/// <summary>
/// Calculates a screen space scissor rectangle using the given Camera. If the Camera is null than the scissor will
/// be calculated only with the batchTransform
/// </summary>
/// <returns>The scissors.</returns>
/// <param name="camera">Camera.</param>
/// <param name="batchTransform">Batch transform.</param>
/// <param name="scissor">Area.</param>
public static Rectangle calculateScissors( Camera camera, Matrix batchTransform, Rectangle scissor )
{
// convert the top-left point to screen space
var tmp = new Vector2( scissor.X, scissor.Y );
tmp = Vector2.Transform( tmp, batchTransform );
if( camera != null )
tmp = camera.worldToScreenPoint( tmp );
var newScissor = new Rectangle();
newScissor.X = (int)tmp.X;
newScissor.Y = (int)tmp.Y;
// convert the bottom-right point to screen space
tmp.X = scissor.X + scissor.Width;
tmp.Y = scissor.Y + scissor.Height;
tmp = Vector2.Transform( tmp, batchTransform );
if( camera != null )
tmp = camera.worldToScreenPoint( tmp );
newScissor.Width = (int)tmp.X - newScissor.X;
newScissor.Height = (int)tmp.Y - newScissor.Y;
return newScissor;
}
public override void render( Graphics graphics, Camera camera )
{
// we need to send the top of of the plane to the Effect
var screenSpaceTop = entity.scene.camera.worldToScreenPoint( entity.transform.position );
( material as WaterReflectionMaterial ).effect.screenSpaceVerticalOffset = screenSpaceTop.Y / entity.scene.sceneRenderTargetSize.Y;
graphics.batcher.draw( _texture, bounds, new Rectangle( 0, 0, 1, 1 ), color );
}
protected override void debugRender( Scene scene, Camera cam )
{
for( var i = 0; i < scene.renderableComponents.Count; i++ )
{
var renderable = scene.renderableComponents[i];
if( !excludedRenderLayers.contains( renderable.renderLayer ) && renderable.enabled && renderable.isVisibleFromCamera( cam ) )
renderable.debugRender( Graphics.instance );
}
}
public override void render(Nez.Graphics graphics, Nez.Camera camera)
{
if (Core.debugRenderEnabled)
{
graphics.batcher.drawCircle(camera.screenToWorldPoint(_midSize), 10f, Color.Beige);
graphics.batcher.drawCircle(_targetPos, 10f, Color.Orchid);
graphics.batcher.drawCircle(_targetPos, 10f, Color.Green);
}
}
public override void onAddedToEntity()
{
if( camera == null )
camera = entity.scene.camera;
follow( _targetEntity, _cameraStyle );
// listen for changes in screen size so we can keep our deadzone properly positioned
Core.emitter.addObserver( CoreEvents.GraphicsDeviceReset, onGraphicsDeviceReset );
}
public override void onAddedToEntity()
{
if (camera == null)
{
camera = entity.scene.camera;
}
follow(_targetEntity);
// listen for changes in screen size so we can keep our deadzone properly positioned
Core.emitter.addObserver(CoreEvents.GraphicsDeviceReset, onGraphicsDeviceReset);
}
protected override void debugRender( Scene scene, Camera cam )
{
for( var i = 0; i < renderLayers.Length; i++ )
{
var renderables = scene.renderableComponents.componentsWithRenderLayer( renderLayers[i] );
for( var j = 0; j < renderables.Count; j++ )
{
var renderable = renderables[j];
if( renderable.enabled && renderable.isVisibleFromCamera( cam ) )
renderable.debugRender( Graphics.instance );
}
}
}
public override void render(Nez.Graphics graphics, Nez.Camera camera)
{
// TODO figure out the height of the target dynamically.
var barPos = entity.position + _targetOffset;
var health = entity.getComponent <Health>();
if (health != null)
{
var healthWidth = (float)health.Hp / health.MaxHp * BarWidth;
graphics.batcher.drawRect(barPos, BarWidth, BarHeight, Color.Red);
graphics.batcher.drawRect(barPos, healthWidth, BarHeight, Color.Chartreuse);
}
}
public override void render(Graphics graphics, Nez.Camera camera)
{
if (Vertices == null)
{
return;
}
basicEffect.Projection = camera.projectionMatrix;
basicEffect.View = camera.transformMatrix;
basicEffect.World = entity.transform.localToWorldTransform * Matrix.CreateTranslation(Offset.X, Offset.Y, 0);
basicEffect.CurrentTechnique.Passes[0].Apply();
Nez.Core.graphicsDevice.DrawUserIndexedPrimitives(PrimitiveType.TriangleList,
Vertices, 0, Vertices.Length,
indices, 0, primitiveCount);
}
public override void render( Graphics graphics, Camera camera )
{
if( _destRectsDirty )
{
subtexture.generateNinePatchRects( _finalRenderRect, _destRects, subtexture.top, subtexture.bottom, subtexture.right, subtexture.left );
_destRectsDirty = false;
}
var pos = ( entity.transform.position + _localOffset ).ToPoint();
for( var i = 0; i < 9; i++ )
{
// shift our destination rect over to our position
var dest = _destRects[i];
dest.X += pos.X;
dest.Y += pos.Y;
graphics.batcher.draw( subtexture, dest, subtexture.ninePatchRects[i], color );
}
}
public override void render( Graphics graphics, Camera camera )
{
// flush the 2D batch so we render appropriately depth-wise
graphics.batcher.flushBatch();
Core.graphicsDevice.BlendState = BlendState.Opaque;
Core.graphicsDevice.DepthStencilState = DepthStencilState.Default;
for( var i = 0; i < _model.Meshes.Count; i++ )
{
var mesh = _model.Meshes[i];
for( var j = 0; j < mesh.Effects.Count; j++ )
{
var effect = mesh.Effects[j] as BasicEffect;
effect.World = worldMatrix;
effect.View = camera.viewMatrix3D;
effect.Projection = camera.projectionMatrix3D;
}
mesh.Draw();
}
}
public override void render( Graphics graphics, Camera camera )
{
// we override render and use position instead of entityPosition. this keeps the text in place even if the entity moves
graphics.batcher.drawString( _font, _text, localOffset, color, entity.transform.rotation, origin, entity.transform.scale, spriteEffects, layerDepth );
}
public override bool isVisibleFromCamera(Camera camera)
{
calculateVertices();
return(base.isVisibleFromCamera(camera));
}
public override void render( Graphics graphics, Camera camera )
{
// TODO: make culling smarter and only render the lines that are actually on the screen rather than all or nothing
var width = _points.GetLength( 0 );
var height = _points.GetLength( 1 );
for( var y = 1; y < height; y++ )
{
for( var x = 1; x < width; x++ )
{
var left = new Vector2();
var up = new Vector2();
var p = projectToVector2( _points[x, y].position );
if( x > 1 )
{
float thickness;
Color gridColor;
if( y % gridMajorPeriodY == 1 )
{
thickness = gridMajorThickness;
gridColor = gridMajorColor;
}
else
{
thickness = gridMinorThickness;
gridColor = gridMinorColor;
}
// use Catmull-Rom interpolation to help smooth bends in the grid
left = projectToVector2( _points[x - 1, y].position );
var clampedX = Math.Min( x + 1, width - 1 );
var mid = Vector2.CatmullRom( projectToVector2( _points[x - 2, y].position ), left, p, projectToVector2( _points[clampedX, y].position ), 0.5f );
// If the grid is very straight here, draw a single straight line. Otherwise, draw lines to our new interpolated midpoint
if( Vector2.DistanceSquared( mid, ( left + p ) / 2 ) > 1 )
{
drawLine( graphics.batcher, left, mid, gridColor, thickness );
drawLine( graphics.batcher, mid, p, gridColor, thickness );
}
else
{
drawLine( graphics.batcher, left, p, gridColor, thickness );
}
}
if( y > 1 )
{
float thickness;
Color gridColor;
if( x % gridMajorPeriodX == 1 )
{
thickness = gridMajorThickness;
gridColor = gridMajorColor;
}
else
{
thickness = gridMinorThickness;
gridColor = gridMinorColor;
}
up = projectToVector2( _points[x, y - 1].position );
var clampedY = Math.Min( y + 1, height - 1 );
var mid = Vector2.CatmullRom( projectToVector2( _points[x, y - 2].position ), up, p, projectToVector2( _points[x, clampedY].position ), 0.5f );
if( Vector2.DistanceSquared( mid, ( up + p ) / 2 ) > 1 )
{
drawLine( graphics.batcher, up, mid, gridColor, thickness );
drawLine( graphics.batcher, mid, p, gridColor, thickness );
}
else
{
drawLine( graphics.batcher, up, p, gridColor, thickness );
}
}
// Add interpolated lines halfway between our point masses. This makes the grid look
// denser without the cost of simulating more springs and point masses.
if( x > 1 && y > 1 )
{
var upLeft = projectToVector2( _points[x - 1, y - 1].position );
drawLine( graphics.batcher, 0.5f * ( upLeft + up ), 0.5f * ( left + p ), gridMinorColor, gridMinorThickness ); // vertical line
drawLine( graphics.batcher, 0.5f * ( upLeft + left ), 0.5f * ( up + p ), gridMinorColor, gridMinorThickness ); // horizontal line
}
}
}
}
public override void render( Graphics graphics, Camera camera )
{
stage.render( graphics, camera );
}
public PlatformSnapFollowCamera(Entity targetEntity, Nez.Camera camera)
{
_targetEntity = targetEntity;
this.camera = camera;
}
public override void render( Graphics graphics, Camera camera )
{
calculateVertices();
_basicEffect.Projection = camera.projectionMatrix;
_basicEffect.View = camera.transformMatrix;
_basicEffect.CurrentTechnique.Passes[0].Apply();
Core.graphicsDevice.DrawUserPrimitives( PrimitiveType.TriangleStrip, _vertices, 0, _ribbonLength * 2 + 1 );
}
public DefaultRenderer( int renderOrder = 0, Camera camera = null )
: base(renderOrder, camera)
{
}
public override void render( Graphics graphics, Camera camera )
{
if( layerIndicesToRender == null )
{
tiledMap.draw( graphics.batcher, entity.transform.position + _localOffset, layerDepth, camera.bounds );
}
else
{
for( var i = 0; i < tiledMap.layers.Count; i++ )
{
if( tiledMap.layers[i].visible && layerIndicesToRender.contains( i ) )
tiledMap.layers[i].draw( graphics.batcher, entity.transform.position + _localOffset, layerDepth, camera.bounds );
}
}
}
public override void render( Graphics graphics, Camera camera )
{
_basicEffect.Projection = camera.projectionMatrix;
_basicEffect.View = camera.transformMatrix;
_basicEffect.World = entity.transform.localToWorldTransform;
_basicEffect.CurrentTechnique.Passes[0].Apply();
Core.graphicsDevice.SamplerStates[0] = Core.defaultSamplerState;
Core.graphicsDevice.DrawUserPrimitives( primitiveType, verts, 0, _primitiveCount, VertexPositionColorTexture.VertexDeclaration );
}
public override void render( Graphics graphics, Camera camera )
{
graphics.batcher.drawString( _font, _text, entity.transform.position + _localOffset, color, entity.transform.rotation, origin, entity.transform.scale, spriteEffects, layerDepth );
}
public override void render( Graphics graphics, Camera camera )
{
if( _points.length < 2 )
return;
_basicEffect.Projection = camera.projectionMatrix;
_basicEffect.View = camera.transformMatrix;
_basicEffect.CurrentTechnique.Passes[0].Apply();
if( !useWorldSpace )
_basicEffect.World = transform.localToWorldTransform;
var primitiveCount = _indices.length / 3;
Core.graphicsDevice.SamplerStates[0] = Core.defaultWrappedSamplerState;
Core.graphicsDevice.DrawUserIndexedPrimitives( PrimitiveType.TriangleList, _vertices.buffer, 0, _vertices.length, _indices.buffer, 0, primitiveCount );
}
public ParalaxLayer(Nez.Camera camera) : this()
{
this.camera = camera;
}
public override bool isVisibleFromCamera( Camera camera )
{
calculateVertices();
return base.isVisibleFromCamera( camera );
}
public override void render( Graphics graphics, Camera camera )
{
graphics.batcher.draw( subtexture, entity.transform.position + _localOffset, _sourceRect, color, entity.transform.rotation, origin, entity.transform.scale, spriteEffects, _layerDepth );
}
public override void render( Graphics graphics, Camera camera )
{
_basicEffect.Projection = camera.projectionMatrix;
_basicEffect.View = camera.transformMatrix;
_basicEffect.CurrentTechnique.Passes[0].Apply();
// TODO: set the _basicEffect.World = entity.transform.localToWorldTransform instead of manualy mucking with verts and a local matrix
// see the deferred lighting PolygonMesh class for details.
Core.graphicsDevice.SamplerStates[0] = SamplerState.AnisotropicClamp;
Core.graphicsDevice.DrawUserPrimitives( PrimitiveType.TriangleList, _verts, 0, _points.Length - 2, VertexPositionColor.VertexDeclaration );
}
public LockedCamera(Entity targetEntity, Nez.Camera camera)
{
_targetEntity = targetEntity;
this.camera = camera;
}
public override void onAddedToEntity()
{
_camera = entity.getComponent <Nez.Camera>();
_midSize = new Vector2(_camera.bounds.width, _camera.bounds.height) * 0.5f;
}
public override void render( Graphics graphics, Camera camera )
{
var topLeft = entity.transform.position + _localOffset;
var destinationRect = RectangleExt.fromFloats( topLeft.X, topLeft.Y, _sourceRect.Width * entity.transform.scale.X * textureScale.X, _sourceRect.Height * entity.transform.scale.Y * textureScale.Y );
graphics.batcher.draw( subtexture, destinationRect, _sourceRect, color, entity.transform.rotation, origin * _inverseTexScale, spriteEffects, _layerDepth );
}
public override void render( Graphics graphics, Camera camera )
{
_basicEffect.Projection = camera.projectionMatrix;
_basicEffect.View = camera.transformMatrix;
_basicEffect.World = entity.transform.localToWorldTransform;
_basicEffect.CurrentTechnique.Passes[0].Apply();
Core.graphicsDevice.DrawUserIndexedPrimitives( PrimitiveType.TriangleList, _verts, 0, _verts.Length, _triangles, 0, _primitiveCount );
}
public override void render( Graphics graphics, Camera camera )
{
// flush the 2D batch so we render appropriately depth-wise
graphics.batcher.flushBatch();
Core.graphicsDevice.BlendState = BlendState.Opaque;
Core.graphicsDevice.DepthStencilState = DepthStencilState.Default;
// Set BasicEffect parameters.
_basicEffect.World = worldMatrix;
_basicEffect.View = camera.viewMatrix3D;
_basicEffect.Projection = camera.projectionMatrix3D;
_basicEffect.DiffuseColor = color.ToVector3();
// Set our vertex declaration, vertex buffer, and index buffer.
Core.graphicsDevice.SetVertexBuffer( _vertexBuffer );
Core.graphicsDevice.Indices = _indexBuffer;
_basicEffect.CurrentTechnique.Passes[0].Apply();
var primitiveCount = _indices.Count / 3;
Core.graphicsDevice.DrawIndexedPrimitives( PrimitiveType.TriangleList, 0, 0, primitiveCount );
}
public override void render( Graphics graphics, Camera camera )
{
// First we draw all the trail nodes using the border color. we need to draw them slightly larger, so the border is left visible
// when we draw the actual nodes
// adjust the startScale and endScale to take into consideration the border
var borderStartScale = startScale + borderSize / _cursorTexture.Width;
var borderEndScale = endScale + borderSize / _cursorTexture.Width;
// draw all nodes with the new scales
for( var i = 0; i < _trailNodeCount; i++ )
{
var node = _trailNodes[i];
var lerpFactor = (float)i / (float)( _trailNodeCount - 1 );
lerpFactor = Mathf.pow( lerpFactor, lerpExponent );
var scale = MathHelper.Lerp( borderStartScale, borderEndScale, lerpFactor );
// draw using the border Color
graphics.batcher.draw( _cursorTexture, node.position, null, borderColor, 0.0f, _textureCenter, scale, SpriteEffects.None, 0.0f );
}
// Next, we draw all the nodes normally, using the fill Color because before we drew them larger, after we draw them at
// their normal size, a border will remain visible.
for( var i = 0; i < _trailNodeCount; i++ )
{
var node = _trailNodes[i];
var lerpFactor = (float)i / (float)( _trailNodeCount - 1 );
lerpFactor = Mathf.pow( lerpFactor, lerpExponent );
var scale = MathHelper.Lerp( startScale, endScale, lerpFactor );
// draw using the fill color
graphics.batcher.draw( _cursorTexture, node.position, null, fillColor, 0.0f, _textureCenter, scale, SpriteEffects.None, 0.0f );
}
}
public FollowCamera( Entity targetEntity, Camera camera )
{
_targetEntity = targetEntity;
this.camera = camera;
}
public override void render( Graphics graphics, Camera camera )
{
_sprite.drawOutline( graphics, camera, outlineColor, outlineWidth );
_sprite.render( graphics, camera );
}
public override void render( Graphics graphics, Camera camera )
{
var pos = ( entity.transform.position - ( origin * entity.transform.localScale ) + localOffset );
var size = new Point( (int)( _width * entity.transform.localScale.X ), (int)( _height * entity.transform.localScale.Y ) );
var destRect = new Rectangle( (int)pos.X, (int)pos.Y, size.X, size.Y );
graphics.batcher.draw( subtexture, destRect, subtexture.sourceRect, color, entity.transform.rotation, SpriteEffects.None, layerDepth, _skewTopX, _skewBottomX, _skewLeftY, _skewRightY );
}
/// <summary>
/// renders the MarkupText
/// </summary>
/// <param name="graphics">Graphics.</param>
/// <param name="camera">Camera.</param>
public override void render( Graphics graphics, Camera camera )
{
if( _compiledMarkup == null )
return;
for( var i = 0; i < _compiledMarkup.Count; i++ )
_compiledMarkup[i].render( graphics, transform.position );
}