void Update()
{
dynamicScore.text = "Your Current Score : " + MatrixGrid.returnPlayerScore().ToString();
if (TetrisObject.IsGameOver())
{
Application.LoadLevel("End screen");
}
}
private void AddDeadBlock(TetrisObject[,] tetrisObjects)
{
foreach (TetrisObject item in tetrisObjects)
{
for (int i = 0; i < stoppedblocks.GetLength(0); i++)
{
for (int j = 0; j < stoppedblocks.GetLength(1); j++)
{
if (item.Pos == playfield[i, j].Pos && item.alive)
{
stoppedblocks[i, j] = new TetrisObject(item.Pos, item.tex);
}
}
}
}
}
public I(Texture2D color, Vector2 startPos)
{
this.color = color;
//this.startPos = startPos;
iMatrix = new TetrisObject[4, 4];
//Contents of the I, looping through the dubbelarray setting positions and textures
for (int i = 0; i < iMatrix.GetLength(0); i++)
{
for (int j = 0; j < iMatrix.GetLength(1); j++)
{
iMatrix[i, j] = new TetrisObject(Vector2.Zero, color);
iMatrix[i, j].PosX = startPos.X + i * color.Width;
iMatrix[i, j].PosY = startPos.Y + j * color.Height;
}
}
formation = iblockState.one;//Default formation of the I figure
UpdateFormation();
}
public J(Texture2D color, Vector2 startPos)
{
magicFlames = new List <AnimatedObject>();
this.color = color;
this.startPos = startPos;
jMatrix = new TetrisObject[3, 3];
////Contents of the I, looping through the matrix setting positions and textures
for (int i = 0; i < jMatrix.GetLength(0); i++)
{
for (int j = 0; j < jMatrix.GetLength(1); j++)
{
jMatrix[i, j] = new TetrisObject(Vector2.Zero, color);
jMatrix[i, j].PosX = startPos.X + i * color.Width;
jMatrix[i, j].PosY = startPos.Y + j * color.Height;
}
}
Formation = blockState.one;//Default formation of the J figure
UpdateFormation();
}
public I(Texture2D color, Vector2 startPos)
{
magicFlames = new List <AnimatedObject>();
Color = color;
iMatrix = new TetrisObject[4, 4];
//Contents of the I, looping through the matrix setting positions and textures
for (int i = 0; i < iMatrix.GetLength(0); i++)
{
for (int j = 0; j < iMatrix.GetLength(1); j++)
{
iMatrix[i, j] = new TetrisObject(Vector2.Zero, color)
{
PosX = startPos.X + i * color.Width,
PosY = startPos.Y + j * color.Height
};
}
}
Formation = IblockState.one;//Default Formation of the I figure
UpdateFormation();
}
public TetrisObject[,] NextRotatePosition(bool clockwise)
{
TetrisObject[,] newPosition = new TetrisObject[zMatrix.GetLength(0), zMatrix.GetLength(1)];
for (int i = 0; i < newPosition.GetLength(0); i++)
{
for (int j = 0; j < newPosition.GetLength(1); j++)
{
newPosition[i, j] = new TetrisObject(Vector2.Zero, Color);
newPosition[i, j].PosX = zMatrix[0, 0].PosX + i * Color.Width;
newPosition[i, j].PosY = zMatrix[0, 0].PosY + j * Color.Height;
}
}
if (clockwise)
{
switch (Formation)
{
case BlockState.one:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[2, 0].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[2, 1].ChangeState(false);
newPosition[1, 2].ChangeState(false);
break;
case BlockState.two:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[0, 1].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[1, 2].ChangeState(false);
newPosition[2, 2].ChangeState(false);
break;
case BlockState.three:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[1, 0].ChangeState(false);
newPosition[0, 1].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[0, 2].ChangeState(false);
break;
case BlockState.four:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[0, 0].ChangeState(false);
newPosition[1, 0].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[2, 1].ChangeState(false);
break;
}
}
else if (!clockwise)
{
switch (Formation)
{
case BlockState.one:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[1, 0].ChangeState(false);
newPosition[0, 1].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[0, 2].ChangeState(false);
break;
case BlockState.two:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[0, 0].ChangeState(false);
newPosition[1, 0].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[2, 1].ChangeState(false);
break;
case BlockState.three:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[2, 0].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[2, 1].ChangeState(false);
newPosition[1, 2].ChangeState(false);
break;
case BlockState.four:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[0, 1].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[1, 2].ChangeState(false);
newPosition[2, 2].ChangeState(false);
break;
}
}
return(newPosition);
}
public bool AllowRotation(bool clockwise, Vector2 maxValues, Vector2 minValues)
{
TetrisObject[,] newPosition = new TetrisObject[sMatrix.GetLength(0), sMatrix.GetLength(1)];
for (int i = 0; i < newPosition.GetLength(0); i++)
{
for (int j = 0; j < newPosition.GetLength(1); j++)
{
newPosition[i, j] = new TetrisObject(Vector2.Zero, Color);
newPosition[i, j].PosX = sMatrix[0, 0].PosX + i * Color.Width;
newPosition[i, j].PosY = sMatrix[0, 0].PosY + j * Color.Height;
}
}
if (clockwise)
{
switch (Formation)
{
case BlockState.one:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[1, 0].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[2, 1].ChangeState(false);
newPosition[2, 2].ChangeState(false);
break;
case BlockState.two:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[1, 1].ChangeState(false);
newPosition[2, 1].ChangeState(false);
newPosition[0, 2].ChangeState(false);
newPosition[1, 2].ChangeState(false);
break;
case BlockState.three:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[0, 0].ChangeState(false);
newPosition[0, 1].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[1, 2].ChangeState(false);
break;
case BlockState.four:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[1, 0].ChangeState(false);
newPosition[2, 0].ChangeState(false);
newPosition[0, 1].ChangeState(false);
newPosition[1, 1].ChangeState(false);
break;
}
}
else if (!clockwise)
{
switch (Formation)
{
case BlockState.one:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[0, 0].ChangeState(false);
newPosition[0, 1].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[1, 2].ChangeState(false);
break;
case BlockState.two:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[1, 0].ChangeState(false);
newPosition[2, 0].ChangeState(false);
newPosition[0, 1].ChangeState(false);
newPosition[1, 1].ChangeState(false);
break;
case BlockState.three:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[1, 0].ChangeState(false);
newPosition[1, 1].ChangeState(false);
newPosition[2, 1].ChangeState(false);
newPosition[2, 2].ChangeState(false);
break;
case BlockState.four:
foreach (TetrisObject item in newPosition)
{
item.ChangeState(true);
}
newPosition[1, 1].ChangeState(false);
newPosition[2, 1].ChangeState(false);
newPosition[0, 2].ChangeState(false);
newPosition[1, 2].ChangeState(false);
break;
}
}
return(minValues.X <= MinValues(newPosition).X&& maxValues.X >= MaxValues(newPosition).X&& maxValues.Y >= MaxValues(newPosition).Y);
}
