C++ CUtlVector类代码示例

//-----------------------------------------------------------------------------
// Purpose: Creates the build mode editing controls
//-----------------------------------------------------------------------------
void BuildModeDialog::CreateControls()
{
	int i;
	m_pPanelList = new PanelList;
	m_pPanelList->m_pResourceData = new KeyValues( "BuildDialog" );
	m_pPanelList->m_pControls = new PanelListPanel(this, "BuildModeControls");

	// file to edit combo box is first
	m_pFileSelectionCombo = new ComboBox(this, "FileSelectionCombo", 10, false);
	for ( i = 0; i < m_pBuildGroup->GetRegisteredControlSettingsFileCount(); i++)
	{
		m_pFileSelectionCombo->AddItem(m_pBuildGroup->GetRegisteredControlSettingsFileByIndex(i), NULL);
	}
	if (m_pFileSelectionCombo->GetItemCount() < 2)
	{
		m_pFileSelectionCombo->SetEnabled(false);
	}

	int buttonH = 18;

	// status info at top of dialog
	m_pStatusLabel = new Label(this, "StatusLabel", "[nothing currently selected]");
	m_pStatusLabel->SetTextColorState(Label::CS_DULL);
	m_pStatusLabel->SetTall( buttonH );
	m_pDivider = new Divider(this, "Divider");
	// drop-down combo box for adding new controls
	m_pAddNewControlCombo = new ComboBox(this, NULL, 30, false);
	m_pAddNewControlCombo->SetSize(116, buttonH);
	m_pAddNewControlCombo->SetOpenDirection(Menu::DOWN);

	m_pEditableParents = new CBuildModeNavCombo( this, NULL, 15, false, true, m_pBuildGroup->GetContextPanel() );
	m_pEditableParents->SetSize(116, buttonH);
	m_pEditableParents->SetOpenDirection(Menu::DOWN);

	m_pEditableChildren = new CBuildModeNavCombo( this, NULL, 15, false, false, m_pBuildGroup->GetContextPanel() );
	m_pEditableChildren->SetSize(116, buttonH);
	m_pEditableChildren->SetOpenDirection(Menu::DOWN);

	m_pNextChild = new Button( this, "NextChild", "Next", this );
	m_pNextChild->SetCommand( new KeyValues( "OnChangeChild", "direction", 1 ) );

	m_pPrevChild = new Button( this, "PrevChild", "Prev", this );
	m_pPrevChild->SetCommand( new KeyValues( "OnChangeChild", "direction", -1 ) );

	// controls that can be added
	// this list comes from controls EditablePanel can create by name.
	int defaultItem = m_pAddNewControlCombo->AddItem("None", NULL);

	CUtlVector< char const * >	names;
	CBuildFactoryHelper::GetFactoryNames( names );
	// Sort the names
	CUtlRBTree< char const *, int > sorted( 0, 0, StringLessThan );

	for ( i = 0; i < names.Count(); ++i )
	{
		sorted.Insert( names[ i ] );
	}

	for ( i = sorted.FirstInorder(); i != sorted.InvalidIndex(); i = sorted.NextInorder( i ) )
	{
		m_pAddNewControlCombo->AddItem( sorted[ i ], NULL );
	}

	m_pAddNewControlCombo->ActivateItem(defaultItem);

	m_pExitButton = new Button(this, "ExitButton", "&Exit");
	m_pExitButton->SetSize(64, buttonH);

	m_pSaveButton = new Button(this, "SaveButton", "&Save");
	m_pSaveButton->SetSize(64, buttonH);
	
	m_pApplyButton = new Button(this, "ApplyButton", "&Apply");
	m_pApplyButton->SetSize(64, buttonH);

	m_pReloadLocalization = new Button( this, "Localization", "&Reload Localization" );
	m_pReloadLocalization->SetSize( 100, buttonH );

	m_pExitButton->SetCommand("Exit");
	m_pSaveButton->SetCommand("Save");
	m_pApplyButton->SetCommand("Apply");
	m_pReloadLocalization->SetCommand( new KeyValues( "ReloadLocalization" ) );

	m_pDeleteButton = new Button(this, "DeletePanelButton", "Delete");
	m_pDeleteButton->SetSize(64, buttonH);
	m_pDeleteButton->SetCommand("DeletePanel");

	m_pVarsButton = new MenuButton(this, "VarsButton", "Variables");
	m_pVarsButton->SetSize(72, buttonH);
	m_pVarsButton->SetOpenDirection(Menu::UP);
	
	// iterate the vars
	KeyValues *vars = m_pBuildGroup->GetDialogVariables();
	if (vars && vars->GetFirstSubKey())
	{
		// create the menu
		m_pVarsButton->SetEnabled(true);
		Menu *menu = new Menu(m_pVarsButton, "VarsMenu");
//.........这里部分代码省略.........

// add the sample to the list.  If we exceed the maximum number of samples, the worst sample will
// be discarded.  This has the effect of converging on the best samples when enough are added.
void AddSampleToList( CUtlVector<ambientsample_t> &list, const Vector &samplePosition, Vector *pCube )
{
	const int MAX_SAMPLES = 16;

	int index = list.AddToTail();
	list[index].pos = samplePosition;
	for ( int i = 0; i < 6; i++ )
	{
		list[index].cube[i] = pCube[i];
	}

	if ( list.Count() <= MAX_SAMPLES )
		return;

	int nearestNeighborIndex = 0;
	float nearestNeighborDist = FLT_MAX;
	float nearestNeighborTotal = 0;
	for ( int i = 0; i < list.Count(); i++ )
	{
		int closestIndex = 0;
		float closestDist = FLT_MAX;
		float totalDC = 0;
		for ( int j = 0; j < list.Count(); j++ )
		{
			if ( j == i )
				continue;
			float dist = (list[i].pos - list[j].pos).Length();
			float maxDC = 0;
			for ( int k = 0; k < 6; k++ )
			{
				// color delta is computed per-component, per cube side
				for (int s = 0; s < 3; s++ )
				{
					float dc = fabs(list[i].cube[k][s] - list[j].cube[k][s]);
					maxDC = max(maxDC,dc);
				}
				totalDC += maxDC;
			}
			// need a measurable difference in color or we'll just rely on position
			if ( maxDC < 1e-4f )
			{
				maxDC = 0;
			}
			else if ( maxDC > 1.0f )
			{
				maxDC = 1.0f;
			}
			// selection criteria is 10% distance, 90% color difference
			// choose samples that fill the space (large distance from each other)
			// and have largest color variation
			float distanceFactor = 0.1f + (maxDC * 0.9f);
			dist *= distanceFactor;

			// find the "closest" sample to this one
			if ( dist < closestDist )
			{
				closestDist = dist;
				closestIndex = j;
			}
		}
		// the sample with the "closest" neighbor is rejected
		if ( closestDist < nearestNeighborDist || (closestDist == nearestNeighborDist && totalDC < nearestNeighborTotal) )
		{
			nearestNeighborDist = closestDist;
			nearestNeighborIndex = i;
		}
	}
	list.FastRemove( nearestNeighborIndex );
}

//-----------------------------------------------------------------------------
// Purpose: Applies dialog data to the list of selected faces.
// Input  : *pOnlyFace - 
//			bAll - 
//-----------------------------------------------------------------------------
void CFaceEditMaterialPage::Apply( CMapFace *pOnlyFace, int flags )
{
	int			i;
	CString		str;
	float		fshiftX = NOT_INIT;
	float		fshiftY = NOT_INIT;
	float		fscaleX = NOT_INIT;
	float		fscaleY = NOT_INIT;
	float		frotate = NOT_INIT;
	int			material = NOT_INIT;
	int			nLightmapScale = NOT_INIT;
	IEditorTexture	*pTex = m_TexturePic.GetTexture();

	//
	// Get numeric data.
	//
	if (flags & FACE_APPLY_MAPPING)
	{
		TransferToFloat( &m_shiftX, fshiftX );
		TransferToFloat( &m_shiftY, fshiftY );
		TransferToFloat( &m_scaleX, fscaleX );
		TransferToFloat( &m_scaleY, fscaleY );
		TransferToFloat( &m_rotate, frotate );
	}

	if (flags & FACE_APPLY_LIGHTMAP_SCALE)
	{
		TransferToInteger( &m_cLightmapScale, nLightmapScale );
	}

	if ( !pOnlyFace )
	{
		GetHistory()->MarkUndoPosition( NULL, "Apply Face Attributes" );

		// make sure we apply everything in this case.
		flags |= FACE_APPLY_ALL;

		// Keep the solids that we are about to change.
		// In the pOnlyFace case we do the Keep before calling ClickFace. Why?
		CUtlVector<CMapSolid *> kept;
		CFaceEditSheet *pSheet = ( CFaceEditSheet* )GetParent();
		for( i = 0; i < pSheet->GetFaceListCount(); i++ )
		{
			CMapSolid *pSolid = pSheet->GetFaceListDataSolid( i );
			if ( kept.Find( pSolid ) == -1 )
			{
				GetHistory()->Keep( pSolid );
				kept.AddToTail( pSolid );
			}
		}
	}
		
	//
	// Run thru stored faces & apply.
	//
	CFaceEditSheet *pSheet = ( CFaceEditSheet* )GetParent();
	int faceCount = pSheet->GetFaceListCount();
	for( i = 0; i < faceCount || pOnlyFace; i++ )
	{
		CMapFace *pFace;
		if( pOnlyFace )
		{
			pFace = pOnlyFace;
		}
		else
		{
			pFace = pSheet->GetFaceListDataFace( i );
		}

		//
		// Get values for texture shift, scale, rotate, and material.
		//
		if ((flags & FACE_APPLY_MAPPING) && (!(flags & FACE_APPLY_ALIGN_EDGE)))
		{
			if ( fshiftX != NOT_INIT )
			{
				pFace->texture.UAxis[3] = fshiftX;
			}

			if ( fshiftY != NOT_INIT )
			{
				pFace->texture.VAxis[3] = fshiftY;
			}

			if ( fscaleX != NOT_INIT )
			{
				pFace->texture.scale[0] = fscaleX;
			}
			
			if ( fscaleY != NOT_INIT )
			{
				pFace->texture.scale[1] = fscaleY;
			}

			if ( frotate != NOT_INIT )
//.........这里部分代码省略.........

// adds a collision entry for this brush model
static void ConvertModelToPhysCollide( CUtlVector<CPhysCollisionEntry *> &collisionList, int modelIndex, int contents, float shrinkSize, float mergeTolerance )
{
	int i;
	CPlaneList planes( shrinkSize, mergeTolerance );

	planes.m_contentsMask = contents;

	dmodel_t *pModel = dmodels + modelIndex;
	VisitLeaves_r( planes, pModel->headnode );
	planes.AddBrushes();
	int count = planes.m_convex.Count();
	convertconvexparams_t params;
	params.Defaults();
	params.buildOuterConvexHull = count > 1 ? true : false;
	params.buildDragAxisAreas = true;
	Vector size = pModel->maxs - pModel->mins;

	float minSurfaceArea = -1.0f;
	for ( i = 0; i < 3; i++ )
	{
		int other = (i+1)%3;
		int cross = (i+2)%3;
		float surfaceArea = size[other] * size[cross];
		if ( minSurfaceArea < 0 || surfaceArea < minSurfaceArea )
		{
			minSurfaceArea = surfaceArea;
		}
	}
	// this can be really slow with super-large models and a low error tolerance
	// Basically you get a ray cast through each square of epsilon surface area on each OBB side
	// So compute it for 1% error (on the smallest side, less on larger sides)
	params.dragAreaEpsilon = clamp( minSurfaceArea * 1e-2f, 1.0f, 1024.0f );
	CPhysCollide *pCollide = physcollision->ConvertConvexToCollideParams( planes.m_convex.Base(), count, params );
	
	if ( !pCollide )
		return;

	struct 
	{
		int prop;
		float area;
	} proplist[256];
	int numprops = 1;

	proplist[0].prop = -1;
	proplist[0].area = 1;
	// compute the array of props on the surface of this model

	// NODRAW brushes no longer have any faces
	if ( !dmodels[modelIndex].numfaces )
	{
		int sideIndex = planes.GetFirstBrushSide();
		int texdata = texinfo[dbrushsides[sideIndex].texinfo].texdata;
		int prop = g_SurfaceProperties[texdata];
		proplist[numprops].prop = prop;
		proplist[numprops].area = 2;
		numprops++;
	}

	for ( i = 0; i < dmodels[modelIndex].numfaces; i++ )
	{
		dface_t *face = dfaces + i + dmodels[modelIndex].firstface;
		int texdata = texinfo[face->texinfo].texdata;
		int prop = g_SurfaceProperties[texdata];
		int j;
		for ( j = 0; j < numprops; j++ )
		{
			if ( proplist[j].prop == prop )
			{
				proplist[j].area += face->area;
				break;
			}
		}

		if ( (!numprops || j >= numprops) && numprops < ARRAYSIZE(proplist) )
		{
			proplist[numprops].prop = prop;
			proplist[numprops].area = face->area;
			numprops++;
		}
	}


	// choose the prop with the most surface area
	int maxIndex = -1;
	float maxArea = 0;
	float totalArea = 0;

	for ( i = 0; i < numprops; i++ )
	{
		if ( proplist[i].area > maxArea )
		{
			maxIndex = i;
			maxArea = proplist[i].area;
		}
		// add up the total surface area
		totalArea += proplist[i].area;
	}
	
//.........这里部分代码省略.........

void ComputePerLeafAmbientLighting()
{
	// Figure out which lights should go in the per-leaf ambient cubes.
	int nInAmbientCube = 0;
	int nSurfaceLights = 0;
	for ( int i=0; i < *pNumworldlights; i++ )
	{
		dworldlight_t *wl = &dworldlights[i];
		
		if ( IsLeafAmbientSurfaceLight( wl ) )
			wl->flags |= DWL_FLAGS_INAMBIENTCUBE;
		else
			wl->flags &= ~DWL_FLAGS_INAMBIENTCUBE;
	
		if ( wl->type == emit_surface )
			++nSurfaceLights;

		if ( wl->flags & DWL_FLAGS_INAMBIENTCUBE )
			++nInAmbientCube;
	}

	Msg( "%d of %d (%d%% of) surface lights went in leaf ambient cubes.\n", nInAmbientCube, nSurfaceLights, nSurfaceLights ? ((nInAmbientCube*100) / nSurfaceLights) : 0 );

	g_LeafAmbientSamples.SetCount(numleafs);

	if ( g_bUseMPI )
	{
		// Distribute the work among the workers.
		VMPI_SetCurrentStage( "ComputeLeafAmbientLighting" );
		DistributeWork( numleafs, VMPI_DISTRIBUTEWORK_PACKETID, VMPI_ProcessLeafAmbient, VMPI_ReceiveLeafAmbientResults );
	}
	else
	{
		RunThreadsOn(numleafs, true, ThreadComputeLeafAmbient);
	}

	// now write out the data
	Msg("Writing leaf ambient...");
	g_pLeafAmbientIndex->RemoveAll();
	g_pLeafAmbientLighting->RemoveAll();
	g_pLeafAmbientIndex->SetCount( numleafs );
	g_pLeafAmbientLighting->EnsureCapacity( numleafs*4 );
	for ( int leafID = 0; leafID < numleafs; leafID++ )
	{
		const CUtlVector<ambientsample_t> &list = g_LeafAmbientSamples[leafID];
		g_pLeafAmbientIndex->Element(leafID).ambientSampleCount = list.Count();
		if ( !list.Count() )
		{
			g_pLeafAmbientIndex->Element(leafID).firstAmbientSample = 0;
		}
		else
		{
			g_pLeafAmbientIndex->Element(leafID).firstAmbientSample = g_pLeafAmbientLighting->Count();
			// compute the samples in disk format.  Encode the positions in 8-bits using leaf bounds fractions
			for ( int i = 0; i < list.Count(); i++ )
			{
				int outIndex = g_pLeafAmbientLighting->AddToTail();
				dleafambientlighting_t &light = g_pLeafAmbientLighting->Element(outIndex);

				light.x = Fixed8Fraction( list[i].pos.x, dleafs[leafID].mins[0], dleafs[leafID].maxs[0] );
				light.y = Fixed8Fraction( list[i].pos.y, dleafs[leafID].mins[1], dleafs[leafID].maxs[1] );
				light.z = Fixed8Fraction( list[i].pos.z, dleafs[leafID].mins[2], dleafs[leafID].maxs[2] );
				light.pad = 0;
				for ( int side = 0; side < 6; side++ )
				{
					VectorToColorRGBExp32( list[i].cube[side], light.cube.m_Color[side] );
				}
			}
		}
	}
	for ( int i = 0; i < numleafs; i++ )
	{
		// UNDONE: Do this dynamically in the engine instead.  This will allow us to sample across leaf
		// boundaries always which should improve the quality of lighting in general
		if ( g_pLeafAmbientIndex->Element(i).ambientSampleCount == 0 )
		{
			if ( !(dleafs[i].contents & CONTENTS_SOLID) )
			{
				Msg("Bad leaf ambient for leaf %d\n", i );
			}

			int refLeaf = NearestNeighborWithLight(i);
			g_pLeafAmbientIndex->Element(i).ambientSampleCount = 0;
			g_pLeafAmbientIndex->Element(i).firstAmbientSample = refLeaf;
		}
	}
	Msg("done\n");
}

// This is the only public entry to this file.
// The global data touched in the file is:
// from bsplib.h:
//		g_pPhysCollide		: This is an output from this file.
//		g_PhysCollideSize	: This is set in this file.
//		g_numdispinfo		: This is an input to this file.
//		g_dispinfo			: This is an input to this file.
//		numnodewaterdata	: This is an output from this file.
//		dleafwaterdata		: This is an output from this file.
// from vbsp.h:
//		g_SurfaceProperties : This is an input to this file.
void EmitPhysCollision()
{
	ClearLeafWaterData();
	
	CreateInterfaceFn physicsFactory = GetPhysicsFactory();
	if ( physicsFactory )
	{
		physcollision = (IPhysicsCollision *)physicsFactory( VPHYSICS_COLLISION_INTERFACE_VERSION, NULL );
	}

	if ( !physcollision )
	{
		Warning("!!! WARNING: Can't build collision data!\n" );
		return;
	}

	CUtlVector<CPhysCollisionEntry *> collisionList[MAX_MAP_MODELS];
	CTextBuffer *pTextBuffer[MAX_MAP_MODELS];

	int physModelCount = 0, totalSize = 0;

	int start = Plat_FloatTime();

	Msg("Building Physics collision data...\n" );

	int i, j;
	for ( i = 0; i < nummodels; i++ )
	{
		// Build a list of collision models for this brush model section
		if ( i == 0 )
		{
			// world is the only model that processes water separately.
			// other brushes are assumed to be completely solid or completely liquid
			BuildWorldPhysModel( collisionList[i], NO_SHRINK, VPHYSICS_MERGE);
		}
		else
		{
			ConvertModelToPhysCollide( collisionList[i], i, MASK_SOLID|CONTENTS_PLAYERCLIP|CONTENTS_MONSTERCLIP|MASK_WATER, VPHYSICS_SHRINK, VPHYSICS_MERGE );
		}
		
		pTextBuffer[i] = NULL;
		if ( !collisionList[i].Count() )
			continue;

		// if we've got collision models, write their script for processing in the game
		pTextBuffer[i] = new CTextBuffer;
		for ( j = 0; j < collisionList[i].Count(); j++ )
		{
			// dump a text file for visualization
			if ( dumpcollide )
			{
				collisionList[i][j]->DumpCollide( pTextBuffer[i], i, j );
			}
			// each model knows how to write its script
			collisionList[i][j]->WriteToTextBuffer( pTextBuffer[i], i, j );
			// total up the binary section's size
			totalSize += collisionList[i][j]->GetCollisionBinarySize() + sizeof(int);
		}

		// These sections only appear in the world's collision text
		if ( i == 0 )
		{
			if ( !g_bNoVirtualMesh && physcollision->SupportsVirtualMesh() )
			{
				pTextBuffer[i]->WriteText("virtualterrain {}\n");
			}
			if ( s_WorldPropList.Count() )
			{
				pTextBuffer[i]->WriteText( "materialtable {\n" );
				for ( j = 0; j < s_WorldPropList.Count(); j++ )
				{
					int propIndex = s_WorldPropList[j];
					if ( propIndex < 0 )
					{
						pTextBuffer[i]->WriteIntKey( "default", j+1 );
					}
					else
					{
						pTextBuffer[i]->WriteIntKey( physprops->GetPropName( propIndex ), j+1 );
					}
				}
				pTextBuffer[i]->WriteText( "}\n" );
			}
		}

		pTextBuffer[i]->Terminate();

		// total lump size includes the text buffers (scripts)
		totalSize += pTextBuffer[i]->GetSize();
//.........这里部分代码省略.........

void PhonemeEditor::CloseCaption_MergeSelected( void )
{
	CountSelected();
	if ( m_nSelectedPhraseCount < 2 )
	{
		Con_Printf( "CloseCaption_MergeSelected:  requires 2 or more selected phrases\n" );
		return;
	}

	if ( !CloseCaption_AreSelectedPhrasesContiguous() )
	{
		Con_Printf( "CloseCaption_MergeSelected:  selected phrases must be contiguous\n" );
		return;
	}

	SetDirty( true );

	PushUndo();

	CUtlVector< CCloseCaptionPhrase * > selected;

	float beststart = 100000.0f;
	float bestend = -100000.0f;

	int c = m_Tags.GetCloseCaptionPhraseCount( CC_ENGLISH );
	int i;
	int insertslot = c -1;

	// Walk backwards and remove
	for ( i = c - 1; i >= 0; i-- )
	{
		CCloseCaptionPhrase *phrase = m_Tags.GetCloseCaptionPhrase( CC_ENGLISH, i );
		if ( !phrase || !phrase->GetSelected() )
			continue;

		if ( phrase->GetStartTime() < beststart )
		{
			beststart = phrase->GetStartTime();
		}
		if ( phrase->GetEndTime() > bestend )
		{
			bestend = phrase->GetEndTime();
		}

		selected.AddToHead( new CCloseCaptionPhrase( *phrase ) );

		// Remember the earliest slot
		if ( i < insertslot )
		{
			insertslot = i;
		}

		m_Tags.RemoveCloseCaptionPhrase( CC_ENGLISH, i );
	}

	if ( selected.Count() <= 0 )
		return;

	CCloseCaptionPhrase *newphrase = new CCloseCaptionPhrase( selected[ 0 ]->GetStream() );
	Assert( newphrase );
	wchar_t sz[ 4096 ];
	delete selected[ 0 ];
	for ( i = 1; i < selected.Count(); i++ )
	{
		_snwprintf( sz, sizeof( sz ), newphrase->GetStream() );
		// Phrases don't have leading/trailing spaces so it should be safe to just append a space here
		wcscat( sz, L" " );
		wcscat( sz, selected[ i ]->GetStream() );
		newphrase->SetStream( sz );
		delete selected[ i ];
	}
	selected.RemoveAll();

	m_Tags.InsertCloseCaptionPhraseAtIndex( CC_ENGLISH, newphrase, insertslot );
	newphrase->SetSelected( true );
	newphrase->SetStartTime( beststart );
	newphrase->SetEndTime( bestend );

	PushRedo();

	redraw();
}

//-----------------------------------------------------------------------------
// Purpose: Hook for the sound system to tell us when a sound's been played
//-----------------------------------------------------------------------------
MicrophoneResult_t CEnvMicrophone::SoundPlayed( int entindex, const char *soundname, soundlevel_t soundlevel, float flVolume, int iFlags, int iPitch, const Vector *pOrigin, float soundtime, CUtlVector< Vector >& soundorigins )
{
	if ( m_bAvoidFeedback )
		return MicrophoneResult_Ok;

	// Don't hear sounds that have already been heard by a microphone to avoid feedback!
	if ( iFlags & SND_SPEAKER )
		return MicrophoneResult_Ok;

#ifdef DEBUG_MICROPHONE
	Msg("%s heard %s: ", STRING(GetEntityName()), soundname );
#endif

	if ( !CanHearSound( entindex, soundlevel, flVolume, pOrigin ) )
		return MicrophoneResult_Ok;

	// We've heard it. Play it out our speaker. If our speaker's gone away, we're done.
	if ( !m_hSpeaker )
	{
		// First time, find our speaker. Done here, because finding it in Activate() wouldn't
		// find players, and we need to be able to specify !player for a speaker.
		if ( m_iszSpeakerName != NULL_STRING )
		{
			m_hSpeaker = gEntList.FindEntityByName(NULL, STRING(m_iszSpeakerName) );

			if ( !m_hSpeaker )
			{
				Warning( "EnvMicrophone %s specifies a non-existent speaker name: %s\n", STRING(GetEntityName()), STRING(m_iszSpeakerName) );
				m_iszSpeakerName = NULL_STRING;
			}
		}

		if ( !m_hSpeaker )
		{
			return MicrophoneResult_Remove;
		}
	}

	m_bAvoidFeedback = true;

	// Add the speaker flag. Detected at playback and applies the speaker filter.
	iFlags |= SND_SPEAKER;
	CPASAttenuationFilter filter( m_hSpeaker );

	EmitSound_t ep;
	ep.m_nChannel = CHAN_STATIC;
	ep.m_pSoundName = soundname;
	ep.m_flVolume = flVolume;
	ep.m_SoundLevel = soundlevel;
	ep.m_nFlags = iFlags;
	ep.m_nPitch = iPitch;
	ep.m_pOrigin = &m_hSpeaker->GetAbsOrigin();
	ep.m_flSoundTime = soundtime;
	ep.m_nSpeakerEntity = entindex;

	CBaseEntity::EmitSound( filter, m_hSpeaker->entindex(), ep );

	Q_strncpy( m_szLastSound, soundname, sizeof(m_szLastSound) );
	m_OnRoutedSound.FireOutput( this, this, 0 );

	m_bAvoidFeedback = false;

	// Copy emitted origin to soundorigins array
	for ( int i = 0; i < ep.m_UtlVecSoundOrigin.Count(); ++i )
	{
		soundorigins.AddToTail( ep.m_UtlVecSoundOrigin[ i ] );
	}

	// Do we want to allow the original sound to play?
	if ( m_spawnflags & SF_MICROPHONE_SWALLOW_ROUTED_SOUNDS )
	{
		return MicrophoneResult_Swallow;
	}

	return MicrophoneResult_Ok;
}

void CHLSL_Image::CreateScreenshot( CNodeView *n, const char *filepath )
{
	Vector4D graphBounds;
	n->GetGraphBoundaries( graphBounds );

	int vsize_x, vsize_y;
	n->GetSize( vsize_x, vsize_y );
	const float zoomFactor = 1.0f / clamp( sedit_screenshot_zoom.GetFloat(), 0.01f, 100.0f );

	float nodespace_width = graphBounds.z - graphBounds.x;
	float nodespace_height = graphBounds.w - graphBounds.y;
	float nodespace_width_pershot = vsize_x * zoomFactor;
	float nodespace_height_pershot = vsize_y * zoomFactor;

	int numshots_x = ceil( nodespace_width / nodespace_width_pershot );
	int numshots_y = ceil( nodespace_height / nodespace_height_pershot );

	Vector2D extraSpace;
	extraSpace.x = (nodespace_width_pershot*numshots_x) - nodespace_width;
	extraSpace.y = (nodespace_height_pershot*numshots_y) - nodespace_height;
	extraSpace *= 0.5f;

	n->vecScreenshotBounds.Init( graphBounds.x - extraSpace.x,
								graphBounds.y - extraSpace.y,
								graphBounds.z + extraSpace.x,
								graphBounds.w + extraSpace.y );

	int tgapixels_x = numshots_x * vsize_x - numshots_x;
	int tgapixels_y = numshots_y * vsize_y - numshots_y;

	unsigned int targetSize = tgapixels_x * 3 * tgapixels_y;
	unsigned char *pTGA = ( unsigned char * )malloc( targetSize );
	if ( !pTGA )
	{
		Warning( "Not enough memory available (failed to malloc %u bytes).\n", targetSize );
	}

	Vector2D pos_old = n->AccessViewPos();
	float zoom_old = n->AccessViewZoom();
	n->bRenderingScreenShot = true;

	n->AccessViewZoom() = zoomFactor;

	int vp_x, vp_y;
	vp_x = vp_y = 0;
	n->LocalToScreen( vp_x, vp_y );
	int screen_sx, screen_sy;
	engine->GetScreenSize( screen_sx, screen_sy );

	vp_x++;
	vp_y++;
	vsize_x--;
	vsize_y--;

	n->AccessViewPos().Init();

	CViewSetup view2D;
	view2D.x = 0;
	view2D.y = 0;
	view2D.width = screen_sx;
	view2D.height = screen_sy;
	view2D.m_bRenderToSubrectOfLargerScreen = false;
	Frustum _fplanes;

	CMatRenderContextPtr pRenderContext( materials );

#ifdef SHADER_EDITOR_DLL_2006
	render->Push2DView( view2D, 0, false, NULL, _fplanes );
#else
	render->Push2DView( view2D, 0, NULL, _fplanes );
#endif
	pRenderContext->PushRenderTargetAndViewport( NULL, view2D.x, view2D.y, view2D.width, view2D.height );

//	bool bSuccess = TGAWriter::WriteDummyFileNoAlloc( filepath, tgapixels_x, tgapixels_y, IMAGE_FORMAT_RGBA8888 );
//	Assert( bSuccess );

	if ( pTGA )
	{
		for ( int sX = 0; sX < numshots_x; sX ++ )
		{
			for ( int sY = 0; sY < numshots_y; sY ++ )
			{
				Vector2D basepos( graphBounds.x + nodespace_width_pershot * 0.5f, graphBounds.w - nodespace_height_pershot * 0.5f );
				basepos.x += sX * nodespace_width_pershot;
				basepos.y -= sY * nodespace_height_pershot;
				basepos.x *= -1.0f;
				basepos += extraSpace;
				n->AccessViewPos() = basepos;

				pRenderContext->ClearColor4ub( 0, 0, 0, 0 );
				pRenderContext->ClearBuffers( true, true );
				vgui::ipanel()->PaintTraverse( n->GetVPanel(), true );

				unsigned int sizeimg = vsize_x * 3 * vsize_y;
				unsigned char *pImage = ( unsigned char * )malloc( sizeimg );
				if ( pImage )
				{
					pRenderContext->ReadPixels( vp_x, vp_y, vsize_x, vsize_y, pImage, IMAGE_FORMAT_RGB888 );

					for ( int pX = 0; pX < vsize_x; pX ++ )
//.........这里部分代码省略.........

void CBuildModeDialogMgr::Remove( BuildModeDialog *pDlg )
{
	m_vecBuildDialogs.FindAndRemove( pDlg );
}

int CGlobalEntityList::ResetDeleteList( void )
{
	int result = g_DeleteList.Count();
	g_DeleteList.RemoveAll();
	return result;
}

	void EndGroupingSounds()
	{
		g_GroupedSounds.Purge();
		SetImpactSoundRoute( NULL );
	}

// Add a leaf to my list of interesting leaves
void CPlaneList::ReferenceLeaf( int leafIndex )
{
	m_leafList.AddToTail( leafIndex );
}

//-----------------------------------------------------------------------------
// Purpose: 
//-----------------------------------------------------------------------------
CEnvMicrophone::~CEnvMicrophone( void )
{
	s_Microphones.FindAndRemove( this );
}

void FoundryHelpers_AddEntityHighlightEffect( int iEntity )
{
	EHANDLE hEnt = cl_entitylist->GetBaseEntity( iEntity );
	if ( hEnt.IsValid() )
		g_EntityHighlightEffects.AddToTail( hEnt );
}