/// <summary>
/// Initializes a new instance of the AvateeringXNA class.
/// </summary>
public AvateeringXNA()
{
this.Window.Title = "Avateering";
this.IsFixedTimeStep = false;
this.IsMouseVisible = true;
// Setup the graphics device for rendering
this.graphics = new GraphicsDeviceManager(this);
this.SetScreenMode();
this.graphics.PreparingDeviceSettings += this.GraphicsDevicePreparingDeviceSettings;
this.graphics.SynchronizeWithVerticalRetrace = true;
Content.RootDirectory = "Content";
// The Kinect sensor will use 640x480 for the color stream (default) and 320x240 for depth
this.chooser = new KinectChooser(this, ColorImageFormat.RgbResolution640x480Fps30, DepthImageFormat.Resolution320x240Fps30);
this.Services.AddService(typeof(KinectChooser), this.chooser);
// Optionally set near mode for close range avateering (0.4m up to 3m)
this.chooser.NearMode = false;
// Optionally set seated mode for upper-body only tracking here (typically used with near mode for close to camera tracking)
this.chooser.SeatedMode = false;
// Adding these objects as XNA Game components enables automatic calls to the overridden LoadContent, Update, etc.. methods
this.Components.Add(this.chooser);
// Create a ground plane for the model to stand on
this.planarXzGrid = new GridXz(this, new Vector3(0, 0, 0), new Vector2(500, 500), new Vector2(10, 10), Color.Black);
this.Components.Add(this.planarXzGrid);
this.drawGrid = true;
this.worldAxes = new CoordinateCross(this, 500);
this.Components.Add(this.worldAxes);
// Create the avatar animator
this.animator = new AvatarAnimator(this, this.RetargetMatrixHierarchyToAvatarMesh);
this.Components.Add(this.animator);
// Create the bag animator
this.bagAnimator = new BagAnimator(this);
this.Components.Add(this.bagAnimator);
// Drawing options
this.setSeatedPostureInSeatedMode = true;
this.drawAvatarOnlyWhenPlayerDetected = true;
this.skeletonDetected = false;
this.leanAdjust = true;
// Here we can force the avatar to be drawn at fixed height in the XNA virtual world.
// The reason we may use this is because the sensor height above the physical floor
// and the feet locations are not always known. Hence the avatar cannot be correctly
// placed on the ground plane or will be very jumpy.
// Note: this will prevent the avatar from jumping and crouching.
this.fixAvatarHipCenterDrawHeight = true;
this.avatarHipCenterDrawHeight = 0.8f; // in meters
// Setup the depth stream
this.depthStream = new DepthStreamRenderer(this);
// Setup the skeleton stream the same as depth stream
this.skeletonStream = new SkeletonStreamRenderer(this, this.SkeletonToDepthMap);
// Update Depth and Skeleton Stream size and location based on the back-buffer
this.UpdateStreamSizeAndLocation();
this.previousKeyboard = Keyboard.GetState();
}
/// <summary>
/// Initializes une nouvelle instance de la classe AvateeringXNA.
/// </summary>
public AvateeringXNA()
{
this.Window.Title = "Avateering";
this.IsFixedTimeStep = false;
this.IsMouseVisible = true;
// Configure le périphérique graphique pour le rendu
this.graphics = new GraphicsDeviceManager(this);
this.SetScreenMode();
this.graphics.PreparingDeviceSettings += this.GraphicsDevicePreparingDeviceSettings;
this.graphics.SynchronizeWithVerticalRetrace = true;
Content.RootDirectory = "Content";
//Le capteur de la kinect utilisera 640*480 pour le flux de couleur (par défaut) et 320*240 pour la profondeur
this.chooser = new KinectChooser(this, ColorImageFormat.RgbResolution640x480Fps30, DepthImageFormat.Resolution320x240Fps30);
this.Services.AddService(typeof(KinectChooser), this.chooser);
// Met Optionellement le mode de près pour vue de près (de 0.4m à 3m)
this.chooser.NearMode = false;
// Pour Optionnellement régler le mode assis pour le haut du corps seulement (généralement utilisé avec le mode de près de la caméra)
this.chooser.SeatedMode = false;
// Ajouter ces objets comme des composants de jeux XNA établit des appels automatiques aux méthodes LoadContent, Update, etc..
this.Components.Add(this.chooser);
// Créele plan sur lequel se tient le modèle.
this.planarXzGrid = new GridXz(this, new Vector3(0, 0, 0), new Vector2(500, 500), new Vector2(10, 10), Color.Black);
this.Components.Add(this.planarXzGrid);
this.drawGrid = true;
this.worldAxes = new CoordinateCross(this, 500);
this.Components.Add(this.worldAxes);
// Crée l'animateur du modèle.
this.animator = new AvatarAnimator(this, this.RetargetMatrixHierarchyToAvatarMesh, AvateeringXNA.SkeletonTranslationScaleFactor);
this.Components.Add(this.animator);
// Options de dessin.
this.setSeatedPostureInSeatedMode = true;
this.drawAvatarOnlyWhenPlayerDetected = true;
this.skeletonDetected = false;
this.leanAdjust = true;
// Ici, on peut forcer l'avatar à être dessiné à une hauteur fixe dans le monde virtuel XNA.
// La raison pour laquelle on utilise ceci est que la hauteur par rapport au plancher n'est pas toujours connue,
// et si l'avatar n'est pas correctement placé, il ne fera que sautiller.
this.fixAvatarHipCenterDrawHeight = true;
this.avatarHipCenterDrawHeight = 0.8f; // in meters
// Met en place le flux de profondeur.
this.depthStream = new DepthStreamRenderer(this);
//Pour la couleur
this.colorStream = new ColorStreamRenderer(this);
// Met en place le flux du squelette.
this.skeletonStream = new SkeletonStreamRenderer(this, this.SkeletonToDepthMap);
//Met à jour la profondeur, la taille du squelette et la location
this.UpdateStreamSizeAndLocation();
this.previousKeyboard = Keyboard.GetState();
}
/// <summary>
/// Initializes a new instance of the AvatarAnimator class.
/// </summary>
/// <param name="game">The related game object.</param>
/// <param name="retarget">The avatar mesh re-targeting method to convert from the Kinect skeleton.</param>
public AvatarAnimator(Game game, RetargetMatrixHierarchyToAvatarMesh retarget)
: base(game)
{
if (null == game)
{
return;
}
this.retargetMethod = retarget;
this.SkeletonDrawn = true;
this.useKinectAvateering = true;
this.AvatarHipCenterHeight = 0;
// Create local axes inside the model to draw at each joint
this.localAxes = new CoordinateCross(this.Game, 2f);
this.drawLocalAxes = false;
game.Components.Add(this.localAxes);
// If we draw the Kinect 3D skeleton in BoneOrientationConstraints, we can offset it from the original
// hip center position, so as not to draw over the top of the Avatar. Offset defined in m.
this.kinectLineSkeletonWorldOffsetMatrix = Matrix.CreateTranslation(40.0f, 0.75f * 40.0f, 0);
this.drawBoneConstraintsSkeleton = false;
// Skeleton fixups
this.frameTimer = new Timer();
this.lastNuiTime = 0;
this.FloorClipPlane = new Tuple<float, float, float, float>(0, 0, 0, 0);
this.clippedLegs = new SkeletonJointsFilterClippedLegs();
this.sensorOffsetCorrection = new SkeletonJointsSensorOffsetCorrection();
this.jointPositionFilter = new SkeletonJointsPositionDoubleExponentialFilter();
this.boneOrientationConstraints = new BoneOrientationConstraints(game);
this.boneOrientationFilter = new BoneOrientationDoubleExponentialFilter();
this.filterClippedLegs = true;
this.tiltCompensate = true;
this.floorOffsetCompensate = false;
this.selfIntersectionConstraints = true;
this.mirrorView = true;
this.boneConstraints = true;
this.filterBoneOrientations = true;
// For many applications we would enable the
// automatic joint smoothing, however, in this
// Avateering sample, we perform skeleton joint
// position corrections, so we will manually
// filter here after these are complete.
// Typical smoothing parameters for the joints:
var jointPositionSmoothParameters = new TransformSmoothParameters
{
Smoothing = 0.25f,
Correction = 0.25f,
Prediction = 0.75f,
JitterRadius = 0.1f,
MaxDeviationRadius = 0.04f
};
this.jointPositionFilter.Init(jointPositionSmoothParameters);
// Setup the bone orientation constraint system
this.boneOrientationConstraints.AddDefaultConstraints();
game.Components.Add(this.boneOrientationConstraints);
// Typical smoothing parameters for the bone orientations:
var boneOrientationSmoothparameters = new TransformSmoothParameters
{
Smoothing = 0.5f,
Correction = 0.8f,
Prediction = 0.75f,
JitterRadius = 0.1f,
MaxDeviationRadius = 0.1f
};
this.boneOrientationFilter.Init(boneOrientationSmoothparameters);
}
/// <summary>
/// Initializes a new instance of the AvatarAnimator class.
/// </summary>
/// <param name="game">The related game object.</param>
/// <param name="retarget">The avatar mesh re-targeting method to convert from the Kinect skeleton.</param>
public AvatarAnimator(Game game, RetargetMatrixHierarchyToAvatarMesh retarget, Vector3 skeletonTranslationScaleFactor)
: base(game)
{
if (null == game)
{
return;
}
this.SkeletonTranslationScaleFactor = skeletonTranslationScaleFactor;
this.retargetMethod = retarget;
this.SkeletonDrawn = true;
this.useKinectAvateering = true;
this.AvatarHipCenterHeight = 0;
// Create local axes inside the model to draw at each joint
this.localAxes = new CoordinateCross(this.Game, 2f);
this.drawLocalAxes = false;
game.Components.Add(this.localAxes);
// If we draw the Kinect 3D skeleton in BoneOrientationConstraints, we can offset it from the original
// hip center position, so as not to draw over the top of the Avatar. Offset defined in m.
this.kinectLineSkeletonWorldOffsetMatrix = Matrix.CreateTranslation(this.SkeletonTranslationScaleFactor.X, 0.75f * this.SkeletonTranslationScaleFactor.Y, 0);
this.drawBoneConstraintsSkeleton = false;
// Skeleton fixups
this.frameTimer = new Timer();
this.lastNuiTime = 0;
this.FloorClipPlane = new Tuple <float, float, float, float>(0, 0, 0, 0);
this.clippedLegs = new SkeletonJointsFilterClippedLegs();
this.sensorOffsetCorrection = new SkeletonJointsSensorOffsetCorrection();
this.jointPositionFilter = new SkeletonJointsPositionDoubleExponentialFilter();
this.boneOrientationConstraints = new BoneOrientationConstraints(game, this.SkeletonTranslationScaleFactor);
this.boneOrientationFilter = new BoneOrientationDoubleExponentialFilter();
this.filterClippedLegs = true;
this.tiltCompensate = true;
this.floorOffsetCompensate = false;
this.selfIntersectionConstraints = true;
this.mirrorView = true;
this.boneConstraints = true;
this.filterBoneOrientations = true;
// For many applications we would enable the
// automatic joint smoothing, however, in this
// Avateering sample, we perform skeleton joint
// position corrections, so we will manually
// filter here after these are complete.
// Typical smoothing parameters for the joints:
var jointPositionSmoothParameters = new TransformSmoothParameters
{
Smoothing = 0.25f,
Correction = 0.25f,
Prediction = 0.75f,
JitterRadius = 0.1f,
MaxDeviationRadius = 0.04f
};
this.jointPositionFilter.Init(jointPositionSmoothParameters);
// Setup the bone orientation constraint system
this.boneOrientationConstraints.AddDefaultConstraints();
game.Components.Add(this.boneOrientationConstraints);
// Typical smoothing parameters for the bone orientations:
var boneOrientationSmoothparameters = new TransformSmoothParameters
{
Smoothing = 0.5f,
Correction = 0.8f,
Prediction = 0.75f,
JitterRadius = 0.1f,
MaxDeviationRadius = 0.1f
};
this.boneOrientationFilter.Init(boneOrientationSmoothparameters);
}
/// Initializes a new instance of the AvateeringXNA class.
public AvateeringXNA()
{
Window.Title = "Test1";
IsFixedTimeStep = false;
IsMouseVisible = true;
// Components.Add(new FrameRateCounter(this)); - откл. т.к. вызывает баг - меняет порядок отрисовки 3Д объектов
// Setup the graphics device for rendering
graphics = new GraphicsDeviceManager(this);
presentationParameters = new PresentationParameters();
SetScreenMode();
graphics.PreparingDeviceSettings += GraphicsDevicePreparingDeviceSettings;
graphics.SynchronizeWithVerticalRetrace = true;
graphics.PreferMultiSampling = true; // включили anti-aliasing
graphics.SynchronizeWithVerticalRetrace = true;
// presentationParameters.MultiSampleCount = 4;
Content.RootDirectory = "Content";
// The Kinect sensor will use 640x480 for the color stream (default) and 640x480 for depth
chooser = new KinectChooser(this, ColorImageFormat.RgbResolution640x480Fps30, DepthImageFormat.Resolution640x480Fps30);
Services.AddService(typeof(KinectChooser), chooser);
// Optionally set near mode for close range avateering (0.4m up to 3m)
chooser.NearMode = true;
// Optionally set seated mode for upper-body only tracking here (typically used with near mode for close to camera tracking)
chooser.SeatedMode = true;
// Adding these objects as XNA Game components enables automatic calls to the overridden LoadContent, Update, etc.. methods
Components.Add(chooser);
// Create a ground plane for the model to stand on
//planarXzGrid = new GridXz(this, new Vector3(0, 0, 0), new Vector2(500, 500), new Vector2(10, 10), Color.Black);
//Components.Add(planarXzGrid);
//drawGrid = false;
worldAxes = new CoordinateCross(this, 500);
Components.Add(worldAxes);
// Create the avatar animator
//animator = new AvatarAnimator(this, RetargetMatrixHierarchyToAvatarMesh, AvateeringXNA.skeletonTranslationScaleFactor);
//Components.Add(animator);
// Drawing options
skeletonDetected = true;
// Setup the depth stream
depthStream = new DepthStreamRenderer(this);
// Setup the skeleton stream the same as depth stream
skeletonStream = new SkeletonStreamRenderer(this, SkeletonToDepthMap);
// Update Depth and Skeleton Stream size and location based on the back-buffer
UpdateStreamSizeAndLocation();
previousKeyboard = Keyboard.GetState();
previousCollideResult2 = ContainmentType.Disjoint;
CursorRight = new Cursor(this, "cursor_ball");
CursorLeft = new Cursor(this, "cursor_ball");
// Video_box2 = new IconBoxVideo(this, "wildlife1");
// iconboxAudio1 = new IconBoxAudio(this, "Kalimba");
// iconboxPicture1 = new IconBoxPicture(this, "Lighthouse");
// iconboxText1 = new IconBoxText(this);
BossPanel = new MainOperatorPanel(this);
CurrentTask[0] = new Task(this, Task.MediaType.Audio, Task.ManagerStatus.Assigned, Task.ProgressStatus.New, Task.PresentationType.PanelIcon, "Kalimba", 12);
CurrentTask[0].LoadContent(this);
CurrentTask[1] = new Task(this, Task.MediaType.Video, Task.ManagerStatus.NotAssigned, Task.ProgressStatus.New, Task.PresentationType.PanelIcon, "wildlife1", 4);
CurrentTask[1].LoadContent(this);
CurrentTask[2] = new Task(this, Task.MediaType.Picture, Task.ManagerStatus.Finished, Task.ProgressStatus.New, Task.PresentationType.PanelIcon, "Lighthouse", 37);
CurrentTask[2].LoadContent(this);
}
