.player1Pieces[pieceIndex], posA);
pieceIndex++; // go to next piece
}
}
plop.start();
//plop.initialGrid.displayGrid();
// check the player's piece lists
foreach (var p in plop.player1Pieces)
{
p.displayPiece();
}
Console.WriteLine("Player 2");
foreach (var p in plop.player2Pieces)
{
p.displayPiece();
}
plop.initialGrid.displayGrid();
/* Test the getMoves() function */
Position flag2Pos = new Position();
flag2Pos.col = 0;
flag2Pos.row = 3;
int rc; // return code
List <Position> flagMoves = plop.getMoves(flag2Pos, out rc);
Console.WriteLine(rc);
foreach (var p in flagMoves)
{
Console.WriteLine("row: {0}", p.row);
Console.WriteLine("col: {0}", p.col);
Console.WriteLine();
}
Position marsh2Pos = new Position();
marsh2Pos.col = 1;
marsh2Pos.row = 3;
List <Position> marshMoves = plop.getMoves(marsh2Pos, out rc);
Console.WriteLine("Marshall");
Console.WriteLine(rc);
foreach (var p in marshMoves)
{
Console.WriteLine("row: {0}", p.row);
Console.WriteLine("col: {0}", p.col);
Console.WriteLine();
}
//Console.Write(plop.initialGrid.mainGrid[0,6]._piece.displayPiece());
/* Test a WIN */
/*
* int column = 0;
* Position start1 = new Position();
* start1.col = column;
* start1.row = 6;
* //Position next1 = new Position();
* //next1.col = column;
* //next1.row = start1
* for (int i = 0; i < 3; i++) {
* // move player 1
* Position next = new Position();
* next.row = 5-i;
* next.col = column;
* switch (plop.movePiece(start1, next))
* {
* case 1: Console.WriteLine("Piece MOVED !");
* break;
* case 10: Console.WriteLine("WIN !!!");
* break;
* case 20: Console.WriteLine("TIE !");
* break;
* case 30: Console.WriteLine("LOST !!!");
* break;
* case 50: Console.WriteLine("You found the flag !");
* break;
* default: Console.WriteLine("Move not allowed !");
* break;
* }
* plop.initialGrid.displayGrid();
* start1.row = next.row; // update
* }
*/
// test movement
/*
* Position firstPos = new Position();
* firstPos.row = 3;
* firstPos.col = 1;
* Position nextPos = new Position();
* nextPos.row = 4;
* nextPos.col = 1;
* switch (plop.movePiece(firstPos, nextPos))
* {
* case 1: Console.WriteLine("Piece MOVED !");
* break;
* case 10: Console.WriteLine("WIN !!!");
* break;
* case 20: Console.WriteLine("TIE !");
* break;
* case 30: Console.WriteLine("LOST !!!");
* break;
* case 50: Console.WriteLine("You found the flag !");
* break;
* default: Console.WriteLine("Move not allowed !");
* break;
* }
* plop.initialGrid.displayGrid();
*
* // another move
* firstPos.row = nextPos.row;
* firstPos.col = nextPos.col;
* nextPos.row = 5;
* switch (plop.movePiece(firstPos, nextPos))
* {
* case 1: Console.WriteLine("Piece MOVED !");
* break;
* case 10: Console.WriteLine("WIN !!!");
* break;
* case 20: Console.WriteLine("TIE !");
* break;
* case 30: Console.WriteLine("LOST !!!");
* break;
* case 50: Console.WriteLine("You found the flag !");
* break;
* default: Console.WriteLine("Move not allowed !");
* break;
* }
* plop.initialGrid.displayGrid();
*
* for (int i = 1; i <8;i++ )
* {
* Position nextPos = new Position();
* nextPos.row = pos1.row+1;
* nextPos.col = pos1.col;
* switch (plop.movePiece(pos1, nextPos))
* {
* case 1: Console.WriteLine("Piece MOVED !");
* break;
* case 10: Console.WriteLine("WIN !!!");
* break;
* case 20: Console.WriteLine("TIE !");
* break;
* case 30: Console.WriteLine("LOST !!!");
* break;
* case 50: Console.WriteLine("You found the flag !");
* break;
* default: Console.WriteLine("Move not allowed !");
* break;
* }
* pos1.row++;
* plop.initialGrid.displayGrid();
* }
*/
//Console.ReadLine();
}
static void Main(string[] args)
{
Player p1 = new Player("P1", SpaceType.Player1, PlayerColor.Red);
Player p2 = new Player("P2", SpaceType.Player2, PlayerColor.Blue);
Game plop = new Game(p1, p2);
Position pos1 = new Position();
pos1.row = 0;
pos1.col = 0;
Position pos2 = new Position();
pos2.row = 6;
pos2.col = 4;
int pieceIndex = 0;
for (int i = 0; i < 10; i++)
{
for (int j = 0; j < 4; j++)
{
Position posB = new Position(); // player 2
posB.row = j;
posB.col = i;
plop.setPieceOnGrid(plop.player2Pieces[pieceIndex], posB);
// Player 1
Position posA = new Position();
posA.row = 9 - j;
posA.col = 9 - i;
plop.setPieceOnGrid(plop.player1Pieces[pieceIndex], posA);
pieceIndex++; // go to next piece
}
}
plop.start(); // start the game
// check the player's piece lists
foreach (var p in plop.player1Pieces)
{
p.displayPiece();
}
Console.WriteLine("Player 2");
foreach (var p in plop.player2Pieces)
{
p.displayPiece();
}
// display the initial grid
plop.initialGrid.displayGrid();
// Test random movement
int rc; // return code, needed for getMoves()
Random rnd = new Random(); // random number generator
int numMoves = 5; // how many moves do you want to test???
Position pos = new Position(); // initial position
// this position will be where player 2s leftmost miner is, next to their flag
// note that all movement is based on position, whatever piece is at that position will be moved.
pos.row = 3;
pos.col = 1;
Position nextPos = new Position();
int moveIndex; // this helps choose a random move from the list of possible moves at a given state
for (int i = 0; i < numMoves; i++)
{
List <Position> moves = plop.getMoves(pos, out rc);
Console.WriteLine("Possible moves at {0}", i);
foreach (var p in moves)
{
Console.WriteLine("row: {0}", p.row);
Console.WriteLine("col: {0}", p.col);
Console.WriteLine();
}
moveIndex = rnd.Next(moves.Count); // random number no bigger than size of list
Position next = nextPos = moves[moveIndex]; // update position
// movePiece() moves whatever piece is at pos to next.
// it returns a numeric code that represents what happened at the move.
switch (plop.movePiece(pos, next))
{
case 1: Console.WriteLine("Piece MOVED !");
break;
case 10: Console.WriteLine("WIN !!!");
break;
case 20: Console.WriteLine("TIE !");
break;
case 30: Console.WriteLine("LOST !!!");
break;
case 50: Console.WriteLine("You found the flag !");
break;
default: Console.WriteLine("Move not allowed !");
break;
}
plop.initialGrid.displayGrid(); // show the grid
pos = next; // update the piece's current position
}
}
