public void Draw(EntityRenderer renderer, CanvasSpriteBatch sb, CanvasTimingInformation timing)
{
sb.Draw(renderer.Sprites[player.Shape], Matrix3x2.CreateTranslation(-player.Shape.Origin *
SpriteBuilder.SCALE_FACTOR) *
Matrix3x2.CreateRotation(player.Direction) *
Matrix3x2.CreateScale(1f / SpriteBuilder.SCALE_FACTOR) *
Matrix3x2.CreateTranslation(player.Position), player.Color);
sb.Draw(renderer.Sprites[Shape.Turret], Matrix3x2.CreateTranslation(-player.Shape.Origin *
SpriteBuilder.SCALE_FACTOR) *
Matrix3x2.CreateRotation(player.TurretDirection) *
Matrix3x2.CreateScale(1f / SpriteBuilder.SCALE_FACTOR) *
Matrix3x2.CreateTranslation(player.Position), player.Color);
}
public void Draw(CanvasDrawingSession ds, CanvasSpriteBatch SBatch, TextureLoader Textures)
{
lock ( PFSim )
{
var Snapshot = PFSim.Snapshot();
while (Snapshot.MoveNext())
{
Particle P = Snapshot.Current;
float A = Vector2.Transform(new Vector2(0, 1), Matrix3x2.CreateRotation(P.ttl * 0.01f)).X;
Vector4 Tint = new Vector4(
P.Tint.M11 + P.Tint.M21 + P.Tint.M31 + P.Tint.M41 + P.Tint.M51,
P.Tint.M12 + P.Tint.M22 + P.Tint.M32 + P.Tint.M42 + P.Tint.M52,
P.Tint.M13 + P.Tint.M23 + P.Tint.M33 + P.Tint.M43 + P.Tint.M53,
P.Tint.M14 + P.Tint.M24 + P.Tint.M34 + P.Tint.M44 + P.Tint.M54
);
Tint.W *= A;
ScrollWind.Strength *= 0.5f;
SBatch.Draw(
Textures[P.TextureId]
, P.Pos, Tint
, Textures.Center[P.TextureId], 0, P.Scale
, CanvasSpriteFlip.None);
}
DrawWireFrames(ds);
}
}
public void Draw( CanvasDrawingSession ds, CanvasSpriteBatch SBatch, TextureLoader Textures )
{
lock ( PFSim )
{
var Snapshot = PFSim.Snapshot();
while ( Snapshot.MoveNext() )
{
Particle P = Snapshot.Current;
float A = ( P.Trait & PFTrait.IMMORTAL ) == 0 ? P.ttl * 0.033f : 1;
P.Tint.M12 = 4 * ( 1 - A );
P.Tint.M21 = 3 * A;
Vector4 Tint = new Vector4(
P.Tint.M11 + P.Tint.M21 + P.Tint.M31 + P.Tint.M41 + P.Tint.M51,
P.Tint.M12 + P.Tint.M22 + P.Tint.M32 + P.Tint.M42 + P.Tint.M52,
P.Tint.M13 + P.Tint.M23 + P.Tint.M33 + P.Tint.M43 + P.Tint.M53,
P.Tint.M14 + P.Tint.M24 + P.Tint.M34 + P.Tint.M44 + P.Tint.M54
) * 2;
Tint.W *= A * 0.125f;
SBatch.Draw( Textures[ P.TextureId ], P.Pos, Tint, Textures.Center[ P.TextureId ], 0, P.Scale * A, CanvasSpriteFlip.None );
}
DrawWireFrames( ds );
}
}
public void Draw(CanvasDrawingSession ds, CanvasSpriteBatch SBatch, TextureLoader Textures)
{
lock ( PFSim )
{
var Snapshot = PFSim.Snapshot();
while (Snapshot.MoveNext())
{
Particle P = Snapshot.Current;
float A = (P.Trait & PFTrait.IMMORTAL) == 0 ? P.ttl * 0.033f : 1;
P.Tint.M12 = 4 * (1 - A);
P.Tint.M21 = 3 * A;
Vector4 Tint = new Vector4(
P.Tint.M11 + P.Tint.M21 + P.Tint.M31 + P.Tint.M41 + P.Tint.M51,
P.Tint.M12 + P.Tint.M22 + P.Tint.M32 + P.Tint.M42 + P.Tint.M52,
P.Tint.M13 + P.Tint.M23 + P.Tint.M33 + P.Tint.M43 + P.Tint.M53,
P.Tint.M14 + P.Tint.M24 + P.Tint.M34 + P.Tint.M44 + P.Tint.M54
) * 2;
Tint.W *= A * 0.125f;
SBatch.Draw(Textures[P.TextureId], P.Pos, Tint, Textures.Center[P.TextureId], 0, P.Scale * A, CanvasSpriteFlip.None);
}
DrawWireFrames(ds);
}
}
protected override void Draw(CanvasDrawingSession drawingSession
#if WINDOWS_UWP
, CanvasSpriteBatch spriteBatch
#endif
)
{
// 逆向遍历队列，可以让新粒子绘制在旧粒子下方，这样当很多粒子在同一个位置生成时，效果较好
for (int i = ActiveParticles.Count - 1; i >= 0; i--)
{
Particle particle = ActiveParticles[i];
// NormalizedLifeTime 是一个0到1之间的值，用来表示粒子在生命周期中的进度，这个值接近0或接近1时，
// 粒子将会渐隐/渐显，使用它来计算粒子的透明度和缩放
float normalizedLifetime = particle.TimeSinceStart / 4;
if (normalizedLifetime > 1)
{
normalizedLifetime = 1;
}
// We want particles to fade in and fade out, so we'll calculate alpha to be
// (normalizedLifetime) * (1 - normalizedLifetime). This way, when normalizedLifetime
// is 0 or 1, alpha is 0. The maximum value is at normalizedLifetime = .5, and is:
//
// (normalizedLifetime) * (1-normalizedLifetime)
// (.5) * (1-.5)
// .25
//
// Since we want the maximum alpha to be 1, not .25, we'll scale the entire equation by 4.
float alpha = (float)EasingHelper.QuinticEase(Windows.UI.Xaml.Media.Animation.EasingMode.EaseOut, normalizedLifetime);
var x = particle.ScaleX;
var y = particle.ScaleY;
// Make particles grow as they age.
// They'll start at 75% of their size, and increase to 100% once they're finished.
if (isImmersive)
{
alpha *= 0.8f;
x *= 1.2f;
y *= 1.2f;
}
#if WINDOWS_UWP
if (spriteBatch != null)
{
spriteBatch.Draw(smokeSurfaces[particle.Key], particle.Position, new Vector4(1, 1, 1, alpha), bitmapCenter,
particle.Rotation, new Vector2(x, y), CanvasSpriteFlip.None);
}
else
#endif
{
// Compute a transform matrix for this particle.
var transform = Matrix3x2.CreateRotation(particle.Rotation, bitmapCenter) *
Matrix3x2.CreateScale(x, y, bitmapCenter) *
Matrix3x2.CreateTranslation(particle.Position - bitmapCenter);
// Draw the particle.
drawingSession.DrawImage(smokeSurfaces[particle.Key], 0, 0, bitmapBounds, alpha, CanvasImageInterpolation.Linear, new Matrix4x4(transform));
}
}
}
void Draw(CanvasDrawingSession drawingSession
#if WINDOWS_UWP
, CanvasSpriteBatch spriteBatch
#endif
)
{
// Go through the particles in reverse order, so new ones are drawn underneath
// older ones. This improves visual appearance of effects like smoke plume
// where many particles are created at the same position over a period of time.
for (int i = activeParticles.Count - 1; i >= 0; i--)
{
Particle particle = activeParticles[i];
// Normalized lifetime is a value from 0 to 1 and represents how far a particle
// is through its life. 0 means it just started, .5 is half way through, and
// 1.0 means it's just about to be finished. This value will be used to calculate
// alpha and scale, to avoid having particles suddenly appear or disappear.
float normalizedLifetime = particle.TimeSinceStart / particle.Lifetime;
// We want particles to fade in and fade out, so we'll calculate alpha to be
// (normalizedLifetime) * (1 - normalizedLifetime). This way, when normalizedLifetime
// is 0 or 1, alpha is 0. The maximum value is at normalizedLifetime = .5, and is:
//
// (normalizedLifetime) * (1-normalizedLifetime)
// (.5) * (1-.5)
// .25
//
// Since we want the maximum alpha to be 1, not .25, we'll scale the entire equation by 4.
float alpha = 4 * normalizedLifetime * (1 - normalizedLifetime);
// Make particles grow as they age.
// They'll start at 75% of their size, and increase to 100% once they're finished.
float scale = particle.Scale * (.75f + .25f * normalizedLifetime);
#if WINDOWS_UWP
if (spriteBatch != null)
{
spriteBatch.Draw(bitmap, particle.Position, new Vector4(1, 1, 1, alpha), bitmapCenter, particle.Rotation, new Vector2(scale), CanvasSpriteFlip.None);
}
else
#endif
{
// Compute a transform matrix for this particle.
var transform = Matrix3x2.CreateRotation(particle.Rotation, bitmapCenter) *
Matrix3x2.CreateScale(scale, bitmapCenter) *
Matrix3x2.CreateTranslation(particle.Position - bitmapCenter);
// Draw the particle.
drawingSession.DrawImage(bitmap, 0, 0, bitmapBounds, alpha, CanvasImageInterpolation.Linear, new Matrix4x4(transform));
}
}
}
public void Draw(ITexture texture, Matrix3x2 transform, Vector4 tint)
{
CanvasBlend previousBlend = this.canvasDrawingSession.Blend;
using (CanvasSpriteBatch spriteBatch = this.canvasDrawingSession.CreateSpriteBatch())
{
this.canvasDrawingSession.Blend = CanvasBlend.Add;
CanvasBitmap bitmap = ((Texture)texture).Bitmap;
spriteBatch.Draw(bitmap, transform, tint, CanvasSpriteFlip.None);
this.canvasDrawingSession.Blend = previousBlend;
}
}
protected virtual void Draw(CanvasDrawingSession drawingSession
#if WINDOWS_UWP
, CanvasSpriteBatch spriteBatch
#endif
)
{
// 逆向遍历队列，可以让新粒子绘制在旧粒子下方，这样当很多粒子在同一个位置生成时，效果较好
for (int i = activeParticles.Count - 1; i >= 0; i--)
{
Particle particle = activeParticles[i];
// NormalizedLifeTime 是一个0到1之间的值，用来表示粒子在生命周期中的进度，这个值接近0或接近1时，
// 粒子将会渐隐/渐显，使用它来计算粒子的透明度和缩放
//float normalizedLifetime = particle.TimeSinceStart / particle.Lifetime;
// We want particles to fade in and fade out, so we'll calculate alpha to be
// (normalizedLifetime) * (1 - normalizedLifetime). This way, when normalizedLifetime
// is 0 or 1, alpha is 0. The maximum value is at normalizedLifetime = .5, and is:
//
// (normalizedLifetime) * (1-normalizedLifetime)
// (.5) * (1-.5)
// .25
//
// Since we want the maximum alpha to be 1, not .25, we'll scale the entire equation by 4.
//float alpha = 4 * normalizedLifetime * (1 - normalizedLifetime);
// Make particles grow as they age.
// They'll start at 75% of their size, and increase to 100% once they're finished.
//float scale = particle.Scale * (.75f + .25f * normalizedLifetime);
#if WINDOWS_UWP
if (spriteBatch != null)
{
spriteBatch.Draw(bitmap, particle.Position, new Vector4(1, 1, 1, 1 /*alpha*/), bitmapCenter,
particle.Rotation - 1.5708f, new Vector2(particle.ScaleX, particle.ScaleY /*scale*/), CanvasSpriteFlip.None);
}
else
#endif
{
// Compute a transform matrix for this particle.
var transform = Matrix3x2.CreateRotation(particle.Rotation - 1.5708f, bitmapCenter) *
Matrix3x2.CreateScale(/*scale*/ particle.ScaleX, particle.ScaleY, bitmapCenter) *
Matrix3x2.CreateTranslation(particle.Position - bitmapCenter);
// Draw the particle.
drawingSession.DrawImage(bitmap, 0, 0, bitmapBounds, 1 /*alpha*/, CanvasImageInterpolation.Linear, new Matrix4x4(transform));
}
}
}
protected void Draw(CanvasDrawingSession drawingSession
#if WINDOWS_UWP
, CanvasSpriteBatch spriteBatch
#endif
)
{
#if WINDOWS_UWP
if (spriteBatch != null)
{
spriteBatch.Draw(sunSurfaces[(uint)(nowFrame * slowFactor) % surfaceCount], position, new Vector4(1, 1, 1, opcity), center, rotation, new Vector2(1, 1), CanvasSpriteFlip.None);
}
else
#endif
{
// Compute a transform matrix for this particle.
var transform = Matrix3x2.CreateRotation(rotation, center) *
Matrix3x2.CreateScale(1, 1, center) *
Matrix3x2.CreateTranslation(position - center);
// Draw the particle.
drawingSession.DrawImage(sunSurfaces[(uint)(nowFrame * slowFactor) % surfaceCount], 0, 0, bound, opcity, CanvasImageInterpolation.Linear, new Matrix4x4(transform));
}
}
public void Draw( CanvasDrawingSession ds, CanvasSpriteBatch SBatch, TextureLoader Textures )
{
lock ( PFSim )
{
var Snapshot = PFSim.Snapshot();
while ( Snapshot.MoveNext() )
{
Particle P = Snapshot.Current;
float A = -Vector2.Transform( new Vector2( 0, 1 ), Matrix3x2.CreateRotation( 3.1415f * P.ttl * 0.002f ) ).X;
Vector4 Tint = new Vector4(
P.Tint.M11 + P.Tint.M21 + P.Tint.M31 + P.Tint.M41 + P.Tint.M51,
P.Tint.M12 + P.Tint.M22 + P.Tint.M32 + P.Tint.M42 + P.Tint.M52,
P.Tint.M13 + P.Tint.M23 + P.Tint.M33 + P.Tint.M43 + P.Tint.M53,
P.Tint.M14 + P.Tint.M24 + P.Tint.M34 + P.Tint.M44 + P.Tint.M54
);
Tint.W *= A;
ScrollWind.Strength *= 0.5f;
SBatch.Draw(
Textures[ P.TextureId ]
, P.Pos, Tint
, Textures.Center[ P.TextureId ], 0, P.Scale
, CanvasSpriteFlip.None );
}
DrawWireFrames( ds );
}
}
protected virtual void Draw(CanvasDrawingSession drawingSession
#if WINDOWS_UWP
, CanvasSpriteBatch spriteBatch
#endif
)
{
// 逆向遍历队列，可以让新粒子绘制在旧粒子下方，这样当很多粒子在同一个位置生成时，效果较好
for (int i = activeParticles.Count - 1; i >= 0; i--)
{
Particle particle = activeParticles[i];
// NormalizedLifeTime 是一个0到1之间的值，用来表示粒子在生命周期中的进度，这个值接近0或接近1时，
// 粒子将会渐隐/渐显，使用它来计算粒子的透明度和缩放
//float normalizedLifetime = particle.TimeSinceStart / particle.Lifetime;
// We want particles to fade in and fade out, so we'll calculate alpha to be
// (normalizedLifetime) * (1 - normalizedLifetime). This way, when normalizedLifetime
// is 0 or 1, alpha is 0. The maximum value is at normalizedLifetime = .5, and is:
//
// (normalizedLifetime) * (1-normalizedLifetime)
// (.5) * (1-.5)
// .25
//
// Since we want the maximum alpha to be 1, not .25, we'll scale the entire equation by 4.
//float alpha = 4 * normalizedLifetime * (1 - normalizedLifetime);
// Make particles grow as they age.
// They'll start at 75% of their size, and increase to 100% once they're finished.
//float scale = particle.Scale * (.75f + .25f * normalizedLifetime);
#if WINDOWS_UWP
if (spriteBatch != null)
{
spriteBatch.Draw(bitmap, particle.Position, new Vector4(1, 1, 1, 1/*alpha*/), bitmapCenter,
particle.Rotation - 1.5708f, new Vector2(particle.ScaleX, particle.ScaleY/*scale*/), CanvasSpriteFlip.None);
}
else
#endif
{
// Compute a transform matrix for this particle.
var transform = Matrix3x2.CreateRotation(particle.Rotation - 1.5708f, bitmapCenter) *
Matrix3x2.CreateScale(/*scale*/particle.ScaleX, particle.ScaleY, bitmapCenter) *
Matrix3x2.CreateTranslation(particle.Position - bitmapCenter);
// Draw the particle.
drawingSession.DrawImage(bitmap, 0, 0, bitmapBounds, 1/*alpha*/, CanvasImageInterpolation.Linear, new Matrix4x4(transform));
}
}
}
protected override void Draw(CanvasDrawingSession drawingSession
#if WINDOWS_UWP
, CanvasSpriteBatch spriteBatch
#endif
)
{
// 逆向遍历队列，可以让新粒子绘制在旧粒子下方，这样当很多粒子在同一个位置生成时，效果较好
for (int i = ActiveParticles.Count - 1; i >= 0; i--)
{
Particle particle = ActiveParticles[i];
// NormalizedLifeTime 是一个0到1之间的值，用来表示粒子在生命周期中的进度，这个值接近0或接近1时，
// 粒子将会渐隐/渐显，使用它来计算粒子的透明度和缩放
float normalizedLifetime = particle.TimeSinceStart / 4;
if (normalizedLifetime > 1)
{
normalizedLifetime = 1;
}
// We want particles to fade in and fade out, so we'll calculate alpha to be
// (normalizedLifetime) * (1 - normalizedLifetime). This way, when normalizedLifetime
// is 0 or 1, alpha is 0. The maximum value is at normalizedLifetime = .5, and is:
//
// (normalizedLifetime) * (1-normalizedLifetime)
// (.5) * (1-.5)
// .25
//
// Since we want the maximum alpha to be 1, not .25, we'll scale the entire equation by 4.
float alpha = (float)EasingHelper.QuinticEase(Windows.UI.Xaml.Media.Animation.EasingMode.EaseOut, normalizedLifetime);
var x = particle.ScaleX;
var y = particle.ScaleY;
// Make particles grow as they age.
// They'll start at 75% of their size, and increase to 100% once they're finished.
if (isImmersive)
{
alpha *= 0.8f;
x *= 1.2f;
y *= 1.2f;
}
#if WINDOWS_UWP
if (spriteBatch != null)
{
spriteBatch.Draw(smokeSurfaces[particle.Key], particle.Position, new Vector4(1, 1, 1, alpha), bitmapCenter,
particle.Rotation, new Vector2(x, y), CanvasSpriteFlip.None);
}
else
#endif
{
// Compute a transform matrix for this particle.
var transform = Matrix3x2.CreateRotation(particle.Rotation, bitmapCenter) *
Matrix3x2.CreateScale(x, y, bitmapCenter) *
Matrix3x2.CreateTranslation(particle.Position - bitmapCenter);
// Draw the particle.
drawingSession.DrawImage(smokeSurfaces[particle.Key], 0, 0, bitmapBounds, alpha, CanvasImageInterpolation.Linear, new Matrix4x4(transform));
}
}
}
void Draw(CanvasDrawingSession drawingSession
#if WINDOWS_UWP
, CanvasSpriteBatch spriteBatch
#endif
)
{
// Go through the particles in reverse order, so new ones are drawn underneath
// older ones. This improves visual appearance of effects like smoke plume
// where many particles are created at the same position over a period of time.
for (int i = activeParticles.Count - 1; i >= 0; i--)
{
Particle particle = activeParticles[i];
// Normalized lifetime is a value from 0 to 1 and represents how far a particle
// is through its life. 0 means it just started, .5 is half way through, and
// 1.0 means it's just about to be finished. This value will be used to calculate
// alpha and scale, to avoid having particles suddenly appear or disappear.
float normalizedLifetime = particle.TimeSinceStart / particle.Lifetime;
// We want particles to fade in and fade out, so we'll calculate alpha to be
// (normalizedLifetime) * (1 - normalizedLifetime). This way, when normalizedLifetime
// is 0 or 1, alpha is 0. The maximum value is at normalizedLifetime = .5, and is:
//
// (normalizedLifetime) * (1-normalizedLifetime)
// (.5) * (1-.5)
// .25
//
// Since we want the maximum alpha to be 1, not .25, we'll scale the entire equation by 4.
float alpha = 4 * normalizedLifetime * (1 - normalizedLifetime);
// Make particles grow as they age.
// They'll start at 75% of their size, and increase to 100% once they're finished.
float scale = particle.Scale * (.75f + .25f * normalizedLifetime);
#if WINDOWS_UWP
if (spriteBatch != null)
{
spriteBatch.Draw(bitmap, particle.Position, new Vector4(1, 1, 1, alpha), bitmapCenter, particle.Rotation, new Vector2(scale), CanvasSpriteFlip.None);
}
else
#endif
{
// Compute a transform matrix for this particle.
var transform = Matrix3x2.CreateRotation(particle.Rotation, bitmapCenter) *
Matrix3x2.CreateScale(scale, bitmapCenter) *
Matrix3x2.CreateTranslation(particle.Position - bitmapCenter);
// Draw the particle.
drawingSession.DrawImage(bitmap, 0, 0, bitmapBounds, alpha, CanvasImageInterpolation.Linear, new Matrix4x4(transform));
}
}
}
public override void Draw(CanvasBitmap canvasBitmap, Rect destRect)
{
_spriteBatch.Draw(canvasBitmap, destRect);
}
protected void Draw(CanvasDrawingSession drawingSession
#if WINDOWS_UWP
, CanvasSpriteBatch spriteBatch
#endif
)
{
#if WINDOWS_UWP
if (spriteBatch != null)
{
spriteBatch.Draw(sunSurfaces[(uint)(nowFrame * slowFactor) % surfaceCount], position, new Vector4(1, 1, 1, opcity), center, rotation, new Vector2(1, 1), CanvasSpriteFlip.None);
}
else
#endif
{
// Compute a transform matrix for this particle.
var transform = Matrix3x2.CreateRotation(rotation, center) *
Matrix3x2.CreateScale(1, 1, center) *
Matrix3x2.CreateTranslation(position - center);
// Draw the particle.
drawingSession.DrawImage(sunSurfaces[(uint)(nowFrame * slowFactor) % surfaceCount], 0, 0, bound, opcity, CanvasImageInterpolation.Linear, new Matrix4x4(transform));
}
}
