void TSShapeLoader::generateSkins()
{
Vector<AppMesh*> skins;
for (int iObject = 0; iObject < shape->objects.size(); iObject++)
{
for (int iMesh = 0; iMesh < shape->objects[iObject].numMeshes; iMesh++)
{
AppMesh* mesh = appMeshes[shape->objects[iObject].startMeshIndex + iMesh];
if (mesh->isSkin())
skins.push_back(mesh);
}
}
for (int iSkin = 0; iSkin < skins.size(); iSkin++)
{
updateProgress(Load_GenerateSkins, "Generating skins...", skins.size(), iSkin);
// Get skin data (bones, vertex weights etc)
AppMesh* skin = skins[iSkin];
skin->lookupSkinData();
// Just copy initial verts and norms for now
skin->initialVerts.set(skin->points.address(), skin->vertsPerFrame);
skin->initialNorms.set(skin->normals.address(), skin->vertsPerFrame);
// Map bones to nodes
skin->nodeIndex.setSize(skin->bones.size());
for (int iBone = 0; iBone < skin->bones.size(); iBone++)
{
// Find the node that matches this bone
skin->nodeIndex[iBone] = -1;
for (int iNode = 0; iNode < appNodes.size(); iNode++)
{
if (appNodes[iNode]->isEqual(skin->bones[iBone]))
{
delete skin->bones[iBone];
skin->bones[iBone] = appNodes[iNode];
skin->nodeIndex[iBone] = iNode;
break;
}
}
if (skin->nodeIndex[iBone] == -1)
{
Con::warnf("Could not find bone %d. Defaulting to first node", iBone);
skin->nodeIndex[iBone] = 0;
}
}
}
}
void TSShapeLoader::generateDefaultStates()
{
// Generate default object states (includes initial geometry)
for (int iObject = 0; iObject < shape->objects.size(); iObject++)
{
updateProgress(Load_GenerateDefaultStates, "Generating initial mesh and node states...",
shape->objects.size(), iObject);
TSShape::Object& obj = shape->objects[iObject];
// Calculate the objectOffset for each mesh at T=0
for (int iMesh = 0; iMesh < obj.numMeshes; iMesh++)
{
AppMesh* appMesh = appMeshes[obj.startMeshIndex + iMesh];
AppNode* appNode = obj.nodeIndex >= 0 ? appNodes[obj.nodeIndex] : boundsNode;
MatrixF meshMat(appMesh->getMeshTransform(DefaultTime));
MatrixF nodeMat(appMesh->isSkin() ? meshMat : appNode->getNodeTransform(DefaultTime));
zapScale(nodeMat);
appMesh->objectOffset = nodeMat.inverse() * meshMat;
}
generateObjectState(shape->objects[iObject], DefaultTime, true, true);
}
// Generate default node transforms
for (int iNode = 0; iNode < appNodes.size(); iNode++)
{
// Determine the default translation and rotation for the node
QuatF rot, srot;
Point3F trans, scale;
generateNodeTransform(appNodes[iNode], DefaultTime, false, 0, rot, trans, srot, scale);
// Add default node translation and rotation
addNodeRotation(rot, true);
addNodeTranslation(trans, true);
}
}
void TSShapeLoader::recurseSubshape(AppNode* appNode, S32 parentIndex, bool recurseChildren)
{
// Ignore local bounds nodes
if (appNode->isBounds())
return;
S32 subShapeNum = shape->subShapeFirstNode.size()-1;
Subshape* subshape = subshapes[subShapeNum];
// Check if we should collapse this node
S32 myIndex;
if (ignoreNode(appNode->getName()))
{
myIndex = parentIndex;
}
else
{
// Check that adding this node will not exceed the maximum node count
if (shape->nodes.size() >= MAX_TS_SET_SIZE)
return;
myIndex = shape->nodes.size();
String nodeName = getUniqueName(appNode->getName(), cmpShapeName, shape->names);
// Create the 3space node
shape->nodes.increment();
shape->nodes.last().nameIndex = shape->addName(nodeName);
shape->nodes.last().parentIndex = parentIndex;
shape->nodes.last().firstObject = -1;
shape->nodes.last().firstChild = -1;
shape->nodes.last().nextSibling = -1;
// Add the AppNode to a matching list (so AppNodes can be accessed using 3space
// node indices)
appNodes.push_back(appNode);
appNodes.last()->mParentIndex = parentIndex;
// Check for NULL detail or AutoBillboard nodes (no children or geometry)
if ((appNode->getNumChildNodes() == 0) &&
(appNode->getNumMesh() == 0))
{
S32 size = 0x7FFFFFFF;
String dname(String::GetTrailingNumber(appNode->getName(), size));
if (dStrEqual(dname, "nulldetail") && (size != 0x7FFFFFFF))
{
shape->addDetail("detail", size, subShapeNum);
}
else if (appNode->isBillboard() && (size != 0x7FFFFFFF))
{
// AutoBillboard detail
S32 numEquatorSteps = 4;
S32 numPolarSteps = 0;
F32 polarAngle = 0.0f;
S32 dl = 0;
S32 dim = 64;
bool includePoles = true;
appNode->getInt("BB::EQUATOR_STEPS", numEquatorSteps);
appNode->getInt("BB::POLAR_STEPS", numPolarSteps);
appNode->getFloat("BB::POLAR_ANGLE", polarAngle);
appNode->getInt("BB::DL", dl);
appNode->getInt("BB::DIM", dim);
appNode->getBool("BB::INCLUDE_POLES", includePoles);
S32 detIndex = shape->addDetail( "bbDetail", size, -1 );
shape->details[detIndex].bbEquatorSteps = numEquatorSteps;
shape->details[detIndex].bbPolarSteps = numPolarSteps;
shape->details[detIndex].bbDetailLevel = dl;
shape->details[detIndex].bbDimension = dim;
shape->details[detIndex].bbIncludePoles = includePoles;
shape->details[detIndex].bbPolarAngle = polarAngle;
}
}
}
// Collect geometry
for (U32 iMesh = 0; iMesh < appNode->getNumMesh(); iMesh++)
{
AppMesh* mesh = appNode->getMesh(iMesh);
if (!ignoreMesh(mesh->getName()))
{
subshape->objMeshes.push_back(mesh);
subshape->objNodes.push_back(mesh->isSkin() ? -1 : myIndex);
}
}
// Create children
if (recurseChildren)
{
for (int iChild = 0; iChild < appNode->getNumChildNodes(); iChild++)
recurseSubshape(appNode->getChildNode(iChild), myIndex, true);
}
}
bool AppSceneEnum::processNode(AppNode * node)
{
// Helper method to help rot nodes that we find in the scene.
// At this stage we do not need to collect all the nodes
// because the tree structure will still be there when we
// build the shape. What we need to do right now is grab
// the top of all the subtrees, any meshes hanging on the
// root level (these will be lower detail levels, we don't
// need to grab meshes on the sub-trees because they will
// be found when we recurse into the sub-tree), the bounds
// node, and any sequences.
const char * name = node->getName();
const char * pname = node->getParentName();
AppConfig::PrintDump(PDPass1,avar("Processing Node %s with parent %s\r\n", name, pname));
AppSequence * seq = getSequence(node);
if (seq)
{
sequences.push_back(seq);
return true;
}
if (node->isDummy())
return false;
if (isSubtree(node))
{
// Add this node to the subtree list...
AppConfig::PrintDump(PDPass1,avar("Found subtree starting at Node \"%s\"\r\n",name));
subtrees.push_back(node);
return true;
}
// See if it is a bounding box. If so, save it as THE bounding
// box for the scene
if (node->isBounds())
{
if (boundsNode)
{
setExportError("More than one bounds node found.");
AppConfig::PrintDump(PDPass1,"More than one bounds node found.\r\n");
}
else
AppConfig::PrintDump(PDPass1,"Bounding box found\r\n");
boundsNode = node;
return true;
}
// if we use this node, then be sure to return true so the caller doesn't delete it
bool used = false;
if (node->getNumMesh()!=0)
{
for (S32 i=0; i<node->getNumMesh(); i++)
{
AppMesh * mesh = node->getMesh(i);
if (mesh->isSkin())
{
AppConfig::PrintDump(PDPass1,avar("Skin \"%s\" with parent \"%s\" added to entry list\r\n",mesh->getName(),pname));
skins.push_back(mesh);
used = true;
}
else
{
if (node->isParentRoot())
{
AppConfig::PrintDump(PDPass1,avar("Mesh \"%s\" with parent \"%s\" added to entry list\r\n",mesh->getName(),pname));
meshNodes.push_back(node);
meshes.push_back(mesh);
used = true;
}
}
}
if (used)
usedNodes.push_back(node);
}
return used;
}
