//On FormLoad generate randomlly the mines onto the playBoard
public void Generate(sbyte mines, sbyte rows, sbyte cols)
{
sbyte[,] matrix = new sbyte[rows, cols];
Random generateBomb = new Random();
//Iterate through the Play Board until all mines are positioned(when mines = 0)
while (mines > 0)
{
for (int row = 1; row < matrix.GetLength(0) - 1; row++)
{
for (int col = 1; col < matrix.GetLength(1) - 1; col++)
{
//If the current cell has a mine skip it
if (matrix[row, col] != 1 && generateBomb.Next(0, 6) == 1)
{
matrix[row, col] = 1;
mines--;
if (mines == 0)
{
break;
}
}
}
if (mines == 0)
{
break;
}
}
}
playBoardMatrix = matrix;
}
static void Main(string[] args)
{
byte N = byte.Parse(Console.ReadLine());
sbyte[,] myArray = new sbyte[N, N];
for (int j = 0; j < myArray.GetLength(0); j++)
{
for (int i = myArray.GetLength(1) - 1; i > j; i--)
{
myArray[j, i] = 1;
}
for (int i = 0; i < j; i++)
{
myArray[j, i] = -1;
}
}
for (int i = 0; i < myArray.GetLength(0); i++)
{
for (int j = 0; j < myArray.GetLength(1); j++)
{
Console.Write($"\t{myArray[i, j]}");
}
Console.WriteLine();
}
}
static void Main(string[] args)
{
if (!byte.TryParse(Console.ReadLine(), out byte N))
{
Console.WriteLine("Incorrect input");
return;
}
sbyte[,] myArray = new sbyte[N, N];
for (int j = 0; j < myArray.GetLength(0); j++)
{
for (int i = myArray.GetLength(1) - 1; i > j; i--)
{
myArray[j, i] = 1;
}
for (int i = 0; i < j; i++)
{
myArray[j, i] = -1;
}
}
for (int i = 0; i < myArray.GetLength(0); i++)
{
for (int j = 0; j < myArray.GetLength(1); j++)
{
Console.Write($"\t{myArray[i, j]}");
}
Console.WriteLine();
}
}
public void StartAnalysis()
{
try
{
if (game != null && !overwriteGameData)
{
gOBtnStart.SetActive(false);
gOBtnPause.SetActive(true);
createGamePanel.SetActive(false);
mainTable.GetComponent <CanvasGroup>().blocksRaycasts = false;
frequences.alpha = 1;
graphicalMethod.alpha = 1;
btnGameSelect.interactable = false;
executive = game.Executive();
StartCoroutine(executive);
}
else if (overwriteGameData)
{
sbyte[,] matrix = new sbyte[GameTheory.Game.gameData.rowStrategies.Count, GameTheory.Game.gameData.columnStrategies.Count];
byte id = 0;
for (byte i = 0; i < matrix.GetLength(0); i++)
{
for (byte j = 0; j < matrix.GetLength(1); j++)
{
string value = TableManager.ins.mainTable.GetChild(id).GetComponent <InputField>().text;
if (string.IsNullOrEmpty(value))
{
throw new FormatException("Pusta wartość w tabeli wypłat");
}
else
{
matrix[i, j] = sbyte.Parse(value);
id++;
}
}
}
GameData gD = new GameData(GameTheory.Game.gameData, matrix);
game = new GameTheory.Game(gD);
overwriteGameData = false;
StartAnalysis();
}
else
{
LogsManager.ins.AddLog("Nie można rozpocząc pustej gry", EColors.Red);
}
}
catch (Exception e)
{
LogsManager.ins.AddLog(e.Message, EColors.Red);
}
}
//compression
public Bitmap convertIntraFrame(Bitmap bit)
{
intraFrame = new Bitmap(bit.Width, bit.Height);
width = intraFrame.Width;
height = intraFrame.Height;
Y = new byte[width, height];
Cb = new byte[width, height];
Cr = new byte[width, height];
RGBtoYCbCr(bit, Y, Cb, Cr);
subSampling(ref Cb, ref Cr);
YDCT = new double[width, height];
CbDCT = new double[Cb.GetLength(0), Cb.GetLength(1)];
CrDCT = new double[Cr.GetLength(0), Cr.GetLength(1)];
YQuant = new sbyte[width, height];
CbQuant = new sbyte[Cb.GetLength(0), Cb.GetLength(1)];
CrQuant = new sbyte[Cr.GetLength(0), Cr.GetLength(1)];
YEncode = new List <byte>();
CbEncode = new List <byte>();
CrEncode = new List <byte>();
YDCT = DCT(Y);
CbDCT = DCT(Cb);
CrDCT = DCT(Cr);
YQuant = quantization(YDCT);
CbQuant = quantization(CbDCT);
CrQuant = quantization(CrDCT);
YEncode = encoding(YQuant);
CbEncode = encoding(CbQuant);
CrEncode = encoding(CrQuant);
YQuant = decoding(YEncode, YQuant.GetLength(0), YQuant.GetLength(1));
CbQuant = decoding(CbEncode, CbQuant.GetLength(0), CbQuant.GetLength(1));
CrQuant = decoding(CrEncode, CrQuant.GetLength(0), CrQuant.GetLength(1));
YDCT = invQuantization(YQuant);
CbDCT = invQuantization(CbQuant);
CrDCT = invQuantization(CrQuant);
Y = inverseDCT(YDCT, width, height);
Cb = inverseDCT(CbDCT, Cb.GetLength(0), Cb.GetLength(1));
Cr = inverseDCT(CrDCT, Cr.GetLength(0), Cr.GetLength(1));
unsubSampling(ref Cb, ref Cr);
YCbCrtoRGB(intraFrame, Y, Cb, Cr);
return(intraFrame);
}
/// <summary>
/// Funckja zwraca maciarz wypłat z pliku
/// </summary>
/// <param name="fileName">Nazwa pliku</param>
/// <returns>Macierz wypłat</returns>
private sbyte[,] GetMatrixFromFile(string fileName)
{
string path = string.Format(@"{0}\Games", Application.dataPath);
sbyte[,] loadedMatrix;
using (StreamReader sR = new StreamReader(string.Format(@"{0}\{1}", path, fileName)))
{
string line = sR.ReadLine(); // Pierwsza linia określna liczbę kolumn i wierszy macierzy.
string[] sub = line.Split(' ');
loadedMatrix = new sbyte[byte.Parse(sub[0]), byte.Parse(sub[1])];
byte row = 0;
while ((line = sR.ReadLine()) != null)
{
sub = line.Split(' ');
for (int column = 0; column < loadedMatrix.GetLength(1); column++)
{
loadedMatrix[row, column] = sbyte.Parse(sub[column]);
}
row++;
}
if (sR != null)
{
sR.Close();
}
}
return(loadedMatrix);
}
/// <summary>
///
/// </summary>
/// <param name="k">Should be greater than zero</param>
/// <returns></returns>
public static sbyte[,] GetMatrix(int k)
{
var prevMatrix = new sbyte[, ] {
{ 1 }
};
var order = 0;
while (order < k)
{
++order;
var prevLength = prevMatrix.GetLength(0);
var nextMatrix = new sbyte[2 * prevLength, 2 * prevLength];
for (int i = 0; i < prevLength; i++)
{
for (int j = 0; j < prevLength; j++)
{
nextMatrix[2 * i, j] = nextMatrix[2 * i + 1, j] = nextMatrix[2 * i, prevLength + j] = prevMatrix[i, j];
nextMatrix[2 * i + 1, prevLength + j] = (sbyte)-prevMatrix[i, j];
}
}
prevMatrix = nextMatrix;
if (order >= k)
{
break;
}
}
return(prevMatrix);
}
private VHGT CreateHeightMapSubrecord(int offsetX, int offsetY, float[,] importedHeightMap)
{
var heightDeltas = new sbyte[HEIGHT_CELL_SIZE, HEIGHT_CELL_SIZE];
float grad = 0;
for (int y = heightDeltas.GetLength(0) - 1; y >= 0; y--)
{
for (int x = heightDeltas.GetLength(1) - 1; x >= 0; x--)
{
var y2 = offsetY + y;
var x2 = offsetX + x;
if (x == 0)
{
if (y == 0)
{
heightDeltas[y, x] = 0;
return(new VHGT
{
HeightDelta = heightDeltas,
HeightOffset = importedHeightMap[y2, x2],
});
}
grad = (importedHeightMap[y2, x2] - importedHeightMap[y2 - 1, x2]);
grad = grad > 127 ? 127 : grad;
grad = grad < -128 ? -128 : grad;
heightDeltas[y, x] = (sbyte)grad;
continue;
}
grad = (importedHeightMap[y2, x2] - importedHeightMap[y2, x2 - 1]);
grad = grad > 127 ? 127 : grad;
grad = grad < -128 ? -128 : grad;
heightDeltas[y, x] = (sbyte)grad;
}
}
return(null);
}
private sbyte[,] decoding(List <byte> list, int width, int height)
{
sbyte[,] tmp = new sbyte[width, height];
int currentIndex = 0;
for (int i = 0; i < tmp.GetLength(1); i += BLOCK_HEIGHT)
{
for (int j = 0; j < tmp.GetLength(0); j += BLOCK_WIDTH)
{
for (int k = 0; k < patternList.GetLength(0);)
{
if (list.ElementAt(currentIndex) == 0)
{
currentIndex++;
byte count = list.ElementAt(currentIndex);
currentIndex++;
sbyte value = (sbyte)list.ElementAt(currentIndex);
for (int m = 0; m < count; m++)
{
tmp[patternList[k, 0] + j, i + patternList[k, 1]] = value;
k++;
}
}
else
{
sbyte value = (sbyte)list.ElementAt(currentIndex);
tmp[patternList[k, 0] + j, i + patternList[k, 1]] = value;
k++;
}
currentIndex++;
}
}
}
return(tmp);
}
protected Directions FindNextDirection(Vector2 startPosition, Directions direction, Modes mode)
{
var targetedTile = new Vector2();
var nextPosition = new Vector2();
var directions = new sbyte[4, 2] {
{ 0, -1 }, { -1, 0 }, { 0, 1 }, { 1, 0 }
};
var allowedDirections = new List <Directions> {
};
var newDirection = new Directions();
double lowestEuclidean = -1;
// Set the new targeted tile according to the current mode.
switch (mode)
{
case (Modes.Chase):
targetedTile = targetTile;
break;
case (Modes.Scatter):
targetedTile = scatterTile;
break;
case (Modes.Frightened):
break;
case (Modes.Respawning):
targetedTile = respawnTile;
break;
}
// Set the new square to move to.
switch (currentDirection)
{
case (Directions.Up):
if (isFirstMove)
{
nextPosition = new Vector2(startPosition.x, startPosition.y + 0.5f);
}
else
{
nextPosition = new Vector2(startPosition.x, startPosition.y + 1f);
}
break;
case (Directions.Left):
if (isFirstMove)
{
nextPosition = new Vector2(startPosition.x - 0.5f, startPosition.y);
}
else
{
nextPosition = new Vector2(startPosition.x - 1f, startPosition.y);
}
break;
case (Directions.Down):
if (isFirstMove)
{
nextPosition = new Vector2(startPosition.x, startPosition.y - 0.5f);
}
else
{
nextPosition = new Vector2(startPosition.x, startPosition.y - 1f);
}
break;
case (Directions.Right):
if (isFirstMove)
{
nextPosition = new Vector2(startPosition.x + 0.5f, startPosition.y);
}
else
{
nextPosition = new Vector2(startPosition.x + 1f, startPosition.y);
}
break;
}
// Special check for warp zones
if ((tile.x <= 0 && currentDirection == Directions.Left) || (tile.x >= gameController.pacTiles.GetLength(0) - 2 && currentDirection == Directions.Right) || (tile.y <= 0 && currentDirection == Directions.Up) || (tile.y >= gameController.pacTiles.GetLength(1) - 2 && currentDirection == Directions.Down))
{
isWarping = true;
return(currentDirection);
}
// If the ghost is out of the map, continue on the same direction
if (tile.x < 0 || tile.x >= gameController.pacTiles.GetLength(0) || tile.y < 0 || tile.y >= gameController.pacTiles.GetLength(1))
{
return(currentDirection);
}
// Check if the endPosition Tile is an intersection.
if (gameController.GetPacTile((int)nextPosition.x, (int)Math.Abs(nextPosition.y)).allowedDirections.Count > 0)
{
// If the ghost is currently Frightened,
// remove the inverted direction and randomize.
if (mode == Modes.Frightened)
{
var tempAllowedDirections = new List <Directions> {
};
Directions invertedDirection = Directions.Up;
Directions frightDirection = Directions.Up;
tempAllowedDirections = gameController.GetPacTile((int)nextPosition.x, (int)Math.Abs(nextPosition.y)).allowedDirections;
switch (direction)
{
case (Directions.Up):
invertedDirection = Directions.Down;
break;
case (Directions.Left):
invertedDirection = Directions.Right;
break;
case (Directions.Down):
invertedDirection = Directions.Up;
break;
case (Directions.Right):
invertedDirection = Directions.Left;
break;
}
frightDirection = invertedDirection;
while (frightDirection == invertedDirection)
{
frightDirection = tempAllowedDirections[UnityEngine.Random.Range(0, tempAllowedDirections.Count)];
}
return(frightDirection);
}
allowedDirections = gameController.GetPacTile((int)nextPosition.x, (int)Math.Abs(nextPosition.y)).allowedDirections;
// Check the lowest Euclidean on all allowed Directions
// We start from the end so that the priority becomes Up, Left, Down, Right
for (int i = allowedDirections.Count - 1; i >= 0; i--)
{
var tempPosition = new Vector2();
switch (allowedDirections[i])
{
case (Directions.Up):
// If the current direction is Up, it can't go Down.
if (currentDirection != Directions.Down)
{
tempPosition = new Vector2(nextPosition.x, nextPosition.y + 1);
if (Euclidean(tempPosition, targetedTile) <= lowestEuclidean || lowestEuclidean == -1)
{
lowestEuclidean = Euclidean(tempPosition, targetedTile);
newDirection = Directions.Up;
}
}
break;
case (Directions.Left):
// If the current direction is Right, it can't go Left.
if (currentDirection != Directions.Right)
{
tempPosition = new Vector2(nextPosition.x - 1, nextPosition.y);
if (Euclidean(tempPosition, targetedTile) <= lowestEuclidean || lowestEuclidean == -1)
{
lowestEuclidean = Euclidean(tempPosition, targetedTile);
newDirection = Directions.Left;
}
}
break;
case (Directions.Down):
// If the current direction is Up, it can't go Down.
if (currentDirection != Directions.Up)
{
tempPosition = new Vector2(nextPosition.x, nextPosition.y - 1);
if (Euclidean(tempPosition, targetedTile) <= lowestEuclidean || lowestEuclidean == -1)
{
lowestEuclidean = Euclidean(tempPosition, targetedTile);
newDirection = Directions.Down;
}
}
break;
case (Directions.Right):
// If the current direction is Left, it can't go Right.
if (currentDirection != Directions.Left)
{
tempPosition = new Vector2(nextPosition.x + 1, nextPosition.y);
if (Euclidean(tempPosition, targetedTile) <= lowestEuclidean || lowestEuclidean == -1)
{
lowestEuclidean = Euclidean(tempPosition, targetedTile);
newDirection = Directions.Right;
}
}
break;
}
/*if (DebugPath)
* {
* print(lowestEuclidean + " | " + tempPosition + " | " + allowedDirections[i] + " | " + Euclidean(tempPosition, targetedTile));
* print("Direction Chosen: " + nextDirection + " INDEX: " + i + " COUNT: " + (allowedDirections.Count - 1));
* }*/
}
}
else
{
// If not, follow the only possible path (Without going backwards).
for (int i = 0; i < directions.GetLength(0); i++)
{
var tempPosition = new Vector2(nextPosition.x + directions[i, 0], nextPosition.y + directions[i, 1]);
PacTile tempTile = gameController.GetPacTile((int)tempPosition.x, (int)(-1 * tempPosition.y));
switch (VectorToDirection(nextPosition, tempPosition))
{
case (Directions.Up):
if (tempTile.cost != 0 && currentDirection != Directions.Down)
{
newDirection = Directions.Up;
}
break;
case (Directions.Left):
if (tempTile.cost != 0 && currentDirection != Directions.Right)
{
newDirection = Directions.Left;
}
break;
case (Directions.Down):
if (tempTile.cost != 0 && tempTile.cost != 2 && currentDirection != Directions.Up)
{
newDirection = Directions.Down;
}
break;
case (Directions.Right):
if (tempTile.cost != 0 && currentDirection != Directions.Left)
{
newDirection = Directions.Right;
}
break;
}
}
}
return(newDirection);
}
public Bitmap SobelFilter(Bitmap sourceImage, int greyScale)
{
int b, g, r, r_x, g_x, b_x, r_y, g_y, b_y, grayscale, location, location2;
sbyte[,] weights_x = new sbyte[, ] {
{ 1, 0, -1 }, { 2, 0, -2 }, { 1, 0, -1 }
};
sbyte[,] weights_y = new sbyte[, ] {
{ 1, 2, 1 }, { 0, 0, 0 }, { -1, -2, -1 }
};
Bitmap resultImage = new Bitmap(sourceImage.Width, sourceImage.Height);
BitmapData srcData = sourceImage.LockBits(new Rectangle(0, 0, sourceImage.Width, sourceImage.Height), ImageLockMode.ReadOnly, PixelFormat.Format24bppRgb);
BitmapData resultData = resultImage.LockBits(new Rectangle(0, 0, sourceImage.Width, sourceImage.Height), ImageLockMode.WriteOnly, PixelFormat.Format24bppRgb);
byte[] pixelBuffer = new byte[srcData.Stride * sourceImage.Height];
byte[] resultBuffer = new byte[srcData.Stride * sourceImage.Height];
IntPtr pointer = srcData.Scan0;
IntPtr pointer2 = resultData.Scan0;
Marshal.Copy(pointer, pixelBuffer, 0, pixelBuffer.Length);
for (int y = 0; y < sourceImage.Height; y++)
{
for (int x = 0; x < sourceImage.Width * 3; x += 3)
{
//reset the gradients in x-direcion values
r_x = g_x = b_x = 0;
//reset the gradients in y-direction values
r_y = g_y = b_y = 0;
//to get the location of any pixel >> location = x + y * Stride
location = x + y * srcData.Stride;
for (int yy = -(int)Math.Floor(weights_y.GetLength(0) / 2.0d), yyy = 0; yy <= (int)Math.Floor(weights_y.GetLength(0) / 2.0d); yy++, yyy++)
{
//to prevent crossing the bounds of the array
if (y + yy >= 0 && y + yy < sourceImage.Height)
{
for (int xx = -(int)Math.Floor(weights_x.GetLength(1) / 2.0d) * 3, xxx = 0; xx <= (int)Math.Floor(weights_x.GetLength(1) / 2.0d) * 3; xx += 3, xxx++)
{
//to prevent crossing the bounds of the array
if (x + xx >= 0 && x + xx <= sourceImage.Width * 3 - 3)
{
//to get the location of any pixel >> location = x + y * Stride
location2 = x + xx + (yy + y) * srcData.Stride;
sbyte weight_x = weights_x[yyy, xxx];
sbyte weight_y = weights_y[yyy, xxx];
//applying the same weight to all channels
b_x += pixelBuffer[location2] * weight_x;
g_x += pixelBuffer[location2 + 1] * weight_x;
r_x += pixelBuffer[location2 + 2] * weight_x;
b_y += pixelBuffer[location2] * weight_y;
g_y += pixelBuffer[location2 + 1] * weight_y;
r_y += pixelBuffer[location2 + 2] * weight_y;
}
}
}
}
//getting the magnitude for each channel
b = (int)Math.Sqrt(Math.Pow(b_x, 2) + Math.Pow(b_y, 2));
g = (int)Math.Sqrt(Math.Pow(g_x, 2) + Math.Pow(g_y, 2));
r = (int)Math.Sqrt(Math.Pow(r_x, 2) + Math.Pow(r_y, 2));
if (b > 255)
{
b = 255;
}
if (g > 255)
{
g = 255;
}
if (r > 255)
{
r = 255;
}
//getting grayscale value
grayscale = (b + g + r) / 3;
//thresholding to clean up the background
if (grayscale < greyScale)
{
grayscale = 0;
}
resultBuffer[location] = (byte)grayscale;
resultBuffer[location + 1] = (byte)grayscale;
resultBuffer[location + 2] = (byte)grayscale;
//thresholding to clean up the background - add colors to page if we need
//if (b < 100) b = 0;
//if (g < 100) g = 0;
//if (r < 100) r = 0;
}
}
Marshal.Copy(resultBuffer, 0, pointer2, pixelBuffer.Length);
sourceImage.UnlockBits(srcData);
resultImage.UnlockBits(resultData);
return(RemoveWhiteBorderFromImage(resultImage));
}
public Bitmap convertInterFrame(Bitmap bit)
{
interFrame = new Bitmap(bit.Width, bit.Height);
width = intraFrame.Width;
height = intraFrame.Height;
YInter = new byte[width, height];
CbInter = new byte[width, height];
CrInter = new byte[width, height];
RGBtoYCbCr(bit, YInter, CbInter, CrInter);
subSampling(ref CbInter, ref CrInter);
subSampling(ref Cb, ref Cr);
YDif = calcDifference(Y, YInter, out YMoVec);
CbDif = calcDifference(Cb, CbInter, out CbMoVec);
CrDif = calcDifference(Cr, CrInter, out CrMoVec);
YDCTInter = new double[width, height];
CbDCTInter = new double[CbInter.GetLength(0), CbInter.GetLength(1)];
CrDCTInter = new double[CrInter.GetLength(0), CrInter.GetLength(1)];
YQuantInter = new sbyte[width, height];
CbQuantInter = new sbyte[CbInter.GetLength(0), CbInter.GetLength(1)];
CrQuantInter = new sbyte[CrInter.GetLength(0), CrInter.GetLength(1)];
YEncodeInter = new List <byte>();
CbEncodeInter = new List <byte>();
CrEncodeInter = new List <byte>();
YDCTInter = DCT(YDif);
CbDCTInter = DCT(CbDif);
CrDCTInter = DCT(CrDif);
YQuantInter = quantization(YDCTInter);
CbQuantInter = quantization(CbDCTInter);
CrQuantInter = quantization(CrDCTInter);
YEncodeInter = encoding(YQuantInter);
CbEncodeInter = encoding(CbQuantInter);
CrEncodeInter = encoding(CrQuantInter);
YQuantInter = decoding(YEncodeInter, YQuantInter.GetLength(0), YQuantInter.GetLength(1));
CbQuantInter = decoding(CbEncodeInter, CbQuantInter.GetLength(0), CbQuantInter.GetLength(1));
CrQuantInter = decoding(CrEncodeInter, CrQuantInter.GetLength(0), CrQuantInter.GetLength(1));
YDCTInter = invQuantization(YQuantInter);
CbDCTInter = invQuantization(CbQuantInter);
CrDCTInter = invQuantization(CrQuantInter);
YDif = inverseDCTInter(YDCTInter, width, height);
CbDif = inverseDCTInter(CbDCTInter, CbInter.GetLength(0), CbInter.GetLength(1));
CrDif = inverseDCTInter(CrDCTInter, CrInter.GetLength(0), CrInter.GetLength(1));
YInter = unCalcDifference(Y, YMoVec, YDif);
CbInter = unCalcDifference(Cb, CbMoVec, CbDif);
CrInter = unCalcDifference(Cr, CrMoVec, CrDif);
unsubSampling(ref CbInter, ref CrInter);
YCbCrtoRGB(interFrame, YInter, CbInter, CrInter);
return(interFrame);
}
public void CreaTablero()
{
Tablero = new sbyte[Tablero.GetLength(0), Tablero.GetLength(1)];
Console.CursorVisible = true;
Console.CursorSize = 50;
sbyte inicioX = (sbyte)(DesplazamientoX + MARGENBORDE);
sbyte finX = (sbyte)(Tablero.GetLength(1) + DesplazamientoX);
sbyte inicioY = (sbyte)(DesplazamientoY + MARGENBORDE);
sbyte finY = (sbyte)(Tablero.GetLength(0) + DesplazamientoY);
sbyte posActualX = inicioX;
sbyte posActualY = inicioY;
ConsoleKeyInfo tecla;
DibujaMarco();
Console.SetCursorPosition(inicioX, inicioY);
do
{
tecla = Console.ReadKey(true);
switch (tecla.Key)
{
case ConsoleKey.UpArrow:
if (posActualY != inicioY)
{
posActualY--;
}
break;
case ConsoleKey.DownArrow:
if (posActualY != finY)
{
posActualY++;
}
break;
case ConsoleKey.LeftArrow:
if (posActualX != inicioX)
{
posActualX--;
}
break;
case ConsoleKey.RightArrow:
if (posActualX != finX)
{
posActualX++;
}
break;
case ConsoleKey.Enter:
Console.Write("x={0},y={1}", posActualX - DesplazamientoX - 1, posActualY - DesplazamientoY - 1);
Console.ReadKey();
Actualiza(posActualX, posActualY, true);
break;
case ConsoleKey.D1:
case ConsoleKey.NumPad1:
Tablero[posActualY - DesplazamientoY - MARGENBORDE, posActualX - DesplazamientoX - MARGENBORDE] = 1;
Console.Write('*');
break;
case ConsoleKey.D2:
case ConsoleKey.NumPad2:
CopiarFigura(spin_hor, (sbyte)(posActualY - DesplazamientoY - MARGENBORDE), (sbyte)(posActualX - DesplazamientoX - MARGENBORDE));
Actualiza(posActualX, posActualY, false);
break;
case ConsoleKey.D3:
case ConsoleKey.NumPad3:
CopiarFigura(spin_ver, (sbyte)(posActualY - DesplazamientoY - MARGENBORDE), (sbyte)(posActualX - DesplazamientoX - MARGENBORDE));
Actualiza(posActualX, posActualY, false);
break;
case ConsoleKey.D4:
case ConsoleKey.NumPad4:
CopiarFigura(barco, (sbyte)(posActualY - DesplazamientoY - MARGENBORDE), (sbyte)(posActualX - DesplazamientoX - MARGENBORDE));
Actualiza(posActualX, posActualY, false);
break;
case ConsoleKey.D5:
case ConsoleKey.NumPad5:
CopiarFigura(sapo, (sbyte)(posActualY - DesplazamientoY - MARGENBORDE), (sbyte)(posActualX - DesplazamientoX - MARGENBORDE));
Actualiza(posActualX, posActualY, false);
break;
case ConsoleKey.D6:
case ConsoleKey.NumPad6:
CopiarFigura(planeador, (sbyte)(posActualY - DesplazamientoY - MARGENBORDE), (sbyte)(posActualX - DesplazamientoX - MARGENBORDE));
Actualiza(posActualX, posActualY, false);
break;
case ConsoleKey.D7:
case ConsoleKey.NumPad7:
CopiarFigura(nave, (sbyte)(posActualY - DesplazamientoY - MARGENBORDE), (sbyte)(posActualX - DesplazamientoX - MARGENBORDE));
Actualiza(posActualX, posActualY, false);
break;
case ConsoleKey.D8:
case ConsoleKey.NumPad8:
CopiarFigura(diehard, (sbyte)(posActualY - DesplazamientoY - MARGENBORDE), (sbyte)(posActualX - DesplazamientoX - MARGENBORDE));
Actualiza(posActualX, posActualY, false);
break;
case ConsoleKey.D9:
case ConsoleKey.NumPad9:
CopiarFigura(acorn, (sbyte)(posActualY - DesplazamientoY - MARGENBORDE), (sbyte)(posActualX - DesplazamientoX - MARGENBORDE));
Actualiza(posActualX, posActualY, false);
break;
case ConsoleKey.D0:
case ConsoleKey.NumPad0:
Tablero[posActualY - DesplazamientoY - MARGENBORDE, posActualX - DesplazamientoX - MARGENBORDE] = 0;
Console.Write(' ');
Actualiza(posActualX, posActualY, false);
break;
}
Console.SetCursorPosition(posActualX, posActualY);
} while (tecla.Key != ConsoleKey.Escape);
do
{
SiguienteIteracion();
Thread.Sleep(200);
} while (!Console.KeyAvailable);
}