//------------------------------
bool SceneGraphCreator::recursivelyCloneINode( ImpNode* parentImportNode, INode* nodeToClone )
{
ImpNode* newImportNode = getMaxImportInterface()->CreateNode();
getMaxImportInterface()->AddNodeToScene(newImportNode);
INode* newNode = newImportNode->GetINode();
Object* object = nodeToClone->GetObjectRef();
newImportNode->Reference(object);
newNode->SetTMController(nodeToClone->GetTMController());
newImportNode->SetName(nodeToClone->GetName());
//used to assign material
addClonedINodeOriginalINodePair(newNode, nodeToClone);
INode* parentNode = parentImportNode->GetINode();
parentNode->AttachChild(newNode, TRUE);
/* If the node to clone references an object, the cloned one must references the same object.*/
COLLADAFW::UniqueId id = getUniqueIdByObjectINode(nodeToClone);
if ( id.isValid() )
{
addUniqueIdObjectINodePair(id, newNode);
addObjectINodeUniqueIdPair(newNode, id);
}
// Clone the children
for ( int i = 0, count = nodeToClone->NumberOfChildren(); i < count; ++i)
recursivelyCloneINode(newImportNode, nodeToClone->GetChildNode(i));
return true;
}
//------------------------------
bool SceneGraphCreator::create()
{
if ( !mVisualScene )
return false;
INode* rootNode = getMaxInterface()->GetRootNode();
//why does this not work: setting rotation on root node
// Matrix3 maxTransformationMatrix;
// Matrix4ToMaxMatrix3(maxTransformationMatrix, mUpAxisRotation);
// rootNode->SetNodeTM(0, maxTransformationMatrix);
//
// Matrix3 x = rootNode->GetNodeTM(0);
if( COLLADABU::Math::Matrix4::IDENTITY != mUpAxisRotation )
{
ImpNode* upAxisCorrectionNode = getMaxImportInterface()->CreateNode();
Matrix3 maxTransformationMatrix;
Matrix4ToMaxMatrix3( maxTransformationMatrix, mUpAxisRotation );
upAxisCorrectionNode->SetName(__T("upaxis"));
upAxisCorrectionNode->SetTransform(0, maxTransformationMatrix);
INode* iNode = upAxisCorrectionNode->GetINode();
upAxisCorrectionNode->Reference( getDummyObject() );
rootNode->AttachChild(iNode, FALSE);
importNodes(mVisualScene->getRootNodes(), iNode);
}
else
importNodes(mVisualScene->getRootNodes(), rootNode);
return true;
}
// PROCESSBIPNODERECURSE
// When we find a Biped-controlled node in our hierarchy, we need to find one non-biped
// child and promote it to the place of the biped node in the hierarchy. The siblings
// of the promoted node will become its children, as will the original children from the
// biped node.
void ProcessBipedNodeRecurse(INode *bipNode, INode *parent, Interface *theInterface)
{
int numChildren = bipNode->NumberOfChildren();
char *bipName = bipNode ? bipNode->GetName() : nil;
INode *replacement = nil;
for (int i = 0; i < numChildren; i++)
{
INode *child = bipNode->GetChildNode(i);
char *childName = child ? child->GetName() : nil;
if( ! HasBipController(child) )
{
replacement = child; // this child is going to be our replacement for this bipnode
// sample the animation (into global space)
plSampleVec *samples = SampleNodeMotion(replacement, bipNode, 1, theInterface);
// detach from the parent (this blows away the animation)
replacement->Detach(0);
// attach the node to the biped's parent.
parent->AttachChild(replacement);
ReapplyAnimation(child, samples);
FreeMotionSamples(samples);
// we only need one replacement for the bip node
break;
}
}
if(replacement)
{
// reparent the siblings to the newly promoted replacement node
numChildren = bipNode->NumberOfChildren();
for (int i = 0; i < numChildren; i++)
{
INode *child = bipNode->GetChildNode(i);
if( HasBipController(child) )
{
ProcessBipedNodeRecurse(child, replacement, theInterface);
} else {
child->Detach(0); // remove the (non-bip) child from the bip node
replacement->AttachChild(child); // attach it to the non-bip parent
ProcessNonBipedNodeRecurse(child, replacement, theInterface);
}
}
} else {
// this is an error condition: we've got a bip node that has no non-bip child for us to promote
char buf[256];
sprintf(buf, "Couldn't find non-bip node to transfer motion to for bip node %s\n", bipNode->GetName());
hsStatusMessage(buf);
}
}
bool SceneGraphCreator::importInstances( const COLLADAFW::PointerArray<Instance>& instanceArray, ImpNode* parentImportNode )
{
for ( size_t i = 0, count = instanceArray.getCount(); i < count; ++i)
{
Instance* instance = instanceArray[i];
ImpNode* newImportNode = getMaxImportInterface()->CreateNode();
INode* newNode = newImportNode->GetINode();
const COLLADAFW::UniqueId& uniqueId = instance->getInstanciatedObjectId();
Object* object = getObjectByUniqueId(uniqueId);
if ( object )
{
newImportNode->Reference(object);
}
else
{
newImportNode->Reference( getDummyObject() );
}
const COLLADAFW::UniqueId& instanceUniqueId = instance->getInstanciatedObjectId();
// Store mapping between unique ids and nodes referencing the corresponding object.
// Used to clone nodes
addObjectINodeUniqueIdPair(newNode, instanceUniqueId);
// Used to resolve instancing of objects
addUniqueIdObjectINodePair(instanceUniqueId, newNode);
INode* parentNode = parentImportNode->GetINode();
parentNode->AttachChild(newNode, FALSE);
// post process the creation
if ( postProcess )
(this->*postProcess)(newNode, instance);
}
return true;
}
void WMOGroupImpl::buildMaxData()
{
// Group Header Node
INode* groupHeadNode = createGroupHeaderNode();
groupHeadNode->SetGroupHead(TRUE);
groupHeadNode->SetGroupMember(FALSE);
// Geoset
// 一个Render Batch构造一个Node, 并且加入到组中
for (int i = 0; i < m_batchCount; ++i)
{
WMORenderBatch& renderBatch = m_batchData[i];
m_wmoImporter->m_logStream << "Model Geoset " << i << " Vertex Info: "
<< renderBatch.vertexStart << " -- " << renderBatch.vertexEnd << endl;
m_wmoImporter->m_logStream << "Model Geoset " << i << " Index Info: "
<< renderBatch.indexStart << " -- " << renderBatch.indexCount << endl;
// Triangle Mesh Object
// 基本的三角形模型对象
TriObject* triObject = CreateNewTriObject();
// 创建Node, 并且设为Group Header Node的子节点
ImpNode* tmpImpNode = m_wmoImporter->m_impInterface->CreateNode();
tmpImpNode->Reference(triObject);
m_wmoImporter->m_impInterface->AddNodeToScene(tmpImpNode);
INode* realINode = tmpImpNode->GetINode();
realINode->SetGroupHead(FALSE);
realINode->SetGroupMember(TRUE);
groupHeadNode->AttachChild(realINode);
m_geosetNodeList.push_back(realINode);
TCHAR nodeName[256];
sprintf(nodeName, "%s_part_%03d", m_groupName.c_str(), i);
realINode->SetName(nodeName);
// mesh
unsigned short vertexCount = renderBatch.vertexEnd - renderBatch.vertexStart + 1;
unsigned int trigangleCount = renderBatch.indexCount / 3;
Mesh& mesh = triObject->GetMesh();
mesh.setNumVerts(vertexCount);
mesh.setNumTVerts(vertexCount, TRUE);
mesh.setNumFaces(trigangleCount);
mesh.setNumTVFaces(trigangleCount);
// 顶点坐标和UV
for (int i = 0; i < vertexCount; ++i)
{
mesh.verts[i] = *(Point3*)(&(m_vertexData[renderBatch.vertexStart + i]));
// UV坐标反转
mesh.tVerts[i].x = m_textureCoords[renderBatch.vertexStart + i].x;
mesh.tVerts[i].y = 1.0f - m_textureCoords[renderBatch.vertexStart + i].y;
}
// 三角形
for (unsigned int i = 0; i < trigangleCount; ++i)
{
Face& face = mesh.faces[i];
int index1 = m_indexData[renderBatch.indexStart + i*3] - renderBatch.vertexStart;
int index2 = m_indexData[renderBatch.indexStart + i*3+1] - renderBatch.vertexStart;
int index3 = m_indexData[renderBatch.indexStart + i*3+2] - renderBatch.vertexStart;
face.setVerts(index1, index2, index3);
face.Show();
face.setEdgeVisFlags(EDGE_VIS, EDGE_VIS, EDGE_VIS);
TVFace& tface = mesh.tvFace[i];
tface.setTVerts(index1, index2, index3);
}
// 法线
mesh.SpecifyNormals();
MeshNormalSpec *specNorms = mesh.GetSpecifiedNormals();
if (specNorms)
{
specNorms->ClearAndFree();
specNorms->SetNumFaces(trigangleCount);
specNorms->SetNumNormals(vertexCount);
Point3* norms = specNorms->GetNormalArray();
for (int i = 0; i < vertexCount; ++i)
{
norms[i] = *(Point3*)(&m_normalData[renderBatch.vertexStart + i]);
}
MeshNormalFace* pFaces = specNorms->GetFaceArray();
for (unsigned int i = 0; i < trigangleCount; ++i)
{
int index1 = m_indexData[renderBatch.indexStart + i*3] - renderBatch.vertexStart;
int index2 = m_indexData[renderBatch.indexStart + i*3+1] - renderBatch.vertexStart;
int index3 = m_indexData[renderBatch.indexStart + i*3+2] - renderBatch.vertexStart;
pFaces[i].SpecifyNormalID(0, index1);
pFaces[i].SpecifyNormalID(1, index2);
pFaces[i].SpecifyNormalID(2, index3);
}
specNorms->SetAllExplicit(true);
specNorms->CheckNormals();
}
// 删除重复的和无效的面
mesh.RemoveDegenerateFaces();
mesh.RemoveIllegalFaces();
realINode->SetMtl(m_wmoImporter->m_materialList[renderBatch.texture]);
//realINode->BackCull(FALSE); // 取消背面裁减 不是所有的Node都要取消背面裁减
realINode->EvalWorldState(0);
}
}
int importAlembicScene(AbcArchiveCache *pArchiveCache,
AbcObjectCache *pRootObjectCache,
alembic_importoptions &options, std::string &file,
progressUpdate &progress,
std::map<std::string, bool> &nodeFullPaths)
{
std::vector<stackElement> sceneStack;
sceneStack.reserve(200);
for (size_t j = 0; j < pRootObjectCache->childIdentifiers.size(); j++) {
sceneStack.push_back(stackElement(
&(pArchiveCache->find(pRootObjectCache->childIdentifiers[j])->second)));
}
while (!sceneStack.empty()) {
stackElement sElement = sceneStack.back();
sceneStack.pop_back();
Abc::IObject &iObj = sElement.pObjectCache->obj;
INode *pParentMaxNode = sElement.pParentMaxNode;
if (!iObj.valid()) {
return alembic_failure;
}
const std::string fullname = iObj.getFullName();
const std::string pname = (pParentMaxNode)
? EC_MCHAR_to_UTF8(pParentMaxNode->GetName())
: std::string("");
const std::string name = iObj.getName();
ESS_LOG_INFO("Importing " << fullname);
bool bCreateDummyNode = false;
int mergedGeomNodeIndex = -1;
AbcObjectCache *pMergedObjectCache = NULL;
getMergeInfo(pArchiveCache, sElement.pObjectCache, bCreateDummyNode,
mergedGeomNodeIndex, &pMergedObjectCache);
INode *pMaxNode =
NULL; // the newly create node, which may be a merged node
INode *pExistingNode = NULL;
int keepTM = 1; // I don't remember why this needed to be set in some
// cases.
bool bCreateNode = true;
if (!nodeFullPaths.empty()) {
if (mergedGeomNodeIndex != -1) {
AbcG::IObject mergedGeomChild = pMergedObjectCache->obj;
bCreateNode = nodeFullPaths.find(mergedGeomChild.getFullName()) !=
nodeFullPaths.end();
}
else {
bCreateNode = nodeFullPaths.find(fullname) != nodeFullPaths.end();
}
}
if (bCreateNode) {
// if we are about to merge a camera with its parent transform, force it
// to create a dummy node instead if the camera's
// transform also has children. This is done to prevent the camera
// correction matrix from being applied to the other children
if (!bCreateDummyNode && pMergedObjectCache &&
sElement.pObjectCache->childIdentifiers.size() > 1 &&
AbcG::ICamera::matches(pMergedObjectCache->obj.getMetaData())) {
bCreateDummyNode = true;
mergedGeomNodeIndex = -1;
}
if (bCreateDummyNode) {
std::string importName = removeXfoSuffix(iObj.getName());
pExistingNode = GetChildNodeFromName(importName, pParentMaxNode);
if (options.attachToExisting && pExistingNode) {
pMaxNode = pExistingNode;
// see if a controller already exists, and then delete it
int ret = AlembicImport_XForm(pParentMaxNode, pMaxNode, iObj, NULL,
file, options);
if (ret != 0) {
return ret;
}
} // only create node if either attachToExisting is false or it is true
// and the object does not already exist
else {
int ret =
AlembicImport_DummyNode(iObj, options, &pMaxNode, importName);
if (ret != 0) {
return ret;
}
ret = AlembicImport_XForm(pParentMaxNode, pMaxNode, iObj, NULL, file,
options);
if (ret != 0) {
return ret;
}
}
}
else {
if (mergedGeomNodeIndex !=
-1) { // we are merging, so look at the child geometry node
AbcG::IObject mergedGeomChild = pMergedObjectCache->obj;
std::string importName =
removeXfoSuffix(iObj.getName()); // mergedGeomChild.getName());
pExistingNode = GetChildNodeFromName(importName, pParentMaxNode);
if (options.attachToExisting && pExistingNode) {
pMaxNode = pExistingNode;
} // only create node if either attachToExisting is false or it is
// true and the object does not already exist
int ret =
createAlembicObject(mergedGeomChild, &pMaxNode, options, file);
if (ret != 0) {
return ret;
}
if (pMaxNode != NULL) {
ret = AlembicImport_XForm(pParentMaxNode, pMaxNode, iObj,
&mergedGeomChild, file, options);
if (ret != 0) {
return ret;
}
}
}
else { // geometry node(s) under a dummy node (in pParentMaxNode)
pExistingNode = GetChildNodeFromName(iObj.getName(), pParentMaxNode);
if (options.attachToExisting && pExistingNode) {
pMaxNode = pExistingNode;
} // only create node if either attachToExisting is false or it is
// true and the object does not already exist
int ret = createAlembicObject(iObj, &pMaxNode, options, file);
if (ret != 0) {
return ret;
}
// since the transform is the identity, should position relative to
// parent
keepTM = 0;
if (AbcG::ICamera::matches(iObj.getMetaData())) {
// apply camera adjustment matrix to the identity
Matrix3 rotation(TRUE);
rotation.RotateX(HALFPI);
TimeValue zero(0);
pMaxNode->SetNodeTM(zero, rotation);
}
// import identity matrix, since more than goemetry node share the
// same transform
// Should we just list MAX put a default position/scale/rotation
// controller on?
// int ret = AlembicImport_XForm(pMaxNode, *piParentObj, file,
// options);
}
if (options.failOnUnsupported) {
if (!pMaxNode) {
return alembic_failure;
}
}
}
}
if (pMaxNode && pParentMaxNode && !pExistingNode) {
pParentMaxNode->AttachChild(pMaxNode, keepTM);
}
progress.increment();
progress.update();
if (pMaxNode) {
for (size_t j = 0; j < sElement.pObjectCache->childIdentifiers.size();
j++) {
AbcObjectCache *pChildObjectCache =
&(pArchiveCache->find(sElement.pObjectCache->childIdentifiers[j])
->second);
if (NodeCategory::get(pChildObjectCache->obj) ==
NodeCategory::UNSUPPORTED) {
continue; // skip over unsupported types
}
// I assume that geometry nodes are always leaf nodes. Thus, if we
// merged a geometry node will its parent transform, we don't
// need to push it to the stack.
// A geometry node can't be combined with its transform node, the
// transform node has other tranform nodes as children. These
// nodes must be pushed.
if (mergedGeomNodeIndex != j) {
sceneStack.push_back(stackElement(pChildObjectCache, pMaxNode));
}
}
}
}
return alembic_success;
}
void NifImporter::ImportBones(NiNodeRef node, bool recurse)
{
try
{
if (uncontrolledDummies)
BuildControllerRefList(node, ctrlCount);
string name = node->GetName();
vector<NiAVObjectRef> children = node->GetChildren();
vector<NiNodeRef> childNodes = DynamicCast<NiNode>(children);
NiAVObject::CollisionType cType = node->GetCollisionMode();
if (children.empty() && name == "Bounding Box")
return;
// Do all node manipulations here
NiNodeRef parent = node->GetParent();
string parentname = (parent ? parent->GetName() : "");
Matrix44 m4 = node->GetWorldTransform();
// Check for Prn strings and change parent if necessary
if (supportPrnStrings) {
list<NiStringExtraDataRef> strings = DynamicCast<NiStringExtraData>(node->GetExtraData());
for (list<NiStringExtraDataRef>::iterator itr = strings.begin(); itr != strings.end(); ++itr){
if (strmatch((*itr)->GetName(), "Prn")) {
parentname = (*itr)->GetData();
if (INode *pn = gi->GetINodeByName(parentname.c_str())){
// Apparently Heads tend to need to be rotated 90 degrees on import for
if (!rotate90Degrees.empty() && wildmatch(rotate90Degrees, parentname)) {
m4 *= TOMATRIX4(RotateYMatrix(TORAD(90)));
}
m4 *= TOMATRIX4(pn->GetObjTMAfterWSM(0, NULL));
}
}
}
}
float len = node->GetLocalTranslation().Magnitude();
// Remove NonAccum nodes and merge into primary bone
if (mergeNonAccum && wildmatch("* NonAccum", name) && parent)
{
string realname = name.substr(0, name.length() - 9);
if (strmatch(realname, parent->GetName()))
{
Matrix44 tm = parent->GetLocalTransform() * node->GetLocalTransform();
name = realname;
len += tm.GetTranslation().Magnitude();
parent = parent->GetParent();
}
}
PosRotScale prs = prsDefault;
Vector3 pos; Matrix33 rot; float scale;
m4.Decompose(pos, rot, scale);
Matrix3 im = TOMATRIX3(m4);
Point3 p = im.GetTrans();
Quat q(im);
//q.Normalize();
Vector3 ppos;
Point3 zAxis(0,0,0);
bool hasChildren = !children.empty();
if (hasChildren) {
float len = 0.0f;
for (vector<NiAVObjectRef>::iterator itr=children.begin(), end = children.end(); itr != end; ++itr) {
len += GetObjectLength(*itr);
}
len /= float(children.size());
ppos = pos + Vector3(len, 0.0f, 0.0f); // just really need magnitude as rotation will take care of positioning
}
else if (parent)
{
ppos = pos + Vector3(len/3.0f, 0.0f, 0.0f);
}
Point3 pp(ppos.x, ppos.y, ppos.z);
Point3 qp = TORAD(TOEULER(im));
INode *bone = NULL;
if (!doNotReuseExistingBones) // Games like BC3 reuse the same bone names
{
bone = FindNode(node);
if (bone == NULL)
bone = gi->GetINodeByName(name.c_str());
}
if (bone)
{
// Is there a better way of "Affect Pivot Only" behaviors?
INode *pinode = bone->GetParentNode();
if (pinode)
bone->Detach(0,1);
PosRotScaleNode(bone, p, q, scale, prs);
if (pinode)
pinode->AttachChild(bone, 1);
}
else
{
bool isDummy = ( (uncontrolledDummies && !HasControllerRef(ctrlCount, name))
|| (!dummyNodeMatches.empty() && wildmatch(dummyNodeMatches, name))
|| (convertBillboardsToDummyNodes && node->IsDerivedType(NiBillboardNode::TYPE))
);
if (wildmatch("Camera*", name)) {
if (enableCameras) {
if (bone = CreateCamera(name)) {
PosRotScaleNode(bone, p, q, scale, prs);
bone->Hide(node->GetVisibility() ? FALSE : TRUE);
}
}
}else if (isDummy && createNubsForBones)
bone = CreateHelper(name, p);
else if (bone = CreateBone(name, p, pp, zAxis))
{
PosRotScaleNode(bone, p, q, scale, prs);
bone->Hide(node->GetVisibility() ? FALSE : TRUE);
}
if (bone)
{
if (!parentname.empty())
{
if (mergeNonAccum && wildmatch("* NonAccum", parentname)) {
parentname = parentname.substr(0, parentname.length() - 9);
}
if (INode *pn = gi->GetINodeByName(parentname.c_str()))
pn->AttachChild(bone, 1);
}
RegisterNode(node, bone);
}
}
// Import UPB
if (bone) ImportUPB(bone, node);
// Import Havok Collision Data surrounding node,
// unfortunately this causes double import of collision so I'm disabling it for now.
if (enableCollision && node->GetParent()) {
ImportCollision(node);
}
if (bone && recurse)
{
ImportBones(childNodes);
}
}
catch( exception & e )
{
e=e;
}
catch( ... )
{
}
}
// 1. 加载模型顶点数据
void M2Importer::importGeomObject()
{
// Group Header Node
INode* groupHeadNode = createGroupHeaderNode();
groupHeadNode->SetGroupHead(TRUE);
groupHeadNode->SetGroupMember(FALSE);
if (m_modelHeader->nameLength > 1)
{
TCHAR* modelName = (TCHAR*)(m_m2FileData + m_modelHeader->nameOfs);
groupHeadNode->SetName(modelName);
m_logStream << "ModelName: " << modelName << endl;
}
else
groupHeadNode->SetName("GeomGroup");
// Geoset
// 一个Geoset构造一个Node, 并且加入到组中
unsigned short* verDataIndex = (unsigned short*)(m_m2FileData + m_modelView->ofsIndex);
unsigned short* triData = (unsigned short*)(m_m2FileData + m_modelView->ofsTris);
m_geosetNodeList.reserve(m_modelView->nSub);
m_materialList.reserve(m_modelView->nSub);
for (unsigned int i = 0; i < m_modelView->nSub; ++i)
m_materialList.push_back(0);
for (unsigned int i = 0; i < m_modelView->nSub; ++i)
{
ModelGeoset& geosetData = m_modelGeoset[i];
// Triangle Mesh Object
// 基本的三角形模型对象
TriObject* triObject = CreateNewTriObject();
// 创建Node, 并且设为Group Header Node的子节点
ImpNode* tmpImpNode = m_impInterface->CreateNode();
tmpImpNode->Reference(triObject);
//tmpImpNode->SetPivot(*(Point3*)&(geosetData.v));
m_impInterface->AddNodeToScene(tmpImpNode);
INode* realINode = tmpImpNode->GetINode();
realINode->SetGroupHead(FALSE);
realINode->SetGroupMember(TRUE);
groupHeadNode->AttachChild(realINode);
m_geosetNodeList.push_back(realINode);
TCHAR nodeName[256];
sprintf(nodeName, "GeosetPart_%d", i);
realINode->SetName(nodeName);
// mesh
Mesh& mesh = triObject->GetMesh();
mesh.setNumVerts(geosetData.vcount);
mesh.setNumTVerts(geosetData.vcount, TRUE);
unsigned int triangeCount = geosetData.icount / 3;
mesh.setNumFaces(triangeCount);
mesh.setNumTVFaces(triangeCount);
m_logStream << "Model Geoset " << i << " Vertex Count: " << geosetData.vcount << endl;
m_logStream << "Model Geoset " << i << " Index Count: " << triangeCount << endl;
// 顶点坐标和UV
for (unsigned int i = 0; i < geosetData.vcount; ++i)
{
ModelVertex& vertexData = m_globalVertices[ verDataIndex[geosetData.vstart + i] ];
mesh.verts[i] = *(Point3*)(&vertexData.pos);
// UV坐标反转
mesh.tVerts[i].x = vertexData.texcoords.x;
mesh.tVerts[i].y = 1.0f - vertexData.texcoords.y;
}
// 三角形
for (unsigned int i = 0; i < triangeCount; ++i)
{
Face& face = mesh.faces[i];
face.setVerts(triData[geosetData.istart + i*3] - m_indexCount,
triData[geosetData.istart + i*3+1] - m_indexCount,
triData[geosetData.istart + i*3+2] - m_indexCount);
face.Show();
face.setEdgeVisFlags(EDGE_VIS, EDGE_VIS, EDGE_VIS);
TVFace& tface = mesh.tvFace[i];
tface.setTVerts(triData[geosetData.istart + i*3] - m_indexCount,
triData[geosetData.istart + i*3+1] - m_indexCount,
triData[geosetData.istart + i*3+2] - m_indexCount);
}
// 法线
mesh.SpecifyNormals();
MeshNormalSpec *specNorms = mesh.GetSpecifiedNormals();
if (specNorms)
{
specNorms->ClearAndFree();
specNorms->SetNumFaces(triangeCount);
specNorms->SetNumNormals(geosetData.vcount);
Point3* norms = specNorms->GetNormalArray();
for (unsigned int i = 0; i < geosetData.vcount; ++i)
{
ModelVertex& vertexData = m_globalVertices[ verDataIndex[geosetData.vstart + i] ];
norms[i] = *(Point3*)(&vertexData.normal);
}
MeshNormalFace* pFaces = specNorms->GetFaceArray();
for (unsigned int i = 0; i < triangeCount; ++i)
{
pFaces[i].SpecifyNormalID(0, triData[geosetData.istart + i*3] - m_indexCount);
pFaces[i].SpecifyNormalID(1, triData[geosetData.istart + i*3+1] - m_indexCount);
pFaces[i].SpecifyNormalID(2, triData[geosetData.istart + i*3+2] - m_indexCount);
}
specNorms->SetAllExplicit(true);
specNorms->CheckNormals();
}
// 删除重复的和无效的面
mesh.RemoveDegenerateFaces();
mesh.RemoveIllegalFaces();
//realINode->BackCull(FALSE); // 取消背面裁减 双面绘制与取消背面裁减一起设置
realINode->EvalWorldState(0);
// 索引值修正
m_indexCount += geosetData.vcount;
}
// 加载材质
unsigned short* texLookupData = (unsigned short*)(m_m2FileData + m_modelHeader->ofsTexLookup);
ModelTextureDef* texUnitDefData = (ModelTextureDef*)(m_m2FileData + m_modelHeader->ofsTextures);
ModelTexUnit* texUnitData = (ModelTexUnit*)(m_m2FileData + m_modelView->ofsTex);
for (unsigned int i = 0; i < m_modelView->nTex; ++i)
{
ModelTexUnit& texUnit = texUnitData[i];
unsigned short textureID = texLookupData[texUnit.textureid];
ModelTextureDef& texDef = texUnitDefData[textureID];
string textureName;
if (texDef.type == 0)
textureName = (LPCSTR)(m_m2FileData + texDef.nameOfs);
else
textureName = getReplacableTexture(texDef.type);
StdMat2* material = m_materialList[texUnit.op];
if (!material)
material = createMaterial();
// 根据混合属性决定加在第几层
material->SetSubTexmap(ID_DI, createTexture(textureName.c_str()));
material->EnableMap(ID_DI, TRUE);
//material->SetTwoSided(TRUE); // 双面 设置了此标志的才打开
m_maxInterface->GetMaterialLibrary().Add(material);
m_geosetNodeList[texUnit.op]->SetMtl(material);
}
m_maxInterface->RedrawViews(m_maxInterface->GetTime());
}
// 2. 加载骨骼数据
void M2Importer::importBoneObject()
{
// Bone Group Header Node
INode* groupHeadNode = createGroupHeaderNode();
groupHeadNode->SetGroupHead(TRUE);
groupHeadNode->SetGroupMember(FALSE);
if (m_modelHeader->nameLength > 1)
{
TCHAR* modelName = (TCHAR*)(m_m2FileData + m_modelHeader->nameOfs);
TCHAR boneGroupName[256];
sprintf(boneGroupName, "%s_bone", modelName);
groupHeadNode->SetName(boneGroupName);
}
else
groupHeadNode->SetName("BoneGroup");
// Bone
// 一个Bone构造一个Node, 并且加入到组中
ModelBoneDef* boneData = (ModelBoneDef*)(m_m2FileData + m_modelHeader->ofsBones);
m_boneNodeList.reserve(m_modelHeader->nBones);
for (unsigned int i = 0; i < m_modelHeader->nBones; ++i)
{
ModelBoneDef& boneDef = boneData[i];
// create bone node
HelperObject* obj = (HelperObject*)CreateInstance(HELPER_CLASS_ID, Class_ID(BONE_CLASS_ID, 0));
ImpNode* node = m_impInterface->CreateNode();
TCHAR boneName[256];
sprintf(boneName, "bone_%02d", i);
node->SetName(boneName);
node->SetPivot(*(Point3*)&(boneDef.pivot));
node->Reference(obj);
m_impInterface->AddNodeToScene(node);
// 设置变换矩阵
Matrix3 tm;
tm.IdentityMatrix();
tm.SetTrans(*(Point3*)&(boneDef.pivot));
node->SetTransform(0, tm);
// 添加到组
INode* realINode = node->GetINode();
realINode->SetGroupHead(FALSE);
realINode->SetGroupMember(TRUE);
groupHeadNode->AttachChild(realINode);
// 设置Bone父子关系
realINode->ShowBone(2);
m_boneNodeList.push_back(realINode);
if (boneDef.parent != -1)
{
INode* parentNode = m_boneNodeList[boneDef.parent];
parentNode->AttachChild(realINode);
}
realINode->EvalWorldState(0);
}
// 导入每根骨骼的关键桢数据
for (unsigned int i = 0; i < m_modelHeader->nBones; ++i)
{
ModelBoneDef& boneDef = boneData[i];
INode* realINode = m_boneNodeList[i];
Control* tmControl = realINode->GetTMController();
// Position
if (boneDef.translation.nKeys)
{
// 设置动画控制器为线性控制器
Control* posControl = createPositionController();
tmControl->SetPositionController(posControl);
unsigned int* timeData = (unsigned int*)(m_m2FileData + boneDef.translation.ofsTimes);
Point3* keyData = (Point3*)(m_m2FileData + boneDef.translation.ofsKeys);
// 设置动画时间范围
bool animRangeChanged = false;
Interval animRange = m_maxInterface->GetAnimRange();
for (unsigned int j = 0; j < boneDef.translation.nKeys; ++j)
{
if (timeData[j] < animRange.Start())
{
animRange.SetStart(timeData[j]);
animRangeChanged = true;
}
else if (timeData[j] > animRange.End())
{
animRange.SetEnd(timeData[j]);
animRangeChanged = true;
}
}
if (animRangeChanged)
m_maxInterface->SetAnimRange(animRange);
// 设置动画关键桢数据
Control* xControl = posControl->GetXController();
IKeyControl* xKeyControl = GetKeyControlInterface(xControl);
xKeyControl->SetNumKeys(boneDef.translation.nKeys);
Control* yControl = posControl->GetYController();
IKeyControl* yKeyControl = GetKeyControlInterface(yControl);
yKeyControl->SetNumKeys(boneDef.translation.nKeys);
Control* zControl = posControl->GetZController();
IKeyControl* zKeyControl = GetKeyControlInterface(zControl);
zKeyControl->SetNumKeys(boneDef.translation.nKeys);
for (unsigned int j = 0; j < boneDef.translation.nKeys; ++j)
{
// X
AnyKey bufX;
ILinFloatKey* keyX = reinterpret_cast<ILinFloatKey*>((IKey*)bufX);
keyX->time = timeData[j];
keyX->val = keyData[j].x;
xKeyControl->AppendKey(keyX);
// Y
AnyKey bufY;
ILinFloatKey* keyY = reinterpret_cast<ILinFloatKey*>((IKey*)bufY);
keyY->time = timeData[j];
keyY->val = keyData[j].y;
yKeyControl->AppendKey(keyY);
// Z
AnyKey bufZ;
ILinFloatKey* keyZ = reinterpret_cast<ILinFloatKey*>((IKey*)bufZ);
keyZ->time = timeData[j];
keyZ->val = keyData[j].z;
zKeyControl->AppendKey(keyZ);
}
}
/*
// Rotation
if (boneDef.rotation.nKeys)
{
Control* rotControl = createRotationController();
tmControl->SetRotationController(rotControl);
unsigned int* timeData = (unsigned int*)(m_m2FileData + boneDef.rotation.ofsTimes);
Quat* keyData = (Quat*)(m_m2FileData + boneDef.rotation.ofsKeys);
// 设置动画时间范围
bool animRangeChanged = false;
Interval animRange = m_maxInterface->GetAnimRange();
for (unsigned int j = 0; j < boneDef.rotation.nKeys; ++j)
{
if (timeData[j] < animRange.Start())
{
animRange.SetStart(timeData[j]);
animRangeChanged = true;
}
else if (timeData[j] > animRange.End())
{
animRange.SetEnd(timeData[j]);
animRangeChanged = true;
}
}
if (animRangeChanged)
m_maxInterface->SetAnimRange(animRange);
// 设置动画关键桢数据
IKeyControl* keyControl = GetKeyControlInterface(rotControl);
keyControl->SetNumKeys(boneDef.rotation.nKeys);
for (unsigned int j = 0; j < boneDef.rotation.nKeys; ++j)
{
AnyKey buf;
ILinRotKey* key = reinterpret_cast<ILinRotKey*>((IKey*)buf);
key->time = timeData[j];
key->val = keyData[j];
keyControl->AppendKey(key);
}
}
*/
// Scaling
if (boneDef.scaling.nKeys)
{
Control* scaControl = createScaleController();
tmControl->SetScaleController(scaControl);
unsigned int* timeData = (unsigned int*)(m_m2FileData + boneDef.scaling.ofsTimes);
Point3* keyData = (Point3*)(m_m2FileData + boneDef.scaling.ofsKeys);
// 设置动画时间范围
bool animRangeChanged = false;
Interval animRange = m_maxInterface->GetAnimRange();
for (unsigned int j = 0; j < boneDef.scaling.nKeys; ++j)
{
if (timeData[j] < animRange.Start())
{
animRange.SetStart(timeData[j]);
animRangeChanged = true;
}
else if (timeData[j] > animRange.End())
{
animRange.SetEnd(timeData[j]);
animRangeChanged = true;
}
}
if (animRangeChanged)
m_maxInterface->SetAnimRange(animRange);
// 设置动画关键桢数据
IKeyControl* keyControl = GetKeyControlInterface(scaControl);
keyControl->SetNumKeys(boneDef.scaling.nKeys);
for (unsigned int j = 0; j < boneDef.scaling.nKeys; ++j)
{
AnyKey buf;
ILinScaleKey* key = reinterpret_cast<ILinScaleKey*>((IKey*)buf);
key->time = timeData[j];
key->val = ScaleValue(keyData[j]);
keyControl->AppendKey(key);
}
}
}
}