fix: multiple issues with MAMoveIndependently (#1369)

* fix: multiple issues with MAMoveIndependently

Fixed issues with nested Move Independently components (Closes #1367).

Fixed MAMoveIndependently not being saved (Supercedes #1366)

Reduce jittering when moving MAMI bones.

* chore: fix some namespaces

* chore: fix non-editor buil
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bd_ 2024-11-24 18:24:38 -08:00 committed by GitHub
parent 0606311f51
commit a7ef0d6635
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7 changed files with 678 additions and 209 deletions

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@ -2,7 +2,6 @@
using System.Collections.Generic;
using System.Collections.Immutable;
using System.Linq;
using nadena.dev.modular_avatar.core.ArmatureAwase;
using nadena.dev.ndmf.preview;
using UnityEditor;
using UnityEngine;

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@ -2,7 +2,6 @@
using System;
using nadena.dev.modular_avatar.animation;
using nadena.dev.modular_avatar.core.ArmatureAwase;
using nadena.dev.modular_avatar.core.editor.plugin;
using nadena.dev.modular_avatar.editor.ErrorReporting;
using nadena.dev.ndmf;

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@ -0,0 +1,3 @@
fileFormatVersion: 2
guid: abec4f397dc74b2f9bba6f71b5e702f3
timeCreated: 1732395066

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@ -0,0 +1,647 @@
using System;
using System.Collections.Generic;
using Unity.Burst;
using Unity.Collections;
using Unity.Collections.LowLevel.Unsafe;
using Unity.Jobs;
using UnityEngine;
using UnityEngine.Jobs;
#if UNITY_EDITOR
using UnityEditor;
#endif
namespace nadena.dev.modular_avatar.core.armature_lock
{
internal class MaMoveIndependentlyManager
{
internal static MaMoveIndependentlyManager Instance { get; } = new();
private MaMoveIndependentlyManager()
{
_nativeMemoryManager = new NativeMemoryManager();
_vpState = _nativeMemoryManager.CreateArray<TransformState>();
_tpState = _nativeMemoryManager.CreateArray<TransformState>();
_targetState = _nativeMemoryManager.CreateArray<TransformState>();
_mappingStates = _nativeMemoryManager.CreateArray<MappingState>();
_errorFlags = _nativeMemoryManager.CreateArray<bool>();
_enabled = _nativeMemoryManager.CreateArray<bool>();
_sceneRootParent = _nativeMemoryManager.CreateArray<bool>();
_falseArray = _nativeMemoryManager.CreateArray<bool>();
_anyError = new NativeArray<bool>(1, Allocator.Persistent);
_anyDirty = new NativeArray<bool>(1, Allocator.Persistent);
_nativeMemoryManager.OnSegmentMove += MoveTransforms;
#if UNITY_EDITOR
AssemblyReloadEvents.beforeAssemblyReload += OnDomainUnload;
#endif
}
private void OnDomainUnload()
{
Dispose();
}
private void Dispose()
{
_lastJob.Complete();
#if UNITY_EDITOR
AssemblyReloadEvents.beforeAssemblyReload -= OnDomainUnload;
#endif
if (_virtualParents.isCreated) DeferDestroy.DeferDestroyObj(_virtualParents);
if (_trueParents.isCreated) DeferDestroy.DeferDestroyObj(_trueParents);
if (_targets.isCreated) DeferDestroy.DeferDestroyObj(_targets);
_nativeMemoryManager.Dispose();
if (_anyError.IsCreated) _anyError.Dispose();
if (_anyDirty.IsCreated) _anyDirty.Dispose();
}
private const float PosEpsilon = 0.0000001f;
private const float RotEpsilon = 0.0000001f;
private const float ScaleEpsilon = 0.0000001f;
// Our basic strategy is to identify all children of MoveIndependently objects, and to find the first parent
// that is not a member of the same MoveIndependently group. We then compute the local transform of the child
// relative to that parent, and keep it constant (unless the true local transform of the child changes).
//
// If an active MAMoveIndep is a child of another MAMoveIndep, we consider it to be ungrouped (even if it's
// named in the parent).
private readonly NativeMemoryManager _nativeMemoryManager;
private Transform[] _virtualParentsT;
private Transform[] _trueParentsT;
private Transform[] _targetsT;
private TransformAccessArray _virtualParents;
private TransformAccessArray _trueParents;
private TransformAccessArray _targets;
private bool _transformAccessDirty;
private readonly NativeArrayRef<TransformState> _vpState;
private readonly NativeArrayRef<TransformState> _tpState;
private readonly NativeArrayRef<TransformState> _targetState;
private readonly NativeArrayRef<MappingState> _mappingStates;
private readonly NativeArrayRef<bool> _errorFlags;
private NativeArray<bool> _anyError, _anyDirty;
private readonly NativeArrayRef<bool> _enabled;
private readonly NativeArrayRef<bool> _sceneRootParent, _falseArray;
private readonly Dictionary<int, State> _slotToState = new();
private struct MappingState
{
// Our last observed local transform, relative to our actual parent transform
public TransformState TrueLocal;
// Our last observed local transform, relative to our virtual parent transform
public Matrix4x4 VirtualLocal;
// The position of our parent relative to our virtual parent
public Matrix4x4 TrueLocalToVirtualLocal;
public bool RequestWriteback, CacheValid;
}
private class State
{
public MAMoveIndependently MoveIndep;
public ISegment Segment;
}
private readonly Dictionary<MAMoveIndependently, State> _moveIndeps = new();
private JobHandle _lastJob;
private bool _isRegistered;
private int _maxComputeDepth;
private bool UpdateRegistered
{
get => _isRegistered;
set
{
if (value == _isRegistered) return;
if (value)
{
UpdateLoopController.OnMoveIndependentlyUpdate += Update;
}
else
{
UpdateLoopController.OnMoveIndependentlyUpdate -= Update;
}
_isRegistered = value;
}
}
private void EnsureTransformCapacity(int targetLength)
{
if (_virtualParentsT == null)
{
_virtualParentsT = new Transform[targetLength];
_trueParentsT = new Transform[targetLength];
_targetsT = new Transform[targetLength];
return;
}
if (targetLength <= _virtualParentsT.Length) return;
var newCapacity = Mathf.Max(_virtualParentsT.Length * 2, targetLength);
Array.Resize(ref _virtualParentsT, newCapacity);
Array.Resize(ref _trueParentsT, newCapacity);
Array.Resize(ref _targetsT, newCapacity);
}
private void MoveTransforms(int oldoffset, int newoffset, int length)
{
Array.Copy(_virtualParentsT, oldoffset, _virtualParentsT, newoffset, length);
Array.Copy(_trueParentsT, oldoffset, _trueParentsT, newoffset, length);
Array.Copy(_targetsT, oldoffset, _targetsT, newoffset, length);
_transformAccessDirty = true;
}
private void UpdateTransformAccess()
{
if (!_transformAccessDirty) return;
UpdateTransformAccess(ref _virtualParents, _virtualParentsT);
UpdateTransformAccess(ref _trueParents, _trueParentsT);
UpdateTransformAccess(ref _targets, _targetsT);
_transformAccessDirty = false;
}
private void UpdateTransformAccess(ref TransformAccessArray arr, Transform[] t)
{
if (!arr.isCreated || arr.length != t.Length)
{
if (arr.isCreated) arr.Dispose();
arr = new TransformAccessArray(t);
}
else
{
arr.SetTransforms(t);
}
}
private void Update()
{
_lastJob.Complete();
UpdateTransformAccess();
_anyError[0] = false;
_anyDirty[0] = false;
var clearErrors = new JClearErrorFlags
{
ErrorFlags = _errorFlags
};
var clearErrorsHandle = clearErrors.Schedule(_errorFlags.Length, 16);
var readVp = new JReadTransforms
{
States = _vpState,
Enabled = _enabled,
ErrorFlags = _errorFlags,
SceneRootParent = _sceneRootParent
};
var readTp = new JReadTransforms
{
States = _tpState,
Enabled = _enabled,
ErrorFlags = _errorFlags,
SceneRootParent = _falseArray
};
var readTarget = new JReadTransforms
{
States = _targetState,
Enabled = _enabled,
ErrorFlags = _errorFlags,
SceneRootParent = _falseArray
};
var readVpHandle = readVp.Schedule(_virtualParents, clearErrorsHandle);
var clearVpHandle = new JClearRootTransforms
{
States = _vpState,
SceneRootParent = _sceneRootParent
}.Schedule(_vpState.Length, 16, readVpHandle);
var readTpHandle = readTp.Schedule(_trueParents, clearErrorsHandle);
var readTargetHandle = readTarget.Schedule(_targets, clearErrorsHandle);
var readHandle = JobHandle.CombineDependencies(clearVpHandle, readTpHandle, readTargetHandle);
var compute = new JCompute
{
VpState = _vpState,
TpState = _tpState,
TargetState = _targetState,
States = _mappingStates,
AnyDirty = _anyDirty,
AnyError = _anyError,
ErrorFlags = _errorFlags,
Enabled = _enabled
};
var computeHandle = compute.Schedule(_mappingStates.Length, 16, readHandle);
_lastJob = computeHandle;
computeHandle.Complete();
List<Transform> prefabRecord = null;
if (_anyDirty[0])
{
prefabRecord = new List<Transform>();
for (var i = 0; i < _mappingStates.Length; i++)
{
if (_mappingStates[i].RequestWriteback)
{
#if UNITY_EDITOR
Undo.RecordObject(_targets[i], "Move Independently");
#endif
prefabRecord.Add(_targets[i]);
}
}
}
var writeback = new JWriteback
{
States = _mappingStates,
Errors = _errorFlags,
Enabled = _enabled,
AnyError = _anyError
};
var writebackHandle = writeback.Schedule(_targets, computeHandle);
_lastJob = writebackHandle;
writebackHandle.Complete();
if (prefabRecord != null)
{
foreach (var transform in prefabRecord)
{
#if UNITY_EDITOR
PrefabUtility.RecordPrefabInstancePropertyModifications(transform);
#endif
}
}
if (_anyError[0])
{
List<MAMoveIndependently> reactivate = new();
for (var i = 0; i < _mappingStates.Length; i++)
{
if (_errorFlags[i] && _slotToState.TryGetValue(i, out var state))
{
Deactivate(state);
reactivate.Add(state.MoveIndep);
}
}
foreach (var moveIndep in reactivate)
{
if (moveIndep != null) Activate(moveIndep);
}
}
}
internal void Activate(MAMoveIndependently moveIndep)
{
if (!_anyDirty.IsCreated) return; // domain reload timing issues
if (_moveIndeps.TryGetValue(moveIndep, out var state)) Deactivate(state);
HashSet<Transform> groupedTransforms = new();
groupedTransforms.Add(moveIndep.transform);
RegisterGroupedTransforms(moveIndep, groupedTransforms);
List<MAMoveIndependently> toReregister = new();
foreach (var t in groupedTransforms)
{
// If we have a direct child MAMI, we need it to change its virtual parent, so trigger a reregister
// on it.
if (t.TryGetComponent<MAMoveIndependently>(out var mami) && mami != moveIndep)
{
toReregister.Add(mami);
}
}
var ptr = moveIndep.transform.parent;
while (ptr != null)
{
var parentMoveIndep = ptr.GetComponentInParent<MAMoveIndependently>();
if (parentMoveIndep == null) break;
RegisterGroupedTransforms(parentMoveIndep, groupedTransforms);
ptr = parentMoveIndep.transform.parent;
}
// Compute leaf transforms
List<Transform> leafTransforms = new();
Walk(moveIndep.transform);
var segment = _nativeMemoryManager.Allocate(leafTransforms.Count);
EnsureTransformCapacity(segment.Offset + segment.Length);
_transformAccessDirty = true;
var virtualParent = moveIndep.transform.parent;
while (virtualParent != null && groupedTransforms.Contains(virtualParent))
virtualParent = virtualParent.parent;
for (var i = 0; i < leafTransforms.Count; i++)
{
var j = i + segment.Offset;
_mappingStates[j] = new MappingState
{
CacheValid = false
};
_virtualParentsT[j] = virtualParent;
_trueParentsT[j] = leafTransforms[i].parent;
_targetsT[j] = leafTransforms[i];
_enabled[j] = true;
_sceneRootParent[j] = virtualParent == null;
_slotToState[j] = state;
}
_moveIndeps[moveIndep] = new State
{
MoveIndep = moveIndep,
Segment = segment
};
UpdateRegistered = true;
foreach (var mami in toReregister)
{
if (mami != null) Activate(mami);
}
void Walk(Transform t)
{
foreach (Transform child in t)
{
if (groupedTransforms.Contains(child))
{
Walk(child);
continue;
}
leafTransforms.Add(child);
}
}
}
private void RegisterGroupedTransforms(MAMoveIndependently moveIndep, HashSet<Transform> groupedTransforms)
{
var candidates = new HashSet<GameObject>(moveIndep.GroupedBones);
candidates.Add(moveIndep.gameObject);
Walk(moveIndep.transform);
void Walk(Transform t)
{
if (!candidates.Contains(t.gameObject)) return;
groupedTransforms.Add(t);
foreach (Transform child in t)
{
if (child.TryGetComponent<MAMoveIndependently>(out _)) continue;
Walk(child);
}
}
}
internal void Deactivate(MAMoveIndependently moveIndep)
{
if (_moveIndeps.TryGetValue(moveIndep, out var state)) Deactivate(state);
}
private void Deactivate(State state)
{
if (!_anyDirty.IsCreated) return; // domain reload timing issues
for (var i = 0; i < state.Segment.Length; i++)
{
var j = i + state.Segment.Offset;
_enabled[j] = false;
_virtualParents[j] = null;
_trueParents[j] = null;
_targets[j] = null;
_slotToState.Remove(j);
}
_nativeMemoryManager.Free(state.Segment);
_moveIndeps.Remove(state.MoveIndep);
if (_moveIndeps.Count == 0) UpdateRegistered = false;
}
[BurstCompile]
private static bool MatDiffers(Matrix4x4 a, Matrix4x4 b)
{
var aPos = a.GetColumn(3);
var bPos = b.GetColumn(3);
if ((aPos - bPos).sqrMagnitude > PosEpsilon) return true;
var aRot = a.rotation;
var bRot = b.rotation;
if (Quaternion.Angle(aRot, bRot) > RotEpsilon) return true;
var aScale = a.lossyScale;
var bScale = b.lossyScale;
return (aScale - bScale).sqrMagnitude > ScaleEpsilon;
}
private struct JClearErrorFlags : IJobParallelFor
{
[WriteOnly] public NativeArray<bool> ErrorFlags;
public void Execute(int index)
{
ErrorFlags[index] = false;
}
}
// For some reason checking SceneRootParent in JReadTransforms was ignored...?
// Maybe IJobParallelForTransform doesn't execute on null transforms.
private struct JClearRootTransforms : IJobParallelFor
{
[WriteOnly] public NativeArray<TransformState> States;
[ReadOnly] public NativeArray<bool> SceneRootParent;
public void Execute(int index)
{
if (SceneRootParent[index])
{
States[index] = new TransformState
{
localToWorldMatrix = Matrix4x4.identity,
localRotation = Quaternion.identity,
localScale = Vector3.one,
localPosition = Vector3.zero
};
}
}
}
private struct JReadTransforms : IJobParallelForTransform
{
[WriteOnly] public NativeArray<TransformState> States;
[ReadOnly] public NativeArray<bool> Enabled;
[ReadOnly] public NativeArray<bool> SceneRootParent;
[NativeDisableContainerSafetyRestriction] [WriteOnly]
public NativeArray<bool> ErrorFlags;
[BurstCompile]
public void Execute(int index, TransformAccess transform)
{
if (!Enabled[index]) return;
if (SceneRootParent[index]) return;
if (!transform.isValid)
{
ErrorFlags[index] = true;
return;
}
States[index] = new TransformState
{
localToWorldMatrix = transform.localToWorldMatrix,
localRotation = transform.localRotation,
localScale = transform.localScale,
localPosition = transform.localPosition
};
}
}
private struct JCompute : IJobParallelFor
{
[ReadOnly] public NativeArray<TransformState> VpState, TpState, TargetState;
[WriteOnly] [NativeDisableContainerSafetyRestriction]
public NativeArray<bool> AnyDirty;
[WriteOnly] [NativeDisableContainerSafetyRestriction]
public NativeArray<bool> AnyError;
public NativeArray<MappingState> States;
public NativeArray<bool> ErrorFlags;
[ReadOnly] public NativeArray<bool> Enabled;
[BurstCompile]
public void Execute(int index)
{
if (!Enabled[index]) return;
var state = States[index];
var vp = VpState[index];
var tp = TpState[index];
var target = TargetState[index];
if (ErrorFlags[index])
{
AnyError[0] = true;
return;
}
// First, compute the virtual parent transform - we'll need it in any case.
var trueLocalToVirtualLocal = vp.worldToLocalMatrix * tp.localToWorldMatrix;
state.RequestWriteback = false;
if (TransformState.Differs(target, state.TrueLocal) || !state.CacheValid)
{
// Our local position changed, so don't try to make any corrections; just remember the new values.
state.CacheValid = true;
state.TrueLocal = target;
state.TrueLocalToVirtualLocal = trueLocalToVirtualLocal;
state.VirtualLocal = trueLocalToVirtualLocal * Matrix4x4.TRS(
state.TrueLocal.localPosition,
state.TrueLocal.localRotation,
state.TrueLocal.localScale
);
}
else if (MatDiffers(trueLocalToVirtualLocal, state.TrueLocalToVirtualLocal))
{
// Our local position didn't change, but our virtual parent did, so we need to correct.
// To do this, we take our _old_ virtual local transform, and use it to transform our old true local
// position into virtual local space; we then go from _current_ virtual local space to true local.
var virtualLocalToTrueLocal = trueLocalToVirtualLocal.inverse;
var trueLocal = virtualLocalToTrueLocal * state.VirtualLocal;
state.TrueLocal = new TransformState
{
localPosition = trueLocal.GetColumn(3),
localRotation = trueLocal.rotation,
localScale = trueLocal.lossyScale
};
state.TrueLocalToVirtualLocal = trueLocalToVirtualLocal;
state.RequestWriteback = true;
AnyDirty[0] = true;
}
States[index] = state;
}
}
private struct JWriteback : IJobParallelForTransform
{
[ReadOnly] public NativeArray<MappingState> States;
[ReadOnly] public NativeArray<bool> Errors;
[ReadOnly] public NativeArray<bool> Enabled;
[NativeDisableContainerSafetyRestriction] [WriteOnly]
public NativeArray<bool> AnyError;
[BurstCompile]
public void Execute(int index, TransformAccess transform)
{
var state = States[index];
if (!Enabled[index] || Errors[index] || !state.RequestWriteback) return;
if (!transform.isValid)
{
Errors[index] = true;
AnyError[0] = true;
return;
}
var pos = state.TrueLocal.localPosition;
var rot = state.TrueLocal.localRotation;
var scale = state.TrueLocal.localScale;
transform.localPosition = pos;
transform.localRotation = rot;
transform.localScale = scale;
}
}
}
}

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@ -0,0 +1,3 @@
fileFormatVersion: 2
guid: 154891b009044835b43580e745f50a9e
timeCreated: 1732394861

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@ -4,7 +4,6 @@ using System;
using System.Collections.Generic;
using Unity.Collections;
using Unity.Collections.LowLevel.Unsafe;
using UnityEngine;
#endregion
@ -15,12 +14,19 @@ namespace nadena.dev.modular_avatar.core.armature_lock
internal NativeArray<T> Array;
public static implicit operator NativeArray<T>(NativeArrayRef<T> arrayRef) => arrayRef.Array;
public int Length => Array.Length;
public void Dispose()
{
Array.Dispose();
}
public T this[int key]
{
get => Array[key];
set => Array[key] = value;
}
public void Resize(int n)
{
if (Array.Length == n) return;
@ -143,6 +149,11 @@ namespace nadena.dev.modular_avatar.core.armature_lock
// We perform trial creations of segments (and then immediately free them if they exceed the bounds of the
// array). As such, we clamp the length, rather than throwing an exception.
length = Math.Min(length, InUseMask.Array.Length - offset);
if (length < 0)
{
throw new ArgumentException("negative length");
}
unsafe
{

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@ -1,13 +1,14 @@
using System;
using System.Collections.Generic;
using nadena.dev.modular_avatar.core.armature_lock;
using UnityEditor;
using UnityEngine;
#if UNITY_EDITOR
using UnityEditor;
#endif
#if MA_VRCSDK3_AVATARS
using VRC.SDKBase;
#endif
namespace nadena.dev.modular_avatar.core.ArmatureAwase
namespace nadena.dev.modular_avatar.core
{
[ExecuteInEditMode]
[AddComponentMenu("Modular Avatar/MA Move Independently")]
@ -22,229 +23,35 @@ namespace nadena.dev.modular_avatar.core.ArmatureAwase
public GameObject[] GroupedBones
{
get => m_groupedBones.Clone() as GameObject[];
get => m_groupedBones?.Clone() as GameObject[] ?? Array.Empty<GameObject>();
set
{
m_groupedBones = value.Clone() as GameObject[];
OnValidate();
MaMoveIndependentlyManager.Instance.Activate(this);
}
}
struct ChildState
{
internal Vector3 childLocalPos;
internal Quaternion childLocalRot;
internal Vector3 childLocalScale;
// The child world position, recorded when we first initialized (or after unexpected child movement)
internal Matrix4x4 childToRoot;
}
private Dictionary<Transform, ChildState> _children = new Dictionary<Transform, ChildState>();
private HashSet<Transform> _excluded = new HashSet<Transform>();
void Awake()
{
hideFlags = HideFlags.DontSave;
}
// We need to reparent the TRS values of the children from our prior frame state to the current frame state.
// This is done by computing the world affine matrix for the child in the prior frame, then converting to
// a local affine matrix in the current frame.
private void OnValidate()
{
hideFlags = HideFlags.DontSave;
_excluded = new HashSet<Transform>();
if (m_groupedBones == null)
{
m_groupedBones = Array.Empty<GameObject>();
}
foreach (var grouped in m_groupedBones)
{
if (grouped != null)
{
_excluded.Add(grouped.transform);
}
}
_priorFramePos = transform.localPosition;
_priorFrameRot = transform.localRotation;
_priorFrameScale = transform.localScale;
_children.Clear();
CheckChildren();
}
HashSet<Transform> _observed = new HashSet<Transform>();
private void CheckChildren()
{
_observed.Clear();
CheckChildren(transform);
foreach (var obj in m_groupedBones)
{
CheckChildren(obj.transform);
}
// Remove any children that are no longer children
var toRemove = new List<Transform>();
foreach (var child in _children)
{
if (child.Key == null || !_observed.Contains(child.Key))
{
toRemove.Add(child.Key);
}
}
foreach (var child in toRemove)
{
_children.Remove(child);
}
}
private Matrix4x4 ParentTransformMatrix(Transform parent)
{
Matrix4x4 transform = Matrix4x4.TRS(
parent.localPosition,
parent.localRotation,
parent.localScale
);
if (_excluded.Contains(parent))
{
transform = ParentTransformMatrix(parent.parent) * transform;
}
return transform;
}
private void CheckChildren(Transform parent)
{
Matrix4x4 parentToRoot = ParentTransformMatrix(parent);
Matrix4x4 rootToParent = parentToRoot.inverse;
foreach (Transform child in parent)
{
if (_excluded.Contains(child)) continue;
_observed.Add(child);
var localPosition = child.localPosition;
var localRotation = child.localRotation;
var localScale = child.localScale;
if (!ArmatureLockController.MovedThisFrame && _children.TryGetValue(child, out var state))
{
var deltaPos = localPosition - state.childLocalPos;
var deltaRot = Quaternion.Angle(localRotation, state.childLocalRot);
var deltaScale = (localScale - state.childLocalScale).sqrMagnitude;
if (deltaPos.magnitude > EPSILON || deltaRot > EPSILON || deltaScale > EPSILON)
{
// The child object was moved in between parent updates; reconstruct its childToRoot to correct
// for this.
var oldChildTRS = Matrix4x4.TRS(
state.childLocalPos,
state.childLocalRot,
state.childLocalScale
);
var newChildTRS = Matrix4x4.TRS(
localPosition,
localRotation,
localScale
);
state.childToRoot = state.childToRoot * oldChildTRS.inverse * newChildTRS;
}
Matrix4x4 childNewLocal = rootToParent * state.childToRoot;
var newPosition = childNewLocal.MultiplyPoint(Vector3.zero);
var newRotation = childNewLocal.rotation;
var newScale = childNewLocal.lossyScale;
#if UNITY_EDITOR
Undo.RecordObject(child, Undo.GetCurrentGroupName());
#endif
child.localPosition = newPosition;
child.localRotation = newRotation;
child.localScale = newScale;
state.childLocalPos = child.localPosition;
state.childLocalRot = child.localRotation;
state.childLocalScale = child.localScale;
_children[child] = state;
continue;
}
Matrix4x4 childTRS = Matrix4x4.TRS(localPosition, localRotation, localScale);
state = new ChildState()
if (!PrefabUtility.IsPartOfPrefabAsset(this))
{
EditorApplication.delayCall += () =>
{
childLocalPos = localPosition,
childLocalRot = localRotation,
childLocalScale = localScale,
childToRoot = parentToRoot * childTRS,
if (this != null) MaMoveIndependentlyManager.Instance.Activate(this);
};
_children[child] = state;
}
#endif
}
private void OnEnable()
{
UpdateLoopController.OnMoveIndependentlyUpdate += OnUpdate;
MaMoveIndependentlyManager.Instance.Activate(this);
}
private void OnDisable()
{
UpdateLoopController.OnMoveIndependentlyUpdate -= OnUpdate;
}
private Vector3 _priorFramePos, _priorFrameScale;
private Quaternion _priorFrameRot;
void OnUpdate()
{
if (this == null)
{
UpdateLoopController.OnMoveIndependentlyUpdate -= OnUpdate;
return;
}
if (transform.parent == null) return;
var pos = transform.localPosition;
var rot = transform.localRotation;
var scale = transform.localScale;
var deltaPos = transform.parent.localToWorldMatrix.MultiplyVector(pos - _priorFramePos);
var deltaRot = Quaternion.Angle(rot, _priorFrameRot);
var deltaScaleX = Mathf.Abs((scale - _priorFrameScale).x) / _priorFrameScale.x;
var deltaScaleY = Mathf.Abs((scale - _priorFrameScale).y) / _priorFrameScale.y;
var deltaScaleZ = Mathf.Abs((scale - _priorFrameScale).z) / _priorFrameScale.z;
if (float.IsNaN(deltaScaleX) || float.IsInfinity(deltaScaleX)) deltaScaleX = 1;
if (float.IsNaN(deltaScaleY) || float.IsInfinity(deltaScaleY)) deltaScaleY = 1;
if (float.IsNaN(deltaScaleZ) || float.IsInfinity(deltaScaleZ)) deltaScaleZ = 1;
float maxDeltaScale = Mathf.Max(deltaScaleX, Mathf.Max(deltaScaleY, deltaScaleZ));
if (deltaPos.magnitude > EPSILON || deltaRot > EPSILON || maxDeltaScale > 0.001)
{
CheckChildren();
_priorFramePos = pos;
_priorFrameRot = rot;
_priorFrameScale = scale;
}
MaMoveIndependentlyManager.Instance.Deactivate(this);
}
}
}