/* static */
already_AddRefed<URLMainThread> URLMainThread::Constructor(
const GlobalObject& aGlobal, const nsAString& aURL,
const Optional<nsAString>& aBase, ErrorResult& aRv) {
if (aBase.WasPassed()) {
return Constructor(aGlobal.GetAsSupports(), aURL, aBase.Value(), aRv);
}
return Constructor(aGlobal.GetAsSupports(), aURL, nullptr, aRv);
}
container_loader( OutIterator outIter_,
Constructor constructor_ = Constructor(),
Policy policy_ = Policy() ) :
outIter(outIter_),
constructor(constructor_),
policy(policy_)
{}
void S626_OpenBoard( HBD hbd, DWORD PhysLoc, FPTR_ISR Callback, DWORD Priority )
{
if( S626_VerifyTypes() != 0) {
printf("warning: possible types problem");
}
// Abort if a valid board handle is not specified.
if ( hbd >= MAX_BOARDS )
return;
// Increase counts of opening boards.
open_boards ++;
// Destroy any object that is currently occupying the board handle.
Destructor( hbd ); // including: Close the board if it is open at CORE level, using S626CORE_BoardClose( hbd );
// Open CORE object for board open preparation.
if ( !S626CORE_CoreOpen( hbd, open_boards ) )
{
S626CORE_SetErrors( hbd, ERR_OPEN );
return;
}
// Attempt to open the board.
Constructor( hbd, PhysLoc, Callback, Priority, 0 ); // including: Open the board at CORE level, using S626CORE_BoardOpen( hbd, IsBoardRevA );
//if ( S626CORE_GetErrors( HBD bd ) & ( ERR_OPEN | ERR_CARDREG | ERR_ALLOC_MEMORY | ERR_LOCK_BUFFER | ERR_THREAD | ERR_INTERRUPT ) )
//printf("error message: ? \n");
}
SAMinimizer::SAMinimizer(Random & r) :
GeneralMinimizer(), y(), simplex(), psum(), ptry()
{
freeRand = false;
rand = &r;
Constructor();
}
/* static */ already_AddRefed<URLMainThread>
URLMainThread::Constructor(const GlobalObject& aGlobal, const nsAString& aURL,
URL& aBase, ErrorResult& aRv)
{
MOZ_ASSERT(NS_IsMainThread());
URLMainThread& base = static_cast<URLMainThread&>(aBase);
return Constructor(aGlobal.GetAsSupports(), aURL, base.GetURI(), aRv);
}
// static
already_AddRefed<PointerEvent>
PointerEvent::Constructor(const GlobalObject& aGlobal,
const nsAString& aType,
const PointerEventInit& aParam,
ErrorResult& aRv)
{
nsCOMPtr<EventTarget> owner = do_QueryInterface(aGlobal.GetAsSupports());
return Constructor(owner, aType, aParam);
}
SAMinimizer::SAMinimizer() :
GeneralMinimizer(), y(), simplex(), psum(), ptry()
{
time_t t;
rand = new Random((long)time(&t));
freeRand = true;
Constructor();
}
/* static */ already_AddRefed<MessageEvent>
MessageEvent::Constructor(const GlobalObject& aGlobal,
const nsAString& aType,
const MessageEventInit& aParam,
ErrorResult& aRv)
{
nsCOMPtr<EventTarget> t = do_QueryInterface(aGlobal.GetAsSupports());
return Constructor(t, aType, aParam, aRv);
}
Constructor::Constructor(int i)
{
Constructor();
if(i != 0)
{
this->m_i = i;
}
cout << this->m_i << endl;
}
already_AddRefed<LabeledBlob>
LabeledBlob::Constructor(const GlobalObject& global,
JSContext* cx,
const nsAString& blob,
const nsAString& privacy,
ErrorResult& aRv)
{
nsRefPtr<Label> lprivacy = Label::Constructor(global, privacy, aRv);
if (aRv.Failed()) return nullptr;
return Constructor(global, cx, blob, *lprivacy, aRv);
}
container_serializer( InIterator firstIter_,
InIterator endIter_,
OutIterator outIter_,
Constructor constructor_ = Constructor(),
Policy policy_ = Policy() ) :
firstIter(firstIter_),
endIter(endIter_),
outIter(outIter_),
constructor(constructor_),
policy(policy_)
{}
/* static */
already_AddRefed<URLMainThread> URLMainThread::Constructor(
nsISupports* aParent, const nsAString& aURL, const nsAString& aBase,
ErrorResult& aRv) {
MOZ_ASSERT(NS_IsMainThread());
nsCOMPtr<nsIURI> baseUri;
nsresult rv = NS_NewURI(getter_AddRefs(baseUri), aBase, nullptr, nullptr,
nsContentUtils::GetIOService());
if (NS_WARN_IF(NS_FAILED(rv))) {
aRv.ThrowTypeError<MSG_INVALID_URL>(aBase);
return nullptr;
}
return Constructor(aParent, aURL, baseUri, aRv);
}
void SaslServer::mechanisms(const std::string& mechanisms)
{
void* frameToken = startFrame();
std::vector<std::string> parts = split(mechanisms, SPACE);
void* listToken = encoder.startList32(&SASL_MECHANISMS);
if (parts.size() > 1) {
void* arrayToken = encoder.startArray8(Constructor(SYMBOL8));
for (std::vector<std::string>::const_iterator i = parts.begin();i != parts.end(); ++i) {
uint8_t size = i->size() > std::numeric_limits<uint8_t>::max() ? std::numeric_limits<uint8_t>::max() : i->size();
encoder.write(size);
encoder.writeBytes(i->data(), size);
}
encoder.endArray8(parts.size(), arrayToken);
} else {
encoder.writeSymbol(mechanisms);
}
encoder.endList32(1, listToken);
endFrame(frameToken);
QPID_LOG_CAT(debug, protocol, id << " Sent SASL-MECHANISMS(" << mechanisms << ") " << encoder.getPosition());
}
void testConcurrentConstruction()
{
size_t numIterations = 10000000;
parallel_for( blocked_range<size_t>( 0, numIterations ), Constructor() );
}
BRUSH* ConvertXModelToBrushFormat ( char* szFilename, BRUSH* pBrush, int* piCount, LPDIRECT3DDEVICE8 lpDevice )
{
// takes an x model and converts it into brushes
// check the pointers are valid
if ( !szFilename || !piCount )
return NULL;
// used to access vertex data
struct sMeshData
{
float x, y, z;
float nx, ny, nz;
float tu, tv;
};
// variable declarations
tagModelData* ptr; // model data
LPDIRECT3DVERTEXBUFFER8 pMeshVertexBuffer; // vertex buffer
LPDIRECT3DINDEXBUFFER8 pMeshIndexBuffer; // index buffer
sMeshData* pMeshVertices; // mesh vertices
WORD* pMeshIndices; // mesh indices
sMesh* pMesh; // mesh data
int iCount;
// load the model
Constructor ( lpDevice );
ptr = Load ( 1, szFilename );
pMesh = ptr->m_Object.m_Meshes;
// count the number of brushes so we can allocate enough memory for them
iCount = 0;
while ( pMesh )
{
pMesh = pMesh->m_Next;
iCount++;
}
// store the number of models in the brush count pointer
*piCount = iCount;
// now setup the brushes
pBrush = new BRUSH [ iCount ]; // allocate memory
// set the mesh pointer back to the original mesh
pMesh = ptr->m_Object.m_Meshes;
// run through all meshes and store the brush data
// first off set iCount to 0 so we know which brush
// we are dealing with
iCount = 0;
while ( pMesh )
{
int iInd = 0;
DWORD dwNumVertices = pMesh->m_Mesh->GetNumVertices ( );
DWORD dwNumFaces = pMesh->m_Mesh->GetNumFaces ( );
pBrush [ iCount ].Faces = new POLYGON [ dwNumFaces ];
pBrush [ iCount ].FaceCount = dwNumFaces;
pBrush [ iCount ].Bounds.Max = D3DXVECTOR3 ( 150.0f, 150.0f, 150.0f );
pBrush [ iCount ].Bounds.Min = D3DXVECTOR3 ( -150.0f, -150.0f, -150.0f );
pBrush [ iCount ].BSPTree = NULL;
pMesh->m_Mesh->GetVertexBuffer ( &pMeshVertexBuffer );
pMesh->m_Mesh->GetIndexBuffer ( &pMeshIndexBuffer );
DWORD dwFVF = pMesh->m_Mesh->GetFVF ( );
pMeshVertexBuffer->Lock ( 0, pMesh->m_Mesh->GetNumVertices ( ) * sizeof ( sMeshData ), ( BYTE** ) &pMeshVertices, 0 );
pMeshIndexBuffer->Lock ( 0, 3 * pMesh->m_Mesh->GetNumFaces ( ) * sizeof ( WORD ), ( BYTE** ) &pMeshIndices, 0 );
for ( int iTemp = 0; iTemp < dwNumFaces; iTemp++ )
{
char szX [ 256 ];
char szY [ 256 ];
char szZ [ 256 ];
int iA = pMeshIndices [ iInd + 0 ];
int iB = pMeshIndices [ iInd + 1 ];
int iC = pMeshIndices [ iInd + 2 ];
WORD wIndices [ ] = { 0, 1, 2 };
pBrush [ iCount ].Faces [ iTemp ].IndexCount = 3;
pBrush [ iCount ].Faces [ iTemp ].TextureIndex = 0;
pBrush [ iCount ].Faces [ iTemp ].VertexCount = 3;
pBrush [ iCount ].Faces [ iTemp ].Indices = new WORD [ 3 ];
pBrush [ iCount ].Faces [ iTemp ].Vertices = new D3DVERTEX [ 3 ];
pBrush [ iCount ].Faces [ iTemp ].Vertices [ 0 ] = SetupVertex ( pMeshVertices [ iA ].x, pMeshVertices [ iA ].y, pMeshVertices [ iA ].z, pMeshVertices [ iA ].tu, pMeshVertices [ iA ].tv );
pBrush [ iCount ].Faces [ iTemp ].Vertices [ 1 ] = SetupVertex ( pMeshVertices [ iB ].x, pMeshVertices [ iB ].y, pMeshVertices [ iB ].z, pMeshVertices [ iB ].tu, pMeshVertices [ iB ].tv );
pBrush [ iCount ].Faces [ iTemp ].Vertices [ 2 ] = SetupVertex ( pMeshVertices [ iC ].x, pMeshVertices [ iC ].y, pMeshVertices [ iC ].z, pMeshVertices [ iC ].tu, pMeshVertices [ iC ].tv );
for ( int iChar = 0; iChar < 3; iChar++ )
{
sprintf ( szX, "%.1f", pBrush [ iCount ].Faces [ iTemp ].Vertices [ iChar ].x );
sprintf ( szY, "%.1f", pBrush [ iCount ].Faces [ iTemp ].Vertices [ iChar ].y );
sprintf ( szZ, "%.1f", pBrush [ iCount ].Faces [ iTemp ].Vertices [ iChar ].z );
pBrush [ iCount ].Faces [ iTemp ].Vertices [ iChar ].x = atof ( szX );
pBrush [ iCount ].Faces [ iTemp ].Vertices [ iChar ].y = atof ( szY );
pBrush [ iCount ].Faces [ iTemp ].Vertices [ iChar ].z = atof ( szZ );
}
memcpy ( pBrush [ iCount ].Faces [ iTemp ].Indices, wIndices, sizeof ( wIndices ) );
CalculateNormal ( &pBrush [ iCount ].Faces [ iTemp ] );
iInd += 3;
}
SetBlockPosition ( &pBrush [ iCount ], 0.0f, 0.0f, 0.0f, 1.0f );
pMeshVertexBuffer->Unlock ( );
pMeshIndexBuffer->Unlock ( );
iCount++;
pMesh = pMesh->m_Next;
}
iCount = 0;
pMesh = ptr->m_Object.m_Meshes;
for ( int iTemp = ptr->m_Object.m_NumFrames; iTemp > 0; iTemp-- )
{
sFrame* pFrame = ptr->m_Object.m_Frames->FindFrame ( iTemp );
if ( pFrame )
{
pBrush [ iCount ].Matrix._41 = pFrame->m_matOriginal._41;
pBrush [ iCount ].Matrix._42 = pFrame->m_matOriginal._42;
pBrush [ iCount ].Matrix._43 = pFrame->m_matOriginal._43;
iCount++;
}
}
return pBrush;
}
void testConcurrentConstruction()
{
size_t numIterations = 10000000;
tbb::task_group_context taskGroupContext( tbb::task_group_context::isolated );
parallel_for( blocked_range<size_t>( 0, numIterations ), Constructor(), taskGroupContext );
}
void ConstructorFTP ( void )
{
Constructor ( );
}
Panel_Remaps::Panel_Remaps( wxNotebook *onglets )
:Panel_withAnims( onglets )
{
Constructor();
}
medGizmoInteractionDebugger::medGizmoInteractionDebugger(mafNode* imputVme, mafObserver *listener, const char* name, bool testMode)
{
Constructor(imputVme, listener, name, testMode);
}
