/// <summary>
/// Updates the motion over time. This is called by the controller
/// every update cycle so animations and stages can be updated.
/// </summary>
/// <param name="rDeltaTime">Time since the last frame (or fixed update call)</param>
/// <param name="rUpdateIndex">Index of the update to help manage dynamic/fixed updates. [0: Invalid update, >=1: Valid update]</param>
public override void Update(float rDeltaTime, int rUpdateIndex)
{
mMovement = Vector3.zero;
mRotation = Quaternion.identity;
// Test if we stop sneak due to a change in stance. We do this here to transition
if (mMotionController.State.AnimatorStates[mMotionLayer._AnimatorLayerIndex].MotionPhase == 0 && mMotionController._InputSource != null && mMotionController._InputSource.IsEnabled)
{
//if (mMotionController._InputSource.IsJustPressed(_ActionAlias))
if (mMotionController._InputSource.IsReleased(_ActionAlias))
{
// We have to use the forced value our we'll change the current blend value as we transition
mMotionController.ForcedInput.x = mInputX.Average;
mMotionController.ForcedInput.y = mInputY.Average;
mMotionController.SetAnimatorMotionPhase(mMotionLayer._AnimatorLayerIndex, PHASE_END, 0, true);
}
}
// Grab the state info
MotionState lState = mMotionController.State;
// Convert the input to radial so we deal with keyboard and gamepad input the same.
float lInputX = lState.InputX;
float lInputY = lState.InputY;
float lInputMagnitude = lState.InputMagnitudeTrend.Value;
InputManagerHelper.ConvertToRadialInput(ref lInputX, ref lInputY, ref lInputMagnitude, 0.5f);
// Smooth the input
mInputX.Add(lInputX);
mInputY.Add(lInputY);
mInputMagnitude.Add(lInputMagnitude);
// Use the smoothed values for input
mMotionController.State.InputX = mInputX.Average;
mMotionController.State.InputY = mInputY.Average;
mMotionController.State.InputMagnitudeTrend.Replace(mInputMagnitude.Average);
// If we're not dealing with an ootii camera rig, we need to rotate to the camera here
if (_RotateWithCamera && !(mMotionController.CameraRig is BaseCameraRig))
{
OnCameraUpdated(rDeltaTime, rUpdateIndex, null);
}
// Rotate as needed
if (!_RotateWithCamera && _RotateWithInput)
{
RotateUsingInput(rDeltaTime, ref mRotation);
}
}
/// <summary>
/// Sets the value of this state with values from another
///
/// Note: When the shift occurs, all intrinsict types (float, string, etc)
/// have thier values copied over. Any reference types (arrays, objects) have
/// thier references assigned. This includes 'child' properties.
///
/// For the reference values... if we want them shared between the prev and current
/// instances, we don't need to do anything.
///
/// However, if we want reference values to be independant between the prev and current
/// we need to grab the prev's reference, hold it, and then reset it.
/// </summary>
/// <param name="rSource">MotionState that has the data to copy</param>
public static void Shift(ref MotionState rCurrent, ref MotionState rPrev)
{
// Reference objects need to be held onto otherwise our 'prev'
// container will actually hold the reference in the 'current' container
AnimatorLayerState[] lAnimatorStates = rPrev.AnimatorStates;
// Move the current contents into the previous bucket
rPrev = rCurrent;
// Update the members of the states array. We have to do this
// so 'prev' doesn't accidentally hold a reference sot the array in 'current'
rPrev.AnimatorStates = lAnimatorStates;
if (rPrev.AnimatorStates != null)
{
int lCount = lAnimatorStates.Length;
for (int i = 0; i < lCount; i++)
{
//rPrev.AnimatorStates[i] = rCurrent.AnimatorStates[i];
//TT
rPrev.AnimatorStates[i].SetTime = rCurrent.AnimatorStates[i].SetTime;
rPrev.AnimatorStates[i].MotionPhase = rCurrent.AnimatorStates[i].MotionPhase;
rPrev.AnimatorStates[i].MotionForm = rCurrent.AnimatorStates[i].MotionForm;
rPrev.AnimatorStates[i].MotionParameter = rCurrent.AnimatorStates[i].MotionParameter;
rPrev.AnimatorStates[i].AutoClearMotionPhase = rCurrent.AnimatorStates[i].AutoClearMotionPhase;
rPrev.AnimatorStates[i].AutoClearMotionPhaseReady = rCurrent.AnimatorStates[i].AutoClearMotionPhaseReady;
rPrev.AnimatorStates[i].AutoClearActiveTransitionID = rCurrent.AnimatorStates[i].AutoClearActiveTransitionID;
rPrev.AnimatorStates[i].StateInfo = rCurrent.AnimatorStates[i].StateInfo;
rPrev.AnimatorStates[i].TransitionInfo = rCurrent.AnimatorStates[i].TransitionInfo;
}
}
// Initialize the object we're attached to. Don't clear
// the contact position as we'll store it for future use
//rCurrent.Support = null;
//rCurrent.SupportPosition = Vector3.zero;
//rCurrent.SupportRotation = Quaternion.identity;
// Initialize the ground information
//rCurrent.IsGrounded = false;
//rCurrent.GroundAngle = 0f;
//rCurrent.GroundNormal = Vector3.up;
//rCurrent.GroundDistance = float.MaxValue;
}
/// <summary>
/// We smooth the input so that we don't start and stop immediately in the blend tree. That can create pops.
/// </summary>
protected void SmoothInput()
{
MotionState lState = mMotionController.State;
// Convert the input to radial so we deal with keyboard and gamepad input the same.
float lInputMax = (IsRunActive ? 1f : 0.5f);
float lInputX = Mathf.Clamp(lState.InputX, -lInputMax, lInputMax);
float lInputY = Mathf.Clamp(lState.InputY, -lInputMax, lInputMax);
float lInputMagnitude = Mathf.Clamp(lState.InputMagnitudeTrend.Value, 0f, lInputMax);
InputManagerHelper.ConvertToRadialInput(ref lInputX, ref lInputY, ref lInputMagnitude);
// Smooth the input
mInputX.Add(lInputX);
mInputY.Add(lInputY);
mInputMagnitude.Add(lInputMagnitude);
// Modify the input values to add some lag
mMotionController.State.InputX = mInputX.Average;
mMotionController.State.InputY = mInputY.Average;
mMotionController.State.InputMagnitudeTrend.Replace(mInputMagnitude.Average);
}
/// <summary>
/// Updates the motion over time. This is called by the controller
/// every update cycle so animations and stages can be updated.
/// </summary>
/// <param name="rDeltaTime">Time since the last frame (or fixed update call)</param>
/// <param name="rUpdateIndex">Index of the update to help manage dynamic/fixed updates. [0: Invalid update, >=1: Valid update]</param>
public override void Update(float rDeltaTime, int rUpdateIndex)
{
mMovement = Vector3.zero;
mRotation = Quaternion.identity;
// Grab the state info
MotionState lState = mMotionController.State;
// Convert the input to radial so we deal with keyboard and gamepad input the same.
float lInputMax = (IsRunActive ? 1f : 0.5f);
float lInputX = Mathf.Clamp(lState.InputX, -lInputMax, lInputMax);
float lInputY = Mathf.Clamp(lState.InputY, -lInputMax, lInputMax);
float lInputMagnitude = Mathf.Clamp(lState.InputMagnitudeTrend.Value, 0f, lInputMax);
InputManagerHelper.ConvertToRadialInput(ref lInputX, ref lInputY, ref lInputMagnitude);
// Smooth the input
mInputX.Add(lInputX);
mInputY.Add(lInputY);
mInputMagnitude.Add(lInputMagnitude);
// Modify the input values to add some lag
mMotionController.State.InputX = mInputX.Average;
mMotionController.State.InputY = mInputY.Average;
mMotionController.State.InputMagnitudeTrend.Replace(mInputMagnitude.Average);
// If we're not dealing with an ootii camera rig, we need to rotate to the camera here
if (_RotateWithCamera && !(mMotionController.CameraRig is BaseCameraRig))
{
OnCameraUpdated(rDeltaTime, rUpdateIndex, null);
}
if (!_RotateWithCamera && _RotateWithInput)
{
RotateUsingInput(rDeltaTime, ref mRotation);
}
}
/// <summary>
/// Updates the motion over time. This is called by the controller
/// every update cycle so animations and stages can be updated.
/// </summary>
/// <param name="rDeltaTime">Time since the last frame (or fixed update call)</param>
/// <param name="rUpdateIndex">Index of the update to help manage dynamic/fixed updates. [0: Invalid update, >=1: Valid update]</param>
public override void Update(float rDeltaTime, int rUpdateIndex)
{
mVelocity = Vector3.zero;
mMovement = Vector3.zero;
float lHipDistanceDelta = 0f;
// Since we're not doing any lerping or physics based stuff here,
// we'll only process once per cyle even if we're running slow.
if (rUpdateIndex != 1)
{
return;
}
// If we have a hip bone, we'll adjust the jump based on the distance
// that changes between the foot and the hips. This way, the jump is
// "hip based" and not "foot based".
if (_ConvertToHipBase && mHipBone != null)
{
float lHipDistance = mHipBone.position.y - mMotionController._Transform.position.y;
// As the distance gets smaller, we increase the shift
lHipDistanceDelta = -(lHipDistance - mLastHipDistance);
mLastHipDistance = lHipDistance;
}
// Determine how gravity is being applied
//Vector3 lWorldGravity = (mActorController._Gravity.sqrMagnitude == 0f ? UnityEngine.Physics.gravity : mActorController._Gravity);
//if (mActorController._IsGravityRelative) { lWorldGravity = mActorController._Transform.rotation * lWorldGravity; }
//Vector3 lGravityNormal = lWorldGravity.normalized;
// Determine our velocities
//mVelocity = mLaunchVelocity;
//Vector3 lVelocity = mActorController.State.MovementForceAdjust / rDeltaTime;
//Vector3 lVerticalVelocity = Vector3.Project(lVelocity, mActorController._Transform.up);
// Grab the state info
MotionState lState = mMotionController.State;
//int lStateMotionPhase = lState.AnimatorStates[mMotionLayer._AnimatorLayerIndex].MotionPhase;
//int lStateMotionParameter = lState.AnimatorStates[mMotionLayer._AnimatorLayerIndex].MotionParameter;
//AnimatorStateInfo lStateInfo = lState.AnimatorStates[mMotionLayer._AnimatorLayerIndex].StateInfo;
int lStateID = mMotionLayer._AnimatorStateID;
float lStateTime = mMotionLayer._AnimatorStateNormalizedTime;
//AnimatorTransitionInfo lTransitionInfo = lState.AnimatorStates[mMotionLayer._AnimatorLayerIndex].TransitionInfo;
//int lTransitionID = lTransitionInfo.fullPathHash;
// On launch, add the impulse
if (lStateID == STATE_RunningJump)
{
// If we haven't applied the impulse, do it now.
if (!mIsImpulseApplied)
{
mIsImpulseApplied = true;
mActorController.AddImpulse(mActorController._Transform.up * _Impulse);
}
// As we come to the end, we have a couple of options
if (!mIsExitTriggered && lStateTime > 0.80f)
{
// If we're a long way from the ground, transition to a fall
if (mFall != null && mFall.IsEnabled && mActorController.State.GroundSurfaceDistance > _MinFallHeight)
{
mIsExitTriggered = true;
mMotionController.ActivateMotion(mFall);
}
// If we're still getting input, keep running
else if (lState.InputMagnitudeTrend.Value >= 0.1f) // && Mathf.Abs(lState.InputFromAvatarAngle) < 10f)
{
mIsExitTriggered = true;
mMotionController.SetAnimatorMotionPhase(mMotionLayer.AnimatorLayerIndex, PHASE_LAND_RUN, true);
}
// Come to a quick stop
else
{
mIsExitTriggered = true;
mMotionController.SetAnimatorMotionPhase(mMotionLayer.AnimatorLayerIndex, PHASE_LAND_IDLE, true);
}
}
// While in the jump, adjust the displacement
else
{
mMovement = mActorController._Transform.up * lHipDistanceDelta;
}
}
// Once we get into the run forward, we can transition to the true run
else if (lStateID == STATE_RunJump_RunForward)
{
if (lStateTime > 1f)
{
// It may be time to move into the walk/run
if (mWalkRunMotion != null && mWalkRunMotion.IsEnabled)
{
mWalkRunMotion.StartInRun = mWalkRunMotion.IsRunActive;
mWalkRunMotion.StartInWalk = !mWalkRunMotion.StartInRun;
mMotionController.ActivateMotion(mWalkRunMotion as MotionControllerMotion);
}
//if (mWalkRunPivot != null && mWalkRunPivot.IsEnabled)
//{
// mWalkRunPivot.StartInRun = mWalkRunPivot.IsRunActive;
// mWalkRunPivot.StartInWalk = !mWalkRunPivot.StartInRun;
// mMotionController.ActivateMotion(mWalkRunPivot);
//}
//else if (mWalkRunPivot_v2 != null && mWalkRunPivot_v2.IsEnabled)
//{
// mWalkRunPivot_v2.StartInRun = mWalkRunPivot_v2.IsRunActive;
// mWalkRunPivot_v2.StartInWalk = !mWalkRunPivot_v2.StartInRun;
// mMotionController.ActivateMotion(mWalkRunPivot_v2);
//}
//else if (mWalkRunStrafe != null && mWalkRunStrafe.IsEnabled)
//{
// mWalkRunStrafe.StartInRun = mWalkRunStrafe.IsRunActive;
// mWalkRunStrafe.StartInWalk = !mWalkRunStrafe.StartInRun;
// mMotionController.ActivateMotion(mWalkRunStrafe);
//}
//else if (mWalkRunStrafe_v2 != null && mWalkRunStrafe_v2.IsEnabled)
//{
// mWalkRunStrafe_v2.StartInRun = mWalkRunStrafe_v2.IsRunActive;
// mWalkRunStrafe_v2.StartInWalk = !mWalkRunStrafe_v2.StartInRun;
// mMotionController.ActivateMotion(mWalkRunStrafe_v2);
//}
//else if (mWalkRunRotate != null && mWalkRunRotate.IsEnabled)
//{
// mWalkRunRotate.StartInRun = mWalkRunRotate.IsRunActive;
// mWalkRunRotate.StartInWalk = !mWalkRunRotate.StartInRun;
// mMotionController.ActivateMotion(mWalkRunRotate);
//}
//else if (mWalkRunRotate_v2 != null && mWalkRunRotate_v2.IsEnabled)
//{
// mWalkRunRotate_v2.StartInRun = mWalkRunRotate_v2.IsRunActive;
// mWalkRunRotate_v2.StartInWalk = !mWalkRunRotate_v2.StartInRun;
// mMotionController.ActivateMotion(mWalkRunRotate_v2);
//}
else
{
Deactivate();
}
}
}
// Once we get to the idle pose, we can deactivate
else if (lStateID == STATE_IdlePose)
{
Deactivate();
}
//Log.FileWrite("Adv_J.Update(" + rDeltaTime.ToString("f4") + ", " + rUpdateIndex + ") isAct:" + mIsActive + " " + mMotionController.AnimatorStateNames[lStateID] + " %:" + lStateInfo.normalizedTime.ToString("0.000") + " mm:" + mMovement.y.ToString("f4") + " mv:" + mVelocity.y.ToString("f4") + " pv:" + lProjectedVelocity.y.ToString("f4"));
}
/// <summary>
/// Returns the current velocity of the motion
/// </summary>
protected Vector3 DetermineVelocity(bool rAllowSlide)
{
Vector3 lVelocity = Vector3.zero;
//int lStateID = mMotionLayer._AnimatorStateID;
// TRT 11/20/15: If we're colliding with an object, we won't allow
// any velocity. This helps prevent sliding while jumping
// against an object.
if (mActorController.State.IsColliding)
{
return(lVelocity);
}
// Determines if we allow sliding or not
if (!rAllowSlide && mActorController.State.IsGrounded)
{
return(lVelocity);
}
// If were in the midst of jumping, we want to add velocity based on
// the magnitude of the controller.
//if ((lStateID != STATE_JumpRecoverIdle || rAllowSlide) &&
// (lStateID != STATE_JumpRecoverRun || rAllowSlide) &&
// IsInMotionState)
{
MotionState lState = mMotionController.State;
// Speed that comes from momenum
Vector3 lMomentum = mLaunchVelocity;
float lMomentumSpeed = (_IsMomentumEnabled ? lMomentum.magnitude : 0f);
// Speed that comes from the user
float lControlSpeed = (_IsControlEnabled ? _ControlSpeed * lState.InputMagnitudeTrend.Value : 0f);
// Speed we'll use as the character is jumping
float lAirSpeed = Mathf.Max(lMomentumSpeed, lControlSpeed);
// If we allow control, let the player determine the direction
if (_IsControlEnabled)
{
Vector3 lBaseForward = mActorController._Transform.forward;
if (mMotionController._InputSource != null && mMotionController._InputSource.IsEnabled)
{
if (mMotionController._CameraTransform != null)
{
lBaseForward = mMotionController._CameraTransform.forward;
}
}
// Create a quaternion that gets us from our world-forward to our actor/camera direction.
// FromToRotation creates a quaternion using the shortest method which can sometimes
// flip the angle. LookRotation will attempt to keep the "up" direction "up".
Quaternion lToBaseForward = Quaternion.LookRotation(lBaseForward, mActorController._Transform.up);
// Determine the avatar displacement direction. This isn't just
// normal movement forward, but includes movement to the side
Vector3 lMoveDirection = lToBaseForward * lState.InputForward;
// Apply the direction and speed
lVelocity = lVelocity + (lMoveDirection * lAirSpeed);
}
// If momementum is enabled, add it to keep the player moving in the direction of the jump
if (_IsMomentumEnabled)
{
lVelocity = lVelocity + lMomentum;
}
// Don't exceed our air speed
if (lVelocity.magnitude > lAirSpeed)
{
lVelocity = lVelocity.normalized * lAirSpeed;
}
}
return(lVelocity);
}
