public bool Raycast(FRay ray, out float closestDistance)
{
// Convert the ray to local space of this node since all of our raycasts are local.
FRay localRay = WMath.TransformRay(ray, Transform.Position, Transform.LocalScale, Transform.Rotation.Inverted());
bool bHit = false;
if (m_actorMesh != null)
{
bHit = m_actorMesh.Raycast(localRay, out closestDistance, true);
}
else
{
bHit = WMath.RayIntersectsAABB(localRay, m_objRender.GetAABB().Min, m_objRender.GetAABB().Max, out closestDistance);
}
if (bHit)
{
// Convert the hit point back to world space...
Vector3 localHitPoint = localRay.Origin + (localRay.Direction * closestDistance);
localHitPoint = Vector3.Transform(localHitPoint + Transform.Position, Transform.Rotation);
// Now get the distance from the original ray origin and the new worldspace hit point.
closestDistance = (localHitPoint - ray.Origin).Length;
}
return(bHit);
}
private void DoOrbitcamUpdate(float deltaTime)
{
float orbitSensitivityScale = 0.02f; // Angle Axis expects rads, but we have... pixels, so we just move it way down by a factor.
Quaternion deltaRot = Quaternion.FromAxisAngle(new Vector3(1, 0, 0), -WInput.MouseDelta.Y * MouseSensitivity * deltaTime * orbitSensitivityScale) * Quaternion.FromAxisAngle(new Vector3(0, 1, 0), -WInput.MouseDelta.X * MouseSensitivity * deltaTime * orbitSensitivityScale);
Transform.Rotation *= deltaRot;
Vector3 moveDir = Vector3.Zero;
if (WInput.GetKey(System.Windows.Input.Key.Q))
{
moveDir -= Vector3.UnitY;
}
if (WInput.GetKey(System.Windows.Input.Key.E))
{
moveDir += Vector3.UnitY;
}
if (moveDir.Length > 0)
{
moveDir.Normalize();
m_orbitPivot += moveDir * (MoveSpeed / 2) * deltaTime;
}
m_orbitCameraDistance += -WInput.MouseScrollDelta * 50 * deltaTime;
m_orbitCameraDistance = WMath.Clamp(m_orbitCameraDistance, 100, 10000);
Transform.Position = m_orbitPivot + Vector3.Transform(new Vector3(0, 0, m_orbitCameraDistance), Transform.Rotation);
}
private void DoFlycamUpdate(float deltaTime)
{
Vector3 moveDir = Vector3.Zero;
if (WInput.GetKey(System.Windows.Input.Key.W))
{
moveDir -= Vector3.UnitZ;
}
if (WInput.GetKey(System.Windows.Input.Key.S))
{
moveDir += Vector3.UnitZ;
}
if (WInput.GetKey(System.Windows.Input.Key.D))
{
moveDir += Vector3.UnitX;
}
if (WInput.GetKey(System.Windows.Input.Key.A))
{
moveDir -= Vector3.UnitX;
}
// If they're holding down the shift key adjust their FOV when they scroll, otherwise adjust move speed.
MoveSpeed += WInput.MouseScrollDelta * 100 * deltaTime;
MoveSpeed = WMath.Clamp(MoveSpeed, 100, 8000);
if (WInput.GetMouseButton(1))
{
Rotate(deltaTime, WInput.MouseDelta.X, WInput.MouseDelta.Y);
}
float moveSpeed = WInput.GetKey(System.Windows.Input.Key.LeftShift) ? MoveSpeed * 3f : MoveSpeed;
// Make it relative to the current rotation.
moveDir = Vector3.Transform(moveDir, Transform.Rotation);
// Do Q and E after we transform the moveDir so they're always in worldspace.
if (WInput.GetKey(System.Windows.Input.Key.Q))
{
moveDir -= Vector3.UnitY;
}
if (WInput.GetKey(System.Windows.Input.Key.E))
{
moveDir += Vector3.UnitY;
}
// Normalize the move direction
moveDir.NormalizeFast();
// Early out if we're not moving this frame.
if (moveDir.LengthFast < 0.1f)
{
return;
}
Transform.Position += Vector3.Multiply(moveDir, moveSpeed * deltaTime);
}
public bool Raycast(FRay ray, out float closestDistance)
{
// Convert the ray to local space of this node since all of our raycasts are local.
FRay localRay;
if (DisableRotationAndScaleForRaycasting)
{
localRay = WMath.TransformRay(ray, Transform.Position, Vector3.One, Quaternion.Identity);
}
else
{
localRay = WMath.TransformRay(ray, Transform.Position, VisualScale, Transform.Rotation.Inverted().ToSinglePrecision());
}
closestDistance = float.MaxValue;
bool bHit = false;
if (m_actorMeshes.Count > 0)
{
foreach (var actor_mesh in m_actorMeshes)
{
bHit = actor_mesh.Raycast(localRay, out closestDistance, true);
if (bHit)
{
break;
}
}
}
else if (m_objRender != null)
{
if (m_objRender.FaceCullingEnabled && m_objRender.GetAABB().Contains(localRay.Origin))
{
// If the camera is inside an OBJ render that has backface culling on, the actor won't actually be visible, so don't select it.
return(false);
}
bHit = WMath.RayIntersectsAABB(localRay, m_objRender.GetAABB().Min, m_objRender.GetAABB().Max, out closestDistance);
if (bHit)
{
// Convert the hit point back to world space...
Vector3 localHitPoint = localRay.Origin + (localRay.Direction * closestDistance);
Vector3 globalHitPoint = Transform.Position + Vector3.Transform(localHitPoint, Transform.Rotation.ToSinglePrecision());
// Now get the distance from the original ray origin and the new worldspace hit point.
closestDistance = (globalHitPoint - ray.Origin).Length;
}
}
return(bHit);
}
void IRenderable.Draw(WSceneView view)
{
Vector3 scale = Transform.LocalScale;
Quaternion rotation = Transform.Rotation;
Vector3 translation = Transform.Position;
if (RoomTransform != null)
{
rotation = Quaternion.FromAxisAngle(Vector3.UnitY, WMath.DegreesToRadians(RoomTransform.YRotation));
translation = new Vector3(RoomTransform.Translation.X, 0, RoomTransform.Translation.Y);
}
Matrix4 trs = Matrix4.CreateScale(scale) * Matrix4.CreateFromQuaternion(rotation) * Matrix4.CreateTranslation(translation);
foreach (var mesh in m_roomModels)
{
mesh.Render(view.ViewMatrix, view.ProjMatrix, trs);
}
}
public static float FindQuaternionTwist(this Quaternion quat, Vector3 axis)
{
axis.Normalize();
// Get the plane the axis is a normal of
Vector3 orthoNormal1, orthoNormal2;
WMath.FindOrthoNormals(axis, out orthoNormal1, out orthoNormal2);
Vector3 transformed = Vector3.Transform(orthoNormal1, quat);
// Project transformed vector onto a plane
Vector3 flattened = transformed - (Vector3.Dot(transformed, axis) * axis);
flattened.Normalize();
// Get the angle between the original vector and projected transform to get angle around normal
float a = (float)Math.Acos((double)Vector3.Dot(orthoNormal1, flattened));
return(WMath.RadiansToDegrees(a));
}
/// <summary>
/// Create a Quaternion from Euler Angles. These should be in degrees in [-180, 180] space.
/// </summary>
public static Quaternion FromEulerAngles(this Quaternion quat, Vector3 eulerAngles)
{
eulerAngles.X = WMath.DegreesToRadians(eulerAngles.X);
eulerAngles.Y = WMath.DegreesToRadians(eulerAngles.Y);
eulerAngles.Z = WMath.DegreesToRadians(eulerAngles.Z);
double c1 = Math.Cos(eulerAngles.Y / 2f);
double s1 = Math.Sin(eulerAngles.Y / 2f);
double c2 = Math.Cos(eulerAngles.X / 2f);
double s2 = Math.Sin(eulerAngles.X / 2f);
double c3 = Math.Cos(eulerAngles.Z / 2f);
double s3 = Math.Sin(eulerAngles.Z / 2f);
double c1c2 = c1 * c2;
double s1s2 = s1 * s2;
float w = (float)(c1c2 * c3 - s1s2 * s3);
float x = (float)(c1c2 * s3 + s1s2 * c3);
float y = (float)(s1 * c2 * c3 + c1 * s2 * s3);
float z = (float)(c1 * s2 * c3 - s1 * c2 * s3);
return(new Quaternion(x, y, z, w));
}
public LightingPalette Lerp(float t, bool presetA = true)
{
LightingPalette[] palette = presetA ? TimePresetA : TimePresetB;
// Generate a new LightingPalette which is the interpolated values of things.
t = WMath.Clamp(t, 0, 1);
float scaledT = t * (palette.Length - 1);
int lowerIndex = (int)scaledT;
int upperIndex = (int)(scaledT + 1f);
float newT = scaledT - (int)scaledT;
//Console.WriteLine("t: {0} scaledT: {1} lIndex: {2} uIndex: {3} newT: {4}", t, scaledT, lowerIndex, upperIndex, newT);
if (upperIndex == palette.Length)
{
upperIndex = lowerIndex;
}
LightingPalette interpPalette = new LightingPalette();
interpPalette.Shadow = WLinearColor.Lerp(palette[lowerIndex].Shadow, palette[upperIndex].Shadow, newT);
interpPalette.ActorAmbient = WLinearColor.Lerp(palette[lowerIndex].ActorAmbient, palette[upperIndex].ActorAmbient, newT);
interpPalette.RoomLight = WLinearColor.Lerp(palette[lowerIndex].RoomLight, palette[upperIndex].RoomLight, newT);
interpPalette.RoomAmbient = WLinearColor.Lerp(palette[lowerIndex].RoomAmbient, palette[upperIndex].RoomAmbient, newT);
interpPalette.WaveColor = WLinearColor.Lerp(palette[lowerIndex].WaveColor, palette[upperIndex].WaveColor, newT);
interpPalette.OceanColor = WLinearColor.Lerp(palette[lowerIndex].OceanColor, palette[upperIndex].OceanColor, newT);
interpPalette.UnknownWhite1 = WLinearColor.Lerp(palette[lowerIndex].UnknownWhite1, palette[upperIndex].UnknownWhite1, newT);
interpPalette.UnknownWhite2 = WLinearColor.Lerp(palette[lowerIndex].UnknownWhite2, palette[upperIndex].UnknownWhite2, newT);
interpPalette.Doorway = WLinearColor.Lerp(palette[lowerIndex].Doorway, palette[upperIndex].Doorway, newT);
interpPalette.UnknownColor3 = WLinearColor.Lerp(palette[lowerIndex].UnknownColor3, palette[upperIndex].UnknownColor3, newT);
interpPalette.Skybox = LightingSkyboxColors.Lerp(palette[lowerIndex].Skybox, palette[upperIndex].Skybox, newT);
interpPalette.Fog = WLinearColor.Lerp(palette[lowerIndex].Fog, palette[upperIndex].Fog, newT);
interpPalette.FogNearPlane = WMath.Lerp(palette[lowerIndex].FogNearPlane, palette[upperIndex].FogNearPlane, newT);
interpPalette.FogFarPlane = WMath.Lerp(palette[lowerIndex].FogFarPlane, palette[upperIndex].FogFarPlane, newT);
return(interpPalette);
}
public Vector3 GetCenter()
{
List <J3DNode> m_roomModelNodes = GetChildrenOfType <J3DNode>();
Vector3 roomOffset = Vector3.Zero;
if (m_roomModelNodes.Count > 0)
{
roomOffset += m_roomModelNodes[0].Model.BoundingSphere.Center;
}
if (RoomTransform != null)
{
roomOffset += new Vector3(RoomTransform.Translation.X, 0, RoomTransform.Translation.Y);
float angle = WMath.DegreesToRadians(-RoomTransform.YRotation);
float origX = roomOffset.X;
float origZ = roomOffset.Z;
roomOffset.X = (float)(origX * Math.Cos(angle) - origZ * Math.Sin(angle));
roomOffset.Z = (float)(origX * Math.Sin(angle) + origZ * Math.Cos(angle));
}
return(roomOffset);
}
public static Quaternion FromEulerAnglesRobust(this Quaternion quat, Vector3 eulerAngles, string rotationOrder, bool usesX, bool usesY, bool usesZ)
{
quat = Quaternion.Identity;
foreach (var axis in rotationOrder)
{
int axisIndex = "XYZ".IndexOf(axis);
if (new[] { usesX, usesY, usesZ }[axisIndex])
{
float thisAxisRot = new[] { eulerAngles.X, eulerAngles.Y, eulerAngles.Z }[axisIndex];
Vector3 axisUnitVector = new Vector3(axis == 'X' ? 1 : 0, axis == 'Y' ? 1 : 0, axis == 'Z' ? 1 : 0);
Quaternion thisAxisRotQ = Quaternion.FromAxisAngle(axisUnitVector, WMath.DegreesToRadians(thisAxisRot));
quat *= thisAxisRotQ;
}
;
}
return(quat);
}
public void ExportToStream(EndianBinaryWriter writer, WScene scene)
{
// Build a dictionary which lists unique FourCC's and a list of all relevant actors.
var actorCategories = new Dictionary <FourCC, List <SerializableDOMNode> >();
foreach (var child in scene)
{
var groupNode = child as WDOMGroupNode;
if (groupNode == null)
{
continue;
}
// If this is an ACTR, SCOB, or TRES group node, we have to dig into it to get the layers.
if (groupNode.FourCC == FourCC.ACTR || groupNode.FourCC == FourCC.SCOB || groupNode.FourCC == FourCC.TRES)
{
foreach (var layer in groupNode.Children)
{
foreach (var obj in layer.Children)
{
var actor = obj as SerializableDOMNode;
if (actor != null)
{
AddObjectToDictionary(actor, actorCategories);
}
}
}
}
else
{
foreach (var obj in groupNode.Children)
{
var actor = obj as SerializableDOMNode;
if (actor != null)
{
AddObjectToDictionary(actor, actorCategories);
}
}
}
}
// Create a chunk header for each one.
var chunkHeaders = new List <ChunkHeader>();
foreach (var kvp in actorCategories)
{
ChunkHeader header = new ChunkHeader();
header.FourCC = kvp.Key;
header.ElementCount = kvp.Value.Count;
chunkHeaders.Add(header);
}
long chunkStart = writer.BaseStream.Position;
// Write the Header
writer.Write(chunkHeaders.Count);
for (int i = 0; i < chunkHeaders.Count; i++)
{
writer.Write((int)0); // Dummy Placeholder values for the Chunk Header.
writer.Write((int)0);
writer.Write((int)0);
}
// For each chunk, write the data for that chunk. Before writing the data, get the current offset and update the header.
List <SerializableDOMNode>[] dictionaryData = new List <SerializableDOMNode> [actorCategories.Count];
actorCategories.Values.CopyTo(dictionaryData, 0);
for (int i = 0; i < chunkHeaders.Count; i++)
{
ChunkHeader header = chunkHeaders[i];
chunkHeaders[i] = new ChunkHeader(header.FourCC, header.ElementCount, (int)(writer.BaseStream.Position - chunkStart));
List <SerializableDOMNode> actors = dictionaryData[i];
foreach (var actor in actors)
{
MapActorDescriptor template = Globals.ActorDescriptors.Find(x => x.FourCC == actor.FourCC);
if (template == null)
{
Console.WriteLine("Unsupported FourCC (\"{0}\") for exporting!", actor.FourCC);
continue;
}
actor.PreSave();
actor.Save(writer);
//WriteActorToChunk(actor, template, writer);
}
}
// Now that we've written every actor to file we can go back and re-write the headers now that we know their offsets.
writer.BaseStream.Position = chunkStart + 0x4; // 0x4 is the offset to the Chunk Headers
foreach (var header in chunkHeaders)
{
writer.WriteFixedString(FourCCConversion.GetStringFromEnum(header.FourCC), 4); // FourCC
writer.Write(header.ElementCount); // Number of Entries
writer.Write(header.ChunkOffset); // Offset from start of file.
}
// Seek to the end of the file, and then pad us to 32-byte alignment.
writer.BaseStream.Seek(0, SeekOrigin.End);
int delta = WMath.Pad32Delta(writer.BaseStream.Position);
for (int i = 0; i < delta; i++)
{
writer.Write(0xFF);
}
}
public List <WRoomTransform> GetRoomTransformTable()
{
List <WRoomTransform> roomTransforms = new List <WRoomTransform>();
int multIndex = m_chunkList.FindIndex(x => x.FourCC == FourCC.MULT);
if (multIndex >= 0)
{
ChunkHeader rtbl = m_chunkList[multIndex];
m_reader.BaseStream.Position = rtbl.ChunkOffset;
for (int i = 0; i < rtbl.ElementCount; i++)
{
WRoomTransform roomTransform = new WRoomTransform(new Vector2(m_reader.ReadSingle(), m_reader.ReadSingle()), WMath.RotationShortToFloat(m_reader.ReadInt16()), m_reader.ReadByte(), m_reader.ReadByte());
roomTransforms.Add(roomTransform);
}
}
return(roomTransforms);
}
public bool TransformFromInput(FRay ray, WSceneView view)
{
if (m_mode != FTransformMode.Translation)
{
WrapCursor();
}
// Store the cursor position in viewport coordinates.
Vector2 screenDimensions = App.GetScreenGeometry();
Vector2 cursorPos = App.GetCursorPosition();
Vector2 mouseCoords = new Vector2(((2f * cursorPos.X) / screenDimensions.X) - 1f, (1f - ((2f * cursorPos.Y) / screenDimensions.Y))); //[-1,1] range
bool shiftPressed = WInput.GetKey(Key.LeftShift) || WInput.GetKey(Key.RightShift);
if (m_mode == FTransformMode.Translation)
{
// Create a Translation Plane
Vector3 axisA, axisB;
if (GetNumSelectedAxes() == 1)
{
if (m_selectedAxes == FSelectedAxes.X)
{
axisB = Vector3.UnitX;
}
else if (m_selectedAxes == FSelectedAxes.Y)
{
axisB = Vector3.UnitY;
}
else
{
axisB = Vector3.UnitZ;
}
Vector3 dirToCamera = (m_position - view.GetCameraPos()).Normalized();
axisA = Vector3.Cross(axisB, dirToCamera);
}
else
{
axisA = ContainsAxis(m_selectedAxes, FSelectedAxes.X) ? Vector3.UnitX : Vector3.UnitZ;
axisB = ContainsAxis(m_selectedAxes, FSelectedAxes.Y) ? Vector3.UnitY : Vector3.UnitZ;
}
Vector3 planeNormal = Vector3.Cross(axisA, axisB).Normalized();
m_translationPlane = new FPlane(planeNormal, m_position);
float intersectDist;
if (m_translationPlane.RayIntersectsPlane(ray, out intersectDist))
{
Vector3 hitPos = ray.Origin + (ray.Direction * intersectDist);
Vector3 localDelta = Vector3.Transform(hitPos - m_position, m_rotation.Inverted());
// Calculate a new position
Vector3 newPos = m_position;
if (ContainsAxis(m_selectedAxes, FSelectedAxes.X))
{
newPos += Vector3.Transform(Vector3.UnitX, m_rotation) * localDelta.X;
}
if (ContainsAxis(m_selectedAxes, FSelectedAxes.Y))
{
newPos += Vector3.Transform(Vector3.UnitY, m_rotation) * localDelta.Y;
}
if (ContainsAxis(m_selectedAxes, FSelectedAxes.Z))
{
newPos += Vector3.Transform(Vector3.UnitZ, m_rotation) * localDelta.Z;
}
if (shiftPressed)
{
// Round to nearest 100 unit increment while shift is held down.
newPos.X = (float)Math.Round(newPos.X / 100f) * 100f;
newPos.Y = (float)Math.Round(newPos.Y / 100f) * 100f;
newPos.Z = (float)Math.Round(newPos.Z / 100f) * 100f;
}
// Check the new location to see if it's skyrocked off into the distance due to near-plane raytracing issues.
Vector3 newPosDirToCamera = (newPos - view.GetCameraPos()).Normalized();
float dot = Math.Abs(Vector3.Dot(planeNormal, newPosDirToCamera));
//Console.WriteLine("hitPos: {0} localOffset: {1} newPos: {2}, dotResult: {3}", hitPos, localOffset, newPos, dot);
if (dot < 0.02f)
{
return(false);
}
// This is used to set the offset to the gizmo the mouse cursor is from the origin of the gizmo on the first frame
// that you click on the gizmo.
if (!m_hasSetMouseOffset)
{
m_translateOffset = m_position - newPos;
m_deltaTranslation = Vector3.Zero;
m_hasSetMouseOffset = true;
return(false);
}
// Apply Translation
m_deltaTranslation = Vector3.Transform(newPos - m_position + m_translateOffset, m_rotation.Inverted());
if (!ContainsAxis(m_selectedAxes, FSelectedAxes.X))
{
m_deltaTranslation.X = 0f;
}
if (!ContainsAxis(m_selectedAxes, FSelectedAxes.Y))
{
m_deltaTranslation.Y = 0f;
}
if (!ContainsAxis(m_selectedAxes, FSelectedAxes.Z))
{
m_deltaTranslation.Z = 0f;
}
m_totalTranslation += m_deltaTranslation;
m_position += Vector3.Transform(m_deltaTranslation, m_rotation);
if (!m_hasTransformed && (m_deltaTranslation != Vector3.Zero))
{
m_hasTransformed = true;
}
return(m_hasTransformed);
}
else
{
// Our raycast missed the plane
m_deltaTranslation = Vector3.Zero;
return(false);
}
}
else if (m_mode == FTransformMode.Rotation)
{
Vector3 rotationAxis;
if (m_selectedAxes == FSelectedAxes.X)
{
rotationAxis = Vector3.UnitX;
}
else if (m_selectedAxes == FSelectedAxes.Y)
{
rotationAxis = Vector3.UnitY;
}
else
{
rotationAxis = Vector3.UnitZ;
}
// Convert these from [0-1] to [-1, 1] to match our mouse coords.
Vector2 lineOrigin = (view.UnprojectWorldToViewport(m_hitPoint) * 2) - Vector2.One;
Vector2 lineEnd = (view.UnprojectWorldToViewport(m_hitPoint + m_moveDir) * 2) - Vector2.One;
lineOrigin.Y = -lineOrigin.Y;
lineEnd.Y = -lineEnd.Y;
Vector2 lineDir = (lineEnd - lineOrigin).Normalized();
float rotAmount = Vector2.Dot(lineDir, mouseCoords + m_wrapOffset - lineOrigin) * 180f;
if (float.IsNaN(rotAmount))
{
Console.WriteLine("rotAmountNaN!");
return(false);
}
if (!m_hasSetMouseOffset)
{
m_rotateOffset = -rotAmount;
m_deltaRotation = Quaternion.Identity;
m_hasSetMouseOffset = true;
return(false);
}
// Apply Rotation
rotAmount += m_rotateOffset;
if (shiftPressed)
{
// Round to nearest 45 degree increment while shift is held down.
rotAmount = (float)Math.Round(rotAmount / 45f) * 45f;
}
Quaternion oldRot = m_currentRotation;
m_currentRotation = Quaternion.FromAxisAngle(rotationAxis, WMath.DegreesToRadians(rotAmount));
m_deltaRotation = m_currentRotation * oldRot.Inverted();
if (m_transformSpace == FTransformSpace.Local)
{
m_rotation *= m_deltaRotation;
}
// Add to Total Rotation recorded for UI.
if (m_selectedAxes == FSelectedAxes.X)
{
m_totalRotation.X = rotAmount;
}
else if (m_selectedAxes == FSelectedAxes.Y)
{
m_totalRotation.Y = rotAmount;
}
else
{
m_totalRotation.Z = rotAmount;
}
if (!m_hasTransformed && rotAmount != 0f)
{
m_hasTransformed = true;
}
return(m_hasTransformed);
}
else if (m_mode == FTransformMode.Scale)
{
// Create a line in screen space.
// Convert these from [0-1] to [-1, 1] to match our mouse coords.
Vector2 lineOrigin = (view.UnprojectWorldToViewport(m_position) * 2) - Vector2.One;
lineOrigin.Y = -lineOrigin.Y;
// Determine the appropriate world space directoin using the selected axes and then conver this for use with
// screen-space controlls. This has to be done every frame because the axes can be flipped while the gizmo
// is transforming, so we can't pre-calculate this.
Vector3 dirX = Vector3.Transform(mFlipScaleX ? -Vector3.UnitX : Vector3.UnitX, m_rotation);
Vector3 dirY = Vector3.Transform(mFlipScaleY ? -Vector3.UnitY : Vector3.UnitY, m_rotation);
Vector3 dirZ = Vector3.Transform(mFlipScaleZ ? -Vector3.UnitZ : Vector3.UnitZ, m_rotation);
Vector2 lineDir;
// If there is only one axis, then the world space direction is the selected axis.
if (GetNumSelectedAxes() == 1)
{
Vector3 worldDir;
if (ContainsAxis(m_selectedAxes, FSelectedAxes.X))
{
worldDir = dirX;
}
if (ContainsAxis(m_selectedAxes, FSelectedAxes.Y))
{
worldDir = dirY;
}
else
{
worldDir = dirZ;
}
Vector2 worldPoint = (view.UnprojectWorldToViewport(m_position + worldDir) * 2) - Vector2.One;
worldPoint.Y = -lineOrigin.Y;
lineDir = (worldPoint - lineOrigin).Normalized();
}
// If there's two axii selected, then convert both to screen space and average them out to get the line direction.
else if (GetNumSelectedAxes() == 2)
{
Vector3 axisA = ContainsAxis(m_selectedAxes, FSelectedAxes.X) ? dirX : dirY;
Vector3 axisB = ContainsAxis(m_selectedAxes, FSelectedAxes.Z) ? dirZ : dirY;
Vector2 screenA = (view.UnprojectWorldToViewport(m_position + axisA) * 2) - Vector2.One;
screenA.Y = -screenA.Y;
Vector2 screenB = (view.UnprojectWorldToViewport(m_position + axisB) * 2) - Vector2.One;
screenB.Y = -screenB.Y;
screenA = (screenA - lineOrigin).Normalized();
screenB = (screenB - lineOrigin).Normalized();
lineDir = ((screenA + screenB) / 2f).Normalized();
}
// There's three axis, just use up.
else
{
lineDir = Vector2.UnitY;
}
float scaleAmount = Vector2.Dot(lineDir, mouseCoords + m_wrapOffset - lineOrigin) * 5f;
if (shiftPressed)
{
// Round to nearest whole number scale while shift is held down.
scaleAmount = (float)Math.Round(scaleAmount);
}
// Set their initial offset if we haven't already
if (!m_hasSetMouseOffset)
{
m_scaleOffset = -scaleAmount;
m_deltaScale = Vector3.One;
m_hasSetMouseOffset = true;
return(false);
}
// Apply the scale
scaleAmount = scaleAmount + m_scaleOffset + 1f;
// A multiplier is applied to the scale amount if it's less than one to prevent it dropping into the negatives.
// ???
if (scaleAmount < 1f)
{
scaleAmount = 1f / (-(scaleAmount - 1f) + 1f);
}
Vector3 oldScale = m_totalScale;
m_totalScale = Vector3.One;
if (ContainsAxis(m_selectedAxes, FSelectedAxes.X))
{
m_totalScale.X = scaleAmount;
}
if (ContainsAxis(m_selectedAxes, FSelectedAxes.Y))
{
m_totalScale.Y = scaleAmount;
}
if (ContainsAxis(m_selectedAxes, FSelectedAxes.Z))
{
m_totalScale.Z = scaleAmount;
}
m_deltaScale = new Vector3(m_totalScale.X / oldScale.X, m_totalScale.Y / oldScale.Y, m_totalScale.Z / oldScale.Z);
if (!m_hasTransformed && (scaleAmount != 1f))
{
m_hasTransformed = true;
}
return(m_hasTransformed);
}
return(false);
}
public bool CheckSelectedAxes(FRay ray)
{
// Convert the ray into local space so we can use axis-aligned checks, this solves the checking problem
// when the gizmo is rotated due to being in Local mode.
FRay localRay = new FRay();
localRay.Direction = Vector3.Transform(ray.Direction, m_rotation.Inverted());
localRay.Origin = Vector3.Transform(ray.Origin - m_position, m_rotation.Inverted());
//m_lineBatcher.DrawLine(localRay.Origin, localRay.Origin + (localRay.Direction * 10000), WLinearColor.White, 25, 5);
List <AxisDistanceResult> results = new List <AxisDistanceResult>();
if (m_mode == FTransformMode.Translation)
{
FAABox[] translationAABB = GetAABBBoundsForMode(FTransformMode.Translation);
for (int i = 0; i < translationAABB.Length; i++)
{
float intersectDist;
if (WMath.RayIntersectsAABB(localRay, translationAABB[i].Min, translationAABB[i].Max, out intersectDist))
{
results.Add(new AxisDistanceResult((FSelectedAxes)(i + 1), intersectDist));
}
}
}
else if (m_mode == FTransformMode.Rotation)
{
// We'll use a combination of AABB and Distance checks to give us the quarter-circles we need.
FAABox[] rotationAABB = GetAABBBoundsForMode(FTransformMode.Rotation);
float screenScale = 0f;
for (int i = 0; i < 3; i++)
{
screenScale += m_scale[i];
}
screenScale /= 3f;
for (int i = 0; i < rotationAABB.Length; i++)
{
float intersectDist;
if (WMath.RayIntersectsAABB(localRay, rotationAABB[i].Min, rotationAABB[i].Max, out intersectDist))
{
Vector3 intersectPoint = localRay.Origin + (localRay.Direction * intersectDist);
// Convert this aabb check into a radius check so we clip it by the semi-circles
// that the rotation tool actually is.
if (intersectPoint.Length > 105f * screenScale)
{
continue;
}
results.Add(new AxisDistanceResult((FSelectedAxes)(i + 1), intersectDist));
}
}
}
else if (m_mode == FTransformMode.Scale)
{
FAABox[] scaleAABB = GetAABBBoundsForMode(FTransformMode.Scale);
for (int i = 0; i < scaleAABB.Length; i++)
{
float intersectDist;
if (WMath.RayIntersectsAABB(localRay, scaleAABB[i].Min, scaleAABB[i].Max, out intersectDist))
{
// Special-case here to give the center scale point overriding priority. Because we intersected
// it, we can just override its distance to zero to make it clickable through the other bounding boxes.
if ((FSelectedAxes)i + 1 == FSelectedAxes.All)
{
intersectDist = 0f;
}
results.Add(new AxisDistanceResult((FSelectedAxes)(i + 1), intersectDist));
}
}
}
if (results.Count == 0)
{
m_selectedAxes = FSelectedAxes.None;
return(false);
}
// If we get an intersection, sort them by the closest intersection distance.
results.Sort((x, y) => x.Distance.CompareTo(y.Distance));
m_selectedAxes = results[0].Axis;
// Store where the mouse hit on the first frame in world space. This means converting the ray back to worldspace.
Vector3 localHitPoint = localRay.Origin + (localRay.Direction * results[0].Distance);
m_hitPoint = Vector3.Transform(localHitPoint, m_rotation) + m_position;
return(true);
}
private void WriteActorToChunk(WActorNode actor, MapActorDescriptor template, EndianBinaryWriter writer)
{
// Just convert their rotation to Euler Angles now instead of doing it in parts later.
Vector3 eulerRot = actor.Transform.Rotation.ToEulerAngles();
foreach (var field in template.Fields)
{
IPropertyValue propValue = actor.Properties.Find(x => x.Name == field.FieldName);
if (field.FieldName == "Position")
{
propValue = new TVector3PropertyValue(actor.Transform.Position, "Position");
}
else if (field.FieldName == "X Rotation")
{
short xRotShort = WMath.RotationFloatToShort(eulerRot.X);
propValue = new TShortPropertyValue(xRotShort, "X Rotation");
}
else if (field.FieldName == "Y Rotation")
{
short yRotShort = WMath.RotationFloatToShort(eulerRot.Y);
propValue = new TShortPropertyValue(yRotShort, "Y Rotation");
}
else if (field.FieldName == "Z Rotation")
{
short zRotShort = WMath.RotationFloatToShort(eulerRot.Z);
propValue = new TShortPropertyValue(zRotShort, "Z Rotation");
}
else if (field.FieldName == "X Scale")
{
float xScale = actor.Transform.LocalScale.X;
propValue = new TBytePropertyValue((byte)(xScale * 10), "X Scale");
}
else if (field.FieldName == "Y Scale")
{
float yScale = actor.Transform.LocalScale.Y;
propValue = new TBytePropertyValue((byte)(yScale * 10), "Y Scale");
}
else if (field.FieldName == "Z Scale")
{
float zScale = actor.Transform.LocalScale.Z;
propValue = new TBytePropertyValue((byte)(zScale * 10), "Z Scale");
}
switch (field.FieldType)
{
case PropertyValueType.Byte:
writer.Write((byte)propValue.GetValue()); break;
case PropertyValueType.Bool:
writer.Write((bool)propValue.GetValue()); break;
case PropertyValueType.Short:
writer.Write((short)propValue.GetValue()); break;
case PropertyValueType.Int:
writer.Write((int)propValue.GetValue()); break;
case PropertyValueType.Float:
writer.Write((float)propValue.GetValue()); break;
case PropertyValueType.String:
writer.Write(System.Text.Encoding.ASCII.GetBytes((string)propValue.GetValue())); break;
case PropertyValueType.FixedLengthString:
string fixedLenStr = (string)propValue.GetValue();
for (int i = 0; i < field.Length; i++)
{
writer.Write(i < fixedLenStr.Length ? (byte)fixedLenStr[i] : (byte)0);
}
//writer.WriteFixedString((string)propValue.GetValue(), (int)field.Length); break;
break;
case PropertyValueType.Vector2:
Vector2 vec2Val = (Vector2)propValue.GetValue();
writer.Write(vec2Val.X);
writer.Write(vec2Val.Y);
break;
case PropertyValueType.Vector3:
Vector3 vec3Val = (Vector3)propValue.GetValue();
writer.Write(vec3Val.X);
writer.Write(vec3Val.Y);
writer.Write(vec3Val.Z);
break;
case PropertyValueType.XRotation:
case PropertyValueType.YRotation:
case PropertyValueType.ZRotation:
writer.Write((short)propValue.GetValue()); break;
case PropertyValueType.Color24:
WLinearColor color24 = (WLinearColor)propValue.GetValue();
writer.Write((byte)color24.R);
writer.Write((byte)color24.G);
writer.Write((byte)color24.B);
break;
case PropertyValueType.Color32:
WLinearColor color32 = (WLinearColor)propValue.GetValue();
writer.Write((byte)color32.R);
writer.Write((byte)color32.G);
writer.Write((byte)color32.B);
writer.Write((byte)color32.A);
break;
default:
Console.WriteLine("Unsupported PropertyValueType: {0}", field.FieldType);
break;
}
}
}
public void SetRoomTransform(WRoomTransform roomTransform)
{
List <J3DNode> m_roomModelNodes = GetChildrenOfType <J3DNode>();
RoomTransform = roomTransform;
foreach (J3DNode j3d_node in m_roomModelNodes)
{
j3d_node.Transform.Position = new Vector3(RoomTransform.Translation.X, 0, RoomTransform.Translation.Y);
j3d_node.Transform.LocalRotation = Quaterniond.FromAxisAngle(Vector3d.UnitY, WMath.DegreesToRadians(RoomTransform.YRotation));
}
}
public EnvironmentLightingPalette Lerp(float t, bool presetA = true)
{
// Generate a new LightingPalette which is the interpolated values of things.
t = WMath.Clamp(t, 0, 1);
float scaledT = t * (6 - 1);
int lowerIndex = (int)scaledT;
int upperIndex = (int)(scaledT + 1f);
float newT = scaledT - (int)scaledT;
EnvironmentLightingPalette palette_a = null;
EnvironmentLightingPalette palette_b = null;
if (upperIndex == 6)
{
upperIndex = lowerIndex;
}
switch ((TimeOfDay)lowerIndex)
{
case TimeOfDay.Dawn:
palette_a = Dawn;
break;
case TimeOfDay.Morning:
palette_a = Morning;
break;
case TimeOfDay.Noon:
palette_a = Noon;
break;
case TimeOfDay.Afternoon:
palette_a = Afternoon;
break;
case TimeOfDay.Dusk:
palette_a = Dusk;
break;
case TimeOfDay.Night:
palette_a = Night;
break;
}
switch ((TimeOfDay)upperIndex)
{
case TimeOfDay.Dawn:
palette_b = Dawn;
break;
case TimeOfDay.Morning:
palette_b = Morning;
break;
case TimeOfDay.Noon:
palette_b = Noon;
break;
case TimeOfDay.Afternoon:
palette_b = Afternoon;
break;
case TimeOfDay.Dusk:
palette_b = Dusk;
break;
case TimeOfDay.Night:
palette_b = Night;
break;
}
//Console.WriteLine("t: {0} scaledT: {1} lIndex: {2} uIndex: {3} newT: {4}", t, scaledT, lowerIndex, upperIndex, newT);
EnvironmentLightingPalette interpPalette = new EnvironmentLightingPalette();
interpPalette.ShadowColor = WLinearColor.Lerp(palette_a.ShadowColor, palette_b.ShadowColor, newT);
interpPalette.ActorAmbientColor = WLinearColor.Lerp(palette_a.ActorAmbientColor, palette_b.ActorAmbientColor, newT);
interpPalette.RoomLightColor = WLinearColor.Lerp(palette_a.RoomLightColor, palette_b.RoomLightColor, newT);
interpPalette.RoomAmbientColor = WLinearColor.Lerp(palette_a.RoomAmbientColor, palette_b.RoomAmbientColor, newT);
interpPalette.WaveColor = WLinearColor.Lerp(palette_a.WaveColor, palette_b.WaveColor, newT);
interpPalette.OceanColor = WLinearColor.Lerp(palette_a.OceanColor, palette_b.OceanColor, newT);
interpPalette.UnknownWhite1 = WLinearColor.Lerp(palette_a.UnknownWhite1, palette_b.UnknownWhite1, newT);
interpPalette.UnknownWhite2 = WLinearColor.Lerp(palette_a.UnknownWhite2, palette_b.UnknownWhite2, newT);
interpPalette.DoorBackfill = WLinearColor.Lerp(palette_a.DoorBackfill, palette_b.DoorBackfill, newT);
interpPalette.Unknown3 = WLinearColor.Lerp(palette_a.Unknown3, palette_b.Unknown3, newT);
interpPalette.SkyboxPalette = EnvironmentLightingSkyboxPalette.Lerp(palette_a.SkyboxPalette, palette_b.SkyboxPalette, newT);
interpPalette.FogColor = WLinearColor.Lerp(palette_a.FogColor, palette_b.FogColor, newT);
interpPalette.FogNearPlane = WMath.Lerp(palette_a.FogNearPlane, palette_b.FogNearPlane, newT);
interpPalette.FogFarPlane = WMath.Lerp(palette_a.FogFarPlane, palette_b.FogFarPlane, newT);
return(interpPalette);
}
public static WLinearColor Lerp(WLinearColor a, WLinearColor b, float t)
{
t = WMath.Clamp(t, 0, 1);
return(new WLinearColor((1 - t) * a.R + t * b.R, (1 - t) * a.G + t * b.G, (1 - t) * a.B + t * b.B, (1 - t) * a.A + t * b.A));
}
/// <summary>
/// Convert a Quaternion to all possible ways it can be represented as Euler Angles.
/// Returns the angles in [-180, 180] space in degrees.
/// </summary>
public static List <Vector3> ToEulerAnglesRobust(this Quaterniond quat, string rotationOrder)
{
var representations = new List <Vector3>();
var qx = quat.X;
var qy = quat.Y;
var qz = quat.Z;
var qw = quat.W;
var mat = Matrix3d.CreateFromQuaternion(quat).Inverted();
double x, y, z;
switch (rotationOrder)
{
case "ZYX":
y = Math.Asin(-Math.Min(1, Math.Max(-1, mat.M31)));
if (Math.Abs(mat.M31) < 0.999999)
{
x = Math.Atan2(mat.M32, mat.M33);
z = Math.Atan2(mat.M21, mat.M11);
}
else
{
x = Math.Atan2(-mat.M12, mat.M22);
z = 0f;
}
representations.Add(new Vector3(
WMath.RadiansToDegrees((float)x),
WMath.RadiansToDegrees((float)y),
WMath.RadiansToDegrees((float)z)
));
y = CopySign(Math.PI, y) - y;
x = x - CopySign(Math.PI, x);
z = z - CopySign(Math.PI, z);
representations.Add(new Vector3(
WMath.RadiansToDegrees((float)x),
WMath.RadiansToDegrees((float)y),
WMath.RadiansToDegrees((float)z)
));
break;
case "YXZ":
x = Math.Asin(-Math.Min(1, Math.Max(-1, mat.M23)));
if (Math.Abs(mat.M23) < 0.999999)
{
y = Math.Atan2(mat.M13, mat.M33);
z = Math.Atan2(mat.M21, mat.M22);
}
else
{
y = Math.Atan2(-mat.M31, mat.M11);
z = 0f;
}
representations.Add(new Vector3(
WMath.RadiansToDegrees((float)x),
WMath.RadiansToDegrees((float)y),
WMath.RadiansToDegrees((float)z)
));
x = CopySign(Math.PI, x) - x;
y = y - CopySign(Math.PI, y);
z = z - CopySign(Math.PI, z);
representations.Add(new Vector3(
WMath.RadiansToDegrees((float)x),
WMath.RadiansToDegrees((float)y),
WMath.RadiansToDegrees((float)z)
));
break;
default:
throw new NotImplementedException($"Quaternion to euler rotation conversion not implemented for rotation order: {rotationOrder}");
}
return(representations);
}
/// <summary>
/// Convert a Quaternion to all possible ways it can be represented as Euler Angles.
/// Returns the angles in [-180, 180] space in degrees.
/// </summary>
public static List <Vector3> ToEulerAnglesRobust(this Quaternion quat, string rotationOrder)
{
var representations = new List <Vector3>();
var qx = quat.X;
var qy = quat.Y;
var qz = quat.Z;
var qw = quat.W;
// Convert the quaternion to a 3x3 matrix.
// We don't use OpenTK's Matrix3 class because it stores the values as single-precision floats, which loses information.
// By manually calculating the matrix elements as doubles, we can get the maximum amount of accuracy.
double m11 = 1.0 - 2.0 * (qy * qy + qz * qz);
double m12 = 2.0 * (qx * qy - qz * qw);
double m13 = 2.0 * (qx * qz + qy * qw);
double m21 = 2.0 * (qx * qy + qz * qw);
double m22 = 1.0 - 2.0 * (qx * qx + qz * qz);
double m23 = 2.0 * (qy * qz - qx * qw);
double m31 = 2.0 * (qx * qz - qy * qw);
double m32 = 2.0 * (qy * qz + qx * qw);
double m33 = 1.0 - 2.0 * (qx * qx + qy * qy);
double x, y, z;
switch (rotationOrder)
{
case "ZYX":
y = Math.Asin(-Math.Min(1, Math.Max(-1, m31)));
if (Math.Abs(m31) < 0.999999)
{
x = Math.Atan2(m32, m33);
z = Math.Atan2(m21, m11);
}
else
{
x = Math.Atan2(-m12, m22);
z = 0f;
}
representations.Add(new Vector3(
WMath.RadiansToDegrees((float)x),
WMath.RadiansToDegrees((float)y),
WMath.RadiansToDegrees((float)z)
));
y = CopySign(Math.PI, y) - y;
x = x - CopySign(Math.PI, x);
z = z - CopySign(Math.PI, z);
representations.Add(new Vector3(
WMath.RadiansToDegrees((float)x),
WMath.RadiansToDegrees((float)y),
WMath.RadiansToDegrees((float)z)
));
break;
case "YXZ":
x = Math.Asin(-Math.Min(1, Math.Max(-1, m23)));
if (Math.Abs(m23) < 0.999999)
{
y = Math.Atan2(m13, m33);
z = Math.Atan2(m21, m22);
}
else
{
y = Math.Atan2(-m31, m11);
z = 0f;
}
representations.Add(new Vector3(
WMath.RadiansToDegrees((float)x),
WMath.RadiansToDegrees((float)y),
WMath.RadiansToDegrees((float)z)
));
x = CopySign(Math.PI, x) - x;
y = y - CopySign(Math.PI, y);
z = z - CopySign(Math.PI, z);
representations.Add(new Vector3(
WMath.RadiansToDegrees((float)x),
WMath.RadiansToDegrees((float)y),
WMath.RadiansToDegrees((float)z)
));
break;
default:
throw new NotImplementedException($"Quaternion to euler rotation conversion not implemented for rotation order: {rotationOrder}");
}
return(representations);
}
public void ExportToStream(EndianBinaryWriter writer, WScene scene)
{
// Build a dictionary which lists unique FourCC's and a list of all relevant actors.
var actorCategories = new Dictionary <string, List <WActorNode> >();
foreach (var child in scene)
{
WActorNode actor = child as WActorNode;
if (actor != null)
{
string fixedFourCC = ChunkHeader.LayerToFourCC(actor.FourCC, actor.Layer);
if (!actorCategories.ContainsKey(fixedFourCC))
{
actorCategories[fixedFourCC] = new List <WActorNode>();
}
actorCategories[fixedFourCC].Add(actor);
}
}
// Create a chunk header for each one.
var chunkHeaders = new List <ChunkHeader>();
foreach (var kvp in actorCategories)
{
ChunkHeader header = new ChunkHeader();
header.FourCC = kvp.Key;
header.ElementCount = kvp.Value.Count;
chunkHeaders.Add(header);
}
long chunkStart = writer.BaseStream.Position;
// Write the Header
writer.Write(chunkHeaders.Count);
for (int i = 0; i < chunkHeaders.Count; i++)
{
writer.Write((int)0); // Dummy Placeholder values for the Chunk Header.
writer.Write((int)0);
writer.Write((int)0);
}
// For each chunk, write the data for that chunk. Before writing the data, get the current offset and update the header.
List <WActorNode>[] dictionaryData = new List <WActorNode> [actorCategories.Count];
actorCategories.Values.CopyTo(dictionaryData, 0);
for (int i = 0; i < chunkHeaders.Count; i++)
{
ChunkHeader header = chunkHeaders[i];
chunkHeaders[i] = new ChunkHeader(header.FourCC, header.ElementCount, (int)(writer.BaseStream.Position - chunkStart));
List <WActorNode> actors = dictionaryData[i];
foreach (var actor in actors)
{
MapActorDescriptor template = m_sActorDescriptors.Find(x => x.FourCC == actor.FourCC);
if (template == null)
{
Console.WriteLine("Unsupported FourCC (\"{0}\") for exporting!", actor.FourCC);
continue;
}
WriteActorToChunk(actor, template, writer);
}
}
// Now that we've written every actor to file we can go back and re-write the headers now that we know their offsets.
writer.BaseStream.Position = chunkStart + 0x4; // 0x4 is the offset to the Chunk Headers
foreach (var header in chunkHeaders)
{
writer.WriteFixedString(header.FourCC, 4); // FourCC
writer.Write(header.ElementCount); // Number of Entries
writer.Write(header.ChunkOffset); // Offset from start of file.
}
// Seek to the end of the file, and then pad us to 32-byte alignment.
writer.BaseStream.Seek(0, SeekOrigin.End);
int delta = WMath.Pad32Delta(writer.BaseStream.Position);
for (int i = 0; i < delta; i++)
{
writer.Write((byte)0xFF);
}
}
/// <summary>
/// Convert a Quaternion to Euler Angles. Returns the angles in [-180, 180] space in degrees.
/// </summary>
/// <typeparam name="T"></typeparam>
/// <param name="quat"></param>
/// <returns></returns>
public static Vector3 ToEulerAngles(this Quaternion quat)
{
return(new Vector3(WMath.RadiansToDegrees(PitchFromQuat(quat)), WMath.RadiansToDegrees(YawFromQuat(quat)), WMath.RadiansToDegrees(RollFromQuat(quat))));
}
public void DecrementSize()
{
m_gizmoSize = WMath.Clamp(m_gizmoSize - 0.05f, 0.05f, float.MaxValue);
}
public void Rotate(Vector3 axis, float angleInDegrees)
{
Quaterniond rotQuat = Quaterniond.FromAxisAngle((Vector3d)axis, WMath.DegreesToRadians(angleInDegrees));
Rotation = rotQuat * Rotation;
}
private WActorNode LoadActorFromChunk(string fourCC, MapActorDescriptor template)
{
var newActor = new WActorNode(fourCC, m_world);
List <IPropertyValue> actorProperties = new List <IPropertyValue>();
foreach (var field in template.Fields)
{
IPropertyValue propValue = null;
switch (field.FieldType)
{
case PropertyValueType.Byte:
propValue = new TBytePropertyValue(m_reader.ReadByte(), field.FieldName);
break;
case PropertyValueType.Bool:
propValue = new TBoolPropertyValue(m_reader.ReadBoolean(), field.FieldName);
break;
case PropertyValueType.Short:
propValue = new TShortPropertyValue(m_reader.ReadInt16(), field.FieldName);
break;
case PropertyValueType.Int:
propValue = new TIntPropertyValue(m_reader.ReadInt32(), field.FieldName);
break;
case PropertyValueType.Float:
propValue = new TFloatPropertyValue(m_reader.ReadSingle(), field.FieldName);
break;
case PropertyValueType.FixedLengthString:
case PropertyValueType.String:
string stringVal = (field.Length == 0) ? m_reader.ReadStringUntil('\0') : m_reader.ReadString(field.Length);
stringVal = stringVal.Trim(new[] { '\0' });
propValue = new TStringPropertyValue(stringVal, field.FieldName);
break;
case PropertyValueType.Vector2:
propValue = new TVector2PropertyValue(new OpenTK.Vector2(m_reader.ReadSingle(), m_reader.ReadSingle()), field.FieldName);
break;
case PropertyValueType.Vector3:
propValue = new TVector3PropertyValue(new OpenTK.Vector3(m_reader.ReadSingle(), m_reader.ReadSingle(), m_reader.ReadSingle()), field.FieldName);
break;
case PropertyValueType.XRotation:
case PropertyValueType.YRotation:
case PropertyValueType.ZRotation:
propValue = new TShortPropertyValue(m_reader.ReadInt16(), field.FieldName);
break;
case PropertyValueType.Color24:
propValue = new TLinearColorPropertyValue(new WLinearColor(m_reader.ReadByte() / 255f, m_reader.ReadByte() / 255f, m_reader.ReadByte() / 255f), field.FieldName);
break;
case PropertyValueType.Color32:
propValue = new TLinearColorPropertyValue(new WLinearColor(m_reader.ReadByte() / 255f, m_reader.ReadByte() / 255f, m_reader.ReadByte() / 255f, m_reader.ReadByte() / 255f), field.FieldName);
break;
default:
Console.WriteLine("Unsupported PropertyValueType: {0}", field.FieldType);
break;
}
propValue.SetUndoStack(m_world.UndoStack);
actorProperties.Add(propValue);
}
// Now that we have loaded all properties out of it, we need to post-process them.
IPropertyValue positionProperty = actorProperties.Find(x => x.Name == "Position");
IPropertyValue xRotProperty = actorProperties.Find(x => x.Name == "X Rotation");
IPropertyValue yRotProperty = actorProperties.Find(x => x.Name == "Y Rotation");
IPropertyValue zRotProperty = actorProperties.Find(x => x.Name == "Z Rotation");
IPropertyValue xScaleProperty = actorProperties.Find(x => x.Name == "X Scale");
IPropertyValue yScaleProperty = actorProperties.Find(x => x.Name == "Y Scale");
IPropertyValue zScaleProperty = actorProperties.Find(x => x.Name == "Z Scale");
// Remove these properties from the actor so they don't get added to the UI.
actorProperties.Remove(positionProperty);
actorProperties.Remove(xRotProperty);
actorProperties.Remove(yRotProperty);
actorProperties.Remove(zRotProperty);
actorProperties.Remove(xScaleProperty);
actorProperties.Remove(yScaleProperty);
actorProperties.Remove(zScaleProperty);
if (positionProperty != null)
{
newActor.Transform.Position = (Vector3)positionProperty.GetValue();
}
float xRot = 0, yRot = 0, zRot = 0;
if (xRotProperty != null)
{
xRot = WMath.RotationShortToFloat((short)xRotProperty.GetValue());
}
if (yRotProperty != null)
{
yRot = WMath.RotationShortToFloat((short)yRotProperty.GetValue());
}
if (zRotProperty != null)
{
zRot = WMath.RotationShortToFloat((short)zRotProperty.GetValue());
}
// Build rotation with ZYX order.
Quaternion xRotQ = Quaternion.FromAxisAngle(new Vector3(1, 0, 0), WMath.DegreesToRadians(xRot));
Quaternion yRotQ = Quaternion.FromAxisAngle(new Vector3(0, 1, 0), WMath.DegreesToRadians(yRot));
Quaternion zRotQ = Quaternion.FromAxisAngle(new Vector3(0, 0, 1), WMath.DegreesToRadians(zRot));
newActor.Transform.Rotation = zRotQ * yRotQ * xRotQ;
float xScale = 1, yScale = 1, zScale = 1;
if (xScaleProperty != null)
{
xScale = ((byte)xScaleProperty.GetValue()) / 10f;
}
if (yScaleProperty != null)
{
yScale = ((byte)yScaleProperty.GetValue()) / 10f;
}
if (zScaleProperty != null)
{
zScale = ((byte)zScaleProperty.GetValue()) / 10f;
}
newActor.Transform.LocalScale = new Vector3(xScale, yScale, zScale);
newActor.Properties.AddRange(actorProperties);
newActor.PostFinishedLoad();
return(newActor);
}
