public static void Destroy()
{
mContentManagerName = null;
mScreenListReference = null;
mPool.Clear();
EntitySpawned = null;
}
public void SaveEmitters(PositionedObjectList<Emitter> emitters, string fileName)
{
EmitterSaveList emitterSaveList = EmitterSaveList.FromEmitterList(EditorData.Emitters);
emitterSaveList.Save(fileName);
#if FRB_MDX
FlatRedBallServices.Owner.Text = "ParticleEditor - Currently editing " + fileName;
#else
FlatRedBallServices.Game.Window.Title = "ParticleEditor - Currently editing " + fileName;
#endif
fileName = FileManager.RemoveExtension(fileName);
EditorData.CurrentEmixFileName = fileName;
EmitterEditorSettingsSave settings = new EmitterEditorSettingsSave();
settings.Camera = CameraSave.FromCamera(Camera.Main);
if (Camera.Main.Orthogonal && Camera.Main.OrthogonalHeight == Camera.Main.DestinationRectangle.Height)
{
settings.Camera.OrthogonalWidth = -1;
settings.Camera.OrthogonalHeight = -1;
}
settings.Save(FileManager.RemoveExtension( fileName ) + ".ess");
}
internal ModelLayer(Camera camera, Layer layer, PositionedObjectList<PositionedModel> models)
{
CurrentItem = 0;
Camera = camera;
Layer = layer;
Models = models;
DrawnThisFrame = false;
}
public void AddAxisAlignedCubeList(PositionedObjectList<FlatRedBall.Math.Geometry.AxisAlignedCube> axisAlignedCubesToAdd)
{
foreach (FlatRedBall.Math.Geometry.AxisAlignedCube cube in axisAlignedCubesToAdd)
{
AxisAlignedCubeSave cubeSave = AxisAlignedCubeSave.FromAxisAlignedCube(cube);
AxisAlignedCubeSaves.Add(cubeSave);
}
}
public void AddPolygonList(PositionedObjectList<FlatRedBall.Math.Geometry.Polygon> polygonsToAdd)
{
foreach (FlatRedBall.Math.Geometry.Polygon polygon in polygonsToAdd)
{
PolygonSave polygonSave = PolygonSave.FromPolygon(polygon);
PolygonSaves.Add(polygonSave);
}
}
public void AddSphereList(PositionedObjectList<Sphere> spheresToAdd)
{
foreach (Sphere sphere in spheresToAdd)
{
SphereSave sphereSave = SphereSave.FromSphere(sphere);
SphereSaves.Add(sphereSave);
}
}
public void AddCircleList(PositionedObjectList<Circle> circlesToAdd)
{
foreach (Circle circle in circlesToAdd)
{
CircleSave circleSave = CircleSave.FromCircle(circle);
CircleSaves.Add(circleSave);
}
}
public void AddAxisAlignedRectangleList(PositionedObjectList<FlatRedBall.Math.Geometry.AxisAlignedRectangle> axisAlignedRectanglesToAdd)
{
foreach (FlatRedBall.Math.Geometry.AxisAlignedRectangle rectangle in axisAlignedRectanglesToAdd)
{
AxisAlignedRectangleSave rectangleSave = AxisAlignedRectangleSave.FromAxisAlignedRectangle(rectangle);
AxisAlignedRectangleSaves.Add(rectangleSave);
}
}
/// <summary>
/// Tests if two vector positions are within line of sight given a collision map.
/// </summary>
/// <param name="position1">The first world-coordinate position.</param>
/// <param name="position2">The second world-coordinate position.</param>
/// <param name="collisionThreshold">Distance from position2 to the polygon it's colliding against.
/// If a polygon is within this threshold, this will return false.</param>
/// <param name="collisionMap">The list of polygons used to test if the two positions are within line of sight.</param>
/// <returns></returns>
#endregion
public static bool IsInLineOfSight(Vector3 position1, Vector3 position2, float collisionThreshold, PositionedObjectList<Polygon> collisionMap)
{
Segment segment = new Segment(new FlatRedBall.Math.Geometry.Point(ref position1),
new FlatRedBall.Math.Geometry.Point(ref position2));
foreach (Polygon polygon in collisionMap)
{
if (polygon.CollideAgainst(segment) ||
(collisionThreshold > 0 && segment.DistanceTo(polygon) < collisionThreshold))
{
return false;
}
}
return true;
}
public static bool TryAssignAttackUnit(bool replace, Unit owner,
PositionedObjectList <Unit> allUnits, float aggroRadius)
{
bool didAssignAttack = false;
float aggroSquared = aggroRadius * aggroRadius;
bool isTargetAnEnemyUnit = !owner.UnitData.IsEnemy;
var foundUnit = allUnits.FirstOrDefault(item =>
(item.Position - owner.Position).LengthSquared() < aggroSquared &&
item.UnitData.IsEnemy == isTargetAnEnemyUnit &&
item.CurrentHealth > 0
);
if (foundUnit != null)
{
owner.AssignAttackGoal(foundUnit, replace);
didAssignAttack = true;
}
return(didAssignAttack);
}
public static object LoadObjectForNos <T>(NamedObjectSave namedObjectSave, IElement elementSave, Layer layerToPutOn,
PositionedObjectList <ElementRuntime> listToPopulate, ElementRuntime elementRuntime) where T : new()
{
if (string.IsNullOrEmpty(namedObjectSave.SourceName) ||
namedObjectSave.SourceName == "<NONE>" ||
namedObjectSave.SetByDerived)
{
return(null);
}
else
{
Type typeOfT = typeof(T);
object toReturn = null;
if (typeOfT == typeof(Scene) || typeOfT == typeof(ShapeCollection) || typeOfT == typeof(EmitterList) || typeOfT == typeof(SplineList))
{
toReturn = LoadObject <T>(namedObjectSave, elementSave, layerToPutOn, listToPopulate, elementRuntime);
}
return(toReturn);
}
}
/// <summary>
/// Calculates the closest visible point to outOfSightPosition given the currentPosition.
/// </summary>
/// <param name="currentPosition">The position with which to test Line Of Sight</param>
/// <param name="inSightPosition">The connector to the outOfSightPosition with which to find midpoint optimizations.</param>
/// <param name="outOfSightPosition">The guide to find the optimal in sight position.</param>
/// <param name="numberOfOptimizations">The number of times we will midpoint optimize, higher means closer to optimal.</param>
/// <param name="collisionThreshold">Usually the object using the path will be larger than 0, use the size of the collision for testing line of sight.</param>
/// <param name="collisionMap">Polygon list which we will use for collision (without it, everything is straight line of sight).</param>
/// <returns></returns>
#endregion
public static Vector3 OptimalVisiblePoint(Vector3 currentPosition,
Vector3 inSightPosition, Vector3 outOfSightPosition, int numberOfOptimizations,
float collisionThreshold, PositionedObjectList <Polygon> collisionMap)
{
Vector3 midpoint = Midpoint(inSightPosition, outOfSightPosition);
while (numberOfOptimizations > 0)
{
if (IsInLineOfSight(currentPosition, midpoint, collisionThreshold, collisionMap))
{ //We see the midpoint
inSightPosition = new Vector3(midpoint.X, midpoint.Y, midpoint.Z);
midpoint = Midpoint(midpoint, outOfSightPosition);
}
else
{ //We can't see the midpoint
outOfSightPosition = new Vector3(midpoint.X, midpoint.Y, midpoint.Z);
midpoint = Midpoint(inSightPosition, outOfSightPosition);
}
numberOfOptimizations--;
}
return(inSightPosition);
}
public PositionedObjectList <Polygon> LoadPolygonList(string name, bool addToShapeManager, bool makeVisible)
{
PolygonSaveList psl = PolygonSaveList.FromFile(name);
PositionedObjectList <Polygon> loadedPolygons = psl.ToPolygonList();
if (addToShapeManager)
{
foreach (Polygon polygon in loadedPolygons)
{
ShapeManager.AddPolygon(polygon);
}
}
foreach (Polygon polygon in loadedPolygons)
{
polygon.Visible = makeVisible;
}
mPolygons.AddRange(loadedPolygons);
return(loadedPolygons);
}
public override void Initialize(bool addToManagers)
{
// Generated Initialize
LoadStaticContent(ContentManagerName);
EnemyInstance = new Pokamen.Entities.Enemy(ContentManagerName, false);
EnemyInstance.Name = "EnemyInstance";
PlayerInstance = new Pokamen.Entities.Player(ContentManagerName, false);
PlayerInstance.Name = "PlayerInstance";
AttackEnemyList = new PositionedObjectList <Pokamen.Entities.AttackEnemy>();
AttackEnemyList.Name = "AttackEnemyList";
AttackPlayerList = new PositionedObjectList <Pokamen.Entities.AttackPlayer>();
AttackPlayerList.Name = "AttackPlayerList";
CursorEntityInstance = new Pokamen.Entities.CursorEntity(ContentManagerName, false);
CursorEntityInstance.Name = "CursorEntityInstance";
LastEnemyMoveText = GameScreenGum.GetGraphicalUiElementByName("LastEnemyMoveText") as Pokamen.GumRuntimes.TextRuntime;
PostInitialize();
base.Initialize(addToManagers);
if (addToManagers)
{
AddToManagers();
}
}
private bool GetIfIsBlocked(TileShapeCollection collision, PositionedObjectList <Character> characters)
{
var isBlocked = collision.CollideAgainst(ForwardCollision);
if (!isBlocked)
{
// If not blocked, check against NPCs
foreach (var npc in characters)
{
// If the NPC is standing still - tests to see if where 'this' is trying to go to
// is already occupied by the NPC
// If the NPC is walking - tests to see if where 'this' is trying to go is where
// the NPC is already going.
if (npc != this && ForwardCollision.CollideAgainst(npc.ForwardCollision))
{
isBlocked = true;
break;
}
}
}
return(isBlocked);
}
public ListBoxBase(GuiSkin guiSkin, Cursor cursor)
: base(guiSkin, cursor)
{
mTexts = new PositionedObjectList<Text>();
mHighlight = new Sprite();
mHighlight.Z = AbsoluteWorldUnitZ - .0001f *
FlatRedBall.Math.MathFunctions.ForwardVector3.Z;
mScrollBar = new ScrollBar(guiSkin, cursor);
AddWindow(mScrollBar);
Initialize();
mScrollBar.SpriteFrame.RelativeZ = -.01f * FlatRedBall.Math.MathFunctions.ForwardVector3.Z;
// Even though the base constructor calls SetSkin, the mTexts are not
// created yet so their font is never set. This set the fonts once again.
mHighlightBar = new SpriteFrame(
guiSkin.WindowSkin.Texture, guiSkin.WindowSkin.BorderSides);
SpriteManager.AddSpriteFrame(mHighlightBar);
mHighlightBar.AttachTo(SpriteFrame, false);
mHighlightBar.RelativeZ = -HighlightBarOffset * Math.MathFunctions.ForwardVector3.Z;
mHighlightBar.Visible = false;
SetSkin(guiSkin);
}
public T LoadFromFile <T>(string assetName)
{
string extension = FileManager.GetExtension(assetName);
if (FileManager.IsRelative(assetName))
{
// get the absolute path using the current relative directory
assetName = FileManager.RelativeDirectory + assetName;
}
string fullNameWithType = assetName + typeof(T).Name;
// get the dictionary by the contentManagerName. If it doesn't exist, GetDisposableDictionaryByName
// will create it.
if (mDisposableDictionary.ContainsKey(fullNameWithType))
{
#if PROFILE
mHistory.Add(new ContentLoadHistory(
TimeManager.CurrentTime, typeof(T).Name, fullNameWithType, ContentLoadDetail.Cached));
#endif
return((T)mDisposableDictionary[fullNameWithType]);
}
else if (mNonDisposableDictionary.ContainsKey(fullNameWithType))
{
return((T)mNonDisposableDictionary[fullNameWithType]);
}
else
{
#if PROFILE
mHistory.Add(new ContentLoadHistory(
TimeManager.CurrentTime,
typeof(T).Name,
fullNameWithType,
ContentLoadDetail.HddFromFile));
#endif
#if DEBUG
// The ThrowExceptionIfFileDoesntExist
// call used to be done before the checks
// in the dictionaries. But whatever is held
// in there may not really be a file so let's check
// if the file exists after we check the dictionaries.
FileManager.ThrowExceptionIfFileDoesntExist(assetName);
#endif
IDisposable loadedAsset = null;
if (typeof(T) == typeof(Texture2D) || typeof(T) == typeof(Microsoft.Xna.Framework.Graphics.Texture2D))
{
// for now we'll create it here, eventually have it in a dictionary:
loadedAsset = textureContentLoader.Load(assetName);
}
#region Scene
else if (typeof(T) == typeof(FlatRedBall.Scene))
{
FlatRedBall.Scene scene = FlatRedBall.Content.Scene.SceneSave.FromFile(assetName).ToScene(mName);
object sceneAsObject = scene;
lock (mNonDisposableDictionary)
{
if (!mNonDisposableDictionary.ContainsKey(fullNameWithType))
{
mNonDisposableDictionary.Add(fullNameWithType, scene);
}
}
return((T)sceneAsObject);
}
#endregion
#region EmitterList
else if (typeof(T) == typeof(EmitterList))
{
EmitterList emitterList = EmitterSaveList.FromFile(assetName).ToEmitterList(mName);
mNonDisposableDictionary.Add(fullNameWithType, emitterList);
return((T)((object)emitterList));
}
#endregion
#region Image
#if !MONOGAME
else if (typeof(T) == typeof(Image))
{
switch (extension.ToLowerInvariant())
{
case "gif":
Image image = Image.FromFile(assetName);
loadedAsset = image;
break;
}
}
#endif
#endregion
#region BitmapList
#if !XBOX360 && !SILVERLIGHT && !WINDOWS_PHONE && !MONOGAME
else if (typeof(T) == typeof(BitmapList))
{
loadedAsset = BitmapList.FromFile(assetName);
}
#endif
#endregion
#region NodeNetwork
else if (typeof(T) == typeof(NodeNetwork))
{
NodeNetwork nodeNetwork = NodeNetworkSave.FromFile(assetName).ToNodeNetwork();
mNonDisposableDictionary.Add(fullNameWithType, nodeNetwork);
return((T)((object)nodeNetwork));
}
#endregion
#region ShapeCollection
else if (typeof(T) == typeof(ShapeCollection))
{
ShapeCollection shapeCollection =
ShapeCollectionSave.FromFile(assetName).ToShapeCollection();
mNonDisposableDictionary.Add(fullNameWithType, shapeCollection);
return((T)((object)shapeCollection));
}
#endregion
#region PositionedObjectList<Polygon>
else if (typeof(T) == typeof(PositionedObjectList <FlatRedBall.Math.Geometry.Polygon>))
{
PositionedObjectList <FlatRedBall.Math.Geometry.Polygon> polygons =
PolygonSaveList.FromFile(assetName).ToPolygonList();
mNonDisposableDictionary.Add(fullNameWithType, polygons);
return((T)((object)polygons));
}
#endregion
#region AnimationChainList
else if (typeof(T) == typeof(AnimationChainList))
{
if (assetName.EndsWith("gif"))
{
#if WINDOWS_8 || UWP || DESKTOP_GL
throw new NotImplementedException();
#else
AnimationChainList acl = new AnimationChainList();
acl.Add(FlatRedBall.Graphics.Animation.AnimationChain.FromGif(assetName, this.mName));
acl[0].ParentGifFileName = assetName;
loadedAsset = acl;
#endif
}
else
{
loadedAsset =
AnimationChainListSave.FromFile(assetName).ToAnimationChainList(mName);
}
mNonDisposableDictionary.Add(fullNameWithType, loadedAsset);
}
#endregion
else if (typeof(T) == typeof(Song))
{
var loader = new SongLoader();
return((T)(object)loader.Load(assetName));
}
#if MONOGAME
else if (typeof(T) == typeof(SoundEffect))
{
T soundEffect;
if (assetName.StartsWith(@".\") || assetName.StartsWith(@"./"))
{
soundEffect = base.Load <T>(assetName.Substring(2));
}
else
{
soundEffect = base.Load <T>(assetName);
}
return(soundEffect);
}
#endif
#region RuntimeCsvRepresentation
#if !SILVERLIGHT
else if (typeof(T) == typeof(RuntimeCsvRepresentation))
{
#if XBOX360
throw new NotImplementedException("Can't load CSV from file. Try instead to use the content pipeline.");
#else
return((T)((object)CsvFileManager.CsvDeserializeToRuntime(assetName)));
#endif
}
#endif
#endregion
#region SplineList
else if (typeof(T) == typeof(List <Spline>))
{
List <Spline> splineList = SplineSaveList.FromFile(assetName).ToSplineList();
mNonDisposableDictionary.Add(fullNameWithType, splineList);
object asObject = splineList;
return((T)asObject);
}
else if (typeof(T) == typeof(SplineList))
{
SplineList splineList = SplineSaveList.FromFile(assetName).ToSplineList();
mNonDisposableDictionary.Add(fullNameWithType, splineList);
object asObject = splineList;
return((T)asObject);
}
#endregion
#region BitmapFont
else if (typeof(T) == typeof(BitmapFont))
{
// We used to assume the texture is named the same as the font file
// But now FRB understands the .fnt file and gets the PNG from the font file
//string pngFile = FileManager.RemoveExtension(assetName) + ".png";
string fntFile = FileManager.RemoveExtension(assetName) + ".fnt";
BitmapFont bitmapFont = new BitmapFont(fntFile, this.mName);
object bitmapFontAsObject = bitmapFont;
return((T)bitmapFontAsObject);
}
#endregion
#region Text
else if (typeof(T) == typeof(string))
{
return((T)((object)FileManager.FromFileText(assetName)));
}
#endregion
#region Catch mistakes
#if DEBUG
else if (typeof(T) == typeof(Spline))
{
throw new Exception("Cannot load Splines. Try using the List<Spline> type instead.");
}
else if (typeof(T) == typeof(Emitter))
{
throw new Exception("Cannot load Emitters. Try using the EmitterList type instead.");
}
#endif
#endregion
#region else, exception!
else
{
throw new NotImplementedException("Cannot load content of type " +
typeof(T).AssemblyQualifiedName + " from file. If you are loading " +
"through the content pipeline be sure to remove the extension of the file " +
"name.");
}
#endregion
if (loadedAsset != null)
{
lock (mDisposableDictionary)
{
// Multiple threads could try to load this content simultaneously
if (!mDisposableDictionary.ContainsKey(fullNameWithType))
{
mDisposableDictionary.Add(fullNameWithType, loadedAsset);
}
}
}
return((T)loadedAsset);
}
}
protected virtual void InitializeEntity(bool addToManagers)
{
// Generated Initialize
LoadStaticContent(ContentManagerName);
HealthBarList = new PositionedObjectList<HealthBar>();
TextObject = new FlatRedBall.Graphics.Text();
PostInitialize();
if (addToManagers)
{
AddToManagers(null);
}
}
public bool Transfering; //if true client will reject all messages
public Client() : base(null)
{
Mobs = new PositionedObjectList<Mob>();
WelcomeMessageTimeout = 2;
Transfering = false;
}
static AudioManager()
{
AreSoundEffectsEnabled = true;
AreSongsEnabled = true;
#if !WINDOWS_PHONE && !MONOGAME && !SILVERLIGHT
SoundListener = new PositionedSoundListener();
PositionedSounds = new PositionedObjectList<PositionedSound>();
#endif
Microsoft.Xna.Framework.Media.MediaPlayer.MediaStateChanged += HandleMediaStateChanged;
}
// List vs. ShapeCollection
public ListVsShapeCollectionRelationship <FirstCollidableT> CreateRelationship <FirstCollidableT>(PositionedObjectList <FirstCollidableT> first, ShapeCollection shapeCollection)
where FirstCollidableT : PositionedObject, ICollidable
{
var relationship = new ListVsShapeCollectionRelationship <FirstCollidableT>(first, shapeCollection);
relationship.Partitions = Partitions;
this.Relationships.Add(relationship);
return(relationship);
}
public static void DeleteCurrentSprites()
{
SpriteList spritesToRemove = new SpriteList();
/*
* May need to delete more Sprites if the selected Sprite is part of a group. But this all depends on whether
* we are in group or hierarchy control mode.
*/
// need to detach the axes, cursorOverBox, targetBox
ClearAttachedMarkers();
#region find out which Sprites are being removed depending on alt and group/hierarchy edit mode
if (GuiData.ToolsWindow.groupHierarchyControlButton.IsPressed) // hierarchy control
{
foreach (Sprite s in mEditorLogic.CurrentSprites)
{
if (spritesToRemove.Contains(s) == false)
{
spritesToRemove.AddOneWay(s);
}
SpriteList tempSpriteArray = new SpriteList();
s.GetAllDescendantsOneWay(tempSpriteArray);
foreach (Sprite childSprite in tempSpriteArray)
{
if (spritesToRemove.Contains(childSprite) == false)
{
spritesToRemove.AddOneWay(childSprite);
}
}
}
}
else
{
PositionedObjectList <Sprite> parentSprites = mEditorLogic.CurrentSprites.GetTopParents();
foreach (Sprite s in parentSprites)
{
if (spritesToRemove.Contains(s) == false)
{
spritesToRemove.AddOneWay(s);
}
SpriteList tempSpriteArray = new SpriteList();
s.GetAllDescendantsOneWay(tempSpriteArray);
foreach (Sprite childSprite in tempSpriteArray)
{
if (spritesToRemove.Contains(childSprite) == false)
{
spritesToRemove.AddOneWay(childSprite);
}
}
}
}
#endregion
DeleteSprites(spritesToRemove, InputManager.Keyboard.KeyDown(Key.LeftAlt) || InputManager.Keyboard.KeyDown(Key.Right));
}
private static void DrawMixed(SpriteList spriteListUnfiltered, SortType sortType,
PositionedObjectList<Text> textListUnfiltered, List<IDrawableBatch> batches,
bool relativeToCamera, Camera camera, Section section)
{
if (section != null)
{
Section.GetAndStartContextAndTime("Start of Draw Mixed");
}
DrawMixedStart(camera);
int spriteIndex = 0;
int textIndex = 0;
int batchIndex = 0;
// The sort values can represent different
// things depending on the sortType argument.
// They can either represent pure Z values or they
// can represent distance from the camera (squared).
// The problem is that a larger Z means closer to the
// camera, but a larger distance means further from the
// camera. Therefore, to fix this problem if these values
// represent distance from camera, they will be multiplied by
// negative 1.
float nextSpriteSortValue = float.PositiveInfinity;
float nextTextSortValue = float.PositiveInfinity;
float nextBatchSortValue = float.PositiveInfinity;
if (section != null)
{
Section.EndContextAndTime();
Section.GetAndStartContextAndTime("Sort Lists");
}
SortAllLists(spriteListUnfiltered, sortType, textListUnfiltered, batches, relativeToCamera, camera);
mVisibleSprites.Clear();
mVisibleTexts.Clear();
for (int i = 0; i < spriteListUnfiltered.Count; i++)
{
Sprite sprite = spriteListUnfiltered[i];
bool isVisible = sprite.AbsoluteVisible &&
(sprite.ColorOperation == ColorOperation.InterpolateColor || sprite.Alpha > .0001) &&
camera.IsSpriteInView(sprite, false);
if (isVisible)
{
mVisibleSprites.Add(sprite);
}
}
for (int i = 0; i < textListUnfiltered.Count; i++)
{
Text text = textListUnfiltered[i];
if (text.AbsoluteVisible && text.Alpha > .0001 && camera.IsTextInView(text))
{
mVisibleTexts.Add(text);
}
}
int indexOfNextSpriteToReposition = 0;
GetNextZValuesByCategory(mVisibleSprites, sortType, mVisibleTexts, batches, camera, ref spriteIndex, ref textIndex, ref nextSpriteSortValue, ref nextTextSortValue, ref nextBatchSortValue);
int numberToDraw = 0;
// This is used as a temporary variable for Z or distance from camera
float sortingValue = 0;
Section performDrawingSection = null;
if (section != null)
{
Section.EndContextAndTime();
performDrawingSection = Section.GetAndStartContextAndTime("Perform Drawing");
}
while (spriteIndex < mVisibleSprites.Count || textIndex < mVisibleTexts.Count ||
(batches != null && batchIndex < batches.Count))
{
#region only 1 array remains to be drawn so finish it off completely
#region Draw Texts
if (spriteIndex >= mVisibleSprites.Count && (batches == null || batchIndex >= batches.Count) &&
textIndex < mVisibleTexts.Count)
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw Texts");
}
if (sortType == SortType.DistanceAlongForwardVector)
{
int temporaryCount = mVisibleTexts.Count;
for (int i = textIndex; i < temporaryCount; i++)
{
mVisibleTexts[i].Position = mVisibleTexts[i].mOldPosition;
}
}
// TEXTS: draw all texts from textIndex to numberOfVisibleTexts - textIndex
DrawTexts(mVisibleTexts, textIndex, mVisibleTexts.Count - textIndex, camera, section);
break;
}
#endregion
#region Draw Sprites
else if (textIndex >= mVisibleTexts.Count && (batches == null || batchIndex >= batches.Count) &&
spriteIndex < mVisibleSprites.Count)
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw Sprites");
}
numberToDraw = mVisibleSprites.Count - spriteIndex;
if (sortType == SortType.DistanceAlongForwardVector)
{
int temporaryCount = mVisibleSprites.Count;
for (int i = indexOfNextSpriteToReposition; i < temporaryCount; i++)
{
mVisibleSprites[i].Position = mVisibleSprites[i].mOldPosition;
indexOfNextSpriteToReposition++;
}
}
PrepareSprites(
mSpriteVertices, mSpriteRenderBreaks,
mVisibleSprites, spriteIndex, numberToDraw
);
DrawSprites(
mSpriteVertices, mSpriteRenderBreaks,
mVisibleSprites, spriteIndex,
numberToDraw, camera);
break;
}
#endregion
#region Draw DrawableBatches
else if (spriteIndex >= mVisibleSprites.Count && textIndex >= mVisibleTexts.Count &&
batches != null && batchIndex < batches.Count)
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw IDrawableBatches");
}
// DRAWABLE BATCHES: Only DrawableBatches remain so draw them all.
while (batchIndex < batches.Count)
{
IDrawableBatch batchAtIndex = batches[batchIndex];
if (batchAtIndex.UpdateEveryFrame)
{
batchAtIndex.Update();
}
if (Renderer.RecordRenderBreaks)
{
// Even though we aren't using a RenderBreak here, we should record a render break
// for this batch as it does cause rendering to be interrupted:
RenderBreak renderBreak = new RenderBreak();
#if DEBUG
renderBreak.ObjectCausingBreak = batchAtIndex;
#endif
renderBreak.LayerName = CurrentLayerName;
LastFrameRenderBreakList.Add(renderBreak);
}
batchAtIndex.Draw(camera);
batchIndex++;
}
FixRenderStatesAfterBatchDraw();
break;
}
#endregion
#endregion
#region more than 1 list remains so find which group of objects to render
#region Sprites
else if (nextSpriteSortValue <= nextTextSortValue && nextSpriteSortValue <= nextBatchSortValue)
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw Sprites");
}
// The next furthest object is a Sprite. Find how many to draw.
#region Count how many Sprites to draw and store it in numberToDraw
numberToDraw = 0;
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector)
sortingValue = mVisibleSprites[spriteIndex + numberToDraw].Position.Z;
else
sortingValue = -(camera.Position - mVisibleSprites[spriteIndex + numberToDraw].Position).LengthSquared();
while (sortingValue <= nextTextSortValue &&
sortingValue <= nextBatchSortValue)
{
numberToDraw++;
if (spriteIndex + numberToDraw == mVisibleSprites.Count)
{
break;
}
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector)
sortingValue = mVisibleSprites[spriteIndex + numberToDraw].Position.Z;
else
sortingValue = -(camera.Position - mVisibleSprites[spriteIndex + numberToDraw].Position).LengthSquared();
}
#endregion
if (sortType == SortType.DistanceAlongForwardVector)
{
for (int i = indexOfNextSpriteToReposition; i < numberToDraw + spriteIndex; i++)
{
mVisibleSprites[i].Position = mVisibleSprites[i].mOldPosition;
indexOfNextSpriteToReposition++;
}
}
PrepareSprites(
mSpriteVertices, mSpriteRenderBreaks,
mVisibleSprites, spriteIndex,
numberToDraw);
DrawSprites(
mSpriteVertices, mSpriteRenderBreaks,
mVisibleSprites, spriteIndex,
numberToDraw, camera);
// numberToDraw represents a range so increase spriteIndex by that amount.
spriteIndex += numberToDraw;
if (spriteIndex >= mVisibleSprites.Count)
{
nextSpriteSortValue = float.PositiveInfinity;
}
else
{
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector)
nextSpriteSortValue = mVisibleSprites[spriteIndex].Position.Z;
else
nextSpriteSortValue = -(camera.Position - mVisibleSprites[spriteIndex].Position).LengthSquared();
}
}
#endregion
#region Texts
else if (nextTextSortValue <= nextSpriteSortValue && nextTextSortValue <= nextBatchSortValue)// draw texts
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw Texts");
}
numberToDraw = 0;
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector)
sortingValue = mVisibleTexts[textIndex + numberToDraw].Position.Z;
else
sortingValue = -(camera.Position - mVisibleTexts[textIndex + numberToDraw].Position).LengthSquared();
while (sortingValue <= nextSpriteSortValue &&
sortingValue <= nextBatchSortValue)
{
numberToDraw++;
if (textIndex + numberToDraw == mVisibleTexts.Count)
{
break;
}
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector)
sortingValue = mVisibleTexts[textIndex + numberToDraw].Position.Z;
else
sortingValue = -(camera.Position - mVisibleTexts[textIndex + numberToDraw].Position).LengthSquared();
}
if (sortType == SortType.DistanceAlongForwardVector)
{
for (int i = textIndex; i < textIndex + numberToDraw; i++)
{
mVisibleTexts[i].Position = mVisibleTexts[i].mOldPosition;
}
}
DrawTexts(mVisibleTexts, textIndex, numberToDraw, camera, section);
textIndex += numberToDraw;
if (textIndex == mVisibleTexts.Count)
nextTextSortValue = float.PositiveInfinity;
else
{
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector)
nextTextSortValue = mVisibleTexts[textIndex].Position.Z;
else
nextTextSortValue = -(camera.Position - mVisibleTexts[textIndex].Position).LengthSquared();
}
}
#endregion
#region Batches
else if (nextBatchSortValue <= nextSpriteSortValue && nextBatchSortValue <= nextTextSortValue)
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw IDrawableBatches");
}
while (nextBatchSortValue <= nextSpriteSortValue && nextBatchSortValue <= nextTextSortValue && batchIndex < batches.Count)
{
IDrawableBatch batchAtIndex = batches[batchIndex];
if (batchAtIndex.UpdateEveryFrame)
{
batchAtIndex.Update();
}
if(Renderer.RecordRenderBreaks)
{
// Even though we aren't using a RenderBreak here, we should record a render break
// for this batch as it does cause rendering to be interrupted:
RenderBreak renderBreak = new RenderBreak();
#if DEBUG
renderBreak.ObjectCausingBreak = batchAtIndex;
#endif
renderBreak.LayerName = CurrentLayerName;
LastFrameRenderBreakList.Add(renderBreak);
}
batchAtIndex.Draw(camera);
batchIndex++;
if (batchIndex == batches.Count)
{
nextBatchSortValue = float.PositiveInfinity;
}
else
{
batchAtIndex = batches[batchIndex];
if (sortType == SortType.Z)
{
nextBatchSortValue = batchAtIndex.Z;
}
else if (sortType == SortType.DistanceAlongForwardVector)
{
Vector3 vectorDifference = new Vector3(
batchAtIndex.X - camera.X,
batchAtIndex.Y - camera.Y,
batchAtIndex.Z - camera.Z);
float firstDistance;
Vector3 forwardVector = camera.RotationMatrix.Forward;
Vector3.Dot(ref vectorDifference, ref forwardVector, out firstDistance);
nextBatchSortValue = -firstDistance;
}
else
{
nextBatchSortValue = -(batchAtIndex.Z * batchAtIndex.Z);
}
}
}
FixRenderStatesAfterBatchDraw();
}
#endregion
#endregion
}
if (section != null)
{
// Hop up a level
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.EndContextAndTime();
Section.GetAndStartContextAndTime("End of Draw Mixed");
}
// return the position of any objects not drawn
if (sortType == SortType.DistanceAlongForwardVector)
{
for (int i = indexOfNextSpriteToReposition; i < mVisibleSprites.Count; i++)
{
mVisibleSprites[i].Position = mVisibleSprites[i].mOldPosition;
}
}
#if !SILVERLIGHT
Renderer.Texture = null;
Renderer.TextureOnDevice = null;
#endif
if (section != null)
{
Section.EndContextAndTime();
}
}
public ResourceCollectHighLevelGoal(Unit owner, TileNodeNetwork nodeNetwork, Vector3 clickPosition, AxisAlignedRectangle targetResourceMergedTile, ResourceType targetResourceType, PositionedObjectList <Building> allBuildings)
{
Owner = owner;
NodeNetwork = nodeNetwork;
TargetResourceMergedTile = targetResourceMergedTile;
TargetResourceType = targetResourceType;
AllBuildings = allBuildings;
// TODO: Handle when we can't get to desired tile (e.g., tree in the middle of forest).
SingleTargetResourceTileCenter = GetSingleTileCenterFromClickPosition(clickPosition);
SingleTargetResourceTile = GetSingleTile(SingleTargetResourceTileCenter);
}
public static void Reset()
{
_potentialTargetList = null;
}
private static LoadedFile LoadObject(NamedObjectSave namedObjectSave, IElement elementSave,
Layer layerToPutOn,
PositionedObjectList <ElementRuntime> listToPopulate, ElementRuntime elementRuntime)
{
int length = namedObjectSave.SourceName.Length;
// need to use the last index of ( in case the name has a "(" in it)
//int indexOfType = namedObjectSave.SourceName.IndexOf("(");
// add 1 to not include the opening paren
int indexOfType = namedObjectSave.SourceName.LastIndexOf("(") + 1;
// subtract 1 to remove the last paren
string objectType = namedObjectSave.SourceName.Substring(indexOfType, length - (indexOfType) - 1);
string sourceFile = namedObjectSave.SourceFile;
bool pullsFromEntireObject = false;
ReferencedFileSave rfs = elementSave.GetReferencedFileSaveRecursively(sourceFile);
var rfsFilePath = ElementRuntime.ContentDirectory + rfs.Name;
// This is the original file that contains the object that is going to be cloned from.
var loadedObjectToPullFrom =
elementRuntime.ReferencedFileRuntimeList.LoadedRfses.FirstOrDefault(item => item.FilePath ==
rfsFilePath);
pullsFromEntireObject = loadedObjectToPullFrom != null;
if (loadedObjectToPullFrom == null)
{
loadedObjectToPullFrom = elementRuntime.ReferencedFileRuntimeList.LoadReferencedFileSave(rfs, true, elementSave);
}
ElementRuntime newElementRuntime = CreateNewOrGetExistingElementRuntime(namedObjectSave, layerToPutOn,
listToPopulate, elementRuntime);
object toAddTo = null;
if (!namedObjectSave.IsEntireFile)
{
// we need to clone the container
toAddTo = newElementRuntime.ReferencedFileRuntimeList.CreateAndAddEmptyCloneOf(loadedObjectToPullFrom);
}
Layer layerToAddTo = GetLayerToAddTo(namedObjectSave, layerToPutOn, elementRuntime);
LoadedFile toReturn = null;
if (loadedObjectToPullFrom != null)
{
// This might be null if the NOS references a file that doesn't exist.
// This is usually not a valid circumstance but it's something that can
// occur with tools modifying the .glux and not properly verifying that the
// file exists. GView should tolerate this invalid definition.
toReturn = CreateRuntimeObjectForNamedObject(namedObjectSave, elementSave, elementRuntime,
objectType,
loadedObjectToPullFrom,
newElementRuntime,
toAddTo,
layerToAddTo, rfs, pullsFromEntireObject);
if (toReturn != null)
{
elementRuntime.ReferencedFileRuntimeList.Add(toReturn);
}
}
newElementRuntime.DirectObjectReference = toReturn?.RuntimeObject;
return(toReturn);
}
private static ElementRuntime CreateNewOrGetExistingElementRuntime(NamedObjectSave namedObjectSave, Layer layerToPutOn, PositionedObjectList <ElementRuntime> listToPopulate, ElementRuntime parent)
{
ElementRuntime newOrExisting = null;
for (int i = 0; i < listToPopulate.Count; i++)
{
if (listToPopulate[i].AssociatedNamedObjectSave == namedObjectSave)
{
newOrExisting = listToPopulate[i];
break;
}
}
if (newOrExisting == null)
{
newOrExisting = new ElementRuntime();
newOrExisting.Initialize(null, layerToPutOn, namedObjectSave, parent.CreationOptions.OnBeforeVariableSet, parent.CreationOptions.OnAfterVariableSet);
newOrExisting.Name = namedObjectSave.InstanceName;
listToPopulate.Add(newOrExisting);
}
return(newOrExisting);
}
public override void Initialize(bool addToManagers)
{
// Generated Initialize
LoadStaticContent(ContentManagerName);
BackgroundFile = FlatRedBallServices.Load<Scene>("content/screens/gamescreen/backgroundfile.scnx", ContentManagerName);
MoonInstance = new Ourobits.Entities.Moon(ContentManagerName, false);
MoonInstance.Name = "MoonInstance";
TrashList = new PositionedObjectList<Trash>();
CannonBarrelInstance = new Ourobits.Entities.CannonBarrel(ContentManagerName, false);
CannonBarrelInstance.Name = "CannonBarrelInstance";
CannonBaseInstance = new Ourobits.Entities.CannonBase(ContentManagerName, false);
CannonBaseInstance.Name = "CannonBaseInstance";
TrashList2 = new PositionedObjectList<Trash2>();
UserArrowInstance = new Ourobits.Entities.UserArrow(ContentManagerName, false);
UserArrowInstance.Name = "UserArrowInstance";
ConveyorInstance = new Ourobits.Entities.Conveyor(ContentManagerName, false);
ConveyorInstance.Name = "ConveyorInstance";
Orbit1Instance = new Ourobits.Entities.Orbit1(ContentManagerName, false);
Orbit1Instance.Name = "Orbit1Instance";
PostInitialize();
base.Initialize(addToManagers);
if (addToManagers)
{
AddToManagers();
}
}
private LoadedFile CreateObjectBasedOnExtension(NamedObjectSave objectToLoad, IElement elementSave, Layer layerToPutOn, PositionedObjectList <ElementRuntime> listToPopulate, string extension)
{
LoadedFile returnObject = null;
if (!string.IsNullOrEmpty(objectToLoad.SourceFile))
{
returnObject = NamedObjectManager.LoadObjectForNos(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
//ReferencedFileSave rfs = elementSave.GetReferencedFileSaveRecursively(
// objectToLoad.SourceFile);
//if(rfs != null)
//{
// returnObject = LoadReferencedFileSave(rfs, true, elementSave);
//}
}
//switch (extension)
//{
// case "scnx":
// returnObject = NamedObjectManager.LoadObjectForNos<Scene>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
// break;
// case "shcx":
// returnObject = NamedObjectManager.LoadObjectForNos<ShapeCollection>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
// break;
// case "nntx":
// //returnObject = NamedObjectManager.LoadNodeNetworkObject(objectToLoad, elementSave, layerToPutOn, listToPopulate, entireFileOnly);
// break;
// case "emix":
// returnObject = NamedObjectManager.LoadObjectForNos<EmitterList>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
// break;
// case "splx":
// returnObject = NamedObjectManager.LoadObjectForNos<SplineList>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
// break;
// default:
// // todo - loop through the custom object creators here:
// break;
//}
return(returnObject);
}
private static void StoreOldPositionsForDistanceAlongForwardVectorSort(PositionedObjectList <Sprite> spriteList, SortType sortType, PositionedObjectList <Text> textList, List <IDrawableBatch> batches, Camera camera)
{
#region If DistanceAlongForwardVector store old values
// If the objects are using SortType.DistanceAlongForwardVector
// then store the old positions, then rotate the objects by the matrix that
// moves the forward vector to the Z = -1 vector (the camera's inverse rotation
// matrix)
if (sortType == SortType.DistanceAlongForwardVector)
{
Matrix inverseRotationMatrix = camera.RotationMatrix;
Matrix.Invert(ref inverseRotationMatrix, out inverseRotationMatrix);
int temporaryCount = spriteList.Count;
for (int i = 0; i < temporaryCount; i++)
{
spriteList[i].mOldPosition = spriteList[i].Position;
spriteList[i].Position -= camera.Position;
Vector3.Transform(ref spriteList[i].Position,
ref inverseRotationMatrix, out spriteList[i].Position);
}
temporaryCount = textList.Count;
for (int i = 0; i < temporaryCount; i++)
{
textList[i].mOldPosition = textList[i].Position;
textList[i].Position -= camera.Position;
Vector3.Transform(ref textList[i].Position,
ref inverseRotationMatrix, out textList[i].Position);
}
temporaryCount = batches.Count;
for (int i = 0; i < temporaryCount; i++)
{
}
}
#endregion
}
private static void StoreOldPositionsForDistanceAlongForwardVectorSort(PositionedObjectList<Sprite> spriteList, SortType sortType, PositionedObjectList<Text> textList, List<IDrawableBatch> batches, Camera camera)
{
#region If DistanceAlongForwardVector store old values
// If the objects are using SortType.DistanceAlongForwardVector
// then store the old positions, then rotate the objects by the matrix that
// moves the forward vector to the Z = -1 vector (the camera's inverse rotation
// matrix)
if (sortType == SortType.DistanceAlongForwardVector)
{
Matrix inverseRotationMatrix = camera.RotationMatrix;
Matrix.Invert(ref inverseRotationMatrix, out inverseRotationMatrix);
int temporaryCount = spriteList.Count;
for (int i = 0; i < temporaryCount; i++)
{
spriteList[i].mOldPosition = spriteList[i].Position;
spriteList[i].Position -= camera.Position;
Vector3.Transform(ref spriteList[i].Position,
ref inverseRotationMatrix, out spriteList[i].Position);
}
temporaryCount = textList.Count;
for (int i = 0; i < temporaryCount; i++)
{
textList[i].mOldPosition = textList[i].Position;
textList[i].Position -= camera.Position;
Vector3.Transform(ref textList[i].Position,
ref inverseRotationMatrix, out textList[i].Position);
}
temporaryCount = batches.Count;
for (int i = 0; i < temporaryCount; i++)
{
}
}
#endregion
}
private static void SortAllLists(SpriteList spriteList, SortType sortType, PositionedObjectList <Text> textList, List <IDrawableBatch> batches, bool relativeToCamera, Camera camera)
{
StoreOldPositionsForDistanceAlongForwardVectorSort(spriteList, sortType, textList, batches, camera);
#region Sort the SpriteList and get the number of visible Sprites in numberOfVisibleSprites
if (spriteList != null && spriteList.Count != 0)
{
lock (spriteList)
{
switch (sortType)
{
case SortType.Z:
case SortType.DistanceAlongForwardVector:
// Sorting ascending means everything will be drawn back to front. This
// is slower but necessary for translucent objects.
// Sorting descending means everything will be drawn back to front. This
// is faster but will cause problems for translucency.
spriteList.SortZInsertionAscending();
break;
case SortType.DistanceFromCamera:
spriteList.SortCameraDistanceInsersionDescending(camera);
break;
case SortType.ZSecondaryParentY:
spriteList.SortZInsertionAscending();
spriteList.SortParentYInsertionDescendingOnZBreaks();
break;
case SortType.CustomComparer:
if (mSpriteComparer != null)
{
spriteList.Sort(mSpriteComparer);
}
else
{
spriteList.SortZInsertionAscending();
}
break;
case SortType.None:
// This will improve render times slightly...maybe?
spriteList.SortTextureInsertion();
break;
default:
break;
}
}
}
#endregion
#region Sort the TextList
if (textList != null && textList.Count != 0)
{
switch (sortType)
{
case SortType.Z:
case SortType.DistanceAlongForwardVector:
textList.SortZInsertionAscending();
break;
case SortType.DistanceFromCamera:
textList.SortCameraDistanceInsersionDescending(camera);
break;
case SortType.CustomComparer:
if (mTextComparer != null)
{
textList.Sort(mTextComparer);
}
else
{
textList.SortZInsertionAscending();
}
break;
default:
break;
}
}
#endregion
#region Sort the Batches
if (batches != null && batches.Count != 0)
{
switch (sortType)
{
case SortType.Z:
// Z serves as the radius if using SortType.DistanceFromCamera.
// If Z represents actual Z or radius, the larger the value the further
// away from the camera the object will be.
SortBatchesZInsertionAscending(batches);
break;
case SortType.DistanceAlongForwardVector:
batches.Sort(new FlatRedBall.Graphics.BatchForwardVectorSorter(camera));
break;
case SortType.ZSecondaryParentY:
SortBatchesZInsertionAscending(batches);
// Even though the sort type is by parent, IDB doesn't have a Parent object, so we'll just rely on Y.
// May need to revisit this if it causes problems
SortBatchesYInsertionDescendingOnZBreaks(batches);
break;
case SortType.CustomComparer:
if (mDrawableBatchComparer != null)
{
batches.Sort(mDrawableBatchComparer);
}
else
{
SortBatchesZInsertionAscending(batches);
}
break;
}
}
#endregion
}
private static void SortAllLists(SpriteList spriteList, SortType sortType, PositionedObjectList<Text> textList, List<IDrawableBatch> batches, bool relativeToCamera, Camera camera)
{
StoreOldPositionsForDistanceAlongForwardVectorSort(spriteList, sortType, textList, batches, camera);
#region Sort the SpriteList and get the number of visible Sprites in numberOfVisibleSprites
if (spriteList != null && spriteList.Count != 0)
{
lock (spriteList)
{
switch (sortType)
{
case SortType.Z:
case SortType.DistanceAlongForwardVector:
// Sorting ascending means everything will be drawn back to front. This
// is slower but necessary for translucent objects.
// Sorting descending means everything will be drawn back to front. This
// is faster but will cause problems for translucency.
spriteList.SortZInsertionAscending();
break;
case SortType.DistanceFromCamera:
spriteList.SortCameraDistanceInsersionDescending(camera);
break;
case SortType.ZSecondaryParentY:
spriteList.SortZInsertionAscending();
spriteList.SortParentYInsertionDescendingOnZBreaks();
break;
case SortType.CustomComparer:
if (mSpriteComparer != null)
{
spriteList.Sort(mSpriteComparer);
}
else
{
spriteList.SortZInsertionAscending();
}
break;
case SortType.None:
// This will improve render times slightly...maybe?
spriteList.SortTextureInsertion();
break;
default:
break;
}
}
}
#endregion
#region Sort the TextList
if (textList != null && textList.Count != 0)
{
switch (sortType)
{
case SortType.Z:
case SortType.DistanceAlongForwardVector:
textList.SortZInsertionAscending();
break;
case SortType.DistanceFromCamera:
textList.SortCameraDistanceInsersionDescending(camera);
break;
case SortType.CustomComparer:
if (mTextComparer != null)
{
textList.Sort(mTextComparer);
}
else
{
textList.SortZInsertionAscending();
}
break;
default:
break;
}
}
#endregion
#region Sort the Batches
if (batches != null && batches.Count != 0)
{
switch (sortType)
{
case SortType.Z:
// Z serves as the radius if using SortType.DistanceFromCamera.
// If Z represents actual Z or radius, the larger the value the further
// away from the camera the object will be.
SortBatchesZInsertionAscending(batches);
break;
case SortType.DistanceAlongForwardVector:
batches.Sort(new FlatRedBall.Graphics.BatchForwardVectorSorter(camera));
break;
case SortType.CustomComparer:
if (mDrawableBatchComparer != null)
{
batches.Sort(mDrawableBatchComparer);
}
else
{
SortBatchesZInsertionAscending(batches);
}
break;
}
}
#endregion
}
public MapRoom(MobMap map)
{
Map = map;
Clients = new List<ServerClient>();
Mobs = new PositionedObjectList<Mob>();
}
private void UpdateRectangleCount <T>(List <ColoredRectangleRuntime> gumRectangles, PositionedObjectList <T> positionedObjects,
int red = 255, int green = 255, int blue = 255) where T : PositionedObject
{
while (gumRectangles.Count < positionedObjects.Count)
{
var rectangle = CreateNewRectangle();
rectangle.Red = red;
rectangle.Green = green;
rectangle.Blue = blue;
gumRectangles.Add(rectangle);
}
while (gumRectangles.Count > positionedObjects.Count)
{
gumRectangles.Last().Parent = null;
gumRectangles.RemoveAt(gumRectangles.Count - 1);
}
}
/// <summary>
/// Tests if two vector positions are within line of sight given a collision map.
/// </summary>
/// <param name="position1">The first world-coordinate position.</param>
/// <param name="position2">The second world-coordinate position.</param>
/// <param name="collisionThreshold">Distance from position2 to the polygon it's colliding against.
/// If a polygon is within this threshold, this will return false.</param>
/// <param name="collisionMap">The list of polygons used to test if the two positions are within line of sight.</param>
/// <returns></returns>
#endregion
public static bool IsInLineOfSight(Vector3 position1, Vector3 position2, float collisionThreshold, PositionedObjectList <Polygon> collisionMap)
{
Segment segment = new Segment(new FlatRedBall.Math.Geometry.Point(ref position1),
new FlatRedBall.Math.Geometry.Point(ref position2));
foreach (Polygon polygon in collisionMap)
{
if (polygon.CollideAgainst(segment) ||
(collisionThreshold > 0 && segment.DistanceTo(polygon) < collisionThreshold))
{
return(false);
}
}
return(true);
}
public static void Initialize(PositionedObjectList<Rock> listFromScreen, string contentManager)
{
mContentManagerName = contentManager;
mScreenListReference = listFromScreen;
}
public DamageCircleManager()
{
NextId = 0;
Circles = new PositionedObjectList<DamageCircle>();
}
private static void DrawMixed(SpriteList spriteListUnfiltered, SortType sortType,
PositionedObjectList <Text> textListUnfiltered, List <IDrawableBatch> batches,
bool relativeToCamera, Camera camera, Section section)
{
if (section != null)
{
Section.GetAndStartContextAndTime("Start of Draw Mixed");
}
DrawMixedStart(camera);
int spriteIndex = 0;
int textIndex = 0;
int batchIndex = 0;
// The sort values can represent different
// things depending on the sortType argument.
// They can either represent pure Z values or they
// can represent distance from the camera (squared).
// The problem is that a larger Z means closer to the
// camera, but a larger distance means further from the
// camera. Therefore, to fix this problem if these values
// represent distance from camera, they will be multiplied by
// negative 1.
float nextSpriteSortValue = float.PositiveInfinity;
float nextTextSortValue = float.PositiveInfinity;
float nextBatchSortValue = float.PositiveInfinity;
if (section != null)
{
Section.EndContextAndTime();
Section.GetAndStartContextAndTime("Sort Lists");
}
SortAllLists(spriteListUnfiltered, sortType, textListUnfiltered, batches, relativeToCamera, camera);
mVisibleSprites.Clear();
mVisibleTexts.Clear();
for (int i = 0; i < spriteListUnfiltered.Count; i++)
{
Sprite sprite = spriteListUnfiltered[i];
bool isVisible = sprite.AbsoluteVisible &&
(sprite.ColorOperation == ColorOperation.InterpolateColor || sprite.Alpha > .0001) &&
camera.IsSpriteInView(sprite, relativeToCamera);
if (isVisible)
{
mVisibleSprites.Add(sprite);
}
}
for (int i = 0; i < textListUnfiltered.Count; i++)
{
Text text = textListUnfiltered[i];
if (text.AbsoluteVisible && text.Alpha > .0001 && camera.IsTextInView(text, relativeToCamera))
{
mVisibleTexts.Add(text);
}
}
int indexOfNextSpriteToReposition = 0;
GetNextZValuesByCategory(mVisibleSprites, sortType, mVisibleTexts, batches, camera, ref spriteIndex, ref textIndex, ref nextSpriteSortValue, ref nextTextSortValue, ref nextBatchSortValue);
int numberToDraw = 0;
// This is used as a temporary variable for Z or distance from camera
float sortingValue = 0;
Section performDrawingSection = null;
if (section != null)
{
Section.EndContextAndTime();
performDrawingSection = Section.GetAndStartContextAndTime("Perform Drawing");
}
while (spriteIndex < mVisibleSprites.Count || textIndex < mVisibleTexts.Count ||
(batches != null && batchIndex < batches.Count))
{
#region only 1 array remains to be drawn so finish it off completely
#region Draw Texts
if (spriteIndex >= mVisibleSprites.Count && (batches == null || batchIndex >= batches.Count) &&
textIndex < mVisibleTexts.Count)
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw Texts");
}
if (sortType == SortType.DistanceAlongForwardVector)
{
int temporaryCount = mVisibleTexts.Count;
for (int i = textIndex; i < temporaryCount; i++)
{
mVisibleTexts[i].Position = mVisibleTexts[i].mOldPosition;
}
}
// TEXTS: draw all texts from textIndex to numberOfVisibleTexts - textIndex
DrawTexts(mVisibleTexts, textIndex, mVisibleTexts.Count - textIndex, camera, section);
break;
}
#endregion
#region Draw Sprites
else if (textIndex >= mVisibleTexts.Count && (batches == null || batchIndex >= batches.Count) &&
spriteIndex < mVisibleSprites.Count)
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw Sprites");
}
numberToDraw = mVisibleSprites.Count - spriteIndex;
if (sortType == SortType.DistanceAlongForwardVector)
{
int temporaryCount = mVisibleSprites.Count;
for (int i = indexOfNextSpriteToReposition; i < temporaryCount; i++)
{
mVisibleSprites[i].Position = mVisibleSprites[i].mOldPosition;
indexOfNextSpriteToReposition++;
}
}
PrepareSprites(
mSpriteVertices, mSpriteRenderBreaks,
mVisibleSprites, spriteIndex, numberToDraw
);
DrawSprites(
mSpriteVertices, mSpriteRenderBreaks,
mVisibleSprites, spriteIndex,
numberToDraw, camera);
break;
}
#endregion
#region Draw DrawableBatches
else if (spriteIndex >= mVisibleSprites.Count && textIndex >= mVisibleTexts.Count &&
batches != null && batchIndex < batches.Count)
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw IDrawableBatches");
}
// DRAWABLE BATCHES: Only DrawableBatches remain so draw them all.
while (batchIndex < batches.Count)
{
IDrawableBatch batchAtIndex = batches[batchIndex];
if (batchAtIndex.UpdateEveryFrame)
{
batchAtIndex.Update();
}
if (Renderer.RecordRenderBreaks)
{
// Even though we aren't using a RenderBreak here, we should record a render break
// for this batch as it does cause rendering to be interrupted:
RenderBreak renderBreak = new RenderBreak();
#if DEBUG
renderBreak.ObjectCausingBreak = batchAtIndex;
#endif
renderBreak.LayerName = CurrentLayerName;
LastFrameRenderBreakList.Add(renderBreak);
}
batchAtIndex.Draw(camera);
batchIndex++;
}
FixRenderStatesAfterBatchDraw();
break;
}
#endregion
#endregion
#region more than 1 list remains so find which group of objects to render
#region Sprites
else if (nextSpriteSortValue <= nextTextSortValue && nextSpriteSortValue <= nextBatchSortValue)
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw Sprites");
}
// The next furthest object is a Sprite. Find how many to draw.
#region Count how many Sprites to draw and store it in numberToDraw
numberToDraw = 0;
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector)
{
sortingValue = mVisibleSprites[spriteIndex + numberToDraw].Position.Z;
}
else
{
sortingValue = -(camera.Position - mVisibleSprites[spriteIndex + numberToDraw].Position).LengthSquared();
}
while (sortingValue <= nextTextSortValue &&
sortingValue <= nextBatchSortValue)
{
numberToDraw++;
if (spriteIndex + numberToDraw == mVisibleSprites.Count)
{
break;
}
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector)
{
sortingValue = mVisibleSprites[spriteIndex + numberToDraw].Position.Z;
}
else
{
sortingValue = -(camera.Position - mVisibleSprites[spriteIndex + numberToDraw].Position).LengthSquared();
}
}
#endregion
if (sortType == SortType.DistanceAlongForwardVector)
{
for (int i = indexOfNextSpriteToReposition; i < numberToDraw + spriteIndex; i++)
{
mVisibleSprites[i].Position = mVisibleSprites[i].mOldPosition;
indexOfNextSpriteToReposition++;
}
}
PrepareSprites(
mSpriteVertices, mSpriteRenderBreaks,
mVisibleSprites, spriteIndex,
numberToDraw);
DrawSprites(
mSpriteVertices, mSpriteRenderBreaks,
mVisibleSprites, spriteIndex,
numberToDraw, camera);
// numberToDraw represents a range so increase spriteIndex by that amount.
spriteIndex += numberToDraw;
if (spriteIndex >= mVisibleSprites.Count)
{
nextSpriteSortValue = float.PositiveInfinity;
}
else
{
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector || sortType == SortType.ZSecondaryParentY)
{
nextSpriteSortValue = mVisibleSprites[spriteIndex].Position.Z;
}
else
{
nextSpriteSortValue = -(camera.Position - mVisibleSprites[spriteIndex].Position).LengthSquared();
}
}
}
#endregion
#region Texts
else if (nextTextSortValue <= nextSpriteSortValue && nextTextSortValue <= nextBatchSortValue)// draw texts
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw Texts");
}
numberToDraw = 0;
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector)
{
sortingValue = mVisibleTexts[textIndex + numberToDraw].Position.Z;
}
else
{
sortingValue = -(camera.Position - mVisibleTexts[textIndex + numberToDraw].Position).LengthSquared();
}
while (sortingValue <= nextSpriteSortValue &&
sortingValue <= nextBatchSortValue)
{
numberToDraw++;
if (textIndex + numberToDraw == mVisibleTexts.Count)
{
break;
}
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector)
{
sortingValue = mVisibleTexts[textIndex + numberToDraw].Position.Z;
}
else
{
sortingValue = -(camera.Position - mVisibleTexts[textIndex + numberToDraw].Position).LengthSquared();
}
}
if (sortType == SortType.DistanceAlongForwardVector)
{
for (int i = textIndex; i < textIndex + numberToDraw; i++)
{
mVisibleTexts[i].Position = mVisibleTexts[i].mOldPosition;
}
}
DrawTexts(mVisibleTexts, textIndex, numberToDraw, camera, section);
textIndex += numberToDraw;
if (textIndex == mVisibleTexts.Count)
{
nextTextSortValue = float.PositiveInfinity;
}
else
{
if (sortType == SortType.Z || sortType == SortType.DistanceAlongForwardVector || sortType == SortType.ZSecondaryParentY)
{
nextTextSortValue = mVisibleTexts[textIndex].Position.Z;
}
else
{
nextTextSortValue = -(camera.Position - mVisibleTexts[textIndex].Position).LengthSquared();
}
}
}
#endregion
#region Batches
else if (nextBatchSortValue <= nextSpriteSortValue && nextBatchSortValue <= nextTextSortValue)
{
if (section != null)
{
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.GetAndStartMergedContextAndTime("Draw IDrawableBatches");
}
while (nextBatchSortValue <= nextSpriteSortValue && nextBatchSortValue <= nextTextSortValue && batchIndex < batches.Count)
{
IDrawableBatch batchAtIndex = batches[batchIndex];
if (batchAtIndex.UpdateEveryFrame)
{
batchAtIndex.Update();
}
if (Renderer.RecordRenderBreaks)
{
// Even though we aren't using a RenderBreak here, we should record a render break
// for this batch as it does cause rendering to be interrupted:
RenderBreak renderBreak = new RenderBreak();
#if DEBUG
renderBreak.ObjectCausingBreak = batchAtIndex;
#endif
renderBreak.LayerName = CurrentLayerName;
LastFrameRenderBreakList.Add(renderBreak);
}
batchAtIndex.Draw(camera);
batchIndex++;
if (batchIndex == batches.Count)
{
nextBatchSortValue = float.PositiveInfinity;
}
else
{
batchAtIndex = batches[batchIndex];
if (sortType == SortType.Z || sortType == SortType.ZSecondaryParentY)
{
nextBatchSortValue = batchAtIndex.Z;
}
else if (sortType == SortType.DistanceAlongForwardVector)
{
Vector3 vectorDifference = new Vector3(
batchAtIndex.X - camera.X,
batchAtIndex.Y - camera.Y,
batchAtIndex.Z - camera.Z);
float firstDistance;
Vector3 forwardVector = camera.RotationMatrix.Forward;
Vector3.Dot(ref vectorDifference, ref forwardVector, out firstDistance);
nextBatchSortValue = -firstDistance;
}
else
{
nextBatchSortValue = -(batchAtIndex.Z * batchAtIndex.Z);
}
}
}
FixRenderStatesAfterBatchDraw();
}
#endregion
#endregion
}
if (section != null)
{
// Hop up a level
if (Section.Context != performDrawingSection)
{
Section.EndContextAndTime();
}
Section.EndContextAndTime();
Section.GetAndStartContextAndTime("End of Draw Mixed");
}
// return the position of any objects not drawn
if (sortType == SortType.DistanceAlongForwardVector)
{
for (int i = indexOfNextSpriteToReposition; i < mVisibleSprites.Count; i++)
{
mVisibleSprites[i].Position = mVisibleSprites[i].mOldPosition;
}
}
Renderer.Texture = null;
Renderer.TextureOnDevice = null;
if (section != null)
{
Section.EndContextAndTime();
}
}
private object CreateObjectBasedOnExtension(NamedObjectSave objectToLoad, IElement elementSave, Layer layerToPutOn, PositionedObjectList <ElementRuntime> listToPopulate, string extension)
{
object returnObject = null;
switch (extension)
{
case "scnx":
returnObject = NamedObjectManager.LoadObjectForNos <Scene>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
break;
case "shcx":
returnObject = NamedObjectManager.LoadObjectForNos <ShapeCollection>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
break;
case "nntx":
//returnObject = NamedObjectManager.LoadNodeNetworkObject(objectToLoad, elementSave, layerToPutOn, listToPopulate, entireFileOnly);
break;
case "emix":
returnObject = NamedObjectManager.LoadObjectForNos <EmitterList>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
break;
case "splx":
returnObject = NamedObjectManager.LoadObjectForNos <SplineList>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
break;
}
return(returnObject);
}
public static void Initialize(PositionedObjectList <EnemyBullet> listFromScreen, string contentManager)
{
mContentManagerName = contentManager;
mScreenListReference = listFromScreen;
}
/// <summary>
/// Find Trash from Conveyor
/// </summary>
/// <param name="trashList"></param>
/// <returns></returns>
private Trash GetTrashFromConveyor(PositionedObjectList<Trash> trashList)
{
var trash = (from t in trashList
where t.OnConveyor && t.X > -50 && t.X < 50
select t).FirstOrDefault();
return trash;
}
/// <summary>
/// Tests if two vector positions are within line of sight given a collision map.
/// </summary>
/// <param name="position1">The first world-coordinate position.</param>
/// <param name="position2">The second world-coordinate position.</param>
/// <param name="collisionMap">The list of polygons used to test if the two positions are within line of sight.</param>
/// <returns></returns>
#endregion
public static bool IsInLineOfSight(Vector3 position1, Vector3 position2, PositionedObjectList <Polygon> collisionMap)
{
return(IsInLineOfSight(position1, position2, 0f, collisionMap));
}
public List <Vector3> GetCollisionOptimizedPath(Vector3 startingPosition,
Vector3 destination, int numberOfOptimizations, float collisionThreshold, PositionedObjectList <Polygon> collisionMap)
{
return(GetCollisionOptimizedPath(startingPosition, destination, numberOfOptimizations, 2, collisionThreshold, collisionMap));
}
public bool Transfering; //if true client will reject all messages
public Client() : base(null)
{
Mobs = new PositionedObjectList <Mob>();
WelcomeMessageTimeout = 2;
Transfering = false;
}
protected virtual void InitializeEntity(bool addToManagers)
{
// Generated Initialize
LoadStaticContent(ContentManagerName);
mCollisionBoxList = new PositionedObjectList<TileCollisionBoxEntity>();
PostInitialize();
if (addToManagers)
{
AddToManagers(null);
}
}
public override void Initialize(bool addToManagers)
{
// Generated Initialize
LoadStaticContent(ContentManagerName);
Boundary = BoundaryShapeCollection;
SkySceneInstance = SkySceneFile;
for (int i = 0; i < SkySceneInstance.Texts.Count; i++)
{
SkySceneInstance.Texts[i].AdjustPositionForPixelPerfectDrawing = true;
}
BirdInstance = new FlatRedBird.Entities.Bird(ContentManagerName, false);
BirdInstance.Name = "BirdInstance";
ObstacleList = new PositionedObjectList<FlatRedBird.Entities.Obstacle>();
GroundInstance = new FlatRedBird.Entities.Ground(ContentManagerName, false);
GroundInstance.Name = "GroundInstance";
PostInitialize();
base.Initialize(addToManagers);
if (addToManagers)
{
AddToManagers();
}
}
public MapRoom(MobMap map)
{
Map = map;
Clients = new List <ServerClient>();
Mobs = new PositionedObjectList <Mob>();
}
private object CreateFlatRedBallTypeNos(NamedObjectSave namedObjectSave,
PositionedObjectList <ElementRuntime> listToPopulate, Layer layerToPutOn)
{
object returnObject = null;
ElementRuntime newElementRuntime = null;
switch (namedObjectSave.SourceClassType)
{
case "Layer":
case "FlatRedBall.Graphics.Layer":
returnObject = CreateLayerObject(namedObjectSave, returnObject);
break;
case "AxisAlignedRectangle":
case "FlatRedBall.Math.Geometry.AxisAlignedRectangle":
AxisAlignedRectangle aaRectangle = ShapeManager.AddAxisAlignedRectangle();
if (layerToPutOn != null)
{
ShapeManager.AddToLayer(aaRectangle, layerToPutOn);
}
aaRectangle.Name = namedObjectSave.InstanceName;
returnObject = aaRectangle;
break;
case "Camera":
case "FlatRedBall.Camera":
if (namedObjectSave.IsNewCamera)
{
returnObject = null;
}
else
{
returnObject = SpriteManager.Camera;
}
break;
case "Circle":
case "FlatRedBall.Math.Geometry.Circle":
Circle circle = ShapeManager.AddCircle();
circle.Name = namedObjectSave.InstanceName;
if (layerToPutOn != null)
{
ShapeManager.AddToLayer(circle, layerToPutOn);
}
returnObject = circle;
break;
case "Polygon":
case "FlatRedBall.Math.Geometry.Polygon":
Polygon polygon = ShapeManager.AddPolygon();
polygon.Name = namedObjectSave.InstanceName;
if (layerToPutOn != null)
{
ShapeManager.AddToLayer(polygon, layerToPutOn);
}
returnObject = polygon;
break;
case "Sprite":
case "FlatRedBall.Sprite":
Sprite sprite = SpriteManager.AddSprite((Texture2D)null);
if (layerToPutOn != null)
{
SpriteManager.AddToLayer(sprite, layerToPutOn);
}
sprite.Name = namedObjectSave.InstanceName;
returnObject = sprite;
break;
case "SpriteFrame":
case "FlatRedBall.ManagedSpriteGroups.SpriteFrame":
SpriteFrame spriteFrame = SpriteManager.AddSpriteFrame(null, SpriteFrame.BorderSides.All);
if (layerToPutOn != null)
{
SpriteManager.AddToLayer(spriteFrame, layerToPutOn);
}
spriteFrame.Name = namedObjectSave.InstanceName;
returnObject = spriteFrame;
break;
case "Text":
case "FlatRedBall.Graphics.Text":
Text text = TextManager.AddText("");
if (layerToPutOn != null)
{
TextManager.AddToLayer(text, layerToPutOn);
text.SetPixelPerfectScale(layerToPutOn);
}
text.Name = namedObjectSave.InstanceName;
returnObject = text;
break;
case "Scene":
case "FlatRedBall.Scene":
Scene scene = new Scene();
scene.Name = namedObjectSave.InstanceName;
returnObject = scene;
break;
default:
// do nothing - need to add more types?
break;
}
if (returnObject != null)
{
if (returnObject is IScalable)
{
newElementRuntime = new ScalableElementRuntime(null, layerToPutOn, namedObjectSave, CreationOptions.OnBeforeVariableSet, CreationOptions.OnAfterVariableSet);
}
else
{
newElementRuntime = new ElementRuntime(null, layerToPutOn, namedObjectSave, CreationOptions.OnBeforeVariableSet, CreationOptions.OnAfterVariableSet);
}
newElementRuntime.mDirectObjectReference = returnObject;
if (returnObject is Camera && !namedObjectSave.IsNewCamera)
{
SpriteManager.Camera.AttachTo(newElementRuntime, false);
SpriteManager.Camera.RelativePosition = Vector3.Zero;
newElementRuntime.Z = 40;
newElementRuntime.Name = namedObjectSave.InstanceName;
}
else if (returnObject is FlatRedBall.Utilities.INameable)
{
newElementRuntime.Name = ((FlatRedBall.Utilities.INameable)returnObject).Name;
}
else
{
object nameValueAsObject;
if (LateBinder.TryGetValueStatic(returnObject, "Name", out nameValueAsObject))
{
newElementRuntime.Name = (string)nameValueAsObject;
}
}
listToPopulate.Add(newElementRuntime);
}
return(returnObject);
}
public EditorHandles()
{
spritesAlreadyChanged = new PositionedObjectList<PositionedObject>();
Layer axisLayer = SpriteManager.AddLayer();
origin = SpriteManager.AddSprite(
FlatRedBallServices.Load<Texture2D>("Content/EditorHandles/Origin.png", GuiManager.InternalGuiContentManagerName), axisLayer);
origin.Name = "OriginOfEditAxes";
editAxisSpriteArray.Add(origin);
xAxis = SpriteManager.AddSprite(
FlatRedBallServices.Load<Texture2D>("Content/EditorHandles/MoveX.png", GuiManager.InternalGuiContentManagerName), axisLayer);
editAxisSpriteArray.Add(xAxis);
yAxis = SpriteManager.AddSprite(
FlatRedBallServices.Load<Texture2D>("Content/EditorHandles/MoveY.png", GuiManager.InternalGuiContentManagerName), axisLayer);
editAxisSpriteArray.Add(yAxis);
zAxis = SpriteManager.AddSprite(
FlatRedBallServices.Load<Texture2D>("Content/EditorHandles/MoveZ.png", GuiManager.InternalGuiContentManagerName), axisLayer);
editAxisSpriteArray.Add(zAxis);
xScale = SpriteManager.AddSprite(
FlatRedBallServices.Load<Texture2D>("Content/EditorHandles/ScaleX.png", GuiManager.InternalGuiContentManagerName), axisLayer);
editAxisSpriteArray.Add(xScale);
yScale = SpriteManager.AddSprite(
FlatRedBallServices.Load<Texture2D>("Content/EditorHandles/ScaleY.png", GuiManager.InternalGuiContentManagerName), axisLayer);
editAxisSpriteArray.Add(yScale);
xRot = SpriteManager.AddSprite(
FlatRedBallServices.Load<Texture2D>("Content/EditorHandles/RotateX.png", GuiManager.InternalGuiContentManagerName), axisLayer);
editAxisSpriteArray.Add(xRot);
yRot = SpriteManager.AddSprite(
FlatRedBallServices.Load<Texture2D>("Content/EditorHandles/RotateY.png", GuiManager.InternalGuiContentManagerName), axisLayer);
editAxisSpriteArray.Add(yRot);
xAxis.AttachTo(origin, true);
yAxis.AttachTo(origin, true);
zAxis.AttachTo(origin, true);
xScale.AttachTo(origin, true);
yScale.AttachTo(origin, true);
xRot.AttachTo(origin, true);
yRot.AttachTo(origin, true);
Scale = 1;
editAxisSpriteArray.Visible = false;
mCursorOverAxis = false;
mVisible = false;
}
public static void Initialize(PositionedObjectList <BaseEnemy> potentialTargets)
{
_potentialTargetList = potentialTargets;
}
public override void Initialize(bool addToManagers)
{
// Generated Initialize
LoadStaticContent(ContentManagerName);
BulletList = new PositionedObjectList<Bullet>();
RockList = new PositionedObjectList<Rock>();
MainShipList = new PositionedObjectList<MainShip>();
Player1Ship = new RockBlaster.Entities.MainShip(ContentManagerName, false);
Player1Ship.Name = "Player1Ship";
EndGameUiInstance = new RockBlaster.Entities.EndGameUi(ContentManagerName, false);
EndGameUiInstance.Name = "EndGameUiInstance";
HudInstance = new RockBlaster.Entities.Hud(ContentManagerName, false);
HudInstance.Name = "HudInstance";
RockSpawnerInstance = new RockBlaster.Entities.RockSpawner(ContentManagerName, false);
RockSpawnerInstance.Name = "RockSpawnerInstance";
MainShipList.Add(Player1Ship);
PostInitialize();
base.Initialize(addToManagers);
if (addToManagers)
{
AddToManagers();
}
}
/// <summary>
/// Returns a List of Vector3s that will be an optimized version of GetPath given the NodeNetwork and a Collision Map to test against.
/// </summary>
/// <remarks>
/// This method will get the optimal path between the two vectors using GetPath, and then will optimize it by
/// testing line of sight between the nodes to see if the path can be optimized further (for more optimized
/// pathfinding). When optimizing the path between two nodes, it will check if the midpoint is in line of sight with the
/// startingPosition, and if it is, change the path to the midpoint instead of the current target node. the numberOfOptimizations
/// decides how many times it will take the midpoint and optimize further.
///
/// This method assumes that the node network does NOT fall within collidable objects.
/// </remarks>
/// <param name="startingPosition">The world-coordinate of the starting position.</param>
/// <param name="destination">The world-coordinate of the destination.</param>
/// <param name="collisionMap">The collision map which will have the obstacles you are trying to path around.</param>
/// <returns></returns>
#endregion
public List <Vector3> GetCollisionOptimizedPath(Vector3 startingPosition,
Vector3 destination, PositionedObjectList <Polygon> collisionMap)
{
return(GetCollisionOptimizedPath(startingPosition, destination, 2, 2, 0f, collisionMap));
}
private object CreateFlatRedBallTypeNos(NamedObjectSave namedObjectSave,
PositionedObjectList<ElementRuntime> listToPopulate, Layer layerToPutOn)
{
object returnObject = null;
ElementRuntime newElementRuntime = null;
switch (namedObjectSave.SourceClassType)
{
case "Layer":
case "FlatRedBall.Graphics.Layer":
returnObject = CreateLayerObject(namedObjectSave, returnObject);
break;
case "AxisAlignedRectangle":
case "FlatRedBall.Math.Geometry.AxisAlignedRectangle":
AxisAlignedRectangle aaRectangle = ShapeManager.AddAxisAlignedRectangle();
if (layerToPutOn != null)
{
ShapeManager.AddToLayer(aaRectangle, layerToPutOn);
}
aaRectangle.Name = namedObjectSave.InstanceName;
returnObject = aaRectangle;
break;
case "Camera":
case "FlatRedBall.Camera":
if (namedObjectSave.IsNewCamera)
{
returnObject = null;
}
else
{
returnObject = SpriteManager.Camera;
}
break;
case "Circle":
case "FlatRedBall.Math.Geometry.Circle":
Circle circle = ShapeManager.AddCircle();
circle.Name = namedObjectSave.InstanceName;
if (layerToPutOn != null)
{
ShapeManager.AddToLayer(circle, layerToPutOn);
}
returnObject = circle;
break;
case "Polygon":
case "FlatRedBall.Math.Geometry.Polygon":
Polygon polygon = ShapeManager.AddPolygon();
polygon.Name = namedObjectSave.InstanceName;
if(layerToPutOn != null)
{
ShapeManager.AddToLayer(polygon, layerToPutOn);
}
returnObject = polygon;
break;
case "Sprite":
case "FlatRedBall.Sprite":
Sprite sprite = SpriteManager.AddSprite((Texture2D)null);
if (layerToPutOn != null)
{
SpriteManager.AddToLayer(sprite, layerToPutOn);
}
sprite.Name = namedObjectSave.InstanceName;
returnObject = sprite;
break;
case "SpriteFrame":
case "FlatRedBall.ManagedSpriteGroups.SpriteFrame":
SpriteFrame spriteFrame = SpriteManager.AddSpriteFrame(null, SpriteFrame.BorderSides.All);
if (layerToPutOn != null)
{
SpriteManager.AddToLayer(spriteFrame, layerToPutOn);
}
spriteFrame.Name = namedObjectSave.InstanceName;
returnObject = spriteFrame;
break;
case "Text":
case "FlatRedBall.Graphics.Text":
Text text = TextManager.AddText("");
if (layerToPutOn != null)
{
TextManager.AddToLayer(text, layerToPutOn);
text.SetPixelPerfectScale(layerToPutOn);
}
text.Name = namedObjectSave.InstanceName;
returnObject = text;
break;
case "Scene":
case "FlatRedBall.Scene":
Scene scene = new Scene();
scene.Name = namedObjectSave.InstanceName;
returnObject = scene;
break;
default:
// do nothing - need to add more types?
break;
}
if (returnObject != null)
{
if (returnObject is IScalable)
{
newElementRuntime = new ScalableElementRuntime(null, layerToPutOn, namedObjectSave, CreationOptions.OnBeforeVariableSet, CreationOptions.OnAfterVariableSet);
}
else
{
newElementRuntime = new ElementRuntime(null, layerToPutOn, namedObjectSave, CreationOptions.OnBeforeVariableSet, CreationOptions.OnAfterVariableSet);
}
newElementRuntime.mDirectObjectReference = returnObject;
if (returnObject is Camera && !namedObjectSave.IsNewCamera)
{
SpriteManager.Camera.AttachTo(newElementRuntime, false);
SpriteManager.Camera.RelativePosition = Vector3.Zero;
newElementRuntime.Z = 40;
newElementRuntime.Name = namedObjectSave.InstanceName;
}
else if (returnObject is FlatRedBall.Utilities.INameable)
{
newElementRuntime.Name = ((FlatRedBall.Utilities.INameable)returnObject).Name;
}
else
{
object nameValueAsObject;
if (LateBinder.TryGetValueStatic(returnObject, "Name", out nameValueAsObject))
{
newElementRuntime.Name = (string)nameValueAsObject;
}
}
listToPopulate.Add(newElementRuntime);
}
return returnObject;
}
/// <summary>
/// Returns a List of Vector3s that will be an optimized version of GetPath given the NodeNetwork and a Collision Map to test against.
/// </summary>
/// <remarks>
/// This method will get the optimal path between the two vectors using GetPath, and then will optimize it by
/// testing line of sight between the nodes to see if the path can be optimized further (for more optimized
/// pathfinding). When optimizing the path between two nodes, it will check if the midpoint is in line of sight with the
/// startingPosition, and if it is, change the path to the midpoint instead of the current target node. the numberOfOptimizations
/// decides how many times it will take the midpoint and optimize further.
/// </remarks>
/// <param name="startingPosition">The world-coordinate of the starting position.</param>
/// <param name="destination">The world-coordinate of the destination.</param>
/// <param name="numberOfOptimizations">The number of times the algorithm will take the midpoint between
/// two nodes to test if they are within line of sight of each other (higher means nearer to optimal path).</param>
/// <param name="optimizationsDeep"></param>
/// <param name="collisionThreshold">Usually the object using the path will be larger than 0, use the size of the collision for testing line of sight.</param>
/// <param name="collisionMap">The collision map which will have the obstacles you are trying to path around.</param>
/// <returns></returns>
#endregion
public List <Vector3> GetCollisionOptimizedPath(Vector3 startingPosition,
Vector3 destination, int numberOfOptimizations, int optimizationsDeep, float collisionThreshold, PositionedObjectList <Polygon> collisionMap)
{
List <PositionedNode> nodePath = GetPath(ref startingPosition, ref destination);
List <Vector3> path = new List <Vector3>();
if (nodePath.Count == 0)
{
return(path);
}
else if (nodePath.Count == 1)
{
path.Add(nodePath[0].Position);
path.Add(destination);
return(path);
}
Vector3 currentPosition = startingPosition;
int currentNodeIndex = 0;
int indexOfOutOfSightNode = 0;
while (currentNodeIndex < nodePath.Count)
{
for (indexOfOutOfSightNode = currentNodeIndex; indexOfOutOfSightNode < nodePath.Count; indexOfOutOfSightNode++)
{
if (PathfindingFunctions.IsInLineOfSight(currentPosition, nodePath[indexOfOutOfSightNode].Position, collisionThreshold, collisionMap))
{
//Go until we find an out of sight node.
continue;
}
else
{
//We found our out of sight node.
currentNodeIndex = indexOfOutOfSightNode;
break;
}
}
if (indexOfOutOfSightNode == nodePath.Count)
{ //All of the nodes in the nodePath were in line of sight, the destination should be in line of sight too.
if (PathfindingFunctions.IsInLineOfSight(nodePath[indexOfOutOfSightNode - 1].Position, destination, collisionMap))
{
path.Add(nodePath[indexOfOutOfSightNode - 1].Position);
path.Add(destination);
return(path);
}
//If the destination isn't in line of sight, that means the end of the path can't see the destination!
throw new Exception("The last node in the generated path, " + nodePath[nodePath.Count - 1].Position + ", was not in line of sight with the destination, " + destination);
//throw new Exception("Could not find a path to the destination, did you give a CollisionThreshold that was too high for your NodeNetwork to handle?");
}
//else if (indexOfOutOfSightNode == 0)
//{
// throw new Exception("Not enough Node Network coverage, startingPosition:" + startingPosition + " was not in line of sight with " + nodePath[0].Position + ", the first node in the generated path.");
//}
//#if DEBUG
//This will only happen if there is a problem with the given NodeNetwork.
if (indexOfOutOfSightNode == 0)
{ //If we can't see the first node, we'll trust GetPath and just go to that node.
path.Add(nodePath[0].Position);
currentPosition = nodePath[0].Position;
continue;
}
//#endif
Vector3 pointToAdd;
if (optimizationsDeep > 0)
{
pointToAdd = PathfindingFunctions.OptimalVisiblePoint(currentPosition, nodePath[indexOfOutOfSightNode - 1].Position,
nodePath[indexOfOutOfSightNode].Position, numberOfOptimizations, collisionThreshold, collisionMap);
optimizationsDeep--;
}
else
{
pointToAdd = nodePath[indexOfOutOfSightNode].Position;
}
/*
* if (path.Count > 0 && pointToAdd == path[path.Count - 1])
* { //Protect against an infinite loop of the same point being added.
* //This only occurs if there is the collisionThreshold is too high for the nodenetwork to handle,
* //and will make the character bump into the collisionMap when taking the path here.
* pointToAdd = nodePath[indexOfOutOfSightNode].Position;
* }
*/
path.Add(pointToAdd);
if (PathfindingFunctions.IsInLineOfSight(pointToAdd, destination, collisionMap))
{
path.Add(destination);
return(path);
}
currentPosition = pointToAdd;
}
//This should never happen.
throw new Exception("Given path never found the destination.");
}
private object LoadFileObject(NamedObjectSave objectToLoad, IElement elementSave, Layer layerToPutOn,
PositionedObjectList<ElementRuntime> listToPopulate)
{
string extension = FileManager.GetExtension(objectToLoad.SourceFile).ToLower();
object returnObject = null;
/////////////////////////////////EARLY OUT!//////////////////////////////////
if (objectToLoad.SetByDerived)
{
return null;
}
//////////////////////////////END EARLY OUT//////////////////////////////////
returnObject = CreateObjectBasedOnExtension(objectToLoad, elementSave, layerToPutOn, listToPopulate, extension);
return returnObject;
}
public CollidableListVsTileShapeCollectionRelationship(PositionedObjectList <FirstCollidableT> list, TileShapeCollection tileShapeCollection)
{
data = new CollidableVsTileShapeCollectionData <FirstCollidableT>(tileShapeCollection);
this.list = list;
}
private object CreateObjectBasedOnExtension(NamedObjectSave objectToLoad, IElement elementSave, Layer layerToPutOn, PositionedObjectList<ElementRuntime> listToPopulate, string extension)
{
object returnObject = null;
switch (extension)
{
case "scnx":
returnObject = NamedObjectManager.LoadObjectForNos<Scene>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
break;
case "shcx":
returnObject = NamedObjectManager.LoadObjectForNos<ShapeCollection>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
break;
case "nntx":
//returnObject = NamedObjectManager.LoadNodeNetworkObject(objectToLoad, elementSave, layerToPutOn, listToPopulate, entireFileOnly);
break;
case "emix":
returnObject = NamedObjectManager.LoadObjectForNos<EmitterList>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
break;
case "splx":
returnObject = NamedObjectManager.LoadObjectForNos<SplineList>(objectToLoad, elementSave, layerToPutOn, listToPopulate, this);
break;
}
return returnObject;
}
public static void Initialize(PositionedObjectList<TileEntity> listFromScreen, string contentManager)
{
mContentManagerName = contentManager;
mScreenListReference = listFromScreen;
FactoryInitialize();
}
private void CreateNamedObjectElementRuntime(IElement elementSave, Layer layerProvidedByContainer, List<NamedObjectSave> namedObjectSaveList,
PositionedObjectList<ElementRuntime> listToPopulate, PositionedObject parentElementRuntime)
{
foreach (NamedObjectSave n in namedObjectSaveList)
{
Object newObject = null;
if (ShouldElementRuntimeBeCreatedForNos(n, elementSave))
{
Layer layerToPutOn = GetLayerForNos(layerProvidedByContainer, n);
switch (n.SourceType)
{
case SourceType.File:
newObject = LoadFileObject(n, elementSave, layerToPutOn, listToPopulate);
break;
case SourceType.Entity:
newObject = LoadEntityObject(n, layerToPutOn, listToPopulate);
break;
case SourceType.FlatRedBallType:
newObject = CreateFlatRedBallTypeNos(n, listToPopulate, layerToPutOn);
break;
}
}
if (newObject != null && newObject is PositionedObject)
{
PositionedObject attachTo;
float parentZToSet;
GetWhatToAttachToForNewNos(parentElementRuntime, n, newObject, out attachTo, out parentZToSet);
if (attachTo != null)
{
Vector3 oldPosition = attachTo.Position;
Matrix oldRotationMatrix = attachTo.RotationMatrix;
attachTo.Position = new Vector3();
attachTo.Z = parentZToSet;
attachTo.RotationMatrix = Matrix.Identity;
((PositionedObject)newObject).AttachTo(attachTo, true);
attachTo.Position = oldPosition;
attachTo.RotationMatrix = oldRotationMatrix;
}
}
}
}
