public static ActorImage Read(Actor actor, BinaryReader reader, ActorImage node = null)
{
if (node == null)
{
node = new ActorImage();
}
ActorNode.Read(actor, reader, node);
bool isVisible = reader.ReadByte() != 0;
if (isVisible)
{
node.m_BlendMode = (BlendModes)reader.ReadByte();
node.m_DrawOrder = (int)reader.ReadUInt16();
node.m_TextureIndex = (int)reader.ReadByte();
int numConnectedBones = (int)reader.ReadByte();
if (numConnectedBones != 0)
{
node.m_BoneConnections = new BoneConnection[numConnectedBones];
for (int i = 0; i < numConnectedBones; i++)
{
BoneConnection bc = new BoneConnection();
bc.m_BoneIdx = reader.ReadUInt16();
Actor.ReadFloat32Array(reader, bc.m_Bind.Values);
Mat2D.Invert(bc.m_InverseBind, bc.m_Bind);
node.m_BoneConnections[i] = bc;
}
Mat2D worldOverride = new Mat2D();
Actor.ReadFloat32Array(reader, worldOverride.Values);
node.WorldTransformOverride = worldOverride;
}
uint numVertices = reader.ReadUInt32();
int vertexStride = numConnectedBones > 0 ? 12 : 4;
node.m_VertexCount = (int)numVertices;
node.m_Vertices = new float[numVertices * vertexStride];
Actor.ReadFloat32Array(reader, node.m_Vertices);
uint numTris = reader.ReadUInt32();
node.m_Triangles = new ushort[numTris * 3];
node.m_TriangleCount = (int)numTris;
Actor.ReadUInt16Array(reader, node.m_Triangles);
}
return(node);
}
public bool LoadFrom(Stream stream)
{
BlockReader reader = new BlockReader(stream);
byte N = reader.ReadByte();
byte I = reader.ReadByte();
byte M = reader.ReadByte();
byte A = reader.ReadByte();
uint version = reader.ReadUInt32();
if (N != 78 || I != 73 || M != 77 || A != 65)
{
return(false);
}
if (version < 12)
{
return(false);
}
m_Version = version;
//version == 1.0
//Debugger.Log("NIMA confirmed. " + reader.BaseStream.Length);
//byte[] data = new byte[reader.BaseStream.Length];
m_MaxTextureIndex = 0;
m_Root = new ActorNode(this);
BlockReader block = null;
while ((block = reader.ReadNextBlock()) != null)
{
switch (block.BlockType)
{
case (int)BlockTypes.Components:
ReadComponentsBlock(block);
break;
case (int)BlockTypes.Animations:
ReadAnimationsBlock(block);
break;
}
}
return(true);
}
public virtual void ResolveComponentIndices(ActorComponent[] components)
{
ActorNode node = components[m_ParentIdx] as ActorNode;
if (node != null)
{
if (this is ActorNode)
{
node.AddChild(this as ActorNode);
}
else
{
m_Parent = node;
}
m_Actor.AddDependency(this, node);
}
}
public override void Constrain(ActorNode node)
{
ActorNode target = m_Target as ActorNode;
if (target == null)
{
return;
}
Vec2D targetTranslation = target.GetWorldTranslation(new Vec2D());
Vec2D ourTranslation = m_Parent.GetWorldTranslation(new Vec2D());
Vec2D toTarget = Vec2D.Subtract(new Vec2D(), ourTranslation, targetTranslation);
float currentDistance = Vec2D.Length(toTarget);
switch (m_Mode)
{
case Mode.Closer:
if (currentDistance < m_Distance)
{
return;
}
break;
case Mode.Further:
if (currentDistance > m_Distance)
{
return;
}
break;
}
if (currentDistance < 0.001)
{
return;
}
Vec2D.Scale(toTarget, toTarget, 1.0f / currentDistance);
Vec2D.Scale(toTarget, toTarget, m_Distance);
Mat2D world = m_Parent.WorldTransform;
Vec2D position = Vec2D.Lerp(new Vec2D(), ourTranslation, Vec2D.Add(new Vec2D(), targetTranslation, toTarget), m_Strength);
world[4] = position[0];
world[5] = position[1];
}
public static ActorNode Read(Actor actor, BinaryReader reader, ActorNode node = null)
{
if (node == null)
{
node = new ActorNode();
}
ActorComponent.Read(actor, reader, node);
Actor.ReadFloat32Array(reader, node.m_Translation.Values);
node.m_Rotation = reader.ReadSingle();
Actor.ReadFloat32Array(reader, node.m_Scale.Values);
node.m_Opacity = reader.ReadSingle();
if (actor.Version >= 13)
{
node.m_IsCollapsedVisibility = reader.ReadByte() == 1;
}
return(node);
}
public void Copy(Actor actor)
{
m_Animations = actor.m_Animations;
m_Flags = actor.m_Flags;
m_MaxTextureIndex = actor.m_MaxTextureIndex;
m_ImageNodeCount = actor.m_ImageNodeCount;
m_NodeCount = actor.m_NodeCount;
if (actor.ComponentCount != 0)
{
m_Components = new ActorComponent[actor.ComponentCount];
}
if (m_NodeCount != 0) // This will always be at least 1.
{
m_Nodes = new ActorNode[m_NodeCount];
}
if (m_ImageNodeCount != 0)
{
m_ImageNodes = new ActorImage[m_ImageNodeCount];
}
if (actor.ComponentCount != 0)
{
int idx = 0;
int imgIdx = 0;
int ndIdx = 0;
foreach (ActorComponent component in actor.Components)
{
if (component == null)
{
m_Components[idx++] = null;
continue;
}
ActorComponent instanceComponent = component.MakeInstance(this);
m_Components[idx++] = instanceComponent;
ActorNode nodeInstance = instanceComponent as ActorNode;
if (nodeInstance != null)
{
m_Nodes[ndIdx++] = nodeInstance;
}
ActorImage imageInstance = instanceComponent as ActorImage;
if (imageInstance != null)
{
m_ImageNodes[imgIdx++] = imageInstance;
}
}
}
m_Root = m_Components[0] as ActorNode;
foreach (ActorComponent component in m_Components)
{
if (m_Root == component || component == null)
{
continue;
}
component.ResolveComponentIndices(m_Components);
}
foreach (ActorComponent component in m_Components)
{
if (m_Root == component || component == null)
{
continue;
}
component.CompleteResolve();
}
SortDependencies();
}
private void ReadComponentsBlock(BlockReader block)
{
int componentCount = block.ReadUInt16();
m_Components = new ActorComponent[componentCount + 1];
m_Components[0] = m_Root;
// Guaranteed from the exporter to be in index order.
BlockReader nodeBlock = null;
int componentIndex = 1;
m_NodeCount = 1;
while ((nodeBlock = block.ReadNextBlock()) != null)
{
ActorComponent component = null;
if (Enum.IsDefined(typeof(BlockTypes), nodeBlock.BlockType))
{
BlockTypes type = (BlockTypes)nodeBlock.BlockType;
switch (type)
{
case BlockTypes.ActorNode:
component = ActorNode.Read(this, nodeBlock);
break;
case BlockTypes.ActorBone:
component = ActorBone.Read(this, nodeBlock);
break;
case BlockTypes.ActorRootBone:
component = ActorRootBone.Read(this, nodeBlock);
break;
case BlockTypes.ActorImage:
m_ImageNodeCount++;
component = ActorImage.Read(this, nodeBlock, makeImageNode());
if ((component as ActorImage).TextureIndex > m_MaxTextureIndex)
{
m_MaxTextureIndex = (component as ActorImage).TextureIndex;
}
break;
case BlockTypes.ActorIKTarget:
component = ActorIKTarget.Read(this, nodeBlock);
break;
case BlockTypes.ActorEvent:
component = ActorEvent.Read(this, nodeBlock);
break;
case BlockTypes.CustomIntProperty:
component = CustomIntProperty.Read(this, nodeBlock);
break;
case BlockTypes.CustomFloatProperty:
component = CustomFloatProperty.Read(this, nodeBlock);
break;
case BlockTypes.CustomStringProperty:
component = CustomStringProperty.Read(this, nodeBlock);
break;
case BlockTypes.CustomBooleanProperty:
component = CustomBooleanProperty.Read(this, nodeBlock);
break;
case BlockTypes.ActorColliderRectangle:
component = ActorColliderRectangle.Read(this, nodeBlock);
break;
case BlockTypes.ActorColliderTriangle:
component = ActorColliderTriangle.Read(this, nodeBlock);
break;
case BlockTypes.ActorColliderCircle:
component = ActorColliderCircle.Read(this, nodeBlock);
break;
case BlockTypes.ActorColliderPolygon:
component = ActorColliderPolygon.Read(this, nodeBlock);
break;
case BlockTypes.ActorColliderLine:
component = ActorColliderLine.Read(this, nodeBlock);
break;
case BlockTypes.ActorNodeSolo:
component = ActorNodeSolo.Read(this, nodeBlock);
break;
case BlockTypes.ActorJellyBone:
component = ActorJellyBone.Read(this, nodeBlock);
break;
case BlockTypes.JellyComponent:
component = JellyComponent.Read(this, nodeBlock);
break;
case BlockTypes.ActorIKConstraint:
component = ActorIKConstraint.Read(this, nodeBlock);
break;
case BlockTypes.ActorDistanceConstraint:
component = ActorDistanceConstraint.Read(this, nodeBlock);
break;
case BlockTypes.ActorTranslationConstraint:
component = ActorTranslationConstraint.Read(this, nodeBlock);
break;
case BlockTypes.ActorScaleConstraint:
component = ActorScaleConstraint.Read(this, nodeBlock);
break;
case BlockTypes.ActorRotationConstraint:
component = ActorRotationConstraint.Read(this, nodeBlock);
break;
case BlockTypes.ActorTransformConstraint:
component = ActorTransformConstraint.Read(this, nodeBlock);
break;
}
}
if (component is ActorNode)
{
m_NodeCount++;
}
m_Components[componentIndex] = component;
if (component != null)
{
component.Idx = (ushort)(componentIndex);
}
componentIndex++;
}
m_ImageNodes = new ActorImage[m_ImageNodeCount];
m_Nodes = new ActorNode[m_NodeCount];
m_Nodes[0] = m_Root;
// Resolve nodes.
int imgIdx = 0;
int anIdx = 0;
ActorComponent[] components = m_Components;
for (int i = 1; i <= componentCount; i++)
{
ActorComponent c = components[i];
// Nodes can be null if we read from a file version that contained nodes that we don't interpret in this runtime.
if (c != null)
{
c.ResolveComponentIndices(components);
}
ActorImage ain = c as ActorImage;
if (ain != null)
{
m_ImageNodes[imgIdx++] = ain;
}
ActorNode an = c as ActorNode;
if (an != null)
{
m_Nodes[anIdx++] = an;
}
}
for (int i = 1; i <= componentCount; i++)
{
ActorComponent c = components[i];
if (c != null)
{
c.CompleteResolve();
}
}
SortDependencies();
}
public void Start()
{
m_Actor = gameObject.GetComponent <Nima.Unity.ActorBaseComponent>();
if (m_Actor != null)
{
// Get a game object from the actor, use this to mount items or query for other components.
// GameObject headColliderGameObject = m_Actor.GetActorGameObject("HeadCollider");
// if(headColliderGameObject != null)
// {
// Collider2D collider = headColliderGameObject.GetComponent<Collider2D>();
// if(collider != null)
// {
// // Set it to a trigger, or do something else with it...
// // collider.isTrigger = true;
// }
// }
if (m_Actor.ActorInstance != null)
{
m_Idle = m_Actor.ActorInstance.GetAnimation("Idle");
m_Aim = m_Actor.ActorInstance.GetAnimation("Aim2");
m_Walk = m_Actor.ActorInstance.GetAnimationInstance("Walk");
m_Run = m_Actor.ActorInstance.GetAnimation("Run");
m_WalkToIdle = m_Actor.ActorInstance.GetAnimation("WalkToIdle");
// We made walk an animation instance so it has it's own sense of time which lets it do things like track events.
m_Walk.AnimationEvent += delegate(object animationInstance, Nima.Animation.AnimationEventArgs args)
{
// Event triggered from animation.
};
Nima.ActorNode characterNode = m_Actor.ActorInstance.GetNode("Character");
if (characterNode != null)
{
m_GroundSpeedProperty = characterNode.GetCustomFloatProperty("GroundSpeed");
m_IsRunningProperty = characterNode.GetCustomBooleanProperty("IsRunning");
}
// Calculate aim slices.
if (m_Aim != null)
{
Nima.ActorNode muzzle = m_Actor.ActorInstance.GetNode("Muzzle");
if (muzzle != null)
{
for (int i = 0; i < AimSliceCount; i++)
{
float position = i / (float)(AimSliceCount - 1) * m_Aim.Duration;
m_Aim.Apply(position, m_Actor.ActorInstance, 1.0f);
m_Actor.ActorInstance.Advance(0.0f);
Nima.Math2D.Mat2D worldTransform = muzzle.WorldTransform;
AimSlice slice = m_AimLookup[i];
// Extract forward vector and position.
slice.dir = new Nima.Math2D.Vec2D();
Nima.Math2D.Vec2D.Normalize(slice.dir, new Nima.Math2D.Vec2D(worldTransform[0], worldTransform[1]));
slice.point = new Nima.Math2D.Vec2D(worldTransform[4] * Nima.Unity.ActorAsset.NimaToUnityScale,
worldTransform[5] * Nima.Unity.ActorAsset.NimaToUnityScale);
m_AimLookup[i] = slice;
}
}
if (m_Walk != null)
{
m_Walk.Time = 0.0f;
m_Walk.Apply(1.0f);
for (int i = 0; i < AimSliceCount; i++)
{
float position = i / (float)(AimSliceCount - 1) * m_Aim.Duration;
m_Aim.Apply(position, m_Actor.ActorInstance, 1.0f);
m_Actor.ActorInstance.Advance(0.0f);
Nima.Math2D.Mat2D worldTransform = muzzle.WorldTransform;
AimSlice slice = m_AimWalkingLookup[i];
// Extract forward vector and position.
slice.dir = new Nima.Math2D.Vec2D();
Nima.Math2D.Vec2D.Normalize(slice.dir, new Nima.Math2D.Vec2D(worldTransform[0], worldTransform[1]));
slice.point = new Nima.Math2D.Vec2D(worldTransform[4] * Nima.Unity.ActorAsset.NimaToUnityScale,
worldTransform[5] * Nima.Unity.ActorAsset.NimaToUnityScale);
m_AimWalkingLookup[i] = slice;
}
}
}
}
}
m_IdleTime = 0.0f;
}
public override void Constrain(ActorNode node)
{
ActorNode target = m_Target as ActorNode;
ActorNode grandParent = m_Parent.Parent;
Mat2D transformA = m_Parent.WorldTransform;
Mat2D transformB = new Mat2D();
Mat2D.Decompose(transformA, m_ComponentsA);
if (target == null)
{
Mat2D.Copy(transformB, transformA);
m_ComponentsB[0] = m_ComponentsA[0];
m_ComponentsB[1] = m_ComponentsA[1];
m_ComponentsB[2] = m_ComponentsA[2];
m_ComponentsB[3] = m_ComponentsA[3];
m_ComponentsB[4] = m_ComponentsA[4];
m_ComponentsB[5] = m_ComponentsA[5];
}
else
{
Mat2D.Copy(transformB, target.WorldTransform);
if (m_SourceSpace == TransformSpace.Local)
{
ActorNode sourceGrandParent = target.Parent;
if (sourceGrandParent != null)
{
Mat2D inverse = new Mat2D();
if (!Mat2D.Invert(inverse, sourceGrandParent.WorldTransform))
{
return;
}
Mat2D.Multiply(transformB, inverse, transformB);
}
}
Mat2D.Decompose(transformB, m_ComponentsB);
if (!m_Copy)
{
m_ComponentsB.Rotation = m_DestSpace == TransformSpace.Local ? 1.0f : m_ComponentsA.Rotation;
}
else
{
m_ComponentsB.Rotation *= m_Scale;
if (m_Offset)
{
m_ComponentsB.Rotation += m_Parent.Rotation;
}
}
if (m_DestSpace == TransformSpace.Local)
{
// Destination space is in parent transform coordinates.
// Recompose the parent local transform and get it in world, then decompose the world for interpolation.
if (grandParent != null)
{
Mat2D.Compose(transformB, m_ComponentsB);
Mat2D.Multiply(transformB, grandParent.WorldTransform, transformB);
Mat2D.Decompose(transformB, m_ComponentsB);
}
}
}
bool clampLocal = m_MinMaxSpace == TransformSpace.Local && grandParent != null;
if (clampLocal)
{
// Apply min max in local space, so transform to local coordinates first.
Mat2D.Compose(transformB, m_ComponentsB);
Mat2D inverse = new Mat2D();
if (!Mat2D.Invert(inverse, grandParent.WorldTransform))
{
return;
}
Mat2D.Multiply(transformB, inverse, transformB);
Mat2D.Decompose(transformB, m_ComponentsB);
}
if (m_EnableMax && m_ComponentsB.Rotation > m_Max)
{
m_ComponentsB.Rotation = m_Max;
}
if (m_EnableMin && m_ComponentsB.Rotation < m_Min)
{
m_ComponentsB.Rotation = m_Min;
}
if (clampLocal)
{
// Transform back to world.
Mat2D.Compose(transformB, m_ComponentsB);
Mat2D.Multiply(transformB, grandParent.WorldTransform, transformB);
Mat2D.Decompose(transformB, m_ComponentsB);
}
float angleA = m_ComponentsA.Rotation % PI2;
float angleB = m_ComponentsB.Rotation % PI2;
float diff = angleB - angleA;
if (diff > Math.PI)
{
diff -= PI2;
}
else if (diff < -Math.PI)
{
diff += PI2;
}
float ti = 1.0f - m_Strength;
m_ComponentsB.Rotation = m_ComponentsA.Rotation + diff * m_Strength;
m_ComponentsB.X = m_ComponentsA.X;
m_ComponentsB.Y = m_ComponentsA.Y;
m_ComponentsB.ScaleX = m_ComponentsA.ScaleX;
m_ComponentsB.ScaleY = m_ComponentsA.ScaleY;
m_ComponentsB.Skew = m_ComponentsA.Skew;
Mat2D.Compose(m_Parent.WorldTransform, m_ComponentsB);
}
public static ActorCollider Read(Actor actor, BinaryReader reader, ActorCollider property)
{
ActorNode.Read(actor, reader, property);
property.IsCollisionEnabled = reader.ReadByte() == 1;
return(property);
}
public abstract void Constrain(ActorNode node);
public override void Constrain(ActorNode node)
{
ActorNode target = m_Target as ActorNode;
if (target == null)
{
return;
}
Vec2D worldTargetTranslation = new Vec2D();
target.GetWorldTranslation(worldTargetTranslation);
if (m_InfluencedBones.Length == 0)
{
return;
}
// Decompose the chain.
foreach (BoneChain item in m_FKChain)
{
ActorBone bone = item.m_Bone;
Mat2D parentWorld = bone.Parent.WorldTransform;
Mat2D.Invert(item.m_ParentWorldInverse, parentWorld);
Mat2D.Multiply(bone.Transform, item.m_ParentWorldInverse, bone.WorldTransform);
Mat2D.Decompose(bone.Transform, item.m_TransformComponents);
}
int count = m_BoneData.Count;
if (count == 1)
{
Solve1(m_BoneData[0], worldTargetTranslation);
}
else if (count == 2)
{
Solve2(m_BoneData[0], m_BoneData[1], worldTargetTranslation);
}
else
{
BoneChain tip = m_BoneData[count - 1];
for (int i = 0; i < count - 1; i++)
{
BoneChain item = m_BoneData[i];
Solve2(item, tip, worldTargetTranslation);
for (int j = item.m_Index + 1; j < m_FKChain.Length - 1; j++)
{
BoneChain fk = m_FKChain[j];
Mat2D.Invert(fk.m_ParentWorldInverse, fk.m_Bone.Parent.WorldTransform);
}
}
}
// At the end, mix the FK angle with the IK angle by strength
if (m_Strength != 1.0)
{
foreach (BoneChain fk in m_FKChain)
{
if (!fk.m_Included)
{
ActorBone bone = fk.m_Bone;
Mat2D.Multiply(bone.WorldTransform, bone.Parent.WorldTransform, bone.Transform);
continue;
}
float fromAngle = fk.m_TransformComponents.Rotation % PI2;
float toAngle = fk.m_Angle % PI2;
float diff = toAngle - fromAngle;
if (diff > PI)
{
diff -= PI2;
}
else if (diff < -PI)
{
diff += PI2;
}
float angle = fromAngle + diff * m_Strength;
ConstrainRotation(fk, angle);
}
}
}
public override void Constrain(ActorNode node)
{
ActorNode target = m_Target as ActorNode;
ActorNode grandParent = m_Parent.Parent;
Mat2D transformA = m_Parent.WorldTransform;
Vec2D translationA = new Vec2D(transformA[4], transformA[5]);
Vec2D translationB = new Vec2D();
if (target == null)
{
Vec2D.Copy(translationB, translationA);
}
else
{
Mat2D transformB = new Mat2D(target.WorldTransform);
if (m_SourceSpace == TransformSpace.Local)
{
ActorNode sourceGrandParent = target.Parent;
if (sourceGrandParent != null)
{
Mat2D inverse = new Mat2D();
if (!Mat2D.Invert(inverse, sourceGrandParent.WorldTransform))
{
return;
}
Mat2D.Multiply(transformB, inverse, transformB);
}
}
translationB[0] = transformB[4];
translationB[1] = transformB[5];
if (!m_CopyX)
{
translationB[0] = m_DestSpace == TransformSpace.Local ? 0.0f : translationA[0];
}
else
{
translationB[0] *= m_ScaleX;
if (m_Offset)
{
translationB[0] += m_Parent.X;
}
}
if (!m_CopyY)
{
translationB[1] = m_DestSpace == TransformSpace.Local ? 0.0f : translationA[1];
}
else
{
translationB[1] *= m_ScaleY;
if (m_Offset)
{
translationB[1] += m_Parent.Y;
}
}
if (m_DestSpace == TransformSpace.Local)
{
// Destination space is in parent transform coordinates.
if (grandParent != null)
{
Vec2D.TransformMat2D(translationB, translationB, grandParent.WorldTransform);
}
}
}
bool clampLocal = m_MinMaxSpace == TransformSpace.Local && grandParent != null;
if (clampLocal)
{
// Apply min max in local space, so transform to local coordinates first.
Mat2D invert = new Mat2D();
if (!Mat2D.Invert(invert, grandParent.WorldTransform))
{
return;
}
// Get our target world coordinates in parent local.
Vec2D.TransformMat2D(translationB, translationB, invert);
}
if (m_EnableMaxX && translationB[0] > m_MaxX)
{
translationB[0] = m_MaxX;
}
if (m_EnableMinX && translationB[0] < m_MinX)
{
translationB[0] = m_MinX;
}
if (m_EnableMaxY && translationB[1] > m_MaxY)
{
translationB[1] = m_MaxY;
}
if (m_EnableMinY && translationB[1] < m_MinY)
{
translationB[1] = m_MinY;
}
if (clampLocal)
{
// Transform back to world.
Vec2D.TransformMat2D(translationB, translationB, grandParent.WorldTransform);
}
float ti = 1.0f - m_Strength;
// Just interpolate world translation
transformA[4] = translationA[0] * ti + translationB[0] * m_Strength;
transformA[5] = translationA[1] * ti + translationB[1] * m_Strength;
}