void FW::profilePush(const char* id)
{
if (!s_profileStarted)
return;
if (!Thread::isMain())
fail("profilePush() can only be used in the main thread!");
// Find or create token.
S32 token;
S32* found = s_profilePointerToToken.search(id);
if (found)
token = *found;
else
{
found = s_profileStringToToken.search(id);
if (found)
token = *found;
else
{
token = s_profileStringToToken.getSize();
s_profileStringToToken.add(id, token);
}
s_profilePointerToToken.add(id, token);
}
// Find or create timer.
Vec2i timerKey(-1, token);
if (s_profileStack.getSize())
timerKey.x = s_profileStack.getLast();
S32 timerIdx;
found = s_profileTimerHash.search(timerKey);
if (found)
timerIdx = *found;
else
{
timerIdx = s_profileTimers.getSize();
s_profileTimerHash.add(timerKey, timerIdx);
ProfileTimer& timer = s_profileTimers.add();
timer.id = id;
timer.parent = timerKey.x;
if (timerKey.x != -1)
s_profileTimers[timerKey.x].children.add(timerIdx);
}
// Push timer.
if (s_profileStack.getSize() == 1)
s_profileTimers[s_profileStack[0]].timer.start();
s_profileStack.add(timerIdx);
if (s_profileStack.getSize() > 1)
s_profileTimers[timerIdx].timer.start();
}
void FW::popMemOwner(void)
{
#if FW_MEM_DEBUG
U32 threadID = Thread::getID();
Array<const char*>* stack = s_memOwnerStacks.search(threadID);
if (stack)
{
stack->removeLast();
if (!stack->getSize())
{
s_memOwnerStacks.remove(threadID);
if (!s_memOwnerStacks.getSize())
s_memOwnerStacks.reset();
}
}
#endif
}
void FW::exportWavefrontMesh(BufferedOutputStream& stream, const MeshBase* mesh, const String& fileName)
{
FW_ASSERT(mesh);
Mesh<VertexPNT> pnt(*mesh);
// Extract base name.
String dirName = fileName.getDirName();
String baseName = fileName.getFileName();
int idx = baseName.indexOf('.');
if (idx != -1)
baseName = baseName.substring(0, idx);
// Write OBJ file.
if (baseName.getLength())
{
stream.writef("mtllib %s.mtl\n", baseName.getPtr());
stream.writef("\n");
}
for (int i = 0; i < pnt.numVertices(); i++)
{
const VertexPNT& v = pnt.vertex(i);
stream.writef("v %g %g %g\n", v.p.x, v.p.y, v.p.z);
}
stream.writef("\n");
for (int i = 0; i < pnt.numVertices(); i++)
{
const VertexPNT& v = pnt.vertex(i);
stream.writef("vt %g %g\n", v.t.x, 1.0f - v.t.y);
}
stream.writef("\n");
for (int i = 0; i < pnt.numVertices(); i++)
{
const VertexPNT& v = pnt.vertex(i);
stream.writef("vn %g %g %g\n", v.n.x, v.n.y, v.n.z);
}
for (int i = 0; i < pnt.numSubmeshes(); i++)
{
stream.writef("\n");
if (baseName.getLength())
stream.writef("usemtl %d\n", i);
const Array<Vec3i>& tris = pnt.indices(i);
for (int j = 0; j < tris.getSize(); j++)
{
Vec3i v = tris[j] + 1;
stream.writef("f %d/%d/%d %d/%d/%d %d/%d/%d\n",
v.x, v.x, v.x,
v.y, v.y, v.y,
v.z, v.z, v.z);
}
}
// No base name => do not write materials.
if (!baseName.getLength())
return;
// Hash textures and determine file names.
Hash<const Image*, String> texImageHash;
Set<String> texNameSet;
for (int i = 0; i < pnt.numSubmeshes(); i++)
{
const MeshBase::Material& mat = pnt.material(i);
for (int j = 0; j < MeshBase::TextureType_Max; j++)
{
const Texture& tex = mat.textures[j];
if (!tex.exists() || texImageHash.contains(tex.getImage()))
continue;
// Extract name from ID.
String name = tex.getID().getFileName();
int idx = name.indexOf('.');
if (idx != -1)
name = name.substring(0, idx);
// No name => generate one.
if (!name.getLength())
name = sprintf("tex%d", texImageHash.getSize());
// Ensure that the name is unique.
String oldName = name;
for (int k = 0; texNameSet.contains(name); k++)
name = sprintf("%s_%d", oldName.getPtr(), k);
// Append format postfix.
name += ".png";
// Record.
texImageHash.add(tex.getImage(), name);
texNameSet.add(name);
}
}
// Write MTL file.
File mtlFile(dirName + '/' + baseName + ".mtl", File::Create);
BufferedOutputStream mtlOut(mtlFile);
for (int i = 0; i < pnt.numSubmeshes(); i++)
{
if (i)
mtlOut.writef("\n");
const MeshBase::Material& mat = pnt.material(i);
mtlOut.writef("newmtl %d\n", i);
mtlOut.writef("Ka 0 0 0\n");
mtlOut.writef("Kd %g %g %g\n", mat.diffuse.x, mat.diffuse.y, mat.diffuse.z);
mtlOut.writef("d %g\n", mat.diffuse.w);
mtlOut.writef("Ks %g %g %g\n", mat.specular.x, mat.specular.y, mat.specular.z);
mtlOut.writef("Ns %g\n", mat.glossiness);
if (texImageHash.contains(mat.textures[MeshBase::TextureType_Diffuse].getImage()))
mtlOut.writef("map_Kd %s\n", texImageHash[mat.textures[MeshBase::TextureType_Diffuse].getImage()].getPtr());
if (texImageHash.contains(mat.textures[MeshBase::TextureType_Alpha].getImage()))
mtlOut.writef("map_d %s\n", texImageHash[mat.textures[MeshBase::TextureType_Alpha].getImage()].getPtr());
if (texImageHash.contains(mat.textures[MeshBase::TextureType_Displacement].getImage()))
mtlOut.writef("disp -mm %g %g %s\n",
mat.displacementBias / mat.displacementCoef, mat.displacementCoef,
texImageHash[mat.textures[MeshBase::TextureType_Displacement].getImage()].getPtr());
if (texImageHash.contains(mat.textures[MeshBase::TextureType_Normal].getImage()))
mtlOut.writef("bump %s\n", texImageHash[mat.textures[MeshBase::TextureType_Normal].getImage()].getPtr());
if (texImageHash.contains(mat.textures[MeshBase::TextureType_Environment].getImage()))
mtlOut.writef("refl -type sphere %s\n", texImageHash[mat.textures[MeshBase::TextureType_Environment].getImage()].getPtr());
}
mtlOut.flush();
// Write textures.
for (int i = texImageHash.firstSlot(); i != -1; i = texImageHash.nextSlot(i))
{
const Image* texImage = texImageHash.getSlot(i).key;
const String& texName = texImageHash.getSlot(i).value;
exportImage(dirName + '/' + texName, texImage);
}
}
