//-----------------------------------------------------------------------------
// Places Detail Objects in the lump
//-----------------------------------------------------------------------------
static void SetLumpData( )
{
// Sort detail props by leaf
qsort( s_DetailObjectLump.Base(), s_DetailObjectLump.Count(), sizeof(DetailObjectLump_t), SortFunc );
GameLumpHandle_t handle = GetGameLumpHandle(GAMELUMP_DETAIL_PROPS);
if (handle != InvalidGameLump())
DestroyGameLump(handle);
int nDictSize = s_DetailObjectDictLump.Count() * sizeof(DetailObjectDictLump_t);
int nSpriteDictSize = s_DetailSpriteDictLump.Count() * sizeof(DetailSpriteDictLump_t);
int nObjSize = s_DetailObjectLump.Count() * sizeof(DetailObjectLump_t);
int nSize = nDictSize + nSpriteDictSize + nObjSize + 3 * sizeof(int);
handle = CreateGameLump( GAMELUMP_DETAIL_PROPS, nSize, 0, GAMELUMP_DETAIL_PROPS_VERSION );
// Serialize the data
CUtlBuffer buf( GetGameLump(handle), nSize );
buf.PutInt( s_DetailObjectDictLump.Count() );
if (nDictSize)
buf.Put( s_DetailObjectDictLump.Base(), nDictSize );
buf.PutInt( s_DetailSpriteDictLump.Count() );
if (nSpriteDictSize)
buf.Put( s_DetailSpriteDictLump.Base(), nSpriteDictSize );
buf.PutInt( s_DetailObjectLump.Count() );
if (nObjSize)
buf.Put( s_DetailObjectLump.Base(), nObjSize );
}
void CmdLib_FPrintf( FileHandle_t hFile, const char *pFormat, ... )
{
static CUtlVector<char> buf;
if ( buf.Count() == 0 )
buf.SetCount( 1024 );
va_list marker;
va_start( marker, pFormat );
while ( 1 )
{
int ret = Q_vsnprintf( buf.Base(), buf.Count(), pFormat, marker );
if ( ret >= 0 )
{
// Write the string.
g_pFileSystem->Write( buf.Base(), ret, hFile );
break;
}
else
{
// Make the buffer larger.
int newSize = buf.Count() * 2;
buf.SetCount( newSize );
if ( buf.Count() != newSize )
{
Error( "CmdLib_FPrintf: can't allocate space for text." );
}
}
}
va_end( marker );
}
void RunInDLL( const char *pFilename, CUtlVector<char*> &newArgv )
{
if ( g_pConnMgr )
g_pConnMgr->SetAppState( VMPI_SERVICE_STATE_BUSY );
bool bSuccess = false;
CSysModule *pModule = Sys_LoadModule( pFilename );
if ( pModule )
{
CreateInterfaceFn fn = Sys_GetFactory( pModule );
if ( fn )
{
ILaunchableDLL *pDLL = (ILaunchableDLL*)fn( LAUNCHABLE_DLL_INTERFACE_VERSION, NULL );
if( pDLL )
{
// Do this here because the executables we would have launched usually would do it.
CommandLine()->CreateCmdLine( newArgv.Count(), newArgv.Base() );
pDLL->main( newArgv.Count(), newArgv.Base() );
bSuccess = true;
SpewOutputFunc( MySpewOutputFunc );
}
}
Sys_UnloadModule( pModule );
}
if ( !bSuccess )
{
Msg( "Error running VRAD (or VVIS) out of DLL '%s'\n", pFilename );
}
if ( g_pConnMgr )
g_pConnMgr->SetAppState( VMPI_SERVICE_STATE_IDLE );
}
//-----------------------------------------------------------------------------
//
//-----------------------------------------------------------------------------
void CDmeSingleIndexedComponent::Intersection( const CDmeSingleIndexedComponent &rhs )
{
const int nLhs = Count();
const int nRhs = rhs.Count();
int l = 0;
int r = 0;
if ( IsComplete() )
{
// TODO
Assert( 0 );
}
else
{
CUtlVector< int > newComponents;
newComponents.EnsureCapacity( nLhs );
CUtlVector< float > newWeights;
newWeights.EnsureCapacity( nLhs );
while ( l < nLhs || r < nRhs )
{
// In LHS but not RHS
while ( l < nLhs && ( r >= nRhs || m_Components[ l ] < rhs.m_Components[ r ] ) )
{
++l;
}
// In RHS but not LHS
while ( r < nRhs && ( l >= nLhs || m_Components[ l ] > rhs.m_Components[ r ] ) )
{
++r;
}
// In Both LHS & RHS
while ( l < nLhs && r < nRhs && m_Components[ l ] == rhs.m_Components[ r ] )
{
newComponents.AddToTail( m_Components[ l ] );
newWeights.AddToTail( m_Weights[ l ] );
++l;
++r;
}
}
m_Components.CopyArray( newComponents.Base(), newComponents.Count() );
m_Weights.CopyArray( newWeights.Base(), newWeights.Count() );
}
m_CompleteCount.Set( 0 );
m_bComplete.Set( false );
}
//-----------------------------------------------------------------------------
// Computes a convex hull from the studio model
//-----------------------------------------------------------------------------
CPhysCollide* ComputeConvexHull( studiohdr_t* pStudioHdr )
{
CUtlVector<CPhysConvex*> convexHulls;
for (int body = 0; body < pStudioHdr->numbodyparts; ++body )
{
mstudiobodyparts_t *pBodyPart = pStudioHdr->pBodypart( body );
for( int model = 0; model < pBodyPart->nummodels; ++model )
{
mstudiomodel_t *pStudioModel = pBodyPart->pModel( model );
for( int mesh = 0; mesh < pStudioModel->nummeshes; ++mesh )
{
// Make a convex hull for each mesh
// NOTE: This won't work unless the model has been compiled
// with $staticprop
mstudiomesh_t *pStudioMesh = pStudioModel->pMesh( mesh );
convexHulls.AddToTail( ComputeConvexHull( pStudioMesh ) );
}
}
}
// Convert an array of convex elements to a compiled collision model
// (this deletes the convex elements)
return s_pPhysCollision->ConvertConvexToCollide( convexHulls.Base(), convexHulls.Size() );
}
void PerfThread_SendSpewText()
{
// Send the spew text to the database.
CCriticalSectionLock csLock( &g_SpewTextCS );
csLock.Lock();
if ( g_SpewText.Count() > 0 )
{
g_SpewText.AddToTail( 0 );
if ( g_bMPI_StatsTextOutput )
{
g_pDB->AddCommandToQueue( new CSQLDBCommand_TextMessage( g_SpewText.Base() ), NULL );
}
else
{
// Just show one message in the vmpi_job_watch window to let them know that they need
// to use a command line option to get the output.
static bool bFirst = true;
if ( bFirst )
{
char msg[512];
V_snprintf( msg, sizeof( msg ), "%s not enabled", VMPI_GetParamString( mpi_Stats_TextOutput ) );
bFirst = false;
g_pDB->AddCommandToQueue( new CSQLDBCommand_TextMessage( msg ), NULL );
}
}
g_SpewText.RemoveAll();
}
csLock.Unlock();
}
void mx::createAccleratorTable( int numentries, Accel_t *entries )
{
CUtlVector< ACCEL > accelentries;
for ( int i = 0; i < numentries; ++i )
{
const Accel_t& entry = entries[ i ];
ACCEL add;
add.key = entry.key;
add.cmd = entry.command;
add.fVirt = 0;
if ( entry.flags & ACCEL_ALT )
{
add.fVirt |= FALT;
}
if ( entry.flags & ACCEL_CONTROL )
{
add.fVirt |= FCONTROL;
}
if ( entry.flags & ACCEL_SHIFT )
{
add.fVirt |= FSHIFT;
}
if ( entry.flags & ACCEL_VIRTKEY )
{
add.fVirt |= FVIRTKEY;
}
accelentries.AddToTail( add );
}
g_hAcceleratorTable = ::CreateAcceleratorTable( accelentries.Base(), accelentries.Count() );
}
void CEntityTouchManager::FrameUpdatePostEntityThink()
{
VPROF( "CEntityTouchManager::FrameUpdatePostEntityThink" );
// Loop through all entities again, checking their untouch if flagged to do so
int count = m_updateList.Count();
if ( count )
{
// copy off the list
CBaseEntity **ents = (CBaseEntity **)stackalloc( sizeof(CBaseEntity *) * count );
memcpy( ents, m_updateList.Base(), sizeof(CBaseEntity *) * count );
// clear it
m_updateList.RemoveAll();
// now update those ents
for ( int i = 0; i < count; i++ )
{
//Assert( ents[i]->GetCheckUntouch() );
if ( ents[i]->GetCheckUntouch() )
{
ents[i]->PhysicsCheckForEntityUntouch();
}
}
stackfree( ents );
}
}
static void WriteRecordingFile()
{
// Store the command size
*(int*)&g_pRecordingBuffer[g_CommandStartIdx] =
g_pRecordingBuffer.Size() - g_CommandStartIdx;
#ifndef CRASH_RECORDING
// When not crash recording, flush when buffer gets too big,
// or when Present() is called
if ((g_pRecordingBuffer.Size() < COMMAND_BUFFER_SIZE) &&
(g_pRecordingBuffer[g_CommandStartIdx+4] != DX8_PRESENT))
return;
#endif
FILE* fp = OpenRecordingFile();
if (fp)
{
// store the command size
fwrite( g_pRecordingBuffer.Base(), 1, g_pRecordingBuffer.Size(), fp );
fflush( fp );
#ifndef CRASH_RECORDING
fclose( fp );
#endif
}
g_pRecordingBuffer.RemoveAll();
}
void SendProxy_UtlVectorElement(
const SendProp *pProp,
const void *pStruct,
const void *pData,
DVariant *pOut,
int iElement,
int objectID )
{
CSendPropExtra_UtlVector *pExtra = (CSendPropExtra_UtlVector*)pProp->GetExtraData();
Assert( pExtra );
// Kind of lame overloading element stride to hold the element index,
// but we can easily move it into its SetExtraData stuff if we need to.
iElement = pProp->GetElementStride();
// NOTE: this is cheesy, but it does the trick.
CUtlVector<int> *pUtlVec = (CUtlVector<int>*)((char*)pStruct + pExtra->m_Offset);
if ( iElement >= pUtlVec->Count() )
{
// Pass in zero value.
memset( pOut, 0, sizeof( *pOut ) );
}
else
{
// Call through to the proxy they passed in, making pStruct=the CUtlVector and forcing iElement to 0.
pExtra->m_ProxyFn( pProp, pData, (char*)pUtlVec->Base() + iElement*pExtra->m_ElementStride, pOut, 0, objectID );
}
}
void CVRadDLL::GetBSPInfo( CBSPInfo *pInfo )
{
pInfo->dlightdata = pdlightdata->Base();
pInfo->lightdatasize = pdlightdata->Count();
pInfo->dfaces = dfaces;
pInfo->m_pFacesTouched = g_FacesTouched.Base();
pInfo->numfaces = numfaces;
pInfo->dvertexes = dvertexes;
pInfo->numvertexes = numvertexes;
pInfo->dedges = dedges;
pInfo->numedges = numedges;
pInfo->dsurfedges = dsurfedges;
pInfo->numsurfedges = numsurfedges;
pInfo->texinfo = texinfo.Base();
pInfo->numtexinfo = texinfo.Count();
pInfo->g_dispinfo = g_dispinfo.Base();
pInfo->g_numdispinfo = g_dispinfo.Count();
pInfo->dtexdata = dtexdata;
pInfo->numtexdata = numtexdata;
pInfo->texDataStringData = g_TexDataStringData.Base();
pInfo->nTexDataStringData = g_TexDataStringData.Count();
pInfo->texDataStringTable = g_TexDataStringTable.Base();
pInfo->nTexDataStringTable = g_TexDataStringTable.Count();
}
void CTilegenAction_AddRoomCandidates::Execute( CLayoutSystem *pLayoutSystem )
{
if ( m_pLevelTheme == NULL )
{
const char *pThemeName = m_pThemeNameExpression->Evaluate( pLayoutSystem->GetFreeVariables() );
m_pLevelTheme = CLevelTheme::FindTheme( pThemeName );
if ( m_pLevelTheme == NULL )
{
Log_Warning( LOG_TilegenLayoutSystem, "Theme %s not found.\n", pThemeName );
pLayoutSystem->OnError();
return;
}
}
CUtlVector< const CRoomTemplate * > validRoomTemplates;
BuildRoomTemplateList( pLayoutSystem, m_pLevelTheme, m_pRoomTemplateFilter, m_bExcludeGlobalFilters, &validRoomTemplates );
const CRoomTemplate **ppRoomTemplates = const_cast< const CRoomTemplate ** >( validRoomTemplates.Base() );
BuildRoomCandidateList(
pLayoutSystem,
ppRoomTemplates,
validRoomTemplates.Count(),
m_pExitFilter,
m_pRoomCandidateFilter,
m_pRoomCandidateFilterAction,
m_pRoomCandidateFilterCondition,
m_bExcludeGlobalFilters );
}
void CMySQLQuery::Format( const char *pFormat, ... )
{
#define QUERYTEXT_GROWSIZE 1024
// This keeps growing the buffer and calling _vsnprintf until the buffer is
// large enough to hold all the data.
m_QueryText.SetSize( QUERYTEXT_GROWSIZE );
while ( 1 )
{
va_list marker;
va_start( marker, pFormat );
int ret = _vsnprintf( m_QueryText.Base(), m_QueryText.Count(), pFormat, marker );
va_end( marker );
if ( ret < 0 )
{
m_QueryText.SetSize( m_QueryText.Count() + QUERYTEXT_GROWSIZE );
}
else
{
m_QueryText[ m_QueryText.Count() - 1 ] = 0;
break;
}
}
}
void ResizeAnimationLayerCallback( void *pStruct, int offsetToUtlVector, int len )
{
C_BaseAnimatingOverlay *pEnt = (C_BaseAnimatingOverlay*)pStruct;
CUtlVector < CAnimationLayer > *pVec = &pEnt->m_AnimOverlay;
CUtlVector< CInterpolatedVar< CAnimationLayer > > *pVecIV = &pEnt->m_iv_AnimOverlay;
Assert( (char*)pVec - (char*)pEnt == offsetToUtlVector );
Assert( pVec->Count() == pVecIV->Count() );
Assert( pVec->Count() <= C_BaseAnimatingOverlay::MAX_OVERLAYS );
int diff = len - pVec->Count();
if ( diff != 0 )
{
// remove all entries
for ( int i=0; i < pVec->Count(); i++ )
{
pEnt->RemoveVar( &pVec->Element( i ) );
}
pEnt->InvalidatePhysicsRecursive( BOUNDS_CHANGED );
// adjust vector sizes
if ( diff > 0 )
{
for ( int i = 0; i < diff; ++i )
{
int j = pVec->AddToTail( );
(*pVec)[j].SetOwner( pEnt );
}
pVecIV->AddMultipleToTail( diff );
}
else
{
pVec->RemoveMultiple( len, -diff );
pVecIV->RemoveMultiple( len, -diff );
}
// Rebind all the variables in the ent's list.
for ( int i=0; i < len; i++ )
{
IInterpolatedVar *pWatcher = &pVecIV->Element( i );
pWatcher->SetDebugName( s_m_iv_AnimOverlayNames[i] );
pEnt->AddVar( &pVec->Element( i ), pWatcher, LATCH_ANIMATION_VAR, true );
}
}
// FIXME: need to set historical values of nOrder in pVecIV to MAX_OVERLAY
// Ensure capacity
pVec->EnsureCapacity( len );
int nNumAllocated = pVec->NumAllocated();
// This is important to do because EnsureCapacity doesn't actually call the constructors
// on the elements, but we need them to be initialized, otherwise it'll have out-of-range
// values which will piss off the datatable encoder.
UtlVector_InitializeAllocatedElements( pVec->Base() + pVec->Count(), nNumAllocated - pVec->Count() );
}
void CVMPIServiceConnMgr::AddConsoleOutput( const char *pMsg )
{
// Tell clients of the new text string.
CUtlVector<char> data;
data.AddToTail( VMPI_SERVICE_UI_PROTOCOL_VERSION );
data.AddToTail( VMPI_SERVICE_TO_UI_CONSOLE_TEXT );
data.AddMultipleToTail( strlen( pMsg ) + 1, pMsg );
SendPacket( -1, data.Base(), data.Count() );
}
virtual void OnPacketReceived( CTCPPacket *pPacket )
{
if ( g_ClientPacket.Count() < pPacket->GetLen() )
g_ClientPacket.SetSize( pPacket->GetLen() );
memcpy( g_ClientPacket.Base(), pPacket->GetData(), pPacket->GetLen() );
g_ClientPacketEvent.SetEvent();
pPacket->Release();
}
void CColorCorrectionMgr::UpdateColorCorrection()
{
ResetColorCorrectionWeights();
C_BasePlayer *pPlayer = C_BasePlayer::GetLocalPlayer();
IClientMode *pClientMode = GetClientMode();
Assert( pClientMode );
if ( !pPlayer || !pClientMode )
{
return;
}
pClientMode->OnColorCorrectionWeightsReset();
float ccScale = pClientMode->GetColorCorrectionScale();
UpdateColorCorrectionEntities( pPlayer, ccScale, g_ColorCorrectionList.Base(), g_ColorCorrectionList.Count() );
UpdateColorCorrectionVolumes( pPlayer, ccScale, g_ColorCorrectionVolumeList.Base(), g_ColorCorrectionVolumeList.Count() );
CommitColorCorrectionWeights();
}
void CStaticPropMgr::UnserializeLeafList( CUtlBuffer& buf )
{
int nCount = buf.GetInt();
m_StaticPropLeaves.Purge();
if ( nCount > 0 )
{
m_StaticPropLeaves.AddMultipleToTail( nCount );
buf.Get( m_StaticPropLeaves.Base(), nCount * sizeof(StaticPropLeafLump_t) );
}
}
//-----------------------------------------------------------------------------
// Copy the vertex dictionary to the finalized processed data
// Leaves the source data intact, necessary for later processes.
// Routines can then choose which data they operate on
//-----------------------------------------------------------------------------
static void SetProcessedWithDictionary( CUtlVector<s_source_t*> &lods, CVertexDictionary &vertexDict,
CUtlVector<s_face_t> &faces, CUtlVector<s_mesh_t> &meshes, int *pMeshVertIndexMaps[MAX_NUM_LODS] )
{
int i;
int nNumLODs = lods.Count();
s_source_t *pRootLodSrc = lods[0];
s_loddata_t *pLodData = new s_loddata_t;
memset(pLodData, 0, sizeof(s_loddata_t));
// all lods have link to processed data
for (i=0; i<nNumLODs; i++)
{
lods[i]->pLodData = pLodData;
}
int nVertexCount = vertexDict.VertexCount();
pLodData->vertex = (s_vertexinfo_t *)kalloc( nVertexCount, sizeof( s_vertexinfo_t ) );
pLodData->numvertices = nVertexCount;
pLodData->face = (s_face_t *)kalloc( faces.Count(), sizeof( s_face_t ));
pLodData->numfaces = faces.Count();
for ( i = 0; i < nVertexCount; ++i )
{
pLodData->vertex[i].globalBoneweight = vertexDict.Vertex( i ).m_BoneWeight;
Assert( pLodData->vertex[i].globalBoneweight.numbones <= 4 );
pLodData->vertex[i].position = vertexDict.Vertex( i ).m_Position;
pLodData->vertex[i].normal = vertexDict.Vertex( i ).m_Normal;
pLodData->vertex[i].texcoord = vertexDict.Vertex( i ).m_TexCoord;
pLodData->vertex[i].tangentS = vertexDict.Vertex( i ).m_TangentS;
pLodData->vertex[i].bLoD = vertexDict.Vertex( i ).m_bLoD;
}
memcpy( pLodData->face, faces.Base(), faces.Count() * sizeof( s_face_t ) );
memcpy( pLodData->mesh, meshes.Base(), meshes.Count() * sizeof( s_mesh_t ) );
for (i=0; i<MAX_NUM_LODS; i++)
{
pLodData->pMeshVertIndexMaps[i] = pMeshVertIndexMaps[i];
}
}
int CALLBACK SetPasswordDlgProc(
HWND hwndDlg, // handle to dialog box
UINT uMsg, // message
WPARAM wParam, // first message parameter
LPARAM lParam // second message parameter
)
{
switch( uMsg )
{
case WM_INITDIALOG:
{
if ( g_pPassword )
{
HWND hWnd = GetDlgItem( hwndDlg, IDC_PASSWORD );
SetWindowText( hWnd, g_pPassword );
}
}
break;
case WM_COMMAND:
{
switch( wParam )
{
case IDOK:
{
// Set our new password.
HWND hWnd = GetDlgItem( hwndDlg, IDC_PASSWORD );
if ( hWnd )
{
char tempBuf[512];
GetWindowText( hWnd, tempBuf, sizeof( tempBuf ) );
// Send it to the service.
CUtlVector<char> data;
data.AddToTail( VMPI_SERVICE_UPDATE_PASSWORD );
data.AddMultipleToTail( strlen( tempBuf ) + 1, tempBuf );
g_ConnMgr.SendPacket( -1, data.Base(), data.Count() );
}
EndDialog( hwndDlg, 0 );
}
break;
case IDCANCEL:
{
EndDialog( hwndDlg, 0 );
}
break;
}
}
break;
}
return FALSE;
}
//-----------------------------------------------------------------------------
// Purpose: Performs the actual partial rebuilds of the mesh, merging multiple
// updates in one.
//-----------------------------------------------------------------------------
void CRecastMgr::UpdateRebuildPartial()
{
if( !m_pendingPartialMeshUpdates.Count() )
return;
PartialMeshUpdate_t &curUpdate = m_pendingPartialMeshUpdates.Head();
bool bDidMerge;
int nTests = 0, nMerges = 0;
do {
bDidMerge = false;
for( int i = m_pendingPartialMeshUpdates.Count() - 1; i >= 1; i-- )
{
if( IsBoxIntersectingBox( curUpdate.vMins, curUpdate.vMaxs,
m_pendingPartialMeshUpdates[i].vMins, m_pendingPartialMeshUpdates[i].vMaxs ) )
{
curUpdate.vMins = VectorMin( curUpdate.vMins, m_pendingPartialMeshUpdates[i].vMins );
curUpdate.vMaxs = VectorMax( curUpdate.vMaxs, m_pendingPartialMeshUpdates[i].vMaxs );
m_pendingPartialMeshUpdates.Remove( i );
bDidMerge = true;
nMerges++;
}
}
nTests++;
} while( bDidMerge && nTests < 100 );
if( recast_build_partial_debug.GetBool() && nMerges > 0 )
{
DevMsg( "CRecastMgr::UpdateRebuildPartial: Merged multiple updates (%d) into one\n", nMerges+1 );
}
// Load map mesh
if( !LoadMapMesh( recast_build_partial_debug.GetBool(), true, curUpdate.vMins, curUpdate.vMaxs ) )
{
Warning( "CRecastMgr::UpdateRebuildPartial: failed to load map data!\n" );
return;
}
// Perform the update
CUtlVector<CRecastMesh *> meshesToBuild;
for ( int i = m_Meshes.First(); i != m_Meshes.InvalidIndex(); i = m_Meshes.Next(i ) )
{
if( IsMeshBuildDisabled( m_Meshes[i]->GetName() ) )
continue;
meshesToBuild.AddToTail( m_Meshes[i] );
}
CParallelProcessor<CRecastMesh *, CFuncJobItemProcessor<CRecastMesh *>, 2 > processor;
processor.m_ItemProcessor.Init( &ThreadedRebuildPartialMesh, &PreThreadedBuildMesh, &PostThreadedBuildMesh );
processor.Run( meshesToBuild.Base(), meshesToBuild.Count(), 1, recast_build_numthreads.GetInt(), g_pThreadPool );
m_pendingPartialMeshUpdates.Remove( 0 );
}
void CJobWatchDlg::OnIdle()
{
CUtlVector<char> text;
// Any new text? This would indicate that the process is running currently.
if ( GetCurrentWorkerText( text, m_CurMessageIndex ) && text.Count() > 0 )
{
FormatAndSendToEditControl( m_TextOutput.GetSafeHwnd(), text.Base() );
}
FillGraph();
}
void RecvProxy_UtlVectorElement_DataTable( const RecvProp *pProp, void **pOut, void *pData, int objectID )
{
CRecvPropExtra_UtlVector *pExtra = (CRecvPropExtra_UtlVector*)pProp->GetExtraData();
int iElement = pProp->GetElementStride();
Assert( iElement < pExtra->m_nMaxElements );
// NOTE: this is cheesy, but it does the trick.
CUtlVector<int> *pUtlVec = (CUtlVector<int>*)((char*)pData + pExtra->m_Offset);
// Call through to the proxy they passed in, making pStruct=the CUtlVector and forcing iElement to 0.
pExtra->m_DataTableProxyFn( pProp, pOut, (char*)pUtlVec->Base() + iElement*pExtra->m_ElementStride, objectID );
}
//-----------------------------------------------------------------------------
// Purpose: Builds all navigation meshes
//-----------------------------------------------------------------------------
bool CRecastMgr::Build( bool loadDefaultMeshes )
{
double fStartTime = Plat_FloatTime();
// Load map mesh
if( !LoadMapMesh() )
{
Warning("CRecastMesh::Build: failed to load map data!\n");
return false;
}
// Insert all meshes first
if( loadDefaultMeshes )
{
InitDefaultMeshes();
}
CUtlVector<CRecastMesh *> meshesToBuild;
for ( int i = m_Meshes.First(); i != m_Meshes.InvalidIndex(); i = m_Meshes.Next(i ) )
{
if( IsMeshBuildDisabled( m_Meshes[i]->GetName() ) )
continue;
meshesToBuild.AddToTail( m_Meshes[i] );
}
// Create meshes
if( recast_build_threaded.GetBool() )
{
// Build threaded
CParallelProcessor<CRecastMesh *, CFuncJobItemProcessor<CRecastMesh *>, 2 > processor;
processor.m_ItemProcessor.Init( &ThreadedBuildMesh, &PreThreadedBuildMesh, &PostThreadedBuildMesh );
processor.Run( meshesToBuild.Base(), meshesToBuild.Count(), 1, recast_build_numthreads.GetInt(), g_pThreadPool );
}
else
{
if( V_strlen( recast_build_single.GetString() ) > 0 )
{
BuildMesh( m_pMapMesh, recast_build_single.GetString() );
}
else
{
for( int i = 0; i < meshesToBuild.Count(); i++ )
{
BuildMesh( m_pMapMesh, meshesToBuild[i]->GetName() );
}
}
}
m_bLoaded = true;
DevMsg( "CRecastMgr: Finished generating %d meshes in %f seconds\n", m_Meshes.Count(), Plat_FloatTime() - fStartTime );
return true;
}
CMacroTextureData* LoadMacroTextureFile( const char *pFilename )
{
FileHandle_t hFile = g_pFileSystem->Open( pFilename, "rb" );
if ( hFile == FILESYSTEM_INVALID_HANDLE )
return NULL;
// Read the file in.
CUtlVector<char> tempData;
tempData.SetSize( g_pFileSystem->Size( hFile ) );
g_pFileSystem->Read( tempData.Base(), tempData.Count(), hFile );
g_pFileSystem->Close( hFile );
// Now feed the data into a CUtlBuffer (great...)
CUtlBuffer buf;
buf.Put( tempData.Base(), tempData.Count() );
// Now make a texture out of it.
IVTFTexture *pTex = CreateVTFTexture();
if ( !pTex->Unserialize( buf ) )
Error( "IVTFTexture::Unserialize( %s ) failed.", pFilename );
pTex->ConvertImageFormat( IMAGE_FORMAT_RGBA8888, false ); // Get it in a format we like.
// Now convert to a CMacroTextureData.
CMacroTextureData *pData = new CMacroTextureData;
pData->m_Width = pTex->Width();
pData->m_Height = pTex->Height();
pData->m_ImageData.EnsureCapacity( pData->m_Width * pData->m_Height * 4 );
memcpy( pData->m_ImageData.Base(), pTex->ImageData(), pData->m_Width * pData->m_Height * 4 );
DestroyVTFTexture( pTex );
Msg( "-- LoadMacroTextureFile: %s\n", pFilename );
return pData;
}
void CDispMeshEvent::GetVirtualMesh( void *userData, virtualmeshlist_t *pList )
{
Assert(userData==((void *)this));
pList->pVerts = m_verts.Base();
pList->indexCount = m_indexCount;
pList->triangleCount = m_indexCount/3;
pList->vertexCount = m_verts.Count();
pList->surfacePropsIndex = 0; // doesn't matter here, reset at runtime
pList->pHull = NULL;
int indexMax = ARRAYSIZE(pList->indices);
int indexCount = min(m_indexCount, indexMax);
Assert(m_indexCount < indexMax);
Q_memcpy( pList->indices, m_pIndices, sizeof(*m_pIndices) * indexCount );
}
KeyValues* ReadKeyValuesFile( const char *pFilename )
{
// Read in the gameinfo.txt file and null-terminate it.
FILE *fp = fopen( pFilename, "rb" );
if ( !fp )
return NULL;
CUtlVector<char> buf;
fseek( fp, 0, SEEK_END );
buf.SetSize( ftell( fp ) + 1 );
fseek( fp, 0, SEEK_SET );
fread( buf.Base(), 1, buf.Count()-1, fp );
fclose( fp );
buf[buf.Count()-1] = 0;
KeyValues *kv = new KeyValues( "" );
if ( !kv->LoadFromBuffer( pFilename, buf.Base() ) )
{
kv->deleteThis();
return NULL;
}
return kv;
}
// Write the buffered crap out on shutdown.
void FinishRecording()
{
#ifndef CRASH_RECORDING
FILE* fp = OpenRecordingFile();
if (fp)
{
// store the command size
fwrite( g_pRecordingBuffer.Base(), 1, g_pRecordingBuffer.Size(), fp );
fflush( fp );
}
g_pRecordingBuffer.RemoveAll();
#endif
}
void CPlaneList::AddBrushes( void )
{
CUtlVector<listplane_t> temp;
for ( int brushnumber = 0; brushnumber < numbrushes; brushnumber++ )
{
if ( IsBrushReferenced(brushnumber) )
{
CUtlVector<winding_t *> windings;
for ( int i = 0; i < dbrushes[brushnumber].numsides; i++ )
{
dbrushside_t *pside = dbrushsides + i + dbrushes[brushnumber].firstside;
if (pside->bevel)
continue;
dplane_t *pplane = dplanes + pside->planenum;
winding_t *w = BaseWindingForPlane( pplane->normal, pplane->dist - m_shrink );
for ( int j = 0; j < dbrushes[brushnumber].numsides && w; j++ )
{
if (i == j)
continue;
dbrushside_t *pClipSide = dbrushsides + j + dbrushes[brushnumber].firstside;
if (pClipSide->bevel)
continue;
dplane_t *pClipPlane = dplanes + pClipSide->planenum;
ChopWindingInPlace (&w, -pClipPlane->normal, -pClipPlane->dist+m_shrink, 0); //CLIP_EPSILON);
}
if ( w )
{
windings.AddToTail( w );
}
}
CUtlVector<Vector *> vertList;
for ( int p = 0; p < windings.Count(); p++ )
{
for ( int v = 0; v < windings[p]->numpoints; v++ )
{
vertList.AddToTail( windings[p]->p + v );
}
}
CPhysConvex *pConvex = physcollision->ConvexFromVerts( vertList.Base(), vertList.Count() );
if ( pConvex )
{
physcollision->SetConvexGameData( pConvex, brushnumber );
AddConvex( pConvex );
}
temp.RemoveAll();
}
}
}
void VMPI_ProcessLeafAmbient( int iThread, uint64 iLeaf, MessageBuffer *pBuf )
{
CUtlVector<ambientsample_t> list;
ComputeAmbientForLeaf(iThread, (int)iLeaf, list);
VMPI_SetCurrentStage( "EncodeLeafAmbientResults" );
// Encode the results.
int nSamples = list.Count();
pBuf->write( &nSamples, sizeof( nSamples ) );
if ( nSamples )
{
pBuf->write( list.Base(), list.Count() * sizeof( ambientsample_t ) );
}
}