void MovableText::_updateColors(void)
{
assert(mpFont);
assert(!mpMaterial.isNull());
// Convert to system-specific
RGBA color;
Root::getSingleton().convertColourValue(mColor, &color);
HardwareVertexBufferSharedPtr vbuf = mRenderOp.vertexData->vertexBufferBinding->getBuffer(COLOUR_BINDING);
//RGBA *pDest = static_cast<RGBA*>(vbuf->lock(HardwareBuffer::HBL_NORMAL));
RGBA* pDest=(RGBA*)malloc(vbuf->getSizeInBytes());
RGBA* oDest=pDest;
for (uint i = 0; i < mRenderOp.vertexData->vertexCount; ++i)
*pDest++ = color;
//vbuf->unlock();
vbuf->writeData(0, vbuf->getSizeInBytes(), oDest, true);
free(oDest);
mUpdateColors = false;
}
//---------------------------------------------------------------------
void PrefabFactory::createPlane(Mesh* mesh)
{
SubMesh* sub = mesh->createSubMesh();
float vertices[32] = {
-100, -100, 0, // pos
0,0,1, // normal
0,1, // texcoord
100, -100, 0,
0,0,1,
1,1,
100, 100, 0,
0,0,1,
1,0,
-100, 100, 0 ,
0,0,1,
0,0
};
mesh->sharedVertexData = OGRE_NEW VertexData();
mesh->sharedVertexData->vertexCount = 4;
VertexDeclaration* decl = mesh->sharedVertexData->vertexDeclaration;
VertexBufferBinding* bind = mesh->sharedVertexData->vertexBufferBinding;
size_t offset = 0;
decl->addElement(0, offset, VET_FLOAT3, VES_POSITION);
offset += VertexElement::getTypeSize(VET_FLOAT3);
decl->addElement(0, offset, VET_FLOAT3, VES_NORMAL);
offset += VertexElement::getTypeSize(VET_FLOAT3);
decl->addElement(0, offset, VET_FLOAT2, VES_TEXTURE_COORDINATES, 0);
offset += VertexElement::getTypeSize(VET_FLOAT2);
HardwareVertexBufferSharedPtr vbuf =
HardwareBufferManager::getSingleton().createVertexBuffer(
offset, 4, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
bind->setBinding(0, vbuf);
vbuf->writeData(0, vbuf->getSizeInBytes(), vertices, true);
sub->useSharedVertices = true;
HardwareIndexBufferSharedPtr ibuf = HardwareBufferManager::getSingleton().
createIndexBuffer(
HardwareIndexBuffer::IT_16BIT,
6,
HardwareBuffer::HBU_STATIC_WRITE_ONLY);
unsigned short faces[6] = {0,1,2,
0,2,3 };
sub->indexData->indexBuffer = ibuf;
sub->indexData->indexCount = 6;
sub->indexData->indexStart =0;
ibuf->writeData(0, ibuf->getSizeInBytes(), faces, true);
mesh->_setBounds(AxisAlignedBox(-100,-100,0,100,100,0), true);
mesh->_setBoundingSphereRadius(Math::Sqrt(100*100+100*100));
}
void ColoredTextAreaOverlayElement::updateColours(void)
{
if(!mRenderOp.vertexData) return;
// Convert to system-specific
RGBA topColour, bottomColour;
// Set default to white
Root::getSingleton().convertColourValue(ColourValue::White, &topColour);
Root::getSingleton().convertColourValue(ColourValue::White, &bottomColour);
HardwareVertexBufferSharedPtr vbuf =
mRenderOp.vertexData->vertexBufferBinding->getBuffer(COLOUR_BINDING);
//RGBA* pDest = static_cast<RGBA*>(
// vbuf->lock(HardwareBuffer::HBL_NORMAL) );
RGBA* pDest=(RGBA*)malloc(vbuf->getSizeInBytes());
RGBA* oDest=pDest;
for (size_t i = 0; i < mAllocSize; ++i)
{
if (i < m_Colors.size())
{
Root::getSingleton().convertColourValue(GetColor(m_Colors[i], m_ValueTop), &topColour);
Root::getSingleton().convertColourValue(GetColor(m_Colors[i], m_ValueBottom), &bottomColour);
}
// First tri (top, bottom, top)
*pDest++ = topColour;
*pDest++ = bottomColour;
*pDest++ = topColour;
// Second tri (top, bottom, bottom)
*pDest++ = topColour;
*pDest++ = bottomColour;
*pDest++ = bottomColour;
}
vbuf->writeData(0, vbuf->getSizeInBytes(), oDest, true);
free(oDest);
//vbuf->unlock();
}
//-----------------------------------------------------------------------
HardwareVertexBufferSharedPtr
HardwareBufferManagerBase::allocateVertexBufferCopy(
const HardwareVertexBufferSharedPtr& sourceBuffer,
BufferLicenseType licenseType, HardwareBufferLicensee* licensee,
bool copyData)
{
// pre-lock the mVertexBuffers mutex, which would usually get locked in
// makeBufferCopy / createVertexBuffer
// this prevents a deadlock in _notifyVertexBufferDestroyed
// which locks the same mutexes (via other methods) but in reverse order
OGRE_LOCK_MUTEX(mVertexBuffersMutex);
{
OGRE_LOCK_MUTEX(mTempBuffersMutex);
HardwareVertexBufferSharedPtr vbuf;
// Locate existing buffer copy in temporary vertex buffers
FreeTemporaryVertexBufferMap::iterator i =
mFreeTempVertexBufferMap.find(sourceBuffer.get());
if (i == mFreeTempVertexBufferMap.end())
{
// copy buffer, use shadow buffer and make dynamic
vbuf = makeBufferCopy(
sourceBuffer,
HardwareBuffer::HBU_DYNAMIC_WRITE_ONLY_DISCARDABLE,
true);
}
else
{
// Allocate existing copy
vbuf = i->second;
mFreeTempVertexBufferMap.erase(i);
}
// Copy data?
if (copyData)
{
vbuf->copyData(*(sourceBuffer.get()), 0, 0, sourceBuffer->getSizeInBytes(), true);
}
// Insert copy into licensee list
mTempVertexBufferLicenses.insert(
TemporaryVertexBufferLicenseMap::value_type(
vbuf.get(),
VertexBufferLicense(sourceBuffer.get(), licenseType, EXPIRED_DELAY_FRAME_THRESHOLD, vbuf, licensee)));
return vbuf;
}
}
HardwareVertexBufferSharedPtr HardwareBufferManagerBase::allocateVertexBufferCopy(const HardwareVertexBufferSharedPtr& sourceBuffer, BufferLicenseType licenseType, HardwareBufferLicensee* licensee, BOOL copyData /* = FALSE */)
{
HardwareVertexBufferSharedPtr vbuf;
FreeTemporaryVertexBufferMap::iterator i = mFreeTempVertexBufferMap.find(sourceBuffer.get());
if (i == mFreeTempVertexBufferMap.end())
{
vbuf = makeBufferCopy(sourceBuffer, HardwareBuffer::HBU_DYNAMIC_WRITE_ONLY_DISCARDABLE,
TRUE);
}
else
{
vbuf = i->second;
mFreeTempVertexBufferMap.erase(i);
}
if (copyData)
{
vbuf->copyData(*(sourceBuffer.get()), 0, 0, sourceBuffer->getSizeInBytes(), TRUE);
}
mTempVertexBufferLicenses.insert(
TemporayVertexBufferLicenseMap::value_type(
vbuf.get(),
VertexBufferLicense(sourceBuffer.get(), licenseType, EXPIRED_DELAY_FRAME_THRESHOLD, vbuf, licensee)));
return vbuf;
}
//---------------------------------------------------------------------
void Animation::apply(Entity* entity, Real timePos, Real weight,
bool software, bool hardware)
{
// Calculate time index for fast keyframe search
TimeIndex timeIndex = _getTimeIndex(timePos);
VertexTrackList::iterator i;
for (i = mVertexTrackList.begin(); i != mVertexTrackList.end(); ++i)
{
unsigned short handle = i->first;
VertexAnimationTrack* track = i->second;
VertexData* swVertexData;
VertexData* hwVertexData;
VertexData* origVertexData;
bool firstAnim = false;
if (handle == 0)
{
// shared vertex data
firstAnim = !entity->_getBuffersMarkedForAnimation();
swVertexData = entity->_getSoftwareVertexAnimVertexData();
hwVertexData = entity->_getHardwareVertexAnimVertexData();
origVertexData = entity->getMesh()->sharedVertexData;
entity->_markBuffersUsedForAnimation();
}
else
{
// sub entity vertex data (-1)
SubEntity* s = entity->getSubEntity(handle - 1);
// Skip this track if subentity is not visible
if (!s->isVisible())
continue;
firstAnim = !s->_getBuffersMarkedForAnimation();
swVertexData = s->_getSoftwareVertexAnimVertexData();
hwVertexData = s->_getHardwareVertexAnimVertexData();
origVertexData = s->getSubMesh()->vertexData;
s->_markBuffersUsedForAnimation();
}
// Apply to both hardware and software, if requested
if (software)
{
if (firstAnim && track->getAnimationType() == VAT_POSE)
{
// First time through for a piece of pose animated vertex data
// We need to copy the original position values to the temp accumulator
const VertexElement* origelem =
origVertexData->vertexDeclaration->findElementBySemantic(VES_POSITION);
const VertexElement* destelem =
swVertexData->vertexDeclaration->findElementBySemantic(VES_POSITION);
HardwareVertexBufferSharedPtr origBuffer =
origVertexData->vertexBufferBinding->getBuffer(origelem->getSource());
HardwareVertexBufferSharedPtr destBuffer =
swVertexData->vertexBufferBinding->getBuffer(destelem->getSource());
destBuffer->copyData(*origBuffer.get(), 0, 0, destBuffer->getSizeInBytes(), true);
}
track->setTargetMode(VertexAnimationTrack::TM_SOFTWARE);
track->applyToVertexData(swVertexData, timeIndex, weight,
&(entity->getMesh()->getPoseList()));
}
if (hardware)
{
track->setTargetMode(VertexAnimationTrack::TM_HARDWARE);
track->applyToVertexData(hwVertexData, timeIndex, weight,
&(entity->getMesh()->getPoseList()));
}
}
}
void VolumeRenderable::initialise()
{
// Create geometry
size_t nvertices = mSlices*4; // n+1 planes
size_t elemsize = 3*3;
size_t dsize = elemsize*nvertices;
size_t x;
Ogre::IndexData *idata = new Ogre::IndexData();
Ogre::VertexData *vdata = new Ogre::VertexData();
// Create structures
float *vertices = new float[dsize];
float coords[4][2] = {
{0.0f, 0.0f},
{0.0f, 1.0f},
{1.0f, 0.0f},
{1.0f, 1.0f}
};
for(x=0; x<mSlices; x++)
{
for(size_t y=0; y<4; y++)
{
float xcoord = coords[y][0]-0.5;
float ycoord = coords[y][1]-0.5;
float zcoord = -((float)x/(float)(mSlices-1) - 0.5f);
// 1.0f .. a/(a+1)
// coordinate
vertices[x*4*elemsize+y*elemsize+0] = xcoord*(mSize/2.0f);
vertices[x*4*elemsize+y*elemsize+1] = ycoord*(mSize/2.0f);
vertices[x*4*elemsize+y*elemsize+2] = zcoord*(mSize/2.0f);
// normal
vertices[x*4*elemsize+y*elemsize+3] = 0.0f;
vertices[x*4*elemsize+y*elemsize+4] = 0.0f;
vertices[x*4*elemsize+y*elemsize+5] = 1.0f;
// tex
vertices[x*4*elemsize+y*elemsize+6] = xcoord*sqrtf(3.0f);
vertices[x*4*elemsize+y*elemsize+7] = ycoord*sqrtf(3.0f);
vertices[x*4*elemsize+y*elemsize+8] = zcoord*sqrtf(3.0f);
}
}
unsigned short *faces = new unsigned short[mSlices*6];
for(x=0; x<mSlices; x++)
{
faces[x*6+0] = x*4+0;
faces[x*6+1] = x*4+1;
faces[x*6+2] = x*4+2;
faces[x*6+3] = x*4+1;
faces[x*6+4] = x*4+2;
faces[x*6+5] = x*4+3;
}
// Setup buffers
vdata->vertexStart = 0;
vdata->vertexCount = nvertices;
VertexDeclaration* decl = vdata->vertexDeclaration;
VertexBufferBinding* bind = vdata->vertexBufferBinding;
size_t offset = 0;
decl->addElement(0, offset, VET_FLOAT3, VES_POSITION);
offset += VertexElement::getTypeSize(VET_FLOAT3);
decl->addElement(0, offset, VET_FLOAT3, VES_NORMAL);
offset += VertexElement::getTypeSize(VET_FLOAT3);
decl->addElement(0, offset, VET_FLOAT3, VES_TEXTURE_COORDINATES);
offset += VertexElement::getTypeSize(VET_FLOAT3);
HardwareVertexBufferSharedPtr vbuf =
HardwareBufferManager::getSingleton().createVertexBuffer(
offset, nvertices, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
bind->setBinding(0, vbuf);
vbuf->writeData(0, vbuf->getSizeInBytes(), vertices, true);
HardwareIndexBufferSharedPtr ibuf = HardwareBufferManager::getSingleton().
createIndexBuffer(
HardwareIndexBuffer::IT_16BIT,
mSlices*6,
HardwareBuffer::HBU_STATIC_WRITE_ONLY);
idata->indexBuffer = ibuf;
idata->indexCount = mSlices*6;
idata->indexStart = 0;
ibuf->writeData(0, ibuf->getSizeInBytes(), faces, true);
// Delete temporary buffers
delete [] vertices;
delete [] faces;
// Now make the render operation
mRenderOp.operationType = Ogre::RenderOperation::OT_TRIANGLE_LIST;
mRenderOp.indexData = idata;
mRenderOp.vertexData = vdata;
mRenderOp.useIndexes = true;
// Create a brand new private material
MaterialPtr material =
MaterialManager::getSingleton().create(mTexture, "VolumeRenderable",
false, 0); // Manual, loader
// Remove pre-created technique from defaults
material->removeAllTechniques();
// Create a techinique and a pass and a texture unit
Technique * technique = material->createTechnique();
Pass * pass = technique->createPass();
TextureUnitState * textureUnit = pass->createTextureUnitState();
// Set pass parameters
pass->setSceneBlending(SBT_TRANSPARENT_ALPHA);
pass->setDepthWriteEnabled(false);
pass->setCullingMode(CULL_NONE);
pass->setLightingEnabled(false);
// Set texture unit parameters
textureUnit->setTextureAddressingMode(TextureUnitState::TAM_CLAMP);
textureUnit->setTextureName(mTexture, TEX_TYPE_3D);
textureUnit->setTextureFiltering(TFO_TRILINEAR);
mUnit = textureUnit;
m_pMaterial = material;
}
Airbrake::Airbrake(char* basename, int num, node_t *ndref, node_t *ndx, node_t *ndy, node_t *nda, Vector3 pos, float width, float length, float maxang, char* texname, float tx1, float ty1, float tx2, float ty2, float lift_coef)
{
snode=0;
noderef=ndref;
nodex=ndx;
nodey=ndy;
nodea=nda;
offset=pos;
maxangle=maxang;
area=width*length*lift_coef;
char meshname[256];
sprintf(meshname, "airbrakemesh-%s-%i", basename, num);
/// Create the mesh via the MeshManager
msh = MeshManager::getSingleton().createManual(meshname, ResourceGroupManager::DEFAULT_RESOURCE_GROUP_NAME);
union
{
float *vertices;
CoVertice_t *covertices;
};
/// Create submesh
SubMesh* sub = msh->createSubMesh();
//materials
sub->setMaterialName(texname);
/// Define the vertices
size_t nVertices = 4;
size_t vbufCount = (2*3+2)*nVertices;
vertices=(float*)malloc(vbufCount*sizeof(float));
//textures coordinates
covertices[0].texcoord=Vector2(tx1, ty1);
covertices[1].texcoord=Vector2(tx2, ty1);
covertices[2].texcoord=Vector2(tx2, ty2);
covertices[3].texcoord=Vector2(tx1, ty2);
/// Define triangles
/// The values in this table refer to vertices in the above table
size_t ibufCount = 3*4;
unsigned short *faces=(unsigned short*)malloc(ibufCount*sizeof(unsigned short));
faces[0]=0; faces[1]=1; faces[2]=2;
faces[3]=0; faces[4]=2; faces[5]=3;
faces[6]=0; faces[7]=2; faces[8]=1;
faces[9]=0; faces[10]=3; faces[11]=2;
//set coords
covertices[0].vertex=Vector3(0,0,0);
covertices[1].vertex=Vector3(width,0,0);
covertices[2].vertex=Vector3(width,0,length);
covertices[3].vertex=Vector3(0,0,length);
covertices[0].normal=Vector3(0,1,0);
covertices[1].normal=Vector3(0,1,0);
covertices[2].normal=Vector3(0,1,0);
covertices[3].normal=Vector3(0,1,0);
/// Create vertex data structure for vertices shared between submeshes
msh->sharedVertexData = new VertexData();
msh->sharedVertexData->vertexCount = nVertices;
/// Create declaration (memory format) of vertex data
VertexDeclaration* decl = msh->sharedVertexData->vertexDeclaration;
size_t offset = 0;
decl->addElement(0, offset, VET_FLOAT3, VES_POSITION);
offset += VertexElement::getTypeSize(VET_FLOAT3);
decl->addElement(0, offset, VET_FLOAT3, VES_NORMAL);
offset += VertexElement::getTypeSize(VET_FLOAT3);
// decl->addElement(0, offset, VET_FLOAT3, VES_DIFFUSE);
// offset += VertexElement::getTypeSize(VET_FLOAT3);
decl->addElement(0, offset, VET_FLOAT2, VES_TEXTURE_COORDINATES, 0);
offset += VertexElement::getTypeSize(VET_FLOAT2);
/// Allocate vertex buffer of the requested number of vertices (vertexCount)
/// and bytes per vertex (offset)
HardwareVertexBufferSharedPtr vbuf =
HardwareBufferManager::getSingleton().createVertexBuffer(
offset, msh->sharedVertexData->vertexCount, HardwareBuffer::HBU_DYNAMIC_WRITE_ONLY_DISCARDABLE);
/// Upload the vertex data to the card
vbuf->writeData(0, vbuf->getSizeInBytes(), vertices, true);
/// Set vertex buffer binding so buffer 0 is bound to our vertex buffer
VertexBufferBinding* bind = msh->sharedVertexData->vertexBufferBinding;
bind->setBinding(0, vbuf);
/// Allocate index buffer of the requested number of vertices (ibufCount)
HardwareIndexBufferSharedPtr faceibuf = HardwareBufferManager::getSingleton().
createIndexBuffer(
HardwareIndexBuffer::IT_16BIT,
ibufCount,
HardwareBuffer::HBU_STATIC_WRITE_ONLY);
/// Upload the index data to the card
faceibuf->writeData(0, faceibuf->getSizeInBytes(), faces, true);
/// Set parameters of the submesh
sub->useSharedVertices = true;
sub->indexData->indexBuffer = faceibuf;
sub->indexData->indexCount = ibufCount;
sub->indexData->indexStart = 0;
/// Set bounding information (for culling)
msh->_setBounds(AxisAlignedBox(-1,-1,0,1,1,0), true);
//msh->_setBoundingSphereRadius(Math::Sqrt(1*1+1*1));
/// Notify Mesh object that it has been loaded
msh->load();
// create the entity and scene node
char entname[256];
sprintf(entname, "airbrakenode-%s-%i", basename, num);
ec = gEnv->sceneManager->createEntity(entname, meshname);
snode = gEnv->sceneManager->getRootSceneNode()->createChildSceneNode();
snode->attachObject(ec);
updatePosition(0.0);
free (vertices);
free (faces);
}
void Road2::createMesh()
{
AxisAlignedBox aab;
union
{
float* vertices;
CoVertice_t* covertices;
};
/// Create the mesh via the MeshManager
Ogre::String mesh_name = Ogre::String("RoadSystem-").append(Ogre::StringConverter::toString(mid));
msh = MeshManager::getSingleton().createManual(mesh_name, ResourceGroupManager::DEFAULT_RESOURCE_GROUP_NAME);
mainsub = msh->createSubMesh();
mainsub->setMaterialName("road2");
/// Define the vertices
size_t vbufCount = (2 * 3 + 2) * vertexcount;
vertices = (float*)malloc(vbufCount * sizeof(float));
int i;
//fill values
for (i = 0; i < vertexcount; i++)
{
covertices[i].texcoord = tex[i];
covertices[i].vertex = vertex[i];
//normals are computed later
covertices[i].normal = Vector3::ZERO;
aab.merge(vertex[i]);
}
/// Define triangles
size_t ibufCount = 3 * tricount;
//compute normals
for (i = 0; i < tricount && i * 3 + 2 < MAX_TRIS * 3; i++)
{
Vector3 v1, v2;
v1 = covertices[tris[i * 3 + 1]].vertex - covertices[tris[i * 3]].vertex;
v2 = covertices[tris[i * 3 + 2]].vertex - covertices[tris[i * 3]].vertex;
v1 = v1.crossProduct(v2);
v1.normalise();
covertices[tris[i * 3]].normal += v1;
covertices[tris[i * 3 + 1]].normal += v1;
covertices[tris[i * 3 + 2]].normal += v1;
}
//normalize
for (i = 0; i < vertexcount; i++)
{
covertices[i].normal.normalise();
}
/// Create vertex data structure for vertices shared between sub meshes
msh->sharedVertexData = new VertexData();
msh->sharedVertexData->vertexCount = vertexcount;
/// Create declaration (memory format) of vertex data
VertexDeclaration* decl = msh->sharedVertexData->vertexDeclaration;
size_t offset = 0;
decl->addElement(0, offset, VET_FLOAT3, VES_POSITION);
offset += VertexElement::getTypeSize(VET_FLOAT3);
decl->addElement(0, offset, VET_FLOAT3, VES_NORMAL);
offset += VertexElement::getTypeSize(VET_FLOAT3);
decl->addElement(0, offset, VET_FLOAT2, VES_TEXTURE_COORDINATES, 0);
offset += VertexElement::getTypeSize(VET_FLOAT2);
/// Allocate vertex buffer of the requested number of vertices (vertexCount)
/// and bytes per vertex (offset)
HardwareVertexBufferSharedPtr vbuf =
HardwareBufferManager::getSingleton().createVertexBuffer(
offset, msh->sharedVertexData->vertexCount, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
/// Upload the vertex data to the card
vbuf->writeData(0, vbuf->getSizeInBytes(), vertices, true);
/// Set vertex buffer binding so buffer 0 is bound to our vertex buffer
VertexBufferBinding* bind = msh->sharedVertexData->vertexBufferBinding;
bind->setBinding(0, vbuf);
//for the face
/// Allocate index buffer of the requested number of vertices (ibufCount)
HardwareIndexBufferSharedPtr ibuf = HardwareBufferManager::getSingleton().
createIndexBuffer(
HardwareIndexBuffer::IT_16BIT,
ibufCount,
HardwareBuffer::HBU_STATIC_WRITE_ONLY);
/// Upload the index data to the card
ibuf->writeData(0, ibuf->getSizeInBytes(), tris, true);
/// Set parameters of the submesh
mainsub->useSharedVertices = true;
mainsub->indexData->indexBuffer = ibuf;
mainsub->indexData->indexCount = ibufCount;
mainsub->indexData->indexStart = 0;
msh->_setBounds(aab, true);
/// Notify Mesh object that it has been loaded
msh->load();
free(vertices);
};
Mesh* OgreSubsystem::createMesh(const MeshData& data,String name)
{
String nombre = name;
if(name=="AUTO_NAME_ME")
{
nombre = "OryxSceneNodeAutoNamed"+StringUtils::toString(mAutoNameIndex);
++mAutoNameIndex;
}
using namespace Ogre;
bool hasVertexColor = data.getDiffuse();
bool hasNormals = data.getNormals();
int numFaces = data.indices.size()/3;
int numVertices = data.vertices.size()/3;
HardwareVertexBufferSharedPtr posVertexBuffer;
HardwareVertexBufferSharedPtr normVertexBuffer;
std::vector<HardwareVertexBufferSharedPtr> texcoordsVertexBuffer;
HardwareVertexBufferSharedPtr diffuseVertexBuffer;
HardwareIndexBufferSharedPtr indexBuffer;
Ogre::Mesh* m = Ogre::MeshManager::getSingletonPtr()->createManual(
nombre,ResourceGroupManager::DEFAULT_RESOURCE_GROUP_NAME).get();
Ogre::SubMesh* sm = m->createSubMesh();
sm->useSharedVertices = false;
sm->vertexData = new VertexData();
sm->vertexData->vertexStart = 0;
sm->vertexData->vertexCount = numVertices;
Ogre::VertexDeclaration* vdecl = sm->vertexData->vertexDeclaration;
Ogre::VertexBufferBinding* vbind = sm->vertexData->vertexBufferBinding;
size_t bufferCount = 0;
vdecl->addElement(bufferCount, 0, VET_FLOAT3, VES_POSITION);
if(hasNormals)
vdecl->addElement(++bufferCount, 0, VET_FLOAT3, VES_NORMAL);
if(hasVertexColor)
vdecl->addElement(++bufferCount, 0, VET_FLOAT4, VES_DIFFUSE);
for(int i=0;i<data.texcoords.size();++i)
vdecl->addElement(++bufferCount, 0, VET_FLOAT2, VES_TEXTURE_COORDINATES,i);
bufferCount = 0;
// Positions
posVertexBuffer = HardwareBufferManager::getSingleton().createVertexBuffer(
3*sizeof(float),numVertices,Ogre::HardwareBuffer::HBU_DYNAMIC_WRITE_ONLY_DISCARDABLE);
vbind->setBinding(bufferCount, posVertexBuffer);
float* vertices = data.getVertices();
float* normals = data.getNormals();
float* diffuse = data.getDiffuse();
unsigned short* indices = data.getIndices();
posVertexBuffer->writeData(0,posVertexBuffer->getSizeInBytes(),vertices, true);
// Normals
if(hasNormals)
{
normVertexBuffer = HardwareBufferManager::getSingleton().createVertexBuffer(
3*sizeof(float),numVertices,HardwareBuffer::HBU_DYNAMIC_WRITE_ONLY_DISCARDABLE);
vbind->setBinding(++bufferCount, normVertexBuffer);
normVertexBuffer->writeData(0,normVertexBuffer->getSizeInBytes(),normals, true);
}
if(hasVertexColor)
{
diffuseVertexBuffer = HardwareBufferManager::getSingleton().createVertexBuffer(
4*sizeof(float),numVertices,HardwareBuffer::HBU_STATIC_WRITE_ONLY);
vbind->setBinding(++bufferCount, diffuseVertexBuffer);
diffuseVertexBuffer->writeData(0,diffuseVertexBuffer->getSizeInBytes(), diffuse, true);
}
// Texcoords
for(int i=0;i<data.texcoords.size();++i)
{
texcoordsVertexBuffer.push_back(HardwareBufferManager::getSingleton().createVertexBuffer(
2*sizeof(float),numVertices,HardwareBuffer::HBU_STATIC_WRITE_ONLY));
vbind->setBinding(++bufferCount, texcoordsVertexBuffer[i]);
texcoordsVertexBuffer[i]->writeData(0,sizeof(float)*data.texcoords[i].size(),&data.texcoords[i][0], false);
}
if(!data.indices.empty())
{
// Prepare buffer for indices
indexBuffer = HardwareBufferManager::getSingleton().createIndexBuffer(
HardwareIndexBuffer::IT_16BIT,3*numFaces,HardwareBuffer::HBU_STATIC_WRITE_ONLY, true);
//unsigned short *faceVertexIndices = (unsigned short*)
//indexBuffer->lock(0, numFaces*3*2, HardwareBuffer::HBL_DISCARD);
// Set index buffer for this submesh
sm->indexData->indexBuffer = indexBuffer;
sm->indexData->indexStart = 0;
sm->indexData->indexCount = 3*numFaces;
indexBuffer->writeData(0,indexBuffer->getSizeInBytes(),indices,true);
}
//vdecl->sort();
m->load();
m->touch();
m->_setBounds(AxisAlignedBox(data.bbox[0],data.bbox[1],data.bbox[2],
data.bbox[3],data.bbox[4],data.bbox[5]), false);
sm->setMaterialName("Terrain");
Ogre::Entity* ent = mSceneManager->createEntity(nombre,m->getName());
Ogre::SceneNode* node = mSceneManager->createSceneNode(nombre);
node->attachObject(ent);
ent->setCastShadows(false);
Mesh* mm = new Mesh(nombre,node,ent);
mSceneNodes.push_back(mm);
return mm;
}
// Convert Nif::NiTriShape to Ogre::SubMesh, attached to the given
// mesh.
void NIFLoader::createOgreSubMesh(NiTriShape *shape, const String &material, std::list<VertexBoneAssignment> &vertexBoneAssignments)
{
// cout << "s:" << shape << "\n";
NiTriShapeData *data = shape->data.getPtr();
SubMesh *sub = mesh->createSubMesh(shape->name.toString());
int nextBuf = 0;
// This function is just one long stream of Ogre-barf, but it works
// great.
// Add vertices
int numVerts = data->vertices.length / 3;
sub->vertexData = new VertexData();
sub->vertexData->vertexCount = numVerts;
sub->useSharedVertices = false;
VertexDeclaration *decl = sub->vertexData->vertexDeclaration;
decl->addElement(nextBuf, 0, VET_FLOAT3, VES_POSITION);
HardwareVertexBufferSharedPtr vbuf =
HardwareBufferManager::getSingleton().createVertexBuffer(
VertexElement::getTypeSize(VET_FLOAT3),
numVerts, HardwareBuffer::HBU_DYNAMIC_WRITE_ONLY, false);
if(flip)
{
float *datamod = new float[data->vertices.length];
//std::cout << "Shape" << shape->name.toString() << "\n";
for(int i = 0; i < numVerts; i++)
{
int index = i * 3;
const float *pos = data->vertices.ptr + index;
Ogre::Vector3 original = Ogre::Vector3(*pos ,*(pos+1), *(pos+2));
original = mTransform * original;
mBoundingBox.merge(original);
datamod[index] = original.x;
datamod[index+1] = original.y;
datamod[index+2] = original.z;
}
vbuf->writeData(0, vbuf->getSizeInBytes(), datamod, false);
delete [] datamod;
}
else
{
vbuf->writeData(0, vbuf->getSizeInBytes(), data->vertices.ptr, false);
}
VertexBufferBinding* bind = sub->vertexData->vertexBufferBinding;
bind->setBinding(nextBuf++, vbuf);
if (data->normals.length)
{
decl->addElement(nextBuf, 0, VET_FLOAT3, VES_NORMAL);
vbuf = HardwareBufferManager::getSingleton().createVertexBuffer(
VertexElement::getTypeSize(VET_FLOAT3),
numVerts, HardwareBuffer::HBU_STATIC_WRITE_ONLY, false);
if(flip)
{
Quaternion rotation = mTransform.extractQuaternion();
rotation.normalise();
float *datamod = new float[data->normals.length];
for(int i = 0; i < numVerts; i++)
{
int index = i * 3;
const float *pos = data->normals.ptr + index;
Ogre::Vector3 original = Ogre::Vector3(*pos ,*(pos+1), *(pos+2));
original = rotation * original;
if (mNormaliseNormals)
{
original.normalise();
}
datamod[index] = original.x;
datamod[index+1] = original.y;
datamod[index+2] = original.z;
}
vbuf->writeData(0, vbuf->getSizeInBytes(), datamod, false);
delete [] datamod;
}
else
{
vbuf->writeData(0, vbuf->getSizeInBytes(), data->normals.ptr, false);
}
bind->setBinding(nextBuf++, vbuf);
}
// Vertex colors
if (data->colors.length)
{
const float *colors = data->colors.ptr;
RenderSystem* rs = Root::getSingleton().getRenderSystem();
std::vector<RGBA> colorsRGB(numVerts);
RGBA *pColour = &colorsRGB.front();
for (int i=0; i<numVerts; i++)
{
rs->convertColourValue(ColourValue(colors[0],colors[1],colors[2],
colors[3]),pColour++);
colors += 4;
}
decl->addElement(nextBuf, 0, VET_COLOUR, VES_DIFFUSE);
vbuf = HardwareBufferManager::getSingleton().createVertexBuffer(
VertexElement::getTypeSize(VET_COLOUR),
numVerts, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
vbuf->writeData(0, vbuf->getSizeInBytes(), &colorsRGB.front(), true);
bind->setBinding(nextBuf++, vbuf);
}
if (data->uvlist.length)
{
decl->addElement(nextBuf, 0, VET_FLOAT2, VES_TEXTURE_COORDINATES);
vbuf = HardwareBufferManager::getSingleton().createVertexBuffer(
VertexElement::getTypeSize(VET_FLOAT2),
numVerts, HardwareBuffer::HBU_STATIC_WRITE_ONLY,false);
if(flip)
{
float *datamod = new float[data->uvlist.length];
for(unsigned int i = 0; i < data->uvlist.length; i+=2){
float x = *(data->uvlist.ptr + i);
float y = *(data->uvlist.ptr + i + 1);
datamod[i] =x;
datamod[i + 1] =y;
}
vbuf->writeData(0, vbuf->getSizeInBytes(), datamod, false);
delete [] datamod;
}
else
vbuf->writeData(0, vbuf->getSizeInBytes(), data->uvlist.ptr, false);
bind->setBinding(nextBuf++, vbuf);
}
// Triangle faces - The total number of triangle points
int numFaces = data->triangles.length;
if (numFaces)
{
sub->indexData->indexCount = numFaces;
sub->indexData->indexStart = 0;
HardwareIndexBufferSharedPtr ibuf = HardwareBufferManager::getSingleton().
createIndexBuffer(HardwareIndexBuffer::IT_16BIT,
numFaces,
HardwareBuffer::HBU_STATIC_WRITE_ONLY, true);
if(flip && mFlipVertexWinding && sub->indexData->indexCount % 3 == 0){
sub->indexData->indexBuffer = ibuf;
uint16 *datamod = new uint16[numFaces];
int index = 0;
for (size_t i = 0; i < sub->indexData->indexCount; i+=3)
{
const short *pos = data->triangles.ptr + index;
uint16 i0 = (uint16) *(pos+0);
uint16 i1 = (uint16) *(pos+1);
uint16 i2 = (uint16) *(pos+2);
//std::cout << "i0: " << i0 << "i1: " << i1 << "i2: " << i2 << "\n";
datamod[index] = i2;
datamod[index+1] = i1;
datamod[index+2] = i0;
index += 3;
}
ibuf->writeData(0, ibuf->getSizeInBytes(), datamod, false);
delete [] datamod;
}
else
ibuf->writeData(0, ibuf->getSizeInBytes(), data->triangles.ptr, false);
sub->indexData->indexBuffer = ibuf;
}
// Set material if one was given
if (!material.empty()) sub->setMaterialName(material);
//add vertex bone assignments
for (std::list<VertexBoneAssignment>::iterator it = vertexBoneAssignments.begin();
it != vertexBoneAssignments.end(); it++)
{
sub->addBoneAssignment(*it);
}
if(mSkel.isNull())
needBoneAssignments.push_back(sub);
}
//---------------------------------------------------------------------
void PrefabFactory::createCube(Mesh* mesh)
{
SubMesh* sub = mesh->createSubMesh();
const int NUM_VERTICES = 4 * 6; // 4 vertices per side * 6 sides
const int NUM_ENTRIES_PER_VERTEX = 8;
const int NUM_VERTEX_ENTRIES = NUM_VERTICES * NUM_ENTRIES_PER_VERTEX;
const int NUM_INDICES = 3 * 2 * 6; // 3 indices per face * 2 faces per side * 6 sides
const Real CUBE_SIZE = 100.0f;
const Real CUBE_HALF_SIZE = CUBE_SIZE / 2.0f;
// Create 4 vertices per side instead of 6 that are shared for the whole cube.
// The reason for this is with only 6 vertices the normals will look bad
// since each vertex can "point" in a different direction depending on the face it is included in.
float vertices[NUM_VERTEX_ENTRIES] = {
// front side
-CUBE_HALF_SIZE, -CUBE_HALF_SIZE, CUBE_HALF_SIZE, // pos
0,0,1, // normal
0,1, // texcoord
CUBE_HALF_SIZE, -CUBE_HALF_SIZE, CUBE_HALF_SIZE,
0,0,1,
1,1,
CUBE_HALF_SIZE, CUBE_HALF_SIZE, CUBE_HALF_SIZE,
0,0,1,
1,0,
-CUBE_HALF_SIZE, CUBE_HALF_SIZE, CUBE_HALF_SIZE ,
0,0,1,
0,0,
// back side
CUBE_HALF_SIZE, -CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
0,0,-1,
0,1,
-CUBE_HALF_SIZE, -CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
0,0,-1,
1,1,
-CUBE_HALF_SIZE, CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
0,0,-1,
1,0,
CUBE_HALF_SIZE, CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
0,0,-1,
0,0,
// left side
-CUBE_HALF_SIZE, -CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
-1,0,0,
0,1,
-CUBE_HALF_SIZE, -CUBE_HALF_SIZE, CUBE_HALF_SIZE,
-1,0,0,
1,1,
-CUBE_HALF_SIZE, CUBE_HALF_SIZE, CUBE_HALF_SIZE,
-1,0,0,
1,0,
-CUBE_HALF_SIZE, CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
-1,0,0,
0,0,
// right side
CUBE_HALF_SIZE, -CUBE_HALF_SIZE, CUBE_HALF_SIZE,
1,0,0,
0,1,
CUBE_HALF_SIZE, -CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
1,0,0,
1,1,
CUBE_HALF_SIZE, CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
1,0,0,
1,0,
CUBE_HALF_SIZE, CUBE_HALF_SIZE, CUBE_HALF_SIZE,
1,0,0,
0,0,
// up side
-CUBE_HALF_SIZE, CUBE_HALF_SIZE, CUBE_HALF_SIZE,
0,1,0,
0,1,
CUBE_HALF_SIZE, CUBE_HALF_SIZE, CUBE_HALF_SIZE,
0,1,0,
1,1,
CUBE_HALF_SIZE, CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
0,1,0,
1,0,
-CUBE_HALF_SIZE, CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
0,1,0,
0,0,
// down side
-CUBE_HALF_SIZE, -CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
0,-1,0,
0,1,
CUBE_HALF_SIZE, -CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
0,-1,0,
1,1,
CUBE_HALF_SIZE, -CUBE_HALF_SIZE, CUBE_HALF_SIZE,
0,-1,0,
1,0,
-CUBE_HALF_SIZE, -CUBE_HALF_SIZE, CUBE_HALF_SIZE,
0,-1,0,
0,0
};
mesh->sharedVertexData = OGRE_NEW VertexData();
mesh->sharedVertexData->vertexCount = NUM_VERTICES;
VertexDeclaration* decl = mesh->sharedVertexData->vertexDeclaration;
VertexBufferBinding* bind = mesh->sharedVertexData->vertexBufferBinding;
size_t offset = 0;
decl->addElement(0, offset, VET_FLOAT3, VES_POSITION);
offset += VertexElement::getTypeSize(VET_FLOAT3);
decl->addElement(0, offset, VET_FLOAT3, VES_NORMAL);
offset += VertexElement::getTypeSize(VET_FLOAT3);
decl->addElement(0, offset, VET_FLOAT2, VES_TEXTURE_COORDINATES, 0);
offset += VertexElement::getTypeSize(VET_FLOAT2);
HardwareVertexBufferSharedPtr vbuf =
HardwareBufferManager::getSingleton().createVertexBuffer(
offset, NUM_VERTICES, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
bind->setBinding(0, vbuf);
vbuf->writeData(0, vbuf->getSizeInBytes(), vertices, true);
sub->useSharedVertices = true;
HardwareIndexBufferSharedPtr ibuf = HardwareBufferManager::getSingleton().
createIndexBuffer(
HardwareIndexBuffer::IT_16BIT,
NUM_INDICES,
HardwareBuffer::HBU_STATIC_WRITE_ONLY);
unsigned short faces[NUM_INDICES] = {
// front
0,1,2,
0,2,3,
// back
4,5,6,
4,6,7,
// left
8,9,10,
8,10,11,
// right
12,13,14,
12,14,15,
// up
16,17,18,
16,18,19,
// down
20,21,22,
20,22,23
};
sub->indexData->indexBuffer = ibuf;
sub->indexData->indexCount = NUM_INDICES;
sub->indexData->indexStart = 0;
ibuf->writeData(0, ibuf->getSizeInBytes(), faces, true);
mesh->_setBounds(AxisAlignedBox(-CUBE_HALF_SIZE, -CUBE_HALF_SIZE, -CUBE_HALF_SIZE,
CUBE_HALF_SIZE, CUBE_HALF_SIZE, CUBE_HALF_SIZE), true);
mesh->_setBoundingSphereRadius(CUBE_HALF_SIZE);
}
void MovableText::_setupGeometry()
{
assert(mpFont);
assert(!mpMaterial.isNull());
uint vertexCount = static_cast<uint>(mCaption.size() * 6);
if (mRenderOp.vertexData)
{
// Removed this test as it causes problems when replacing a caption
// of the same size: replacing "Hello" with "hello"
// as well as when changing the text alignment
//if (mRenderOp.vertexData->vertexCount != vertexCount)
{
delete mRenderOp.vertexData;
mRenderOp.vertexData = NULL;
mUpdateColors = true;
}
}
if (!mRenderOp.vertexData)
mRenderOp.vertexData = new VertexData();
mRenderOp.indexData = 0;
mRenderOp.vertexData->vertexStart = 0;
mRenderOp.vertexData->vertexCount = vertexCount;
mRenderOp.operationType = RenderOperation::OT_TRIANGLE_LIST;
mRenderOp.useIndexes = false;
VertexDeclaration *decl = mRenderOp.vertexData->vertexDeclaration;
VertexBufferBinding *bind = mRenderOp.vertexData->vertexBufferBinding;
size_t offset = 0;
// create/bind positions/tex.ccord. buffer
if (!decl->findElementBySemantic(VES_POSITION))
decl->addElement(POS_TEX_BINDING, offset, VET_FLOAT3, VES_POSITION);
offset += VertexElement::getTypeSize(VET_FLOAT3);
if (!decl->findElementBySemantic(VES_TEXTURE_COORDINATES))
decl->addElement(POS_TEX_BINDING, offset, Ogre::VET_FLOAT2, Ogre::VES_TEXTURE_COORDINATES, 0);
HardwareVertexBufferSharedPtr ptbuf = HardwareBufferManager::getSingleton().createVertexBuffer(decl->getVertexSize(POS_TEX_BINDING),
mRenderOp.vertexData->vertexCount,
HardwareBuffer::HBU_DYNAMIC_WRITE_ONLY);
bind->setBinding(POS_TEX_BINDING, ptbuf);
// Colours - store these in a separate buffer because they change less often
if (!decl->findElementBySemantic(VES_DIFFUSE))
decl->addElement(COLOUR_BINDING, 0, VET_COLOUR, VES_DIFFUSE);
HardwareVertexBufferSharedPtr cbuf = HardwareBufferManager::getSingleton().createVertexBuffer(decl->getVertexSize(COLOUR_BINDING),
mRenderOp.vertexData->vertexCount,
HardwareBuffer::HBU_DYNAMIC_WRITE_ONLY);
bind->setBinding(COLOUR_BINDING, cbuf);
size_t charlen = mCaption.size();
//Real *pPCBuff = static_cast<Real*>(ptbuf->lock(HardwareBuffer::HBL_NORMAL));
Real *pPCBuff=(Real*)malloc(ptbuf->getSizeInBytes());
Real *oPCBuff=pPCBuff;
float largestWidth = 0;
float left = 0 * 2.0 - 1.0;
float top = -((0 * 2.0) - 1.0);
// Derive space width from a capital A
if (fabs(mSpaceWidth) < 0.00001f)
mSpaceWidth = mpFont->getGlyphAspectRatio('A') * mCharHeight * 2.0;
// for calculation of AABB
Ogre::Vector3 min=Ogre::Vector3::ZERO, max=Ogre::Vector3::ZERO, currPos=Ogre::Vector3::ZERO;
Ogre::Real maxSquaredRadius = 0.0f;
bool first = true;
// Use iterator
UTFString::iterator i, iend;
iend = mCaption.end();
bool newLine = true;
Real len = 0.0f;
if(mVerticalAlignment == MovableText::V_ABOVE)
{
// Raise the first line of the caption
top += mCharHeight;
for (i = mCaption.begin(); i != iend; ++i)
{
if (*i == '\n')
top += mCharHeight * 2.0;
}
}
for (i = mCaption.begin(); i != iend; ++i)
{
if (newLine)
{
len = 0.0f;
for (UTFString::iterator j = i; j != iend && *j != '\n'; j++)
{
if (*j == ' ')
len += mSpaceWidth;
else
len += mpFont->getGlyphAspectRatio(*j) * mCharHeight * 2.0;
}
newLine = false;
}
if (*i == '\n')
{
left = 0 * 2.0 - 1.0;
top -= mCharHeight * 2.0;
newLine = true;
continue;
}
if (*i == ' ')
{
// Just leave a gap, no tris
left += mSpaceWidth;
// Also reduce tri count
mRenderOp.vertexData->vertexCount -= 6;
continue;
}
Real horiz_height = mpFont->getGlyphAspectRatio(*i);
Real u1, u2, v1, v2;
Ogre::Font::UVRect utmp;
utmp = mpFont->getGlyphTexCoords(*i);
u1 = utmp.left;
u2 = utmp.right;
v1 = utmp.top;
v2 = utmp.bottom;
// each vert is (x, y, z, u, v)
//-------------------------------------------------------------------------------------
// First tri
//
// Upper left
if(mHorizontalAlignment == MovableText::H_LEFT)
*pPCBuff++ = left;
else
*pPCBuff++ = left - (len / 2);
*pPCBuff++ = top;
*pPCBuff++ = -1.0;
*pPCBuff++ = u1;
*pPCBuff++ = v1;
// Deal with bounds
if(mHorizontalAlignment == MovableText::H_LEFT)
currPos = Ogre::Vector3(left, top, -1.0);
else
currPos = Ogre::Vector3(left - (len / 2), top, -1.0);
if (first)
{
min = max = currPos;
maxSquaredRadius = currPos.squaredLength();
first = false;
}
else
{
min.makeFloor(currPos);
max.makeCeil(currPos);
maxSquaredRadius = std::max(maxSquaredRadius, currPos.squaredLength());
}
top -= mCharHeight * 2.0;
// Bottom left
if(mHorizontalAlignment == MovableText::H_LEFT)
*pPCBuff++ = left;
else
*pPCBuff++ = left - (len / 2);
*pPCBuff++ = top;
*pPCBuff++ = -1.0;
*pPCBuff++ = u1;
*pPCBuff++ = v2;
// Deal with bounds
if(mHorizontalAlignment == MovableText::H_LEFT)
currPos = Ogre::Vector3(left, top, -1.0);
else
currPos = Ogre::Vector3(left - (len / 2), top, -1.0);
min.makeFloor(currPos);
max.makeCeil(currPos);
maxSquaredRadius = std::max(maxSquaredRadius, currPos.squaredLength());
top += mCharHeight * 2.0;
left += horiz_height * mCharHeight * 2.0;
// Top right
if(mHorizontalAlignment == MovableText::H_LEFT)
*pPCBuff++ = left;
else
*pPCBuff++ = left - (len / 2);
*pPCBuff++ = top;
*pPCBuff++ = -1.0;
*pPCBuff++ = u2;
*pPCBuff++ = v1;
//-------------------------------------------------------------------------------------
// Deal with bounds
if(mHorizontalAlignment == MovableText::H_LEFT)
currPos = Ogre::Vector3(left, top, -1.0);
else
currPos = Ogre::Vector3(left - (len / 2), top, -1.0);
min.makeFloor(currPos);
max.makeCeil(currPos);
maxSquaredRadius = std::max(maxSquaredRadius, currPos.squaredLength());
//-------------------------------------------------------------------------------------
// Second tri
//
// Top right (again)
if(mHorizontalAlignment == MovableText::H_LEFT)
*pPCBuff++ = left;
else
*pPCBuff++ = left - (len / 2);
*pPCBuff++ = top;
*pPCBuff++ = -1.0;
*pPCBuff++ = u2;
*pPCBuff++ = v1;
currPos = Ogre::Vector3(left, top, -1.0);
min.makeFloor(currPos);
max.makeCeil(currPos);
maxSquaredRadius = std::max(maxSquaredRadius, currPos.squaredLength());
top -= mCharHeight * 2.0;
left -= horiz_height * mCharHeight * 2.0;
// Bottom left (again)
if(mHorizontalAlignment == MovableText::H_LEFT)
*pPCBuff++ = left;
else
*pPCBuff++ = left - (len / 2);
*pPCBuff++ = top;
*pPCBuff++ = -1.0;
*pPCBuff++ = u1;
*pPCBuff++ = v2;
currPos = Ogre::Vector3(left, top, -1.0);
min.makeFloor(currPos);
max.makeCeil(currPos);
maxSquaredRadius = std::max(maxSquaredRadius, currPos.squaredLength());
left += horiz_height * mCharHeight * 2.0;
// Bottom right
if(mHorizontalAlignment == MovableText::H_LEFT)
*pPCBuff++ = left;
else
*pPCBuff++ = left - (len / 2);
*pPCBuff++ = top;
*pPCBuff++ = -1.0;
*pPCBuff++ = u2;
*pPCBuff++ = v2;
//-------------------------------------------------------------------------------------
currPos = Ogre::Vector3(left, top, -1.0);
min.makeFloor(currPos);
max.makeCeil(currPos);
maxSquaredRadius = std::max(maxSquaredRadius, currPos.squaredLength());
// Go back up with top
top += mCharHeight * 2.0;
float currentWidth = (left + 1)/2 - 0;
if (currentWidth > largestWidth)
largestWidth = currentWidth;
}
// Unlock vertex buffer
//ptbuf->unlock();
ptbuf->writeData(0, ptbuf->getSizeInBytes(), oPCBuff, true);
free(oPCBuff);
// update AABB/Sphere radius
mAABB = Ogre::AxisAlignedBox(min, max);
mRadius = Ogre::Math::Sqrt(maxSquaredRadius);
if (mUpdateColors)
this->_updateColors();
mNeedUpdate = false;
}
Ogre::MeshPtr LodOutsideMarker::createConvexHullMesh(const String& meshName, const String& resourceGroupName)
{
// Based on the wiki sample: http://www.ogre3d.org/tikiwiki/tiki-index.php?page=Generating+A+Mesh
// Resource with given name should not exist!
assert(MeshManager::getSingleton().getByName(meshName).isNull());
generateHull(); // calculate mHull triangles.
// Convex hull can't be empty!
assert(!mHull.empty());
MeshPtr mesh = MeshManager::getSingleton().createManual(meshName, resourceGroupName, NULL);
SubMesh* subMesh = mesh->createSubMesh();
vector<Real>::type vertexBuffer;
vector<unsigned short>::type indexBuffer;
// 3 position/triangle * 3 Real/position
vertexBuffer.reserve(mHull.size() * 9);
// 3 index / triangle
indexBuffer.reserve(mHull.size() * 3);
int id=0;
// min & max position
Vector3 minBounds(std::numeric_limits<Real>::max(), std::numeric_limits<Real>::max(), std::numeric_limits<Real>::max());
Vector3 maxBounds(std::numeric_limits<Real>::min(), std::numeric_limits<Real>::min(), std::numeric_limits<Real>::min());
for (size_t i = 0; i < mHull.size(); i++) {
assert(!mHull[i].removed);
for(size_t n = 0; n < 3; n++){
indexBuffer.push_back(id++);
vertexBuffer.push_back(mHull[i].vertex[n]->position.x);
vertexBuffer.push_back(mHull[i].vertex[n]->position.y);
vertexBuffer.push_back(mHull[i].vertex[n]->position.z);
minBounds.x = std::min<Real>(minBounds.x, mHull[i].vertex[n]->position.x);
minBounds.y = std::min<Real>(minBounds.y, mHull[i].vertex[n]->position.y);
minBounds.z = std::min<Real>(minBounds.z, mHull[i].vertex[n]->position.z);
maxBounds.x = std::max<Real>(maxBounds.x, mHull[i].vertex[n]->position.x);
maxBounds.y = std::max<Real>(maxBounds.y, mHull[i].vertex[n]->position.y);
maxBounds.z = std::max<Real>(maxBounds.z, mHull[i].vertex[n]->position.z);
}
}
/// Create vertex data structure for 8 vertices shared between submeshes
mesh->sharedVertexData = new VertexData();
mesh->sharedVertexData->vertexCount = mHull.size() * 3;
/// Create declaration (memory format) of vertex data
VertexDeclaration* decl = mesh->sharedVertexData->vertexDeclaration;
size_t offset = 0;
// 1st buffer
decl->addElement(0, offset, VET_FLOAT3, VES_POSITION);
offset += VertexElement::getTypeSize(VET_FLOAT3);
/// Allocate vertex buffer of the requested number of vertices (vertexCount)
/// and bytes per vertex (offset)
HardwareVertexBufferSharedPtr vbuf =
HardwareBufferManager::getSingleton().createVertexBuffer(
offset, mesh->sharedVertexData->vertexCount, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
/// Upload the vertex data to the card
vbuf->writeData(0, vbuf->getSizeInBytes(), &vertexBuffer[0], true);
/// Set vertex buffer binding so buffer 0 is bound to our vertex buffer
VertexBufferBinding* bind = mesh->sharedVertexData->vertexBufferBinding;
bind->setBinding(0, vbuf);
/// Allocate index buffer of the requested number of vertices (ibufCount)
HardwareIndexBufferSharedPtr ibuf = HardwareBufferManager::getSingleton().
createIndexBuffer(
HardwareIndexBuffer::IT_16BIT,
indexBuffer.size(),
HardwareBuffer::HBU_STATIC_WRITE_ONLY);
/// Upload the index data to the card
ibuf->writeData(0, ibuf->getSizeInBytes(), &indexBuffer[0], true);
/// Set parameters of the submesh
subMesh->useSharedVertices = true;
subMesh->indexData->indexBuffer = ibuf;
subMesh->indexData->indexCount = indexBuffer.size();
subMesh->indexData->indexStart = 0;
/// Set bounding information (for culling)
mesh->_setBounds(AxisAlignedBox(minBounds, maxBounds));
mesh->_setBoundingSphereRadius(maxBounds.distance(minBounds) / 2.0f);
/// Set material to transparent blue
subMesh->setMaterialName("Examples/TransparentBlue50");
/// Notify -Mesh object that it has been loaded
mesh->load();
return mesh;
}
void BasicTutorial2::createColourCube()
{
/// Create the mesh via the MeshManager
Ogre::MeshPtr msh = MeshManager::getSingleton().createManual("ColourCube", "General");
/// Create one submesh
SubMesh* sub = msh->createSubMesh();
const float sqrt13 = 0.577350269f; /* sqrt(1/3) */
/// Define the vertices (8 vertices, each have 3 floats for position and 3 for normal)
const size_t nVertices = 8;
const size_t vbufCount = 3*2*nVertices;
float vertices[vbufCount] = {
-100.0,100.0,-100.0, //0 position
-sqrt13,sqrt13,-sqrt13, //0 normal
100.0,100.0,-100.0, //1 position
sqrt13,sqrt13,-sqrt13, //1 normal
100.0,-100.0,-100.0, //2 position
sqrt13,-sqrt13,-sqrt13, //2 normal
-100.0,-100.0,-100.0, //3 position
-sqrt13,-sqrt13,-sqrt13, //3 normal
-100.0,100.0,100.0, //4 position
-sqrt13,sqrt13,sqrt13, //4 normal
100.0,100.0,100.0, //5 position
sqrt13,sqrt13,sqrt13, //5 normal
100.0,-100.0,100.0, //6 position
sqrt13,-sqrt13,sqrt13, //6 normal
-100.0,-100.0,100.0, //7 position
-sqrt13,-sqrt13,sqrt13, //7 normal
};
RenderSystem* rs = Root::getSingleton().getRenderSystem();
RGBA colours[nVertices];
RGBA *pColour = colours;
// Use render system to convert colour value since colour packing varies
rs->convertColourValue(ColourValue(1.0,0.0,0.0), pColour++); //0 colour
rs->convertColourValue(ColourValue(1.0,1.0,0.0), pColour++); //1 colour
rs->convertColourValue(ColourValue(0.0,1.0,0.0), pColour++); //2 colour
rs->convertColourValue(ColourValue(0.0,0.0,0.0), pColour++); //3 colour
rs->convertColourValue(ColourValue(1.0,0.0,1.0), pColour++); //4 colour
rs->convertColourValue(ColourValue(1.0,1.0,1.0), pColour++); //5 colour
rs->convertColourValue(ColourValue(0.0,1.0,1.0), pColour++); //6 colour
rs->convertColourValue(ColourValue(0.0,0.0,1.0), pColour++); //7 colour
/// Define 12 triangles (two triangles per cube face)
/// The values in this table refer to vertices in the above table
const size_t ibufCount = 36;
unsigned short faces[ibufCount] = {
0,2,3,
0,1,2,
1,6,2,
1,5,6,
4,6,5,
4,7,6,
0,7,4,
0,3,7,
0,5,1,
0,4,5,
2,7,3,
2,6,7
};
/// Create vertex data structure for 8 vertices shared between submeshes
msh->sharedVertexData = new VertexData();
msh->sharedVertexData->vertexCount = nVertices;
/// Create declaration (memory format) of vertex data
VertexDeclaration* decl = msh->sharedVertexData->vertexDeclaration;
size_t offset = 0;
// 1st buffer
decl->addElement(0, offset, VET_FLOAT3, VES_POSITION);
offset += VertexElement::getTypeSize(VET_FLOAT3);
decl->addElement(0, offset, VET_FLOAT3, VES_NORMAL);
offset += VertexElement::getTypeSize(VET_FLOAT3);
/// Allocate vertex buffer of the requested number of vertices (vertexCount)
/// and bytes per vertex (offset)
HardwareVertexBufferSharedPtr vbuf =
HardwareBufferManager::getSingleton().createVertexBuffer(
offset, msh->sharedVertexData->vertexCount, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
/// Upload the vertex data to the card
vbuf->writeData(0, vbuf->getSizeInBytes(), vertices, true);
/// Set vertex buffer binding so buffer 0 is bound to our vertex buffer
VertexBufferBinding* bind = msh->sharedVertexData->vertexBufferBinding;
bind->setBinding(0, vbuf);
// 2nd buffer
offset = 0;
decl->addElement(1, offset, VET_COLOUR, VES_DIFFUSE);
offset += VertexElement::getTypeSize(VET_COLOUR);
/// Allocate vertex buffer of the requested number of vertices (vertexCount)
/// and bytes per vertex (offset)
vbuf = HardwareBufferManager::getSingleton().createVertexBuffer(
offset, msh->sharedVertexData->vertexCount, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
/// Upload the vertex data to the card
vbuf->writeData(0, vbuf->getSizeInBytes(), colours, true);
/// Set vertex buffer binding so buffer 1 is bound to our colour buffer
bind->setBinding(1, vbuf);
/// Allocate index buffer of the requested number of vertices (ibufCount)
HardwareIndexBufferSharedPtr ibuf = HardwareBufferManager::getSingleton().
createIndexBuffer(
HardwareIndexBuffer::IT_16BIT,
ibufCount,
HardwareBuffer::HBU_STATIC_WRITE_ONLY);
/// Upload the index data to the card
ibuf->writeData(0, ibuf->getSizeInBytes(), faces, true);
/// Set parameters of the submesh
sub->useSharedVertices = true;
sub->indexData->indexBuffer = ibuf;
sub->indexData->indexCount = ibufCount;
sub->indexData->indexStart = 0;
/// Set bounding information (for culling)
msh->_setBounds(AxisAlignedBox(-100,-100,-100,100,100,100));
msh->_setBoundingSphereRadius(Math::Sqrt(3*100*100));
/// Notify -Mesh object that it has been loaded
msh->load();
}
SkeletonPtr MergeSkeleton::bake()
{
MeshCombiner::getSingleton().log(
"Baking: New Skeleton started" );
SkeletonPtr sp = SkeletonManager::getSingleton().create( "mergeSkeleton",
ResourceGroupManager::DEFAULT_RESOURCE_GROUP_NAME, true );
for( std::vector< Ogre::SkeletonPtr >::iterator it = m_Skeletons.begin();
it != m_Skeletons.end(); ++it )
{
if( it == m_Skeletons.begin() )
{
MeshCombiner::getSingleton().log(
"Baking: using " + (*it)->getName() + " as the base skeleton" );
MeshCombiner::getSingleton().log(
"Baking: adding bones" );
Skeleton::BoneIterator bit = (*it)->getBoneIterator();
while( bit.hasMoreElements() )
{
Bone* bone = bit.getNext();
Bone* newbone = sp->createBone( bone->getName(), bone->getHandle() );
newbone->setScale( bone->getScale() );
newbone->setOrientation( bone->getOrientation() );
newbone->setPosition( bone->getPosition() );
}
MeshCombiner::getSingleton().log(
"Baking: building bone hierarchy" );
// bone hierarchy
bit = (*it)->getBoneIterator();
while( bit.hasMoreElements() )
{
Bone* bone = bit.getNext();
Node* pnode = bone->getParent();
if( pnode != NULL )
{
Bone* pbone = static_cast<Bone*>( pnode );
sp->getBone( pbone->getHandle() )->addChild( sp->getBone( bone->getHandle() ) );
}
}
}
MeshCombiner::getSingleton().log(
"Baking: adding animations for " + (*it)->getName() );
// insert all animations
for (unsigned short a=0; a < (*it)->getNumAnimations(); ++a )
{
Animation* anim = (*it)->getAnimation( a );
Animation* newanim = sp->createAnimation( anim->getName(), anim->getLength() );
if( anim->getNumNodeTracks() > 0 )
MeshCombiner::getSingleton().log(
"Baking: adding node tracks" );
for( unsigned short na=0; na < anim->getNumNodeTracks(); ++na )
{
if( anim->hasNodeTrack( na ) )
{
NodeAnimationTrack* nat = anim->getNodeTrack( na );
NodeAnimationTrack* newnat = newanim->createNodeTrack( na );
// all key frames
for( unsigned short nf=0; nf < nat->getNumKeyFrames(); ++nf )
{
TransformKeyFrame* tkf = nat->getNodeKeyFrame( nf );
TransformKeyFrame* newtkf = newnat->createNodeKeyFrame( tkf->getTime() );
newtkf->setRotation( tkf->getRotation() );
newtkf->setTranslate( tkf->getTranslate() );
newtkf->setScale( tkf->getScale() );
}
newnat->setAssociatedNode( sp->getBone( nat->getHandle() ) );
}
}
if( anim->getNumNumericTracks() > 0 )
MeshCombiner::getSingleton().log(
"Baking: adding numeric tracks" );
for( unsigned short na=0; na < anim->getNumNumericTracks(); ++na )
{
if( anim->hasNumericTrack( na ) )
{
NumericAnimationTrack* nat = anim->getNumericTrack( na );
NumericAnimationTrack* newnat = newanim->createNumericTrack( na );
// all key frames
for( unsigned short nf=0; nf < nat->getNumKeyFrames(); ++nf )
{
NumericKeyFrame* nkf = nat->getNumericKeyFrame( nf );
NumericKeyFrame* newnkf = newnat->createNumericKeyFrame( nkf->getTime() );
newnkf->setValue( nkf->getValue() );
}
}
}
if( anim->getNumVertexTracks() > 0 )
MeshCombiner::getSingleton().log(
"Baking: adding vertex tracks" );
for( unsigned short va=0; va < anim->getNumVertexTracks(); ++va )
{
if( anim->hasVertexTrack( va ) )
{
VertexAnimationTrack* vat = anim->getVertexTrack( va );
VertexAnimationTrack* newvat = newanim->createVertexTrack( va, vat->getAnimationType() );
// all key frames
for( unsigned short nf=0; nf < vat->getNumKeyFrames(); ++nf )
{
// all morphs
VertexMorphKeyFrame* vmkf = vat->getVertexMorphKeyFrame( nf );
if( vmkf != NULL )
{
VertexMorphKeyFrame* newvmkf = newvat->createVertexMorphKeyFrame( vmkf->getTime() );
// @todo vertex buffer copying correct??
HardwareVertexBufferSharedPtr buf = vmkf->getVertexBuffer();
HardwareVertexBufferSharedPtr newbuf = HardwareBufferManager::getSingleton().createVertexBuffer(
buf->getVertexSize(), buf->getNumVertices(), buf->getUsage(), buf->hasShadowBuffer() );
newbuf->copyData( *buf.getPointer(), 0, 0, buf->getSizeInBytes() );
}
// all poses
VertexPoseKeyFrame* vpkf = vat->getVertexPoseKeyFrame( nf );
if( vpkf != NULL )
{
VertexPoseKeyFrame* newvpkf = newvat->createVertexPoseKeyFrame( vpkf->getTime() );
VertexPoseKeyFrame::PoseRefIterator pit = vpkf->getPoseReferenceIterator();
while( pit.hasMoreElements() )
{
VertexPoseKeyFrame::PoseRef pr = pit.getNext();
newvpkf->addPoseReference( pr.poseIndex, pr.influence );
}
}
}
}
}
}
}
return sp;
}
// Convert Nif::NiTriShape to Ogre::SubMesh, attached to the given
// mesh.
static void createOgreMesh(Mesh *mesh, NiTriShape *shape, const String &material)
{
NiTriShapeData *data = shape->data.getPtr();
SubMesh *sub = mesh->createSubMesh(shape->name.toString());
int nextBuf = 0;
// This function is just one long stream of Ogre-barf, but it works
// great.
// Add vertices
int numVerts = data->vertices.length / 3;
sub->vertexData = new VertexData();
sub->vertexData->vertexCount = numVerts;
sub->useSharedVertices = false;
VertexDeclaration *decl = sub->vertexData->vertexDeclaration;
decl->addElement(nextBuf, 0, VET_FLOAT3, VES_POSITION);
HardwareVertexBufferSharedPtr vbuf =
HardwareBufferManager::getSingleton().createVertexBuffer(
VertexElement::getTypeSize(VET_FLOAT3),
numVerts, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
vbuf->writeData(0, vbuf->getSizeInBytes(), data->vertices.ptr, true);
VertexBufferBinding* bind = sub->vertexData->vertexBufferBinding;
bind->setBinding(nextBuf++, vbuf);
// Vertex normals
if(data->normals.length)
{
decl->addElement(nextBuf, 0, VET_FLOAT3, VES_NORMAL);
vbuf = HardwareBufferManager::getSingleton().createVertexBuffer(
VertexElement::getTypeSize(VET_FLOAT3),
numVerts, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
vbuf->writeData(0, vbuf->getSizeInBytes(), data->normals.ptr, true);
bind->setBinding(nextBuf++, vbuf);
}
// Vertex colors
if(data->colors.length)
{
const float *colors = data->colors.ptr;
RenderSystem* rs = Root::getSingleton().getRenderSystem();
std::vector<RGBA> colorsRGB(numVerts);
RGBA *pColour = &colorsRGB.front();
for(int i=0; i<numVerts; i++)
{
rs->convertColourValue(ColourValue(colors[0],colors[1],colors[2],
colors[3]),pColour++);
colors += 4;
}
decl->addElement(nextBuf, 0, VET_COLOUR, VES_DIFFUSE);
vbuf = HardwareBufferManager::getSingleton().createVertexBuffer(
VertexElement::getTypeSize(VET_COLOUR),
numVerts, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
vbuf->writeData(0, vbuf->getSizeInBytes(), &colorsRGB.front(), true);
bind->setBinding(nextBuf++, vbuf);
}
// Texture UV coordinates
if(data->uvlist.length)
{
decl->addElement(nextBuf, 0, VET_FLOAT2, VES_TEXTURE_COORDINATES);
vbuf = HardwareBufferManager::getSingleton().createVertexBuffer(
VertexElement::getTypeSize(VET_FLOAT2),
numVerts, HardwareBuffer::HBU_STATIC_WRITE_ONLY);
vbuf->writeData(0, vbuf->getSizeInBytes(), data->uvlist.ptr, true);
bind->setBinding(nextBuf++, vbuf);
}
// Triangle faces
int numFaces = data->triangles.length;
if(numFaces)
{
HardwareIndexBufferSharedPtr ibuf = HardwareBufferManager::getSingleton().
createIndexBuffer(HardwareIndexBuffer::IT_16BIT,
numFaces,
HardwareBuffer::HBU_STATIC_WRITE_ONLY);
ibuf->writeData(0, ibuf->getSizeInBytes(), data->triangles.ptr, true);
sub->indexData->indexBuffer = ibuf;
sub->indexData->indexCount = numFaces;
sub->indexData->indexStart = 0;
}
// Set material if one was given
if(!material.empty()) sub->setMaterialName(material);
/* Old commented D code. Might be useful when reimplementing
animation.
// Assign this submesh to the given bone
VertexBoneAssignment v;
v.boneIndex = ((Bone*)bone)->getHandle();
v.weight = 1.0;
std::cerr << "+ Assigning bone index " << v.boneIndex << "\n";
for(int i=0; i < numVerts; i++)
{
v.vertexIndex = i;
sub->addBoneAssignment(v);
}
*/
}
void Tile::_generateSubMesh(MeshPtr& mesh)
{
// Create a submesh to the given mesh.
SubMesh* tileMesh = mesh->createSubMesh();
// Define the vertices.
size_t index = 0;
size_t vertCount = this->mCorners.size() + 1; // corner count + center corner
Real* vertices = new Real[vertCount*3*2]; // (number of verts)*(x, y, z)*(coord, normal) -or- vertCount*3*2
// Manually add center vertex.
// -- Position (ord: x, y, z)
vertices[index++] = this->mPosition.x;
vertices[index++] = (Ogre::Real)(this->elevation);
vertices[index++] = this->mPosition.y;
// -- Normal (ord: x, y, z)
Vector3 norm = Vector3::UNIT_Y;
vertices[index++] = norm.x;
vertices[index++] = norm.y;
vertices[index++] = norm.z;
// Add the rest of the vertices to data buffer.
for(std::vector<Corner*>::iterator it = this->mCorners.begin(); it != this->mCorners.end(); ++it) {
// Add to the next point to the array.
// -- Position
Vector3 vector = (*it)->vec3();
vertices[index++] = vector.x;
vertices[index++] = vector.y;
vertices[index++] = vector.z;
// -- Normal
Vector3 normal = Vector3::UNIT_Y;
vertices[index++] = normal.x;
vertices[index++] = normal.y;
vertices[index++] = normal.z;
}
// Define vertices color.
RenderSystem* rs = Root::getSingleton().getRenderSystem();
RGBA* colors = new RGBA[vertCount];
for(size_t i = 0; i < vertCount; ++i)
rs->convertColourValue(ColourValue(0.0f + 0.175f*i, 0.2f, 1.0f - 0.175f*i), colors + i);
// Define the triangles.
size_t faceCount = vertCount - 1; // Face count = vertCount - cent
size_t center = 0;
size_t last = 1; //collin was here
size_t curr = 2;
unsigned short* faces = new unsigned short[faceCount*3];
index = 0;
for(size_t i = 0; i < faceCount; ++i) {
assert(last < vertCount && curr < vertCount); // Panic check
faces[index++] = center;
faces[index++] = curr;
faces[index++] = last;
last = curr++;
if(curr >= vertCount) curr = 1;
}
// All information has been generated, move into mesh structures.
// Note: Currently does not implement or used any sort of shared
// vertices. This is intentional and should be changed at the
// soonest conveienence. IE -- Never. ;P
tileMesh->useSharedVertices = false;
tileMesh->vertexData = new VertexData();
tileMesh->vertexData->vertexCount = vertCount;
// Create memory footprint for vertex data.
size_t offset = 0;
VertexDeclaration* decl = tileMesh->vertexData->vertexDeclaration;
// Position and normal buffer.
// -- Position
decl->addElement(0, offset, VET_FLOAT3, VES_POSITION);
offset += VertexElement::getTypeSize(VET_FLOAT3);
// -- Normal
decl->addElement(0, offset, VET_FLOAT3, VES_NORMAL);
offset += VertexElement::getTypeSize(VET_FLOAT3);
// Allocate a vertex buffer for a number of vertices and vertex size.
HardwareVertexBufferSharedPtr vertBuff =
HardwareBufferManager::getSingleton().createVertexBuffer(
offset, // Size of a vertex, in bytes.
tileMesh->vertexData->vertexCount,
HardwareBuffer::HBU_STATIC_WRITE_ONLY);
// Write our data to vertex buffer.
vertBuff->writeData(0, vertBuff->getSizeInBytes(), vertices, true);
// Set the buffer's bind location.
VertexBufferBinding* vertBind = tileMesh->vertexData->vertexBufferBinding;
vertBind->setBinding(0, vertBuff);
// Color buffer for vertices
offset = 0;
decl->addElement(1, offset, VET_COLOUR, VES_DIFFUSE);
offset += VertexElement::getTypeSize(VET_COLOUR);
// Allocate a new buffer for colors.
vertBuff = HardwareBufferManager::getSingleton().createVertexBuffer(
offset, // Size of a vertex, in bytes.
tileMesh->vertexData->vertexCount,
HardwareBuffer::HBU_STATIC_WRITE_ONLY);
// Write color data to buffer.
vertBuff->writeData(0, vertBuff->getSizeInBytes(), colors, true);
// Set the color buffer's bind location
vertBind->setBinding(1, vertBuff);
// Allocate a buffer for the index information
HardwareIndexBufferSharedPtr indexBuff = HardwareBufferManager::getSingleton().createIndexBuffer(
HardwareIndexBuffer::IT_16BIT,
faceCount*3,
HardwareBuffer::HBU_STATIC_WRITE_ONLY);
// Write data to the buffer.
indexBuff->writeData(0, indexBuff->getSizeInBytes(), faces, true);
// Finalize submesh.
tileMesh->indexData->indexBuffer = indexBuff;
tileMesh->indexData->indexCount = faceCount*3;
tileMesh->indexData->indexStart = 0;
// Deallocate the vertex and face arrays.
if(vertices) delete[] vertices;
if(faces) delete[] faces;
}
void LodVertexBuffer::fillBuffer( Ogre::VertexData* data )
{
vertexCount = data->vertexCount;
if (vertexCount > 0) {
// Locate position element and the buffer to go with it.
const VertexElement* elemPos = data->vertexDeclaration->findElementBySemantic(VES_POSITION);
// Only float supported.
OgreAssert(elemPos->getSize() == 12, "");
HardwareVertexBufferSharedPtr vbuf = data->vertexBufferBinding->getBuffer(elemPos->getSource());
vertexBuffer = Ogre::SharedPtr<Vector3>(new Vector3[vertexCount]);
// Lock the buffer for reading.
unsigned char* vStart = static_cast<unsigned char*>(vbuf->lock(HardwareBuffer::HBL_READ_ONLY));
unsigned char* vertex = vStart;
size_t vSize = vbuf->getVertexSize();
const VertexElement* elemNormal = 0;
HardwareVertexBufferSharedPtr vNormalBuf;
unsigned char* vNormal = NULL;
Vector3* pNormalOut = NULL;
size_t vNormalSize = 0;
bool useVertexNormals = true;
elemNormal = data->vertexDeclaration->findElementBySemantic(VES_NORMAL);
useVertexNormals = useVertexNormals && (elemNormal != 0);
if(useVertexNormals){
vertexNormalBuffer = Ogre::SharedPtr<Vector3>(new Vector3[vertexCount]);
pNormalOut = vertexNormalBuffer.get();
if(elemNormal->getSource() == elemPos->getSource()){
vNormalBuf = vbuf;
vNormal = vStart;
} else {
vNormalBuf = data->vertexBufferBinding->getBuffer(elemNormal->getSource());
assert(vNormalBuf->getSizeInBytes() == vbuf->getSizeInBytes());
assert(vNormalBuf->getVertexSize() == vbuf->getVertexSize());
vNormal = static_cast<unsigned char*>(vNormalBuf->lock(HardwareBuffer::HBL_READ_ONLY));
}
vNormalSize = vNormalBuf->getVertexSize();
}
// Loop through all vertices and insert them to the Unordered Map.
Vector3* pOut = vertexBuffer.get();
Vector3* pEnd = pOut + vertexCount;
for (; pOut < pEnd; pOut++) {
float* pFloat;
elemPos->baseVertexPointerToElement(vertex, &pFloat);
pOut->x = *pFloat;
pOut->y = *(++pFloat);
pOut->z = *(++pFloat);
vertex += vSize;
if(useVertexNormals){
elemNormal->baseVertexPointerToElement(vNormal, &pFloat);
pNormalOut->x = *pFloat;
pNormalOut->y = *(++pFloat);
pNormalOut->z = *(++pFloat);
pNormalOut++;
vNormal += vNormalSize;
}
}
vbuf->unlock();
if(elemNormal && elemNormal->getSource() != elemPos->getSource()){
vNormalBuf->unlock();
}
}
}
