public void AdjustModelScaleOffset()
{
AABBf?box = null;
if (_scene == null || (box = box = new AABBCalculator(_scene).GetBox()) == null)
{
_modelScaleOffset = float4x4.Identity;
}
var bbox = ((AABBf)box);
float scale = Math.Max(Math.Max(bbox.Size.x, bbox.Size.y), bbox.Size.z);
_modelScaleOffset = float4x4.CreateScale(200.0f / scale) * float4x4.CreateTranslation(-bbox.Center);
}
// Init is called on startup.
public override void Init()
{
// VERSION 1 - SYNCHRONER DOWNLOAD
/*
* ButtonDown += delegate (object sender, EventArgs args)
* {
* WebClient client = new WebClient();
*
* string fileContents = client.DownloadString(new Uri("http://www.fusee3d.org/Examples/Async/SomeText.txt"));
* Ticker.CompleteText = fileContents;
* };
* /* */
// VERSION 2 - Asynchronous Programming Model (APM) - wird von WebClient nicht unterstützt, daher kein Beispiel
// VERSION 3 - Event Based Asynchronous Pattern (EAP)
/*
* ButtonDown += delegate (object sender, EventArgs args)
* {
* WebClient client = new WebClient();
*
* client.DownloadStringCompleted += delegate(object o, DownloadStringCompletedEventArgs eventArgs)
* {
* Ticker.CompleteText = eventArgs.Result;
* };
* client.DownloadStringAsync(new Uri("http://www.fusee3d.org/Examples/Async/SomeText.txt"));
* };
* /* */
// VERSION 4 - Task-based Asynchronous Pattern (TAP)
/*
* ButtonDown += async delegate (object sender, EventArgs args)
* {
* WebClient client = new WebClient();
*
* String fileContents = await client.DownloadStringTaskAsync(new Uri("http://www.fusee3d.org/Examples/Async/SomeText.txt"));
* // Nach dem await - Code der hier steht, wird erst nach dem ENDE des Task aufgerufen
* Ticker.CompleteText = fileContents;
*
* };
* /* */
/* */
// VERSION 5 - Task-based Asynchronous Pattern (TAP) mit getrenntem await
ButtonDown += async delegate(object sender, EventArgs args)
{
WebClient client = new WebClient();
Task <string> task = client.DownloadStringTaskAsync(new Uri("http://www.fusee3d.org/Examples/Async/SomeText.txt"));
// Dinge, die direkt nach dem Starten des Task passieren sollen
Ticker.CompleteText = "- - - D O W N L O A D I N G - - - T H E C O M P L E T E W O R K S O F W I L L I A M S H A K E S P E A R E ";
// Vor dem await - hier passiert alles direkt nach dem Starten des Task
String fileContents = await task;
// Nach dem await - Code der hier steht, wird erst nach dem ENDE des Task aufgerufen
Ticker.CompleteText = fileContents;
};
/* */
_guiHandler = new GUIHandler();
_guiHandler.AttachToContext(RC);
_guiFuseeLink = new GUIButton(6, 6, 253, 221);
_guiFuseeLink.ButtonColor = new float4(0, 0, 0, 0);
_guiFuseeLink.BorderColor = new float4(0.6f, 0.2f, 0.2f, 1);
_guiFuseeLink.BorderWidth = 0;
_guiFuseeLink.OnGUIButtonDown += _guiFuseeLink_OnGUIButtonDown;
_guiFuseeLink.OnGUIButtonEnter += _guiFuseeLink_OnGUIButtonEnter;
_guiFuseeLink.OnGUIButtonLeave += _guiFuseeLink_OnGUIButtonLeave;
_guiHandler.Add(_guiFuseeLink);
_guiFuseeLogo = new GUIImage(AssetStorage.Get <ImageData>("ClickMe.png"), 10, 10, -5, 253, 221);
_guiHandler.Add(_guiFuseeLogo);
var fontLato = AssetStorage.Get <Font>("Lato-Black.ttf");
fontLato.UseKerning = true;
_guiLatoBlack = new FontMap(fontLato, 64);
_guiSubText = new GUIText(Ticker.CurrentText, _guiLatoBlack, 100, 100);
_guiSubText.TextColor = new float4(0, 0, 0.15f, 0.8f);
_guiHandler.Add(_guiSubText);
_subtextWidth = GUIText.GetTextWidth(_guiSubText.Text, _guiLatoBlack);
_subtextHeight = GUIText.GetTextHeight(_guiSubText.Text, _guiLatoBlack);
// Initial "Zoom" value (it's rather the distance in view direction, not the camera's focal distance/opening angle)
_zoom = 400;
_angleRoll = 0;
_angleRollInit = 0;
_twoTouchRepeated = false;
_offset = float2.Zero;
_offsetInit = float2.Zero;
// Set the clear color for the backbuffer to white (100% intentsity in all color channels R, G, B, A).
RC.ClearColor = new float4(1, 1, 1, 1);
// Load the standard model
_scene = AssetStorage.Get <SceneContainer>("Model.fus");
AABBCalculator aabbc = new AABBCalculator(_scene);
var bbox = aabbc.GetBox();
if (bbox != null)
{
// If the model origin is more than one third away from its bounding box,
// recenter it to the bounding box. Do this check individually per dimension.
// This way, small deviations will keep the model's original center, while big deviations
// will make the model rotating around its geometric center.
float3 bbCenter = bbox.Value.Center;
float3 bbSize = bbox.Value.Size;
float3 center = float3.Zero;
if (System.Math.Abs(bbCenter.x) > bbSize.x * 0.3)
{
center.x = bbCenter.x;
}
if (System.Math.Abs(bbCenter.y) > bbSize.y * 0.3)
{
center.y = bbCenter.y;
}
if (System.Math.Abs(bbCenter.z) > bbSize.z * 0.3)
{
center.z = bbCenter.z;
}
_sceneCenter = float4x4.CreateTranslation(-center);
// Adjust the model size
float maxScale = System.Math.Max(bbSize.x, System.Math.Max(bbSize.y, bbSize.z));
if (maxScale != 0)
{
_sceneScale = float4x4.CreateScale(200.0f / maxScale);
}
else
{
_sceneScale = float4x4.Identity;
}
}
// Wrap a SceneRenderer around the model.
_sceneRenderer = new SceneRenderer(_scene);
}
// Init is called on startup.
public override void Init()
{
_initCanvasWidth = Width / 100f;
_initCanvasHeight = Height / 100f;
_canvasHeight = _initCanvasHeight;
_canvasWidth = _initCanvasWidth;
// Initial "Zoom" value (it's rather the distance in view direction, not the camera's focal distance/opening angle)
_zoom = 400;
_angleRoll = 0;
_angleRollInit = 0;
_twoTouchRepeated = false;
_offset = float2.Zero;
_offsetInit = float2.Zero;
// Set the clear color for the back buffer to white (100% intensity in all color channels R, G, B, A).
RC.ClearColor = new float4(1, 1, 1, 1);
// Load the standard model
_scene = AssetStorage.Get <SceneContainer>(ModelFile);
_gui = CreateGui();
// Create the interaction handler
_sih = new SceneInteractionHandler(_gui);
// Register the input devices that are not already given.
_gamePad = GetDevice <GamePadDevice>(0);
AABBCalculator aabbc = new AABBCalculator(_scene);
var bbox = aabbc.GetBox();
if (bbox != null)
{
// If the model origin is more than one third away from its bounding box,
// recenter it to the bounding box. Do this check individually per dimension.
// This way, small deviations will keep the model's original center, while big deviations
// will make the model rotate around its geometric center.
float3 bbCenter = bbox.Value.Center;
float3 bbSize = bbox.Value.Size;
float3 center = float3.Zero;
if (System.Math.Abs(bbCenter.x) > bbSize.x * 0.3)
{
center.x = bbCenter.x;
}
if (System.Math.Abs(bbCenter.y) > bbSize.y * 0.3)
{
center.y = bbCenter.y;
}
if (System.Math.Abs(bbCenter.z) > bbSize.z * 0.3)
{
center.z = bbCenter.z;
}
_sceneCenter = float4x4.CreateTranslation(-center);
// Adjust the model size
float maxScale = System.Math.Max(bbSize.x, System.Math.Max(bbSize.y, bbSize.z));
if (maxScale != 0)
{
_sceneScale = float4x4.CreateScale(200.0f / maxScale);
}
else
{
_sceneScale = float4x4.Identity;
}
}
// Wrap a SceneRenderer around the model.
_sceneRenderer = new SceneRendererForward(_scene);
_guiRenderer = new SceneRendererForward(_gui);
}
// Init is called on startup.
public override void Init()
{
// Initial "Zoom" value (it's rather the distance in view direction, not the camera's focal distance/opening angle)
_zoom = 400;
_angleRoll = 0;
_angleRollInit = 0;
_twoTouchRepeated = false;
_offset = float2.Zero;
_offsetInit = float2.Zero;
// Set the clear color for the backbuffer to white (100% intentsity in all color channels R, G, B, A).
RC.ClearColor = new float4(1, 1, 1, 1);
// Load the standard model
_scene = AssetStorage.Get <SceneContainer>(ModelFile);
//TODO: export the correct material - with bump channel - from blender exporter
//Problem: because of the initial scene convert in main.cs we do not have a material component but a shader effect here
//_scene.Children[0].GetComponent<MaterialComponent>().Bump = new BumpChannelContainer
//{
// Intensity = 0.5f,
// Texture = "bump.png"
//};
//_scene.Children[0].Children[1].GetComponent<MaterialComponent>().Bump = new BumpChannelContainer
//{
// Intensity = 1.0f,
// Texture = "bump.png"
//};
AABBCalculator aabbc = new AABBCalculator(_scene);
var bbox = aabbc.GetBox();
if (bbox != null)
{
// If the model origin is more than one third away from its bounding box,
// recenter it to the bounding box. Do this check individually per dimension.
// This way, small deviations will keep the model's original center, while big deviations
// will make the model rotate around its geometric center.
float3 bbCenter = bbox.Value.Center;
float3 bbSize = bbox.Value.Size;
float3 center = float3.Zero;
if (System.Math.Abs(bbCenter.x) > bbSize.x * 0.3)
{
center.x = bbCenter.x;
}
if (System.Math.Abs(bbCenter.y) > bbSize.y * 0.3)
{
center.y = bbCenter.y;
}
if (System.Math.Abs(bbCenter.z) > bbSize.z * 0.3)
{
center.z = bbCenter.z;
}
_sceneCenter = float4x4.CreateTranslation(-center);
// Adjust the model size
float maxScale = System.Math.Max(bbSize.x, System.Math.Max(bbSize.y, bbSize.z));
if (maxScale != 0)
{
_sceneScale = float4x4.CreateScale(200.0f / maxScale);
}
else
{
_sceneScale = float4x4.Identity;
}
}
var projComp = _scene.Children[0].GetComponent <ProjectionComponent>();
AddResizeDelegate(delegate { projComp.Resize(Width, Height); });
// Wrap a SceneRenderer around the model.
_sceneRenderer = new SceneRenderer(_scene);
}
// Init is called on startup.
public override void Init()
{
// Initial "Zoom" value (it's rather the distance in view direction, not the camera's focal distance/opening angle)
_zoom = 400;
_angleRoll = 0;
_angleRollInit = 0;
_twoTouchRepeated = false;
_offset = float2.Zero;
_offsetInit = float2.Zero;
// Set the clear color for the back buffer to white (100% intensity in all color channels R, G, B, A).
RC.ClearColor = new float4(1, 1, 1, 1);
// Load the standard model
_scene = new SceneContainer
{
Children = new List <SceneNodeContainer>
{
new SceneNodeContainer
{
Components = new List <SceneComponentContainer>
{
new TransformComponent
{
Rotation = float3.Zero,
Translation = new float3(0, 0, 0),
Scale = float3.One
},
new BoneComponent()
},
Children = new ChildList()
{
new SceneNodeContainer
{
Components = new List <SceneComponentContainer>
{
new TransformComponent
{
Rotation = float3.Zero,
Translation = new float3(0, 0.5f, 0),
Scale = float3.One
},
new BoneComponent(),
new WeightComponent(),
new MaterialComponent
{
Diffuse = new MatChannelContainer
{
Color = new float4(1.0f, 0.4f, 0.2f, 1.0f)
}
},
CreateCuboid(float3.One)
}
}
}
}
}
};
_scene = AssetStorage.Get <SceneContainer>("BoneAnim.fus");
// convert scene graph is not called in this project, so we can add a bone animation
// then add a weightcomponent with weight matrices etc:
// binding matrices is the start point of every transformation
// as many entries as vertices are present in current model
//var cube = _scene.Children[0].GetComponent<Mesh>();
//var vertexCount = cube.Vertices.Length;
//var bindingMatrices = new List<float4x4>();
//for (var i = 0; i < vertexCount; i++)
//{
// bindingMatrices.Add(float4x4.Identity);
//}
var mesh = _scene.Children[1].Children[2].GetComponent <Mesh>();
var wm = _scene.Children[1].Children[2].GetComponent <WeightComponent>();
var WeightMap = new List <VertexWeightList>();
for (var i = 0; i < mesh.Vertices.Length; i++)
{
WeightMap.Add(new VertexWeightList
{
VertexWeights = new List <VertexWeight>
{
new VertexWeight
{
JointIndex = 0,
Weight = (mesh.Vertices[i].y > 0 ? 1: 0f)
},
new VertexWeight()
{
JointIndex = 1,
Weight = (mesh.Vertices[i].y <= 0 ? 1f: 0f)
}
}
});
}
wm.WeightMap = WeightMap;
var weightMapFromScene = _scene.Children[1].Children[2].Components[1];
//_scene.Children.Insert(0, new SceneNodeContainer()
//{
// Name = "BoneContainer1",
// Components = new List<SceneComponentContainer>()
// {
// new TransformComponent()
// {
// Translation = new float3(0, 2, 0),
// Scale = new float3(1, 1, 1)
// },
// },
// Children = new ChildList
// {
// new SceneNodeContainer()
// {
// Components = new List<SceneComponentContainer>
// {
// new TransformComponent
// {
// Translation = new float3(0, -1f, 0),
// Scale = new float3(1, 2, 1)
// },
// new BoneComponent(),
// new Cube()
// }
// },
// new SceneNodeContainer()
// {
// Name = "BoneContainer2",
// Components = new List<SceneComponentContainer>
// {
// new TransformComponent
// {
// Translation = new float3(0, -2, 0),
// Scale = new float3(1, 2, 1)
// },
// },
// Children = new ChildList
// {
// new SceneNodeContainer
// {
// Components = new List<SceneComponentContainer>()
// {
// new TransformComponent()
// {
// Translation = new float3(0, -0.5f, 0),
// Scale = new float3(1,1,1)
// },
// new BoneComponent(),
// new Cube()
// }
// }
// }
// }
// }
//});
//_scene.Children[1].Components.Insert(1, new WeightComponent
//{
// BindingMatrices = bindingMatrices,
// WeightMap = WeightMap
// // Joints are added automatically during scene conversion (ConvertSceneGraph)
//});
////_scene = AssetStorage.Get<SceneContainer>("BoneAnim.fus");
//// now we can convert the scene
//_scene = new ConvertSceneGraph().Convert(_scene);
AABBCalculator aabbc = new AABBCalculator(_scene);
var bbox = aabbc.GetBox();
if (bbox != null)
{
// If the model origin is more than one third away from its bounding box,
// recenter it to the bounding box. Do this check individually per dimension.
// This way, small deviations will keep the model's original center, while big deviations
// will make the model rotate around its geometric center.
float3 bbCenter = bbox.Value.Center;
float3 bbSize = bbox.Value.Size;
float3 center = float3.Zero;
if (System.Math.Abs(bbCenter.x) > bbSize.x * 0.3)
{
center.x = bbCenter.x;
}
if (System.Math.Abs(bbCenter.y) > bbSize.y * 0.3)
{
center.y = bbCenter.y;
}
if (System.Math.Abs(bbCenter.z) > bbSize.z * 0.3)
{
center.z = bbCenter.z;
}
_sceneCenter = float4x4.CreateTranslation(-center);
// Adjust the model size
float maxScale = System.Math.Max(bbSize.x, System.Math.Max(bbSize.y, bbSize.z));
if (maxScale != 0)
{
_sceneScale = float4x4.CreateScale(200.0f / maxScale);
}
else
{
_sceneScale = float4x4.Identity;
}
}
var projComp = _scene.Children[0].GetComponent <ProjectionComponent>();
AddResizeDelegate(delegate { projComp.Resize(Width, Height); });
// Wrap a SceneRenderer around the model.
_sceneRenderer = new SceneRenderer(_scene);
}
// Init is called on startup.
public override void Init()
{
_guiHandler = new GUIHandler();
_guiHandler.AttachToContext(RC);
_guiFuseeLink = new GUIButton(6, 6, 253, 221);
_guiFuseeLink.ButtonColor = new float4(0, 0, 0, 0);
_guiFuseeLink.BorderColor = new float4(0.6f, 0.2f, 0.2f, 1);
_guiFuseeLink.BorderWidth = 0;
_guiFuseeLink.OnGUIButtonDown += _guiFuseeLink_OnGUIButtonDown;
_guiFuseeLink.OnGUIButtonEnter += _guiFuseeLink_OnGUIButtonEnter;
_guiFuseeLink.OnGUIButtonLeave += _guiFuseeLink_OnGUIButtonLeave;
_guiHandler.Add(_guiFuseeLink);
_guiFuseeLogo = new GUIImage(AssetStorage.Get <ImageData>("ClickMe.png"), 10, 10, -5, 253, 221);
_guiHandler.Add(_guiFuseeLogo);
var fontLato = AssetStorage.Get <Font>("Lato-Black.ttf");
fontLato.UseKerning = true;
_guiLatoBlack = new FontMap(fontLato, 64);
_guiSubText = new GUIText(Ticker.CurrentText, _guiLatoBlack, 100, 100);
_guiSubText.TextColor = new float4(0, 0, 0.15f, 0.8f);
_guiHandler.Add(_guiSubText);
_subtextWidth = GUIText.GetTextWidth(_guiSubText.Text, _guiLatoBlack);
_subtextHeight = GUIText.GetTextHeight(_guiSubText.Text, _guiLatoBlack);
// Initial "Zoom" value (it's rather the distance in view direction, not the camera's focal distance/opening angle)
_zoom = 400;
_angleRoll = 0;
_angleRollInit = 0;
_twoTouchRepeated = false;
_offset = float2.Zero;
_offsetInit = float2.Zero;
// Set the clear color for the backbuffer to white (100% intentsity in all color channels R, G, B, A).
RC.ClearColor = new float4(1, 1, 1, 1);
// Load the standard model
_scene = AssetStorage.Get <SceneContainer>("Model.fus");
AABBCalculator aabbc = new AABBCalculator(_scene);
var bbox = aabbc.GetBox();
if (bbox != null)
{
// If the model origin is more than one third away from its bounding box,
// recenter it to the bounding box. Do this check individually per dimension.
// This way, small deviations will keep the model's original center, while big deviations
// will make the model rotating around its geometric center.
float3 bbCenter = bbox.Value.Center;
float3 bbSize = bbox.Value.Size;
float3 center = float3.Zero;
if (System.Math.Abs(bbCenter.x) > bbSize.x * 0.3)
{
center.x = bbCenter.x;
}
if (System.Math.Abs(bbCenter.y) > bbSize.y * 0.3)
{
center.y = bbCenter.y;
}
if (System.Math.Abs(bbCenter.z) > bbSize.z * 0.3)
{
center.z = bbCenter.z;
}
_sceneCenter = float4x4.CreateTranslation(-center);
// Adjust the model size
float maxScale = System.Math.Max(bbSize.x, System.Math.Max(bbSize.y, bbSize.z));
if (maxScale != 0)
{
_sceneScale = float4x4.CreateScale(200.0f / maxScale);
}
else
{
_sceneScale = float4x4.Identity;
}
}
// Wrap a SceneRenderer around the model.
_sceneRenderer = new SceneRenderer(_scene);
}
// Init is called on startup.
public override void Init()
{
Diagnostics.Warn("[05/2020] Bone animation is disabled for now due to the Blender exporter not be able to export bones!");
// Initial "Zoom" value (it's rather the distance in view direction, not the camera's focal distance/opening angle)
_zoom = 400;
_angleRoll = 0;
_angleRollInit = 0;
_twoTouchRepeated = false;
_offset = float2.Zero;
_offsetInit = float2.Zero;
// Set the clear color for the back buffer to white (100% intensity in all color channels R, G, B, A).
RC.ClearColor = float4.One;
// Load the standard model
_scene = AssetStorage.Get <SceneContainer>("BoneAnim.fus");
_gui = CreateGui();
#region LEGACY CODE - REFERENCE ONLY!
/*
* =====================================================================================
* // then add a weightcomponent with weight matrices etc:
* // binding matrices is the start point of every transformation
* // as many entries as vertices are present in current model
* var cube = _scene.Children[0].GetComponent<Mesh>();
* var vertexCount = cube.Vertices.Length;
*
* var bindingMatrices = new List<float4x4>();
* for (var i = 0; i < vertexCount; i++)
* {
* bindingMatrices.Add(float4x4.Identity);
* }
* Mesh mesh = _scene.Children[1].Children[2].GetComponent<Mesh>();
* Weight wm = _scene.Children[1].Children[2].GetComponent<Weight>();
* List<VertexWeightList> WeightMap = new List<VertexWeightList>();
* for (int i = 0; i < mesh.Vertices.Length; i++)
* {
* WeightMap.Add(new VertexWeightList
* {
* VertexWeights = new List<VertexWeight>
* {
* new VertexWeight
* {
* JointIndex = 0,
* Weight = (mesh.Vertices[i].y > 0 ? 1: 0f)
* },
* new VertexWeight()
* {
* JointIndex = 1,
* Weight = (mesh.Vertices[i].y <= 0 ? 1f: 0f)
* }
* }
* });
* }
* wm.WeightMap = WeightMap;
* SceneComponent weightMapFromScene = _scene.Children[1].Children[2].Components[1];
*
* _scene.Children.Insert(0, new SceneNode()
* {
* Name = "BoneContainer1",
* Components = new List<SceneComponentContainer>()
* {
* new TransformComponent()
* {
* Translation = new float3(0, 2, 0),
* Scale = new float3(1, 1, 1)
* },
*
* },
* Children = new ChildList
* {
* new SceneNode()
* {
* Components = new List<SceneComponentContainer>
* {
* new TransformComponent
* {
* Translation = new float3(0, -1f, 0),
* Scale = new float3(1, 2, 1)
* },
* new BoneComponent(),
* new Cube()
* }
* },
*
* new SceneNode()
* {
* Name = "BoneContainer2",
* Components = new List<SceneComponentContainer>
* {
* new TransformComponent
* {
* Translation = new float3(0, -2, 0),
* Scale = new float3(1, 2, 1)
* },
*
* },
*
* Children = new ChildList
* {
* new SceneNode
* {
* Components = new List<SceneComponentContainer>()
* {
* new TransformComponent()
* {
* Translation = new float3(0, -0.5f, 0),
* Scale = new float3(1,1,1)
* },
* new BoneComponent(),
* new Cube()
* }
* }
* }
*
* }
* }
*
* });
*
* _scene.Children[1].Components.Insert(1, new WeightComponent
* {
* BindingMatrices = bindingMatrices,
* WeightMap = WeightMap
* // Joints are added automatically during scene conversion (ConvertSceneGraph)
* });
*
*/
#endregion
AABBCalculator aabbc = new AABBCalculator(_scene);
AABBf? bbox = aabbc.GetBox();
if (bbox != null)
{
// If the model origin is more than one third away from its bounding box,
// recenter it to the bounding box. Do this check individually per dimension.
// This way, small deviations will keep the model's original center, while big deviations
// will make the model rotate around its geometric center.
var bbCenter = bbox.Value.Center;
var bbSize = bbox.Value.Size;
var center = float3.Zero;
if (System.Math.Abs(bbCenter.x) > bbSize.x * 0.3)
{
center.x = bbCenter.x;
}
if (System.Math.Abs(bbCenter.y) > bbSize.y * 0.3)
{
center.y = bbCenter.y;
}
if (System.Math.Abs(bbCenter.z) > bbSize.z * 0.3)
{
center.z = bbCenter.z;
}
_sceneCenter = float4x4.CreateTranslation(-center);
// Adjust the model size
var maxScale = System.Math.Max(bbSize.x, System.Math.Max(bbSize.y, bbSize.z));
if (maxScale != 0)
{
_sceneScale = float4x4.CreateScale(200.0f / maxScale);
}
else
{
_sceneScale = float4x4.Identity;
}
}
// Wrap a SceneRenderer around the model.
_sceneRenderer = new SceneRendererForward(_scene);
_guiRenderer = new SceneRendererForward(_gui);
}
// Init is called on startup.
public override void Init()
{
// Initial "Zoom" value (it's rather the distance in view direction, not the camera's focal distance/opening angle)
_zoom = 2;
_angleRoll = 0;
_angleRollInit = 0;
_twoTouchRepeated = false;
_offset = float2.Zero;
_offsetInit = float2.Zero;
// Set the clear color for the backbuffer to white (100% intensity in all color channels R, G, B, A).
RC.ClearColor = new float4(1, 1, 1, 1);
_meshTransform = new Transform();
_scene = new SceneContainer()
{
Children = new List <SceneNode>()
{
new SceneNode()
{
Components = new List <SceneComponent>()
{
_meshTransform,
new Plane()
}
}
}
};
var albedoTex = new Texture(AssetStorage.Get <ImageData>("Bricks_1K_Color.png"));
var normalTex = new Texture(AssetStorage.Get <ImageData>("Bricks_1K_Normal.png"));
var normalMappingEffect = MakeEffect.FromDiffuseSpecularTexture(float4.One, float4.Zero, albedoTex, normalTex, 1.0f, new float2(2, 2), 85, 0.2f, 0.3f);
normalMappingEffect.RendererStates.AlphaBlendEnable = true;
normalMappingEffect.RendererStates.SourceBlend = Blend.SourceAlpha;
normalMappingEffect.RendererStates.DestinationBlend = Blend.InverseSourceAlpha;
normalMappingEffect.RendererStates.BlendOperation = BlendOperation.Add;
_mesh = _scene.Children[0].GetComponent <Plane>();
_mesh.Tangents = _mesh.CalculateTangents();
_mesh.BiTangents = _mesh.CalculateBiTangents();
_scene.Children[0].Components.Insert(1, normalMappingEffect);
AABBCalculator aabbc = new AABBCalculator(_scene);
AABBf? bbox = aabbc.GetBox();
if (bbox != null)
{
// If the model origin is more than one third away from its bounding box,
// recenter it to the bounding box. Do this check individually per dimension.
// This way, small deviations will keep the model's original center, while big deviations
// will make the model rotate around its geometric center.
float3 bbCenter = bbox.Value.Center;
float3 bbSize = bbox.Value.Size;
float3 center = float3.Zero;
if (System.Math.Abs(bbCenter.x) > bbSize.x * 0.3)
{
center.x = bbCenter.x;
}
if (System.Math.Abs(bbCenter.y) > bbSize.y * 0.3)
{
center.y = bbCenter.y;
}
if (System.Math.Abs(bbCenter.z) > bbSize.z * 0.3)
{
center.z = bbCenter.z;
}
_sceneCenter = float4x4.CreateTranslation(-center);
// Adjust the model size
float maxScale = System.Math.Max(bbSize.x, System.Math.Max(bbSize.y, bbSize.z));
if (maxScale != 0)
{
_sceneScale = float4x4.CreateScale(200.0f / maxScale);
}
else
{
_sceneScale = float4x4.Identity;
}
}
// Wrap a SceneRenderer around the model.
_sceneRenderer = new SceneRendererForward(_scene);
}
// Init is called on startup.
public override void Init()
{
_gui = CreateGui();
// Create the interaction handler
_sih = new SceneInteractionHandler(_gui);
// Initial "Zoom" value (it's rather the distance in view direction, not the camera's focal distance/opening angle)
_zoom = 400;
_angleRoll = 0;
_angleRollInit = 0;
_twoTouchRepeated = false;
_offset = float2.Zero;
_offsetInit = float2.Zero;
// Set the clear color for the back buffer to white (100% intensity in all color channels R, G, B, A).
RC.ClearColor = new float4(1, 1, 1, 1);
//----- DUMMY SCENE BELOW - use the fus file when the exporter is able to export bones again ---- //
//_scene = AssetStorage.Get<SceneContainer>("BoneAnim.fus");
_scene = new SceneContainer
{
Children = new List <SceneNode>
{
new SceneNode
{
Components = new List <SceneComponent>
{
new Transform
{
Rotation = float3.Zero,
Translation = new float3(0, 0, 0),
Scale = float3.One
},
new Engine.Core.Scene.Bone()
},
Children = new ChildList()
{
new SceneNode
{
Components = new List <SceneComponent>
{
new Transform
{
Rotation = float3.Zero,
Translation = new float3(0, 0.5f, 0),
Scale = new float3(10, 100, 10)
},
new Engine.Core.Scene.Bone(),
new Weight(),
ShaderCodeBuilder.MakeShaderEffect(albedoColor: new float4(1.0f, 0.4f, 0.2f, 1.0f)),
new Cube()
}
}
}
}
}
};
var mesh = _scene.Children[0].Children[0].GetComponent <Cube>();
var wm = _scene.Children[0].Children[0].GetComponent <Weight>();
var WeightMap = new List <VertexWeightList>();
for (var i = 0; i < mesh.Vertices.Length; i++)
{
WeightMap.Add(new VertexWeightList
{
VertexWeights = new List <VertexWeight>
{
new VertexWeight
{
JointIndex = 0,
Weight = (mesh.Vertices[i].y > 0 ? 1: 0f)
},
new VertexWeight()
{
JointIndex = 1,
Weight = (mesh.Vertices[i].y <= 0 ? 1f: 0f)
}
}
});
}
wm.WeightMap = WeightMap;
var weightMapFromScene = _scene.Children[0].Children[0].Components[1];
#region LEGACY / REFERENCE CODE
// Add a weightcomponent with weight matrices etc:
// binding matrices is the start point of every transformation
// as many entries as vertices are present in current model
//var cube = _scene.Children[0].GetComponent<Mesh>();
//var vertexCount = cube.Vertices.Length;
//var bindingMatrices = new List<float4x4>();
//for (var i = 0; i < vertexCount; i++)
//{
// bindingMatrices.Add(float4x4.Identity);
//}
//_scene.Children.Insert(0, new SceneNode()
//{
// Name = "BoneContainer1",
// Components = new List<SceneComponentContainer>()
// {
// new TransformComponent()
// {
// Translation = new float3(0, 2, 0),
// Scale = new float3(1, 1, 1)
// },
// },
// Children = new ChildList
// {
// new SceneNode()
// {
// Components = new List<SceneComponentContainer>
// {
// new TransformComponent
// {
// Translation = new float3(0, -1f, 0),
// Scale = new float3(1, 2, 1)
// },
// new BoneComponent(),
// new Cube()
// }
// },
// new SceneNode()
// {
// Name = "BoneContainer2",
// Components = new List<SceneComponentContainer>
// {
// new TransformComponent
// {
// Translation = new float3(0, -2, 0),
// Scale = new float3(1, 2, 1)
// },
// },
// Children = new ChildList
// {
// new SceneNode
// {
// Components = new List<SceneComponentContainer>()
// {
// new TransformComponent()
// {
// Translation = new float3(0, -0.5f, 0),
// Scale = new float3(1,1,1)
// },
// new BoneComponent(),
// new Cube()
// }
// }
// }
// }
// }
//});
//_scene.Children[1].Components.Insert(1, new WeightComponent
//{
// BindingMatrices = bindingMatrices,
// WeightMap = WeightMap
// // Joints are added automatically during scene conversion (ConvertSceneGraph)
//});
#endregion
var aabbc = new AABBCalculator(_scene);
var bbox = aabbc.GetBox();
if (bbox != null)
{
// If the model origin is more than one third away from its bounding box,
// recenter it to the bounding box. Do this check individually per dimension.
// This way, small deviations will keep the model's original center, while big deviations
// will make the model rotate around its geometric center.
var bbCenter = bbox.Value.Center;
var bbSize = bbox.Value.Size;
var center = float3.Zero;
if (System.Math.Abs(bbCenter.x) > bbSize.x * 0.3)
{
center.x = bbCenter.x;
}
if (System.Math.Abs(bbCenter.y) > bbSize.y * 0.3)
{
center.y = bbCenter.y;
}
if (System.Math.Abs(bbCenter.z) > bbSize.z * 0.3)
{
center.z = bbCenter.z;
}
_sceneCenter = float4x4.CreateTranslation(-center);
// Adjust the model size
var maxScale = System.Math.Max(bbSize.x, System.Math.Max(bbSize.y, bbSize.z));
if (maxScale != 0)
{
_sceneScale = float4x4.CreateScale(200.0f / maxScale);
}
else
{
_sceneScale = float4x4.Identity;
}
}
// Wrap a SceneRenderer around the model.
_sceneRenderer = new SceneRendererForward(_scene);
_guiRenderer = new SceneRendererForward(_gui);
}
