/// <summary>
/// Initializes a new instance of the <see cref="ModelComponentRenderer" /> class.
/// </summary>
/// <param name="effectName">Name of the effect.</param>
/// <exception cref="System.ArgumentNullException">effectName</exception>
public ModelComponentRenderer(string effectName)
{
if (effectName != null)
{
EffectName = effectName;
}
meshesToRender = new FastList<RenderMesh>();
Callbacks = new ModelComponentRendererCallback();
skinningUpdater = new MeshSkinningUpdater(256);
}
/// <summary>
/// Initializes a new instance of the <see cref="RenderMesh" /> class.
/// </summary>
/// <param name="renderModel">The render model.</param>
/// <param name="mesh">The mesh data.</param>
/// <exception cref="System.ArgumentNullException">mesh</exception>
public RenderMesh(RenderModel renderModel, Mesh mesh)
{
if (renderModel == null) throw new ArgumentNullException("renderModel");
if (mesh == null) throw new ArgumentNullException("mesh");
RenderModel = renderModel;
Mesh = mesh;
Enabled = true;
parameterCollections = new FastListStruct<ParameterCollection>(8);
previousParameterCollections = new FastListStruct<ParameterCollection>(8);
UpdateMaterial();
// A RenderMesh is inheriting values from Mesh.Parameters
// We are considering that Mesh.Parameters is not updated frequently (should be almost immutable)
parameters = new ParameterCollection();
if (mesh.Parameters != null)
{
parameters.AddSources(mesh.Parameters);
}
}
public override void FillParameterCollections(ref FastListStruct<ParameterCollection> parameterCollections)
{
// Test common types to avoid struct enumerator boxing
var localParameterCollectionsList = localParameterCollections as List<ParameterCollection>;
if (localParameterCollectionsList != null)
{
foreach (var parameter in localParameterCollectionsList)
{
if (parameter != null)
{
parameterCollections.Add(parameter);
}
}
}
else
{
var localParameterCollectionsArray = localParameterCollections as ParameterCollection[];
if (localParameterCollectionsArray != null)
{
foreach (var parameter in localParameterCollectionsArray)
{
if (parameter != null)
{
parameterCollections.Add(parameter);
}
}
}
else
{
// Slow: enumerator will be boxed
foreach (var parameter in localParameterCollections)
{
if (parameter != null)
{
parameterCollections.Add(parameter);
}
}
}
}
}
/// <summary>
/// Initializes a new instance of the <see cref="DynamicEffectCompiler" /> class.
/// </summary>
/// <param name="services">The services.</param>
/// <param name="effectName">Name of the effect.</param>
/// <param name="taskPriority">The task priority.</param>
/// <exception cref="System.ArgumentNullException">services
/// or
/// effectName</exception>
public DynamicEffectCompiler(IServiceRegistry services, string effectName, int taskPriority = 0)
{
if (services == null) throw new ArgumentNullException("services");
if (effectName == null) throw new ArgumentNullException("effectName");
Services = services;
this.effectName = effectName;
this.taskPriority = taskPriority;
EffectSystem = Services.GetSafeServiceAs<EffectSystem>();
GraphicsDevice = Services.GetSafeServiceAs<IGraphicsDeviceService>().GraphicsDevice;
parameterCollections = new FastListStruct<ParameterCollection>(8);
// Default behavior for fallback effect: load effect with same name but empty compiler parameters
ComputeFallbackEffect = (dynamicEffectCompiler, type, name, parameters) =>
{
ParameterCollection usedParameters;
var compilerParameters = new CompilerParameters { TaskPriority = -1 };
// We want high priority
var effect = dynamicEffectCompiler.EffectSystem.LoadEffect(effectName, compilerParameters, out usedParameters).WaitForResult();
return new ComputeFallbackEffectResult(effect, usedParameters);
};
}
public ShadowMapRenderer()
{
atlases = new FastListStruct <ShadowMapAtlasTexture>(16);
}
/// <inheritdoc/>
public override void ApplyDrawParameters(FastListStruct <LightDynamicEntry>?lightList, RenderDrawContext context, int viewIndex, ParameterCollection parameters, ref BoundingBoxExt boundingBox)
{
base.ApplyDrawParameters(lightList, context, viewIndex, parameters, ref boundingBox);
ShadowGroup?.ApplyDrawParameters(context, parameters, lightList.HasValue ? lightList.Value : new FastListStruct <LightDynamicEntry>(8), ref boundingBox);
}
public LightComponentForwardRenderer()
{
modelToLights = new Dictionary<RenderModel, RenderModelLights>(1024);
directLightShaderGroupEntryKeys = new FastListStruct<LightForwardShaderFullEntryKey>(32);
environmentLightShaderGroupEntryKeys = new FastListStruct<LightForwardShaderFullEntryKey>(32);
directLightShaderGroupEntryKeysNoShadows = new FastListStruct<LightForwardShaderFullEntryKey>(32);
parameterCollectionEntryPool = new PoolListStruct<LightParametersPermutationEntry>(16, CreateParameterCollectionEntry);
//directLightGroup = new LightGroupRenderer("directLightGroups", LightingKeys.DirectLightGroups);
//environmentLightGroup = new LightGroupRenderer("environmentLights", LightingKeys.EnvironmentLights);
lightRenderers = new List<KeyValuePair<Type, LightGroupRendererBase>>(16);
visibleLights = new List<LightComponent>(1024);
visibleLightsWithShadows = new List<LightComponent>(1024);
shaderEntries = new Dictionary<ObjectId, LightShaderPermutationEntry>(1024);
directLightsPerModel = new List<LightEntry>(16);
activeLightGroups = new Dictionary<Type, LightComponentCollectionGroup>(16);
activeLightGroupsWithShadows = new Dictionary<Type, LightComponentCollectionGroup>(16);
activeRenderers = new List<ActiveLightGroupRenderer>(16);
lightParameterEntries = new Dictionary<ObjectId, LightParametersPermutationEntry>(32);
// TODO: Make this pluggable
RegisterLightGroupRenderer(typeof(LightDirectional), new LightDirectionalGroupRenderer());
RegisterLightGroupRenderer(typeof(LightSpot), new LightSpotGroupRenderer());
RegisterLightGroupRenderer(typeof(LightPoint), new LightPointGroupRenderer());
RegisterLightGroupRenderer(typeof(LightAmbient), new LightAmbientRenderer());
RegisterLightGroupRenderer(typeof(LightSkybox), new LightSkyboxRenderer());
}
public void ApplyViewParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct<LightDynamicEntry> currentLights)
{
}
/// <summary> /// Fills the parameter collections used by this instance. /// </summary> /// <param name="parameterCollections">The parameter collections.</param> public abstract void FillParameterCollections(ref FastListStruct<ParameterCollection> parameterCollections);
public void Initialize(Func <DataType, int> computeDataArrayExpectedSize)
{
this.computeDataArrayExpectedSize = computeDataArrayExpectedSize;
dataArraysByDefinition = new Dictionary <object, int>();
dataArrays = new FastListStruct <DataArray>(8);
}
public override void ApplyDrawParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct <LightDynamicEntry> currentLights, ref BoundingBoxExt boundingBox)
{
var boundingBox2 = (BoundingBox)boundingBox;
bool shadowMapCreated = false;
int lightIndex = 0;
for (int i = 0; i < currentLights.Count; ++i)
{
var lightEntry = currentLights[i];
var light = lightEntry.Light;
if (light.BoundingBox.Intersects(ref boundingBox2))
{
var singleLightData = (LightSpotShadowMapShaderData)lightEntry.ShadowMapTexture.ShaderData;
worldToShadowCascadeUV[lightIndex] = singleLightData.WorldToShadowCascadeUV;
Matrix.Invert(ref singleLightData.WorldToShadowCascadeUV, out inverseWorldToShadowCascadeUV[lightIndex]);
depthBiases[lightIndex] = singleLightData.DepthBias;
offsetScales[lightIndex] = singleLightData.OffsetScale;
depthRanges[lightIndex] = singleLightData.DepthRange;
if (!shadowMapCreated)
{
shadowMapTexture = singleLightData.Texture;
if (shadowMapTexture != null)
{
shadowMapTextureSize = new Vector2(shadowMapTexture.Width, shadowMapTexture.Height);
shadowMapTextureTexelSize = 1.0f / shadowMapTextureSize;
}
shadowMapCreated = true;
}
lightIndex++;
}
}
parameters.Set(shadowMapTextureKey, shadowMapTexture);
parameters.Set(shadowMapTextureSizeKey, shadowMapTextureSize);
parameters.Set(shadowMapTextureTexelSizeKey, shadowMapTextureTexelSize);
parameters.Set(worldToShadowCascadeUVsKey, worldToShadowCascadeUV);
parameters.Set(inverseWorldToShadowCascadeUVsKey, inverseWorldToShadowCascadeUV);
parameters.Set(depthRangesKey, depthRanges);
parameters.Set(depthBiasesKey, depthBiases);
parameters.Set(offsetScalesKey, offsetScales);
}
public void ApplyDrawParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct <LightDynamicEntry> currentLights, ref BoundingBoxExt boundingBox)
{
for (int lightIndex = 0; lightIndex < currentLights.Count; ++lightIndex)
{
var lightEntry = currentLights[lightIndex];
var singleLightData = (LightSpotShadowMapShaderData)lightEntry.ShadowMapTexture.ShaderData;
worldToShadowCascadeUV[lightIndex] = singleLightData.WorldToShadowCascadeUV;
depthBiases[lightIndex] = singleLightData.DepthBias;
offsetScales[lightIndex] = singleLightData.OffsetScale;
// TODO: should be setup just once at creation time
if (lightIndex == 0)
{
shadowMapTexture = singleLightData.Texture;
if (shadowMapTexture != null)
{
shadowMapTextureSize = new Vector2(shadowMapTexture.Width, shadowMapTexture.Height);
shadowMapTextureTexelSize = 1.0f / shadowMapTextureSize;
}
}
}
parameters.Set(shadowMapTextureKey, shadowMapTexture);
parameters.Set(shadowMapTextureSizeKey, shadowMapTextureSize);
parameters.Set(shadowMapTextureTexelSizeKey, shadowMapTextureTexelSize);
parameters.Set(worldToShadowCascadeUVsKey, worldToShadowCascadeUV);
parameters.Set(depthBiasesKey, depthBiases);
parameters.Set(offsetScalesKey, offsetScales);
}
public RenderModel(ModelComponent modelComponent)
{
RenderMeshesPerEffectSlot = new FastListStruct <FastListStruct <RenderMesh> >(4);
ModelComponent = modelComponent;
}
public RegisteredRenderProcessors(Type type, int instanceCount)
{
Type = type;
Instances = new FastListStruct<KeyValuePair<VisibilityGroup, EntityProcessor>>(instanceCount);
}
public override void ApplyViewParameters(FastListStruct <LightDynamicEntry>?lightList, RenderDrawContext context, int viewIndex, ParameterCollection parameters)
{
base.ApplyViewParameters(lightList, context, viewIndex, parameters);
parameters.Set(ambientLightKey, AmbientColor[viewIndex]);
}
public void ApplyDrawParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct<LightDynamicEntry> currentLights, ref BoundingBoxExt boundingBox)
{
}
public void ApplyViewParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct<LightDynamicEntry> currentLights)
{
for (int lightIndex = 0; lightIndex < currentLights.Count; ++lightIndex)
{
var lightEntry = currentLights[lightIndex];
var singleLightData = (LightDirectionalShadowMapShaderData)lightEntry.ShadowMapTexture.ShaderData;
var splits = singleLightData.CascadeSplits;
var matrices = singleLightData.WorldToShadowCascadeUV;
int splitIndex = lightIndex * cascadeCount;
for (int i = 0; i < splits.Length; i++)
{
cascadeSplits[splitIndex + i] = splits[i];
worldToShadowCascadeUV[splitIndex + i] = matrices[i];
}
depthBiases[lightIndex] = singleLightData.DepthBias;
offsetScales[lightIndex] = singleLightData.OffsetScale;
// TODO: should be setup just once at creation time
if (lightIndex == 0)
{
shadowMapTexture = singleLightData.Texture;
if (shadowMapTexture != null)
{
shadowMapTextureSize = new Vector2(shadowMapTexture.Width, shadowMapTexture.Height);
shadowMapTextureTexelSize = 1.0f/shadowMapTextureSize;
}
}
}
parameters.Set(shadowMapTextureKey, shadowMapTexture);
parameters.Set(shadowMapTextureSizeKey, shadowMapTextureSize);
parameters.Set(shadowMapTextureTexelSizeKey, shadowMapTextureTexelSize);
parameters.Set(cascadeSplitsKey, cascadeSplits);
parameters.Set(worldToShadowCascadeUVsKey, worldToShadowCascadeUV);
parameters.Set(depthBiasesKey, depthBiases);
parameters.Set(offsetScalesKey, offsetScales);
}
public virtual void ApplyViewParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct <LightDynamicEntry> currentLights)
{
}
private void PrepareRenderMeshes(RenderModel renderModel, List <Mesh> meshes, ref FastListStruct <RenderMesh> renderMeshes, RenderItemCollection opaqueList, RenderItemCollection transparentList)
{
// Add new render meshes
for (int i = renderMeshes.Count; i < meshes.Count; i++)
{
var renderMesh = new RenderMesh(renderModel, meshes[i]);
renderMeshes.Add(renderMesh);
}
// Create the bounding frustum locally on the stack, so that frustum.Contains is performed with boundingBox that is also on the stack
var frustum = new BoundingFrustum(ref ViewProjectionMatrix);
var sceneCameraRenderer = Context.Tags.Get(SceneCameraRenderer.Current);
var cullingMode = CullingModeOverride ?? (sceneCameraRenderer?.CullingMode ?? CameraCullingMode.None);
for (int i = 0; i < renderMeshes.Count; i++)
{
var renderMesh = renderMeshes[i];
// Update the model hierarchy
var modelViewHierarchy = renderModel.ModelComponent.Skeleton;
modelViewHierarchy.UpdateRenderMesh(renderMesh);
if (!renderMesh.Enabled || !renderMesh.UpdateMaterial())
{
continue;
}
// Upload skinning blend matrices
BoundingBoxExt boundingBox;
skinningUpdater.Update(modelViewHierarchy, renderMesh, out boundingBox);
// Fast AABB transform: http://zeuxcg.org/2010/10/17/aabb-from-obb-with-component-wise-abs/
// Compute transformed AABB (by world)
// TODO: CameraCullingMode should be pluggable
// TODO: This should not be necessary. Add proper bounding boxes to gizmos etc.
if (cullingMode == CameraCullingMode.Frustum && boundingBox.Extent != Vector3.Zero && !frustum.Contains(ref boundingBox))
{
continue;
}
// Project the position
// TODO: This could be done in a SIMD batch, but we need to figure-out how to plugin in with RenderMesh object
var worldPosition = new Vector4(renderMesh.WorldMatrix.TranslationVector, 1.0f);
Vector4 projectedPosition;
Vector4.Transform(ref worldPosition, ref ViewProjectionMatrix, out projectedPosition);
var projectedZ = projectedPosition.Z / projectedPosition.W;
renderMesh.RasterizerState = renderMesh.IsGeometryInverted ? RasterizerStateForInvertedGeometry : RasterizerState;
renderMesh.ForceRasterizer = ForceRasterizer;
var list = renderMesh.HasTransparency ? transparentList : opaqueList;
list.Add(new RenderItem(this, renderMesh, projectedZ));
}
}
public void ApplyDrawParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct <LightDynamicEntry> currentLights, ref BoundingBoxExt boundingBox)
{
}
public override void ApplyViewParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct <LightDynamicEntry> currentLights)
{
for (int lightIndex = 0; lightIndex < currentLights.Count; ++lightIndex)
{
var lightEntry = currentLights[lightIndex];
var singleLightData = (ShaderData)lightEntry.ShadowMapTexture.ShaderData;
var splits = singleLightData.CascadeSplits;
var lightWorldToShadowCascadeUVs = singleLightData.WorldToShadowCascadeUV;
Vector2[] lightDepthRanges = singleLightData.DepthRange;
int splitIndex = lightIndex * cascadeCount;
for (int i = 0; i < splits.Length; i++)
{
int cascadeIndex = splitIndex + i;
cascadeSplits[cascadeIndex] = splits[i];
worldToShadowCascadeUV[cascadeIndex] = lightWorldToShadowCascadeUVs[i];
inverseWorldToShadowCascadeUV[cascadeIndex] = Matrix.Invert(lightWorldToShadowCascadeUVs[i]); ///////////////////////////////////////////////////
depthRanges[cascadeIndex] = lightDepthRanges[i]; ///////////////////////////////////////////////////
}
depthBiases[lightIndex] = singleLightData.DepthBias;
offsetScales[lightIndex] = singleLightData.OffsetScale;
// TODO: should be setup just once at creation time
if (lightIndex == 0)
{
shadowMapTexture = singleLightData.Texture;
if (shadowMapTexture != null)
{
shadowMapTextureSize = new Vector2(shadowMapTexture.Width, shadowMapTexture.Height);
shadowMapTextureTexelSize = 1.0f / shadowMapTextureSize;
}
}
}
parameters.Set(shadowMapTextureKey, shadowMapTexture);
parameters.Set(shadowMapTextureSizeKey, shadowMapTextureSize);
parameters.Set(shadowMapTextureTexelSizeKey, shadowMapTextureTexelSize);
parameters.Set(cascadeSplitsKey, cascadeSplits);
parameters.Set(worldToShadowCascadeUVsKey, worldToShadowCascadeUV);
parameters.Set(inverseWorldToShadowCascadeUVsKey, inverseWorldToShadowCascadeUV); ///////////////////////////////////////////////////
parameters.Set(depthRangesKey, depthRanges); ///////////////////////////////////////////////////
parameters.Set(depthBiasesKey, depthBiases);
parameters.Set(offsetScalesKey, offsetScales);
}
internal static void PopulateLightsInRange(ref FastListStruct <LightDynamicEntry> allLights, LightShaderGroupDynamic.LightRange lightRange, ref FastListStruct <LightDynamicEntry> lightsInRange)
{
int lightsCount = lightRange.End - lightRange.Start;
lightsInRange.EnsureCapacity(lightsCount);
var lightsInRangeArray = lightsInRange.Items;
for (int i = 0; i < lightsCount; i++)
{
lightsInRangeArray[i] = allLights[lightRange.Start + i];
}
lightsInRange.Count = lightsCount;
}
public override void ApplyDrawParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct <LightDynamicEntry> currentLights, ref BoundingBoxExt boundingBox)
{
var boundingBox2 = (BoundingBox)boundingBox;
bool shadowMapCreated = false;
int lightIndex = 0;
for (int i = 0; i < currentLights.Count; ++i)
{
var lightEntry = currentLights[i];
if (lightEntry.Light.BoundingBox.Intersects(ref boundingBox2))
{
var shaderData = (ShaderData)lightEntry.ShadowMapTexture.ShaderData;
offsets[lightIndex] = shaderData.Offset;
backfaceOffsets[lightIndex] = shaderData.BackfaceOffset;
faceSizes[lightIndex] = shaderData.FaceSize;
depthParameters[lightIndex] = shaderData.DepthParameters;
depthBiases[lightIndex] = shaderData.DepthBias;
viewMatrices[lightIndex] = shaderData.View;
lightIndex++;
// TODO: should be setup just once at creation time
if (!shadowMapCreated)
{
shadowMapTexture = shaderData.Texture;
if (shadowMapTexture != null)
{
shadowMapTextureSize = new Vector2(shadowMapTexture.Width, shadowMapTexture.Height);
shadowMapTextureTexelSize = 1.0f / shadowMapTextureSize;
}
shadowMapCreated = true;
}
}
}
parameters.Set(shadowMapTextureKey, shadowMapTexture);
parameters.Set(shadowMapTextureSizeKey, shadowMapTextureSize);
parameters.Set(shadowMapTextureTexelSizeKey, shadowMapTextureTexelSize);
parameters.Set(viewKey, viewMatrices);
parameters.Set(offsetsKey, offsets);
parameters.Set(backfaceOffsetsKey, backfaceOffsets);
parameters.Set(faceSizesKey, faceSizes);
parameters.Set(depthParametersKey, depthParameters);
parameters.Set(depthBiasesKey, depthBiases);
}
public void ApplyDrawParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct<LightDynamicEntry> currentLights, ref BoundingBoxExt boundingBox)
{
var boundingBox2 = (BoundingBox)boundingBox;
bool shadowMapCreated = false;
int lightIndex = 0;
for (int i = 0; i < currentLights.Count; ++i)
{
var lightEntry = currentLights[i];
var light = lightEntry.Light;
if (light.BoundingBox.Intersects(ref boundingBox2))
{
var singleLightData = (LightSpotShadowMapShaderData)lightEntry.ShadowMapTexture.ShaderData;
worldToShadowCascadeUV[lightIndex] = singleLightData.WorldToShadowCascadeUV;
depthBiases[lightIndex] = singleLightData.DepthBias;
offsetScales[lightIndex] = singleLightData.OffsetScale;
lightIndex++;
if (!shadowMapCreated)
{
shadowMapTexture = singleLightData.Texture;
if (shadowMapTexture != null)
{
shadowMapTextureSize = new Vector2(shadowMapTexture.Width, shadowMapTexture.Height);
shadowMapTextureTexelSize = 1.0f / shadowMapTextureSize;
}
shadowMapCreated = true;
}
}
}
parameters.Set(shadowMapTextureKey, shadowMapTexture);
parameters.Set(shadowMapTextureSizeKey, shadowMapTextureSize);
parameters.Set(shadowMapTextureTexelSizeKey, shadowMapTextureTexelSize);
parameters.Set(worldToShadowCascadeUVsKey, worldToShadowCascadeUV);
parameters.Set(depthBiasesKey, depthBiases);
parameters.Set(offsetScalesKey, offsetScales);
}
public RegisteredRenderProcessors(Type type, int instanceCount)
{
Type = type;
Instances = new FastListStruct <KeyValuePair <VisibilityGroup, EntityProcessor> >(instanceCount);
}
public RenderModel(ModelComponent modelComponent)
{
RenderMeshesPerEffectSlot = new FastListStruct<FastListStruct<RenderMesh>>(4);
ModelComponent = modelComponent;
}
public void ApplyDrawParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct<LightDynamicEntry> currentLights, ref BoundingBoxExt boundingBox)
{
for (int lightIndex = 0; lightIndex < currentLights.Count; ++lightIndex)
{
var lightEntry = currentLights[lightIndex];
var singleLightData = (LightSpotShadowMapShaderData)lightEntry.ShadowMapTexture.ShaderData;
worldToShadowCascadeUV[lightIndex] = singleLightData.WorldToShadowCascadeUV;
depthBiases[lightIndex] = singleLightData.DepthBias;
offsetScales[lightIndex] = singleLightData.OffsetScale;
// TODO: should be setup just once at creation time
if (lightIndex == 0)
{
shadowMapTexture = singleLightData.Texture;
if (shadowMapTexture != null)
{
shadowMapTextureSize = new Vector2(shadowMapTexture.Width, shadowMapTexture.Height);
shadowMapTextureTexelSize = 1.0f / shadowMapTextureSize;
}
}
}
parameters.Set(shadowMapTextureKey, shadowMapTexture);
parameters.Set(shadowMapTextureSizeKey, shadowMapTextureSize);
parameters.Set(shadowMapTextureTexelSizeKey, shadowMapTextureTexelSize);
parameters.Set(worldToShadowCascadeUVsKey, worldToShadowCascadeUV);
parameters.Set(depthBiasesKey, depthBiases);
parameters.Set(offsetScalesKey, offsetScales);
}
/// <summary>
/// Applies PerView lighting parameters.
/// </summary>
/// <param name="context"></param>
/// <param name="viewIndex"></param>
/// <param name="parameters"></param>
public virtual void ApplyViewParameters(FastListStruct <LightDynamicEntry>?lightList, RenderDrawContext context, int viewIndex, ParameterCollection parameters)
{
}
private void PrepareRenderMeshes(RenderModel renderModel, List<Mesh> meshes, ref FastListStruct<RenderMesh> renderMeshes, RenderItemCollection opaqueList, RenderItemCollection transparentList)
{
// Add new render meshes
for (int i = renderMeshes.Count; i < meshes.Count; i++)
{
var renderMesh = new RenderMesh(renderModel, meshes[i]);
renderMeshes.Add(renderMesh);
}
// Create the bounding frustum locally on the stack, so that frustum.Contains is performed with boundingBox that is also on the stack
var frustum = new BoundingFrustum(ref ViewProjectionMatrix);
for (int i = 0; i < renderMeshes.Count; i++)
{
var renderMesh = renderMeshes[i];
// Update the model hierarchy
var modelViewHierarchy = renderModel.ModelComponent.ModelViewHierarchy;
modelViewHierarchy.UpdateRenderMesh(renderMesh);
if (!renderMesh.Enabled)
{
continue;
}
// Upload skinning blend matrices
BoundingBoxExt boundingBox;
skinningUpdater.Update(modelViewHierarchy, renderMesh, out boundingBox);
// Fast AABB transform: http://zeuxcg.org/2010/10/17/aabb-from-obb-with-component-wise-abs/
// Compute transformed AABB (by world)
// TODO: CullingMode should be pluggable
// TODO: This should not be necessary. Add proper bounding boxes to gizmos etc.
if (CullingMode == CullingMode.Frustum && boundingBox.Extent != Vector3.Zero && !frustum.Contains(ref boundingBox))
{
continue;
}
// Project the position
// TODO: This could be done in a SIMD batch, but we need to figure-out how to plugin in with RenderMesh object
var worldPosition = new Vector4(renderMesh.WorldMatrix.TranslationVector, 1.0f);
Vector4 projectedPosition;
Vector4.Transform(ref worldPosition, ref ViewProjectionMatrix, out projectedPosition);
var projectedZ = projectedPosition.Z / projectedPosition.W;
renderMesh.RasterizerState = renderMesh.IsGeometryInverted ? RasterizerStateForInvertedGeometry : RasterizerState;
renderMesh.UpdateMaterial();
var list = renderMesh.HasTransparency ? transparentList : opaqueList;
list.Add(new RenderItem(this, renderMesh, projectedZ));
}
}
/// <summary>
/// Applies PerDraw lighting parameters.
/// </summary>
/// <param name="context"></param>
/// <param name="viewIndex"></param>
/// <param name="parameters"></param>
/// <param name="boundingBox"></param>
public virtual void ApplyDrawParameters(FastListStruct <LightDynamicEntry>?lightList, RenderDrawContext context, int viewIndex, ParameterCollection parameters, ref BoundingBoxExt boundingBox)
{
}
public LightShaderPermutationEntry()
{
DirectLightGroups = new FastListStruct<LightShaderGroup>(8);
EnvironmentLights = new FastListStruct<LightShaderGroup>(8);
PermutationLightGroups = new FastListStruct<LightShaderGroup>(2);
DirectLightShaders = new ShaderSourceCollection();
EnvironmentLightShaders = new ShaderSourceCollection();
}
/// <summary> /// Fills the parameter collections used by this instance. /// </summary> /// <param name="parameterCollections">The parameter collections.</param> public abstract void FillParameterCollections(ref FastListStruct <ParameterCollection> parameterCollections);
public override void FillParameterCollections(ref FastListStruct<ParameterCollection> parameterCollections)
{
var material = Material;
if (material != null && material.Parameters != null)
{
parameterCollections.Add(material.Parameters);
}
if (RenderModel.ModelComponent.Parameters != null)
{
parameterCollections.Add(RenderModel.ModelComponent.Parameters);
}
// TODO: Should we add RenderMesh.Parameters before ModelComponent.Parameters to allow user overiddes at component level?
parameterCollections.Add(parameters);
}
public override void ApplyDrawParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct <LightDynamicEntry> currentLights, ref BoundingBoxExt boundingBox)
{
var boundingBox2 = (BoundingBox)boundingBox;
bool shadowMapCreated = false;
int lightIndex = 0;
for (int i = 0; i < currentLights.Count; ++i)
{
var lightEntry = currentLights[i];
if (lightEntry.Light.BoundingBox.Intersects(ref boundingBox2))
{
var shaderData = (ShaderData)lightEntry.ShadowMapTexture.ShaderData;
// Copy per-face data
for (int j = 0; j < 6; j++)
{
worldToShadow[lightIndex * 6 + j] = shaderData.WorldToShadow[j];
inverseWorldToShadow[lightIndex * 6 + j] = Matrix.Invert(shaderData.WorldToShadow[j]);
}
depthBiases[lightIndex] = shaderData.DepthBias;
offsetScales[lightIndex] = shaderData.OffsetScale;
depthParameters[lightIndex] = shaderData.DepthParameters;
lightIndex++;
// TODO: should be setup just once at creation time
if (!shadowMapCreated)
{
shadowMapTexture = shaderData.Texture;
if (shadowMapTexture != null)
{
shadowMapTextureSize = new Vector2(shadowMapTexture.Width, shadowMapTexture.Height);
shadowMapTextureTexelSize = 1.0f / shadowMapTextureSize;
}
shadowMapCreated = true;
}
}
}
parameters.Set(shadowMapTextureKey, shadowMapTexture);
parameters.Set(shadowMapTextureSizeKey, shadowMapTextureSize);
parameters.Set(shadowMapTextureTexelSizeKey, shadowMapTextureTexelSize);
parameters.Set(worldToShadowKey, worldToShadow);
parameters.Set(inverseWorldToShadowKey, inverseWorldToShadow);
parameters.Set(depthParametersKey, depthParameters);
parameters.Set(depthBiasesKey, depthBiases);
parameters.Set(offsetScalesKey, offsetScales);
}
public void ApplyDrawParameters(RenderDrawContext context, ParameterCollection parameters, FastListStruct <LightDynamicEntry> currentLights, ref BoundingBoxExt boundingBox)
{
var boundingBoxCasted = (BoundingBox)boundingBox;
int lightIndex = 0;
for (int i = 0; i < currentLights.Count; ++i)
{
var lightEntry = currentLights[i];
var light = lightEntry.Light;
if (light.BoundingBox.Intersects(ref boundingBoxCasted))
{
var spotLight = (LightSpot)light.Type;
/*
* // TODO: Just save the shaderdata struct directly within "LightDynamicEntry"?
* var singleLightData = (LightSpotTextureProjectionShaderData)lightEntry.ShadowMapTexture.ShaderData; // TODO: This must not depend on the shadow map texture!
*
* worldToTextureUV[lightIndex] = singleLightData.WorldToTextureUV;
* projectionTextureMipMapLevels[lightIndex] = singleLightData.ProjectiveTextureMipMapLevel;
* projectiveTexture = singleLightData.ProjectiveTexture;
*/
// TODO: Move this to "Collect()" and use "LightSpotTextureProjectionShaderData", but IDK how!
worldToTextureUV[lightIndex] = ComputeWorldToTextureUVMatrix(light);
projectorPlaneMatrices[lightIndex] = ComputeProjectorPlaneMatrix(light);
// We use the maximum number of mips instead of the actual number,
// so things like video textures behave more consistently when changing the number of mip maps to generate.
int maxMipMapCount = Texture.CountMips(lightParameters.ProjectionTexture.Width, lightParameters.ProjectionTexture.Height);
float projectiveTextureMipMapLevel = (float)(maxMipMapCount - 1) * spotLight.MipMapScale; // "- 1" because the lowest mip level is 0, not 1.
projectionTextureMipMapLevels[lightIndex] = projectiveTextureMipMapLevel;
transitionAreas[lightIndex] = Math.Max(spotLight.TransitionArea, 0.001f); // Keep the value just above zero. This is to prevent some issues with the "smoothstep()" function on OpenGL and OpenGL ES.
++lightIndex;
}
}
// TODO: Why is this set if it's already in the collection?
// TODO: Does this get set once per group or something?
parameters.Set(projectiveTextureKey, lightParameters.ProjectionTexture);
parameters.Set(uvScale, lightParameters.UVScale);
parameters.Set(uvOffset, lightParameters.UVOffset);
parameters.Set(worldToProjectiveTextureUVsKey, worldToTextureUV);
parameters.Set(projectorPlaneMatricesKey, projectorPlaneMatrices);
parameters.Set(projectionTextureMipMapLevelsKey, projectionTextureMipMapLevels);
parameters.Set(transitionAreasKey, transitionAreas);
}
public void GlobalSetup()
{
lightNodes = new FastListStruct <LightClusterLinkedNode>(30 * 17 * 8);
lightNodes2 = new FastListStruct <Vector3>(30 * 17 * 8);
}