public static void effectiveScale(SkelAnimation anim, Matrix4 sca)
{
foreach (KeyFrame frame in anim.frames)
{
foreach (KeyNode node in frame.nodes)
{
if (node.tType != -1)
{
Vector3 pos = Vector3.TransformVector(node.t, sca);
if (node.t.X != -99)
{
node.t.X = pos.X;
}
if (node.t.Y != -99)
{
node.t.Y = pos.Y;
}
if (node.t.Z != -99)
{
node.t.Z = pos.Z;
}
}
}
}
}
public SkelAnimation BakeToSkel(VBN skel)
{
SkelAnimation a = new SkelAnimation();
for (int i = 1; i < anim.frameCount + 1; i++)
{
a.frames.Add(new KeyFrame());
}
for (int i = 0; i < anim.nodes.Count; i++)
{
Frame[] frames = Bake(i);
int fr = 0;
foreach (Frame f in frames)
{
if (fr == 0)
{
fr++;
continue;
}
if (i >= skel.bones.Count)
{
continue;
}
KeyFrame frame = a.frames[fr - 1];
KeyNode node = new KeyNode();
frame.nodes.Add(node);
node.hash = skel.bones[i].boneId;
node.tType = 1;
node.rType = 1;
node.sType = 1;
node.t.X = f.x != -99 ? f.x : skel.bones[i].position[0];
node.t.Y = f.y != -99 ? f.y : skel.bones[i].position[1];
node.t.Z = f.z != -99 ? f.z : skel.bones[i].position[2];
node.r.X = f.rx != -99 ? f.rx * (float)Math.PI / 180 : skel.bones[i].rotation[0];
node.r.Y = f.ry != -99 ? f.ry * (float)Math.PI / 180 : skel.bones[i].rotation[1];
node.r.Z = f.rz != -99 ? f.rz * (float)Math.PI / 180 : skel.bones[i].rotation[2];
node.s.X = f.sx != -99 ? f.sx : skel.bones[i].scale[0];
node.s.Y = f.sy != -99 ? f.sy : skel.bones[i].scale[1];
node.s.Z = f.sz != -99 ? f.sz : skel.bones[i].scale[2];
node.r = VBN.FromEulerAngles(node.r.Z, node.r.Y, node.r.X);
fr++;
}
}
return(a);
}
// temp stuff
public static Dictionary <string, SkelAnimation> LoadAJ(string fname, VBN vbn)
{
// a note, I know that the main player file has the offsets for
// animations, this is just for viewing
FileData f = new FileData(fname);
f.endian = System.IO.Endianness.Big;
int pos = 0;
Dictionary <string, SkelAnimation> animations = new Dictionary <string, SkelAnimation>();
AnimationGroupNode group = new AnimationGroupNode()
{
Text = fname
};
MainForm.Instance.animList.treeView1.Nodes.Add(group);
while (pos < f.Size())
{
Console.WriteLine(pos.ToString("x"));
int len = f.ReadInt();
DAT_Animation anim = new DAT_Animation();
anim.Read(new FileData(f.GetSection(pos, len)));
AnimTrack track = new AnimTrack(anim);
if (pos == 0)
{
//track.Show();
}
group.Nodes.Add(track.ToAnimation(vbn));
SkelAnimation sa = track.BakeToSkel(vbn);
//sa.Tag = track;
//Runtime.Animations.Add(anim.Name, sa);
// MainForm.Instance.animList.treeView1.Nodes.Add(anim.Name);
animations.Add(anim.Name, sa);
if (pos != 0)
{
track.Dispose();
track.Close();
}
f.Skip(len - 4);
f.Align(32);
pos = f.Pos();
}
return(animations);
}
public static Animation read(FileData d)
{
d.endian = Endianness.Big;
d.Skip(4); // header OMO
d.Skip(4); // two shorts, idk
d.Skip(4); //flags?
d.Skip(2);
int boneCount = d.ReadUShort();
int frameCount = d.ReadUShort();
int frameSize = d.ReadUShort();
int offset1 = d.ReadInt(); // nodeOffset
int offset2 = d.ReadInt(); // interOffset
int offset3 = d.ReadInt(); // keyOffset
SkelAnimation anim = new SkelAnimation();
anim.tag = d;
if (boneCount > offset2 / 0x10)
{
boneCount = offset2 / 0x10;
anim.tag = null;
}
// base frames
// These are linked to bones via hashes
d.Seek(offset1); //
int[] framekey = new int[boneCount];
KeyNode[] baseNode = new KeyNode[boneCount];
// Start positions for bones/nodes
for (int i = 0; i < boneCount; i++)
{
flagsused = flagsused | d.ReadInt(); d.Seek(d.Pos() - 4);
//Console.WriteLine(flagsused.ToString("x"));
int flags = d.ReadByte();
int tFlag = d.ReadByte();
int rFlag = d.ReadByte();
int sFlag = d.ReadByte();
int hash = d.ReadInt(); // used to find the identifying bone
int off1 = d.ReadInt() + offset2;
framekey[i] = d.ReadInt();
bool hasTrans = (flags & 0x01) == 0x01;
bool hasScale = (flags & 0x04) == 0x04;
bool hasRot = (flags & 0x02) == 0x02;
KeyNode node = new KeyNode();
baseNode[i] = node;
node.hash = (uint)hash;
int temp = d.Pos();
d.Seek(off1);
if (hasTrans)
{
if (tFlag == 0x8)
{ // interpolated
node.tType = KeyNode.Interpolated;
node.t = new Vector3(d.ReadFloat(), d.ReadFloat(), d.ReadFloat());
node.t2 = new Vector3(d.ReadFloat(), d.ReadFloat(), d.ReadFloat());
}
else if (tFlag == 0x20)
{
node.tType = KeyNode.Constant;
node.t = new Vector3(d.ReadFloat(), d.ReadFloat(), d.ReadFloat());
}
else if (tFlag == 0x4)
{
// entire Vector3 provided in keyframe data i.e. KEYFRAME type
node.tType = KeyNode.Keyframe;
}
}
if (hasRot)
{
if ((rFlag & 0xF0) != 0x50 && (rFlag & 0xF0) != 0x70 && (rFlag & 0xF0) != 0x60 && (rFlag & 0xF0) != 0xA0)
{
//Console.WriteLine(rFlag);
}
if ((rFlag & 0xF0) == 0xA0)
{
// All data is in the keyframe for this type
node.rType = KeyNode.Compressed;
}
if ((rFlag & 0xF0) == 0x50)
{ // interpolated
node.rType = KeyNode.Interpolated;
node.rv = new Vector3(d.ReadFloat(), d.ReadFloat(), d.ReadFloat());
node.rv2 = new Vector3(d.ReadFloat(), d.ReadFloat(), d.ReadFloat());
}
if ((rFlag & 0xF0) == 0x60)
{
node.rType = KeyNode.Keyframe;
node.rv = new Vector3(d.ReadFloat(), d.ReadFloat(), d.ReadFloat());
node.rExtra = d.ReadFloat() / 65535;
}
if ((rFlag & 0xF0) == 0x70)
{
node.rType = KeyNode.Constant;
node.rv = new Vector3(d.ReadFloat(), d.ReadFloat(), d.ReadFloat());
}
}
if (hasScale)
{
if ((sFlag & 0xF0) == 0x80)
{ // interpolated
node.sType = KeyNode.Interpolated;
node.s = new Vector3(d.ReadFloat(), d.ReadFloat(), d.ReadFloat());
node.s2 = new Vector3(d.ReadFloat(), d.ReadFloat(), d.ReadFloat());
}
// TODO: investigate the difference between these
if ((rFlag & 0x0F) == 0x02 || (rFlag & 0x0F) == 0x03)
{ // constant
node.sType = KeyNode.Constant;
node.s = new Vector3(d.ReadFloat(), d.ReadFloat(), d.ReadFloat());
}
}
d.Seek(temp);
}
// Interpolated type below here is always a set translation/rotation/scale
// from the coords specified with the bone node above
Animation a = new Animation("Anim");
a.Tag = anim.tag;
a.frameCount = frameCount;
d.Seek(offset3);
for (int j = 0; j < boneCount; j++)
{
string bid = "";
int hash = -1;
if (!MainForm.hashes.ids.TryGetValue(baseNode[j].hash, out bid))
{
hash = (int)baseNode[j].hash;
}
Animation.KeyNode n = new Animation.KeyNode(bid);
n.hash = hash;
a.bones.Add(n);
n.type = Animation.BoneType.Normal;
/*foreach (ModelContainer con in Runtime.ModelContainers)
* if (con.VBN != null)
* bid = con.VBN.getBone(baseNode[j].hash) == null ? "" : con.VBN.getBone(baseNode[j].hash).Text;*/
for (int i = 0; i < a.frameCount; i++)
{
d.Seek(offset3 + frameSize * i + framekey[j]);
if (baseNode[j].tType == KeyNode.Interpolated)
{
float i1 = ((float)d.ReadUShort() / 0xffff);
float i2 = ((float)d.ReadUShort() / 0xffff);
float i3 = ((float)d.ReadUShort() / 0xffff);
float x = baseNode[j].t.X + (baseNode[j].t2.X * (i1));
float y = baseNode[j].t.Y + (baseNode[j].t2.Y * (i2));
float z = baseNode[j].t.Z + (baseNode[j].t2.Z * (i3));
//node.t = new Vector3(x, y, z); // Translation
n.xpos.keys.Add(new Animation.KeyFrame(x, i));
n.ypos.keys.Add(new Animation.KeyFrame(y, i));
n.zpos.keys.Add(new Animation.KeyFrame(z, i));
}
else if (baseNode[j].tType == KeyNode.Constant)
{
//node.t = baseNode[j].t;
n.xpos.keys.Add(new Animation.KeyFrame(baseNode[j].t.X, i));
n.ypos.keys.Add(new Animation.KeyFrame(baseNode[j].t.Y, i));
n.zpos.keys.Add(new Animation.KeyFrame(baseNode[j].t.Z, i));
}
else if (baseNode[j].tType == 2)
{
float x = d.ReadFloat();
float y = d.ReadFloat();
float z = d.ReadFloat();
//node.t = new Vector3(x, y, z);
n.xpos.keys.Add(new Animation.KeyFrame(x, i));
n.ypos.keys.Add(new Animation.KeyFrame(y, i));
n.zpos.keys.Add(new Animation.KeyFrame(z, i));
}
if (baseNode[j].rType == KeyNode.Compressed)
{
// There are 64 bits present for each node of this rot type
// The format is: 20bits * 3 of encoded floats, and 4 bits of flags
// The flags describe which 3 components of the quaternion are being presented
int b1 = d.ReadByte();
int b2 = d.ReadByte();
int b3 = d.ReadByte();
int b4 = d.ReadByte();
int b5 = d.ReadByte();
int b6 = d.ReadByte();
int b7 = d.ReadByte();
int b8 = d.ReadByte();
// Capture 20 bits at a time of the raw data
int f1 = (b1 << 12) | (b2 << 4) | ((b3 & 0xF0) >> 4);
int f2 = ((b3 & 0xF) << 16) | (b4 << 8) | b5;
int f3 = (b6 << 12) | (b7 << 4) | ((b8 & 0xF0) >> 4);
int flags = b8 & 0xF;
Quaternion r = new Quaternion();
switch (flags)
{
case 0: // y, z, w provided
r.Y = encodedRot10ToQuaternionComponent(f1);
r.Z = encodedRot10ToQuaternionComponent(f2);
r.W = encodedRot10ToQuaternionComponent(f3);
r.X = (float)Math.Sqrt(Math.Abs(1 - (r.Y * r.Y + r.Z * r.Z + r.W * r.W)));
break;
case 1: // x, z, w provided
r.X = encodedRot10ToQuaternionComponent(f1);
r.Z = encodedRot10ToQuaternionComponent(f2);
r.W = encodedRot10ToQuaternionComponent(f3);
r.Y = (float)Math.Sqrt(Math.Abs(1 - (r.X * r.X + r.Z * r.Z + r.W * r.W)));
break;
case 2: // x, y, w provided
r.X = encodedRot10ToQuaternionComponent(f1);
r.Y = encodedRot10ToQuaternionComponent(f2);
r.W = encodedRot10ToQuaternionComponent(f3);
r.Z = (float)Math.Sqrt(Math.Abs(1 - (r.X * r.X + r.Y * r.Y + r.W * r.W)));
break;
case 3: // x, y, z, provided
r.X = encodedRot10ToQuaternionComponent(f1);
r.Y = encodedRot10ToQuaternionComponent(f2);
r.Z = encodedRot10ToQuaternionComponent(f3);
r.W = (float)Math.Sqrt(Math.Abs(1 - (r.X * r.X + r.Y * r.Y + r.Z * r.Z)));
break;
default:
Console.WriteLine("Unknown rotation type3 flags: " + flags);
break;
}
n.rotType = Animation.RotationType.Quaternion;
n.xrot.keys.Add(new Animation.KeyFrame(r.X, i));
n.yrot.keys.Add(new Animation.KeyFrame(r.Y, i));
n.zrot.keys.Add(new Animation.KeyFrame(r.Z, i));
n.wrot.keys.Add(new Animation.KeyFrame(r.W, i));
}
else if (baseNode[j].rType == KeyNode.Interpolated)
{
float i1 = ((float)d.ReadUShort() / (0xffff));
float i2 = ((float)d.ReadUShort() / (0xffff));
float i3 = ((float)d.ReadUShort() / (0xffff));
float x = baseNode[j].rv.X + (baseNode[j].rv2.X * (i1));
float y = baseNode[j].rv.Y + (baseNode[j].rv2.Y * (i2));
float z = baseNode[j].rv.Z + (baseNode[j].rv2.Z * (i3));
float w = (float)Math.Sqrt(Math.Abs(1 - (x * x + y * y + z * z)));
Quaternion r = new Quaternion(new Vector3(x, y, z), w);
r.Normalize();
n.rotType = Animation.RotationType.Quaternion;
n.xrot.keys.Add(new Animation.KeyFrame(r.X, i));
n.yrot.keys.Add(new Animation.KeyFrame(r.Y, i));
n.zrot.keys.Add(new Animation.KeyFrame(r.Z, i));
n.wrot.keys.Add(new Animation.KeyFrame(r.W, i));
}
else if (baseNode[j].rType == KeyNode.Keyframe)
{
float scale = d.ReadUShort() * baseNode[j].rExtra;
float x = baseNode[j].rv.X;
float y = baseNode[j].rv.Y;
float z = baseNode[j].rv.Z + scale;
float w = rot6CalculateW(x, y, z);
Quaternion r = new Quaternion(x, y, z, w);
n.rotType = Animation.RotationType.Quaternion;
n.xrot.keys.Add(new Animation.KeyFrame(r.X, i));
n.yrot.keys.Add(new Animation.KeyFrame(r.Y, i));
n.zrot.keys.Add(new Animation.KeyFrame(r.Z, i));
n.wrot.keys.Add(new Animation.KeyFrame(r.W, i));
}
else
{
float x = baseNode[j].rv.X;
float y = baseNode[j].rv.Y;
float z = baseNode[j].rv.Z;
float w = (float)Math.Sqrt(Math.Abs(1 - (x * x + y * y + z * z)));
Quaternion r = new Quaternion(baseNode[j].rv, w);
r.Normalize();
n.rotType = Animation.RotationType.Quaternion;
n.xrot.keys.Add(new Animation.KeyFrame(r.X, i));
n.yrot.keys.Add(new Animation.KeyFrame(r.Y, i));
n.zrot.keys.Add(new Animation.KeyFrame(r.Z, i));
n.wrot.keys.Add(new Animation.KeyFrame(r.W, i));
}
if (baseNode[j].sType == KeyNode.Interpolated)
{
float i1 = ((float)d.ReadUShort() / (0xffff));
float i2 = ((float)d.ReadUShort() / (0xffff));
float i3 = ((float)d.ReadUShort() / (0xffff));
float x = baseNode[j].s.X + (baseNode[j].s2.X * (i1));
float y = baseNode[j].s.Y + (baseNode[j].s2.Y * (i2));
float z = baseNode[j].s.Z + (baseNode[j].s2.Z * (i3));
//node.s = new Vector3(x, y, z);
n.xsca.keys.Add(new Animation.KeyFrame(x, i));
n.ysca.keys.Add(new Animation.KeyFrame(y, i));
n.zsca.keys.Add(new Animation.KeyFrame(z, i));
}
else
{
//node.s = baseNode[j].s;
n.xsca.keys.Add(new Animation.KeyFrame(baseNode[j].s.X, i));
n.ysca.keys.Add(new Animation.KeyFrame(baseNode[j].s.Y, i));
n.zsca.keys.Add(new Animation.KeyFrame(baseNode[j].s.Z, i));
}
}
}
return(a);
}
public static byte[] createOMO(SkelAnimation a, VBN vbn)
{
List <int> nodeid = a.GetNodes(true, vbn);
int startNode = 0;
int sizeNode = nodeid.Count;
FileOutput o = new FileOutput();
o.endian = Endianness.Big;
FileOutput t1 = new FileOutput();
t1.endian = Endianness.Big;
FileOutput t2 = new FileOutput();
t2.endian = Endianness.Big;
o.WriteString("OMO ");
o.WriteShort(1); //idk
o.WriteShort(3); //idk
o.WriteInt(0x091E100C); //flags??
o.WriteShort(0); //padding
o.WriteShort(sizeNode); // numOfNodes
o.WriteShort(a.frames.Count); // frame size
o.WriteShort(0); // frame start ??
o.WriteInt(0);
o.WriteInt(0);
o.WriteInt(0);
o.WriteIntAt(o.Size(), 0x14);
// ASSESSMENT
KeyNode[] minmax = new KeyNode[sizeNode];
bool[] hasScale = new bool[sizeNode];
bool[] hasTrans = new bool[sizeNode];
bool[] hasRot = new bool[sizeNode];
bool[] conScale = new bool[sizeNode];
bool[] conTrans = new bool[sizeNode];
bool[] conRot = new bool[sizeNode];
a.SetFrame(0);
List <List <Bone> > Frames = new List <List <Bone> >();
VBN tempvbn = new VBN();
for (int i = 0; i < a.Size(); i++)
{
a.NextFrame(vbn, true);
List <Bone> bonelist = new List <Bone>();
for (int j = 0; j < nodeid.Count; j++)
{
Bone node = getNodeId(vbn, nodeid[j]);
Bone f1 = new Bone(tempvbn);
f1.pos = node.pos;
f1.rot = node.rot;
f1.sca = node.sca;
bonelist.Add(f1);
if (minmax[j] == null)
{
hasRot[j] = false;
hasScale[j] = false;
hasTrans[j] = false;
KeyNode n = a.GetFirstNode(nodeid[j]);
if (n != null)
{
if (n.rType != -1)
{
hasRot[j] = true;
}
if (n.tType != -1)
{
hasTrans[j] = true;
}
if (n.sType != -1)
{
hasScale[j] = true;
}
}
minmax[j] = new KeyNode();
minmax[j].t = new Vector3(999f, 999f, 999f);
minmax[j].r = new Quaternion(999f, 999f, 999f, 999f);
minmax[j].s = new Vector3(999f, 999f, 999f);
minmax[j].t2 = new Vector3(-999f, -999f, -999f);
minmax[j].r2 = new Quaternion(-999f, -999f, -999f, -999f);
minmax[j].s2 = new Vector3(-999f, -999f, -999f);
}
if (node.pos.X < minmax[j].t.X)
{
minmax[j].t.X = node.pos.X;
}
if (node.pos.X > minmax[j].t2.X)
{
minmax[j].t2.X = node.pos.X;
}
if (node.pos.Y < minmax[j].t.Y)
{
minmax[j].t.Y = node.pos.Y;
}
if (node.pos.Y > minmax[j].t2.Y)
{
minmax[j].t2.Y = node.pos.Y;
}
if (node.pos.Z < minmax[j].t.Z)
{
minmax[j].t.Z = node.pos.Z;
}
if (node.pos.Z > minmax[j].t2.Z)
{
minmax[j].t2.Z = node.pos.Z;
}
// float[] fix = Node.fix360(node.nrx, node.nry, node.nrz);
//float[] f = Bone.CalculateRotation(node.nrx, node.nry, node.nrz);
Quaternion r = node.rot;
if (r.X < minmax[j].r.X)
{
minmax[j].r.X = r.X;
}
if (r.X > minmax[j].r2.X)
{
minmax[j].r2.X = r.X;
}
if (r.Y < minmax[j].r.Y)
{
minmax[j].r.Y = r.Y;
}
if (r.Y > minmax[j].r2.Y)
{
minmax[j].r2.Y = r.Y;
}
if (r.Z < minmax[j].r.Z)
{
minmax[j].r.Z = r.Z;
}
if (r.Z > minmax[j].r2.Z)
{
minmax[j].r2.Z = r.Z;
}
if (node.sca.X < minmax[j].s.X)
{
minmax[j].s.X = node.sca.X;
}
if (node.sca.X > minmax[j].s2.X)
{
minmax[j].s2.X = node.sca.X;
}
if (node.sca.Y < minmax[j].s.Y)
{
minmax[j].s.Y = node.sca.Y;
}
if (node.sca.Y > minmax[j].s2.Y)
{
minmax[j].s2.Y = node.sca.Y;
}
if (node.sca.Z < minmax[j].s.Z)
{
minmax[j].s.Z = node.sca.Z;
}
if (node.sca.Z > minmax[j].s2.Z)
{
minmax[j].s2.Z = node.sca.Z;
}
}
}
// NODE INFO
int t2Size = 0;
for (int i = 0; i < sizeNode; i++)
{
int flag = 0;
conRot[i] = false;
conScale[i] = false;
conTrans[i] = false;
// check for constant
if (minmax[i].t.Equals(minmax[i].t2))
{
conTrans[i] = true;
}
if (minmax[i].r.Equals(minmax[i].r2))
{
conRot[i] = true;
}
if (minmax[i].s.Equals(minmax[i].s2))
{
conScale[i] = true;
}
if (hasTrans[i])
{
flag |= 0x01000000;
}
if (hasRot[i])
{
flag |= 0x02000000;
}
if (hasScale[i])
{
flag |= 0x04000000;
}
if (conTrans[i] && hasTrans[i])
{
flag |= 0x00200000;
}
else
{
flag |= 0x00080000;
}
if (conRot[i] && hasRot[i])
{
flag |= 0x00007000;
}
else
{
flag |= 0x00005000;
}
if (conScale[i] && hasScale[i])
{
flag |= 0x00000200;
}
else
{
flag |= 0x00000080;
}
flag |= 0x00000001;
int hash = -1;
if (MainForm.hashes.names.ContainsKey(getNodeId(vbn, nodeid[i]).Text))
{
hash = (int)MainForm.hashes.names[getNodeId(vbn, nodeid[i]).Text];
}
//else hash = (int)FileData.crc12(getNodeId(vbn, nodeid[i]).Text);
o.WriteInt(flag); // flags...
o.WriteInt(hash); //hash
o.WriteInt(t1.Size()); // Offset in 1 table
o.WriteInt(t2Size); // Offset in 2 table
// calculate size needed
if (hasTrans[i])
{
t1.WriteFloat(minmax[i].t.X);
t1.WriteFloat(minmax[i].t.Y);
t1.WriteFloat(minmax[i].t.Z);
if (!conTrans[i])
{
minmax[i].t2.X -= minmax[i].t.X;
minmax[i].t2.Y -= minmax[i].t.Y;
minmax[i].t2.Z -= minmax[i].t.Z;
t1.WriteFloat(minmax[i].t2.X);
t1.WriteFloat(minmax[i].t2.Y);
t1.WriteFloat(minmax[i].t2.Z);
t2Size += 6;
}
}
if (hasRot[i])
{
t1.WriteFloat(minmax[i].r.X);
t1.WriteFloat(minmax[i].r.Y);
t1.WriteFloat(minmax[i].r.Z);
if (!conRot[i])
{
minmax[i].r2.X -= minmax[i].r.X;
minmax[i].r2.Y -= minmax[i].r.Y;
minmax[i].r2.Z -= minmax[i].r.Z;
t1.WriteFloat(minmax[i].r2.X);
t1.WriteFloat(minmax[i].r2.Y);
t1.WriteFloat(minmax[i].r2.Z);
t2Size += 6;
}
}
if (hasScale[i])
{
t1.WriteFloat(minmax[i].s.X);
t1.WriteFloat(minmax[i].s.Y);
t1.WriteFloat(minmax[i].s.Z);
if (!conScale[i])
{
minmax[i].s2.X -= minmax[i].s.X;
minmax[i].s2.Y -= minmax[i].s.Y;
minmax[i].s2.Z -= minmax[i].s.Z;
t1.WriteFloat(minmax[i].s2.X);
t1.WriteFloat(minmax[i].s2.Y);
t1.WriteFloat(minmax[i].s2.Z);
t2Size += 6;
}
}
}
o.WriteIntAt(o.Size(), 0x18);
o.WriteOutput(t1);
o.WriteIntAt(o.Size(), 0x1C);
// INTERPOLATION
//a.setFrame(0);
bool go = false;
foreach (List <Bone> bonelist in Frames)
{
//a.nextFrame(vbn);
int j = 0;
foreach (Bone node in bonelist)
{
//Bone node = getNodeId(vbn, nodeid[j]);
if (hasTrans[j] && !conTrans[j])
{
t2.WriteShort((int)(((node.pos.X - minmax[j].t.X) / minmax[j].t2.X) * 0xFFFF));
t2.WriteShort((int)(((node.pos.Y - minmax[j].t.Y) / minmax[j].t2.Y) * 0xFFFF));
t2.WriteShort((int)(((node.pos.Z - minmax[j].t.Z) / minmax[j].t2.Z) * 0xFFFF));
}
if (hasRot[j] && !conRot[j])
{
// float[] fix = Node.fix360(node.nrx, node.nry, node.nrz);
//float[] f = CalculateRotation(node.nrx, node.nry, node.nrz);
Quaternion r = node.rot;
t2.WriteShort((int)(((r.X - minmax[j].r.X) / minmax[j].r2.X) * 0xFFFF));
t2.WriteShort((int)(((r.Y - minmax[j].r.Y) / minmax[j].r2.Y) * 0xFFFF));
t2.WriteShort((int)(((r.Z - minmax[j].r.Z) / minmax[j].r2.Z) * 0xFFFF));
}
if (hasScale[j] && !conScale[j])
{
t2.WriteShort((int)(((node.sca.X - minmax[j].s.X) / minmax[j].s2.X) * 0xFFFF));
t2.WriteShort((int)(((node.sca.Y - minmax[j].s.Y) / minmax[j].s2.Y) * 0xFFFF));
t2.WriteShort((int)(((node.sca.Z - minmax[j].s.Z) / minmax[j].s2.Z) * 0xFFFF));
}
j++;
}
if (!go)
{
o.WriteShortAt(t2.Size(), 0x12);
go = true;
}
}
o.WriteOutput(t2);
return(o.GetBytes());
}
public static void generateInter(SkelAnimation anim, int max, int nid, String part, float[] frame, float[] tan, float[] step, VBN vbn)
{
int in2 = 0;
int out2 = 1;
float degrad = (float)(Math.PI / 180f);
for (int i = 0; i < max; i++)
{
KeyNode n = anim.GetNode(i, nid);
if (part.Contains("R"))
{
n.rType = 1;
}
else
if (part.Contains("S"))
{
n.sType = 1;
}
else
{
n.tType = 1;
}
if (i > frame[out2])
{
in2++;
out2++;
}
float inv = frame[in2];
float tanin = tan[in2];
float stepin = step[in2];
if (frame[0] > i)
{
inv = 0;
tanin = 0;
stepin = anim.GetBaseNodeValue(nid, part, vbn);
out2 = 0;
in2 = 0;
}
if (frame[0] == i && out2 == 0)
{
out2 = 1;
in2 = 0;
}
switch (part)
{
case "RX":
n.r.X = interHermite(i, inv, frame[out2], tanin, tan[out2], stepin, step[out2]) * degrad;
break;
case "RY":
n.r.Y = interHermite(i, inv, frame[out2], tanin, tan[out2], stepin, step[out2]) * degrad;
break;
case "RZ":
n.r.Z = interHermite(i, inv, frame[out2], tanin, tan[out2], stepin, step[out2]) * degrad;
break;
case "X":
n.t.X = interHermite(i, inv, frame[out2], tanin, tan[out2], stepin, step[out2]);
break;
case "Y":
n.t.Y = interHermite(i, inv, frame[out2], tanin, tan[out2], stepin, step[out2]);
break;
case "Z":
n.t.Z = interHermite(i, inv, frame[out2], tanin, tan[out2], stepin, step[out2]);
break;
case "SX":
n.s.X = interHermite(i, inv, frame[out2], tanin, tan[out2], stepin, step[out2]);
break;
case "SY":
n.s.Y = interHermite(i, inv, frame[out2], tanin, tan[out2], stepin, step[out2]);
break;
case "SZ":
n.s.Z = interHermite(i, inv, frame[out2], tanin, tan[out2], stepin, step[out2]);
break;
}
}
}