private void CalculateVelocity()
{
Vector3G vector3G = new Vector3G();
double num = (double)Time.time - (double)this.lastVelocityCalc;
Character character = base.idMain;
Vector3 vector3 = (!character ? base.transform.position : character.origin);
Vector3G vector3G1 = new Vector3G(ref vector3);
double num1 = 1 / num;
vector3G.x = num1 * (vector3G1.x - this.lastPosPrecise.x);
vector3G.y = num1 * (vector3G1.y - this.lastPosPrecise.y);
vector3G.z = num1 * (vector3G1.z - this.lastPosPrecise.z);
Matrix4x4G matrix4x4G = new Matrix4x4G(base.transform.worldToLocalMatrix);
Matrix4x4G.Mult3x3(ref vector3G, ref matrix4x4G, out this.localVelocityPrecise);
this.lastVelocityCalc = Time.time;
this.speedPrecise = Math.Sqrt(this.localVelocityPrecise.x * this.localVelocityPrecise.x + this.localVelocityPrecise.z * this.localVelocityPrecise.z);
if (this.speedPrecise >= (double)this.movement.configuration.minMoveSpeed)
{
double num2 = 1 / this.speedPrecise;
this.movementNormalPrecise.x = (double)this.localVelocity.x * num2;
this.movementNormalPrecise.y = (double)this.localVelocity.z * num2;
double num3 = this.anglePrecise;
this.anglePrecise = Math.Atan2(this.movementNormalPrecise.x, this.movementNormalPrecise.y) / 3.14159265358979 * 180;
float single = this.movement.configuration.maxTurnSpeed;
if (single > 0f && this.anglePrecise != num3 && this.lastAngleSpeedPrecise >= 0.05)
{
double num4 = (double)Time.deltaTime * (double)single;
if (Precise.MoveTowardsAngle(ref num3, ref this.anglePrecise, ref num4, out this.anglePrecise))
{
double num5 = this.anglePrecise / 180 * 3.14159265358979;
this.movementNormalPrecise.x = Math.Sin(num5);
this.movementNormalPrecise.y = Math.Cos(num5);
}
}
this.lastAngleSpeedPrecise = this.speedPrecise;
}
else
{
this.speedPrecise = 0;
this.movementNormalPrecise.x = 0;
this.movementNormalPrecise.y = 0;
if (this.lastAngleSpeedPrecise > 0)
{
float single1 = this.movement.configuration.maxTimeBetweenTurns;
float single2 = single1;
if (single1 > 0f)
{
PlayerAnimation playerAnimation = this;
playerAnimation.lastAngleSpeedPrecise = playerAnimation.lastAngleSpeedPrecise - (double)(Time.deltaTime / single2);
}
}
}
this.lastPosPrecise = vector3G1;
this.lastPos = vector3;
this.movementNormal = this.movementNormalPrecise.f;
this.speed = (float)this.speedPrecise;
this.angle = (float)this.anglePrecise;
this.localVelocity = this.localVelocityPrecise.f;
}
internal static void ApplyTransitionAlterations(Camera camera, CameraFX fx, bool useFX)
{
Matrix4x4G matrix4x4G;
Matrix4x4G matrix4x4G1;
if (!useFX)
{
camera.ExtractCameraMatrixWorldToCamera(out matrix4x4G);
camera.ExtractCameraMatrixProjection(out matrix4x4G1);
int num = CameraFX.g_trans.Update(ref matrix4x4G, ref matrix4x4G1);
if ((num & 1) == 1)
{
camera.ResetWorldToCameraMatrix();
camera.worldToCameraMatrix = matrix4x4G.f;
}
if ((num & 2) == 2)
{
camera.ResetProjectionMatrix();
camera.projectionMatrix = matrix4x4G1.f;
}
}
else
{
int num1 = CameraFX.g_trans.Update(ref fx.worldToCameraMatrix, ref fx.projectionMatrix);
if ((num1 & 1) == 1)
{
camera.worldToCameraMatrix = fx.worldToCameraMatrix.f;
Matrix4x4G.Inverse(ref fx.worldToCameraMatrix, out fx.cameraToWorldMatrix);
}
if ((num1 & 2) == 2)
{
camera.projectionMatrix = fx.projectionMatrix.f;
}
}
}
// Token: 0x06003B75 RID: 15221 RVA: 0x000D42E4 File Offset: 0x000D24E4
public bool UnProject(ref Vector3G win, out Vector3G objectCoordinate)
{
Matrix4x4G matrix4x4G;
Matrix4x4G.Mult(ref this.projection, ref this.modelview, ref matrix4x4G);
Matrix4x4G matrix4x4G2;
if (!Matrix4x4G.Inverse(ref matrix4x4G, ref matrix4x4G2))
{
objectCoordinate = default(Vector3G);
return(false);
}
Vector4G vector4G;
vector4G.x = (win.x - this.offset.x) / this.size.x * 2.0 - 1.0;
vector4G.y = (win.y - this.offset.y) / this.size.y * 2.0 - 1.0;
vector4G.z = -win.z;
vector4G.w = 1.0;
Vector4G vector4G2;
Matrix4x4G.Mult(ref vector4G, ref matrix4x4G2, ref vector4G2);
if (vector4G2.w == 0.0)
{
objectCoordinate = default(Vector3G);
return(false);
}
vector4G2.w = 1.0 / vector4G2.w;
objectCoordinate.x = vector4G2.x * vector4G2.w;
objectCoordinate.y = vector4G2.y * vector4G2.w;
objectCoordinate.z = vector4G2.z * vector4G2.w;
return(true);
}
public static Matrix4x4G Transpose(Matrix4x4G v)
{
Matrix4x4G matrixxg;
Matrix4x4G.Transpose(ref v, out matrixxg);
return(matrixxg);
}
private void GatherInfo(CCMotor motor)
{
if (motor.isGrounded && !motor.isSliding)
{
this.groundLocalVelocity = this.localVelocity;
this.groundWorldVelocity = this.worldVelocity;
this.groundLocalAngularVelocity = this.localAngularVelocity;
this.groundLocalVelocityMag = this.localVelocityMag;
this.groundWorldVelocityMag = this.worldVelocityMag;
this.groundLocalAngularVelocityMag = this.localAngularVelocityMag;
}
else
{
this.groundLocalVelocity = new Vector3G();
this.groundWorldVelocity = new Vector3G();
this.groundLocalAngularVelocity = new Vector3G();
this.groundLocalVelocityMag = 0.0;
this.groundWorldVelocityMag = 0.0;
this.groundLocalAngularVelocityMag = 0.0;
}
this.inputForce.x = motor.input.moveDirection.x;
this.inputForce.y = motor.input.moveDirection.y;
this.inputForce.z = motor.input.moveDirection.z;
Matrix4x4G.Mult3x3(ref this.inputForce, ref this.worldToLocal, out this.inputForce);
this.inputForce.x *= this.cfg.inputForceMultiplier.x;
this.inputForce.y *= this.cfg.inputForceMultiplier.y;
this.inputForce.z *= this.cfg.inputForceMultiplier.z;
}
public bool UnProject(ref Vector3G win, out Vector3G objectCoordinate)
{
Matrix4x4G matrixxg;
Matrix4x4G matrixxg2;
Vector4G vectorg;
Vector4G vectorg2;
Matrix4x4G.Mult(ref this.projection, ref this.modelview, out matrixxg);
if (!Matrix4x4G.Inverse(ref matrixxg, out matrixxg2))
{
objectCoordinate = new Vector3G();
return(false);
}
vectorg.x = (((win.x - this.offset.x) / this.size.x) * 2.0) - 1.0;
vectorg.y = (((win.y - this.offset.y) / this.size.y) * 2.0) - 1.0;
vectorg.z = -win.z;
vectorg.w = 1.0;
Matrix4x4G.Mult(ref vectorg, ref matrixxg2, out vectorg2);
if (vectorg2.w == 0.0)
{
objectCoordinate = new Vector3G();
return(false);
}
vectorg2.w = 1.0 / vectorg2.w;
objectCoordinate.x = vectorg2.x * vectorg2.w;
objectCoordinate.y = vectorg2.y * vectorg2.w;
objectCoordinate.z = vectorg2.z * vectorg2.w;
return(true);
}
public static Matrix4x4G Slerp(double t, Matrix4x4G a, Matrix4x4G b)
{
Matrix4x4G identity = Matrix4x4G.identity;
Vector3G dotB = Slerp(t, DIR_X(a), DIR_X(b));
Vector3G up = Slerp(t, DIR_Y(a), DIR_Y(b));
Vector3G forward = Slerp(t, DIR_Z(a), DIR_Z(b));
QuaternionG rotation = LookRotation(forward, up);
up = Rotate(rotation, Y3(Length(up)));
if (CrossDot(forward, up, dotB) > 0.0)
{
dotB = Rotate(rotation, X3(-Length(dotB)));
}
else
{
dotB = Rotate(rotation, X3(Length(dotB)));
}
DIR_X(ref identity, dotB);
DIR_Y(ref identity, up);
DIR_Z(ref identity, forward);
SCALE(ref identity, Linear(t, SCALE(a), SCALE(b)));
TRANS(ref identity, Linear(t, TRANS(a), TRANS(b)));
identity.m33 = Linear(t, a.m33, b.m33);
return(identity);
}
internal static void ApplyTransitionAlterations(Camera camera, CameraFX fx, bool useFX)
{
if (useFX)
{
int num = g_trans.Update(ref fx.worldToCameraMatrix, ref fx.projectionMatrix);
if ((num & 1) == 1)
{
camera.worldToCameraMatrix = fx.worldToCameraMatrix.f;
Matrix4x4G.Inverse(ref fx.worldToCameraMatrix, out fx.cameraToWorldMatrix);
}
if ((num & 2) == 2)
{
camera.projectionMatrix = fx.projectionMatrix.f;
}
}
else
{
Matrix4x4G matrixxg;
Matrix4x4G matrixxg2;
camera.ExtractCameraMatrixWorldToCamera(out matrixxg);
camera.ExtractCameraMatrixProjection(out matrixxg2);
int num2 = g_trans.Update(ref matrixxg, ref matrixxg2);
if ((num2 & 1) == 1)
{
camera.ResetWorldToCameraMatrix();
camera.worldToCameraMatrix = matrixxg.f;
}
if ((num2 & 2) == 2)
{
camera.ResetProjectionMatrix();
camera.projectionMatrix = matrixxg2.f;
}
}
}
// Token: 0x06002BC8 RID: 11208 RVA: 0x000A375C File Offset: 0x000A195C
internal static void ApplyTransitionAlterations(Camera camera, global::CameraFX fx, bool useFX)
{
if (useFX)
{
int num = global::CameraFX.g_trans.Update(ref fx.worldToCameraMatrix, ref fx.projectionMatrix);
if ((num & 1) == 1)
{
camera.worldToCameraMatrix = fx.worldToCameraMatrix.f;
Matrix4x4G.Inverse(ref fx.worldToCameraMatrix, ref fx.cameraToWorldMatrix);
}
if ((num & 2) == 2)
{
camera.projectionMatrix = fx.projectionMatrix.f;
}
}
else
{
Matrix4x4G matrix4x4G;
Precise.ExtractCameraMatrixWorldToCamera(camera, ref matrix4x4G);
Matrix4x4G matrix4x4G2;
Precise.ExtractCameraMatrixProjection(camera, ref matrix4x4G2);
int num2 = global::CameraFX.g_trans.Update(ref matrix4x4G, ref matrix4x4G2);
if ((num2 & 1) == 1)
{
camera.ResetWorldToCameraMatrix();
camera.worldToCameraMatrix = matrix4x4G.f;
}
if ((num2 & 2) == 2)
{
camera.ResetProjectionMatrix();
camera.projectionMatrix = matrix4x4G2.f;
}
}
}
// Token: 0x06002E36 RID: 11830 RVA: 0x000B0710 File Offset: 0x000AE910
private void GatherInfo(global::CCMotor motor)
{
if (motor.isGrounded && !motor.isSliding)
{
this.groundLocalVelocity = this.localVelocity;
this.groundWorldVelocity = this.worldVelocity;
this.groundLocalAngularVelocity = this.localAngularVelocity;
this.groundLocalVelocityMag = this.localVelocityMag;
this.groundWorldVelocityMag = this.worldVelocityMag;
this.groundLocalAngularVelocityMag = this.localAngularVelocityMag;
}
else
{
this.groundLocalVelocity = default(Vector3G);
this.groundWorldVelocity = default(Vector3G);
this.groundLocalAngularVelocity = default(Vector3G);
this.groundLocalVelocityMag = 0.0;
this.groundWorldVelocityMag = 0.0;
this.groundLocalAngularVelocityMag = 0.0;
}
this.inputForce.x = (double)motor.input.moveDirection.x;
this.inputForce.y = (double)motor.input.moveDirection.y;
this.inputForce.z = (double)motor.input.moveDirection.z;
Matrix4x4G.Mult3x3(ref this.inputForce, ref this.worldToLocal, ref this.inputForce);
this.inputForce.x = this.inputForce.x * (double)this.cfg.inputForceMultiplier.x;
this.inputForce.y = this.inputForce.y * (double)this.cfg.inputForceMultiplier.y;
this.inputForce.z = this.inputForce.z * (double)this.cfg.inputForceMultiplier.z;
}
public bool UnProject(ref Vector3G win, out Vector3G objectCoordinate)
{
objectCoordinate = new Vector3G();
Matrix4x4G matrix4x4G;
Matrix4x4G matrix4x4G1;
Vector4G vector4G = new Vector4G();
Vector4G vector4G1;
Matrix4x4G.Mult(ref this.projection, ref this.modelview, out matrix4x4G);
if (!Matrix4x4G.Inverse(ref matrix4x4G, out matrix4x4G1))
{
objectCoordinate = new Vector3G();
return(false);
}
vector4G.x = (win.x - this.offset.x) / this.size.x * 2 - 1;
vector4G.y = (win.y - this.offset.y) / this.size.y * 2 - 1;
vector4G.z = -win.z;
vector4G.w = 1;
Matrix4x4G.Mult(ref vector4G, ref matrix4x4G1, out vector4G1);
if (vector4G1.w == 0)
{
objectCoordinate = new Vector3G();
return(false);
}
vector4G1.w = 1 / vector4G1.w;
objectCoordinate.x = vector4G1.x * vector4G1.w;
objectCoordinate.y = vector4G1.y * vector4G1.w;
objectCoordinate.z = vector4G1.z * vector4G1.w;
return(true);
}
public static Matrix4x4G Inverse(Matrix4x4G v)
{
Matrix4x4G matrixxg;
Matrix4x4G.Inverse(ref v, out matrixxg);
return(matrixxg);
}
// Token: 0x06000420 RID: 1056 RVA: 0x00014844 File Offset: 0x00012A44
private void CalculateVelocity()
{
double num = (double)Time.time - (double)this.lastVelocityCalc;
global::Character idMain = base.idMain;
Vector3 vector = (!idMain) ? base.transform.position : idMain.origin;
Vector3G vector3G;
vector3G..ctor(ref vector);
double num2 = 1.0 / num;
Vector3G vector3G2;
vector3G2.x = num2 * (vector3G.x - this.lastPosPrecise.x);
vector3G2.y = num2 * (vector3G.y - this.lastPosPrecise.y);
vector3G2.z = num2 * (vector3G.z - this.lastPosPrecise.z);
Matrix4x4G matrix4x4G;
matrix4x4G..ctor(base.transform.worldToLocalMatrix);
Matrix4x4G.Mult3x3(ref vector3G2, ref matrix4x4G, ref this.localVelocityPrecise);
this.lastVelocityCalc = Time.time;
this.speedPrecise = Math.Sqrt(this.localVelocityPrecise.x * this.localVelocityPrecise.x + this.localVelocityPrecise.z * this.localVelocityPrecise.z);
if (this.speedPrecise < (double)this.movement.configuration.minMoveSpeed)
{
this.speedPrecise = 0.0;
this.movementNormalPrecise.x = 0.0;
this.movementNormalPrecise.y = 0.0;
float maxTimeBetweenTurns;
if (this.lastAngleSpeedPrecise > 0.0 && (maxTimeBetweenTurns = this.movement.configuration.maxTimeBetweenTurns) > 0f)
{
this.lastAngleSpeedPrecise -= (double)(Time.deltaTime / maxTimeBetweenTurns);
}
}
else
{
double num3 = 1.0 / this.speedPrecise;
this.movementNormalPrecise.x = (double)this.localVelocity.x * num3;
this.movementNormalPrecise.y = (double)this.localVelocity.z * num3;
double num4 = this.anglePrecise;
this.anglePrecise = Math.Atan2(this.movementNormalPrecise.x, this.movementNormalPrecise.y) / 3.1415926535897931 * 180.0;
float maxTurnSpeed = this.movement.configuration.maxTurnSpeed;
if (maxTurnSpeed > 0f && this.anglePrecise != num4 && this.lastAngleSpeedPrecise >= 0.05)
{
double num5 = (double)Time.deltaTime * (double)maxTurnSpeed;
if (Precise.MoveTowardsAngle(ref num4, ref this.anglePrecise, ref num5, ref this.anglePrecise))
{
double num6 = this.anglePrecise / 180.0 * 3.1415926535897931;
this.movementNormalPrecise.x = Math.Sin(num6);
this.movementNormalPrecise.y = Math.Cos(num6);
}
}
this.lastAngleSpeedPrecise = this.speedPrecise;
}
this.lastPosPrecise = vector3G;
this.lastPos = vector;
this.movementNormal = this.movementNormalPrecise.f;
this.speed = (float)this.speedPrecise;
this.angle = (float)this.anglePrecise;
this.localVelocity = this.localVelocityPrecise.f;
}
public void Set(float duration, TransitionFunction func)
{
this.start = CameraFX.CameraTransitionData.timeSource;
this.lastTime = this.start;
this.end = this.start + duration;
this.view = this.lastView;
this.proj = this.lastProj;
this.func = func;
}
private void PushPosition()
{
VectorStamp stamp;
VectorStamp stamp2;
Vector3 eyesOrigin;
Vector3 eulerAngles;
Character character;
this.worldToLocal.f = this.otherParent.worldToLocalMatrix;
this.localToWorld.f = this.otherParent.localToWorldMatrix;
stamp.timeStamp = Time.time;
stamp.valid = true;
if ((this._motor != null) && ((character = this._motor.idMain as Character) != null))
{
eulerAngles = character.eyesAngles.eulerAngles;
eyesOrigin = character.eyesOrigin;
}
else
{
eulerAngles = this.otherParent.eulerAngles;
eyesOrigin = this.otherParent.position;
}
stamp.vector.x = eyesOrigin.x;
stamp.vector.y = eyesOrigin.y;
stamp.vector.z = eyesOrigin.z;
stamp2.vector.x = eulerAngles.x;
stamp2.vector.y = eulerAngles.y;
stamp2.vector.z = eulerAngles.z;
stamp2.timeStamp = Time.time;
stamp2.valid = true;
if (this.lastPosition.valid && (this.lastPosition.timeStamp != stamp.timeStamp))
{
double num = 1.0 / ((double)(stamp.timeStamp - this.lastPosition.timeStamp));
this.worldVelocity.x = (stamp.vector.x - this.lastPosition.vector.x) * num;
this.worldVelocity.y = (stamp.vector.y - this.lastPosition.vector.y) * num;
this.worldVelocity.z = (stamp.vector.z - this.lastPosition.vector.z) * num;
Matrix4x4G.Mult3x3(ref this.worldVelocity, ref this.worldToLocal, out this.localVelocity);
}
this.impulseForce.Sample(ref this.localVelocity, stamp.timeStamp);
this.lastPosition = stamp;
if (this.lastRotation.valid && (this.lastRotation.timeStamp != stamp2.timeStamp))
{
double num2 = 1.0 / ((double)(stamp2.timeStamp - this.lastRotation.timeStamp));
Precise.DeltaAngle(ref this.lastRotation.vector.x, ref stamp2.vector.x, out this.localAngularVelocity.x);
Precise.DeltaAngle(ref this.lastRotation.vector.y, ref stamp2.vector.y, out this.localAngularVelocity.y);
Precise.DeltaAngle(ref this.lastRotation.vector.z, ref stamp2.vector.z, out this.localAngularVelocity.z);
this.localAngularVelocity.x *= num2;
this.localAngularVelocity.y *= num2;
this.localAngularVelocity.z *= num2;
}
this.impulseTorque.Sample(ref this.localAngularVelocity, stamp2.timeStamp);
this.lastRotation = stamp2;
this.localVelocityMag = Math.Sqrt(((this.localVelocity.x * this.localVelocity.x) + (this.localVelocity.y * this.localVelocity.y)) + (this.localVelocity.z * this.localVelocity.z));
this.worldVelocityMag = Math.Sqrt(((this.worldVelocity.x * this.worldVelocity.x) + (this.worldVelocity.y * this.worldVelocity.y)) + (this.worldVelocity.z * this.worldVelocity.z));
this.localAngularVelocityMag = Math.Sqrt(((this.localAngularVelocity.x * this.localAngularVelocity.x) + (this.localAngularVelocity.y * this.localAngularVelocity.y)) + (this.localAngularVelocity.z * this.localAngularVelocity.z));
}
// Token: 0x06002E35 RID: 11829 RVA: 0x000B02B8 File Offset: 0x000AE4B8
private void PushPosition()
{
this.worldToLocal.f = this.otherParent.worldToLocalMatrix;
this.localToWorld.f = this.otherParent.localToWorldMatrix;
global::HeadBob.VectorStamp vectorStamp;
vectorStamp.timeStamp = Time.time;
vectorStamp.valid = true;
global::Character character;
Vector3 eulerAngles;
Vector3 vector;
if (this._motor && (character = (this._motor.idMain as global::Character)))
{
eulerAngles = character.eyesAngles.eulerAngles;
vector = character.eyesOrigin;
}
else
{
eulerAngles = this.otherParent.eulerAngles;
vector = this.otherParent.position;
}
vectorStamp.vector.x = (double)vector.x;
vectorStamp.vector.y = (double)vector.y;
vectorStamp.vector.z = (double)vector.z;
global::HeadBob.VectorStamp vectorStamp2;
vectorStamp2.vector.x = (double)eulerAngles.x;
vectorStamp2.vector.y = (double)eulerAngles.y;
vectorStamp2.vector.z = (double)eulerAngles.z;
vectorStamp2.timeStamp = Time.time;
vectorStamp2.valid = true;
if (this.lastPosition.valid && this.lastPosition.timeStamp != vectorStamp.timeStamp)
{
double num = 1.0 / (double)(vectorStamp.timeStamp - this.lastPosition.timeStamp);
this.worldVelocity.x = (vectorStamp.vector.x - this.lastPosition.vector.x) * num;
this.worldVelocity.y = (vectorStamp.vector.y - this.lastPosition.vector.y) * num;
this.worldVelocity.z = (vectorStamp.vector.z - this.lastPosition.vector.z) * num;
Matrix4x4G.Mult3x3(ref this.worldVelocity, ref this.worldToLocal, ref this.localVelocity);
}
this.impulseForce.Sample(ref this.localVelocity, vectorStamp.timeStamp);
this.lastPosition = vectorStamp;
if (this.lastRotation.valid && this.lastRotation.timeStamp != vectorStamp2.timeStamp)
{
double num2 = 1.0 / (double)(vectorStamp2.timeStamp - this.lastRotation.timeStamp);
Precise.DeltaAngle(ref this.lastRotation.vector.x, ref vectorStamp2.vector.x, ref this.localAngularVelocity.x);
Precise.DeltaAngle(ref this.lastRotation.vector.y, ref vectorStamp2.vector.y, ref this.localAngularVelocity.y);
Precise.DeltaAngle(ref this.lastRotation.vector.z, ref vectorStamp2.vector.z, ref this.localAngularVelocity.z);
this.localAngularVelocity.x = this.localAngularVelocity.x * num2;
this.localAngularVelocity.y = this.localAngularVelocity.y * num2;
this.localAngularVelocity.z = this.localAngularVelocity.z * num2;
}
this.impulseTorque.Sample(ref this.localAngularVelocity, vectorStamp2.timeStamp);
this.lastRotation = vectorStamp2;
this.localVelocityMag = Math.Sqrt(this.localVelocity.x * this.localVelocity.x + this.localVelocity.y * this.localVelocity.y + this.localVelocity.z * this.localVelocity.z);
this.worldVelocityMag = Math.Sqrt(this.worldVelocity.x * this.worldVelocity.x + this.worldVelocity.y * this.worldVelocity.y + this.worldVelocity.z * this.worldVelocity.z);
this.localAngularVelocityMag = Math.Sqrt(this.localAngularVelocity.x * this.localAngularVelocity.x + this.localAngularVelocity.y * this.localAngularVelocity.y + this.localAngularVelocity.z * this.localAngularVelocity.z);
}
private void CalculateVelocity()
{
Vector3G vectorg2;
double num = Time.time - this.lastVelocityCalc;
Character idMain = base.idMain;
Vector3 v = (idMain == null) ? base.transform.position : idMain.origin;
Vector3G vectorg = new Vector3G(ref v);
double num2 = 1.0 / num;
vectorg2.x = num2 * (vectorg.x - this.lastPosPrecise.x);
vectorg2.y = num2 * (vectorg.y - this.lastPosPrecise.y);
vectorg2.z = num2 * (vectorg.z - this.lastPosPrecise.z);
Matrix4x4G b = new Matrix4x4G(base.transform.worldToLocalMatrix);
Matrix4x4G.Mult3x3(ref vectorg2, ref b, out this.localVelocityPrecise);
this.lastVelocityCalc = Time.time;
this.speedPrecise = Math.Sqrt((this.localVelocityPrecise.x * this.localVelocityPrecise.x) + (this.localVelocityPrecise.z * this.localVelocityPrecise.z));
if (this.speedPrecise < this.movement.configuration.minMoveSpeed)
{
float num3;
this.speedPrecise = 0.0;
this.movementNormalPrecise.x = 0.0;
this.movementNormalPrecise.y = 0.0;
if ((this.lastAngleSpeedPrecise > 0.0) && ((num3 = this.movement.configuration.maxTimeBetweenTurns) > 0f))
{
this.lastAngleSpeedPrecise -= Time.deltaTime / num3;
}
}
else
{
double num4 = 1.0 / this.speedPrecise;
this.movementNormalPrecise.x = this.localVelocity.x * num4;
this.movementNormalPrecise.y = this.localVelocity.z * num4;
double anglePrecise = this.anglePrecise;
this.anglePrecise = (Math.Atan2(this.movementNormalPrecise.x, this.movementNormalPrecise.y) / 3.1415926535897931) * 180.0;
float maxTurnSpeed = this.movement.configuration.maxTurnSpeed;
if (((maxTurnSpeed > 0f) && (this.anglePrecise != anglePrecise)) && (this.lastAngleSpeedPrecise >= 0.05))
{
double maxDelta = Time.deltaTime * maxTurnSpeed;
if (Precise.MoveTowardsAngle(ref anglePrecise, ref this.anglePrecise, ref maxDelta, out this.anglePrecise))
{
double a = (this.anglePrecise / 180.0) * 3.1415926535897931;
this.movementNormalPrecise.x = Math.Sin(a);
this.movementNormalPrecise.y = Math.Cos(a);
}
}
this.lastAngleSpeedPrecise = this.speedPrecise;
}
this.lastPosPrecise = vectorg;
this.lastPos = v;
this.movementNormal = this.movementNormalPrecise.f;
this.speed = (float)this.speedPrecise;
this.angle = (float)this.anglePrecise;
this.localVelocity = this.localVelocityPrecise.f;
}
private void Update()
{
double aspectRatio = (this.aspect <= 0f) ? (((double)Screen.height) / ((double)Screen.width)) : ((double)this.aspect);
this.unity = Matrix4x4.Perspective(this.fov, (float)aspectRatio, this.near, this.far);
double fov = this.fov;
double near = this.near;
double far = this.far;
Matrix4x4G.Perspective(ref fov, ref aspectRatio, ref near, ref far, out this.facep);
this.unity2 = this.facep.f;
}
private Matrix4x4G MultG(Matrix4x4G a, Matrix4x4G b)
{
Matrix4x4G matrixxg;
if (this.revG)
{
Matrix4x4G.Mult(ref b, ref a, out matrixxg);
return(matrixxg);
}
Matrix4x4G.Mult(ref a, ref b, out matrixxg);
return(matrixxg);
}
// Token: 0x06003DE5 RID: 15845 RVA: 0x000DF454 File Offset: 0x000DD654
private void Update()
{
double num = (this.aspect <= 0f) ? ((double)Screen.height / (double)Screen.width) : ((double)this.aspect);
this.unity = Matrix4x4.Perspective(this.fov, (float)num, this.near, this.far);
double num2 = (double)this.fov;
double num3 = (double)this.near;
double num4 = (double)this.far;
Matrix4x4G.Perspective(ref num2, ref num, ref num3, ref num4, ref this.facep);
this.unity2 = this.facep.f;
}
private Matrix4x4G MultG(Matrix4x4G a, Matrix4x4G b)
{
Matrix4x4G matrix4x4G;
if (!this.revG)
{
Matrix4x4G.Mult(ref a, ref b, out matrix4x4G);
}
else
{
Matrix4x4G.Mult(ref b, ref a, out matrix4x4G);
}
return matrix4x4G;
}
private Matrix4x4G MultG(Matrix4x4G a, Matrix4x4G b)
{
Matrix4x4G matrix4x4G;
if (!this.revG)
{
Matrix4x4G.Mult(ref a, ref b, out matrix4x4G);
}
else
{
Matrix4x4G.Mult(ref b, ref a, out matrix4x4G);
}
return(matrix4x4G);
}
// Token: 0x06003DD2 RID: 15826 RVA: 0x000DEBA8 File Offset: 0x000DCDA8
private Matrix4x4G MultG(Matrix4x4G a, Matrix4x4G b)
{
Matrix4x4G result;
if (this.revG)
{
Matrix4x4G.Mult(ref b, ref a, ref result);
}
else
{
Matrix4x4G.Mult(ref a, ref b, ref result);
}
return(result);
}
// Token: 0x06003DFB RID: 15867 RVA: 0x000E059C File Offset: 0x000DE79C
private void OnDrawGizmos()
{
Matrix4x4G matrix4x4G;
Precise.ExtractLocalToWorld(base.transform, ref matrix4x4G);
Matrix4x4 localToWorldMatrix = base.transform.localToWorldMatrix;
Vector3 vector = localToWorldMatrix.MultiplyPoint(Vector3.zero);
Vector3 vector2 = localToWorldMatrix.MultiplyPoint(Vector3.forward);
Vector3 vector3 = localToWorldMatrix.MultiplyPoint(Vector3.up);
Vector3 vector4 = localToWorldMatrix.MultiplyPoint(Vector3.right);
Vector3G vector3G;
vector3G.x = 1.0;
vector3G.y = 0.0;
vector3G.z = 0.0;
Vector3G vector3G2;
Matrix4x4G.Mult(ref vector3G, ref matrix4x4G, ref vector3G2);
vector3G.x = 0.0;
vector3G.y = 1.0;
vector3G.z = 0.0;
Vector3G vector3G3;
Matrix4x4G.Mult(ref vector3G, ref matrix4x4G, ref vector3G3);
vector3G.x = 0.0;
vector3G.y = 0.0;
vector3G.z = 1.0;
Vector3G vector3G4;
Matrix4x4G.Mult(ref vector3G, ref matrix4x4G, ref vector3G4);
vector3G.x = 0.0;
vector3G.y = 0.0;
vector3G.z = 0.0;
Vector3G vector3G5;
Matrix4x4G.Mult(ref vector3G, ref matrix4x4G, ref vector3G5);
Gizmos.color = Color.red * new Color(1f, 1f, 1f, 0.5f);
Gizmos.DrawLine(vector, vector4);
Gizmos.color = Color.green * new Color(1f, 1f, 1f, 0.5f);
Gizmos.DrawLine(vector, vector3);
Gizmos.color = Color.blue * new Color(1f, 1f, 1f, 0.5f);
Gizmos.DrawLine(vector, vector2);
Gizmos.color = Color.red * new Color(1f, 1f, 1f, 1f);
Gizmos.DrawLine(vector3G5.f, vector3G2.f);
Gizmos.color = Color.green * new Color(1f, 1f, 1f, 1f);
Gizmos.DrawLine(vector3G5.f, vector3G3.f);
Gizmos.color = Color.blue * new Color(1f, 1f, 1f, 1f);
Gizmos.DrawLine(vector3G5.f, vector3G4.f);
}
public int Update(ref Matrix4x4G currentView, ref Matrix4x4G currentProj)
{
int num;
try
{
float single = CameraFX.CameraTransitionData.timeSource;
if (this.end > single)
{
float single1 = Mathf.InverseLerp(this.start, this.end, single);
if (single1 < 1f)
{
single1 = this.func.Evaluate(single1);
Matrix4x4G camera = TransitionFunctions.SlerpWorldToCamera((double)single1, this.view, currentView);
Matrix4x4G matrix4x4G = TransitionFunctions.Linear((double)single1, this.proj, currentProj);
this.lastTime = single;
if (!Matrix4x4G.Equals(ref camera, ref currentView))
{
currentView = camera;
if (Matrix4x4G.Equals(ref matrix4x4G, ref currentProj))
{
num = 1;
return(num);
}
else
{
currentProj = matrix4x4G;
num = 3;
return(num);
}
}
else if (!Matrix4x4G.Equals(ref matrix4x4G, ref currentProj))
{
currentProj = matrix4x4G;
num = 2;
return(num);
}
}
}
num = 0;
}
finally
{
this.lastView = currentView;
this.lastProj = currentProj;
}
return(num);
}
private void Update()
{
Matrix4x4 unity;
Matrix4x4G facep;
if ((this.transforms != null) && (this.transforms.Length > 0))
{
if (this.revMul)
{
int index = this.transforms.Length - 1;
unity = this.transforms[index].unity;
facep = this.transforms[index].facep;
index--;
while (index >= 0)
{
unity = this.transforms[index].unity * unity;
facep = this.MultG(this.transforms[index].facep, facep);
index--;
}
}
else
{
int num2 = 0;
unity = this.transforms[num2].unity;
facep = this.transforms[num2].facep;
num2++;
while (num2 < this.transforms.Length)
{
unity *= this.transforms[num2].unity;
facep = this.MultG(facep, this.transforms[num2].facep);
num2++;
}
}
}
else
{
unity = Matrix4x4.identity;
facep = Matrix4x4G.identity;
}
if (this.projection != null)
{
unity = this.projection.UnityMatrix * unity;
facep = this.MultG(this.projection.GMatrix, facep);
}
this.unity = unity;
this.facep = facep;
}
private void OnDrawGizmos()
{
Matrix4x4G matrix4x4G;
Vector3G vector3G;
Vector3G vector3G1;
Vector3G vector3G2;
Vector3G vector3G3;
Vector3G vector3G4 = new Vector3G();
base.transform.ExtractLocalToWorld(out matrix4x4G);
Matrix4x4 matrix4x4 = base.transform.localToWorldMatrix;
Vector3 vector3 = matrix4x4.MultiplyPoint(Vector3.zero);
Vector3 vector31 = matrix4x4.MultiplyPoint(Vector3.forward);
Vector3 vector32 = matrix4x4.MultiplyPoint(Vector3.up);
Vector3 vector33 = matrix4x4.MultiplyPoint(Vector3.right);
vector3G4.x = 1;
vector3G4.y = 0;
vector3G4.z = 0;
Matrix4x4G.Mult(ref vector3G4, ref matrix4x4G, out vector3G);
vector3G4.x = 0;
vector3G4.y = 1;
vector3G4.z = 0;
Matrix4x4G.Mult(ref vector3G4, ref matrix4x4G, out vector3G1);
vector3G4.x = 0;
vector3G4.y = 0;
vector3G4.z = 1;
Matrix4x4G.Mult(ref vector3G4, ref matrix4x4G, out vector3G2);
vector3G4.x = 0;
vector3G4.y = 0;
vector3G4.z = 0;
Matrix4x4G.Mult(ref vector3G4, ref matrix4x4G, out vector3G3);
Gizmos.color = Color.red * new Color(1f, 1f, 1f, 0.5f);
Gizmos.DrawLine(vector3, vector33);
Gizmos.color = Color.green * new Color(1f, 1f, 1f, 0.5f);
Gizmos.DrawLine(vector3, vector32);
Gizmos.color = Color.blue * new Color(1f, 1f, 1f, 0.5f);
Gizmos.DrawLine(vector3, vector31);
Gizmos.color = Color.red * new Color(1f, 1f, 1f, 1f);
Gizmos.DrawLine(vector3G3.f, vector3G.f);
Gizmos.color = Color.green * new Color(1f, 1f, 1f, 1f);
Gizmos.DrawLine(vector3G3.f, vector3G1.f);
Gizmos.color = Color.blue * new Color(1f, 1f, 1f, 1f);
Gizmos.DrawLine(vector3G3.f, vector3G2.f);
}
private void OnDrawGizmos()
{
Matrix4x4G matrixxg;
Vector3G vectorg;
Vector3G vectorg2;
Vector3G vectorg3;
Vector3G vectorg4;
Vector3G vectorg5;
base.transform.ExtractLocalToWorld(out matrixxg);
Matrix4x4 localToWorldMatrix = base.transform.localToWorldMatrix;
Vector3 from = localToWorldMatrix.MultiplyPoint(Vector3.zero);
Vector3 to = localToWorldMatrix.MultiplyPoint(Vector3.forward);
Vector3 vector3 = localToWorldMatrix.MultiplyPoint(Vector3.up);
Vector3 vector4 = localToWorldMatrix.MultiplyPoint(Vector3.right);
vectorg5.x = 1.0;
vectorg5.y = 0.0;
vectorg5.z = 0.0;
Matrix4x4G.Mult(ref vectorg5, ref matrixxg, out vectorg);
vectorg5.x = 0.0;
vectorg5.y = 1.0;
vectorg5.z = 0.0;
Matrix4x4G.Mult(ref vectorg5, ref matrixxg, out vectorg2);
vectorg5.x = 0.0;
vectorg5.y = 0.0;
vectorg5.z = 1.0;
Matrix4x4G.Mult(ref vectorg5, ref matrixxg, out vectorg3);
vectorg5.x = 0.0;
vectorg5.y = 0.0;
vectorg5.z = 0.0;
Matrix4x4G.Mult(ref vectorg5, ref matrixxg, out vectorg4);
Gizmos.color = Color.red * new Color(1f, 1f, 1f, 0.5f);
Gizmos.DrawLine(from, vector4);
Gizmos.color = Color.green * new Color(1f, 1f, 1f, 0.5f);
Gizmos.DrawLine(from, vector3);
Gizmos.color = Color.blue * new Color(1f, 1f, 1f, 0.5f);
Gizmos.DrawLine(from, to);
Gizmos.color = Color.red * new Color(1f, 1f, 1f, 1f);
Gizmos.DrawLine(vectorg4.f, vectorg.f);
Gizmos.color = Color.green * new Color(1f, 1f, 1f, 1f);
Gizmos.DrawLine(vectorg4.f, vectorg2.f);
Gizmos.color = Color.blue * new Color(1f, 1f, 1f, 1f);
Gizmos.DrawLine(vectorg4.f, vectorg3.f);
}
// Token: 0x06002BD6 RID: 11222 RVA: 0x000A3D54 File Offset: 0x000A1F54
public int Update(ref Matrix4x4G currentView, ref Matrix4x4G currentProj)
{
int result;
try
{
float timeSource = global::CameraFX.CameraTransitionData.timeSource;
if (this.end > timeSource)
{
float num = Mathf.InverseLerp(this.start, this.end, timeSource);
if (num < 1f)
{
num = this.func.Evaluate(num);
Matrix4x4G matrix4x4G = global::TransitionFunctions.SlerpWorldToCamera((double)num, this.view, currentView);
Matrix4x4G matrix4x4G2 = global::TransitionFunctions.Linear((double)num, this.proj, currentProj);
this.lastTime = timeSource;
if (!Matrix4x4G.Equals(ref matrix4x4G, ref currentView))
{
currentView = matrix4x4G;
if (!Matrix4x4G.Equals(ref matrix4x4G2, ref currentProj))
{
currentProj = matrix4x4G2;
return(3);
}
return(1);
}
else if (!Matrix4x4G.Equals(ref matrix4x4G2, ref currentProj))
{
currentProj = matrix4x4G2;
return(2);
}
}
}
result = 0;
}
finally
{
this.lastView = currentView;
this.lastProj = currentProj;
}
return(result);
}
public int Update(ref Matrix4x4G currentView, ref Matrix4x4G currentProj)
{
int num3;
try
{
float timeSource = CameraFX.CameraTransitionData.timeSource;
if (this.end > timeSource)
{
float t = Mathf.InverseLerp(this.start, this.end, timeSource);
if (t < 1f)
{
t = this.func.Evaluate(t);
Matrix4x4G a = TransitionFunctions.SlerpWorldToCamera((double)t, this.view, currentView);
Matrix4x4G matrixxg2 = TransitionFunctions.Linear((double)t, this.proj, currentProj);
this.lastTime = timeSource;
if (!Matrix4x4G.Equals(ref a, ref currentView))
{
currentView = a;
if (!Matrix4x4G.Equals(ref matrixxg2, ref currentProj))
{
currentProj = matrixxg2;
return(3);
}
return(1);
}
if (!Matrix4x4G.Equals(ref matrixxg2, ref currentProj))
{
currentProj = matrixxg2;
return(2);
}
}
}
num3 = 0;
}
finally
{
this.lastView = currentView;
this.lastProj = currentProj;
}
return(num3);
}
public static Matrix4x4G Evaluate(this TransitionFunction f, double t, Matrix4x4G a, Matrix4x4G b)
{
switch (f)
{
case TransitionFunction.Linear:
return(Linear(t, a, b));
case TransitionFunction.Round:
return(Round(t, a, b));
case TransitionFunction.Floor:
return(Floor(t, a, b));
case TransitionFunction.Ceil:
return(Ceil(t, a, b));
case TransitionFunction.Spline:
return(Spline(t, a, b));
}
throw new ArgumentOutOfRangeException("v", "Attempted use of unrecognized TransitionFunction enum value");
}
public static Matrix4x4G Transpose(Matrix4x4G v)
{
Matrix4x4G matrix4x4G;
Matrix4x4G.Transpose(ref v, out matrix4x4G);
return matrix4x4G;
}
public static Matrix4x4G Linear(double t, Matrix4x4G a, Matrix4x4G b)
{
return TransitionFunctions.Sum(TransitionFunctions.Mul(a, 1 - t), TransitionFunctions.Mul(b, t));
}
public static Matrix4x4G Floor(double t, Matrix4x4G a, Matrix4x4G b)
{
return (t >= 1 ? b : a);
}
private static void TRANS(ref Matrix4x4G a, Vector3G v)
{
TransitionFunctions.SET_X3(ref a, v);
}
private static void SET_X3(ref Matrix4x4G m, Vector3G v)
{
m.m03 = v.x;
m.m13 = v.y;
m.m23 = v.z;
}
private static void SET_X1(ref Matrix4x4G m, Vector3G v)
{
m.m01 = v.x;
m.m11 = v.y;
m.m21 = v.z;
}
private static void SET_3X(ref Matrix4x4G m, Vector3G v)
{
m.m30 = v.x;
m.m31 = v.y;
m.m32 = v.z;
}
private static void SET_1X(ref Matrix4x4G m, Vector3G v)
{
m.m10 = v.x;
m.m11 = v.y;
m.m12 = v.z;
}
private static void SCALE(ref Matrix4x4G a, Vector3G v)
{
TransitionFunctions.SET_3X(ref a, v);
}
private static Vector3G GET_X3(Matrix4x4G a)
{
return TransitionFunctions.VECT3F(a.m03, a.m13, a.m23);
}
public static Matrix4x4G Sum(Matrix4x4G a, Matrix4x4G b)
{
Matrix4x4G matrix4x4G = new Matrix4x4G();
matrix4x4G.m00 = a.m00 + b.m00;
matrix4x4G.m10 = a.m10 + b.m10;
matrix4x4G.m20 = a.m20 + b.m20;
matrix4x4G.m30 = a.m30 + b.m30;
matrix4x4G.m01 = a.m01 + b.m01;
matrix4x4G.m11 = a.m11 + b.m11;
matrix4x4G.m21 = a.m21 + b.m21;
matrix4x4G.m31 = a.m31 + b.m31;
matrix4x4G.m02 = a.m02 + b.m02;
matrix4x4G.m12 = a.m12 + b.m12;
matrix4x4G.m22 = a.m22 + b.m22;
matrix4x4G.m32 = a.m32 + b.m32;
matrix4x4G.m03 = a.m03 + b.m03;
matrix4x4G.m13 = a.m13 + b.m13;
matrix4x4G.m23 = a.m23 + b.m23;
matrix4x4G.m33 = a.m33 + b.m33;
return matrix4x4G;
}
private static Vector3G SCALE(Matrix4x4G a)
{
return TransitionFunctions.GET_3X(a);
}
private static Vector3G DIR_Z(Matrix4x4G a)
{
return TransitionFunctions.GET_X2(a);
}
private static void SET_0X(ref Matrix4x4G m, Vector3G v)
{
m.m00 = v.x;
m.m01 = v.y;
m.m02 = v.z;
}
private static void DIR_Z(ref Matrix4x4G a, Vector3G v)
{
TransitionFunctions.SET_X2(ref a, v);
}
private static void SET_2X(ref Matrix4x4G m, Vector3G v)
{
m.m20 = v.x;
m.m21 = v.y;
m.m22 = v.z;
}
private static Vector3G GET_0X(Matrix4x4G a)
{
return TransitionFunctions.VECT3F(a.m00, a.m01, a.m02);
}
private static void SET_X0(ref Matrix4x4G m, Vector3G v)
{
m.m00 = v.x;
m.m10 = v.y;
m.m20 = v.z;
}
private static Vector3G GET_1X(Matrix4x4G a)
{
return TransitionFunctions.VECT3F(a.m10, a.m11, a.m12);
}
private static void SET_X2(ref Matrix4x4G m, Vector3G v)
{
m.m02 = v.x;
m.m12 = v.y;
m.m22 = v.z;
}
private static Vector3G GET_2X(Matrix4x4G a)
{
return TransitionFunctions.VECT3F(a.m20, a.m21, a.m22);
}
private static Vector3G TRANS(Matrix4x4G a)
{
return TransitionFunctions.GET_X3(a);
}
private static Vector3G GET_3X(Matrix4x4G a)
{
return TransitionFunctions.VECT3F(a.m30, a.m31, a.m32);
}
public static Matrix4x4G Evaluate(this TransitionFunction f, double t, Matrix4x4G a, Matrix4x4G b)
{
switch (f)
{
case TransitionFunction.Linear:
{
return TransitionFunctions.Linear(t, a, b);
}
case TransitionFunction.Round:
{
return TransitionFunctions.Round(t, a, b);
}
case TransitionFunction.Floor:
{
return TransitionFunctions.Floor(t, a, b);
}
case TransitionFunction.Ceil:
{
return TransitionFunctions.Ceil(t, a, b);
}
case TransitionFunction.Spline:
{
return TransitionFunctions.Spline(t, a, b);
}
}
throw new ArgumentOutOfRangeException("v", "Attempted use of unrecognized TransitionFunction enum value");
}
private static Vector3G GET_X0(Matrix4x4G a)
{
return TransitionFunctions.VECT3F(a.m00, a.m10, a.m20);
}
public static Matrix4x4G Inverse(Matrix4x4G v)
{
Matrix4x4G matrix4x4G;
Matrix4x4G.Inverse(ref v, out matrix4x4G);
return matrix4x4G;
}
private static Vector3G GET_X1(Matrix4x4G a)
{
return TransitionFunctions.VECT3F(a.m01, a.m11, a.m21);
}
public static Matrix4x4G Mul(Matrix4x4G a, double b)
{
Matrix4x4G matrix4x4G = new Matrix4x4G();
matrix4x4G.m00 = a.m00 * b;
matrix4x4G.m10 = a.m10 * b;
matrix4x4G.m20 = a.m20 * b;
matrix4x4G.m30 = a.m30 * b;
matrix4x4G.m01 = a.m01 * b;
matrix4x4G.m11 = a.m11 * b;
matrix4x4G.m21 = a.m21 * b;
matrix4x4G.m31 = a.m31 * b;
matrix4x4G.m02 = a.m02 * b;
matrix4x4G.m12 = a.m12 * b;
matrix4x4G.m22 = a.m22 * b;
matrix4x4G.m32 = a.m32 * b;
matrix4x4G.m03 = a.m03 * b;
matrix4x4G.m13 = a.m13 * b;
matrix4x4G.m23 = a.m23 * b;
matrix4x4G.m33 = a.m33 * b;
return matrix4x4G;
}
private static Vector3G GET_X2(Matrix4x4G a)
{
return TransitionFunctions.VECT3F(a.m02, a.m12, a.m22);
}