public void WhenUserEntersValidMove_ThenMoveIsSetCoordinates_a1_is_00()
{
HumanPlayer userMove = new HumanPlayer(null);
userMove.Input = "a2";
Assert.AreEqual(1, userMove.MoveCoordinatesX); // 2-->1
Assert.AreEqual(0, userMove.MoveCoordinatesY); // a-->0
}
public void DoMoveTest_WhenExitIsEntered_ThenConstEXITIsReturned()
{
var reader = new InputReaderFake();
reader.SetUserInput("exit");
var target = new HumanPlayer(reader);
int retValue = target.DoMove(Piece.X, null);
Assert.AreEqual(-100, retValue);
}
public TicTacToeGame(TicTacToeObjects ticTacToeObjects)
{
_inputReader = ticTacToeObjects.InputReader;
_boardState = ticTacToeObjects.BoardState;
_humanPlayer = ticTacToeObjects.HumanPlayer;
_computerPlayer = ticTacToeObjects.ComputerPlayer;
_pieceManager = ticTacToeObjects.PieceManager;
}
public void DoMoveTest_WhenAnIllegalMoveIsEntered_ThenUserMustEnterALegalMove()
{
var reader = new InputReaderFake();
reader.SetUserInput("a2");
reader.SetUserInput("a2");
reader.SetUserInput("a1");
var target = new HumanPlayer(reader);
var boardState = new BoardState(null);
var board = new Piece[3, 3];
board[0, 0] = Piece.Empty; board[1, 0] = Piece.X; board[2, 0] = Piece.Empty;
board[0, 1] = Piece.Empty; board[1, 1] = Piece.Empty; board[2, 1] = Piece.Empty;
board[0, 2] = Piece.Empty; board[1, 2] = Piece.Empty; board[2, 2] = Piece.Empty;
boardState.Board = board;
int retValue = target.DoMove(Piece.O, boardState);
Assert.AreEqual(0, retValue);
Assert.AreEqual(Piece.O, boardState.GetPiece(0, 0));
}
//Starts a new game of tic tac toe.
//Creates/resets the gameboard and keeps track of scores.
public bool nextRound()
{
bool donePlaying = false;
//Setup Board
if (gameBoard == null)
gameBoard = new GameBoard();
else
gameBoard.resetBoard();
//Only Human players atm
for (int i = 0; i < numPlayers; i++)
{
playerList[i] = new HumanPlayer(gameBoard);
}
do
{
playGame();
Console.WriteLine("Play Another? (y/n)");
if (Console.ReadLine().Equals("y"))
{
donePlaying = false;
gameBoard.resetBoard();
}
else
{
donePlaying = true;
}
} while (!donePlaying);
return donePlaying;
}
} //end GameBoardTests
public bool humanPlayerTests()
{
bool result = true;
bool doneTesting = false;
GameBoard gameBoard = new GameBoard();
Player player1 = new HumanPlayer(gameBoard);
while (!doneTesting)
{
player1.takeTurn();
gameBoard.printBoard();
Console.WriteLine("Continue testing Human input? (y/n)");
if (Console.ReadLine().Equals("n"))
{
doneTesting = true;
}
}
return result;
}
void SetupGame() {
Player p1 = new HumanPlayer("Joe", Board.Pieces.X);
// Create a computer player
// You can create varying degrees of difficulty by creating computer
// players that build bigger game trees
// uncomment desired player and comment all other player 2s
// create a computer player with the default game tree search depth
Player p2 = new ComputerPlayer("HAL", Board.Pieces.O);
// Create a computer player that only looks ahead 1 move
// i.e only considers their immediate move and not any subsequent moves
// by their opponent.
// this is a very poor player
// Player p2 = new ComputerPlayer(Board.Pieces.X, f, 1);
// Creates an advanced computer player that looks ahead 5 moves
// Player p2 = new ComputerPlayer("Advanced HAL", Board.Pieces.X, 5);
AddPlayer(p1);
AddPlayer(p2);
}
public void WhenUserEntersValidMove_ThenMoveIsSetValid()
{
HumanPlayer userMove = new HumanPlayer(null);
userMove.Input = "a2";
Assert.AreEqual(true, userMove.IsInputValid());
}
public void WhenUserEntersInvalidMove_ThenMoveIsSetToInvalid()
{
HumanPlayer userMove = new HumanPlayer(null);
userMove.Input = "h3";
Assert.AreEqual(false, userMove.IsInputValid());
}
public void WhenUserEntersExit_ThenGameIsFinished()
{
HumanPlayer userMove = new HumanPlayer(null);
userMove.Input = "Exit";
Assert.AreEqual(true, userMove.IsFinished());
}