1 files changed, 14 insertions, 14 deletions

diff --git a/src/kernel/tqbitmap.cpp b/src/kernel/tqbitmap.cpp
index c23116d0e..0417844f1 100644
--- a/src/kernel/tqbitmap.cpp
+++ b/src/kernel/tqbitmap.cpp
@@ -88,14 +88,14 @@
 
 TQBitmap::TQBitmap()
 {
-    data->bitmap = TRUE;
+    data->bitmap = true;
 }
 
 
 /*!
     Constructs a bitmap with width \a w and height \a h.
 
-    The contents of the bitmap is uninitialized if \a clear is FALSE;
+    The contents of the bitmap is uninitialized if \a clear is false;
     otherwise it is filled with pixel value 0 (the TQColor \c
     TQt::color0).
 
@@ -111,7 +111,7 @@ TQBitmap::TQBitmap( int w, int h, bool clear,
 		  TQPixmap::Optimization optimization )
     : TQPixmap( w, h, 1, optimization )
 {
-    data->bitmap = TRUE;
+    data->bitmap = true;
     if ( clear )
 	fill( TQt::color0 );
 }
@@ -122,7 +122,7 @@ TQBitmap::TQBitmap( int w, int h, bool clear,
 
     Constructs a bitmap with the size \a size.
 
-    The contents of the bitmap is uninitialized if \a clear is FALSE;
+    The contents of the bitmap is uninitialized if \a clear is false;
     otherwise it is filled with pixel value 0 (the TQColor \c
     TQt::color0).
 
@@ -136,7 +136,7 @@ TQBitmap::TQBitmap( const TQSize &size, bool clear,
 		  TQPixmap::Optimization optimization )
     : TQPixmap( size, 1, optimization )
 {
-    data->bitmap = TRUE;
+    data->bitmap = true;
     if ( clear )
 	fill( TQt::color0 );
 }
@@ -146,21 +146,21 @@ TQBitmap::TQBitmap( const TQSize &size, bool clear,
     Constructs a bitmap with width \a w and height \a h and sets the
     contents to \a bits.
 
-    The \a isXbitmap flag should be TRUE if \a bits was generated by
+    The \a isXbitmap flag should be true if \a bits was generated by
     the X11 bitmap program. The X bitmap bit order is little endian.
     The TQImage documentation discusses bit order of monochrome images.
 
     Example (creates an arrow bitmap):
     \code
 	uchar arrow_bits[] = { 0x3f, 0x1f, 0x0f, 0x1f, 0x3b, 0x71, 0xe0, 0xc0 };
-	TQBitmap bm( 8, 8, arrow_bits, TRUE );
+	TQBitmap bm( 8, 8, arrow_bits, true );
     \endcode
 */
 
 TQBitmap::TQBitmap( int w, int h, const uchar *bits, bool isXbitmap )
     : TQPixmap( w, h, bits, isXbitmap )
 {
-    data->bitmap = TRUE;
+    data->bitmap = true;
 }
 
 
@@ -170,7 +170,7 @@ TQBitmap::TQBitmap( int w, int h, const uchar *bits, bool isXbitmap )
     Constructs a bitmap with the size \a size and sets the contents to
     \a bits.
 
-    The \a isXbitmap flag should be TRUE if \a bits was generated by
+    The \a isXbitmap flag should be true if \a bits was generated by
     the X11 bitmap program. The X bitmap bit order is little endian.
     The TQImage documentation discusses bit order of monochrome images.
 */
@@ -178,7 +178,7 @@ TQBitmap::TQBitmap( int w, int h, const uchar *bits, bool isXbitmap )
 TQBitmap::TQBitmap( const TQSize &size, const uchar *bits, bool isXbitmap )
     : TQPixmap( size.width(), size.height(), bits, isXbitmap )
 {
-    data->bitmap = TRUE;
+    data->bitmap = true;
 }
 
 
@@ -208,7 +208,7 @@ TQBitmap::TQBitmap( const TQBitmap &bitmap )
 TQBitmap::TQBitmap( const TQString& fileName, const char *format )
     : TQPixmap() // Will set bitmap to null bitmap, explicit call for clarity
 {
-    data->bitmap = TRUE;
+    data->bitmap = true;
     load( fileName, format, Mono );
 }
 #endif
@@ -241,13 +241,13 @@ TQBitmap &TQBitmap::operator=( const TQBitmap &bitmap )
 TQBitmap &TQBitmap::operator=( const TQPixmap &pixmap )
 {
     if ( pixmap.isNull() ) {			// a null pixmap
-	TQBitmap bm( 0, 0, FALSE, pixmap.optimization() );
+	TQBitmap bm( 0, 0, false, pixmap.optimization() );
 	TQBitmap::operator=(bm);
     } else if ( pixmap.depth() == 1 ) {		// 1-bit pixmap
 	if ( pixmap.isTQBitmap() ) {		// another TQBitmap
 	    TQPixmap::operator=(pixmap);		// shallow assignment
 	} else {				// not a TQBitmap, but 1-bit
-	    TQBitmap bm( pixmap.size(), FALSE, pixmap.optimization() );
+	    TQBitmap bm( pixmap.size(), false, pixmap.optimization() );
 	    bitBlt( &bm, 0,0, &pixmap, 0,0,pixmap.width(),pixmap.height() );
 	    TQBitmap::operator=(bm);
 	}
@@ -294,7 +294,7 @@ TQBitmap TQBitmap::xForm( const TQWMatrix &matrix ) const
     // Here we fake the pixmap to think it's a TQBitmap. With this trick,
     // the TQBitmap::operator=(const TQPixmap&) will just refer the
     // pm.data and we do not need to perform a bitBlt.
-    pm.data->bitmap = TRUE;
+    pm.data->bitmap = true;
     bm = pm;
     return bm;
 }