CWE-ou-minkata/Sources/Plasma/PubUtilLib/plPipeline/hsG3DDeviceSelector.cpp

/*==LICENSE==*

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*==LICENSE==*/

//#define DYNAHEADER_CREATE_STORAGE

#include "HeadSpin.h"
#include "hsWindows.h"

#include <ctime>

#include "hsG3DDeviceSelector.h"
#include "hsStream.h"

#include "plPipeline.h"

///////////////////////////////////////////////////
///////////////////////////////////////////////////
///////////////////////////////////////////////////
hsG3DDeviceMode::hsG3DDeviceMode()
:   fWidth(0), fHeight(0), 
    fDepth(0),
    fFlags(kNone)
{
}

hsG3DDeviceMode::~hsG3DDeviceMode()
{
    Clear();
}

bool hsG3DDeviceMode::operator< (const hsG3DDeviceMode &mode) const
{
    // Color depth overrides everything else
    if (fDepth < mode.GetColorDepth())
        return true;
    // Only compare width and height if the color depth is the same
    else if (fDepth == mode.GetColorDepth() )
    {
        if( fWidth < mode.GetWidth() )
            return true;
        else if( fWidth == mode.GetWidth() && fHeight < mode.GetHeight() )
            return true;
    }

    return false;
}

void hsG3DDeviceMode::Clear()
{
    fFlags = kNone;
    fWidth = 0;
    fHeight = 0;
    fDepth = 0;
    fZStencilDepths.Reset();
    fFSAATypes.Reset();
}

hsG3DDeviceRecord::hsG3DDeviceRecord()
:   fFlags(kNone),
    fG3DDeviceType(hsG3DDeviceSelector::kDevTypeUnknown),
    fLayersAtOnce(0), fMemoryBytes(0),
    fG3DHALorHEL(hsG3DDeviceSelector::kHHTypeUnknown),
    fZBiasRating( 0 ), fLODBiasRating( 0 ),
    fFogExpApproxStart( 0.0 ), fFogExp2ApproxStart( 0.0 ), fFogEndBias( 0.0 ), fMaxAnisotropicSamples( 1 )
{
    SetFogKneeParams( kFogExp, 0, 0 );
    SetFogKneeParams( kFogExp2, 0, 0 );
}

hsG3DDeviceRecord::~hsG3DDeviceRecord()
{
    Clear();
}

hsG3DDeviceRecord::hsG3DDeviceRecord(const hsG3DDeviceRecord& src)
:   fFlags(kNone),
    fG3DDeviceType(hsG3DDeviceSelector::kDevTypeUnknown),
    fG3DHALorHEL(hsG3DDeviceSelector::kHHTypeUnknown),
    fZBiasRating( src.fZBiasRating ), fLODBiasRating( 0 ),
    fFogExpApproxStart( src.fFogExpApproxStart ), fFogExp2ApproxStart( src.fFogExp2ApproxStart ), 
    fFogEndBias( src.fFogEndBias ), fMaxAnisotropicSamples( src.fMaxAnisotropicSamples )
{
    *this = src;
}

hsG3DDeviceRecord& hsG3DDeviceRecord::operator=(const hsG3DDeviceRecord& src)
{
    fFlags = src.fFlags;

    SetG3DDeviceType(src.GetG3DDeviceType());
    SetG3DHALorHEL(src.GetG3DHALorHEL());

    SetDriverDesc(src.GetDriverDesc());
    SetDriverName(src.GetDriverName());
    SetDriverVersion(src.GetDriverVersion());
    SetDeviceDesc(src.GetDeviceDesc());

    fCaps = src.fCaps;
    fLayersAtOnce = src.fLayersAtOnce;
    fMemoryBytes = src.fMemoryBytes;
    fZBiasRating = src.fZBiasRating;
    fLODBiasRating = src.fLODBiasRating;
    fFogExpApproxStart = src.fFogExpApproxStart;
    fFogExp2ApproxStart = src.fFogExp2ApproxStart;
    fFogEndBias = src.fFogEndBias;

    fModes.SetCount(src.fModes.GetCount());
    int i;
    for( i = 0; i < fModes.GetCount(); i++ )
        fModes[i] = src.fModes[i];

    fFogKnees[ 0 ] = src.fFogKnees[ 0 ];
    fFogKnees[ 1 ] = src.fFogKnees[ 1 ];
    fFogKneeVals[ 0 ] = src.fFogKneeVals[ 0 ];
    fFogKneeVals[ 1 ] = src.fFogKneeVals[ 1 ];

    fAASetting = src.fAASetting;

    fMaxAnisotropicSamples = src.fMaxAnisotropicSamples;

    return *this;
}

const char* hsG3DDeviceRecord::GetG3DDeviceTypeName() const
{
    static const char* deviceNames[hsG3DDeviceSelector::kNumDevTypes] = {
        "Unknown",
        "Direct3D",
        "OpenGL"
    };

    uint32_t devType = GetG3DDeviceType();
    if( devType > hsG3DDeviceSelector::kNumDevTypes )
        devType = hsG3DDeviceSelector::kDevTypeUnknown;
    
    return deviceNames[devType];
}

void hsG3DDeviceRecord::RemoveDiscarded()
{
    int i;
    for( i = 0; i < fModes.GetCount(); )
    {
        if( fModes[i].GetDiscarded() )
        {
            fModes[i].Clear();
            fModes.Remove(i);
        }
        else
            i++;
    }
    if( !fModes.GetCount() )
        SetDiscarded(true);
}

void hsG3DDeviceRecord::ClearModes()
{
    int i;
    for( i = 0; i < fModes.GetCount(); i++ )
        fModes[i].Clear();
    fModes.Reset();
}

void hsG3DDeviceRecord::Clear()
{
    fFlags = kNone;

    fG3DDriverDesc = plString::Null;
    fG3DDriverName = plString::Null;
    fG3DDriverVersion = plString::Null;
    fG3DDeviceDesc = plString::Null;

    fCaps.Clear();
    fLayersAtOnce = 0;

    int i;
    for( i = 0; i < fModes.GetCount(); i++ )
        fModes[i].Clear();
    fModes.Reset();

    fZBiasRating = 0;
    fLODBiasRating = 0;
    fFogExpApproxStart = 0;
    fFogExp2ApproxStart = 0;
    fFogEndBias = 0;

    SetFogKneeParams( kFogExp, 0, 0 );
    SetFogKneeParams( kFogExp2, 0, 0 );

    fAASetting = 0;
    fMaxAnisotropicSamples = 1;
}

hsG3DDeviceModeRecord::hsG3DDeviceModeRecord(const hsG3DDeviceRecord& devRec, const hsG3DDeviceMode& devMode)
: fDevice(devRec), fMode(devMode)
{
}

hsG3DDeviceModeRecord::hsG3DDeviceModeRecord(const hsG3DDeviceModeRecord& src)
{
    *this = src;
}

hsG3DDeviceModeRecord& hsG3DDeviceModeRecord::operator=(const hsG3DDeviceModeRecord& src)
{
    fDevice = src.fDevice;
    fMode = src.fMode;
    return *this;
}
///////////////////////////////////////////////////
///////////////////////////////////////////////////
///////////////////////////////////////////////////

hsG3DDeviceSelector::~hsG3DDeviceSelector()
{
    IClear();
}

void hsG3DDeviceSelector::IRemoveDiscarded()
{
    int i;
    for( i = 0; i < fRecords.GetCount(); )
    {
        fRecords[i].RemoveDiscarded();

        if( fRecords[i].GetDiscarded() )
        {
            fRecords[i].Clear();
            fRecords.Remove(i);
        }
        else
            i++;
    }
}

void hsG3DDeviceSelector::IClear()
{
    int i;
    for( i = 0; i < fRecords.GetCount(); i++ )
        fRecords[i].Clear();
    fRecords.Reset();
}

void hsG3DDeviceSelector::RemoveUnusableDevModes(bool bTough)
{
    for (int i = 0; i < fRecords.GetCount(); i++)
    {
        //
        // Remove modes
        //
        hsTArray<hsG3DDeviceMode>& modes = fRecords[i].GetModes();
        for (int j = 0; j < modes.GetCount(); j++)
        {
            // Remove windowed modes
            if ((modes[j].GetWidth() == 0) &&
                (modes[j].GetHeight() == 0) &&
                (modes[j].GetColorDepth() == 0))
            {
                modes[j].SetDiscarded(true);
            }
            // If tough, remove modes less than 640x480
            else if (bTough && ((modes[j].GetWidth() < 640) || (modes[j].GetHeight() < 480)))
            {
                modes[j].SetDiscarded(true);
            }
        }

        //
        // Remove devices
        //
        if (fRecords[i].GetG3DDeviceType() == hsG3DDeviceSelector::kDevTypeUnknown)
        {
            fRecords[i].SetDiscarded(true);
        }
        else if (fRecords[i].GetG3DDeviceType() == hsG3DDeviceSelector::kDevTypeDirect3D)
        {
            // Remove software Direct3D devices
            if ((fRecords[i].GetG3DHALorHEL() != hsG3DDeviceSelector::kHHD3DHALDev) &&
                (fRecords[i].GetG3DHALorHEL() != hsG3DDeviceSelector::kHHD3DTnLHalDev))
            {
                fRecords[i].SetDiscarded(true);
            }
        }
    }

    IRemoveDiscarded();
}

//// IAdjustDirectXMemory /////////////////////////////////////////////////////
//  Adjusts the number coming off of the DirectX caps for "total video memory"
//  to be more reflective of what is really on the board. According to
//  Microsoft, the best way to do this is to add in the memory necessary for
//  the entire desktop. Okay, whatever...

uint32_t  hsG3DDeviceSelector::IAdjustDirectXMemory( uint32_t cardMem )
{
#if HS_BUILD_FOR_WIN32
    HDC         deskDC;
    int         width, height, bpp, total;

    deskDC = GetDC( nil );
    width = GetDeviceCaps( deskDC, HORZRES );
    height = GetDeviceCaps( deskDC, VERTRES );
    bpp = GetDeviceCaps( deskDC, BITSPIXEL );
    
    total = width * height;
    if( bpp > 8 )
        total *= ( bpp >> 3 );

    return cardMem + total;
#else
    return  cardMem;
#endif
}

void hsG3DDeviceSelector::Enumerate(hsWinRef winRef)
{
    IClear();

#ifdef HS_BUILD_FOR_WIN32
    /// 9.6.2000 - Create the class to use as our temporary window class
    WNDCLASS    tempClass;

    strcpy( fTempWinClass, "DSTestClass" );
    memset( &tempClass, 0, sizeof( tempClass ) );
    tempClass.lpfnWndProc = DefWindowProc;
    tempClass.hInstance = GetModuleHandle( nil );
    tempClass.hbrBackground = (HBRUSH)GetStockObject( BLACK_BRUSH );
    tempClass.lpszClassName = fTempWinClass;
    uint16_t ret = RegisterClass(&tempClass);
    hsAssert(ret, "Cannot create temporary window class to test for device modes" );
#endif

    ITryDirect3DTnL(winRef);

#ifdef HS_BUILD_FOR_WIN32
    /// Get rid of the class
    UnregisterClass( fTempWinClass, GetModuleHandle( nil ) );
#endif
}

bool hsG3DDeviceSelector::GetDefault (hsG3DDeviceModeRecord *dmr)
{
    int32_t iTnL, iD3D, iOpenGL, device, mode, i;
    device = iTnL = iD3D = iOpenGL = mode = -1;

    if (device == -1)
    {
        // Get an index for any 3D devices
        for (i = 0; i < fRecords.GetCount(); i++)
        {
            switch (fRecords[i].GetG3DDeviceType())
            {
            case kDevTypeDirect3D:
                if (fRecords[i].GetG3DHALorHEL() == kHHD3DTnLHalDev)
                {
                    if (iTnL == -1 
#ifndef PLASMA_EXTERNAL_RELEASE
                        || plPipeline::fInitialPipeParams.ForceSecondMonitor
#endif // PLASMA_EXTERNAL_RELEASE
                        )
                    {
                        iTnL = i;
                    }
                }
                else if (fRecords[i].GetG3DHALorHEL() == kHHD3DHALDev)
                {
                    if (iD3D == -1
#ifndef PLASMA_EXTERNAL_RELEASE
                        || plPipeline::fInitialPipeParams.ForceSecondMonitor
#endif // PLASMA_EXTERNAL_RELEASE
                        )
                    {
                        iD3D = i;
                    }
                }
                break;

            case kDevTypeOpenGL:
                if (iOpenGL == -1 
#ifndef PLASMA_EXTERNAL_RELEASE                 
                    || plPipeline::fInitialPipeParams.ForceSecondMonitor
#endif // PLASMA_EXTERNAL_RELEASE                   
                    )
                {
                    iOpenGL = i;
                }
                break;
            }
        }

        // Pick a default device (Priority D3D T&L, D3D HAL, OpenGL)
        if (iTnL != -1)
            device = iTnL;
        else if (iD3D != -1)
            device = iD3D;
        else if (iOpenGL != -1)
            device = iOpenGL;
        else
            return false;
    }

    //
    // Try and find the default mode
    //
    hsTArray<hsG3DDeviceMode>& modes = fRecords[device].GetModes();

    // If there are no modes (for some insane reason), fail
    if (modes.GetCount() == 0)
        return false;

    for (i = 0; i < modes.GetCount(); i++)
    {
        if ((modes[i].GetWidth()    == kDefaultWidth) &&
            (modes[i].GetHeight()   == kDefaultHeight) &&
            (modes[i].GetNumZStencilDepths() > 0))
        {
            // Don't be too picky about the depth, use what's available if the
            // default isn't found.
            if (mode == -1 || modes[mode].GetColorDepth() != kDefaultDepth)
                mode = i;
        }
    }
    // Default mode not found, what kind of card is this?!
    // Regardless, just use the first mode since this isn't a fatal error.
    if (mode == -1)
        mode = 0;

    *dmr = hsG3DDeviceModeRecord(fRecords[device], modes[mode]);

    return true;
}

///////////////////////////////////////////////////////////////////////////////
//// Fudging Routines /////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////

namespace
{
    /// Here's our CFT--Chipset Fudgefactor Table
    /// The table consists of entries for each of our supported chipsets in the table,
    /// plus, flags to be forced set and flags to be forced cleared. Also included
    /// is a Z-buffer suckiness rating, which represents how badly we need to bias
    /// the z and w values to avoid z-buffer artifacts, stored as an float (i.e
    /// a float). A rating of 0 means very good/default (read: Nvidia), while, say, 
    /// a 9.0 (i.e. shift the scale 9 times above normal) means s****y, like, say, 
    /// a Savage4. Also also included is a forced value for max # of layers (0 means 
    /// to use default). Also also also included is an LOD rating indicating how much 
    /// (and in which direction) to alter the base LOD bias value for this device. General
    /// interpretation of this value is to add (-lodRating) to the LOD bias value.
    /// This is because the LOD bias starts out negative and typically goes in 0.25
    /// increments.
    /// Also also ALSO included are three new values for fog tweaking. The first two--
    /// fFogExp/Exp2ApproxStart, are the start of the linear approximation of exponential
    /// fog. Tweak these to adjust the linear approximation on any cards that don't support
    /// exponential and exponential-squared fog natively. The third value is the fFogEndBias--
    /// this is a value (stored as a percentage of the max possible fog value) to add on to
    /// to the linear fog-end parameter AFTER ALL CALCULATIONS. This is so we can, for
    /// example, tweak the end of the fog on the ATI Rage cards to not fog out as quickly.
    /// 9.14.2000 - fog end bias now has a new meaning. What it *really* represents is the
    /// quantization of fog on a particular card, where the end bias = ( 2^bitdepth - 2 ) / ( 2^bitdepth - 1 )
    /// So, for 8 bit fog, we end up with 254 / 255, etc. So far, everything is set to 8
    /// bit fog, but we have it here just in case we need to change it in the future.

    enum {
        kDefaultChipset = 0x00,
        kIntelI810Chipset,
        kS3GenericChipset,
        kATIRadeonChipset,
        kATIR8X00Chipset,
        kMatroxParhelia,
        kNVidiaGeForceFXChipset
    };

    typedef struct
    {
        float    fFogExpApproxStart;
        float    fFogExp2ApproxStart;
        float    fFogEndBias;
        float    fFogExpKnee;        // Fog knees
        float    fFogExpKneeVal;
        float    fFogExp2Knee;
        float    fFogExp2KneeVal;
    } FogTweakTable;

    FogTweakTable   dsDefaultFogVals =  { 0,    0,      254.0 / 255.0,  0.5f, 0.15f, 0.5f, 0.15f };
    FogTweakTable   dsi810FogVals =     { 0,    0,      254.0 / 255.0,  0.6f, 0.15f, 0.4f, 0.15f };
    FogTweakTable   dsRadeonFogVals =   { 0,    0,      254.0 / 255.0,  0.7f, 0.15f, 0.5f, 0.2f };


    typedef struct {
        uint8_t           fType;              // Our chipset ID
        uint32_t          *fFlagsToSet;       
        uint32_t          *fFlagsToClear;
        float        fZSuckiness;        // See above
        uint32_t          fForceMaxLayers;    // The max # of layers we REALLY want (0 to not force)
        float        fLODRating;
        FogTweakTable   *fFogTweaks;
    } CFTable;

    uint32_t  dsGeForceFXCapsSet[] = {
                    1,              // First integer is always the length
                    hsG3DDeviceSelector::kCapsNoAA };

    uint32_t  dsS3GenerCapsClr[] = {
                    4,              // First integer is always the length
                    hsG3DDeviceSelector::kCapsCompressTextures,
                    hsG3DDeviceSelector::kCapsFogExp,
                    hsG3DDeviceSelector::kCapsFogExp2,
                    hsG3DDeviceSelector::kCapsDoesSmallTextures };

    uint32_t  dsATIR8X00CapsSet[] = {
                    2,              // First integer is always the length
                        hsG3DDeviceSelector::kCapsBadManaged,
                        hsG3DDeviceSelector::kCapsShareDepth
                    };

    uint32_t  dsATIR8X00CapsClr[] = {
                    1,              // First integer is always the length
                    hsG3DDeviceSelector::kCapsDoesSmallTextures };

    uint32_t  dsDefaultCapsClr[] = {
                    1,              // First integer is always the length
                    hsG3DDeviceSelector::kCapsDoesSmallTextures };

    CFTable dsCFTable[] = 
        {
            // Chipset ID              // F2Set             // F2Clear          // ZSuck    // MaxLayers    // LODBias    // Fog Value Tables
            { kDefaultChipset,         nullptr,             dsDefaultCapsClr,   0,          0,              0,            &dsDefaultFogVals },
            { kNVidiaGeForceFXChipset, dsGeForceFXCapsSet,  nullptr,            0,          0,              0,            &dsDefaultFogVals },
            { kIntelI810Chipset,       nullptr,             dsDefaultCapsClr,   4.5f,       1,              -0.5f,        &dsi810FogVals },
            { kATIR8X00Chipset,        dsATIR8X00CapsSet,   dsATIR8X00CapsClr,  0,          0,              0,            &dsRadeonFogVals  },
        };

};

//// IFudgeDirectXDevice //////////////////////////////////////////////////////
//  Checks this DirectX device against all our known types and fudges our caps 
//  flags and bias values, etc, accordingly

#ifdef HS_SELECT_DIRECT3D
void    hsG3DDeviceSelector::IFudgeDirectXDevice( hsG3DDeviceRecord &record,
                                                    D3DEnum_DriverInfo *driverInfo,
                                                    D3DEnum_DeviceInfo *deviceInfo )
{
    uint32_t    vendorID, deviceID;
    char        *szDriver, *szDesc;


    /// Send it off to each D3D device, respectively
    if( record.GetG3DDeviceType() == kDevTypeDirect3D )
    {
        if( !IGetD3DCardInfo( record, driverInfo, deviceInfo, &vendorID, &deviceID, &szDriver, &szDesc ) )
        {
            // {} to make VC6 happy in release build
            hsAssert( false, "Trying to fudge D3D device but D3D support isn't in this EXE!" );
        }
    }
    else
    {
        hsAssert( false, "IFudgeDirectXDevice got a device type that support wasn't compiled for!" );
    }

    /// So capitalization won't matter in our tests
    plString desc = plString::FromIso8859_1(szDesc).ToLower();

    /// Detect ATI Radeon chipset
    // We will probably need to differentiate between different Radeons at some point in 
    // the future, but not now.
    ssize_t radeon = desc.Find("radeon");
    if (stricmp(szDriver, "ati2dvag.dll") == 0 || radeon >= 0)
    {
        int series = 0;
        if (radeon >= 0)
        {
            const char* str = desc.c_str() + radeon + strlen("radeon");
            if( 1 == sscanf(str, "%d", &series) )
            {
                if( (series >= 8000) && (series < 9000) )
                {
                    hsStatusMessage( "== Using fudge factors for ATI Radeon 8X00 chipset ==\n" );
                    ISetFudgeFactors( kATIR8X00Chipset, record );
                }
                else if (series >= 9000)
                {
                    hsStatusMessage("== Using fudge factors for ATI Radeon 9X00 chipset ==\n");
                    ISetFudgeFactors(kATIRadeonChipset, record);
                }
                else
                {
                    series = 0;
                }
            }
        }
        if (series == 0)
        {
            hsStatusMessage("== Using fudge factors for ATI/AMD Radeon X/HD/R chipset ==\n");
            ISetFudgeFactors(kDefaultChipset, record);
        }
    }

    //// Other Cards //////////////////////////////////////////////////////////
    /// Detect Intel i810 chipset
    else if( deviceID == 0x00007125 &&
                ( stricmp( szDriver, "i81xdd.dll" ) == 0 
                  || ( desc.Find("intel") >= 0 && desc.Find("810") >= 0 ) ) )
    {
        hsStatusMessage( "== Using fudge factors for an Intel i810 chipset ==\n" );
        ISetFudgeFactors( kIntelI810Chipset, record );
    }
    /// Detect for a GeForc FX card. We only need to nerf the really low end one.
    else if( desc.Find("nvidia") >= 0 && desc.Find("geforce fx 5200") >= 0 )
    {
        hsStatusMessage( "== Using fudge factors for an NVidia GeForceFX-based chipset ==\n" );
        ISetFudgeFactors( kNVidiaGeForceFXChipset, record );
    }
    /// Default fudge values
    else
    {
        hsStatusMessage( "== Using default fudge factors ==\n" );
        ISetFudgeFactors( kDefaultChipset, record );
    }
}
#endif

//// ISetFudgeFactors /////////////////////////////////////////////////////////
//  Given a chipset ID, looks the values up in the CFT and sets the appropriate
//  values.

void    hsG3DDeviceSelector::ISetFudgeFactors( uint8_t chipsetID, hsG3DDeviceRecord &record )
{
    int     i, maxIDs, j;


    maxIDs = sizeof( dsCFTable ) / sizeof( dsCFTable[ 0 ] );

    /// Search for our chipset
    for( i = 0; i < maxIDs; i++ )
    {
        if( dsCFTable[ i ].fType == chipsetID )
        {
            /// Found it!

            // Flags to force set
            if( dsCFTable[ i ].fFlagsToSet != nil )
            {
                for( j = 0; j < dsCFTable[ i ].fFlagsToSet[ 0 ]; j++ )
                    record.SetCap( dsCFTable[ i ].fFlagsToSet[ j + 1 ] );
            }

            // Flags to force clear
            if( dsCFTable[ i ].fFlagsToClear != nil )
            {
                for( j = 0; j < dsCFTable[ i ].fFlagsToClear[ 0 ]; j++ )
                    record.SetCap( dsCFTable[ i ].fFlagsToClear[ j + 1 ], false );
            }

            // Suckiness
            record.SetZBiasRating( dsCFTable[ i ].fZSuckiness );

            // Max # of layers
            if( dsCFTable[ i ].fForceMaxLayers > 0 )
                record.SetLayersAtOnce( dsCFTable[ i ].fForceMaxLayers );

            // LOD bias rating
            record.SetLODBiasRating( dsCFTable[ i ].fLODRating );

            // Fog tweaks
            FogTweakTable   *fogTweaks = dsCFTable[ i ].fFogTweaks;

            record.SetFogApproxStarts( fogTweaks->fFogExpApproxStart, fogTweaks->fFogExp2ApproxStart );
            record.SetFogEndBias( fogTweaks->fFogEndBias );
            record.SetFogKneeParams( hsG3DDeviceRecord::kFogExp, fogTweaks->fFogExpKnee, fogTweaks->fFogExpKneeVal );
            record.SetFogKneeParams( hsG3DDeviceRecord::kFogExp2, fogTweaks->fFogExp2Knee, fogTweaks->fFogExp2KneeVal );

            if( record.GetCap(kCapsNoAA) )
            {
                int j;
                for( j = 0; j < record.GetModes().GetCount(); j++ )
                    record.GetModes()[j].ClearFSAATypes();
            }

            return;
        }
    }
}