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authorTimothy Pearson <[email protected]>2011-11-08 12:31:36 -0600
committerTimothy Pearson <[email protected]>2011-11-08 12:31:36 -0600
commitd796c9dd933ab96ec83b9a634feedd5d32e1ba3f (patch)
tree6e3dcca4f77e20ec8966c666aac7c35bd4704053 /src/kernel/qpixmap.cpp
downloadtqt3-d796c9dd933ab96ec83b9a634feedd5d32e1ba3f.tar.gz
tqt3-d796c9dd933ab96ec83b9a634feedd5d32e1ba3f.zip
Test conversion to TQt3 from Qt3 8c6fc1f8e35fd264dd01c582ca5e7549b32ab731
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+/****************************************************************************
+**
+** Implementation of TQPixmap class
+**
+** Created : 950301
+**
+** Copyright (C) 1992-2008 Trolltech ASA. All rights reserved.
+**
+** This file is part of the kernel module of the TQt GUI Toolkit.
+**
+** This file may be used under the terms of the GNU General
+** Public License versions 2.0 or 3.0 as published by the Free
+** Software Foundation and appearing in the files LICENSE.GPL2
+** and LICENSE.GPL3 included in the packaging of this file.
+** Alternatively you may (at your option) use any later version
+** of the GNU General Public License if such license has been
+** publicly approved by Trolltech ASA (or its successors, if any)
+** and the KDE Free TQt Foundation.
+**
+** Please review the following information to ensure GNU General
+** Public Licensing retquirements will be met:
+** http://trolltech.com/products/qt/licenses/licensing/opensource/.
+** If you are unsure which license is appropriate for your use, please
+** review the following information:
+** http://trolltech.com/products/qt/licenses/licensing/licensingoverview
+** or contact the sales department at [email protected].
+**
+** This file may be used under the terms of the Q Public License as
+** defined by Trolltech ASA and appearing in the file LICENSE.TQPL
+** included in the packaging of this file. Licensees holding valid TQt
+** Commercial licenses may use this file in accordance with the TQt
+** Commercial License Agreement provided with the Software.
+**
+** This file is provided "AS IS" with NO WARRANTY OF ANY KIND,
+** INCLUDING THE WARRANTIES OF DESIGN, MERCHANTABILITY AND FITNESS FOR
+** A PARTICULAR PURPOSE. Trolltech reserves all rights not granted
+** herein.
+**
+**********************************************************************/
+
+#include "qpixmap.h"
+
+#include "qbitmap.h"
+#include "qimage.h"
+#include "qwidget.h"
+#include "qpainter.h"
+#include "qdatastream.h"
+#include "qbuffer.h"
+#include "qobjectlist.h"
+#include "qapplication.h"
+#include <private/qinternal_p.h>
+#include "qmime.h"
+#include "qdragobject.h"
+#include "qfile.h"
+
+/*!
+ \class TQPixmap qpixmap.h
+ \brief The TQPixmap class is an off-screen, pixel-based paint device.
+
+ \ingroup graphics
+ \ingroup images
+ \ingroup shared
+ \mainclass
+
+ TQPixmap is one of the two classes TQt provides for dealing with
+ images; the other is TQImage. TQPixmap is designed and optimized
+ for drawing; TQImage is designed and optimized for I/O and for
+ direct pixel access/manipulation. There are (slow) functions to
+ convert between TQImage and TQPixmap: convertToImage() and
+ convertFromImage().
+
+ One common use of the TQPixmap class is to enable smooth updating
+ of widgets. Whenever something complex needs to be drawn, you can
+ use a pixmap to obtain flicker-free drawing, like this:
+
+ \list 1
+ \i Create a pixmap with the same size as the widget.
+ \i Fill the pixmap with the widget background color.
+ \i Paint the pixmap.
+ \i bitBlt() the pixmap contents onto the widget.
+ \endlist
+
+ Pixel data in a pixmap is internal and is managed by the
+ underlying window system. Pixels can be accessed only through
+ TQPainter functions, through bitBlt(), and by converting the
+ TQPixmap to a TQImage.
+
+ You can easily display a TQPixmap on the screen using
+ TQLabel::setPixmap(). For example, all the TQButton subclasses
+ support pixmap use.
+
+ The TQPixmap class uses \link shclass.html copy-on-write\endlink,
+ so it is practical to pass TQPixmap objects by value.
+
+ You can retrieve the width(), height(), depth() and size() of a
+ pixmap. The enclosing rectangle is given by rect(). Pixmaps can be
+ filled with fill() and resized with resize(). You can create and
+ set a mask with createHeuristicMask() and setMask(). Use
+ selfMask() to see if the pixmap is identical to its mask.
+
+ In addition to loading a pixmap from file using load() you can
+ also loadFromData(). You can control optimization with
+ setOptimization() and obtain a transformed version of the pixmap
+ using xForm()
+
+ Note regarding Windows 95 and 98: on Windows 9x the system crashes
+ if you create more than about 1000 pixmaps, independent of the
+ size of the pixmaps or installed RAM. Windows NT-systems (including
+ 2000, XP and following versions) do not have the same limitation,
+ but depending on the graphics etquipment the system will fail to
+ allocate pixmap objects at some point (due to system running out of
+ GDI resources).
+
+ TQt tries to work around the resource limitation. If you set the
+ pixmap optimization to \c TQPixmap::MemoryOptim and the width of
+ your pixmap is less than or equal to 128 pixels, TQt stores the
+ pixmap in a way that is very memory-efficient when there are many
+ pixmaps.
+
+ If your application uses dozens or hundreds of pixmaps (for
+ example on tool bar buttons and in popup menus), and you plan to
+ run it on Windows 95 or Windows 98, we recommend using code like
+ this:
+
+ \code
+ TQPixmap::setDefaultOptimization( TQPixmap::MemoryOptim );
+ while ( ... ) {
+ // load tool bar pixmaps etc.
+ TQPixmap *pixmap = new TQPixmap(fileName);
+ }
+ TQPixmap::setDefaultOptimization( TQPixmap::NormalOptim );
+ \endcode
+
+ In general it is recommended to make as much use of TQPixmap's
+ implicit sharing and the TQPixmapCache as possible.
+
+ \sa TQBitmap, TQImage, TQImageIO, \link shclass.html Shared Classes\endlink
+*/
+
+/*!
+ \enum TQPixmap::ColorMode
+
+ This enum type defines the color modes that exist for converting
+ TQImage objects to TQPixmap.
+
+ \value Auto Select \c Color or \c Mono on a case-by-case basis.
+ \value Color Always create colored pixmaps.
+ \value Mono Always create bitmaps.
+*/
+
+/*!
+ \enum TQPixmap::Optimization
+
+ TQPixmap has the choice of optimizing for speed or memory in a few
+ places; the best choice varies from pixmap to pixmap but can
+ generally be derived heuristically. This enum type defines a
+ number of optimization modes that you can set for any pixmap to
+ tweak the speed/memory tradeoffs:
+
+ \value DefaultOptim Whatever TQPixmap::defaultOptimization()
+ returns. A pixmap with this optimization will have whatever
+ the current default optimization is. If the default
+ optimization is changed using setDefaultOptimization(), then
+ this will not effect any pixmaps that have already been
+ created.
+
+ \value NoOptim No optimization (currently the same as \c
+ MemoryOptim).
+
+ \value MemoryOptim Optimize for minimal memory use on Windows
+ 9x and X11 systems.
+
+ \value NormalOptim Optimize for typical usage. Often uses more
+ memory than \c MemoryOptim, and is often faster.
+
+ \value BestOptim Optimize for pixmaps that are drawn very often
+ and where performance is critical. Generally uses more memory
+ than \c NormalOptim and may provide a little more speed.
+
+ We recommend using \c DefaultOptim.
+
+*/
+
+
+TQPixmap::Optimization TQPixmap::defOptim = TQPixmap::NormalOptim;
+
+
+/*!
+ \internal
+ Private constructor which takes the bitmap flag, the optimization.and a screen.
+*/
+
+TQPixmap::TQPixmap( int w, int h, int depth, bool bitmap,
+ Optimization optimization )
+ : TQPaintDevice( TQInternal::Pixmap )
+{
+ init( w, h, depth, bitmap, optimization );
+}
+
+
+/*!
+ Constructs a null pixmap.
+
+ \sa isNull()
+*/
+
+TQPixmap::TQPixmap()
+ : TQPaintDevice( TQInternal::Pixmap )
+{
+ init( 0, 0, 0, FALSE, defOptim );
+}
+
+/*!
+ Constructs a pixmap from the TQImage \a image.
+
+ \sa convertFromImage()
+*/
+
+TQPixmap::TQPixmap( const TQImage& image )
+ : TQPaintDevice( TQInternal::Pixmap )
+{
+ init( 0, 0, 0, FALSE, defOptim );
+ convertFromImage( image );
+}
+
+/*!
+ Constructs a pixmap with \a w width, \a h height and \a depth bits
+ per pixel. The pixmap is optimized in accordance with the \a
+ optimization value.
+
+ The contents of the pixmap is uninitialized.
+
+ The \a depth can be either 1 (monochrome) or the depth of the
+ current video mode. If \a depth is negative, then the hardware
+ depth of the current video mode will be used.
+
+ If either \a w or \a h is zero, a null pixmap is constructed.
+
+ \sa isNull() TQPixmap::Optimization
+*/
+
+TQPixmap::TQPixmap( int w, int h, int depth, Optimization optimization )
+ : TQPaintDevice( TQInternal::Pixmap )
+{
+ init( w, h, depth, FALSE, optimization );
+}
+
+/*!
+ \overload TQPixmap::TQPixmap( const TQSize &size, int depth, Optimization optimization )
+
+ Constructs a pixmap of size \a size, \a depth bits per pixel,
+ optimized in accordance with the \a optimization value.
+*/
+
+TQPixmap::TQPixmap( const TQSize &size, int depth, Optimization optimization )
+ : TQPaintDevice( TQInternal::Pixmap )
+{
+ init( size.width(), size.height(), depth, FALSE, optimization );
+}
+
+#ifndef QT_NO_IMAGEIO
+/*!
+ Constructs a pixmap from the file \a fileName. If the file does
+ not exist or is of an unknown format, the pixmap becomes a null
+ pixmap.
+
+ The \a fileName, \a format and \a conversion_flags parameters are
+ passed on to load(). This means that the data in \a fileName is
+ not compiled into the binary. If \a fileName contains a relative
+ path (e.g. the filename only) the relevant file must be found
+ relative to the runtime working directory.
+
+ If the image needs to be modified to fit in a lower-resolution
+ result (e.g. converting from 32-bit to 8-bit), use the \a
+ conversion_flags to specify how you'd prefer this to happen.
+
+ \sa TQt::ImageConversionFlags isNull(), load(), loadFromData(), save(), imageFormat()
+*/
+
+TQPixmap::TQPixmap( const TQString& fileName, const char *format,
+ int conversion_flags )
+ : TQPaintDevice( TQInternal::Pixmap )
+{
+ init( 0, 0, 0, FALSE, defOptim );
+ load( fileName, format, conversion_flags );
+}
+
+/*!
+ Constructs a pixmap from the file \a fileName. If the file does
+ not exist or is of an unknown format, the pixmap becomes a null
+ pixmap.
+
+ The \a fileName, \a format and \a mode parameters are passed on to
+ load(). This means that the data in \a fileName is not compiled
+ into the binary. If \a fileName contains a relative path (e.g. the
+ filename only) the relevant file must be found relative to the
+ runtime working directory.
+
+ \sa TQPixmap::ColorMode isNull(), load(), loadFromData(), save(), imageFormat()
+*/
+
+TQPixmap::TQPixmap( const TQString& fileName, const char *format, ColorMode mode )
+ : TQPaintDevice( TQInternal::Pixmap )
+{
+ init( 0, 0, 0, FALSE, defOptim );
+ load( fileName, format, mode );
+}
+
+/*!
+ Constructs a pixmap from \a xpm, which must be a valid XPM image.
+
+ Errors are silently ignored.
+
+ Note that it's possible to squeeze the XPM variable a little bit
+ by using an unusual declaration:
+
+ \code
+ static const char * const start_xpm[]={
+ "16 15 8 1",
+ "a c #cec6bd",
+ ....
+ \endcode
+
+ The extra \c const makes the entire definition read-only, which is
+ slightly more efficient (for example, when the code is in a shared
+ library) and ROMable when the application is to be stored in ROM.
+
+ In order to use that sort of declaration you must cast the
+ variable back to \c{const char **} when you create the TQPixmap.
+*/
+
+TQPixmap::TQPixmap( const char *xpm[] )
+ : TQPaintDevice( TQInternal::Pixmap )
+{
+ init( 0, 0, 0, FALSE, defOptim );
+ TQImage image( xpm );
+ if ( !image.isNull() )
+ convertFromImage( image );
+}
+
+/*!
+ Constructs a pixmaps by loading from \a img_data. The data can be
+ in any image format supported by TQt.
+
+ \sa loadFromData()
+*/
+
+TQPixmap::TQPixmap( const TQByteArray & img_data )
+ : TQPaintDevice( TQInternal::Pixmap )
+{
+ init( 0, 0, 0, FALSE, defOptim );
+ loadFromData( img_data );
+}
+#endif //QT_NO_IMAGEIO
+
+/*!
+ Constructs a pixmap that is a copy of \a pixmap.
+*/
+
+TQPixmap::TQPixmap( const TQPixmap &pixmap )
+ : TQPaintDevice( TQInternal::Pixmap )
+{
+ if ( pixmap.paintingActive() ) { // make a deep copy
+ data = 0;
+ operator=( pixmap.copy() );
+ } else {
+ data = pixmap.data;
+ data->ref();
+ devFlags = pixmap.devFlags; // copy TQPaintDevice flags
+#if defined(Q_WS_WIN)
+ hdc = pixmap.hdc; // copy Windows device context
+#elif defined(Q_WS_X11)
+ hd = pixmap.hd; // copy X11 drawable
+ rendhd = pixmap.rendhd;
+ copyX11Data( &pixmap ); // copy x11Data
+#elif defined(Q_WS_MAC)
+ hd = pixmap.hd;
+#endif
+ }
+}
+
+
+/*!
+ Destroys the pixmap.
+*/
+
+TQPixmap::~TQPixmap()
+{
+ deref();
+}
+
+/*! Convenience function. Gets the data associated with the absolute
+ name \a abs_name from the default mime source factory and decodes it
+ to a pixmap.
+
+ \sa TQMimeSourceFactory, TQImage::fromMimeSource(), TQImageDrag::decode()
+*/
+
+#ifndef QT_NO_MIME
+TQPixmap TQPixmap::fromMimeSource( const TQString &abs_name )
+{
+ const TQMimeSource *m = TQMimeSourceFactory::defaultFactory()->data( abs_name );
+ if ( !m ) {
+ if ( TQFile::exists( abs_name ) )
+ return TQPixmap( abs_name );
+#if defined(QT_CHECK_STATE)
+ if ( !abs_name.isEmpty() )
+ qWarning( "TQPixmap::fromMimeSource: Cannot find pixmap \"%s\" in the mime source factory",
+ abs_name.latin1() );
+#endif
+ return TQPixmap();
+ }
+ TQPixmap pix;
+ TQImageDrag::decode( m, pix );
+ return pix;
+}
+#endif
+
+/*!
+ Returns a \link shclass.html deep copy\endlink of the pixmap using
+ the bitBlt() function to copy the pixels.
+
+ \sa operator=()
+*/
+
+TQPixmap TQPixmap::copy( bool ignoreMask ) const
+{
+#if defined(Q_WS_X11)
+ int old = x11SetDefaultScreen( x11Screen() );
+#endif // Q_WS_X11
+
+ TQPixmap pm( data->w, data->h, data->d, data->bitmap, data->optim );
+
+ if ( !pm.isNull() ) { // copy the bitmap
+#if defined(Q_WS_X11)
+ pm.cloneX11Data( this );
+#endif // Q_WS_X11
+
+ if ( ignoreMask )
+ bitBlt( &pm, 0, 0, this, 0, 0, data->w, data->h, TQt::CopyROP, TRUE );
+ else
+ copyBlt( &pm, 0, 0, this, 0, 0, data->w, data->h );
+ }
+
+#if defined(Q_WS_X11)
+ x11SetDefaultScreen( old );
+#endif // Q_WS_X11
+
+ return pm;
+}
+
+
+/*!
+ Assigns the pixmap \a pixmap to this pixmap and returns a
+ reference to this pixmap.
+*/
+
+TQPixmap &TQPixmap::operator=( const TQPixmap &pixmap )
+{
+ if ( paintingActive() ) {
+#if defined(QT_CHECK_STATE)
+ qWarning("TQPixmap::operator=: Cannot assign to pixmap during painting");
+#endif
+ return *this;
+ }
+ pixmap.data->ref(); // avoid 'x = x'
+ deref();
+ if ( pixmap.paintingActive() ) { // make a deep copy
+ init( pixmap.width(), pixmap.height(), pixmap.depth(),
+ pixmap.data->bitmap, pixmap.data->optim );
+ data->uninit = FALSE;
+ if ( !isNull() )
+ copyBlt( this, 0, 0, &pixmap, 0, 0, pixmap.width(), pixmap.height() );
+ pixmap.data->deref();
+ } else {
+ data = pixmap.data;
+ devFlags = pixmap.devFlags; // copy TQPaintDevice flags
+#if defined(Q_WS_WIN)
+ hdc = pixmap.hdc;
+#elif defined(Q_WS_X11)
+ hd = pixmap.hd; // copy TQPaintDevice drawable
+ rendhd = pixmap.rendhd;
+ copyX11Data( &pixmap ); // copy x11Data
+#elif defined(Q_WS_MACX) || defined(Q_OS_MAC9)
+ hd = pixmap.hd;
+#endif
+ }
+ return *this;
+}
+
+
+/*!
+ \overload
+
+ Converts the image \a image to a pixmap that is assigned to this
+ pixmap. Returns a reference to the pixmap.
+
+ \sa convertFromImage().
+*/
+
+TQPixmap &TQPixmap::operator=( const TQImage &image )
+{
+ convertFromImage( image );
+ return *this;
+}
+
+
+/*!
+ \fn bool TQPixmap::isTQBitmap() const
+
+ Returns TRUE if this is a TQBitmap; otherwise returns FALSE.
+*/
+
+/*!
+ \fn bool TQPixmap::isNull() const
+
+ Returns TRUE if this is a null pixmap; otherwise returns FALSE.
+
+ A null pixmap has zero width, zero height and no contents. You
+ cannot draw in a null pixmap or bitBlt() anything to it.
+
+ Resizing an existing pixmap to (0, 0) makes a pixmap into a null
+ pixmap.
+
+ \sa resize()
+*/
+
+/*!
+ \fn int TQPixmap::width() const
+
+ Returns the width of the pixmap.
+
+ \sa height(), size(), rect()
+*/
+
+/*!
+ \fn int TQPixmap::height() const
+
+ Returns the height of the pixmap.
+
+ \sa width(), size(), rect()
+*/
+
+/*!
+ \fn TQSize TQPixmap::size() const
+
+ Returns the size of the pixmap.
+
+ \sa width(), height(), rect()
+*/
+
+/*!
+ \fn TQRect TQPixmap::rect() const
+
+ Returns the enclosing rectangle (0,0,width(),height()) of the pixmap.
+
+ \sa width(), height(), size()
+*/
+
+/*!
+ \fn int TQPixmap::depth() const
+
+ Returns the depth of the pixmap.
+
+ The pixmap depth is also called bits per pixel (bpp) or bit planes
+ of a pixmap. A null pixmap has depth 0.
+
+ \sa defaultDepth(), isNull(), TQImage::convertDepth()
+*/
+
+
+/*!
+ \overload void TQPixmap::fill( const TQWidget *widget, const TQPoint &ofs )
+
+ Fills the pixmap with the \a widget's background color or pixmap.
+ If the background is empty, nothing is done.
+
+ The \a ofs point is an offset in the widget.
+
+ The point \a ofs is a point in the widget's coordinate system. The
+ pixmap's top-left pixel will be mapped to the point \a ofs in the
+ widget. This is significant if the widget has a background pixmap;
+ otherwise the pixmap will simply be filled with the background
+ color of the widget.
+
+ Example:
+ \code
+ void CuteWidget::paintEvent( TQPaintEvent *e )
+ {
+ TQRect ur = e->rect(); // rectangle to update
+ TQPixmap pix( ur.size() ); // Pixmap for double-buffering
+ pix.fill( this, ur.topLeft() ); // fill with widget background
+
+ TQPainter p( &pix );
+ p.translate( -ur.x(), -ur.y() ); // use widget coordinate system
+ // when drawing on pixmap
+ // ... draw on pixmap ...
+
+ p.end();
+
+ bitBlt( this, ur.topLeft(), &pix );
+ }
+ \endcode
+*/
+
+/*!
+ \overload void TQPixmap::fill( const TQWidget *widget, int xofs, int yofs )
+
+ Fills the pixmap with the \a widget's background color or pixmap.
+ If the background is empty, nothing is done. \a xofs, \a yofs is
+ an offset in the widget.
+*/
+
+void TQPixmap::fill( const TQWidget *widget, int xofs, int yofs )
+{
+ const TQPixmap* bgpm = widget->backgroundPixmap();
+ fill( widget->backgroundColor() );
+ if ( bgpm ) {
+ if ( !bgpm->isNull() ) {
+ TQPoint ofs = widget->backgroundOffset();
+ xofs += ofs.x();
+ yofs += ofs.y();
+
+ TQPainter p;
+ p.begin( this );
+ p.setPen( NoPen );
+ p.drawTiledPixmap( 0, 0, width(), height(), *widget->backgroundPixmap(), xofs, yofs );
+ p.end();
+ }
+ }
+}
+
+
+/*!
+ \overload void TQPixmap::resize( const TQSize &size )
+
+ Resizes the pixmap to size \a size.
+*/
+
+/*!
+ Resizes the pixmap to \a w width and \a h height. If either \a w
+ or \a h is 0, the pixmap becomes a null pixmap.
+
+ If both \a w and \a h are greater than 0, a valid pixmap is
+ created. New pixels will be uninitialized (random) if the pixmap
+ is expanded.
+*/
+
+void TQPixmap::resize( int w, int h )
+{
+ if ( w < 1 || h < 1 ) { // becomes null
+ TQPixmap pm( 0, 0, 0, data->bitmap, data->optim );
+ *this = pm;
+ return;
+ }
+ int d;
+ if ( depth() > 0 )
+ d = depth();
+ else
+ d = isTQBitmap() ? 1 : -1;
+ // Create new pixmap
+ TQPixmap pm( w, h, d, data->bitmap, data->optim );
+#ifdef Q_WS_X11
+ pm.x11SetScreen( x11Screen() );
+#endif // Q_WS_X11
+ if ( !data->uninit && !isNull() ) // has existing pixmap
+ bitBlt( &pm, 0, 0, this, 0, 0, // copy old pixmap
+ TQMIN(width(), w),
+ TQMIN(height(),h), CopyROP, TRUE );
+#if defined(Q_WS_MAC)
+ if(data->alphapm) {
+ data->alphapm->resize(w, h);
+ } else
+#elif defined(Q_WS_X11) && !defined(QT_NO_XFTFREETYPE)
+ if (data->alphapm)
+ qWarning("TQPixmap::resize: TODO: resize alpha data");
+ else
+#endif // Q_WS_X11
+ if ( data->mask ) { // resize mask as well
+ if ( data->selfmask ) { // preserve self-mask
+ pm.setMask( *((TQBitmap*)&pm) );
+ } else { // independent mask
+ TQBitmap m = *data->mask;
+ m.resize( w, h );
+ pm.setMask( m );
+ }
+ }
+ *this = pm;
+}
+
+
+/*!
+ \fn const TQBitmap *TQPixmap::mask() const
+
+ Returns the mask bitmap, or 0 if no mask has been set.
+
+ \sa setMask(), TQBitmap, hasAlpha()
+*/
+
+/*!
+ Sets a mask bitmap.
+
+ The \a newmask bitmap defines the clip mask for this pixmap. Every
+ pixel in \a newmask corresponds to a pixel in this pixmap. Pixel
+ value 1 means opaque and pixel value 0 means transparent. The mask
+ must have the same size as this pixmap.
+
+ \warning Setting the mask on a pixmap will cause any alpha channel
+ data to be cleared. For example:
+ \code
+ TQPixmap alpha( "image-with-alpha.png" );
+ TQPixmap alphacopy = alpha;
+ alphacopy.setMask( *alphacopy.mask() );
+ \endcode
+ Now, alpha and alphacopy are visually different.
+
+ Setting a \link isNull() null\endlink mask resets the mask.
+
+ \sa mask(), createHeuristicMask(), TQBitmap
+*/
+
+void TQPixmap::setMask( const TQBitmap &newmask )
+{
+ const TQPixmap *tmp = &newmask; // dec cxx bug
+ if ( (data == tmp->data) ||
+ ( newmask.handle() && newmask.handle() == handle() ) ) {
+ TQPixmap m = tmp->copy( TRUE );
+ setMask( *((TQBitmap*)&m) );
+ data->selfmask = TRUE; // mask == pixmap
+ return;
+ }
+
+ if ( newmask.isNull() ) { // reset the mask
+ if (data->mask) {
+ detach();
+ data->selfmask = FALSE;
+
+ delete data->mask;
+ data->mask = 0;
+ }
+ return;
+ }
+
+ detach();
+ data->selfmask = FALSE;
+
+ if ( newmask.width() != width() || newmask.height() != height() ) {
+#if defined(QT_CHECK_RANGE)
+ qWarning( "TQPixmap::setMask: The pixmap and the mask must have "
+ "the same size" );
+#endif
+ return;
+ }
+#if defined(Q_WS_MAC) || (defined(Q_WS_X11) && !defined(QT_NO_XFTFREETYPE))
+ // when setting the mask, we get rid of the alpha channel completely
+ delete data->alphapm;
+ data->alphapm = 0;
+#endif // Q_WS_X11 && !QT_NO_XFTFREETYPE
+
+ delete data->mask;
+ TQBitmap* newmaskcopy;
+ if ( newmask.mask() )
+ newmaskcopy = (TQBitmap*)new TQPixmap( tmp->copy( TRUE ) );
+ else
+ newmaskcopy = new TQBitmap( newmask );
+#ifdef Q_WS_X11
+ newmaskcopy->x11SetScreen( x11Screen() );
+#endif
+ data->mask = newmaskcopy;
+}
+
+
+/*!
+ \fn bool TQPixmap::selfMask() const
+
+ Returns TRUE if the pixmap's mask is identical to the pixmap
+ itself; otherwise returns FALSE.
+
+ \sa mask()
+*/
+
+#ifndef QT_NO_IMAGE_HEURISTIC_MASK
+/*!
+ Creates and returns a heuristic mask for this pixmap. It works by
+ selecting a color from one of the corners and then chipping away
+ pixels of that color, starting at all the edges.
+
+ The mask may not be perfect but it should be reasonable, so you
+ can do things such as the following:
+ \code
+ pm->setMask( pm->createHeuristicMask() );
+ \endcode
+
+ This function is slow because it involves transformation to a
+ TQImage, non-trivial computations and a transformation back to a
+ TQBitmap.
+
+ If \a clipTight is TRUE the mask is just large enough to cover the
+ pixels; otherwise, the mask is larger than the data pixels.
+
+ \sa TQImage::createHeuristicMask()
+*/
+
+TQBitmap TQPixmap::createHeuristicMask( bool clipTight ) const
+{
+ TQBitmap m;
+ m.convertFromImage( convertToImage().createHeuristicMask(clipTight) );
+ return m;
+}
+#endif
+#ifndef QT_NO_IMAGEIO
+/*!
+ Returns a string that specifies the image format of the file \a
+ fileName, or 0 if the file cannot be read or if the format cannot
+ be recognized.
+
+ The TQImageIO documentation lists the supported image formats.
+
+ \sa load(), save()
+*/
+
+const char* TQPixmap::imageFormat( const TQString &fileName )
+{
+ return TQImageIO::imageFormat(fileName);
+}
+
+/*!
+ Loads a pixmap from the file \a fileName at runtime. Returns TRUE
+ if successful; otherwise returns FALSE.
+
+ If \a format is specified, the loader attempts to read the pixmap
+ using the specified format. If \a format is not specified
+ (default), the loader reads a few bytes from the header to guess
+ the file's format.
+
+ See the convertFromImage() documentation for a description of the
+ \a conversion_flags argument.
+
+ The TQImageIO documentation lists the supported image formats and
+ explains how to add extra formats.
+
+ \sa loadFromData(), save(), imageFormat(), TQImage::load(),
+ TQImageIO
+*/
+
+bool TQPixmap::load( const TQString &fileName, const char *format,
+ int conversion_flags )
+{
+ TQImageIO io( fileName, format );
+ bool result = io.read();
+ if ( result ) {
+ detach(); // ###hanord: Why detach here, convertFromImage does it
+ result = convertFromImage( io.image(), conversion_flags );
+ }
+ return result;
+}
+
+/*!
+ \overload
+
+ Loads a pixmap from the file \a fileName at runtime.
+
+ If \a format is specified, the loader attempts to read the pixmap
+ using the specified format. If \a format is not specified
+ (default), the loader reads a few bytes from the header to guess
+ the file's format.
+
+ The \a mode is used to specify the color mode of the pixmap.
+
+ \sa TQPixmap::ColorMode
+*/
+
+bool TQPixmap::load( const TQString &fileName, const char *format,
+ ColorMode mode )
+{
+ int conversion_flags = 0;
+ switch (mode) {
+ case Color:
+ conversion_flags |= ColorOnly;
+ break;
+ case Mono:
+ conversion_flags |= MonoOnly;
+ break;
+ default:
+ break;// Nothing.
+ }
+ return load( fileName, format, conversion_flags );
+}
+#endif //QT_NO_IMAGEIO
+
+/*!
+ \overload
+
+ Converts \a image and sets this pixmap using color mode \a mode.
+ Returns TRUE if successful; otherwise returns FALSE.
+
+ \sa TQPixmap::ColorMode
+*/
+
+bool TQPixmap::convertFromImage( const TQImage &image, ColorMode mode )
+{
+ if ( image.isNull() ) {
+ // convert null image to null pixmap
+ *this = TQPixmap();
+ return TRUE;
+ }
+
+ int conversion_flags = 0;
+ switch (mode) {
+ case Color:
+ conversion_flags |= ColorOnly;
+ break;
+ case Mono:
+ conversion_flags |= MonoOnly;
+ break;
+ default:
+ break;// Nothing.
+ }
+ return convertFromImage( image, conversion_flags );
+}
+
+#ifndef QT_NO_IMAGEIO
+/*!
+ Loads a pixmap from the binary data in \a buf (\a len bytes).
+ Returns TRUE if successful; otherwise returns FALSE.
+
+ If \a format is specified, the loader attempts to read the pixmap
+ using the specified format. If \a format is not specified
+ (default), the loader reads a few bytes from the header to guess
+ the file's format.
+
+ See the convertFromImage() documentation for a description of the
+ \a conversion_flags argument.
+
+ The TQImageIO documentation lists the supported image formats and
+ explains how to add extra formats.
+
+ \sa load(), save(), imageFormat(), TQImage::loadFromData(),
+ TQImageIO
+*/
+
+bool TQPixmap::loadFromData( const uchar *buf, uint len, const char *format,
+ int conversion_flags )
+{
+ TQByteArray a;
+ a.setRawData( (char *)buf, len );
+ TQBuffer b( a );
+ b.open( IO_ReadOnly );
+ TQImageIO io( &b, format );
+ bool result = io.read();
+ b.close();
+ a.resetRawData( (char *)buf, len );
+ if ( result ) {
+ detach();
+ result = convertFromImage( io.image(), conversion_flags );
+ }
+ return result;
+}
+
+/*!
+ \overload
+
+ Loads a pixmap from the binary data in \a buf (\a len bytes) using
+ color mode \a mode. Returns TRUE if successful; otherwise returns
+ FALSE.
+
+ If \a format is specified, the loader attempts to read the pixmap
+ using the specified format. If \a format is not specified
+ (default), the loader reads a few bytes from the header to guess
+ the file's format.
+
+ \sa TQPixmap::ColorMode
+*/
+
+bool TQPixmap::loadFromData( const uchar *buf, uint len, const char *format,
+ ColorMode mode )
+{
+ int conversion_flags = 0;
+ switch (mode) {
+ case Color:
+ conversion_flags |= ColorOnly;
+ break;
+ case Mono:
+ conversion_flags |= MonoOnly;
+ break;
+ default:
+ break;// Nothing.
+ }
+ return loadFromData( buf, len, format, conversion_flags );
+}
+
+/*!
+ \overload
+*/
+
+bool TQPixmap::loadFromData( const TQByteArray &buf, const char *format,
+ int conversion_flags )
+{
+ return loadFromData( (const uchar *)(buf.data()), buf.size(),
+ format, conversion_flags );
+}
+
+
+/*!
+ Saves the pixmap to the file \a fileName using the image file
+ format \a format and a quality factor \a quality. \a quality must
+ be in the range [0,100] or -1. Specify 0 to obtain small
+ compressed files, 100 for large uncompressed files, and -1 to use
+ the default settings. Returns TRUE if successful; otherwise
+ returns FALSE.
+
+ \sa load(), loadFromData(), imageFormat(), TQImage::save(),
+ TQImageIO
+*/
+
+bool TQPixmap::save( const TQString &fileName, const char *format, int quality ) const
+{
+ if ( isNull() )
+ return FALSE; // nothing to save
+ TQImageIO io( fileName, format );
+ return doImageIO( &io, quality );
+}
+
+/*!
+ \overload
+
+ This function writes a TQPixmap to the TQIODevice, \a device. This
+ can be used, for example, to save a pixmap directly into a
+ TQByteArray:
+ \code
+ TQPixmap pixmap;
+ TQByteArray ba;
+ TQBuffer buffer( ba );
+ buffer.open( IO_WriteOnly );
+ pixmap.save( &buffer, "PNG" ); // writes pixmap into ba in PNG format
+ \endcode
+*/
+
+bool TQPixmap::save( TQIODevice* device, const char* format, int quality ) const
+{
+ if ( isNull() )
+ return FALSE; // nothing to save
+ TQImageIO io( device, format );
+ return doImageIO( &io, quality );
+}
+
+/*! \internal
+*/
+
+bool TQPixmap::doImageIO( TQImageIO* io, int quality ) const
+{
+ if ( !io )
+ return FALSE;
+ io->setImage( convertToImage() );
+#if defined(QT_CHECK_RANGE)
+ if ( quality > 100 || quality < -1 )
+ qWarning( "TQPixmap::save: quality out of range [-1,100]" );
+#endif
+ if ( quality >= 0 )
+ io->setQuality( TQMIN(quality,100) );
+ return io->write();
+}
+
+#endif //QT_NO_IMAGEIO
+
+/*!
+ \fn int TQPixmap::serialNumber() const
+
+ Returns a number that uniquely identifies the contents of this
+ TQPixmap object. This means that multiple TQPixmap objects can have
+ the same serial number as long as they refer to the same contents.
+
+ An example of where this is useful is for caching TQPixmaps.
+
+ \sa TQPixmapCache
+*/
+
+
+/*!
+ Returns the default pixmap optimization setting.
+
+ \sa setDefaultOptimization(), setOptimization(), optimization()
+*/
+
+TQPixmap::Optimization TQPixmap::defaultOptimization()
+{
+ return defOptim;
+}
+
+/*!
+ Sets the default pixmap optimization.
+
+ All \e new pixmaps that are created will use this default
+ optimization. You may also set optimization for individual pixmaps
+ using the setOptimization() function.
+
+ The initial default \a optimization setting is \c TQPixmap::Normal.
+
+ \sa defaultOptimization(), setOptimization(), optimization()
+*/
+
+void TQPixmap::setDefaultOptimization( Optimization optimization )
+{
+ if ( optimization != DefaultOptim )
+ defOptim = optimization;
+}
+
+
+// helper for next function.
+static TQPixmap grabChildWidgets( TQWidget * w )
+{
+ TQPixmap res( w->width(), w->height() );
+ if ( res.isNull() && w->width() )
+ return res;
+ res.fill( w, TQPoint( 0, 0 ) );
+ TQPaintDevice *oldRedirect = TQPainter::redirect( w );
+ TQPainter::redirect( w, &res );
+ bool dblbfr = TQSharedDoubleBuffer::isDisabled();
+ TQSharedDoubleBuffer::setDisabled( TRUE );
+ TQPaintEvent e( w->rect(), FALSE );
+ TQApplication::sendEvent( w, &e );
+ TQSharedDoubleBuffer::setDisabled( dblbfr );
+ TQPainter::redirect( w, oldRedirect );
+
+ const TQObjectList * children = w->children();
+ if ( children ) {
+ TQPainter p( &res );
+ TQObjectListIt it( *children );
+ TQObject * child;
+ while( (child=it.current()) != 0 ) {
+ ++it;
+ if ( child->isWidgetType() &&
+ !((TQWidget *)child)->isHidden() &&
+ !((TQWidget *)child)->isTopLevel() &&
+ ((TQWidget *)child)->geometry().intersects( w->rect() ) ) {
+ // those conditions aren't tquite right, it's possible
+ // to have a grandchild completely outside its
+ // grandparent, but partially inside its parent. no
+ // point in optimizing for that.
+
+ // make sure to evaluate pos() first - who knows what
+ // the paint event(s) inside grabChildWidgets() will do.
+ TQPoint childpos = ((TQWidget *)child)->pos();
+ TQPixmap cpm = grabChildWidgets( (TQWidget *)child );
+ if ( cpm.isNull() ) {
+ // Some child pixmap failed - abort and reset
+ res.resize( 0, 0 );
+ break;
+ }
+ p.drawPixmap( childpos, cpm);
+ }
+ }
+ }
+ return res;
+}
+
+
+/*!
+ Creates a pixmap and paints \a widget in it.
+
+ If the \a widget has any children, then they are also painted in
+ the appropriate positions.
+
+ If you specify \a x, \a y, \a w or \a h, only the rectangle you
+ specify is painted. The defaults are 0, 0 (top-left corner) and
+ -1,-1 (which means the entire widget).
+
+ (If \a w is negative, the function copies everything to the right
+ border of the window. If \a h is negative, the function copies
+ everything to the bottom of the window.)
+
+ If \a widget is 0, or if the rectangle defined by \a x, \a y, the
+ modified \a w and the modified \a h does not overlap the \a
+ {widget}->rect(), this function will return a null TQPixmap.
+
+ This function actually asks \a widget to paint itself (and its
+ children to paint themselves). TQPixmap::grabWindow() grabs pixels
+ off the screen, which is a bit faster and picks up \e exactly
+ what's on-screen. This function works by calling paintEvent() with
+ painter redirection turned on. If there are overlaying windows,
+ grabWindow() will see them, but not this function.
+
+ If there is overlap, it returns a pixmap of the size you want,
+ containing a rendering of \a widget. If the rectangle you ask for
+ is a superset of \a widget, the areas outside \a widget are
+ covered with the widget's background.
+
+ If an error occurs when trying to grab the widget, such as the
+ size of the widget being too large to fit in memory, an isNull()
+ pixmap is returned.
+
+ \sa grabWindow() TQPainter::redirect() TQWidget::paintEvent()
+*/
+
+TQPixmap TQPixmap::grabWidget( TQWidget * widget, int x, int y, int w, int h )
+{
+ TQPixmap res;
+ if ( !widget )
+ return res;
+
+ if ( w < 0 )
+ w = widget->width() - x;
+ if ( h < 0 )
+ h = widget->height() - y;
+
+ TQRect wr( x, y, w, h );
+ if ( wr == widget->rect() )
+ return grabChildWidgets( widget );
+ if ( !wr.intersects( widget->rect() ) )
+ return res;
+
+ res.resize( w, h );
+ if( res.isNull() )
+ return res;
+ res.fill( widget, TQPoint( w,h ) );
+ TQPixmap tmp( grabChildWidgets( widget ) );
+ if( tmp.isNull() )
+ return tmp;
+ ::bitBlt( &res, 0, 0, &tmp, x, y, w, h );
+ return res;
+}
+
+/*!
+ Returns the actual matrix used for transforming a pixmap with \a w
+ width and \a h height and matrix \a matrix.
+
+ When transforming a pixmap with xForm(), the transformation matrix
+ is internally adjusted to compensate for unwanted translation,
+ i.e. xForm() returns the smallest pixmap containing all
+ transformed points of the original pixmap.
+
+ This function returns the modified matrix, which maps points
+ correctly from the original pixmap into the new pixmap.
+
+ \sa xForm(), TQWMatrix
+*/
+#ifndef QT_NO_PIXMAP_TRANSFORMATION
+TQWMatrix TQPixmap::trueMatrix( const TQWMatrix &matrix, int w, int h )
+{
+ const double dt = (double)0.;
+ double x1,y1, x2,y2, x3,y3, x4,y4; // get corners
+ double xx = (double)w;
+ double yy = (double)h;
+
+ TQWMatrix mat( matrix.m11(), matrix.m12(), matrix.m21(), matrix.m22(), 0., 0. );
+
+ mat.map( dt, dt, &x1, &y1 );
+ mat.map( xx, dt, &x2, &y2 );
+ mat.map( xx, yy, &x3, &y3 );
+ mat.map( dt, yy, &x4, &y4 );
+
+ double ymin = y1; // lowest y value
+ if ( y2 < ymin ) ymin = y2;
+ if ( y3 < ymin ) ymin = y3;
+ if ( y4 < ymin ) ymin = y4;
+ double xmin = x1; // lowest x value
+ if ( x2 < xmin ) xmin = x2;
+ if ( x3 < xmin ) xmin = x3;
+ if ( x4 < xmin ) xmin = x4;
+
+ double ymax = y1; // lowest y value
+ if ( y2 > ymax ) ymax = y2;
+ if ( y3 > ymax ) ymax = y3;
+ if ( y4 > ymax ) ymax = y4;
+ double xmax = x1; // lowest x value
+ if ( x2 > xmax ) xmax = x2;
+ if ( x3 > xmax ) xmax = x3;
+ if ( x4 > xmax ) xmax = x4;
+
+ if ( xmax-xmin > 1.0 )
+ xmin -= xmin/(xmax-xmin);
+ if ( ymax-ymin > 1.0 )
+ ymin -= ymin/(ymax-ymin);
+
+ mat.setMatrix( matrix.m11(), matrix.m12(), matrix.m21(), matrix.m22(), -xmin, -ymin );
+ return mat;
+}
+#endif // QT_NO_WMATRIX
+
+
+
+
+
+/*****************************************************************************
+ TQPixmap stream functions
+ *****************************************************************************/
+#if !defined(QT_NO_DATASTREAM) && !defined(QT_NO_IMAGEIO)
+/*!
+ \relates TQPixmap
+
+ Writes the pixmap \a pixmap to the stream \a s as a PNG image.
+
+ Note that writing the stream to a file will not produce a valid image file.
+
+ \sa TQPixmap::save()
+ \link datastreamformat.html Format of the TQDataStream operators \endlink
+*/
+
+TQDataStream &operator<<( TQDataStream &s, const TQPixmap &pixmap )
+{
+ s << pixmap.convertToImage();
+ return s;
+}
+
+/*!
+ \relates TQPixmap
+
+ Reads a pixmap from the stream \a s into the pixmap \a pixmap.
+
+ \sa TQPixmap::load()
+ \link datastreamformat.html Format of the TQDataStream operators \endlink
+*/
+
+TQDataStream &operator>>( TQDataStream &s, TQPixmap &pixmap )
+{
+ TQImage img;
+ s >> img;
+ pixmap.convertFromImage( img );
+ return s;
+}
+
+#endif //QT_NO_DATASTREAM
+
+
+
+
+/*****************************************************************************
+ TQPixmap (and TQImage) helper functions
+ *****************************************************************************/
+/*
+ This internal function contains the common (i.e. platform independent) code
+ to do a transformation of pixel data. It is used by TQPixmap::xForm() and by
+ TQImage::xForm().
+
+ \a trueMat is the true transformation matrix (see TQPixmap::trueMatrix()) and
+ \a xoffset is an offset to the matrix.
+
+ \a msbfirst specifies for 1bpp images, if the MSB or LSB comes first and \a
+ depth specifies the colordepth of the data.
+
+ \a dptr is a pointer to the destination data, \a dbpl specifies the bits per
+ line for the destination data, \a p_inc is the offset that we advance for
+ every scanline and \a dHeight is the height of the destination image.
+
+ \a sprt is the pointer to the source data, \a sbpl specifies the bits per
+ line of the source data, \a sWidth and \a sHeight are the width and height of
+ the source data.
+*/
+#ifndef QT_NO_PIXMAP_TRANSFORMATION
+#undef IWX_MSB
+#define IWX_MSB(b) if ( trigx < maxws && trigy < maxhs ) { \
+ if ( *(sptr+sbpl*(trigy>>16)+(trigx>>19)) & \
+ (1 << (7-((trigx>>16)&7))) ) \
+ *dptr |= b; \
+ } \
+ trigx += m11; \
+ trigy += m12;
+ // END OF MACRO
+#undef IWX_LSB
+#define IWX_LSB(b) if ( trigx < maxws && trigy < maxhs ) { \
+ if ( *(sptr+sbpl*(trigy>>16)+(trigx>>19)) & \
+ (1 << ((trigx>>16)&7)) ) \
+ *dptr |= b; \
+ } \
+ trigx += m11; \
+ trigy += m12;
+ // END OF MACRO
+#undef IWX_PIX
+#define IWX_PIX(b) if ( trigx < maxws && trigy < maxhs ) { \
+ if ( (*(sptr+sbpl*(trigy>>16)+(trigx>>19)) & \
+ (1 << (7-((trigx>>16)&7)))) == 0 ) \
+ *dptr &= ~b; \
+ } \
+ trigx += m11; \
+ trigy += m12;
+ // END OF MACRO
+bool qt_xForm_helper( const TQWMatrix &trueMat, int xoffset,
+ int type, int depth,
+ uchar *dptr, int dbpl, int p_inc, int dHeight,
+ uchar *sptr, int sbpl, int sWidth, int sHeight
+ )
+{
+ int m11 = int(trueMat.m11()*65536.0 + 1.);
+ int m12 = int(trueMat.m12()*65536.0 + 1.);
+ int m21 = int(trueMat.m21()*65536.0 + 1.);
+ int m22 = int(trueMat.m22()*65536.0 + 1.);
+ int dx = qRound(trueMat.dx() *65536.0);
+ int dy = qRound(trueMat.dy() *65536.0);
+
+ int m21ydx = dx + (xoffset<<16);
+ int m22ydy = dy;
+ uint trigx;
+ uint trigy;
+ uint maxws = sWidth<<16;
+ uint maxhs = sHeight<<16;
+
+ for ( int y=0; y<dHeight; y++ ) { // for each target scanline
+ trigx = m21ydx;
+ trigy = m22ydy;
+ uchar *maxp = dptr + dbpl;
+ if ( depth != 1 ) {
+ switch ( depth ) {
+ case 8: // 8 bpp transform
+ while ( dptr < maxp ) {
+ if ( trigx < maxws && trigy < maxhs )
+ *dptr = *(sptr+sbpl*(trigy>>16)+(trigx>>16));
+ trigx += m11;
+ trigy += m12;
+ dptr++;
+ }
+ break;
+
+ case 16: // 16 bpp transform
+ while ( dptr < maxp ) {
+ if ( trigx < maxws && trigy < maxhs )
+ *((ushort*)dptr) = *((ushort *)(sptr+sbpl*(trigy>>16) +
+ ((trigx>>16)<<1)));
+ trigx += m11;
+ trigy += m12;
+ dptr++;
+ dptr++;
+ }
+ break;
+
+ case 24: { // 24 bpp transform
+ uchar *p2;
+ while ( dptr < maxp ) {
+ if ( trigx < maxws && trigy < maxhs ) {
+ p2 = sptr+sbpl*(trigy>>16) + ((trigx>>16)*3);
+ dptr[0] = p2[0];
+ dptr[1] = p2[1];
+ dptr[2] = p2[2];
+ }
+ trigx += m11;
+ trigy += m12;
+ dptr += 3;
+ }
+ }
+ break;
+
+ case 32: // 32 bpp transform
+ while ( dptr < maxp ) {
+ if ( trigx < maxws && trigy < maxhs )
+ *((uint*)dptr) = *((uint *)(sptr+sbpl*(trigy>>16) +
+ ((trigx>>16)<<2)));
+ trigx += m11;
+ trigy += m12;
+ dptr += 4;
+ }
+ break;
+
+ default: {
+ return FALSE;
+ }
+ }
+ } else {
+ switch ( type ) {
+ case QT_XFORM_TYPE_MSBFIRST:
+ while ( dptr < maxp ) {
+ IWX_MSB(128);
+ IWX_MSB(64);
+ IWX_MSB(32);
+ IWX_MSB(16);
+ IWX_MSB(8);
+ IWX_MSB(4);
+ IWX_MSB(2);
+ IWX_MSB(1);
+ dptr++;
+ }
+ break;
+ case QT_XFORM_TYPE_LSBFIRST:
+ while ( dptr < maxp ) {
+ IWX_LSB(1);
+ IWX_LSB(2);
+ IWX_LSB(4);
+ IWX_LSB(8);
+ IWX_LSB(16);
+ IWX_LSB(32);
+ IWX_LSB(64);
+ IWX_LSB(128);
+ dptr++;
+ }
+ break;
+# if defined(Q_WS_WIN)
+ case QT_XFORM_TYPE_WINDOWSPIXMAP:
+ while ( dptr < maxp ) {
+ IWX_PIX(128);
+ IWX_PIX(64);
+ IWX_PIX(32);
+ IWX_PIX(16);
+ IWX_PIX(8);
+ IWX_PIX(4);
+ IWX_PIX(2);
+ IWX_PIX(1);
+ dptr++;
+ }
+ break;
+# endif
+ }
+ }
+ m21ydx += m21;
+ m22ydy += m22;
+ dptr += p_inc;
+ }
+ return TRUE;
+}
+#undef IWX_MSB
+#undef IWX_LSB
+#undef IWX_PIX
+#endif // QT_NO_PIXMAP_TRANSFORMATION