void CalcBoundingPlanes(Vector3 u, out double minDot, out double maxDot)
{
double centerDot = Vector3Ex.Dot(u, Center);
double AxisCdotU = Vector3Ex.Dot(CenterAxis, u);
if (IsRightCylinderFlag)
{
double deltaDot = HalfHeight * Math.Abs(AxisCdotU)
+ Math.Sqrt(Square(RadiusA * RadiusA * Vector3Ex.Dot(AxisA, u)) + Square(RadiusB * RadiusB * Vector3Ex.Dot(AxisB, u)));
minDot = centerDot - deltaDot;
maxDot = centerDot + deltaDot;
return;
}
double maxD, minD;
// Handle top face
Vector3 perp = TopNormal;
perp *= u;
double alpha = Vector3Ex.Dot(perp, AxisA) * RadiusA;
double beta = Vector3Ex.Dot(perp, AxisB) * RadiusB;
if (alpha == 0.0 && beta == 0.0)
{ // If u perpendicular to top face
maxD = minD = TopPlaneCoef * Vector3Ex.Dot(u, TopNormal);
}
else
{
double solnX = -beta * RadiusA * RadiusA;
double solnY = alpha * RadiusB * RadiusB;
double ratio = Math.Sqrt(Square(alpha * RadiusB) + Square(beta * RadiusA));
solnX /= ratio; // Now solnX and solnY give point on cylinder to check
solnY /= ratio;
Vector3 trial = perp; // Be careful: reuse of Vector3 to avoid constructor overhead
trial = Center;
trial += AxisA * (solnX * RadiusA);
trial += AxisB * (solnY * RadiusB); // This is what it was. LBB - trial.AddScaled( AxisB, solnY*RadiusB );
maxD = minD = Vector3Ex.Dot(trial, u) + (TopPlaneCoef - Vector3Ex.Dot(trial, TopNormal)) * AxisCdotU / Vector3Ex.Dot(CenterAxis, TopNormal);
trial = Center;
trial += AxisA * (-solnX * RadiusA);
trial += AxisB * (-solnY * RadiusB);
double newDot = Vector3Ex.Dot(trial, u) + (TopPlaneCoef - Vector3Ex.Dot(trial, TopNormal)) * AxisCdotU / Vector3Ex.Dot(CenterAxis, TopNormal);
UpdateMinMax(newDot, minD, maxD);
}
// Handle bottom face
perp = BottomNormal;
perp *= u;
alpha = Vector3Ex.Dot(perp, AxisA) * RadiusA;
beta = Vector3Ex.Dot(perp, AxisB) * RadiusB;
if (alpha == 0.0 && beta == 0.0)
{ // If u perpendicular to bottom face
UpdateMinMax(BottomPlaneCoef * Vector3Ex.Dot(u, BottomNormal), minD, maxD);
}
else
{
double solnX = -beta * RadiusA * RadiusA;
double solnY = alpha * RadiusB * RadiusB;
double ratio = Math.Sqrt(Square(alpha * RadiusB) + Square(beta * RadiusA));
solnX /= ratio; // Now solnX and solnY give point on cylinder to check
solnY /= ratio;
Vector3 trial = Center;
trial += AxisA * (solnX * RadiusA);
trial += AxisB * (solnY * RadiusB);
double newDot = Vector3Ex.Dot(trial, u) + (BottomPlaneCoef - Vector3Ex.Dot(trial, BottomNormal)) * AxisCdotU / Vector3Ex.Dot(CenterAxis, BottomNormal);
UpdateMinMax(newDot, minD, maxD);
trial = Center;
trial += AxisA * (-solnX * RadiusA);
trial += AxisB * (-solnY * RadiusB);
newDot = Vector3Ex.Dot(trial, u) + (BottomPlaneCoef - Vector3Ex.Dot(trial, BottomNormal)) * AxisCdotU / Vector3Ex.Dot(CenterAxis, BottomNormal);
UpdateMinMax(newDot, minD, maxD);
}
minDot = minD;
maxDot = maxD;
}
///<summary>
/// Updates the time of impact for the pair.
///</summary>
///<param name="requester">Collidable requesting the update.</param>
///<param name="dt">Timestep duration.</param>
public override void UpdateTimeOfImpact(Collidable requester, float dt)
{
var overlap = BroadPhaseOverlap;
var meshMode = mobileMesh.entity == null ? PositionUpdateMode.Discrete : mobileMesh.entity.PositionUpdateMode;
var convexMode = convex.entity == null ? PositionUpdateMode.Discrete : convex.entity.PositionUpdateMode;
if (
(mobileMesh.IsActive || convex.IsActive) && //At least one has to be active.
(
(
convexMode == PositionUpdateMode.Continuous && //If both are continuous, only do the process for A.
meshMode == PositionUpdateMode.Continuous &&
overlap.entryA == requester
) ||
(
convexMode == PositionUpdateMode.Continuous ^ //If only one is continuous, then we must do it.
meshMode == PositionUpdateMode.Continuous
)
)
)
{
//TODO: This system could be made more robust by using a similar region-based rejection of edges.
//CCD events are awfully rare under normal circumstances, so this isn't usually an issue.
//Only perform the test if the minimum radii are small enough relative to the size of the velocity.
System.Numerics.Vector3 velocity;
if (convexMode == PositionUpdateMode.Discrete)
{
//Convex is static for the purposes of CCD.
Vector3Ex.Negate(ref mobileMesh.entity.linearVelocity, out velocity);
}
else if (meshMode == PositionUpdateMode.Discrete)
{
//Mesh is static for the purposes of CCD.
velocity = convex.entity.linearVelocity;
}
else
{
//Both objects can move.
Vector3Ex.Subtract(ref convex.entity.linearVelocity, ref mobileMesh.entity.linearVelocity, out velocity);
}
Vector3Ex.Multiply(ref velocity, dt, out velocity);
float velocitySquared = velocity.LengthSquared();
var minimumRadius = convex.Shape.MinimumRadius * MotionSettings.CoreShapeScaling;
timeOfImpact = 1;
if (minimumRadius * minimumRadius < velocitySquared)
{
TriangleSidedness sidedness = mobileMesh.Shape.Sidedness;
Matrix3x3 orientation;
Matrix3x3.CreateFromQuaternion(ref mobileMesh.worldTransform.Orientation, out orientation);
var triangle = PhysicsThreadResources.GetTriangle();
triangle.collisionMargin = 0;
//Spherecast against all triangles to find the earliest time.
for (int i = 0; i < MeshManifold.overlappedTriangles.Count; i++)
{
MeshBoundingBoxTreeData data = mobileMesh.Shape.TriangleMesh.Data;
int triangleIndex = MeshManifold.overlappedTriangles.Elements[i];
data.GetTriangle(triangleIndex, out triangle.vA, out triangle.vB, out triangle.vC);
Matrix3x3.Transform(ref triangle.vA, ref orientation, out triangle.vA);
Matrix3x3.Transform(ref triangle.vB, ref orientation, out triangle.vB);
Matrix3x3.Transform(ref triangle.vC, ref orientation, out triangle.vC);
Vector3Ex.Add(ref triangle.vA, ref mobileMesh.worldTransform.Position, out triangle.vA);
Vector3Ex.Add(ref triangle.vB, ref mobileMesh.worldTransform.Position, out triangle.vB);
Vector3Ex.Add(ref triangle.vC, ref mobileMesh.worldTransform.Position, out triangle.vC);
//Put the triangle into 'localish' space of the convex.
Vector3Ex.Subtract(ref triangle.vA, ref convex.worldTransform.Position, out triangle.vA);
Vector3Ex.Subtract(ref triangle.vB, ref convex.worldTransform.Position, out triangle.vB);
Vector3Ex.Subtract(ref triangle.vC, ref convex.worldTransform.Position, out triangle.vC);
RayHit rayHit;
if (GJKToolbox.CCDSphereCast(new Ray(Toolbox.ZeroVector, velocity), minimumRadius, triangle, ref Toolbox.RigidIdentity, timeOfImpact, out rayHit) &&
rayHit.T > Toolbox.BigEpsilon)
{
if (sidedness != TriangleSidedness.DoubleSided)
{
System.Numerics.Vector3 AB, AC;
Vector3Ex.Subtract(ref triangle.vB, ref triangle.vA, out AB);
Vector3Ex.Subtract(ref triangle.vC, ref triangle.vA, out AC);
System.Numerics.Vector3 normal;
Vector3Ex.Cross(ref AB, ref AC, out normal);
float dot;
Vector3Ex.Dot(ref normal, ref rayHit.Normal, out dot);
//Only perform sweep if the object is in danger of hitting the object.
//Triangles can be one sided, so check the impact normal against the triangle normal.
if (sidedness == TriangleSidedness.Counterclockwise && dot < 0 ||
sidedness == TriangleSidedness.Clockwise && dot > 0)
{
timeOfImpact = rayHit.T;
}
}
else
{
timeOfImpact = rayHit.T;
}
}
}
PhysicsThreadResources.GiveBack(triangle);
}
}
}
private void DrawGlContent(DrawEventArgs e)
{
var gcodeOptions = sceneContext.RendererOptions;
if (gcodeOptions.GCodeModelView)
{
modelRenderStyle = ModelRenderStyle.WireframeAndSolid;
}
else
{
modelRenderStyle = ModelRenderStyle.None;
}
foreach (var drawable in drawables.Where(d => d.DrawStage == DrawStage.First))
{
if (drawable.Enabled)
{
drawable.Draw(this, e, Matrix4X4.Identity, this.World);
}
}
GLHelper.SetGlContext(this.World, renderSource.TransformToScreenSpace(renderSource.LocalBounds), lighting);
foreach (var drawable in drawables.Where(d => d.DrawStage == DrawStage.OpaqueContent))
{
if (drawable.Enabled)
{
drawable.Draw(this, e, Matrix4X4.Identity, this.World);
}
}
// Draw solid objects, extract transparent
var transparentMeshes = new List <Object3DView>();
var selectedItem = scene.SelectedItem;
bool suppressNormalDraw = false;
if (selectedItem != null)
{
// Invoke existing IEditorDraw when iterating items
if (selectedItem is IEditorDraw editorDraw)
{
// TODO: Putting the drawing code in the IObject3D means almost certain bindings to MatterControl in IObject3D. If instead
// we had a UI layer object that used binding to register scene drawing hooks for specific types, we could avoid the bindings
editorDraw.DrawEditor(this, transparentMeshes, e, ref suppressNormalDraw);
}
}
foreach (var item in scene.Children)
{
if (item.Visible &&
(item != selectedItem || suppressNormalDraw == false))
{
DrawObject(item, transparentMeshes, e);
}
}
if (sceneContext.Printer?.Connection?.serialPort is PrinterEmulator.Emulator emulator)
{
void NozzlePositionChanged(object s, EventArgs e2)
{
// limit max number of updates per second to 10
if (UiThread.CurrentTimerMs > lastEmulatorDrawMs + 100)
{
UiThread.RunOnIdle(Invalidate);
// set it to now
lastEmulatorDrawMs = UiThread.CurrentTimerMs;
}
}
var matrix = Matrix4X4.CreateTranslation(emulator.CurrentPosition + new Vector3(.5, .5, 5));
GLHelper.Render(emulatorNozzleMesh,
MaterialRendering.Color(emulator.ExtruderIndex),
matrix,
RenderTypes.Shaded,
matrix * World.ModelviewMatrix);
if (!emulatorHooked)
{
emulator.DestinationChanged += NozzlePositionChanged;
emulatorHooked = true;
}
Closed += (s, e3) => emulator.DestinationChanged -= NozzlePositionChanged;
}
transparentMeshes.Sort(BackToFrontXY);
var bedNormalInViewSpace = Vector3Ex.TransformNormal(Vector3.UnitZ, World.ModelviewMatrix).GetNormal();
var pointOnBedInViewSpace = Vector3Ex.Transform(new Vector3(10, 10, 0), World.ModelviewMatrix);
var lookingDownOnBed = Vector3Ex.Dot(bedNormalInViewSpace, pointOnBedInViewSpace) < 0;
floorDrawable.LookingDownOnBed = lookingDownOnBed;
if (lookingDownOnBed)
{
floorDrawable.Draw(this, e, Matrix4X4.Identity, this.World);
}
var wireColor = Color.Transparent;
switch (modelRenderStyle)
{
case ModelRenderStyle.Wireframe:
wireColor = darkWireframe;
break;
case ModelRenderStyle.WireframeAndSolid:
wireColor = lightWireframe;
break;
}
// Draw transparent objects
foreach (var item in transparentMeshes)
{
var object3D = item.Object3D;
GLHelper.Render(
object3D.Mesh,
item.Color,
object3D.WorldMatrix(),
RenderTypes.Outlines,
object3D.WorldMatrix() * World.ModelviewMatrix,
wireColor,
allowBspRendering: transparentMeshes.Count < 1000);
}
if (!lookingDownOnBed)
{
floorDrawable.Draw(this, e, Matrix4X4.Identity, this.World);
}
DrawInteractionVolumes(e);
foreach (var drawable in drawables.Where(d => d.DrawStage == DrawStage.TransparentContent))
{
if (drawable.Enabled)
{
drawable.Draw(this, e, Matrix4X4.Identity, this.World);
}
}
GLHelper.UnsetGlContext();
// Invoke DrawStage.Last item drawables
foreach (var item in scene.Children)
{
// HACK: Consider how shared code in DrawObject can be reused to prevent duplicate execution
bool isSelected = selectedItem != null &&
selectedItem.DescendantsAndSelf().Any((i) => i == item);
foreach (var itemDrawable in itemDrawables.Where(d => d.DrawStage == DrawStage.Last && d.Enabled))
{
itemDrawable.Draw(this, item, isSelected, e, Matrix4X4.Identity, this.World);
}
}
// Invoke DrawStage.Last scene drawables
foreach (var drawable in drawables.Where(d => d.DrawStage == DrawStage.Last))
{
if (drawable.Enabled)
{
drawable.Draw(this, e, Matrix4X4.Identity, this.World);
}
}
}
public static bool Check(
BasePlayer player,
Construction construction,
Vector3 position,
Quaternion rotation)
{
OBB obb;
((OBB) ref obb).\u002Ector(position, rotation, construction.bounds);
float radius = ((Vector3) ref obb.extents).get_magnitude() + 2f;
List <BuildingBlock> list = (List <BuildingBlock>)Pool.GetList <BuildingBlock>();
Vis.Entities <BuildingBlock>((Vector3)obb.position, radius, list, 2097152, (QueryTriggerInteraction)2);
uint num = 0;
for (int index = 0; index < list.Count; ++index)
{
BuildingBlock buildingBlock = list[index];
Construction construction1 = construction;
Construction blockDefinition = buildingBlock.blockDefinition;
Vector3 vector3_1 = position;
Vector3 position1 = ((Component)buildingBlock).get_transform().get_position();
Quaternion quaternion = rotation;
Quaternion rotation1 = ((Component)buildingBlock).get_transform().get_rotation();
BuildingProximity.ProximityInfo proximity1 = BuildingProximity.GetProximity(construction1, vector3_1, quaternion, blockDefinition, position1, rotation1);
BuildingProximity.ProximityInfo proximity2 = BuildingProximity.GetProximity(blockDefinition, position1, rotation1, construction1, vector3_1, quaternion);
BuildingProximity.ProximityInfo proximityInfo = new BuildingProximity.ProximityInfo();
proximityInfo.hit = proximity1.hit || proximity2.hit;
proximityInfo.connection = proximity1.connection || proximity2.connection;
if ((double)proximity1.sqrDist <= (double)proximity2.sqrDist)
{
proximityInfo.line = proximity1.line;
proximityInfo.sqrDist = proximity1.sqrDist;
}
else
{
proximityInfo.line = proximity2.line;
proximityInfo.sqrDist = proximity2.sqrDist;
}
if (proximityInfo.connection)
{
BuildingManager.Building building = buildingBlock.GetBuilding();
if (building != null)
{
BuildingPrivlidge buildingPrivilege = building.GetDominatingBuildingPrivilege();
if (Object.op_Inequality((Object)buildingPrivilege, (Object)null))
{
if (!construction.canBypassBuildingPermission && !buildingPrivilege.IsAuthed(player))
{
Construction.lastPlacementError = "Cannot attach to unauthorized building";
// ISSUE: cast to a reference type
Pool.FreeList <BuildingBlock>((List <M0>&) ref list);
return(true);
}
if (num == 0U)
{
num = building.ID;
}
else if ((int)num != (int)building.ID)
{
Construction.lastPlacementError = "Cannot connect two buildings with cupboards";
// ISSUE: cast to a reference type
Pool.FreeList <BuildingBlock>((List <M0>&) ref list);
return(true);
}
}
}
}
if (proximityInfo.hit)
{
Vector3 vector3_2 = Vector3.op_Subtraction((Vector3)proximityInfo.line.point1, (Vector3)proximityInfo.line.point0);
if ((double)Mathf.Abs((float)vector3_2.y) <= 1.49000000953674 && (double)Vector3Ex.Magnitude2D(vector3_2) <= 1.49000000953674)
{
Construction.lastPlacementError = "Not enough space";
// ISSUE: cast to a reference type
Pool.FreeList <BuildingBlock>((List <M0>&) ref list);
return(true);
}
}
}
// ISSUE: cast to a reference type
Pool.FreeList <BuildingBlock>((List <M0>&) ref list);
return(false);
}
public override void OnAttacked(HitInfo info)
{
bool canGather = info.CanGather;
float num1 = Time.get_time() - this.lastHitTime;
this.lastHitTime = Time.get_time();
if (!this.hasBonusGame || !canGather || Object.op_Equality((Object)info.Initiator, (Object)null) || this.BonusActive() && !this.DidHitMarker(info))
{
base.OnAttacked(info);
}
else
{
if (Object.op_Inequality((Object)this.xMarker, (Object)null) && !info.DidGather && (double)info.gatherScale > 0.0)
{
this.xMarker.ClientRPC <int>((Connection)null, "MarkerHit", this.currentBonusLevel);
++this.currentBonusLevel;
info.gatherScale = 1f + Mathf.Clamp((float)this.currentBonusLevel * 0.125f, 0.0f, 1f);
}
Vector3 vector3_1 = Object.op_Inequality((Object)this.xMarker, (Object)null) ? ((Component)this.xMarker).get_transform().get_position() : info.HitPositionWorld;
this.CleanupMarker();
Vector3 vector3_2 = Vector3Ex.Direction2D(((Component)this).get_transform().get_position(), vector3_1);
Vector3 vector3_3 = Vector3.Lerp(Vector3.op_UnaryNegation(vector3_2), Vector3.op_Multiply(Vector3.Cross(vector3_2, Vector3.get_up()), this.lastDirection), Random.Range(0.5f, 0.5f));
Vector3 pos = ((Component)this).get_transform().InverseTransformPoint(this.GetCollider().ClosestPoint(((Component)this).get_transform().TransformPoint(Vector3.op_Multiply(((Component)this).get_transform().InverseTransformDirection(((Vector3) ref vector3_3).get_normalized()), 2.5f))));
Vector3 vector3_4 = ((Component)this).get_transform().TransformPoint(pos);
Vector3 vector3_5 = ((Component)this).get_transform().InverseTransformPoint(info.HitPositionWorld);
pos.y = vector3_5.y;
Vector3 vector3_6 = ((Component)this).get_transform().InverseTransformPoint(info.Initiator.CenterPoint());
float num2 = Mathf.Max(0.75f, (float)vector3_6.y);
float num3 = (float)(vector3_6.y + 0.5);
pos.y = (__Null)(double)Mathf.Clamp((float)(pos.y + (double)Random.Range(0.1f, 0.2f) * (Random.Range(0, 2) == 0 ? -1.0 : 1.0)), num2, num3);
Vector3 vector3_7 = Vector3Ex.Direction2D(((Component)this).get_transform().get_position(), vector3_4);
Vector3 vector3_8 = vector3_7;
QuaternionEx.LookRotationNormal(Vector3.op_UnaryNegation(((Component)this).get_transform().InverseTransformDirection(vector3_7)), Vector3.get_zero());
pos = ((Component)this).get_transform().TransformPoint(pos);
Quaternion rot = QuaternionEx.LookRotationNormal(Vector3.op_UnaryNegation(vector3_8), Vector3.get_zero());
this.xMarker = GameManager.server.CreateEntity("assets/content/nature/treesprefabs/trees/effects/tree_marking.prefab", pos, rot, true);
this.xMarker.Spawn();
if ((double)num1 > 5.0)
{
this.StartBonusGame();
}
base.OnAttacked(info);
if ((double)this.health <= 0.0)
{
return;
}
this.lastAttackDamage = info.damageTypes.Total();
int num4 = Mathf.CeilToInt(this.health / this.lastAttackDamage);
if (num4 < 2)
{
this.ClientRPC <int>((Connection)null, "CrackSound", 1);
}
else
{
if (num4 >= 5)
{
return;
}
this.ClientRPC <int>((Connection)null, "CrackSound", 0);
}
}
}
public AIMovePoint GetBestRoamPosition(Vector3 start)
{
AIInformationZone informationZone = this.GetInformationZone();
if (Object.op_Equality((Object)informationZone, (Object)null))
{
return((AIMovePoint)null);
}
float num1 = -1f;
AIMovePoint aiMovePoint = (AIMovePoint)null;
foreach (AIMovePoint movePoint in informationZone.movePoints)
{
if (((Component)((Component)movePoint).get_transform().get_parent()).get_gameObject().get_activeSelf())
{
float num2 = 0.0f + Mathf.InverseLerp(-1f, 1f, Vector3.Dot(this.eyes.BodyForward(), Vector3Ex.Direction2D(((Component)movePoint).get_transform().get_position(), this.eyes.position))) * 100f;
float num3 = Vector3.Distance(this.ServerPosition, ((Component)movePoint).get_transform().get_position());
if (!movePoint.IsUsedForRoaming())
{
float num4 = Mathf.Abs((float)(this.ServerPosition.y - ((Component)movePoint).get_transform().get_position().y));
float num5 = num2 + (float)((1.0 - (double)Mathf.InverseLerp(1f, 10f, num4)) * 100.0);
if ((double)num4 <= 5.0)
{
if ((double)num3 > 5.0)
{
num5 += (float)((1.0 - (double)Mathf.InverseLerp(5f, 20f, num3)) * 50.0);
}
if ((double)num5 > (double)num1)
{
aiMovePoint = movePoint;
num1 = num5;
}
}
}
}
}
return(aiMovePoint);
}
public bool AtPatrolDestination()
{
return(Vector3Ex.Distance2D(this.brain.mainInterestPoint, this.brain.GetEntity().GetPosition()) < CH47AIBrain.PatrolState.patrolApproachDist);
}
private Matrix4X4 GetRotationTransform(IObject3D selectedItem, out double radius)
{
Matrix4X4 rotationCenterTransform;
AxisAlignedBoundingBox currentSelectedBounds = selectedItem.GetAxisAlignedBoundingBox();
Vector3 controlCenter = GetControlCenter(selectedItem);
Vector3 rotationCenter = GetRotationCenter(selectedItem, currentSelectedBounds);
if (mouseDownInfo != null)
{
rotationCenter = mouseDownInfo.SelectedObjectRotationCenter;
controlCenter = mouseDownInfo.ControlCenter;
}
double distBetweenPixelsWorldSpace = InteractionContext.World.GetWorldUnitsPerScreenPixelAtPosition(rotationCenter);
double lengthFromCenterToControl = (rotationCenter - controlCenter).Length;
radius = lengthFromCenterToControl * (1 / distBetweenPixelsWorldSpace);
rotationTransformScale = distBetweenPixelsWorldSpace;
rotationCenterTransform = Matrix4X4.CreateScale(distBetweenPixelsWorldSpace) * Matrix4X4.CreateTranslation(rotationCenter);
var center = Vector3Ex.Transform(Vector3.Zero, rotationCenterTransform);
switch (RotationAxis)
{
case 0:
{
rotationCenterTransform =
Matrix4X4.CreateTranslation(-center)
* Matrix4X4.CreateRotation(new Vector3(0, -MathHelper.Tau / 4, 0))
* Matrix4X4.CreateRotation(new Vector3(-MathHelper.Tau / 4, 0, 0))
* rotationCenterTransform;
var center2 = Vector3Ex.Transform(Vector3.Zero, rotationCenterTransform);
rotationCenterTransform *= Matrix4X4.CreateTranslation(center - center2);
}
break;
case 1:
{
rotationCenterTransform =
Matrix4X4.CreateTranslation(-center)
* Matrix4X4.CreateRotation(new Vector3(MathHelper.Tau / 4, 0, 0))
* Matrix4X4.CreateRotation(new Vector3(0, MathHelper.Tau / 4, 0))
* rotationCenterTransform;
var center2 = Vector3Ex.Transform(Vector3.Zero, rotationCenterTransform);
rotationCenterTransform *= Matrix4X4.CreateTranslation(center - center2);
}
break;
case 2:
break;
}
return(rotationCenterTransform);
}
private static void AddRevolveStrip(IVertexSource vertexSource, Mesh mesh, double startAngle, double endAngle, bool revolveAroundZ)
{
Vector3 lastPosition = Vector3.Zero;
Vector3 firstPosition = Vector3.Zero;
foreach (var vertexData in vertexSource.Vertices())
{
if (vertexData.IsStop)
{
break;
}
if (vertexData.IsMoveTo)
{
firstPosition = new Vector3(vertexData.position.X, 0, vertexData.position.Y);
if (!revolveAroundZ)
{
firstPosition = new Vector3(vertexData.position.X, vertexData.position.Y, 0);
}
lastPosition = firstPosition;
}
if (vertexData.IsLineTo || vertexData.IsClose)
{
var currentPosition = new Vector3(vertexData.position.X, 0, vertexData.position.Y);
if (!revolveAroundZ)
{
currentPosition = new Vector3(vertexData.position.X, vertexData.position.Y, 0);
}
if (vertexData.IsClose)
{
currentPosition = firstPosition;
}
if (currentPosition.X != 0 || lastPosition.X != 0)
{
if (revolveAroundZ)
{
mesh.CreateFace(new Vector3[]
{
Vector3Ex.Transform(currentPosition, Matrix4X4.CreateRotationZ(endAngle)),
Vector3Ex.Transform(currentPosition, Matrix4X4.CreateRotationZ(startAngle)),
Vector3Ex.Transform(lastPosition, Matrix4X4.CreateRotationZ(startAngle)),
Vector3Ex.Transform(lastPosition, Matrix4X4.CreateRotationZ(endAngle)),
});
}
else
{
mesh.CreateFace(new Vector3[]
{
Vector3Ex.Transform(currentPosition, Matrix4X4.CreateRotationY(endAngle)),
Vector3Ex.Transform(currentPosition, Matrix4X4.CreateRotationY(startAngle)),
Vector3Ex.Transform(lastPosition, Matrix4X4.CreateRotationY(startAngle)),
Vector3Ex.Transform(lastPosition, Matrix4X4.CreateRotationY(endAngle)),
});
}
}
lastPosition = currentPosition;
}
}
}
public override void StateThink(float delta)
{
bool flag;
Vector3 entity = this.brain.GetEntity().transform.position;
CH47LandingZone closest = CH47LandingZone.GetClosest(this.brain.GetEntity().landingTarget);
if (!closest)
{
return;
}
float single = this.brain.GetEntity().rigidBody.velocity.magnitude;
Vector3.Distance(closest.transform.position, entity);
float single1 = Vector3Ex.Distance2D(closest.transform.position, entity);
Mathf.InverseLerp(1f, 20f, single1);
bool flag1 = single1 < 100f;
bool flag2 = (single1 <= 15f ? false : entity.y < closest.transform.position.y + 10f);
this.brain.GetEntity().EnableFacingOverride(flag1);
this.brain.GetEntity().SetAltitudeProtection(flag2);
flag = (Mathf.Abs(closest.transform.position.y - entity.y) >= 3f || single1 > 5f ? false : single < 1f);
if (flag)
{
this.landedForSeconds += delta;
if (this.lastLandtime == 0f)
{
this.lastLandtime = Time.time;
}
}
float single2 = 1f - Mathf.InverseLerp(0f, 7f, single1);
this.landingHeight = this.landingHeight - 4f * single2 * Time.deltaTime;
if (this.landingHeight < -5f)
{
this.landingHeight = -5f;
}
this.brain.GetEntity().SetAimDirection(closest.transform.forward);
this.brain.GetEntity().SetMoveTarget(this.brain.mainInterestPoint + new Vector3(0f, this.landingHeight, 0f));
if (flag)
{
if (this.landedForSeconds > 1f && Time.time > this.nextDismountTime)
{
BaseVehicle.MountPointInfo[] mountPointInfoArray = this.brain.GetEntity().mountPoints;
int num = 0;
while (num < (int)mountPointInfoArray.Length)
{
BaseVehicle.MountPointInfo mountPointInfo = mountPointInfoArray[num];
if (!mountPointInfo.mountable || !mountPointInfo.mountable.IsMounted())
{
num++;
}
else
{
this.nextDismountTime = Time.time + 0.5f;
mountPointInfo.mountable.DismountAllPlayers();
break;
}
}
}
if (this.landedForSeconds > 8f)
{
this.brain.GetComponent <CH47AIBrain>().age = Single.PositiveInfinity;
}
}
}
public bool IsNaNOrInfinity()
{
return(Vector3Ex.IsNaNOrInfinity(this.PointStart) || Vector3Ex.IsNaNOrInfinity(this.PointEnd) || (Vector3Ex.IsNaNOrInfinity(this.HitPositionWorld) || Vector3Ex.IsNaNOrInfinity(this.HitPositionLocal)) || (Vector3Ex.IsNaNOrInfinity(this.HitNormalWorld) || Vector3Ex.IsNaNOrInfinity(this.HitNormalLocal) || (Vector3Ex.IsNaNOrInfinity(this.ProjectileVelocity) || float.IsNaN(this.ProjectileDistance))) || float.IsInfinity(this.ProjectileDistance));
}
public override void StateThink(float delta)
{
base.StateThink(delta);
float num1 = 2f;
float num2 = 0.0f;
if ((double)Time.get_time() > (double)this.lastCoverTime + (double)num1 && !this.isFleeing)
{
Vector3 hideFromPosition = Object.op_Implicit((Object)this.GetEntity().currentTarget) ? this.GetEntity().currentTarget.ServerPosition : Vector3.op_Addition(this.GetEntity().ServerPosition, Vector3.op_Multiply(this.GetEntity().LastAttackedDir, 30f));
float num3 = Object.op_Inequality((Object)this.GetEntity().currentTarget, (Object)null) ? this.GetEntity().DistanceToTarget() : 30f;
AIInformationZone informationZone = this.GetEntity().GetInformationZone();
if (Object.op_Inequality((Object)informationZone, (Object)null))
{
float secondsSinceAttacked = this.GetEntity().SecondsSinceAttacked;
float minRange = (double)secondsSinceAttacked < 2.0 ? 2f : 0.0f;
float maxRange = 20f;
AICoverPoint bestCoverPoint = informationZone.GetBestCoverPoint(this.GetEntity().ServerPosition, hideFromPosition, minRange, maxRange, (BaseEntity)this.GetEntity());
if (Object.op_Implicit((Object)bestCoverPoint))
{
bestCoverPoint.SetUsedBy((BaseEntity)this.GetEntity(), 5f);
}
Vector3 newDestination = Object.op_Equality((Object)bestCoverPoint, (Object)null) ? this.GetEntity().ServerPosition : ((Component)bestCoverPoint).get_transform().get_position();
this.GetEntity().SetDestination(newDestination);
float num4 = Vector3.Distance(newDestination, this.GetEntity().ServerPosition);
double target = (double)this.GetEntity().DistanceToTarget();
int num5 = (double)secondsSinceAttacked >= 4.0 ? 0 : ((double)this.GetEntity().AmmoFractionRemaining() <= 0.25 ? 1 : 0);
int num6 = (double)this.GetEntity().healthFraction >= 0.5 || (double)secondsSinceAttacked >= 1.0 ? 0 : ((double)Time.get_time() > (double)num2 ? 1 : 0);
if ((double)num3 > 6.0 && (double)num4 > 6.0 || Object.op_Equality((Object)this.GetEntity().currentTarget, (Object)null))
{
this.isFleeing = true;
float num7 = Time.get_time() + Random.Range(4f, 7f);
}
if ((double)num4 > 1.0)
{
this.GetEntity().ClearStationaryAimPoint();
}
}
this.lastCoverTime = Time.get_time();
}
bool flag = (double)Vector3.Distance(this.GetEntity().ServerPosition, this.GetEntity().finalDestination) <= 0.25;
if (!this.inCover & flag)
{
if (this.isFleeing)
{
this.GetEntity().SetStationaryAimPoint(Vector3.op_Addition(this.GetEntity().finalDestination, Vector3.op_Multiply(Vector3.op_UnaryNegation(this.GetEntity().eyes.BodyForward()), 5f)));
}
else if (Object.op_Implicit((Object)this.GetEntity().currentTarget))
{
this.GetEntity().SetStationaryAimPoint(Vector3.op_Addition(this.GetEntity().ServerPosition, Vector3.op_Multiply(Vector3Ex.Direction2D(this.GetEntity().currentTarget.ServerPosition, this.GetEntity().ServerPosition), 5f)));
}
}
this.inCover = flag;
if (this.inCover)
{
this.timeInCover += delta;
}
else
{
this.timeInCover = 0.0f;
}
this.GetEntity().SetDucked(this.inCover);
if (this.inCover)
{
this.isFleeing = false;
}
if (((double)this.GetEntity().AmmoFractionRemaining() == 0.0 || this.isFleeing ? 1 : (this.GetEntity().CanSeeTarget() || !this.inCover || (double)this.GetEntity().SecondsSinceDealtDamage <= 2.0 ? 0 : ((double)this.GetEntity().AmmoFractionRemaining() < 0.25 ? 1 : 0))) != 0)
{
this.GetEntity().AttemptReload();
}
if (this.inCover)
{
return;
}
if ((double)this.TimeInState() > 1.0 && this.isFleeing)
{
this.GetEntity().SetDesiredSpeed(HumanNPC.SpeedType.Sprint);
}
else
{
this.GetEntity().SetDesiredSpeed(HumanNPC.SpeedType.Walk);
}
}
///<summary>
/// Performs the frame's configuration step.
///</summary>
///<param name="dt">Timestep duration.</param>
public override void Update(float dt)
{
entityADynamic = entityA != null && entityA.isDynamic;
entityBDynamic = entityB != null && entityB.isDynamic;
contactCount = contactManifoldConstraint.penetrationConstraints.Count;
switch (contactCount)
{
case 1:
manifoldCenter = contactManifoldConstraint.penetrationConstraints.Elements[0].contact.Position;
break;
case 2:
Vector3Ex.Add(ref contactManifoldConstraint.penetrationConstraints.Elements[0].contact.Position,
ref contactManifoldConstraint.penetrationConstraints.Elements[1].contact.Position,
out manifoldCenter);
manifoldCenter.X *= .5f;
manifoldCenter.Y *= .5f;
manifoldCenter.Z *= .5f;
break;
case 3:
Vector3Ex.Add(ref contactManifoldConstraint.penetrationConstraints.Elements[0].contact.Position,
ref contactManifoldConstraint.penetrationConstraints.Elements[1].contact.Position,
out manifoldCenter);
Vector3Ex.Add(ref contactManifoldConstraint.penetrationConstraints.Elements[2].contact.Position,
ref manifoldCenter,
out manifoldCenter);
manifoldCenter.X *= .333333333f;
manifoldCenter.Y *= .333333333f;
manifoldCenter.Z *= .333333333f;
break;
case 4:
//This isn't actually the center of the manifold. Is it good enough? Sure seems like it.
Vector3Ex.Add(ref contactManifoldConstraint.penetrationConstraints.Elements[0].contact.Position,
ref contactManifoldConstraint.penetrationConstraints.Elements[1].contact.Position,
out manifoldCenter);
Vector3Ex.Add(ref contactManifoldConstraint.penetrationConstraints.Elements[2].contact.Position,
ref manifoldCenter,
out manifoldCenter);
Vector3Ex.Add(ref contactManifoldConstraint.penetrationConstraints.Elements[3].contact.Position,
ref manifoldCenter,
out manifoldCenter);
manifoldCenter.X *= .25f;
manifoldCenter.Y *= .25f;
manifoldCenter.Z *= .25f;
break;
default:
manifoldCenter = Toolbox.NoVector;
break;
}
//Compute the three dimensional relative velocity at the point.
System.Numerics.Vector3 velocityA, velocityB;
if (entityA != null)
{
Vector3Ex.Subtract(ref manifoldCenter, ref entityA.position, out ra);
Vector3Ex.Cross(ref entityA.angularVelocity, ref ra, out velocityA);
Vector3Ex.Add(ref velocityA, ref entityA.linearVelocity, out velocityA);
}
else
{
velocityA = new System.Numerics.Vector3();
}
if (entityB != null)
{
Vector3Ex.Subtract(ref manifoldCenter, ref entityB.position, out rb);
Vector3Ex.Cross(ref entityB.angularVelocity, ref rb, out velocityB);
Vector3Ex.Add(ref velocityB, ref entityB.linearVelocity, out velocityB);
}
else
{
velocityB = new System.Numerics.Vector3();
}
Vector3Ex.Subtract(ref velocityA, ref velocityB, out relativeVelocity);
//Get rid of the normal velocity.
System.Numerics.Vector3 normal = contactManifoldConstraint.penetrationConstraints.Elements[0].contact.Normal;
float normalVelocityScalar = normal.X * relativeVelocity.X + normal.Y * relativeVelocity.Y + normal.Z * relativeVelocity.Z;
relativeVelocity.X -= normalVelocityScalar * normal.X;
relativeVelocity.Y -= normalVelocityScalar * normal.Y;
relativeVelocity.Z -= normalVelocityScalar * normal.Z;
//Create the jacobian entry and decide the friction coefficient.
float length = relativeVelocity.LengthSquared();
if (length > Toolbox.Epsilon)
{
length = (float)Math.Sqrt(length);
float inverseLength = 1 / length;
linearA.M11 = relativeVelocity.X * inverseLength;
linearA.M12 = relativeVelocity.Y * inverseLength;
linearA.M13 = relativeVelocity.Z * inverseLength;
friction = length > CollisionResponseSettings.StaticFrictionVelocityThreshold ?
contactManifoldConstraint.materialInteraction.KineticFriction :
contactManifoldConstraint.materialInteraction.StaticFriction;
}
else
{
friction = contactManifoldConstraint.materialInteraction.StaticFriction;
//If there was no velocity, try using the previous frame's jacobian... if it exists.
//Reusing an old one is okay since jacobians are cleared when a contact is initialized.
if (!(linearA.M11 != 0 || linearA.M12 != 0 || linearA.M13 != 0))
{
//Otherwise, just redo it all.
//Create arbitrary axes.
System.Numerics.Vector3 axis1;
Vector3Ex.Cross(ref normal, ref Toolbox.RightVector, out axis1);
length = axis1.LengthSquared();
if (length > Toolbox.Epsilon)
{
length = (float)Math.Sqrt(length);
float inverseLength = 1 / length;
linearA.M11 = axis1.X * inverseLength;
linearA.M12 = axis1.Y * inverseLength;
linearA.M13 = axis1.Z * inverseLength;
}
else
{
Vector3Ex.Cross(ref normal, ref Toolbox.UpVector, out axis1);
axis1.Normalize();
linearA.M11 = axis1.X;
linearA.M12 = axis1.Y;
linearA.M13 = axis1.Z;
}
}
}
//Second axis is first axis x normal
linearA.M21 = (linearA.M12 * normal.Z) - (linearA.M13 * normal.Y);
linearA.M22 = (linearA.M13 * normal.X) - (linearA.M11 * normal.Z);
linearA.M23 = (linearA.M11 * normal.Y) - (linearA.M12 * normal.X);
//Compute angular jacobians
if (entityA != null)
{
//angularA 1 = ra x linear axis 1
angularA.M11 = (ra.Y * linearA.M13) - (ra.Z * linearA.M12);
angularA.M12 = (ra.Z * linearA.M11) - (ra.X * linearA.M13);
angularA.M13 = (ra.X * linearA.M12) - (ra.Y * linearA.M11);
//angularA 2 = ra x linear axis 2
angularA.M21 = (ra.Y * linearA.M23) - (ra.Z * linearA.M22);
angularA.M22 = (ra.Z * linearA.M21) - (ra.X * linearA.M23);
angularA.M23 = (ra.X * linearA.M22) - (ra.Y * linearA.M21);
}
//angularB 1 = linear axis 1 x rb
if (entityB != null)
{
angularB.M11 = (linearA.M12 * rb.Z) - (linearA.M13 * rb.Y);
angularB.M12 = (linearA.M13 * rb.X) - (linearA.M11 * rb.Z);
angularB.M13 = (linearA.M11 * rb.Y) - (linearA.M12 * rb.X);
//angularB 2 = linear axis 2 x rb
angularB.M21 = (linearA.M22 * rb.Z) - (linearA.M23 * rb.Y);
angularB.M22 = (linearA.M23 * rb.X) - (linearA.M21 * rb.Z);
angularB.M23 = (linearA.M21 * rb.Y) - (linearA.M22 * rb.X);
}
//Compute inverse effective mass matrix
Matrix2x2 entryA, entryB;
//these are the transformed coordinates
Matrix2x3 transform;
Matrix3x2 transpose;
if (entityADynamic)
{
Matrix2x3.Multiply(ref angularA, ref entityA.inertiaTensorInverse, out transform);
Matrix2x3.Transpose(ref angularA, out transpose);
Matrix2x2.Multiply(ref transform, ref transpose, out entryA);
entryA.M11 += entityA.inverseMass;
entryA.M22 += entityA.inverseMass;
}
else
{
entryA = new Matrix2x2();
}
if (entityBDynamic)
{
Matrix2x3.Multiply(ref angularB, ref entityB.inertiaTensorInverse, out transform);
Matrix2x3.Transpose(ref angularB, out transpose);
Matrix2x2.Multiply(ref transform, ref transpose, out entryB);
entryB.M11 += entityB.inverseMass;
entryB.M22 += entityB.inverseMass;
}
else
{
entryB = new Matrix2x2();
}
velocityToImpulse.M11 = -entryA.M11 - entryB.M11;
velocityToImpulse.M12 = -entryA.M12 - entryB.M12;
velocityToImpulse.M21 = -entryA.M21 - entryB.M21;
velocityToImpulse.M22 = -entryA.M22 - entryB.M22;
Matrix2x2.Invert(ref velocityToImpulse, out velocityToImpulse);
}
public override void OnMouseMove(Mouse3DEventArgs mouseEvent3D)
{
IObject3D selectedItem = RootSelection;
if (selectedItem != null)
{
var controlCenter = GetControlCenter(selectedItem);
if (mouseDownInfo != null)
{
controlCenter = mouseDownInfo.ControlCenter;
}
var hitPlane = new PlaneShape(RotationPlanNormal, Vector3Ex.Dot(RotationPlanNormal, controlCenter), null);
IntersectInfo hitOnRotationPlane = hitPlane.GetClosestIntersection(mouseEvent3D.MouseRay);
if (hitOnRotationPlane != null)
{
AxisAlignedBoundingBox currentSelectedBounds = selectedItem.GetAxisAlignedBoundingBox();
var selectedObjectRotationCenter = currentSelectedBounds.Center;
if (mouseDownInfo != null)
{
selectedObjectRotationCenter = mouseDownInfo.SelectedObjectRotationCenter;
}
Vector3 cornerForAxis = GetCornerPosition(selectedItem);
// move the rotation center to the correct side of the bounding box
selectedObjectRotationCenter[RotationAxis] = cornerForAxis[RotationAxis];
mouseMoveInfo = new Mouse3DInfo(
hitOnRotationPlane.HitPosition,
selectedItem.Matrix,
selectedObjectRotationCenter,
controlCenter,
RotationAxis);
if (MouseDownOnControl &&
mouseDownInfo != null)
{
double rawDeltaRotationAngle = mouseMoveInfo.AngleOfHit - mouseDownInfo.AngleOfHit;
double snapRadians = MathHelper.DegreesToRadians(1);
// snap this position to the grid
if (rawDeltaRotationAngle > 0)
{
SnappedRotationAngle = ((int)((rawDeltaRotationAngle / snapRadians) + .5)) * snapRadians;
}
else
{
SnappedRotationAngle = ((int)((rawDeltaRotationAngle / snapRadians) - .5)) * snapRadians;
}
int snappingIndex = GetSnapIndex(selectedItem, numSnapPoints);
if (snappingIndex != -1)
{
SnappedRotationAngle = snappingIndex * MathHelper.Tau / numSnapPoints;
}
else if (InteractionContext.GuiSurface.ModifierKeys == Keys.Shift)
{
snapRadians = MathHelper.DegreesToRadians(45);
if (rawDeltaRotationAngle > 0)
{
SnappedRotationAngle = ((int)((rawDeltaRotationAngle / snapRadians) + .5)) * snapRadians;
}
else
{
SnappedRotationAngle = ((int)((rawDeltaRotationAngle / snapRadians) - .5)) * snapRadians;
}
}
if (SnappedRotationAngle < 0)
{
SnappedRotationAngle += MathHelper.Tau;
}
// check if this move crosses zero degrees
if (lastSnappedRotation == 0 && SnappedRotationAngle != 0)
{
RotatingCW = DeltaAngle(0, SnappedRotationAngle) < 0;
}
else if ((DeltaAngle(0, SnappedRotationAngle) < 0 &&
DeltaAngle(0, lastSnappedRotation) > 0 &&
Math.Abs(DeltaAngle(0, lastSnappedRotation)) < 1) ||
(DeltaAngle(0, SnappedRotationAngle) > 0 &&
DeltaAngle(0, lastSnappedRotation) < 0 &&
Math.Abs(DeltaAngle(0, lastSnappedRotation)) < 1))
{
// let's figure out which way we are going
RotatingCW = DeltaAngle(0, SnappedRotationAngle) < 0 && DeltaAngle(0, lastSnappedRotation) > 0;
}
// undo the last rotation
RotateAroundAxis(selectedItem, -lastSnappedRotation);
// rotate it
RotateAroundAxis(selectedItem, SnappedRotationAngle);
lastSnappedRotation = SnappedRotationAngle;
Invalidate();
}
}
}
base.OnMouseMove(mouseEvent3D);
}
public override void OnKilled(HitInfo info)
{
if (base.isClient || Interface.CallHook("OnEntityDestroy", this) != null)
{
return;
}
CreateExplosionMarker(10f);
Effect.server.Run(explosionEffect.resourcePath, mainTurretEyePos.transform.position, Vector3.up, null, true);
Vector3 zero = Vector3.zero;
GameObject gibSource = servergibs.Get().GetComponent <ServerGib>()._gibSource;
List <ServerGib> list = ServerGib.CreateGibs(servergibs.resourcePath, base.gameObject, gibSource, zero, 3f);
for (int i = 0; i < 12 - maxCratesToSpawn; i++)
{
BaseEntity baseEntity = GameManager.server.CreateEntity(this.fireBall.resourcePath, base.transform.position, base.transform.rotation);
if (!baseEntity)
{
continue;
}
float min = 3f;
float max = 10f;
Vector3 onUnitSphere = UnityEngine.Random.onUnitSphere;
baseEntity.transform.position = base.transform.position + new Vector3(0f, 1.5f, 0f) + onUnitSphere * UnityEngine.Random.Range(-4f, 4f);
Collider component = baseEntity.GetComponent <Collider>();
baseEntity.Spawn();
baseEntity.SetVelocity(zero + onUnitSphere * UnityEngine.Random.Range(min, max));
foreach (ServerGib item in list)
{
UnityEngine.Physics.IgnoreCollision(component, item.GetCollider(), true);
}
}
for (int j = 0; j < maxCratesToSpawn; j++)
{
Vector3 onUnitSphere2 = UnityEngine.Random.onUnitSphere;
onUnitSphere2.y = 0f;
onUnitSphere2.Normalize();
Vector3 pos = base.transform.position + new Vector3(0f, 1.5f, 0f) + onUnitSphere2 * UnityEngine.Random.Range(2f, 3f);
BaseEntity baseEntity2 = GameManager.server.CreateEntity(crateToDrop.resourcePath, pos, Quaternion.LookRotation(onUnitSphere2));
baseEntity2.Spawn();
LootContainer lootContainer = baseEntity2 as LootContainer;
if ((bool)lootContainer)
{
lootContainer.Invoke(lootContainer.RemoveMe, 1800f);
}
Collider component2 = baseEntity2.GetComponent <Collider>();
Rigidbody rigidbody = baseEntity2.gameObject.AddComponent <Rigidbody>();
rigidbody.useGravity = true;
rigidbody.collisionDetectionMode = CollisionDetectionMode.ContinuousDynamic;
rigidbody.mass = 2f;
rigidbody.interpolation = RigidbodyInterpolation.Interpolate;
rigidbody.velocity = zero + onUnitSphere2 * UnityEngine.Random.Range(1f, 3f);
rigidbody.angularVelocity = Vector3Ex.Range(-1.75f, 1.75f);
rigidbody.drag = 0.5f * (rigidbody.mass / 5f);
rigidbody.angularDrag = 0.2f * (rigidbody.mass / 5f);
FireBall fireBall = GameManager.server.CreateEntity(this.fireBall.resourcePath) as FireBall;
if ((bool)fireBall)
{
fireBall.SetParent(baseEntity2);
fireBall.Spawn();
fireBall.GetComponent <Rigidbody>().isKinematic = true;
fireBall.GetComponent <Collider>().enabled = false;
}
baseEntity2.SendMessage("SetLockingEnt", fireBall.gameObject, SendMessageOptions.DontRequireReceiver);
foreach (ServerGib item2 in list)
{
UnityEngine.Physics.IgnoreCollision(component2, item2.GetCollider(), true);
}
}
base.OnKilled(info);
}
private void DrawRotationCompass(IObject3D selectedItem, DrawGlContentEventArgs drawEventArgs)
{
if (InteractionContext.Scene.SelectedItem == null)
{
return;
}
double alphaValue = 1;
if (!drawEventArgs.ZBuffered)
{
alphaValue = .3;
}
AxisAlignedBoundingBox currentSelectedBounds = selectedItem.GetAxisAlignedBoundingBox();
if (currentSelectedBounds.XSize > 100000)
{
// something is wrong the part is too big (probably in invalid selection)
return;
}
if (mouseMoveInfo != null)
{
Matrix4X4 rotationCenterTransform = GetRotationTransform(selectedItem, out double radius);
double innerRadius = radius + ringWidth / 2;
double outerRadius = innerRadius + ringWidth;
double snappingMarkRadius = outerRadius + 20;
double startBlue = 0;
double endBlue = MathHelper.Tau;
double mouseAngle = 0;
if (mouseMoveInfo != null)
{
mouseAngle = mouseMoveInfo.AngleOfHit;
}
if (mouseDownInfo != null)
{
mouseAngle = mouseDownInfo.AngleOfHit;
}
var graphics2DOpenGL = new Graphics2DOpenGL();
if (mouseDownInfo != null || MouseOver)
{
IVertexSource blueRing = new JoinPaths(new Arc(0, 0, outerRadius, outerRadius, startBlue, endBlue, Arc.Direction.CounterClockWise),
new Arc(0, 0, innerRadius, innerRadius, startBlue, endBlue, Arc.Direction.ClockWise));
graphics2DOpenGL.RenderTransformedPath(rotationCenterTransform, blueRing, new Color(theme.PrimaryAccentColor, (int)(50 * alphaValue)), drawEventArgs.ZBuffered);
// tick 60 marks
DrawTickMarks(drawEventArgs, alphaValue, rotationCenterTransform, innerRadius, outerRadius, 60);
}
if (mouseDownInfo != null)
{
double startRed = mouseDownInfo.AngleOfHit;
double endRed = SnappedRotationAngle + mouseDownInfo.AngleOfHit;
if (!RotatingCW)
{
var temp = startRed;
startRed = endRed;
endRed = temp;
}
IVertexSource redAngle = new JoinPaths(new Arc(0, 0, 0, 0, startRed, endRed, Arc.Direction.CounterClockWise),
new Arc(0, 0, innerRadius, innerRadius, startRed, endRed, Arc.Direction.ClockWise));
graphics2DOpenGL.RenderTransformedPath(rotationCenterTransform, redAngle, new Color(theme.PrimaryAccentColor, (int)(70 * alphaValue)), drawEventArgs.ZBuffered);
// draw a line to the mouse on the rotation circle
if (mouseMoveInfo != null && MouseDownOnControl)
{
var unitPosition = new Vector3(Math.Cos(mouseMoveInfo.AngleOfHit), Math.Sin(mouseMoveInfo.AngleOfHit), 0);
Vector3 startPosition = Vector3Ex.Transform(unitPosition * innerRadius, rotationCenterTransform);
var center = Vector3Ex.Transform(Vector3.Zero, rotationCenterTransform);
if ((mouseMoveInfo.HitPosition - center).Length > rotationTransformScale * innerRadius)
{
InteractionContext.World.Render3DLine(startPosition, mouseMoveInfo.HitPosition, theme.PrimaryAccentColor, drawEventArgs.ZBuffered);
}
DrawSnappingMarks(drawEventArgs, mouseAngle, alphaValue, rotationCenterTransform, snappingMarkRadius, numSnapPoints, GetSnapIndex(selectedItem, numSnapPoints));
}
}
}
}
public bool IsAtFinalDestination()
{
return(Vector3Ex.Distance2D(base.transform.position, finalDestination) <= stoppingDist);
}
public bool DidHitMarker(HitInfo info)
{
return(!Object.op_Equality((Object)this.xMarker, (Object)null) && (double)Vector3.Dot(Vector3Ex.Direction2D(((Component)this).get_transform().get_position(), ((Component)this.xMarker).get_transform().get_position()), info.attackNormal) >= 0.3 && (double)Vector3.Distance(((Component)this.xMarker).get_transform().get_position(), info.HitPositionWorld) <= 0.200000002980232);
}
internal void ApplyLinearImpulse(ref System.Numerics.Vector3 impulse)
{
System.Numerics.Vector3 velocityChange;
Vector3Ex.Multiply(ref impulse, inverseMass, out velocityChange);
Vector3Ex.Add(ref linearVelocity, ref velocityChange, out linearVelocity);
}
public bool WithinVisionCone(BaseEntity other)
{
return((double)Vector3.Dot(this.eyes.BodyForward(), Vector3Ex.Direction(((Component)other).get_transform().get_position(), ((Component)this).get_transform().get_position())) >= (double)this.visionCone);
}
internal void ApplyAngularImpulse(ref System.Numerics.Vector3 impulse)
{
System.Numerics.Vector3 velocityChange;
Matrix3x3.Transform(ref impulse, ref inertiaTensorInverse, out velocityChange);
Vector3Ex.Add(ref velocityChange, ref angularVelocity, out angularVelocity);
}
public override StateStatus StateThink(float delta)
{
base.StateThink(delta);
float num = 2f;
float num2 = 0f;
if (Time.time > lastCoverTime + num && !isFleeing)
{
Vector3 hideFromPosition = (GetEntity().currentTarget ? GetEntity().currentTarget.transform.position : (GetEntity().transform.position + GetEntity().LastAttackedDir * 30f));
float num3 = ((GetEntity().currentTarget != null) ? GetEntity().DistanceToTarget() : 30f);
AIInformationZone informationZone = GetEntity().GetInformationZone(GetEntity().transform.position);
if (informationZone != null)
{
float secondsSinceAttacked = GetEntity().SecondsSinceAttacked;
float minRange = ((secondsSinceAttacked < 2f) ? 2f : 0f);
float maxRange = 25f;
if (currentCover != null)
{
currentCover.ClearIfUsedBy(GetEntity());
currentCover = null;
}
AICoverPoint bestCoverPoint = informationZone.GetBestCoverPoint(GetEntity().transform.position, hideFromPosition, minRange, maxRange, GetEntity());
if ((bool)bestCoverPoint)
{
bestCoverPoint.SetUsedBy(GetEntity(), 15f);
currentCover = bestCoverPoint;
}
Vector3 vector = ((bestCoverPoint == null) ? GetEntity().transform.position : bestCoverPoint.transform.position);
GetEntity().SetDestination(vector);
float num4 = Vector3.Distance(vector, GetEntity().transform.position);
bool flag2;
int num5;
if (secondsSinceAttacked < 4f)
{
flag2 = GetEntity().AmmoFractionRemaining() <= 0.25f;
}
else
{
num5 = 0;
}
bool flag3;
int num6;
if (GetEntity().healthFraction < 0.5f && secondsSinceAttacked < 1f)
{
flag3 = Time.time > num2;
}
else
{
num6 = 0;
}
if ((num3 > 6f && num4 > 8f) || GetEntity().currentTarget == null)
{
isFleeing = true;
num2 = Time.time + Random.Range(4f, 7f);
}
if (num4 > 1f)
{
GetEntity().ClearStationaryAimPoint();
}
}
lastCoverTime = Time.time;
}
bool flag = Vector3.Distance(GetEntity().transform.position, GetEntity().finalDestination) <= 0.25f;
if (!inCover && flag)
{
if (isFleeing)
{
GetEntity().SetStationaryAimPoint(GetEntity().finalDestination + -GetEntity().eyes.BodyForward() * 5f);
}
else if ((bool)GetEntity().currentTarget)
{
GetEntity().SetStationaryAimPoint(GetEntity().transform.position + Vector3Ex.Direction2D(GetEntity().currentTarget.transform.position, GetEntity().transform.position) * 5f);
}
}
inCover = flag;
if (inCover)
{
timeInCover += delta;
}
else
{
timeInCover = 0f;
}
GetEntity().SetDucked(inCover);
if (inCover)
{
isFleeing = false;
}
if (GetEntity().AmmoFractionRemaining() == 0f || isFleeing || (!GetEntity().CanSeeTarget() && inCover && GetEntity().SecondsSinceDealtDamage > 2f && GetEntity().AmmoFractionRemaining() < 0.25f))
{
GetEntity().AttemptReload();
}
if (!inCover)
{
if (base.TimeInState > 1f && isFleeing)
{
GetEntity().SetDesiredSpeed(HumanNPC.SpeedType.Sprint);
}
else
{
GetEntity().SetDesiredSpeed(HumanNPC.SpeedType.Walk);
}
}
return(StateStatus.Running);
}
// Returns an intersection if found with distance maxDistance
// viewDir must be a unit vector.
// intersectDistance and visPoint are returned values.
bool FindIntersectionNT(Vector3 viewPos, Vector3 viewDir, double maxDistance,
out double intersectDistance, out Vector2 returnedPoint)
{
double maxFrontDist = double.NegativeInfinity;
double minBackDist = double.PositiveInfinity;
int frontType, backType; // 0, 1, 2 = top, bottom, side
// Start with the bounding planes
if (IsRightCylinder())
{
double pdotn = Vector3Ex.Dot(viewPos, CenterAxis) - CenterDotAxis;
double udotn = Vector3Ex.Dot(viewDir, CenterAxis);
if (pdotn > HalfHeight)
{
if (udotn >= 0.0)
{
return(false); // Above top plane pointing up
}
// Hits top from above
maxFrontDist = (HalfHeight - pdotn) / udotn;
frontType = 0;
minBackDist = -(HalfHeight + pdotn) / udotn;
backType = 1;
}
else if (pdotn < -HalfHeight)
{
if (udotn <= 0.0)
{
return(false); // Below bottom, pointing down
}
// Hits bottom plane from below
maxFrontDist = -(HalfHeight + pdotn) / udotn;
frontType = 1;
minBackDist = (HalfHeight - pdotn) / udotn;
backType = 0;
}
else if (udotn < 0.0)
{ // Inside, pointing down
minBackDist = -(HalfHeight + pdotn) / udotn;
backType = 1;
}
else if (udotn > 0.0)
{ // Inside, pointing up
minBackDist = (HalfHeight - pdotn) / udotn;
backType = 0;
}
}
else
{
// Has two bounding planes (not right cylinder)
// First handle the top plane
double pdotnCap = Vector3Ex.Dot(TopNormal, viewPos);
double udotnCap = Vector3Ex.Dot(TopNormal, viewDir);
if (pdotnCap > TopPlaneCoef)
{
if (udotnCap >= 0.0)
{
return(false); // Above top plane, pointing up
}
maxFrontDist = (TopPlaneCoef - pdotnCap) / udotnCap;
frontType = 0;
}
else if (pdotnCap < TopPlaneCoef)
{
if (udotnCap > 0.0)
{
// Below top plane, pointing up
minBackDist = (TopPlaneCoef - pdotnCap) / udotnCap;
backType = 0;
}
}
// Second, handle the bottom plane
pdotnCap = Vector3Ex.Dot(BottomNormal, viewPos);
udotnCap = Vector3Ex.Dot(BottomNormal ^ viewDir);
if (pdotnCap < BottomPlaneCoef)
{
if (udotnCap > 0.0)
{
double newBackDist = (BottomPlaneCoef - pdotnCap) / udotnCap;
if (newBackDist < maxFrontDist)
{
return(false);
}
if (newBackDist < minBackDist)
{
minBackDist = newBackDist;
backType = 1;
}
}
}
else if (pdotnCap > BottomPlaneCoef)
{
if (udotnCap >= 0.0)
{
return(false); // Above bottom plane, pointing up (away)
}
// Above bottom plane, pointing down
double newFrontDist = (BottomPlaneCoef - pdotnCap) / udotnCap;
if (newFrontDist > minBackDist)
{
return(false);
}
if (newFrontDist > maxFrontDist)
{
maxFrontDist = newFrontDist;
frontType = 1;
}
}
}
if (maxFrontDist > maxDistance)
{
return(false);
}
// Now handle the cylinder sides
Vector3 v = viewPos;
v -= Center;
double pdotuA = Vector3Ex.Dot(v, AxisA);
double pdotuB = Vector3Ex.Dot(v, AxisB);
double udotuA = Vector3Ex.Dot(viewDir, AxisA);
double udotuB = Vector3Ex.Dot(viewDir, AxisB);
double C = pdotuA * pdotuA + pdotuB * pdotuB - 1.0;
double B = (pdotuA * udotuA + pdotuB * udotuB);
if (C >= 0.0 && B > 0.0)
{
return(false); // Pointing away from the cylinder
}
B += B; // Double B for final 2.0 factor
double A = udotuA * udotuA + udotuB * udotuB;
double alpha1, alpha2; // The roots, in order
int numRoots = QuadraticSolveRealSafe(A, B, C, out alpha1, out alpha2);
if (numRoots == 0)
{
return(false); // No intersection
}
if (alpha1 > maxFrontDist)
{
if (alpha1 > minBackDist)
{
return(false);
}
maxFrontDist = alpha1;
frontType = 2;
}
if (numRoots == 2 && alpha2 < minBackDist)
{
if (alpha2 < maxFrontDist)
{
return(false);
}
minBackDist = alpha2;
backType = 2;
}
// Put it all together:
double alpha;
int hitSurface;
if (maxFrontDist > 0.0)
{
returnedPoint.SetFrontFace(); // Hit from outside
alpha = maxFrontDist;
hitSurface = frontType;
}
else
{
returnedPoint.SetBackFace(); // Hit from inside
alpha = minBackDist;
hitSurface = backType;
}
if (alpha >= maxDistance)
{
return(false);
}
intersectDistance = alpha;
// Set v to the intersection point
v = viewDir;
v *= alpha;
v += viewPos;
returnedPoint.SetPosition(v); // Intersection point
// Now set v equal to returned position relative to the center
v -= Center;
double vdotuA = Vector3(v, AxisA);
double vdotuB = Vector3(v, AxisB);
switch (hitSurface)
{
case 0: // Top surface
returnedPoint.SetNormal(TopNormal);
if (returnedPoint.IsFrontFacing())
{
returnedPoint.SetMaterial(TopOuterMat);
}
else
{
returnedPoint.SetMaterial(TopInnerMat);
}
// Calculate U-V values for texture coordinates
vdotuA = 0.5 * (1.0 - vdotuA);
vdotuB = 0.5 * (1.0 + vdotuB);
returnedPoint.SetUV(vdotuA, vdotuB);
returnedPoint.SetFaceNumber(TopFaceNum);
break;
case 1: // Bottom face
returnedPoint.SetNormal(BottomNormal);
if (returnedPoint.IsFrontFacing())
{
returnedPoint.SetMaterial(*BottomOuterMat);
}
else
{
returnedPoint.SetMaterial(*BottomInnerMat);
}
// Calculate U-V values for texture coordinates
vdotuA = 0.5 * (1.0 + vdotuA);
vdotuB = 0.5 * (1.0 + vdotuB);
returnedPoint.SetUV(vdotuA, vdotuB);
returnedPoint.SetFaceNumber(BaseFaceNum);
break;
case 2: // Cylinder's side
Vector3 normal;
normal = vdotuA * AxisA;
normal += vdotuB * AxisB;
normal.Normalize();
returnedPoint.SetNormal(normal);
if (returnedPoint.IsFrontFacing())
{
returnedPoint.SetMaterial(SideOuterMat);
}
else
{
returnedPoint.SetMaterial(SideInnerMat);
}
// Calculate u-v coordinates for texture mapping (in range[0,1]x[0,1])
double uCoord = Math.Atan2(vdotuB, vdotuA) / MathHelper.Tau + 0.5;
double vCoord;
if (IsRightCylinder())
{
vCoord = (Vector3Ex.Dot(v, CenterAxis) + HalfHeight) / Height;
}
else
{
Vector3 hitPos = returnedPoint.GetPosition();
double distUp = (TopPlaneCoef - Vector3Ex.Dot(hitPos, TopNormal)) / Vector3Ex.Dot(CenterAxis, TopNormal);
double distDown = -(BottomPlaneCoef - Vector3Ex.Dot(hitPos, BottomNormal)) / Vector3Ex.Dot(CenterAxis, BottomNormal);
if (distDown + distUp > 0.0)
{
vCoord = distDown / (distDown + distUp);
}
else
{
vCoord = 0.5; // At corner
}
}
returnedPoint.SetUV(uCoord, vCoord);
returnedPoint.SetFaceNumber(SideFaceNum);
}
return(true);
}
/// <summary>
/// Builds a cylinder into the geometry with correct texture coordinates and normals.
/// </summary>
/// <param name="target">Target <see cref="GeometrySurface"/>.</param>
/// <param name="bottomMiddle">Coordinate of bottom middle.</param>
/// <param name="radius">The radius of the cylinder.</param>
/// <param name="height">The height of the cylinder.</param>
/// <param name="countOfSegments">Total count of segments to generate.</param>
/// <param name="buildBottom">Build bottom of the cylinder.</param>
/// <param name="buildSides">Build sides of the cylinder.</param>
/// <param name="buildTop">Build top side of the cylinder.</param>
public static BuiltVerticesRange BuildCylinder(
this GeometrySurface target,
Vector3 bottomMiddle, float radius, float height, int countOfSegments,
bool buildSides, bool buildBottom, bool buildTop)
{
var startVertex = target.Owner.CountVertices;
radius = Math.Max(EngineMath.TOLERANCE_FLOAT_POSITIVE, radius);
height = Math.Max(EngineMath.TOLERANCE_FLOAT_POSITIVE, height);
countOfSegments = Math.Max(3, countOfSegments);
var diameter = radius * 2f;
// Get texture offsets
var texX = 1f;
var texY = 1f;
var texSegmentY = 1f;
var texSegmentX = 1f;
if (target.IsTextureTileModeEnabled(out var tileSize))
{
texX = diameter / tileSize.X;
texY = diameter / tileSize.Y;
texSegmentY = height / tileSize.Y;
texSegmentX = EngineMath.RAD_180DEG * diameter / tileSize.X;
}
// Specify bottom and top middle coordinates
var bottomCoordinate = bottomMiddle;
var topCoordinate = new Vector3(bottomMiddle.X, bottomMiddle.Y + height, bottomMiddle.Z);
// Create bottom and top vertices
var bottomVertex = new VertexBasic(bottomCoordinate, new Vector2(texX / 2f, texY / 2f), new Vector3(0f, -1f, 0f));
var topVertex = new VertexBasic(topCoordinate, new Vector2(texX / 2f, texY / 2f), new Vector3(0f, 1f, 0f));
// AddObject bottom and top vertices to the geometry
var bottomVertexIndex = target.Owner.AddVertex(bottomVertex);
var topVertexIndex = target.Owner.AddVertex(topVertex);
// Generate all segments
var fullRadian = EngineMath.RAD_360DEG;
var countOfSegmentsF = (float)countOfSegments;
for (var loop = 0; loop < countOfSegments; loop++)
{
// Calculate rotation values for each segment border
var startRadian = fullRadian * (loop / countOfSegmentsF);
var targetRadian = fullRadian * ((loop + 1) / countOfSegmentsF);
var normalRadian = startRadian + (targetRadian - startRadian) / 2f;
// Generate all normals
var sideNormal = Vector3Ex.NormalFromHVRotation(normalRadian, 0f);
var sideLeftNormal = Vector3Ex.NormalFromHVRotation(startRadian, 0f);
var sideRightNormal = Vector3Ex.NormalFromHVRotation(targetRadian, 0f);
//
var sideLeftTexCoord = new Vector2(0.5f + sideLeftNormal.X * radius, 0.5f + sideLeftNormal.Z * radius);
var sideRightTexCoord = new Vector2(0.5f + sideRightNormal.X * radius, 0.5f + sideRightNormal.Z * radius);
// Generate all points
var sideLeftBottomCoord = bottomCoordinate + sideLeftNormal * radius;
var sideRightBottomCoord = bottomCoordinate + sideRightNormal * radius;
var sideLeftTopCoord = new Vector3(sideLeftBottomCoord.X, sideLeftBottomCoord.Y + height, sideLeftBottomCoord.Z);
var sideRightTopCoord = new Vector3(sideRightBottomCoord.X, sideRightBottomCoord.Y + height, sideRightBottomCoord.Z);
// AddObject segment bottom triangle
if (buildBottom)
{
var segmentBottomLeft = bottomVertex.Copy(sideLeftBottomCoord, sideLeftTexCoord);
var segmentBottomRight = bottomVertex.Copy(sideRightBottomCoord, sideRightTexCoord);
target.AddTriangle(
bottomVertexIndex, target.Owner.AddVertex(segmentBottomLeft), target.Owner.AddVertex(segmentBottomRight));
}
// AddObject segment top triangle
if (buildTop)
{
var segmentTopLeft = topVertex.Copy(sideLeftTopCoord, sideLeftTexCoord);
var segmentTopRight = topVertex.Copy(sideRightTopCoord, sideRightTexCoord);
target.AddTriangle(
topVertexIndex, target.Owner.AddVertex(segmentTopRight), target.Owner.AddVertex(segmentTopLeft));
}
if (buildSides)
{
// Calculate texture coords for side segment
var texCoordSegmentStart = new Vector2(texSegmentX * (loop / (float)countOfSegments), 0f);
var texCoordSegmentTarget = new Vector2(texSegmentX * ((loop + 1) / (float)countOfSegments), texSegmentY);
// AddObject segment side
target.BuildRect(sideLeftBottomCoord, sideRightBottomCoord, sideRightTopCoord, sideLeftTopCoord, sideNormal, texCoordSegmentStart, texCoordSegmentTarget);
}
}
return(new BuiltVerticesRange(target.Owner, startVertex, target.Owner.CountVertices - startVertex));
}
public override void OnKilled(HitInfo info)
{
if (base.isClient)
{
return;
}
this.CreateExplosionMarker(10f);
Effect.server.Run(this.explosionEffect.resourcePath, base.transform.position, Vector3.up, null, true);
Vector3 lastMoveDir = (this.myAI.GetLastMoveDir() * this.myAI.GetMoveSpeed()) * 0.75f;
GameObject component = this.servergibs.Get().GetComponent <ServerGib>()._gibSource;
List <ServerGib> serverGibs = ServerGib.CreateGibs(this.servergibs.resourcePath, base.gameObject, component, lastMoveDir, 3f);
for (int i = 0; i < 12 - this.maxCratesToSpawn; i++)
{
BaseEntity vector3 = GameManager.server.CreateEntity(this.fireBall.resourcePath, base.transform.position, base.transform.rotation, true);
if (vector3)
{
float single = 3f;
float single1 = 10f;
Vector3 vector31 = UnityEngine.Random.onUnitSphere;
vector3.transform.position = (base.transform.position + new Vector3(0f, 1.5f, 0f)) + (vector31 * UnityEngine.Random.Range(-4f, 4f));
Collider collider = vector3.GetComponent <Collider>();
vector3.Spawn();
vector3.SetVelocity(lastMoveDir + (vector31 * UnityEngine.Random.Range(single, single1)));
foreach (ServerGib serverGib in serverGibs)
{
Physics.IgnoreCollision(collider, serverGib.GetCollider(), true);
}
}
}
for (int j = 0; j < this.maxCratesToSpawn; j++)
{
Vector3 vector32 = UnityEngine.Random.onUnitSphere;
Vector3 vector33 = (base.transform.position + new Vector3(0f, 1.5f, 0f)) + (vector32 * UnityEngine.Random.Range(2f, 3f));
BaseEntity baseEntity = GameManager.server.CreateEntity(this.crateToDrop.resourcePath, vector33, Quaternion.LookRotation(vector32), true);
baseEntity.Spawn();
LootContainer lootContainer = baseEntity as LootContainer;
if (lootContainer)
{
lootContainer.Invoke(new Action(lootContainer.RemoveMe), 1800f);
}
Collider component1 = baseEntity.GetComponent <Collider>();
Rigidbody rigidbody = baseEntity.gameObject.AddComponent <Rigidbody>();
rigidbody.useGravity = true;
rigidbody.collisionDetectionMode = CollisionDetectionMode.ContinuousDynamic;
rigidbody.mass = 2f;
rigidbody.interpolation = RigidbodyInterpolation.Interpolate;
rigidbody.velocity = lastMoveDir + (vector32 * UnityEngine.Random.Range(1f, 3f));
rigidbody.angularVelocity = Vector3Ex.Range(-1.75f, 1.75f);
rigidbody.drag = 0.5f * (rigidbody.mass / 5f);
rigidbody.angularDrag = 0.2f * (rigidbody.mass / 5f);
GameManager gameManager = GameManager.server;
string str = this.fireBall.resourcePath;
Vector3 vector34 = new Vector3();
Quaternion quaternion = new Quaternion();
FireBall fireBall = gameManager.CreateEntity(str, vector34, quaternion, true) as FireBall;
if (fireBall)
{
fireBall.SetParent(baseEntity, false, false);
fireBall.Spawn();
fireBall.GetComponent <Rigidbody>().isKinematic = true;
fireBall.GetComponent <Collider>().enabled = false;
}
baseEntity.SendMessage("SetLockingEnt", fireBall.gameObject, SendMessageOptions.DontRequireReceiver);
foreach (ServerGib serverGib1 in serverGibs)
{
Physics.IgnoreCollision(component1, serverGib1.GetCollider(), true);
}
}
base.OnKilled(info);
}
