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*
* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
*
* Copyright 2000, 2010 Oracle and/or its affiliates.
*
* OpenOffice.org - a multi-platform office productivity suite
*
* This file is part of OpenOffice.org.
*
* OpenOffice.org is free software: you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License version 3
* only, as published by the Free Software Foundation.
*
* OpenOffice.org is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License version 3 for more details
* (a copy is included in the LICENSE file that accompanied this code).
*
* You should have received a copy of the GNU Lesser General Public License
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* <http://www.openoffice.org/license.html>
* for a copy of the LGPLv3 License.
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// MARKER(update_precomp.py): autogen include statement, do not remove
#include "precompiled_vcl.hxx"
#define _USE_MATH_DEFINES
#include <math.h>
#include <algorithm>
#include <pdfwriter_impl.hxx>
#include <basegfx/polygon/b2dpolygon.hxx>
#include <basegfx/polygon/b2dpolypolygon.hxx>
#include <basegfx/polygon/b2dpolygontools.hxx>
#include <basegfx/polygon/b2dpolypolygontools.hxx>
#include <basegfx/polygon/b2dpolypolygoncutter.hxx>
#include <basegfx/matrix/b2dhommatrix.hxx>
#include <rtl/ustrbuf.hxx>
#include <tools/debug.hxx>
#include <tools/zcodec.hxx>
#include <tools/stream.hxx>
#include <i18npool/mslangid.hxx>
#include <vcl/virdev.hxx>
#include <vcl/bmpacc.hxx>
#include <vcl/bitmapex.hxx>
#include <vcl/image.hxx>
#include <vcl/outdev.h>
#include <vcl/sallayout.hxx>
#include <vcl/metric.hxx>
#include <vcl/fontsubset.hxx>
#include <vcl/textlayout.hxx>
#include <svsys.h>
#include <vcl/salgdi.hxx>
#include <vcl/svapp.hxx>
#include <osl/thread.h>
#include <osl/file.h>
#include <rtl/crc.h>
#include <rtl/digest.h>
#include <comphelper/processfactory.hxx>
#include <com/sun/star/lang/XMultiServiceFactory.hpp>
#include <com/sun/star/util/URL.hpp>
#include "cppuhelper/implbase1.hxx"
#include <icc/sRGB-IEC61966-2.1.hxx>
#include <vcl/lineinfo.hxx>
using namespace vcl;
using namespace rtl;
#if (OSL_DEBUG_LEVEL < 2)
#define COMPRESS_PAGES
#else
#define DEBUG_DISABLE_PDFCOMPRESSION // also do not compress streams
#endif
#ifdef DO_TEST_PDF
class PDFTestOutputStream : public PDFOutputStream
{
public:
virtual ~PDFTestOutputStream();
virtual void write( const com::sun::star::uno::Reference< com::sun::star::io::XOutputStream >& xStream );
};
PDFTestOutputStream::~PDFTestOutputStream()
{
}
void PDFTestOutputStream::write( const com::sun::star::uno::Reference< com::sun::star::io::XOutputStream >& xStream )
{
OString aStr( "lalala\ntest\ntest\ntest" );
com::sun::star::uno::Sequence< sal_Int8 > aData( aStr.getLength() );
rtl_copyMemory( aData.getArray(), aStr.getStr(), aStr.getLength() );
xStream->writeBytes( aData );
}
// this test code cannot be used to test PDF/A-1 because it forces
// control item (widgets) to bypass the structure controlling
// the embedding of such elements in actual run
void doTestCode()
{
static const char* pHome = getenv( "HOME" );
rtl::OUString aTestFile( RTL_CONSTASCII_USTRINGPARAM( "file://" ) );
aTestFile += rtl::OUString( pHome, strlen( pHome ), RTL_TEXTENCODING_MS_1252 );
aTestFile += rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( "/pdf_export_test.pdf" ) );
PDFWriter::PDFWriterContext aContext;
aContext.URL = aTestFile;
aContext.Version = PDFWriter::PDF_1_4;
aContext.Tagged = true;
aContext.InitialPage = 2;
PDFWriter aWriter( aContext );
PDFDocInfo aDocInfo;
aDocInfo.Title = OUString( RTL_CONSTASCII_USTRINGPARAM( "PDF export test document" ) );
aDocInfo.Producer = OUString( RTL_CONSTASCII_USTRINGPARAM( "VCL" ) );
aWriter.SetDocInfo( aDocInfo );
aWriter.NewPage( 595, 842 );
aWriter.BeginStructureElement( PDFWriter::Document );
// set duration of 3 sec for first page
aWriter.SetAutoAdvanceTime( 3 );
aWriter.SetMapMode( MapMode( MAP_100TH_MM ) );
aWriter.SetFillColor( Color( COL_LIGHTRED ) );
aWriter.SetLineColor( Color( COL_LIGHTGREEN ) );
aWriter.DrawRect( Rectangle( Point( 2000, 200 ), Size( 8000, 3000 ) ), 5000, 2000 );
aWriter.SetFont( Font( String( RTL_CONSTASCII_USTRINGPARAM( "Times" ) ), Size( 0, 500 ) ) );
aWriter.SetTextColor( Color( COL_BLACK ) );
aWriter.SetLineColor( Color( COL_BLACK ) );
aWriter.SetFillColor( Color( COL_LIGHTBLUE ) );
Rectangle aRect( Point( 5000, 5000 ), Size( 6000, 3000 ) );
aWriter.DrawRect( aRect );
aWriter.DrawText( aRect, String( RTL_CONSTASCII_USTRINGPARAM( "Link annot 1" ) ) );
sal_Int32 nFirstLink = aWriter.CreateLink( aRect );
PDFNote aNote;
aNote.Title = String( RTL_CONSTASCII_USTRINGPARAM( "A small test note" ) );
aNote.Contents = String( RTL_CONSTASCII_USTRINGPARAM( "There is no business like show business like no business i know. Everything about it is appealing." ) );
aWriter.CreateNote( Rectangle( Point( aRect.Right(), aRect.Top() ), Size( 6000, 3000 ) ), aNote );
Rectangle aTargetRect( Point( 3000, 23000 ), Size( 12000, 6000 ) );
aWriter.SetFillColor( Color( COL_LIGHTGREEN ) );
aWriter.DrawRect( aTargetRect );
aWriter.DrawText( aTargetRect, String( RTL_CONSTASCII_USTRINGPARAM( "Dest second link" ) ) );
sal_Int32 nSecondDest = aWriter.CreateDest( aTargetRect );
aWriter.BeginStructureElement( PDFWriter::Section );
aWriter.BeginStructureElement( PDFWriter::Heading );
aWriter.DrawText( Point(4500, 9000), String( RTL_CONSTASCII_USTRINGPARAM( "A small structure test" ) ) );
aWriter.EndStructureElement();
aWriter.BeginStructureElement( PDFWriter::Paragraph );
aWriter.SetStructureAttribute( PDFWriter::WritingMode, PDFWriter::LrTb );
aWriter.SetStructureAttribute( PDFWriter::TextDecorationType, PDFWriter::Underline );
aWriter.DrawText( Rectangle( Point( 4500, 10000 ), Size( 12000, 6000 ) ),
String( RTL_CONSTASCII_USTRINGPARAM( "It was the best of PDF, it was the worst of PDF ... or so. This is a pretty nonsensical text to denote a paragraph. I suggest you stop reading it. Because if you read on you might get bored. So continue on your on risk. Hey, you're still here ? Why do you continue to read this as it is of no use at all ? OK, it's your time, but still... . Woah, i even get bored writing this, so let's end this here and now." ) ),
TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK
);
aWriter.SetActualText( String( RTL_CONSTASCII_USTRINGPARAM( "It was the best of PDF, it was the worst of PDF ... or so. This is a pretty nonsensical text to denote a paragraph. I suggest you stop reading it. Because if you read on you might get bored. So continue on your on risk. Hey, you're still here ? Why do you continue to read this as it is of no use at all ? OK, it's your time, but still... . Woah, i even get bored writing this, so let's end this here and now." ) ) );
aWriter.SetAlternateText( String( RTL_CONSTASCII_USTRINGPARAM( "This paragraph contains some lengthy nonsense to test structural element emission of PDFWriter." ) ) );
aWriter.EndStructureElement();
sal_Int32 nLongPara = aWriter.BeginStructureElement( PDFWriter::Paragraph );
aWriter.SetStructureAttribute( PDFWriter::WritingMode, PDFWriter::LrTb );
aWriter.DrawText( Rectangle( Point( 4500, 19000 ), Size( 12000, 1000 ) ),
String( RTL_CONSTASCII_USTRINGPARAM( "This paragraph is nothing special either but ends on the next page structurewise" ) ),
TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK
);
aWriter.NewPage( 595, 842 );
// test AddStream interface
aWriter.AddStream( String( RTL_CONSTASCII_USTRINGPARAM( "text/plain" ) ), new PDFTestOutputStream(), true );
// set transitional mode
aWriter.SetPageTransition( PDFWriter::WipeRightToLeft, 1500 );
aWriter.SetMapMode( MapMode( MAP_100TH_MM ) );
aWriter.SetTextColor( Color( COL_BLACK ) );
aWriter.SetFont( Font( String( RTL_CONSTASCII_USTRINGPARAM( "Times" ) ), Size( 0, 500 ) ) );
aWriter.DrawText( Rectangle( Point( 4500, 1500 ), Size( 12000, 3000 ) ),
String( RTL_CONSTASCII_USTRINGPARAM( "Here's where all things come to an end ... well at least the paragaph from the last page." ) ),
TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK
);
aWriter.EndStructureElement();
aWriter.SetFillColor( Color( COL_LIGHTBLUE ) );
// disable structure
aWriter.BeginStructureElement( PDFWriter::NonStructElement );
aWriter.DrawRect( aRect );
aWriter.BeginStructureElement( PDFWriter::Paragraph );
aWriter.DrawText( aRect, String( RTL_CONSTASCII_USTRINGPARAM( "Link annot 2" ) ) );
sal_Int32 nSecondLink = aWriter.CreateLink( aRect );
aWriter.SetFillColor( Color( COL_LIGHTGREEN ) );
aWriter.BeginStructureElement( PDFWriter::ListItem );
aWriter.DrawRect( aTargetRect );
aWriter.DrawText( aTargetRect, String( RTL_CONSTASCII_USTRINGPARAM( "Dest first link" ) ) );
sal_Int32 nFirstDest = aWriter.CreateDest( aTargetRect );
// enable structure
aWriter.EndStructureElement();
// add something to the long paragraph as an afterthought
sal_Int32 nSaveStruct = aWriter.GetCurrentStructureElement();
aWriter.SetCurrentStructureElement( nLongPara );
aWriter.DrawText( Rectangle( Point( 4500,4500 ), Size( 12000, 1000 ) ),
String( RTL_CONSTASCII_USTRINGPARAM( "Add something to the longish paragraph above." ) ),
TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK );
aWriter.SetCurrentStructureElement( nSaveStruct );
aWriter.EndStructureElement();
aWriter.EndStructureElement();
aWriter.BeginStructureElement( PDFWriter::Figure );
aWriter.BeginStructureElement( PDFWriter::Caption );
aWriter.DrawText( Point( 4500, 9000 ), String( RTL_CONSTASCII_USTRINGPARAM( "Some drawing stuff inside the structure" ) ) );
aWriter.EndStructureElement();
// test clipping
basegfx::B2DPolyPolygon aClip;
basegfx::B2DPolygon aClipPoly;
aClipPoly.append( basegfx::B2DPoint( 8250, 9600 ) );
aClipPoly.append( basegfx::B2DPoint( 16500, 11100 ) );
aClipPoly.append( basegfx::B2DPoint( 8250, 12600 ) );
aClipPoly.append( basegfx::B2DPoint( 4500, 11100 ) );
aClipPoly.setClosed( true );
//aClipPoly.flip();
aClip.append( aClipPoly );
aWriter.Push( PUSH_CLIPREGION | PUSH_FILLCOLOR );
aWriter.SetClipRegion( aClip );
aWriter.DrawEllipse( Rectangle( Point( 4500, 9600 ), Size( 12000, 3000 ) ) );
aWriter.MoveClipRegion( 1000, 500 );
aWriter.SetFillColor( Color( COL_RED ) );
aWriter.DrawEllipse( Rectangle( Point( 4500, 9600 ), Size( 12000, 3000 ) ) );
aWriter.Pop();
// test transparency
// draw background
Rectangle aTranspRect( Point( 7500, 13500 ), Size( 9000, 6000 ) );
aWriter.SetFillColor( Color( COL_LIGHTRED ) );
aWriter.DrawRect( aTranspRect );
aWriter.BeginTransparencyGroup();
aWriter.SetFillColor( Color( COL_LIGHTGREEN ) );
aWriter.DrawEllipse( aTranspRect );
aWriter.SetTextColor( Color( COL_LIGHTBLUE ) );
aWriter.DrawText( aTranspRect,
String( RTL_CONSTASCII_USTRINGPARAM( "Some transparent text" ) ),
TEXT_DRAW_CENTER | TEXT_DRAW_VCENTER | TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK );
aWriter.EndTransparencyGroup( aTranspRect, 50 );
// prepare an alpha mask
Bitmap aTransMask( Size( 256, 256 ), 8, &Bitmap::GetGreyPalette( 256 ) );
BitmapWriteAccess* pAcc = aTransMask.AcquireWriteAccess();
for( int nX = 0; nX < 256; nX++ )
for( int nY = 0; nY < 256; nY++ )
pAcc->SetPixel( nX, nY, BitmapColor( (BYTE)((nX+nY)/2) ) );
aTransMask.ReleaseAccess( pAcc );
aTransMask.SetPrefMapMode( MAP_MM );
aTransMask.SetPrefSize( Size( 10, 10 ) );
aWriter.DrawBitmap( Point( 600, 13500 ), Size( 3000, 3000 ), aTransMask );
aTranspRect = Rectangle( Point( 4200, 13500 ), Size( 3000, 3000 ) );
aWriter.SetFillColor( Color( COL_LIGHTRED ) );
aWriter.DrawRect( aTranspRect );
aWriter.SetFillColor( Color( COL_LIGHTGREEN ) );
aWriter.DrawEllipse( aTranspRect );
aWriter.SetTextColor( Color( COL_LIGHTBLUE ) );
aWriter.DrawText( aTranspRect,
String( RTL_CONSTASCII_USTRINGPARAM( "Some transparent text" ) ),
TEXT_DRAW_CENTER | TEXT_DRAW_VCENTER | TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK );
aTranspRect = Rectangle( Point( 1500, 16500 ), Size( 4800, 3000 ) );
aWriter.SetFillColor( Color( COL_LIGHTRED ) );
aWriter.DrawRect( aTranspRect );
aWriter.BeginTransparencyGroup();
aWriter.SetFillColor( Color( COL_LIGHTGREEN ) );
aWriter.DrawEllipse( aTranspRect );
aWriter.SetTextColor( Color( COL_LIGHTBLUE ) );
aWriter.DrawText( aTranspRect,
String( RTL_CONSTASCII_USTRINGPARAM( "Some transparent text" ) ),
TEXT_DRAW_CENTER | TEXT_DRAW_VCENTER | TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK );
aWriter.EndTransparencyGroup( aTranspRect, aTransMask );
Bitmap aImageBmp( Size( 256, 256 ), 24 );
pAcc = aImageBmp.AcquireWriteAccess();
pAcc->SetFillColor( Color( 0xff, 0, 0xff ) );
pAcc->FillRect( Rectangle( Point( 0, 0 ), Size( 256, 256 ) ) );
aImageBmp.ReleaseAccess( pAcc );
BitmapEx aBmpEx( aImageBmp, AlphaMask( aTransMask ) );
aWriter.DrawBitmapEx( Point( 1500, 19500 ), Size( 4800, 3000 ), aBmpEx );
aWriter.EndStructureElement();
aWriter.EndStructureElement();
LineInfo aLI( LINE_DASH, 3 );
aLI.SetDashCount( 2 );
aLI.SetDashLen( 50 );
aLI.SetDotCount( 2 );
aLI.SetDotLen( 25 );
aLI.SetDistance( 15 );
Point aLIPoints[] = { Point( 4000, 10000 ),
Point( 8000, 12000 ),
Point( 3000, 19000 ) };
Polygon aLIPoly( 3, aLIPoints );
aWriter.SetLineColor( Color( COL_BLUE ) );
aWriter.SetFillColor();
aWriter.DrawPolyLine( aLIPoly, aLI );
aLI.SetDashCount( 4 );
aLIPoly.Move( 1000, 1000 );
aWriter.DrawPolyLine( aLIPoly, aLI );
aWriter.NewPage( 595, 842 );
aWriter.SetMapMode( MapMode( MAP_100TH_MM ) );
Wallpaper aWall( aTransMask );
aWall.SetStyle( WALLPAPER_TILE );
aWriter.DrawWallpaper( Rectangle( Point( 4400, 4200 ), Size( 10200, 6300 ) ), aWall );
aWriter.Push( PUSH_ALL );
aWriter.BeginPattern(Rectangle(Point(0,0),Size(2000,1000)));
aWriter.SetFillColor( Color( COL_RED ) );
aWriter.SetLineColor( Color( COL_LIGHTBLUE ) );
Point aFillPoints[] = { Point( 1000, 0 ),
Point( 0, 1000 ),
Point( 2000, 1000 ) };
aWriter.DrawPolygon( Polygon( 3, aFillPoints ) );
aWriter.DrawBitmap( Point( 200, 200 ), Size( 1600, 600 ), aTransMask );
aWriter.DrawText( Rectangle( Point( 200, 200 ), Size( 1600, 600 ) ), String( RTL_CONSTASCII_USTRINGPARAM( "Pattern" ) ) );
sal_Int32 nPattern = aWriter.EndPattern( SvtGraphicFill::Transform() );
aWriter.Pop();
Rectangle aPolyRect( Point( 3800, 11200 ), Size( 10200, 6300 ) );
aWriter.DrawPolyPolygon( PolyPolygon( Polygon( aPolyRect ) ), nPattern, true );
aWriter.SetFillColor();
aWriter.SetLineColor( Color( COL_LIGHTBLUE ) );
aWriter.DrawRect( aPolyRect );
aWriter.NewPage( 595, 842 );
aWriter.SetMapMode( MapMode( MAP_100TH_MM ) );
aWriter.SetFont( Font( String( RTL_CONSTASCII_USTRINGPARAM( "Times" ) ), Size( 0, 500 ) ) );
aWriter.SetTextColor( Color( COL_BLACK ) );
aRect = Rectangle( Point( 4500, 6000 ), Size( 6000, 1500 ) );
aWriter.DrawRect( aRect );
aWriter.DrawText( aRect, String( RTL_CONSTASCII_USTRINGPARAM( "www.heise.de" ) ) );
sal_Int32 nURILink = aWriter.CreateLink( aRect );
aWriter.SetLinkURL( nURILink, OUString( RTL_CONSTASCII_USTRINGPARAM( "http://www.heise.de" ) ) );
aWriter.SetLinkDest( nFirstLink, nFirstDest );
aWriter.SetLinkDest( nSecondLink, nSecondDest );
// include a button
PDFWriter::PushButtonWidget aBtn;
aBtn.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "testButton" ) );
aBtn.Description = OUString( RTL_CONSTASCII_USTRINGPARAM( "A test button" ) );
aBtn.Text = OUString( RTL_CONSTASCII_USTRINGPARAM( "hit me" ) );
aBtn.Location = Rectangle( Point( 4500, 9000 ), Size( 4500, 3000 ) );
aBtn.Border = aBtn.Background = true;
aWriter.CreateControl( aBtn );
// include a uri button
PDFWriter::PushButtonWidget aUriBtn;
aUriBtn.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "wwwButton" ) );
aUriBtn.Description = OUString( RTL_CONSTASCII_USTRINGPARAM( "A URI button" ) );
aUriBtn.Text = OUString( RTL_CONSTASCII_USTRINGPARAM( "to www" ) );
aUriBtn.Location = Rectangle( Point( 9500, 9000 ), Size( 4500, 3000 ) );
aUriBtn.Border = aUriBtn.Background = true;
aUriBtn.URL = OUString( RTL_CONSTASCII_USTRINGPARAM( "http://www.heise.de" ) );
aWriter.CreateControl( aUriBtn );
// include a dest button
PDFWriter::PushButtonWidget aDstBtn;
aDstBtn.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "destButton" ) );
aDstBtn.Description = OUString( RTL_CONSTASCII_USTRINGPARAM( "A Dest button" ) );
aDstBtn.Text = OUString( RTL_CONSTASCII_USTRINGPARAM( "to paragraph" ) );
aDstBtn.Location = Rectangle( Point( 14500, 9000 ), Size( 4500, 3000 ) );
aDstBtn.Border = aDstBtn.Background = true;
aDstBtn.Dest = nFirstDest;
aWriter.CreateControl( aDstBtn );
PDFWriter::CheckBoxWidget aCBox;
aCBox.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "textCheckBox" ) );
aCBox.Description = OUString( RTL_CONSTASCII_USTRINGPARAM( "A test check box" ) );
aCBox.Text = OUString( RTL_CONSTASCII_USTRINGPARAM( "check me" ) );
aCBox.Location = Rectangle( Point( 4500, 13500 ), Size( 3000, 750 ) );
aCBox.Checked = true;
aCBox.Border = aCBox.Background = false;
aWriter.CreateControl( aCBox );
PDFWriter::CheckBoxWidget aCBox2;
aCBox2.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "textCheckBox2" ) );
aCBox2.Description = OUString( RTL_CONSTASCII_USTRINGPARAM( "Another test check box" ) );
aCBox2.Text = OUString( RTL_CONSTASCII_USTRINGPARAM( "check me right" ) );
aCBox2.Location = Rectangle( Point( 4500, 14250 ), Size( 3000, 750 ) );
aCBox2.Checked = true;
aCBox2.Border = aCBox2.Background = false;
aCBox2.ButtonIsLeft = false;
aWriter.CreateControl( aCBox2 );
PDFWriter::RadioButtonWidget aRB1;
aRB1.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "rb1_1" ) );
aRB1.Description = OUString( RTL_CONSTASCII_USTRINGPARAM( "radio 1 button 1" ) );
aRB1.Text = OUString( RTL_CONSTASCII_USTRINGPARAM( "Despair" ) );
aRB1.Location = Rectangle( Point( 4500, 15000 ), Size( 6000, 1000 ) );
aRB1.Selected = true;
aRB1.RadioGroup = 1;
aRB1.Border = aRB1.Background = true;
aRB1.ButtonIsLeft = false;
aRB1.BorderColor = Color( COL_LIGHTGREEN );
aRB1.BackgroundColor = Color( COL_LIGHTBLUE );
aRB1.TextColor = Color( COL_LIGHTRED );
aRB1.TextFont = Font( String( RTL_CONSTASCII_USTRINGPARAM( "Courier" ) ), Size( 0, 800 ) );
aWriter.CreateControl( aRB1 );
PDFWriter::RadioButtonWidget aRB2;
aRB2.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "rb2_1" ) );
aRB2.Description = OUString( RTL_CONSTASCII_USTRINGPARAM( "radio 2 button 1" ) );
aRB2.Text = OUString( RTL_CONSTASCII_USTRINGPARAM( "Joy" ) );
aRB2.Location = Rectangle( Point( 10500, 15000 ), Size( 3000, 1000 ) );
aRB2.Selected = true;
aRB2.RadioGroup = 2;
aWriter.CreateControl( aRB2 );
PDFWriter::RadioButtonWidget aRB3;
aRB3.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "rb1_2" ) );
aRB3.Description = OUString( RTL_CONSTASCII_USTRINGPARAM( "radio 1 button 2" ) );
aRB3.Text = OUString( RTL_CONSTASCII_USTRINGPARAM( "Desperation" ) );
aRB3.Location = Rectangle( Point( 4500, 16000 ), Size( 3000, 1000 ) );
aRB3.Selected = true;
aRB3.RadioGroup = 1;
aWriter.CreateControl( aRB3 );
PDFWriter::EditWidget aEditBox;
aEditBox.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "testEdit" ) );
aEditBox.Description = OUString( RTL_CONSTASCII_USTRINGPARAM( "A test edit field" ) );
aEditBox.Text = OUString( RTL_CONSTASCII_USTRINGPARAM( "A little test text" ) );
aEditBox.TextStyle = TEXT_DRAW_LEFT | TEXT_DRAW_VCENTER;
aEditBox.Location = Rectangle( Point( 10000, 18000 ), Size( 5000, 1500 ) );
aEditBox.MaxLen = 100;
aEditBox.Border = aEditBox.Background = true;
aEditBox.BorderColor = Color( COL_BLACK );
aWriter.CreateControl( aEditBox );
// normal list box
PDFWriter::ListBoxWidget aLstBox;
aLstBox.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "testListBox" ) );
aLstBox.Text = OUString( RTL_CONSTASCII_USTRINGPARAM( "One" ) );
aLstBox.Description = OUString( RTL_CONSTASCII_USTRINGPARAM( "select me" ) );
aLstBox.Location = Rectangle( Point( 4500, 18000 ), Size( 3000, 1500 ) );
aLstBox.Sort = true;
aLstBox.MultiSelect = true;
aLstBox.Border = aLstBox.Background = true;
aLstBox.BorderColor = Color( COL_BLACK );
aLstBox.Entries.push_back( OUString( RTL_CONSTASCII_USTRINGPARAM( "One" ) ) );
aLstBox.Entries.push_back( OUString( RTL_CONSTASCII_USTRINGPARAM( "Two" ) ) );
aLstBox.Entries.push_back( OUString( RTL_CONSTASCII_USTRINGPARAM( "Three" ) ) );
aLstBox.Entries.push_back( OUString( RTL_CONSTASCII_USTRINGPARAM( "Four" ) ) );
aLstBox.SelectedEntries.push_back( 1 );
aLstBox.SelectedEntries.push_back( 2 );
aWriter.CreateControl( aLstBox );
// dropdown list box
aLstBox.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "testDropDownListBox" ) );
aLstBox.DropDown = true;
aLstBox.Location = Rectangle( Point( 4500, 19500 ), Size( 3000, 500 ) );
aWriter.CreateControl( aLstBox );
// combo box
PDFWriter::ComboBoxWidget aComboBox;
aComboBox.Name = OUString( RTL_CONSTASCII_USTRINGPARAM( "testComboBox" ) );
aComboBox.Text = OUString( RTL_CONSTASCII_USTRINGPARAM( "test a combobox" ) );
aComboBox.Entries.push_back( OUString( RTL_CONSTASCII_USTRINGPARAM( "Larry" ) ) );
aComboBox.Entries.push_back( OUString( RTL_CONSTASCII_USTRINGPARAM( "Curly" ) ) );
aComboBox.Entries.push_back( OUString( RTL_CONSTASCII_USTRINGPARAM( "Moe" ) ) );
aComboBox.Location = Rectangle( Point( 4500, 20000 ), Size( 3000, 500 ) );
aWriter.CreateControl( aComboBox );
// test outlines
sal_Int32 nPage1OL = aWriter.CreateOutlineItem();
aWriter.SetOutlineItemText( nPage1OL, OUString( RTL_CONSTASCII_USTRINGPARAM( "Page 1" ) ) );
aWriter.SetOutlineItemDest( nPage1OL, nSecondDest );
aWriter.CreateOutlineItem( nPage1OL, OUString( RTL_CONSTASCII_USTRINGPARAM( "Dest 2" ) ), nSecondDest );
aWriter.CreateOutlineItem( nPage1OL, OUString( RTL_CONSTASCII_USTRINGPARAM( "Dest 2 revisited" ) ), nSecondDest );
aWriter.CreateOutlineItem( nPage1OL, OUString( RTL_CONSTASCII_USTRINGPARAM( "Dest 2 again" ) ), nSecondDest );
sal_Int32 nPage2OL = aWriter.CreateOutlineItem();
aWriter.SetOutlineItemText( nPage2OL, OUString( RTL_CONSTASCII_USTRINGPARAM( "Page 2" ) ) );
aWriter.CreateOutlineItem( nPage2OL, OUString( RTL_CONSTASCII_USTRINGPARAM( "Dest 1" ) ), nFirstDest );
aWriter.EndStructureElement(); // close document
aWriter.Emit();
}
#endif
static const sal_Int32 nLog10Divisor = 1;
static const double fDivisor = 10.0;
static inline double pixelToPoint( sal_Int32 px ) { return double(px)/fDivisor; }
static inline double pixelToPoint( double px ) { return px/fDivisor; }
static inline sal_Int32 pointToPixel( double pt ) { return sal_Int32(pt*fDivisor); }
static void appendHex( sal_Int8 nInt, OStringBuffer& rBuffer )
{
static const sal_Char pHexDigits[] = { '0', '1', '2', '3', '4', '5', '6', '7',
'8', '9', 'A', 'B', 'C', 'D', 'E', 'F' };
rBuffer.append( pHexDigits[ (nInt >> 4) & 15 ] );
rBuffer.append( pHexDigits[ nInt & 15 ] );
}
static void appendName( const OUString& rStr, OStringBuffer& rBuffer )
{
// FIXME i59651 add a check for max length of 127 chars? Per PDF spec 1.4, appendix C.1
// I guess than when reading the #xx sequence it will count for a single character.
OString aStr( OUStringToOString( rStr, RTL_TEXTENCODING_UTF8 ) );
const sal_Char* pStr = aStr.getStr();
int nLen = aStr.getLength();
for( int i = 0; i < nLen; i++ )
{
/* #i16920# PDF recommendation: output UTF8, any byte
* outside the interval [33(=ASCII'!');126(=ASCII'~')]
* should be escaped hexadecimal
* for the sake of ghostscript which also reads PDF
* but has a narrower acceptance rate we only pass
* alphanumerics and '-' literally.
*/
if( (pStr[i] >= 'A' && pStr[i] <= 'Z' ) ||
(pStr[i] >= 'a' && pStr[i] <= 'z' ) ||
(pStr[i] >= '0' && pStr[i] <= '9' ) ||
pStr[i] == '-' )
{
rBuffer.append( pStr[i] );
}
else
{
rBuffer.append( '#' );
appendHex( (sal_Int8)pStr[i], rBuffer );
}
}
}
static void appendName( const sal_Char* pStr, OStringBuffer& rBuffer )
{
//FIXME i59651 see above
while( pStr && *pStr )
{
if( (*pStr >= 'A' && *pStr <= 'Z' ) ||
(*pStr >= 'a' && *pStr <= 'z' ) ||
(*pStr >= '0' && *pStr <= '9' ) ||
*pStr == '-' )
{
rBuffer.append( *pStr );
}
else
{
rBuffer.append( '#' );
appendHex( (sal_Int8)*pStr, rBuffer );
}
pStr++;
}
}
//used only to emit encoded passwords
static void appendLiteralString( const sal_Char* pStr, sal_Int32 nLength, OStringBuffer& rBuffer )
{
while( nLength )
{
switch( *pStr )
{
case '\n' :
rBuffer.append( "\\n" );
break;
case '\r' :
rBuffer.append( "\\r" );
break;
case '\t' :
rBuffer.append( "\\t" );
break;
case '\b' :
rBuffer.append( "\\b" );
break;
case '\f' :
rBuffer.append( "\\f" );
break;
case '(' :
case ')' :
case '\\' :
rBuffer.append( "\\" );
rBuffer.append( (sal_Char) *pStr );
break;
default:
rBuffer.append( (sal_Char) *pStr );
break;
}
pStr++;
nLength--;
}
}
/**--->i56629
* Convert a string before using it.
*
* This string conversion function is needed because the destination name
* in a PDF file seen through an Internet browser should be
* specially crafted, in order to be used directly by the browser.
* In this way the fragment part of a hyperlink to a PDF file (e.g. something
* as 'test1/test2/a-file.pdf#thefragment) will be (hopefully) interpreted by the
* PDF reader (currently only Adobe Reader plug-in seems to be working that way) called
* from inside the Internet browser as: 'open the file test1/test2/a-file.pdf
* and go to named destination thefragment using default zoom'.
* The conversion is needed because in case of a fragment in the form: Slide%201
* (meaning Slide 1) as it is converted obeying the Inet rules, it will become Slide25201
* using this conversion, in both the generated named destinations, fragment and GoToR
* destination.
*
* The names for destinations are name objects and so they don't need to be encrypted
* even though they expose the content of PDF file (e.g. guessing the PDF content from the
* destination name).
*
* Fhurter limitation: it is advisable to use standard ASCII characters for
* OOo bookmarks.
*/
static void appendDestinationName( const rtl::OUString& rString, OStringBuffer& rBuffer )
{
const sal_Unicode* pStr = rString.getStr();
sal_Int32 nLen = rString.getLength();
for( int i = 0; i < nLen; i++ )
{
sal_Unicode aChar = pStr[i];
if( (aChar >= '0' && aChar <= '9' ) ||
(aChar >= 'a' && aChar <= 'z' ) ||
(aChar >= 'A' && aChar <= 'Z' ) ||
aChar == '-' )
{
rBuffer.append((sal_Char)aChar);
}
else
{
sal_Int8 aValueHigh = sal_Int8(aChar >> 8);
if(aValueHigh > 0)
appendHex( aValueHigh, rBuffer );
appendHex( (sal_Int8)(aChar & 255 ), rBuffer );
}
}
}
//<--- i56629
static void appendUnicodeTextString( const rtl::OUString& rString, OStringBuffer& rBuffer )
{
rBuffer.append( "FEFF" );
const sal_Unicode* pStr = rString.getStr();
sal_Int32 nLen = rString.getLength();
for( int i = 0; i < nLen; i++ )
{
sal_Unicode aChar = pStr[i];
appendHex( (sal_Int8)(aChar >> 8), rBuffer );
appendHex( (sal_Int8)(aChar & 255 ), rBuffer );
}
}
void PDFWriterImpl::createWidgetFieldName( sal_Int32 i_nWidgetIndex, const PDFWriter::AnyWidget& i_rControl )
{
/* #i80258# previously we use appendName here
however we need a slightly different coding scheme than the normal
name encoding for field names
*/
const OUString& rName = (m_aContext.Version > PDFWriter::PDF_1_2) ? i_rControl.Name : i_rControl.Text;
OString aStr( OUStringToOString( rName, RTL_TEXTENCODING_UTF8 ) );
const sal_Char* pStr = aStr.getStr();
int nLen = aStr.getLength();
OStringBuffer aBuffer( rName.getLength()+64 );
for( int i = 0; i < nLen; i++ )
{
/* #i16920# PDF recommendation: output UTF8, any byte
* outside the interval [32(=ASCII' ');126(=ASCII'~')]
* should be escaped hexadecimal
*/
if( (pStr[i] >= 32 && pStr[i] <= 126 ) )
aBuffer.append( pStr[i] );
else
{
aBuffer.append( '#' );
appendHex( (sal_Int8)pStr[i], aBuffer );
}
}
OString aFullName( aBuffer.makeStringAndClear() );
/* #i82785# create hierarchical fields down to the for each dot in i_rName */
sal_Int32 nTokenIndex = 0, nLastTokenIndex = 0;
OString aPartialName;
OString aDomain;
do
{
nLastTokenIndex = nTokenIndex;
aPartialName = aFullName.getToken( 0, '.', nTokenIndex );
if( nTokenIndex != -1 )
{
// find or create a hierarchical field
// first find the fully qualified name up to this field
aDomain = aFullName.copy( 0, nTokenIndex-1 );
std::hash_map< rtl::OString, sal_Int32, rtl::OStringHash >::const_iterator it = m_aFieldNameMap.find( aDomain );
if( it == m_aFieldNameMap.end() )
{
// create new hierarchy field
sal_Int32 nNewWidget = m_aWidgets.size();
m_aWidgets.push_back( PDFWidget() );
m_aWidgets[nNewWidget].m_nObject = createObject();
m_aWidgets[nNewWidget].m_eType = PDFWriter::Hierarchy;
m_aWidgets[nNewWidget].m_aName = aPartialName;
m_aWidgets[i_nWidgetIndex].m_nParent = m_aWidgets[nNewWidget].m_nObject;
m_aFieldNameMap[aDomain] = nNewWidget;
m_aWidgets[i_nWidgetIndex].m_nParent = m_aWidgets[nNewWidget].m_nObject;
if( nLastTokenIndex > 0 )
{
// this field is not a root field and
// needs to be inserted to its parent
OString aParentDomain( aDomain.copy( 0, nLastTokenIndex-1 ) );
it = m_aFieldNameMap.find( aParentDomain );
OSL_ENSURE( it != m_aFieldNameMap.end(), "field name not found" );
if( it != m_aFieldNameMap.end() )
{
OSL_ENSURE( it->second < sal_Int32(m_aWidgets.size()), "invalid field number entry" );
if( it->second < sal_Int32(m_aWidgets.size()) )
{
PDFWidget& rParentField( m_aWidgets[it->second] );
rParentField.m_aKids.push_back( m_aWidgets[nNewWidget].m_nObject );
rParentField.m_aKidsIndex.push_back( nNewWidget );
m_aWidgets[nNewWidget].m_nParent = rParentField.m_nObject;
}
}
}
}
else if( m_aWidgets[it->second].m_eType != PDFWriter::Hierarchy )
{
// this is invalid, someone tries to have a terminal field as parent
// example: a button with the name foo.bar exists and
// another button is named foo.bar.no
// workaround: put the second terminal field as much up in the hierarchy as
// necessary to have a non-terminal field as parent (or none at all)
// since it->second already is terminal, we just need to use its parent
aDomain = OString();
aPartialName = aFullName.copy( aFullName.lastIndexOf( '.' )+1 );
if( nLastTokenIndex > 0 )
{
aDomain = aFullName.copy( 0, nLastTokenIndex-1 );
OStringBuffer aBuf( aDomain.getLength() + 1 + aPartialName.getLength() );
aBuf.append( aDomain );
aBuf.append( '.' );
aBuf.append( aPartialName );
aFullName = aBuf.makeStringAndClear();
}
else
aFullName = aPartialName;
break;
}
}
} while( nTokenIndex != -1 );
// insert widget into its hierarchy field
if( aDomain.getLength() )
{
std::hash_map< rtl::OString, sal_Int32, rtl::OStringHash >::const_iterator it = m_aFieldNameMap.find( aDomain );
if( it != m_aFieldNameMap.end() )
{
OSL_ENSURE( it->second >= 0 && it->second < sal_Int32( m_aWidgets.size() ), "invalid field index" );
if( it->second >= 0 && it->second < sal_Int32(m_aWidgets.size()) )
{
m_aWidgets[i_nWidgetIndex].m_nParent = m_aWidgets[it->second].m_nObject;
m_aWidgets[it->second].m_aKids.push_back( m_aWidgets[i_nWidgetIndex].m_nObject);
m_aWidgets[it->second].m_aKidsIndex.push_back( i_nWidgetIndex );
}
}
}
if( aPartialName.getLength() == 0 )
{
// how funny, an empty field name
if( i_rControl.getType() == PDFWriter::RadioButton )
{
aPartialName = "RadioGroup";
aPartialName += OString::valueOf( static_cast<const PDFWriter::RadioButtonWidget&>(i_rControl).RadioGroup );
}
else
aPartialName = OString( "Widget" );
}
if( ! m_aContext.AllowDuplicateFieldNames )
{
std::hash_map<OString, sal_Int32, OStringHash>::iterator it = m_aFieldNameMap.find( aFullName );
if( it != m_aFieldNameMap.end() ) // not unique
{
std::hash_map< OString, sal_Int32, OStringHash >::const_iterator check_it;
OString aTry;
sal_Int32 nTry = 2;
do
{
OStringBuffer aUnique( aFullName.getLength() + 16 );
aUnique.append( aFullName );
aUnique.append( '_' );
aUnique.append( nTry++ );
aTry = aUnique.makeStringAndClear();
check_it = m_aFieldNameMap.find( aTry );
} while( check_it != m_aFieldNameMap.end() );
aFullName = aTry;
m_aFieldNameMap[ aFullName ] = i_nWidgetIndex;
aPartialName = aFullName.copy( aFullName.lastIndexOf( '.' )+1 );
}
else
m_aFieldNameMap[ aFullName ] = i_nWidgetIndex;
}
// finally
m_aWidgets[i_nWidgetIndex].m_aName = aPartialName;
}
static void appendFixedInt( sal_Int32 nValue, OStringBuffer& rBuffer, sal_Int32 nPrecision = nLog10Divisor )
{
if( nValue < 0 )
{
rBuffer.append( '-' );
nValue = -nValue;
}
sal_Int32 nFactor = 1, nDiv = nPrecision;
while( nDiv-- )
nFactor *= 10;
sal_Int32 nInt = nValue / nFactor;
rBuffer.append( nInt );
if( nFactor > 1 )
{
sal_Int32 nDecimal = nValue % nFactor;
if( nDecimal )
{
rBuffer.append( '.' );
// omit trailing zeros
while( (nDecimal % 10) == 0 )
nDecimal /= 10;
rBuffer.append( nDecimal );
}
}
}
// appends a double. PDF does not accept exponential format, only fixed point
static void appendDouble( double fValue, OStringBuffer& rBuffer, sal_Int32 nPrecision = 5 )
{
bool bNeg = false;
if( fValue < 0.0 )
{
bNeg = true;
fValue=-fValue;
}
sal_Int64 nInt = (sal_Int64)fValue;
fValue -= (double)nInt;
// optimizing hardware may lead to a value of 1.0 after the subtraction
if( fValue == 1.0 || log10( 1.0-fValue ) <= -nPrecision )
{
nInt++;
fValue = 0.0;
}
sal_Int64 nFrac = 0;
if( fValue )
{
fValue *= pow( 10.0, (double)nPrecision );
nFrac = (sal_Int64)fValue;
}
if( bNeg && ( nInt || nFrac ) )
rBuffer.append( '-' );
rBuffer.append( nInt );
if( nFrac )
{
int i;
rBuffer.append( '.' );
sal_Int64 nBound = (sal_Int64)(pow( 10.0, nPrecision - 1.0 )+0.5);
for ( i = 0; ( i < nPrecision ) && nFrac; i++ )
{
sal_Int64 nNumb = nFrac / nBound;
nFrac -= nNumb * nBound;
rBuffer.append( nNumb );
nBound /= 10;
}
}
}
static void appendColor( const Color& rColor, OStringBuffer& rBuffer )
{
if( rColor != Color( COL_TRANSPARENT ) )
{
appendDouble( (double)rColor.GetRed() / 255.0, rBuffer );
rBuffer.append( ' ' );
appendDouble( (double)rColor.GetGreen() / 255.0, rBuffer );
rBuffer.append( ' ' );
appendDouble( (double)rColor.GetBlue() / 255.0, rBuffer );
}
}
static void appendStrokingColor( const Color& rColor, OStringBuffer& rBuffer )
{
if( rColor != Color( COL_TRANSPARENT ) )
{
appendColor( rColor, rBuffer );
rBuffer.append( " RG" );
}
}
static void appendNonStrokingColor( const Color& rColor, OStringBuffer& rBuffer )
{
if( rColor != Color( COL_TRANSPARENT ) )
{
appendColor( rColor, rBuffer );
rBuffer.append( " rg" );
}
}
// matrix helper class
// TODO: use basegfx matrix class instead or derive from it
namespace vcl // TODO: use anonymous namespace to keep this class local
{
/* for sparse matrices of the form (2D linear transformations)
* f[0] f[1] 0
* f[2] f[3] 0
* f[4] f[5] 1
*/
class Matrix3
{
double f[6];
void set( double *pn ) { for( int i = 0 ; i < 6; i++ ) f[i] = pn[i]; }
public:
Matrix3();
~Matrix3() {}
void skew( double alpha, double beta );
void scale( double sx, double sy );
void rotate( double angle );
void translate( double tx, double ty );
bool invert();
void append( PDFWriterImpl::PDFPage& rPage, OStringBuffer& rBuffer, Point* pBack = NULL );
Point transform( const Point& rPoint ) const;
};
}
Matrix3::Matrix3()
{
// initialize to unity
f[0] = 1.0;
f[1] = 0.0;
f[2] = 0.0;
f[3] = 1.0;
f[4] = 0.0;
f[5] = 0.0;
}
Point Matrix3::transform( const Point& rOrig ) const
{
double x = (double)rOrig.X(), y = (double)rOrig.Y();
return Point( (int)(x*f[0] + y*f[2] + f[4]), (int)(x*f[1] + y*f[3] + f[5]) );
}
void Matrix3::skew( double alpha, double beta )
{
double fn[6];
double tb = tan( beta );
fn[0] = f[0] + f[2]*tb;
fn[1] = f[1];
fn[2] = f[2] + f[3]*tb;
fn[3] = f[3];
fn[4] = f[4] + f[5]*tb;
fn[5] = f[5];
if( alpha != 0.0 )
{
double ta = tan( alpha );
fn[1] += f[0]*ta;
fn[3] += f[2]*ta;
fn[5] += f[4]*ta;
}
set( fn );
}
void Matrix3::scale( double sx, double sy )
{
double fn[6];
fn[0] = sx*f[0];
fn[1] = sy*f[1];
fn[2] = sx*f[2];
fn[3] = sy*f[3];
fn[4] = sx*f[4];
fn[5] = sy*f[5];
set( fn );
}
void Matrix3::rotate( double angle )
{
double fn[6];
double fSin = sin(angle);
double fCos = cos(angle);
fn[0] = f[0]*fCos - f[1]*fSin;
fn[1] = f[0]*fSin + f[1]*fCos;
fn[2] = f[2]*fCos - f[3]*fSin;
fn[3] = f[2]*fSin + f[3]*fCos;
fn[4] = f[4]*fCos - f[5]*fSin;
fn[5] = f[4]*fSin + f[5]*fCos;
set( fn );
}
void Matrix3::translate( double tx, double ty )
{
f[4] += tx;
f[5] += ty;
}
bool Matrix3::invert()
{
// short circuit trivial cases
if( f[1]==f[2] && f[1]==0.0 && f[0]==f[3] && f[0]==1.0 )
{
f[4] = -f[4];
f[5] = -f[5];
return true;
}
// check determinant
const double fDet = f[0]*f[3]-f[1]*f[2];
if( fDet == 0.0 )
return false;
// invert the matrix
double fn[6];
fn[0] = +f[3] / fDet;
fn[1] = -f[1] / fDet;
fn[2] = -f[2] / fDet;
fn[3] = +f[0] / fDet;
// apply inversion to translation
fn[4] = -(f[4]*fn[0] + f[5]*fn[2]);
fn[5] = -(f[4]*fn[1] + f[5]*fn[3]);
set( fn );
return true;
}
void Matrix3::append( PDFWriterImpl::PDFPage& rPage, OStringBuffer& rBuffer, Point* pBack )
{
appendDouble( f[0], rBuffer );
rBuffer.append( ' ' );
appendDouble( f[1], rBuffer );
rBuffer.append( ' ' );
appendDouble( f[2], rBuffer );
rBuffer.append( ' ' );
appendDouble( f[3], rBuffer );
rBuffer.append( ' ' );
rPage.appendPoint( Point( (long)f[4], (long)f[5] ), rBuffer, false, pBack );
}
static void appendResourceMap( OStringBuffer& rBuf, const char* pPrefix, const PDFWriterImpl::ResourceMap& rList )
{
if( rList.empty() )
return;
rBuf.append( '/' );
rBuf.append( pPrefix );
rBuf.append( "<<" );
int ni = 0;
for( PDFWriterImpl::ResourceMap::const_iterator it = rList.begin(); it != rList.end(); ++it )
{
if( it->first.getLength() && it->second > 0 )
{
rBuf.append( '/' );
rBuf.append( it->first );
rBuf.append( ' ' );
rBuf.append( it->second );
rBuf.append( " 0 R" );
if( ((++ni) & 7) == 0 )
rBuf.append( '\n' );
}
}
rBuf.append( ">>\n" );
}
void PDFWriterImpl::ResourceDict::append( OStringBuffer& rBuf, sal_Int32 nFontDictObject )
{
rBuf.append( "<</Font " );
rBuf.append( nFontDictObject );
rBuf.append( " 0 R\n" );
appendResourceMap( rBuf, "XObject", m_aXObjects );
appendResourceMap( rBuf, "ExtGState", m_aExtGStates );
appendResourceMap( rBuf, "Shading", m_aShadings );
appendResourceMap( rBuf, "Pattern", m_aPatterns );
rBuf.append( "/ProcSet[/PDF/Text" );
if( !m_aXObjects.empty() )
rBuf.append( "/ImageC/ImageI/ImageB" );
rBuf.append( "]\n>>\n" );
};
PDFWriterImpl::PDFPage::PDFPage( PDFWriterImpl* pWriter, sal_Int32 nPageWidth, sal_Int32 nPageHeight, PDFWriter::Orientation eOrientation )
:
m_pWriter( pWriter ),
m_nPageWidth( nPageWidth ),
m_nPageHeight( nPageHeight ),
m_eOrientation( eOrientation ),
m_nPageObject( 0 ), // invalid object number
m_nPageIndex( -1 ), // invalid index
m_nStreamLengthObject( 0 ),
m_nBeginStreamPos( 0 ),
m_eTransition( PDFWriter::Regular ),
m_nTransTime( 0 ),
m_nDuration( 0 ),
m_bHasWidgets( false )
{
// object ref must be only ever updated in emit()
m_nPageObject = m_pWriter->createObject();
}
PDFWriterImpl::PDFPage::~PDFPage()
{
}
void PDFWriterImpl::PDFPage::beginStream()
{
#if OSL_DEBUG_LEVEL > 1
{
OStringBuffer aLine( "PDFWriterImpl::PDFPage::beginStream, +" );
m_pWriter->emitComment( aLine.getStr() );
}
#endif
m_aStreamObjects.push_back(m_pWriter->createObject());
if( ! m_pWriter->updateObject( m_aStreamObjects.back() ) )
return;
m_nStreamLengthObject = m_pWriter->createObject();
// write content stream header
OStringBuffer aLine;
aLine.append( m_aStreamObjects.back() );
aLine.append( " 0 obj\n<</Length " );
aLine.append( m_nStreamLengthObject );
aLine.append( " 0 R" );
#if defined ( COMPRESS_PAGES ) && !defined ( DEBUG_DISABLE_PDFCOMPRESSION )
aLine.append( "/Filter/FlateDecode" );
#endif
aLine.append( ">>\nstream\n" );
if( ! m_pWriter->writeBuffer( aLine.getStr(), aLine.getLength() ) )
return;
if( osl_File_E_None != osl_getFilePos( m_pWriter->m_aFile, &m_nBeginStreamPos ) )
{
osl_closeFile( m_pWriter->m_aFile );
m_pWriter->m_bOpen = false;
}
#if defined ( COMPRESS_PAGES ) && !defined ( DEBUG_DISABLE_PDFCOMPRESSION )
m_pWriter->beginCompression();
#endif
m_pWriter->checkAndEnableStreamEncryption( m_aStreamObjects.back() );
}
void PDFWriterImpl::PDFPage::endStream()
{
#if defined ( COMPRESS_PAGES ) && !defined ( DEBUG_DISABLE_PDFCOMPRESSION )
m_pWriter->endCompression();
#endif
sal_uInt64 nEndStreamPos;
if( osl_File_E_None != osl_getFilePos( m_pWriter->m_aFile, &nEndStreamPos ) )
{
osl_closeFile( m_pWriter->m_aFile );
m_pWriter->m_bOpen = false;
return;
}
m_pWriter->disableStreamEncryption();
if( ! m_pWriter->writeBuffer( "\nendstream\nendobj\n\n", 19 ) )
return;
// emit stream length object
if( ! m_pWriter->updateObject( m_nStreamLengthObject ) )
return;
OStringBuffer aLine;
aLine.append( m_nStreamLengthObject );
aLine.append( " 0 obj\n" );
aLine.append( (sal_Int64)(nEndStreamPos-m_nBeginStreamPos) );
aLine.append( "\nendobj\n\n" );
m_pWriter->writeBuffer( aLine.getStr(), aLine.getLength() );
}
bool PDFWriterImpl::PDFPage::emit(sal_Int32 nParentObject )
{
// emit page object
if( ! m_pWriter->updateObject( m_nPageObject ) )
return false;
OStringBuffer aLine;
aLine.append( m_nPageObject );
aLine.append( " 0 obj\n"
"<</Type/Page/Parent " );
aLine.append( nParentObject );
aLine.append( " 0 R" );
aLine.append( "/Resources " );
aLine.append( m_pWriter->getResourceDictObj() );
aLine.append( " 0 R" );
if( m_nPageWidth && m_nPageHeight )
{
aLine.append( "/MediaBox[0 0 " );
aLine.append( m_nPageWidth );
aLine.append( ' ' );
aLine.append( m_nPageHeight );
aLine.append( "]" );
}
switch( m_eOrientation )
{
case PDFWriter::Landscape: aLine.append( "/Rotate 90\n" );break;
case PDFWriter::Seascape: aLine.append( "/Rotate -90\n" );break;
case PDFWriter::Portrait: aLine.append( "/Rotate 0\n" );break;
case PDFWriter::Inherit:
default:
break;
}
int nAnnots = m_aAnnotations.size();
if( nAnnots > 0 )
{
aLine.append( "/Annots[\n" );
for( int i = 0; i < nAnnots; i++ )
{
aLine.append( m_aAnnotations[i] );
aLine.append( " 0 R" );
aLine.append( ((i+1)%15) ? " " : "\n" );
}
aLine.append( "]\n" );
}
#if 0
// FIXME: implement tab order as Structure Tree
if( m_bHasWidgets && m_pWriter->getVersion() >= PDFWriter::PDF_1_5 )
aLine.append( " /Tabs /S\n" );
#endif
if( m_aMCIDParents.size() > 0 )
{
OStringBuffer aStructParents( 1024 );
aStructParents.append( "[ " );
int nParents = m_aMCIDParents.size();
for( int i = 0; i < nParents; i++ )
{
aStructParents.append( m_aMCIDParents[i] );
aStructParents.append( " 0 R" );
aStructParents.append( ((i%10) == 9) ? "\n" : " " );
}
aStructParents.append( "]" );
m_pWriter->m_aStructParentTree.push_back( aStructParents.makeStringAndClear() );
aLine.append( "/StructParents " );
aLine.append( sal_Int32(m_pWriter->m_aStructParentTree.size()-1) );
aLine.append( "\n" );
}
if( m_nDuration > 0 )
{
aLine.append( "/Dur " );
aLine.append( (sal_Int32)m_nDuration );
aLine.append( "\n" );
}
if( m_eTransition != PDFWriter::Regular && m_nTransTime > 0 )
{
// transition duration
aLine.append( "/Trans<</D " );
appendDouble( (double)m_nTransTime/1000.0, aLine, 3 );
aLine.append( "\n" );
const char *pStyle = NULL, *pDm = NULL, *pM = NULL, *pDi = NULL;
switch( m_eTransition )
{
case PDFWriter::SplitHorizontalInward:
pStyle = "Split"; pDm = "H"; pM = "I"; break;
case PDFWriter::SplitHorizontalOutward:
pStyle = "Split"; pDm = "H"; pM = "O"; break;
case PDFWriter::SplitVerticalInward:
pStyle = "Split"; pDm = "V"; pM = "I"; break;
case PDFWriter::SplitVerticalOutward:
pStyle = "Split"; pDm = "V"; pM = "O"; break;
case PDFWriter::BlindsHorizontal:
pStyle = "Blinds"; pDm = "H"; break;
case PDFWriter::BlindsVertical:
pStyle = "Blinds"; pDm = "V"; break;
case PDFWriter::BoxInward:
pStyle = "Box"; pM = "I"; break;
case PDFWriter::BoxOutward:
pStyle = "Box"; pM = "O"; break;
case PDFWriter::WipeLeftToRight:
pStyle = "Wipe"; pDi = "0"; break;
case PDFWriter::WipeBottomToTop:
pStyle = "Wipe"; pDi = "90"; break;
case PDFWriter::WipeRightToLeft:
pStyle = "Wipe"; pDi = "180"; break;
case PDFWriter::WipeTopToBottom:
pStyle = "Wipe"; pDi = "270"; break;
case PDFWriter::Dissolve:
pStyle = "Dissolve"; break;
case PDFWriter::GlitterLeftToRight:
pStyle = "Glitter"; pDi = "0"; break;
case PDFWriter::GlitterTopToBottom:
pStyle = "Glitter"; pDi = "270"; break;
case PDFWriter::GlitterTopLeftToBottomRight:
pStyle = "Glitter"; pDi = "315"; break;
case PDFWriter::Regular:
break;
}
// transition style
if( pStyle )
{
aLine.append( "/S/" );
aLine.append( pStyle );
aLine.append( "\n" );
}
if( pDm )
{
aLine.append( "/Dm/" );
aLine.append( pDm );
aLine.append( "\n" );
}
if( pM )
{
aLine.append( "/M/" );
aLine.append( pM );
aLine.append( "\n" );
}
if( pDi )
{
aLine.append( "/Di " );
aLine.append( pDi );
aLine.append( "\n" );
}
aLine.append( ">>\n" );
}
if( m_pWriter->getVersion() > PDFWriter::PDF_1_3 && ! m_pWriter->m_bIsPDF_A1 )
{
aLine.append( "/Group<</S/Transparency/CS/DeviceRGB/I true>>" );
}
aLine.append( "/Contents" );
unsigned int nStreamObjects = m_aStreamObjects.size();
if( nStreamObjects > 1 )
aLine.append( '[' );
for( unsigned int i = 0; i < m_aStreamObjects.size(); i++ )
{
aLine.append( ' ' );
aLine.append( m_aStreamObjects[i] );
aLine.append( " 0 R" );
}
if( nStreamObjects > 1 )
aLine.append( ']' );
aLine.append( ">>\nendobj\n\n" );
return m_pWriter->writeBuffer( aLine.getStr(), aLine.getLength() );
}
namespace vcl
{
template < class GEOMETRY >
GEOMETRY lcl_convert( const MapMode& _rSource, const MapMode& _rDest, OutputDevice* _pPixelConversion, const GEOMETRY& _rObject )
{
GEOMETRY aPoint;
if ( MAP_PIXEL == _rSource.GetMapUnit() )
{
aPoint = _pPixelConversion->PixelToLogic( _rObject, _rDest );
}
else
{
aPoint = OutputDevice::LogicToLogic( _rObject, _rSource, _rDest );
}
return aPoint;
}
}
void PDFWriterImpl::PDFPage::appendPoint( const Point& rPoint, OStringBuffer& rBuffer, bool bNeg, Point* pOutPoint ) const
{
if( pOutPoint )
{
Point aPoint( lcl_convert( m_pWriter->m_aGraphicsStack.front().m_aMapMode,
m_pWriter->m_aMapMode,
m_pWriter->getReferenceDevice(),
rPoint ) );
*pOutPoint = aPoint;
}
Point aPoint( lcl_convert( m_pWriter->m_aGraphicsStack.front().m_aMapMode,
m_pWriter->m_aMapMode,
m_pWriter->getReferenceDevice(),
rPoint ) );
sal_Int32 nValue = aPoint.X();
if( bNeg )
nValue = -nValue;
appendFixedInt( nValue, rBuffer );
rBuffer.append( ' ' );
nValue = pointToPixel(getHeight()) - aPoint.Y();
if( bNeg )
nValue = -nValue;
appendFixedInt( nValue, rBuffer );
}
void PDFWriterImpl::PDFPage::appendPixelPoint( const basegfx::B2DPoint& rPoint, OStringBuffer& rBuffer ) const
{
double fValue = pixelToPoint(rPoint.getX());
appendDouble( fValue, rBuffer, nLog10Divisor );
rBuffer.append( ' ' );
fValue = double(getHeight()) - pixelToPoint(rPoint.getY());
appendDouble( fValue, rBuffer, nLog10Divisor );
}
void PDFWriterImpl::PDFPage::appendRect( const Rectangle& rRect, OStringBuffer& rBuffer ) const
{
appendPoint( rRect.BottomLeft() + Point( 0, 1 ), rBuffer );
rBuffer.append( ' ' );
appendMappedLength( (sal_Int32)rRect.GetWidth(), rBuffer, false );
rBuffer.append( ' ' );
appendMappedLength( (sal_Int32)rRect.GetHeight(), rBuffer, true );
rBuffer.append( " re" );
}
void PDFWriterImpl::PDFPage::convertRect( Rectangle& rRect ) const
{
Point aLL = lcl_convert( m_pWriter->m_aGraphicsStack.front().m_aMapMode,
m_pWriter->m_aMapMode,
m_pWriter->getReferenceDevice(),
rRect.BottomLeft() + Point( 0, 1 )
);
Size aSize = lcl_convert( m_pWriter->m_aGraphicsStack.front().m_aMapMode,
m_pWriter->m_aMapMode,
m_pWriter->getReferenceDevice(),
rRect.GetSize() );
rRect.Left() = aLL.X();
rRect.Right() = aLL.X() + aSize.Width();
rRect.Top() = pointToPixel(getHeight()) - aLL.Y();
rRect.Bottom() = rRect.Top() + aSize.Height();
}
void PDFWriterImpl::PDFPage::appendPolygon( const Polygon& rPoly, OStringBuffer& rBuffer, bool bClose ) const
{
USHORT nPoints = rPoly.GetSize();
/*
* #108582# applications do weird things
*/
sal_uInt32 nBufLen = rBuffer.getLength();
if( nPoints > 0 )
{
const BYTE* pFlagArray = rPoly.GetConstFlagAry();
appendPoint( rPoly[0], rBuffer );
rBuffer.append( " m\n" );
for( USHORT i = 1; i < nPoints; i++ )
{
if( pFlagArray && pFlagArray[i] == POLY_CONTROL && nPoints-i > 2 )
{
// bezier
DBG_ASSERT( pFlagArray[i+1] == POLY_CONTROL && pFlagArray[i+2] != POLY_CONTROL, "unexpected sequence of control points" );
appendPoint( rPoly[i], rBuffer );
rBuffer.append( " " );
appendPoint( rPoly[i+1], rBuffer );
rBuffer.append( " " );
appendPoint( rPoly[i+2], rBuffer );
rBuffer.append( " c" );
i += 2; // add additionally consumed points
}
else
{
// line
appendPoint( rPoly[i], rBuffer );
rBuffer.append( " l" );
}
if( (rBuffer.getLength() - nBufLen) > 65 )
{
rBuffer.append( "\n" );
nBufLen = rBuffer.getLength();
}
else
rBuffer.append( " " );
}
if( bClose )
rBuffer.append( "h\n" );
}
}
void PDFWriterImpl::PDFPage::appendPolygon( const basegfx::B2DPolygon& rPoly, OStringBuffer& rBuffer, bool bClose ) const
{
basegfx::B2DPolygon aPoly( lcl_convert( m_pWriter->m_aGraphicsStack.front().m_aMapMode,
m_pWriter->m_aMapMode,
m_pWriter->getReferenceDevice(),
rPoly ) );
if( basegfx::tools::isRectangle( aPoly ) )
{
basegfx::B2DRange aRange( aPoly.getB2DRange() );
basegfx::B2DPoint aBL( aRange.getMinX(), aRange.getMaxY() );
appendPixelPoint( aBL, rBuffer );
rBuffer.append( ' ' );
appendMappedLength( aRange.getWidth(), rBuffer, false, NULL, nLog10Divisor );
rBuffer.append( ' ' );
appendMappedLength( aRange.getHeight(), rBuffer, true, NULL, nLog10Divisor );
rBuffer.append( " re\n" );
return;
}
sal_uInt32 nPoints = aPoly.count();
if( nPoints > 0 )
{
sal_uInt32 nBufLen = rBuffer.getLength();
basegfx::B2DPoint aLastPoint( aPoly.getB2DPoint( 0 ) );
appendPixelPoint( aLastPoint, rBuffer );
rBuffer.append( " m\n" );
for( sal_uInt32 i = 1; i <= nPoints; i++ )
{
if( i != nPoints || aPoly.isClosed() )
{
sal_uInt32 nCurPoint = i % nPoints;
sal_uInt32 nLastPoint = i-1;
basegfx::B2DPoint aPoint( aPoly.getB2DPoint( nCurPoint ) );
if( aPoly.isNextControlPointUsed( nLastPoint ) &&
aPoly.isPrevControlPointUsed( nCurPoint ) )
{
appendPixelPoint( aPoly.getNextControlPoint( nLastPoint ), rBuffer );
rBuffer.append( ' ' );
appendPixelPoint( aPoly.getPrevControlPoint( nCurPoint ), rBuffer );
rBuffer.append( ' ' );
appendPixelPoint( aPoint, rBuffer );
rBuffer.append( " c" );
}
else if( aPoly.isNextControlPointUsed( nLastPoint ) )
{
appendPixelPoint( aPoly.getNextControlPoint( nLastPoint ), rBuffer );
rBuffer.append( ' ' );
appendPixelPoint( aPoint, rBuffer );
rBuffer.append( " y" );
}
else if( aPoly.isPrevControlPointUsed( nCurPoint ) )
{
appendPixelPoint( aPoly.getPrevControlPoint( nCurPoint ), rBuffer );
rBuffer.append( ' ' );
appendPixelPoint( aPoint, rBuffer );
rBuffer.append( " v" );
}
else
{
appendPixelPoint( aPoint, rBuffer );
rBuffer.append( " l" );
}
if( (rBuffer.getLength() - nBufLen) > 65 )
{
rBuffer.append( "\n" );
nBufLen = rBuffer.getLength();
}
else
rBuffer.append( " " );
}
}
if( bClose )
rBuffer.append( "h\n" );
}
}
void PDFWriterImpl::PDFPage::appendPolyPolygon( const PolyPolygon& rPolyPoly, OStringBuffer& rBuffer, bool bClose ) const
{
USHORT nPolygons = rPolyPoly.Count();
for( USHORT n = 0; n < nPolygons; n++ )
appendPolygon( rPolyPoly[n], rBuffer, bClose );
}
void PDFWriterImpl::PDFPage::appendPolyPolygon( const basegfx::B2DPolyPolygon& rPolyPoly, OStringBuffer& rBuffer, bool bClose ) const
{
sal_uInt32 nPolygons = rPolyPoly.count();
for( sal_uInt32 n = 0; n < nPolygons; n++ )
appendPolygon( rPolyPoly.getB2DPolygon( n ), rBuffer, bClose );
}
void PDFWriterImpl::PDFPage::appendMappedLength( sal_Int32 nLength, OStringBuffer& rBuffer, bool bVertical, sal_Int32* pOutLength ) const
{
sal_Int32 nValue = nLength;
if ( nLength < 0 )
{
rBuffer.append( '-' );
nValue = -nLength;
}
Size aSize( lcl_convert( m_pWriter->m_aGraphicsStack.front().m_aMapMode,
m_pWriter->m_aMapMode,
m_pWriter->getReferenceDevice(),
Size( nValue, nValue ) ) );
nValue = bVertical ? aSize.Height() : aSize.Width();
if( pOutLength )
*pOutLength = ((nLength < 0 ) ? -nValue : nValue);
appendFixedInt( nValue, rBuffer, 1 );
}
void PDFWriterImpl::PDFPage::appendMappedLength( double fLength, OStringBuffer& rBuffer, bool bVertical, sal_Int32* pOutLength, sal_Int32 nPrecision ) const
{
Size aSize( lcl_convert( m_pWriter->m_aGraphicsStack.front().m_aMapMode,
m_pWriter->m_aMapMode,
m_pWriter->getReferenceDevice(),
Size( 1000, 1000 ) ) );
if( pOutLength )
*pOutLength = (sal_Int32)(fLength*(double)(bVertical ? aSize.Height() : aSize.Width())/1000.0);
fLength *= pixelToPoint((double)(bVertical ? aSize.Height() : aSize.Width()) / 1000.0);
appendDouble( fLength, rBuffer, nPrecision );
}
bool PDFWriterImpl::PDFPage::appendLineInfo( const LineInfo& rInfo, OStringBuffer& rBuffer ) const
{
bool bRet = true;
if( rInfo.GetStyle() == LINE_DASH )
{
rBuffer.append( "[ " );
if( rInfo.GetDashLen() == rInfo.GetDotLen() ) // degraded case
{
appendMappedLength( (sal_Int32)rInfo.GetDashLen(), rBuffer );
rBuffer.append( ' ' );
appendMappedLength( (sal_Int32)rInfo.GetDistance(), rBuffer );
rBuffer.append( ' ' );
}
else
{
// check for implementation limits of dash array
// in PDF reader apps (e.g. acroread)
if( 2*(rInfo.GetDashCount() + rInfo.GetDotCount()) > 10 )
bRet = false;
for( int n = 0; n < rInfo.GetDashCount(); n++ )
{
appendMappedLength( (sal_Int32)rInfo.GetDashLen(), rBuffer );
rBuffer.append( ' ' );
appendMappedLength( (sal_Int32)rInfo.GetDistance(), rBuffer );
rBuffer.append( ' ' );
}
for( int m = 0; m < rInfo.GetDotCount(); m++ )
{
appendMappedLength( (sal_Int32)rInfo.GetDotLen(), rBuffer );
rBuffer.append( ' ' );
appendMappedLength( (sal_Int32)rInfo.GetDistance(), rBuffer );
rBuffer.append( ' ' );
}
}
rBuffer.append( "] 0 d\n" );
}
if( rInfo.GetWidth() > 1 )
{
appendMappedLength( (sal_Int32)rInfo.GetWidth(), rBuffer );
rBuffer.append( " w\n" );
}
else if( rInfo.GetWidth() == 0 )
{
// "pixel" line
appendDouble( 72.0/double(m_pWriter->getReferenceDevice()->ImplGetDPIX()), rBuffer );
rBuffer.append( " w\n" );
}
return bRet;
}
void PDFWriterImpl::PDFPage::appendWaveLine( sal_Int32 nWidth, sal_Int32 nY, sal_Int32 nDelta, OStringBuffer& rBuffer ) const
{
if( nWidth <= 0 )
return;
if( nDelta < 1 )
nDelta = 1;
rBuffer.append( "0 " );
appendMappedLength( nY, rBuffer, true );
rBuffer.append( " m\n" );
for( sal_Int32 n = 0; n < nWidth; )
{
n += nDelta;
appendMappedLength( n, rBuffer, false );
rBuffer.append( ' ' );
appendMappedLength( nDelta+nY, rBuffer, true );
rBuffer.append( ' ' );
n += nDelta;
appendMappedLength( n, rBuffer, false );
rBuffer.append( ' ' );
appendMappedLength( nY, rBuffer, true );
rBuffer.append( " v " );
if( n < nWidth )
{
n += nDelta;
appendMappedLength( n, rBuffer, false );
rBuffer.append( ' ' );
appendMappedLength( nY-nDelta, rBuffer, true );
rBuffer.append( ' ' );
n += nDelta;
appendMappedLength( n, rBuffer, false );
rBuffer.append( ' ' );
appendMappedLength( nY, rBuffer, true );
rBuffer.append( " v\n" );
}
}
rBuffer.append( "S\n" );
}
/*
* class PDFWriterImpl
*/
PDFWriterImpl::PDFWriterImpl( const PDFWriter::PDFWriterContext& rContext )
:
m_pReferenceDevice( NULL ),
m_aMapMode( MAP_POINT, Point(), Fraction( 1L, pointToPixel(1) ), Fraction( 1L, pointToPixel(1) ) ),
m_nCurrentStructElement( 0 ),
m_bEmitStructure( true ),
m_bNewMCID( false ),
m_nCurrentControl( -1 ),
m_bEmbedStandardFonts( false ),
m_nNextFID( 1 ),
m_nInheritedPageWidth( 595 ), // default A4
m_nInheritedPageHeight( 842 ), // default A4
m_eInheritedOrientation( PDFWriter::Portrait ),
m_nCurrentPage( -1 ),
m_nResourceDict( -1 ),
m_nFontDictObject( -1 ),
m_pCodec( NULL ),
m_aDocDigest( rtl_digest_createMD5() ),
m_aCipher( (rtlCipher)NULL ),
m_aDigest( NULL ),
m_bEncryptThisStream( false ),
m_aDocID( 32 ),
m_aCreationDateString( 64 ),
m_aCreationMetaDateString( 64 ),
m_pEncryptionBuffer( NULL ),
m_nEncryptionBufferSize( 0 ),
m_bIsPDF_A1( false )
{
#ifdef DO_TEST_PDF
static bool bOnce = true;
if( bOnce )
{
bOnce = false;
doTestCode();
}
#endif
m_aContext = rContext;
m_aStructure.push_back( PDFStructureElement() );
m_aStructure[0].m_nOwnElement = 0;
m_aStructure[0].m_nParentElement = 0;
Font aFont;
aFont.SetName( String( RTL_CONSTASCII_USTRINGPARAM( "Times" ) ) );
aFont.SetSize( Size( 0, 12 ) );
GraphicsState aState;
aState.m_aMapMode = m_aMapMode;
aState.m_aFont = aFont;
m_aGraphicsStack.push_front( aState );
oslFileError aError = osl_openFile( m_aContext.URL.pData, &m_aFile, osl_File_OpenFlag_Write | osl_File_OpenFlag_Create );
if( aError != osl_File_E_None )
{
if( aError == osl_File_E_EXIST )
{
aError = osl_openFile( m_aContext.URL.pData, &m_aFile, osl_File_OpenFlag_Write );
if( aError == osl_File_E_None )
aError = osl_setFileSize( m_aFile, 0 );
}
}
if( aError != osl_File_E_None )
return;
m_bOpen = true;
/* prepare the cypher engine, can be done in CTOR, free in DTOR */
m_aCipher = rtl_cipher_createARCFOUR( rtl_Cipher_ModeStream );
m_aDigest = rtl_digest_createMD5();
/* the size of the Codec default maximum */
checkEncryptionBufferSize( 0x4000 );
// write header
OStringBuffer aBuffer( 20 );
aBuffer.append( "%PDF-" );
switch( m_aContext.Version )
{
case PDFWriter::PDF_1_2: aBuffer.append( "1.2" );break;
case PDFWriter::PDF_1_3: aBuffer.append( "1.3" );break;
case PDFWriter::PDF_A_1:
default:
case PDFWriter::PDF_1_4: aBuffer.append( "1.4" );break;
case PDFWriter::PDF_1_5: aBuffer.append( "1.5" );break;
}
// append something binary as comment (suggested in PDF Reference)
aBuffer.append( "\n%äüöß\n" );
if( !writeBuffer( aBuffer.getStr(), aBuffer.getLength() ) )
{
osl_closeFile( m_aFile );
m_bOpen = false;
return;
}
// insert outline root
m_aOutline.push_back( PDFOutlineEntry() );
m_bIsPDF_A1 = (m_aContext.Version == PDFWriter::PDF_A_1);
if( m_bIsPDF_A1 )
m_aContext.Version = PDFWriter::PDF_1_4; //meaning we need PDF 1.4, PDF/A flavour
m_bEmbedStandardFonts = m_aContext.EmbedStandardFonts;
}
PDFWriterImpl::~PDFWriterImpl()
{
if( m_aDocDigest )
rtl_digest_destroyMD5( m_aDocDigest );
delete static_cast<VirtualDevice*>(m_pReferenceDevice);
if( m_aCipher )
rtl_cipher_destroyARCFOUR( m_aCipher );
if( m_aDigest )
rtl_digest_destroyMD5( m_aDigest );
rtl_freeMemory( m_pEncryptionBuffer );
}
void PDFWriterImpl::setDocInfo( const PDFDocInfo& rInfo )
{
m_aDocInfo.Title = rInfo.Title;
m_aDocInfo.Author = rInfo.Author;
m_aDocInfo.Subject = rInfo.Subject;
m_aDocInfo.Keywords = rInfo.Keywords;
m_aDocInfo.Creator = rInfo.Creator;
m_aDocInfo.Producer = rInfo.Producer;
//build the document id
rtl::OString aInfoValuesOut;
OStringBuffer aID( 1024 );
if( m_aDocInfo.Title.Len() )
appendUnicodeTextString( m_aDocInfo.Title, aID );
if( m_aDocInfo.Author.Len() )
appendUnicodeTextString( m_aDocInfo.Author, aID );
if( m_aDocInfo.Subject.Len() )
appendUnicodeTextString( m_aDocInfo.Subject, aID );
if( m_aDocInfo.Keywords.Len() )
appendUnicodeTextString( m_aDocInfo.Keywords, aID );
if( m_aDocInfo.Creator.Len() )
appendUnicodeTextString( m_aDocInfo.Creator, aID );
if( m_aDocInfo.Producer.Len() )
appendUnicodeTextString( m_aDocInfo.Producer, aID );
TimeValue aTVal, aGMT;
oslDateTime aDT;
osl_getSystemTime( &aGMT );
osl_getLocalTimeFromSystemTime( &aGMT, &aTVal );
osl_getDateTimeFromTimeValue( &aTVal, &aDT );
m_aCreationDateString.append( "D:" );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Year/1000)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Year/100)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Year/10)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Year)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Month/10)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Month)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Day/10)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Day)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Hours/10)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Hours)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Minutes/10)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Minutes)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Seconds/10)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((aDT.Seconds)%10)) );
//--> i59651, we fill the Metadata date string as well, if PDF/A is requested
if( m_bIsPDF_A1 )
{
// according to ISO 19005-1:2005 6.7.3 the date is corrected for
// local time zone offset UTC only, whereas Acrobat 8 seems
// to use the localtime notation only
// according to a raccomandation in XMP Specification (Jan 2004, page 75)
// the Acrobat way seems the right approach
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Year/1000)%10)) );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Year/100)%10)) );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Year/10)%10)) );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Year)%10)) );
m_aCreationMetaDateString.append( "-" );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Month/10)%10)) );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Month)%10)) );
m_aCreationMetaDateString.append( "-" );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Day/10)%10)) );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Day)%10)) );
m_aCreationMetaDateString.append( "T" );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Hours/10)%10)) );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Hours)%10)) );
m_aCreationMetaDateString.append( ":" );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Minutes/10)%10)) );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Minutes)%10)) );
m_aCreationMetaDateString.append( ":" );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Seconds/10)%10)) );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((aDT.Seconds)%10)) );
}
sal_uInt32 nDelta = 0;
if( aGMT.Seconds > aTVal.Seconds )
{
m_aCreationDateString.append( "-" );
nDelta = aGMT.Seconds-aTVal.Seconds;
if( m_bIsPDF_A1 )
m_aCreationMetaDateString.append( "-" );
}
else if( aGMT.Seconds < aTVal.Seconds )
{
m_aCreationDateString.append( "+" );
nDelta = aTVal.Seconds-aGMT.Seconds;
if( m_bIsPDF_A1 )
m_aCreationMetaDateString.append( "+" );
}
else
{
m_aCreationDateString.append( "Z" );
if( m_bIsPDF_A1 )
m_aCreationMetaDateString.append( "Z" );
}
if( nDelta )
{
m_aCreationDateString.append( (sal_Char)('0' + ((nDelta/36000)%10)) );
m_aCreationDateString.append( (sal_Char)('0' + ((nDelta/3600)%10)) );
m_aCreationDateString.append( "'" );
m_aCreationDateString.append( (sal_Char)('0' + ((nDelta/600)%6)) );
m_aCreationDateString.append( (sal_Char)('0' + ((nDelta/60)%10)) );
if( m_bIsPDF_A1 )
{
m_aCreationMetaDateString.append( (sal_Char)('0' + ((nDelta/36000)%10)) );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((nDelta/3600)%10)) );
m_aCreationMetaDateString.append( ":" );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((nDelta/600)%6)) );
m_aCreationMetaDateString.append( (sal_Char)('0' + ((nDelta/60)%10)) );
}
}
m_aCreationDateString.append( "'" );
aID.append( m_aCreationDateString.getStr(), m_aCreationDateString.getLength() );
aInfoValuesOut = aID.makeStringAndClear();
DBG_ASSERT( m_aDigest != NULL, "PDFWrite_Impl::setDocInfo: cannot obtain a digest object !" );
m_aDocID.setLength( 0 );
if( m_aDigest )
{
osl_getSystemTime( &aGMT );
rtlDigestError nError = rtl_digest_updateMD5( m_aDigest, &aGMT, sizeof( aGMT ) );
if( nError == rtl_Digest_E_None )
nError = rtl_digest_updateMD5( m_aDigest, m_aContext.URL.getStr(), m_aContext.URL.getLength()*sizeof(sal_Unicode) );
if( nError == rtl_Digest_E_None )
nError = rtl_digest_updateMD5( m_aDigest, aInfoValuesOut.getStr(), aInfoValuesOut.getLength() );
if( nError == rtl_Digest_E_None )
{
//the binary form of the doc id is needed for encryption stuff
rtl_digest_getMD5( m_aDigest, m_nDocID, 16 );
for( unsigned int i = 0; i < 16; i++ )
appendHex( m_nDocID[i], m_aDocID );
}
}
}
/* i12626 methods */
/*
check if the Unicode string must be encrypted or not, perform the requested task,
append the string as unicode hex, encrypted if needed
*/
inline void PDFWriterImpl::appendUnicodeTextStringEncrypt( const rtl::OUString& rInString, const sal_Int32 nInObjectNumber, OStringBuffer& rOutBuffer )
{
rOutBuffer.append( "<" );
if( m_aContext.Encrypt )
{
const sal_Unicode* pStr = rInString.getStr();
sal_Int32 nLen = rInString.getLength();
//prepare a unicode string, encrypt it
if( checkEncryptionBufferSize( nLen*2 ) )
{
enableStringEncryption( nInObjectNumber );
register sal_uInt8 *pCopy = m_pEncryptionBuffer;
sal_Int32 nChars = 2;
*pCopy++ = 0xFE;
*pCopy++ = 0xFF;
// we need to prepare a byte stream from the unicode string buffer
for( register int i = 0; i < nLen; i++ )
{
register sal_Unicode aUnChar = pStr[i];
*pCopy++ = (sal_uInt8)( aUnChar >> 8 );
*pCopy++ = (sal_uInt8)( aUnChar & 255 );
nChars += 2;
}
//encrypt in place
rtl_cipher_encodeARCFOUR( m_aCipher, m_pEncryptionBuffer, nChars, m_pEncryptionBuffer, nChars );
//now append, hexadecimal (appendHex), the encrypted result
for(register int i = 0; i < nChars; i++)
appendHex( m_pEncryptionBuffer[i], rOutBuffer );
}
}
else
appendUnicodeTextString( rInString, rOutBuffer );
rOutBuffer.append( ">" );
}
inline void PDFWriterImpl::appendLiteralStringEncrypt( rtl::OStringBuffer& rInString, const sal_Int32 nInObjectNumber, rtl::OStringBuffer& rOutBuffer )
{
rOutBuffer.append( "(" );
sal_Int32 nChars = rInString.getLength();
//check for encryption, if ok, encrypt the string, then convert with appndLiteralString
if( m_aContext.Encrypt && checkEncryptionBufferSize( nChars ) )
{
//encrypt the string in a buffer, then append it
enableStringEncryption( nInObjectNumber );
rtl_cipher_encodeARCFOUR( m_aCipher, rInString.getStr(), nChars, m_pEncryptionBuffer, nChars );
appendLiteralString( (const sal_Char*)m_pEncryptionBuffer, nChars, rOutBuffer );
}
else
appendLiteralString( rInString.getStr(), nChars , rOutBuffer );
rOutBuffer.append( ")" );
}
inline void PDFWriterImpl::appendLiteralStringEncrypt( const rtl::OString& rInString, const sal_Int32 nInObjectNumber, rtl::OStringBuffer& rOutBuffer )
{
rtl::OStringBuffer aBufferString( rInString );
appendLiteralStringEncrypt( aBufferString, nInObjectNumber, rOutBuffer);
}
inline void PDFWriterImpl::appendLiteralStringEncrypt( const rtl::OUString& rInString, const sal_Int32 nInObjectNumber, rtl::OStringBuffer& rOutBuffer )
{
rtl::OString aBufferString( rtl::OUStringToOString( rInString, RTL_TEXTENCODING_ASCII_US ) );
appendLiteralStringEncrypt( aBufferString, nInObjectNumber, rOutBuffer);
}
/* end i12626 methods */
void PDFWriterImpl::emitComment( const char* pComment )
{
OStringBuffer aLine( 64 );
aLine.append( "% " );
aLine.append( (const sal_Char*)pComment );
aLine.append( "\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
bool PDFWriterImpl::compressStream( SvMemoryStream* pStream )
{
#ifndef DEBUG_DISABLE_PDFCOMPRESSION
pStream->Seek( STREAM_SEEK_TO_END );
ULONG nEndPos = pStream->Tell();
pStream->Seek( STREAM_SEEK_TO_BEGIN );
ZCodec* pCodec = new ZCodec( 0x4000, 0x4000 );
SvMemoryStream aStream;
pCodec->BeginCompression();
pCodec->Write( aStream, (const BYTE*)pStream->GetData(), nEndPos );
pCodec->EndCompression();
delete pCodec;
nEndPos = aStream.Tell();
pStream->Seek( STREAM_SEEK_TO_BEGIN );
aStream.Seek( STREAM_SEEK_TO_BEGIN );
pStream->SetStreamSize( nEndPos );
pStream->Write( aStream.GetData(), nEndPos );
return true;
#else
(void)pStream;
return false;
#endif
}
void PDFWriterImpl::beginCompression()
{
#ifndef DEBUG_DISABLE_PDFCOMPRESSION
m_pCodec = new ZCodec( 0x4000, 0x4000 );
m_pMemStream = new SvMemoryStream();
m_pCodec->BeginCompression();
#endif
}
void PDFWriterImpl::endCompression()
{
#ifndef DEBUG_DISABLE_PDFCOMPRESSION
if( m_pCodec )
{
m_pCodec->EndCompression();
delete m_pCodec;
m_pCodec = NULL;
sal_uInt64 nLen = m_pMemStream->Tell();
m_pMemStream->Seek( 0 );
writeBuffer( m_pMemStream->GetData(), nLen );
delete m_pMemStream;
m_pMemStream = NULL;
}
#endif
}
bool PDFWriterImpl::writeBuffer( const void* pBuffer, sal_uInt64 nBytes )
{
if( ! m_bOpen ) // we are already down the drain
return false;
if( ! nBytes ) // huh ?
return true;
if( m_aOutputStreams.begin() != m_aOutputStreams.end() )
{
m_aOutputStreams.front().m_pStream->Seek( STREAM_SEEK_TO_END );
m_aOutputStreams.front().m_pStream->Write( pBuffer, sal::static_int_cast<sal_Size>(nBytes) );
return true;
}
sal_uInt64 nWritten;
if( m_pCodec )
{
m_pCodec->Write( *m_pMemStream, static_cast<const BYTE*>(pBuffer), (ULONG)nBytes );
nWritten = nBytes;
}
else
{
sal_Bool buffOK = sal_True;
if( m_bEncryptThisStream )
{
/* implement the encryption part of the PDF spec encryption algorithm 3.1 */
if( ( buffOK = checkEncryptionBufferSize( static_cast<sal_Int32>(nBytes) ) ) != sal_False )
rtl_cipher_encodeARCFOUR( m_aCipher,
(sal_uInt8*)pBuffer, static_cast<sal_Size>(nBytes),
m_pEncryptionBuffer, static_cast<sal_Size>(nBytes) );
}
const void* pWriteBuffer = ( m_bEncryptThisStream && buffOK ) ? m_pEncryptionBuffer : pBuffer;
if( m_aDocDigest )
rtl_digest_updateMD5( m_aDocDigest, pWriteBuffer, static_cast<sal_uInt32>(nBytes) );
if( osl_writeFile( m_aFile,
pWriteBuffer,
nBytes, &nWritten ) != osl_File_E_None )
nWritten = 0;
if( nWritten != nBytes )
{
osl_closeFile( m_aFile );
m_bOpen = false;
}
}
return nWritten == nBytes;
}
OutputDevice* PDFWriterImpl::getReferenceDevice()
{
if( ! m_pReferenceDevice )
{
VirtualDevice* pVDev = new VirtualDevice( 0 );
m_pReferenceDevice = pVDev;
pVDev->SetReferenceDevice( VirtualDevice::REFDEV_MODE_PDF1 );
pVDev->SetOutputSizePixel( Size( 640, 480 ) );
pVDev->SetMapMode( MAP_MM );
m_pReferenceDevice->mpPDFWriter = this;
m_pReferenceDevice->ImplUpdateFontData( TRUE );
}
return m_pReferenceDevice;
}
class ImplPdfBuiltinFontData : public ImplFontData
{
private:
const PDFWriterImpl::BuiltinFont& mrBuiltin;
public:
enum {PDF_FONT_MAGIC = 0xBDFF0A1C };
ImplPdfBuiltinFontData( const PDFWriterImpl::BuiltinFont& );
const PDFWriterImpl::BuiltinFont* GetBuiltinFont() const { return &mrBuiltin; }
virtual ImplFontData* Clone() const { return new ImplPdfBuiltinFontData(*this); }
virtual ImplFontEntry* CreateFontInstance( ImplFontSelectData& ) const;
virtual sal_IntPtr GetFontId() const { return reinterpret_cast<sal_IntPtr>(&mrBuiltin); }
};
inline const ImplPdfBuiltinFontData* GetPdfFontData( const ImplFontData* pFontData )
{
const ImplPdfBuiltinFontData* pFD = NULL;
if( pFontData && pFontData->CheckMagic( ImplPdfBuiltinFontData::PDF_FONT_MAGIC ) )
pFD = static_cast<const ImplPdfBuiltinFontData*>( pFontData );
return pFD;
}
static ImplDevFontAttributes GetDevFontAttributes( const PDFWriterImpl::BuiltinFont& rBuiltin )
{
ImplDevFontAttributes aDFA;
aDFA.maName = String::CreateFromAscii( rBuiltin.m_pName );
aDFA.maStyleName = String::CreateFromAscii( rBuiltin.m_pStyleName );
aDFA.meFamily = rBuiltin.m_eFamily;
aDFA.mbSymbolFlag = (rBuiltin.m_eCharSet != RTL_TEXTENCODING_MS_1252 );
aDFA.mePitch = rBuiltin.m_ePitch;
aDFA.meWeight = rBuiltin.m_eWeight;
aDFA.meItalic = rBuiltin.m_eItalic;
aDFA.meWidthType = rBuiltin.m_eWidthType;
aDFA.mbOrientation = true;
aDFA.mbDevice = true;
aDFA.mnQuality = 50000;
aDFA.mbSubsettable = false;
aDFA.mbEmbeddable = false;
return aDFA;
}
ImplPdfBuiltinFontData::ImplPdfBuiltinFontData( const PDFWriterImpl::BuiltinFont& rBuiltin )
: ImplFontData( GetDevFontAttributes(rBuiltin), PDF_FONT_MAGIC ),
mrBuiltin( rBuiltin )
{}
ImplFontEntry* ImplPdfBuiltinFontData::CreateFontInstance( ImplFontSelectData& rFSD ) const
{
ImplFontEntry* pEntry = new ImplFontEntry( rFSD );
return pEntry;
}
ImplDevFontList* PDFWriterImpl::filterDevFontList( ImplDevFontList* pFontList )
{
DBG_ASSERT( m_aSubsets.size() == 0, "Fonts changing during PDF generation, document will be invalid" );
ImplDevFontList* pFiltered = pFontList->Clone( true, true );
// append the PDF builtin fonts
if( !m_bIsPDF_A1 && !m_bEmbedStandardFonts)
for( unsigned int i = 0; i < sizeof(m_aBuiltinFonts)/sizeof(m_aBuiltinFonts[0]); i++ )
{
ImplFontData* pNewData = new ImplPdfBuiltinFontData( m_aBuiltinFonts[i] );
pFiltered->Add( pNewData );
}
return pFiltered;
}
bool PDFWriterImpl::isBuiltinFont( const ImplFontData* pFont ) const
{
const ImplPdfBuiltinFontData* pFD = GetPdfFontData( pFont );
return (pFD != NULL);
}
void PDFWriterImpl::getFontMetric( ImplFontSelectData* pSelect, ImplFontMetricData* pMetric ) const
{
const ImplPdfBuiltinFontData* pFD = GetPdfFontData( pSelect->mpFontData );
if( !pFD )
return;
const BuiltinFont* pBuiltinFont = pFD->GetBuiltinFont();
pMetric->mnOrientation = sal::static_int_cast<short>(pSelect->mnOrientation);
pMetric->meFamily = pBuiltinFont->m_eFamily;
pMetric->mePitch = pBuiltinFont->m_ePitch;
pMetric->meWeight = pBuiltinFont->m_eWeight;
pMetric->meItalic = pBuiltinFont->m_eItalic;
pMetric->mbSymbolFlag = pFD->IsSymbolFont();
pMetric->mnWidth = pSelect->mnHeight;
pMetric->mnAscent = ( pSelect->mnHeight * +pBuiltinFont->m_nAscent + 500 ) / 1000;
pMetric->mnDescent = ( pSelect->mnHeight * -pBuiltinFont->m_nDescent + 500 ) / 1000;
pMetric->mnIntLeading = 0;
pMetric->mnExtLeading = 0;
pMetric->mnSlant = 0;
pMetric->mbScalableFont = true;
pMetric->mbDevice = true;
}
// -----------------------------------------------------------------------
namespace vcl {
class PDFSalLayout : public GenericSalLayout
{
PDFWriterImpl& mrPDFWriterImpl;
const PDFWriterImpl::BuiltinFont& mrBuiltinFont;
bool mbIsSymbolFont;
long mnPixelPerEM;
String maOrigText;
public:
PDFSalLayout( PDFWriterImpl&,
const PDFWriterImpl::BuiltinFont&,
long nPixelPerEM, int nOrientation );
void SetText( const String& rText ) { maOrigText = rText; }
virtual bool LayoutText( ImplLayoutArgs& );
virtual void InitFont() const;
virtual void DrawText( SalGraphics& ) const;
};
}
// -----------------------------------------------------------------------
PDFSalLayout::PDFSalLayout( PDFWriterImpl& rPDFWriterImpl,
const PDFWriterImpl::BuiltinFont& rBuiltinFont,
long nPixelPerEM, int nOrientation )
: mrPDFWriterImpl( rPDFWriterImpl ),
mrBuiltinFont( rBuiltinFont ),
mnPixelPerEM( nPixelPerEM )
{
mbIsSymbolFont = (rBuiltinFont.m_eCharSet != RTL_TEXTENCODING_MS_1252);
SetOrientation( nOrientation );
}
// -----------------------------------------------------------------------
bool PDFSalLayout::LayoutText( ImplLayoutArgs& rArgs )
{
const String aText( rArgs.mpStr+rArgs.mnMinCharPos, sal::static_int_cast<xub_StrLen>(rArgs.mnEndCharPos-rArgs.mnMinCharPos) );
SetText( aText );
SetUnitsPerPixel( 1000 );
rtl_UnicodeToTextConverter aConv = rtl_createTextToUnicodeConverter( mrBuiltinFont.m_eCharSet );
Point aNewPos( 0, 0 );
bool bRightToLeft;
for( int nCharPos = -1; rArgs.GetNextPos( &nCharPos, &bRightToLeft ); )
{
// TODO: handle unicode surrogates
// on the other hand the PDF builtin fonts don't support them anyway
sal_Unicode cChar = rArgs.mpStr[ nCharPos ];
if( bRightToLeft )
cChar = static_cast<sal_Unicode>(GetMirroredChar( cChar ));
if( 1 ) // TODO: shortcut for ASCII?
{
sal_Char aBuf[4];
sal_uInt32 nInfo;
sal_Size nSrcCvtChars;
sal_Size nConv = rtl_convertUnicodeToText( aConv,
NULL,
&cChar, 1,
aBuf, sizeof(aBuf)/sizeof(*aBuf),
RTL_UNICODETOTEXT_FLAGS_UNDEFINED_ERROR,
&nInfo, &nSrcCvtChars );
// check whether conversion was possible
// else fallback font is needed as the standard fonts
// are handled via WinAnsi encoding
if( nConv > 0 )
cChar = ((sal_Unicode)aBuf[0]) & 0x00ff;
}
if( cChar & 0xff00 )
{
cChar = 0; // NotDef glyph
rArgs.NeedFallback( nCharPos, bRightToLeft );
}
long nGlyphWidth = (long)mrBuiltinFont.m_aWidths[cChar] * mnPixelPerEM;
long nGlyphFlags = 0; // builtin fonts don't have diacritic glyphs
if( bRightToLeft )
nGlyphFlags |= GlyphItem::IS_RTL_GLYPH;
// TODO: get kerning from builtin fonts
GlyphItem aGI( nCharPos, cChar, aNewPos, nGlyphFlags, nGlyphWidth );
AppendGlyph( aGI );
aNewPos.X() += nGlyphWidth;
}
rtl_destroyUnicodeToTextConverter( aConv );
return true;
}
// -----------------------------------------------------------------------
void PDFSalLayout::InitFont() const
{
// TODO: recreate font with all its attributes
}
// -----------------------------------------------------------------------
void PDFSalLayout::DrawText( SalGraphics& ) const
{
mrPDFWriterImpl.drawLayout( *const_cast<PDFSalLayout*>(this), maOrigText, true );
}
// -----------------------------------------------------------------------
SalLayout* PDFWriterImpl::GetTextLayout( ImplLayoutArgs& rArgs, ImplFontSelectData* pSelect )
{
DBG_ASSERT( (pSelect->mpFontData != NULL),
"PDFWriterImpl::GetTextLayout mpFontData is NULL" );
const ImplPdfBuiltinFontData* pFD = GetPdfFontData( pSelect->mpFontData );
if( !pFD )
return NULL;
const BuiltinFont* pBuiltinFont = pFD->GetBuiltinFont();
long nPixelPerEM = pSelect->mnWidth ? pSelect->mnWidth : pSelect->mnHeight;
int nOrientation = pSelect->mnOrientation;
PDFSalLayout* pLayout = new PDFSalLayout( *this, *pBuiltinFont, nPixelPerEM, nOrientation );
pLayout->SetText( rArgs.mpStr );
return pLayout;
}
sal_Int32 PDFWriterImpl::newPage( sal_Int32 nPageWidth, sal_Int32 nPageHeight, PDFWriter::Orientation eOrientation )
{
if( m_aContext.Encrypt && m_aPages.empty() )
initEncryption();
endPage();
m_nCurrentPage = m_aPages.size();
m_aPages.push_back( PDFPage(this, nPageWidth, nPageHeight, eOrientation ) );
m_aPages.back().m_nPageIndex = m_nCurrentPage;
m_aPages.back().beginStream();
// setup global graphics state
// linewidth is "1 pixel" by default
OStringBuffer aBuf( 16 );
appendDouble( 72.0/double(getReferenceDevice()->ImplGetDPIX()), aBuf );
aBuf.append( " w\n" );
writeBuffer( aBuf.getStr(), aBuf.getLength() );
return m_nCurrentPage;
}
void PDFWriterImpl::endPage()
{
if( m_aPages.begin() != m_aPages.end() )
{
// close eventual MC sequence
endStructureElementMCSeq();
// sanity check
if( m_aOutputStreams.begin() != m_aOutputStreams.end() )
{
DBG_ERROR( "redirection across pages !!!" );
m_aOutputStreams.clear(); // leak !
m_aMapMode.SetOrigin( Point() );
}
m_aGraphicsStack.clear();
m_aGraphicsStack.push_back( GraphicsState() );
// this should pop the PDF graphics stack if necessary
updateGraphicsState();
m_aPages.back().endStream();
// reset the default font
Font aFont;
aFont.SetName( String( RTL_CONSTASCII_USTRINGPARAM( "Times" ) ) );
aFont.SetSize( Size( 0, 12 ) );
m_aCurrentPDFState = m_aGraphicsStack.front();
m_aGraphicsStack.front().m_aFont = aFont;
for( std::list<BitmapEmit>::iterator it = m_aBitmaps.begin();
it != m_aBitmaps.end(); ++it )
{
if( ! it->m_aBitmap.IsEmpty() )
{
writeBitmapObject( *it );
it->m_aBitmap = BitmapEx();
}
}
for( std::list<JPGEmit>::iterator jpeg = m_aJPGs.begin(); jpeg != m_aJPGs.end(); ++jpeg )
{
if( jpeg->m_pStream )
{
writeJPG( *jpeg );
delete jpeg->m_pStream;
jpeg->m_pStream = NULL;
jpeg->m_aMask = Bitmap();
}
}
for( std::list<TransparencyEmit>::iterator t = m_aTransparentObjects.begin();
t != m_aTransparentObjects.end(); ++t )
{
if( t->m_pContentStream )
{
writeTransparentObject( *t );
delete t->m_pContentStream;
t->m_pContentStream = NULL;
}
}
}
}
sal_Int32 PDFWriterImpl::createObject()
{
m_aObjects.push_back( ~0U );
return m_aObjects.size();
}
bool PDFWriterImpl::updateObject( sal_Int32 n )
{
if( ! m_bOpen )
return false;
sal_uInt64 nOffset = ~0U;
oslFileError aError = osl_getFilePos( m_aFile, &nOffset );
DBG_ASSERT( aError == osl_File_E_None, "could not register object" );
if( aError != osl_File_E_None )
{
osl_closeFile( m_aFile );
m_bOpen = false;
}
m_aObjects[ n-1 ] = nOffset;
return aError == osl_File_E_None;
}
#define CHECK_RETURN( x ) if( !(x) ) return 0
sal_Int32 PDFWriterImpl::emitStructParentTree( sal_Int32 nObject )
{
if( nObject > 0 )
{
OStringBuffer aLine( 1024 );
aLine.append( nObject );
aLine.append( " 0 obj\n"
"<</Nums[\n" );
sal_Int32 nTreeItems = m_aStructParentTree.size();
for( sal_Int32 n = 0; n < nTreeItems; n++ )
{
aLine.append( n );
aLine.append( ' ' );
aLine.append( m_aStructParentTree[n] );
aLine.append( "\n" );
}
aLine.append( "]>>\nendobj\n\n" );
CHECK_RETURN( updateObject( nObject ) );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
}
return nObject;
}
const sal_Char* PDFWriterImpl::getAttributeTag( PDFWriter::StructAttribute eAttr )
{
static std::map< PDFWriter::StructAttribute, const char* > aAttributeStrings;
// fill maps once
if( aAttributeStrings.empty() )
{
aAttributeStrings[ PDFWriter::Placement ] = "Placement";
aAttributeStrings[ PDFWriter::WritingMode ] = "WritingMode";
aAttributeStrings[ PDFWriter::SpaceBefore ] = "SpaceBefore";
aAttributeStrings[ PDFWriter::SpaceAfter ] = "SpaceAfter";
aAttributeStrings[ PDFWriter::StartIndent ] = "StartIndent";
aAttributeStrings[ PDFWriter::EndIndent ] = "EndIndent";
aAttributeStrings[ PDFWriter::TextIndent ] = "TextIndent";
aAttributeStrings[ PDFWriter::TextAlign ] = "TextAlign";
aAttributeStrings[ PDFWriter::Width ] = "Width";
aAttributeStrings[ PDFWriter::Height ] = "Height";
aAttributeStrings[ PDFWriter::BlockAlign ] = "BlockAlign";
aAttributeStrings[ PDFWriter::InlineAlign ] = "InlineAlign";
aAttributeStrings[ PDFWriter::LineHeight ] = "LineHeight";
aAttributeStrings[ PDFWriter::BaselineShift ] = "BaselineShift";
aAttributeStrings[ PDFWriter::TextDecorationType ] = "TextDecorationType";
aAttributeStrings[ PDFWriter::ListNumbering ] = "ListNumbering";
aAttributeStrings[ PDFWriter::RowSpan ] = "RowSpan";
aAttributeStrings[ PDFWriter::ColSpan ] = "ColSpan";
aAttributeStrings[ PDFWriter::LinkAnnotation ] = "LinkAnnotation";
}
std::map< PDFWriter::StructAttribute, const char* >::const_iterator it =
aAttributeStrings.find( eAttr );
#if OSL_DEBUG_LEVEL > 1
if( it == aAttributeStrings.end() )
fprintf( stderr, "invalid PDFWriter::StructAttribute %d\n", eAttr );
#endif
return it != aAttributeStrings.end() ? it->second : "";
}
const sal_Char* PDFWriterImpl::getAttributeValueTag( PDFWriter::StructAttributeValue eVal )
{
static std::map< PDFWriter::StructAttributeValue, const char* > aValueStrings;
if( aValueStrings.empty() )
{
aValueStrings[ PDFWriter::NONE ] = "None";
aValueStrings[ PDFWriter::Block ] = "Block";
aValueStrings[ PDFWriter::Inline ] = "Inline";
aValueStrings[ PDFWriter::Before ] = "Before";
aValueStrings[ PDFWriter::After ] = "After";
aValueStrings[ PDFWriter::Start ] = "Start";
aValueStrings[ PDFWriter::End ] = "End";
aValueStrings[ PDFWriter::LrTb ] = "LrTb";
aValueStrings[ PDFWriter::RlTb ] = "RlTb";
aValueStrings[ PDFWriter::TbRl ] = "TbRl";
aValueStrings[ PDFWriter::Center ] = "Center";
aValueStrings[ PDFWriter::Justify ] = "Justify";
aValueStrings[ PDFWriter::Auto ] = "Auto";
aValueStrings[ PDFWriter::Middle ] = "Middle";
aValueStrings[ PDFWriter::Normal ] = "Normal";
aValueStrings[ PDFWriter::Underline ] = "Underline";
aValueStrings[ PDFWriter::Overline ] = "Overline";
aValueStrings[ PDFWriter::LineThrough ] = "LineThrough";
aValueStrings[ PDFWriter::Disc ] = "Disc";
aValueStrings[ PDFWriter::Circle ] = "Circle";
aValueStrings[ PDFWriter::Square ] = "Square";
aValueStrings[ PDFWriter::Decimal ] = "Decimal";
aValueStrings[ PDFWriter::UpperRoman ] = "UpperRoman";
aValueStrings[ PDFWriter::LowerRoman ] = "LowerRoman";
aValueStrings[ PDFWriter::UpperAlpha ] = "UpperAlpha";
aValueStrings[ PDFWriter::LowerAlpha ] = "LowerAlpha";
}
std::map< PDFWriter::StructAttributeValue, const char* >::const_iterator it =
aValueStrings.find( eVal );
#if OSL_DEBUG_LEVEL > 1
if( it == aValueStrings.end() )
fprintf( stderr, "invalid PDFWriter::StructAttributeValue %d\n", eVal );
#endif
return it != aValueStrings.end() ? it->second : "";
}
static void appendStructureAttributeLine( PDFWriter::StructAttribute i_eAttr, const PDFWriterImpl::PDFStructureAttribute& i_rVal, OStringBuffer& o_rLine, bool i_bIsFixedInt )
{
o_rLine.append( "/" );
o_rLine.append( PDFWriterImpl::getAttributeTag( i_eAttr ) );
if( i_rVal.eValue != PDFWriter::Invalid )
{
o_rLine.append( "/" );
o_rLine.append( PDFWriterImpl::getAttributeValueTag( i_rVal.eValue ) );
}
else
{
// numerical value
o_rLine.append( " " );
if( i_bIsFixedInt )
appendFixedInt( i_rVal.nValue, o_rLine );
else
o_rLine.append( i_rVal.nValue );
}
o_rLine.append( "\n" );
}
OString PDFWriterImpl::emitStructureAttributes( PDFStructureElement& i_rEle )
{
// create layout, list and table attribute sets
OStringBuffer aLayout(256), aList(64), aTable(64);
for( PDFStructAttributes::const_iterator it = i_rEle.m_aAttributes.begin();
it != i_rEle.m_aAttributes.end(); ++it )
{
if( it->first == PDFWriter::ListNumbering )
appendStructureAttributeLine( it->first, it->second, aList, true );
else if( it->first == PDFWriter::RowSpan ||
it->first == PDFWriter::ColSpan )
appendStructureAttributeLine( it->first, it->second, aTable, false );
else if( it->first == PDFWriter::LinkAnnotation )
{
sal_Int32 nLink = it->second.nValue;
std::map< sal_Int32, sal_Int32 >::const_iterator link_it =
m_aLinkPropertyMap.find( nLink );
if( link_it != m_aLinkPropertyMap.end() )
nLink = link_it->second;
if( nLink >= 0 && nLink < (sal_Int32)m_aLinks.size() )
{
// update struct parent of link
OStringBuffer aStructParentEntry( 32 );
aStructParentEntry.append( i_rEle.m_nObject );
aStructParentEntry.append( " 0 R" );
m_aStructParentTree.push_back( aStructParentEntry.makeStringAndClear() );
m_aLinks[ nLink ].m_nStructParent = m_aStructParentTree.size()-1;
sal_Int32 nRefObject = createObject();
OStringBuffer aRef( 256 );
aRef.append( nRefObject );
aRef.append( " 0 obj\n"
"<</Type/OBJR/Obj " );
aRef.append( m_aLinks[ nLink ].m_nObject );
aRef.append( " 0 R>>\n"
"endobj\n\n"
);
updateObject( nRefObject );
writeBuffer( aRef.getStr(), aRef.getLength() );
i_rEle.m_aKids.push_back( PDFStructureElementKid( nRefObject ) );
}
else
{
DBG_ERROR( "unresolved link id for Link structure" );
#if OSL_DEBUG_LEVEL > 1
fprintf( stderr, "unresolved link id %" SAL_PRIdINT32 " for Link structure\n", nLink );
{
OStringBuffer aLine( "unresolved link id " );
aLine.append( nLink );
aLine.append( " for Link structure" );
emitComment( aLine.getStr() );
}
#endif
}
}
else
appendStructureAttributeLine( it->first, it->second, aLayout, true );
}
if( ! i_rEle.m_aBBox.IsEmpty() )
{
aLayout.append( "/BBox[" );
appendFixedInt( i_rEle.m_aBBox.Left(), aLayout );
aLayout.append( " " );
appendFixedInt( i_rEle.m_aBBox.Top(), aLayout );
aLayout.append( " " );
appendFixedInt( i_rEle.m_aBBox.Right(), aLayout );
aLayout.append( " " );
appendFixedInt( i_rEle.m_aBBox.Bottom(), aLayout );
aLayout.append( "]\n" );
}
std::vector< sal_Int32 > aAttribObjects;
if( aLayout.getLength() )
{
aAttribObjects.push_back( createObject() );
updateObject( aAttribObjects.back() );
OStringBuffer aObj( 64 );
aObj.append( aAttribObjects.back() );
aObj.append( " 0 obj\n"
"<</O/Layout\n" );
aLayout.append( ">>\nendobj\n\n" );
writeBuffer( aObj.getStr(), aObj.getLength() );
writeBuffer( aLayout.getStr(), aLayout.getLength() );
}
if( aList.getLength() )
{
aAttribObjects.push_back( createObject() );
updateObject( aAttribObjects.back() );
OStringBuffer aObj( 64 );
aObj.append( aAttribObjects.back() );
aObj.append( " 0 obj\n"
"<</O/List\n" );
aList.append( ">>\nendobj\n\n" );
writeBuffer( aObj.getStr(), aObj.getLength() );
writeBuffer( aList.getStr(), aList.getLength() );
}
if( aTable.getLength() )
{
aAttribObjects.push_back( createObject() );
updateObject( aAttribObjects.back() );
OStringBuffer aObj( 64 );
aObj.append( aAttribObjects.back() );
aObj.append( " 0 obj\n"
"<</O/Table\n" );
aTable.append( ">>\nendobj\n\n" );
writeBuffer( aObj.getStr(), aObj.getLength() );
writeBuffer( aTable.getStr(), aTable.getLength() );
}
OStringBuffer aRet( 64 );
if( aAttribObjects.size() > 1 )
aRet.append( " [" );
for( std::vector< sal_Int32 >::const_iterator at_it = aAttribObjects.begin();
at_it != aAttribObjects.end(); ++at_it )
{
aRet.append( " " );
aRet.append( *at_it );
aRet.append( " 0 R" );
}
if( aAttribObjects.size() > 1 )
aRet.append( " ]" );
return aRet.makeStringAndClear();
}
sal_Int32 PDFWriterImpl::emitStructure( PDFStructureElement& rEle )
{
if(
// do not emit NonStruct and its children
rEle.m_eType == PDFWriter::NonStructElement &&
rEle.m_nOwnElement != rEle.m_nParentElement // but of course emit the struct tree root
)
return 0;
for( std::list< sal_Int32 >::const_iterator it = rEle.m_aChildren.begin(); it != rEle.m_aChildren.end(); ++it )
{
if( *it > 0 && *it < sal_Int32(m_aStructure.size()) )
{
PDFStructureElement& rChild = m_aStructure[ *it ];
if( rChild.m_eType != PDFWriter::NonStructElement )
{
if( rChild.m_nParentElement == rEle.m_nOwnElement )
emitStructure( rChild );
else
{
DBG_ERROR( "PDFWriterImpl::emitStructure: invalid child structure element" );
#if OSL_DEBUG_LEVEL > 1
fprintf( stderr, "PDFWriterImpl::emitStructure: invalid child structure elemnt with id %" SAL_PRIdINT32 "\n", *it );
#endif
}
}
}
else
{
DBG_ERROR( "PDFWriterImpl::emitStructure: invalid child structure id" );
#if OSL_DEBUG_LEVEL > 1
fprintf( stderr, "PDFWriterImpl::emitStructure: invalid child structure id %" SAL_PRIdINT32 "\n", *it );
#endif
}
}
OStringBuffer aLine( 512 );
aLine.append( rEle.m_nObject );
aLine.append( " 0 obj\n"
"<</Type" );
sal_Int32 nParentTree = -1;
if( rEle.m_nOwnElement == rEle.m_nParentElement )
{
nParentTree = createObject();
CHECK_RETURN( nParentTree );
aLine.append( "/StructTreeRoot\n" );
aLine.append( "/ParentTree " );
aLine.append( nParentTree );
aLine.append( " 0 R\n" );
if( ! m_aRoleMap.empty() )
{
aLine.append( "/RoleMap<<" );
for( std::hash_map<OString,OString,OStringHash>::const_iterator
it = m_aRoleMap.begin(); it != m_aRoleMap.end(); ++it )
{
aLine.append( '/' );
aLine.append(it->first);
aLine.append( '/' );
aLine.append( it->second );
aLine.append( '\n' );
}
aLine.append( ">>\n" );
}
}
else
{
aLine.append( "/StructElem\n"
"/S/" );
if( rEle.m_aAlias.getLength() > 0 )
aLine.append( rEle.m_aAlias );
else
aLine.append( getStructureTag( rEle.m_eType ) );
aLine.append( "\n"
"/P " );
aLine.append( m_aStructure[ rEle.m_nParentElement ].m_nObject );
aLine.append( " 0 R\n"
"/Pg " );
aLine.append( rEle.m_nFirstPageObject );
aLine.append( " 0 R\n" );
if( rEle.m_aActualText.getLength() )
{
aLine.append( "/ActualText" );
appendUnicodeTextStringEncrypt( rEle.m_aActualText, rEle.m_nObject, aLine );
aLine.append( "\n" );
}
if( rEle.m_aAltText.getLength() )
{
aLine.append( "/Alt" );
appendUnicodeTextStringEncrypt( rEle.m_aAltText, rEle.m_nObject, aLine );
aLine.append( "\n" );
}
}
if( ! rEle.m_aBBox.IsEmpty() || rEle.m_aAttributes.size() )
{
OString aAttribs = emitStructureAttributes( rEle );
if( aAttribs.getLength() )
{
aLine.append( "/A" );
aLine.append( aAttribs );
aLine.append( "\n" );
}
}
if( rEle.m_aLocale.Language.getLength() > 0 )
{
OUStringBuffer aLocBuf( 16 );
aLocBuf.append( rEle.m_aLocale.Language.toAsciiLowerCase() );
if( rEle.m_aLocale.Country.getLength() > 0 )
{
aLocBuf.append( sal_Unicode('-') );
aLocBuf.append( rEle.m_aLocale.Country );
}
aLine.append( "/Lang" );
appendLiteralStringEncrypt( aLocBuf.makeStringAndClear(), rEle.m_nObject, aLine );
aLine.append( "\n" );
}
if( ! rEle.m_aKids.empty() )
{
unsigned int i = 0;
aLine.append( "/K[" );
for( std::list< PDFStructureElementKid >::const_iterator it =
rEle.m_aKids.begin(); it != rEle.m_aKids.end(); ++it, i++ )
{
if( it->nMCID == -1 )
{
aLine.append( it->nObject );
aLine.append( " 0 R" );
aLine.append( ( (i & 15) == 15 ) ? "\n" : " " );
}
else
{
if( it->nObject == rEle.m_nFirstPageObject )
{
aLine.append( it->nMCID );
aLine.append( " " );
}
else
{
aLine.append( "<</Type/MCR/Pg " );
aLine.append( it->nObject );
aLine.append( " 0 R /MCID " );
aLine.append( it->nMCID );
aLine.append( ">>\n" );
}
}
}
aLine.append( "]\n" );
}
aLine.append( ">>\nendobj\n\n" );
CHECK_RETURN( updateObject( rEle.m_nObject ) );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
CHECK_RETURN( emitStructParentTree( nParentTree ) );
return rEle.m_nObject;
}
bool PDFWriterImpl::emitGradients()
{
for( std::list<GradientEmit>::iterator it = m_aGradients.begin();
it != m_aGradients.end(); ++it )
{
CHECK_RETURN( writeGradientFunction( *it ) );
}
return true;
}
bool PDFWriterImpl::emitTilings()
{
OStringBuffer aTilingObj( 1024 );
for( std::vector<TilingEmit>::iterator it = m_aTilings.begin(); it != m_aTilings.end(); ++it )
{
DBG_ASSERT( it->m_pTilingStream, "tiling without stream" );
if( ! it->m_pTilingStream )
continue;
aTilingObj.setLength( 0 );
#if OSL_DEBUG_LEVEL > 1
{
OStringBuffer aLine( "PDFWriterImpl::emitTilings" );
emitComment( aLine.getStr() );
}
#endif
sal_Int32 nX = (sal_Int32)it->m_aRectangle.Left();
sal_Int32 nY = (sal_Int32)it->m_aRectangle.Top();
sal_Int32 nW = (sal_Int32)it->m_aRectangle.GetWidth();
sal_Int32 nH = (sal_Int32)it->m_aRectangle.GetHeight();
if( it->m_aCellSize.Width() == 0 )
it->m_aCellSize.Width() = nW;
if( it->m_aCellSize.Height() == 0 )
it->m_aCellSize.Height() = nH;
bool bDeflate = compressStream( it->m_pTilingStream );
it->m_pTilingStream->Seek( STREAM_SEEK_TO_END );
sal_Size nTilingStreamSize = it->m_pTilingStream->Tell();
it->m_pTilingStream->Seek( STREAM_SEEK_TO_BEGIN );
// write pattern object
aTilingObj.append( it->m_nObject );
aTilingObj.append( " 0 obj\n" );
aTilingObj.append( "<</Type/Pattern/PatternType 1\n"
"/PaintType 1\n"
"/TilingType 2\n"
"/BBox[" );
appendFixedInt( nX, aTilingObj );
aTilingObj.append( ' ' );
appendFixedInt( nY, aTilingObj );
aTilingObj.append( ' ' );
appendFixedInt( nX+nW, aTilingObj );
aTilingObj.append( ' ' );
appendFixedInt( nY+nH, aTilingObj );
aTilingObj.append( "]\n"
"/XStep " );
appendFixedInt( it->m_aCellSize.Width(), aTilingObj );
aTilingObj.append( "\n"
"/YStep " );
appendFixedInt( it->m_aCellSize.Height(), aTilingObj );
aTilingObj.append( "\n" );
if( it->m_aTransform.matrix[0] != 1.0 ||
it->m_aTransform.matrix[1] != 0.0 ||
it->m_aTransform.matrix[3] != 0.0 ||
it->m_aTransform.matrix[4] != 1.0 ||
it->m_aTransform.matrix[2] != 0.0 ||
it->m_aTransform.matrix[5] != 0.0 )
{
aTilingObj.append( "/Matrix [" );
// TODO: scaling, mirroring on y, etc
appendDouble( it->m_aTransform.matrix[0], aTilingObj );
aTilingObj.append( ' ' );
appendDouble( it->m_aTransform.matrix[1], aTilingObj );
aTilingObj.append( ' ' );
appendDouble( it->m_aTransform.matrix[3], aTilingObj );
aTilingObj.append( ' ' );
appendDouble( it->m_aTransform.matrix[4], aTilingObj );
aTilingObj.append( ' ' );
appendDouble( it->m_aTransform.matrix[2], aTilingObj );
aTilingObj.append( ' ' );
appendDouble( it->m_aTransform.matrix[5], aTilingObj );
aTilingObj.append( "]\n" );
}
aTilingObj.append( "/Resources" );
it->m_aResources.append( aTilingObj, getFontDictObject() );
if( bDeflate )
aTilingObj.append( "/Filter/FlateDecode" );
aTilingObj.append( "/Length " );
aTilingObj.append( (sal_Int32)nTilingStreamSize );
aTilingObj.append( ">>\nstream\n" );
CHECK_RETURN( updateObject( it->m_nObject ) );
CHECK_RETURN( writeBuffer( aTilingObj.getStr(), aTilingObj.getLength() ) );
checkAndEnableStreamEncryption( it->m_nObject );
nTilingStreamSize = writeBuffer( it->m_pTilingStream->GetData(), nTilingStreamSize );
delete it->m_pTilingStream;
it->m_pTilingStream = NULL;
if( nTilingStreamSize == 0 )
return false;
disableStreamEncryption();
aTilingObj.setLength( 0 );
aTilingObj.append( "\nendstream\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aTilingObj.getStr(), aTilingObj.getLength() ) );
}
return true;
}
sal_Int32 PDFWriterImpl::emitBuiltinFont( const ImplFontData* pFont, sal_Int32 nFontObject )
{
const ImplPdfBuiltinFontData* pFD = GetPdfFontData( pFont );
if( !pFD )
return 0;
const BuiltinFont* pBuiltinFont = pFD->GetBuiltinFont();
OStringBuffer aLine( 1024 );
if( nFontObject <= 0 )
nFontObject = createObject();
CHECK_RETURN( updateObject( nFontObject ) );
aLine.append( nFontObject );
aLine.append( " 0 obj\n"
"<</Type/Font/Subtype/Type1/BaseFont/" );
appendName( pBuiltinFont->m_pPSName, aLine );
aLine.append( "\n" );
if( pBuiltinFont->m_eCharSet == RTL_TEXTENCODING_MS_1252 )
aLine.append( "/Encoding/WinAnsiEncoding\n" );
aLine.append( ">>\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
return nFontObject;
}
std::map< sal_Int32, sal_Int32 > PDFWriterImpl::emitSystemFont( const ImplFontData* pFont, EmbedFont& rEmbed )
{
std::map< sal_Int32, sal_Int32 > aRet;
if( isBuiltinFont( pFont ) )
{
aRet[ rEmbed.m_nNormalFontID ] = emitBuiltinFont( pFont );
return aRet;
}
sal_Int32 nFontObject = 0;
sal_Int32 nFontDescriptor = 0;
rtl::OString aSubType( "/Type1" );
FontSubsetInfo aInfo;
// fill in dummy values
aInfo.m_nAscent = 1000;
aInfo.m_nDescent = 200;
aInfo.m_nCapHeight = 1000;
aInfo.m_aFontBBox = Rectangle( Point( -200, -200 ), Size( 1700, 1700 ) );
aInfo.m_aPSName = pFont->maName;
sal_Int32 pWidths[256];
rtl_zeroMemory( pWidths, sizeof(pWidths) );
if( pFont->IsEmbeddable() )
{
const unsigned char* pFontData = NULL;
long nFontLen = 0;
sal_Ucs nEncodedCodes[256];
sal_Int32 pEncWidths[256];
if( (pFontData = (const unsigned char*)m_pReferenceDevice->mpGraphics->GetEmbedFontData( pFont, nEncodedCodes, pEncWidths, aInfo, &nFontLen )) != NULL )
{
m_pReferenceDevice->mpGraphics->FreeEmbedFontData( pFontData, nFontLen );
for( int i = 0; i < 256; i++ )
{
if( nEncodedCodes[i] >= 32 && nEncodedCodes[i] < 256 )
{
pWidths[i] = pEncWidths[ i ];
}
}
}
}
else if( pFont->mbSubsettable )
{
aSubType = rtl::OString( "/TrueType" );
Int32Vector aGlyphWidths;
Ucs2UIntMap aUnicodeMap;
m_pReferenceDevice->mpGraphics->GetGlyphWidths( pFont, false, aGlyphWidths, aUnicodeMap );
OUString aTmpName;
osl_createTempFile( NULL, NULL, &aTmpName.pData );
sal_Int32 pGlyphIDs[ 256 ];
sal_uInt8 pEncoding[ 256 ];
sal_Ucs pUnicodes[ 256 ];
sal_Int32 pDuWidths[ 256 ];
memset( pGlyphIDs, 0, sizeof( pGlyphIDs ) );
memset( pEncoding, 0, sizeof( pEncoding ) );
memset( pUnicodes, 0, sizeof( pUnicodes ) );
memset( pDuWidths, 0, sizeof( pDuWidths ) );
for( sal_Ucs c = 32; c < 256; c++ )
{
pUnicodes[c] = c;
pEncoding[c] = c;
pGlyphIDs[c] = 0;
if( aUnicodeMap.find( c ) != aUnicodeMap.end() )
pWidths[ c ] = aGlyphWidths[ aUnicodeMap[ c ] ];
}
m_pReferenceDevice->mpGraphics->CreateFontSubset( aTmpName, pFont, pGlyphIDs, pEncoding, pDuWidths, 256, aInfo );
osl_removeFile( aTmpName.pData );
}
else
{
DBG_ERROR( "system font neither embeddable nor subsettable" );
}
// write font descriptor
nFontDescriptor = emitFontDescriptor( pFont, aInfo, 0, 0 );
if( nFontDescriptor )
{
// write font object
sal_Int32 nObject = createObject();
if( updateObject( nObject ) )
{
OStringBuffer aLine( 1024 );
aLine.append( nObject );
aLine.append( " 0 obj\n"
"<</Type/Font/Subtype" );
aLine.append( aSubType );
aLine.append( "/BaseFont/" );
appendName( aInfo.m_aPSName, aLine );
aLine.append( "\n" );
if( !pFont->mbSymbolFlag )
aLine.append( "/Encoding/WinAnsiEncoding\n" );
aLine.append( "/FirstChar 32 /LastChar 255\n"
"/Widths[" );
for( int i = 32; i < 256; i++ )
{
aLine.append( pWidths[i] );
aLine.append( ((i&15) == 15) ? "\n" : " " );
}
aLine.append( "]\n"
"/FontDescriptor " );
aLine.append( nFontDescriptor );
aLine.append( " 0 R>>\n"
"endobj\n\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
nFontObject = nObject;
aRet[ rEmbed.m_nNormalFontID ] = nObject;
}
}
return aRet;
}
typedef int ThreeInts[3];
static bool getPfbSegmentLengths( const unsigned char* pFontBytes, int nByteLen,
ThreeInts& rSegmentLengths )
{
if( !pFontBytes || (nByteLen < 0) )
return false;
const unsigned char* pPtr = pFontBytes;
const unsigned char* pEnd = pFontBytes + nByteLen;
for( int i = 0; i < 3; ++i) {
// read segment1 header
if( pPtr+6 >= pEnd )
return false;
if( (pPtr[0] != 0x80) || (pPtr[1] >= 0x03) )
return false;
const int nLen = (pPtr[5]<<24) + (pPtr[4]<<16) + (pPtr[3]<<8) + pPtr[2];
if( nLen <= 0)
return false;
rSegmentLengths[i] = nLen;
pPtr += nLen + 6;
}
// read segment-end header
if( pPtr+2 >= pEnd )
return false;
if( (pPtr[0] != 0x80) || (pPtr[1] != 0x03) )
return false;
return true;
}
struct FontException : public std::exception
{
};
// TODO: always subset instead of embedding the full font => this method becomes obsolete then
std::map< sal_Int32, sal_Int32 > PDFWriterImpl::emitEmbeddedFont( const ImplFontData* pFont, EmbedFont& rEmbed )
{
std::map< sal_Int32, sal_Int32 > aRet;
if( isBuiltinFont( pFont ) )
{
aRet[ rEmbed.m_nNormalFontID ] = emitBuiltinFont( pFont );
return aRet;
}
sal_Int32 nFontObject = 0;
sal_Int32 nStreamObject = 0;
sal_Int32 nFontDescriptor = 0;
// prepare font encoding
const Ucs2SIntMap* pEncoding = m_pReferenceDevice->mpGraphics->GetFontEncodingVector( pFont, NULL );
sal_Int32 nToUnicodeStream = 0;
sal_uInt8 nEncoding[256];
sal_Ucs nEncodedCodes[256];
std::vector<sal_Ucs> aUnicodes;
aUnicodes.reserve( 256 );
sal_Int32 pUnicodesPerGlyph[256];
sal_Int32 pEncToUnicodeIndex[256];
if( pEncoding )
{
rtl_zeroMemory( nEncoding, sizeof(nEncoding) );
rtl_zeroMemory( nEncodedCodes, sizeof(nEncodedCodes) );
rtl_zeroMemory( pUnicodesPerGlyph, sizeof(pUnicodesPerGlyph) );
rtl_zeroMemory( pEncToUnicodeIndex, sizeof(pEncToUnicodeIndex) );
for( Ucs2SIntMap::const_iterator it = pEncoding->begin(); it != pEncoding->end(); ++it )
{
if( it->second != -1 )
{
sal_Int32 nCode = (sal_Int32)(it->second & 0x000000ff);
nEncoding[ nCode ] = static_cast<sal_uInt8>( nCode );
nEncodedCodes[ nCode ] = it->first;
pEncToUnicodeIndex[ nCode ] = static_cast<sal_Int32>(aUnicodes.size());
aUnicodes.push_back( it->first );
pUnicodesPerGlyph[ nCode ] = 1;
}
}
}
FontSubsetInfo aInfo;
sal_Int32 pWidths[256];
const unsigned char* pFontData = NULL;
long nFontLen = 0;
sal_Int32 nLength1, nLength2;
try
{
if( (pFontData = (const unsigned char*)m_pReferenceDevice->mpGraphics->GetEmbedFontData( pFont, nEncodedCodes, pWidths, aInfo, &nFontLen )) != NULL )
{
if( (aInfo.m_nFontType & FontSubsetInfo::ANY_TYPE1) == 0 )
throw FontException();
// see whether it is pfb or pfa; if it is a pfb, fill ranges
// of 6 bytes that are not part of the font program
std::list< int > aSections;
std::list< int >::const_iterator it;
int nIndex = 0;
while( pFontData[nIndex] == 0x80 && nIndex < nFontLen-1 )
{
aSections.push_back( nIndex );
if( pFontData[nIndex+1] == 0x03 )
break;
sal_Int32 nBytes =
((sal_Int32)pFontData[nIndex+2]) |
((sal_Int32)pFontData[nIndex+3]) << 8 |
((sal_Int32)pFontData[nIndex+4]) << 16 |
((sal_Int32)pFontData[nIndex+5]) << 24;
nIndex += nBytes+6;
}
// search for eexec
// TODO: use getPfbSegmentLengths() if possible to skip the search thingies below
nIndex = 0;
int nEndAsciiIndex;
int nBeginBinaryIndex;
int nEndBinaryIndex;
do
{
while( nIndex < nFontLen-4 &&
( pFontData[nIndex] != 'e' ||
pFontData[nIndex+1] != 'e' ||
pFontData[nIndex+2] != 'x' ||
pFontData[nIndex+3] != 'e' ||
pFontData[nIndex+4] != 'c'
)
)
nIndex++;
// check whether we are in a excluded section
for( it = aSections.begin(); it != aSections.end() && (nIndex < *it || nIndex > ((*it) + 5) ); ++it )
;
} while( it != aSections.end() && nIndex < nFontLen-4 );
// this should end the ascii part
if( nIndex > nFontLen-5 )
throw FontException();
nEndAsciiIndex = nIndex+4;
// now count backwards until we can account for 512 '0'
// which is the endmarker of the (hopefully) binary data
// do not count the pfb header sections
int nFound = 0;
nIndex = nFontLen-1;
while( nIndex > 0 && nFound < 512 )
{
for( it = aSections.begin(); it != aSections.end() && (nIndex < *it || nIndex > ((*it) + 5) ); ++it )
;
if( it == aSections.end() )
{
// inside the 512 '0' block there may only be whitespace
// according to T1 spec; probably it would be to simple
// if all fonts complied
if( pFontData[nIndex] == '0' )
nFound++;
else if( nFound > 0 &&
pFontData[nIndex] != '\r' &&
pFontData[nIndex] != '\t' &&
pFontData[nIndex] != '\n' &&
pFontData[nIndex] != ' ' )
break;
}
nIndex--;
}
if( nIndex < 1 || nIndex <= nEndAsciiIndex )
throw FontException();
// nLength3 is the rest of the file - excluding any section headers
// nIndex now points to the first of the 512 '0' characters marking the
// fixed content portion
sal_Int32 nLength3 = nFontLen - nIndex;
for( it = aSections.begin(); it != aSections.end(); ++it )
{
if( *it >= nIndex )
{
// special case: nIndex inside a section marker
if( nIndex >= (*it) && (*it)+5 > nIndex )
nLength3 -= (*it)+5 - nIndex;
else
{
if( *it < nFontLen - 6 )
nLength3 -= 6;
else // the last section 0x8003 is only 2 bytes after all
nLength3 -= (nFontLen - *it);
}
}
}
// there may be whitespace to ignore before the 512 '0'
while( pFontData[nIndex] == '\r' || pFontData[nIndex] == '\n' )
{
nIndex--;
for( it = aSections.begin(); it != aSections.end() && (nIndex < *it || nIndex > ((*it) + 5) ); ++it )
;
if( it != aSections.end() )
{
nIndex = (*it)-1;
break; // this is surely a binary boundary, in ascii case it wouldn't matter
}
}
nEndBinaryIndex = nIndex;
// search for beginning of binary section
nBeginBinaryIndex = nEndAsciiIndex;
do
{
nBeginBinaryIndex++;
for( it = aSections.begin(); it != aSections.end() && (nBeginBinaryIndex < *it || nBeginBinaryIndex > ((*it) + 5) ); ++it )
;
} while( nBeginBinaryIndex < nEndBinaryIndex &&
( pFontData[nBeginBinaryIndex] == '\r' ||
pFontData[nBeginBinaryIndex] == '\n' ||
it != aSections.end() ) );
// it seems to be vital to copy the exact whitespace between binary data
// and eexec, else a invalid font results. so make nEndAsciiIndex
// always immediate in front of nBeginBinaryIndex
nEndAsciiIndex = nBeginBinaryIndex-1;
for( it = aSections.begin(); it != aSections.end() && (nEndAsciiIndex < *it || nEndAsciiIndex > ((*it)+5)); ++it )
;
if( it != aSections.end() )
nEndAsciiIndex = (*it)-1;
nLength1 = nEndAsciiIndex+1; // including the last character
for( it = aSections.begin(); it != aSections.end() && *it < nEndAsciiIndex; ++it )
nLength1 -= 6; // decrease by pfb section size
// if the first four bytes are all ascii hex characters, then binary data
// has to be converted to real binary data
for( nIndex = 0; nIndex < 4 &&
( ( pFontData[ nBeginBinaryIndex+nIndex ] >= '0' && pFontData[ nBeginBinaryIndex+nIndex ] <= '9' ) ||
( pFontData[ nBeginBinaryIndex+nIndex ] >= 'a' && pFontData[ nBeginBinaryIndex+nIndex ] <= 'f' ) ||
( pFontData[ nBeginBinaryIndex+nIndex ] >= 'A' && pFontData[ nBeginBinaryIndex+nIndex ] <= 'F' )
); ++nIndex )
;
bool bConvertHexData = true;
if( nIndex < 4 )
{
bConvertHexData = false;
nLength2 = nEndBinaryIndex - nBeginBinaryIndex + 1; // include the last byte
for( it = aSections.begin(); it != aSections.end(); ++it )
if( *it > nBeginBinaryIndex && *it < nEndBinaryIndex )
nLength2 -= 6;
}
else
{
// count the hex ascii characters to get nLength2
nLength2 = 0;
int nNextSectionIndex = 0;
for( it = aSections.begin(); it != aSections.end() && *it < nBeginBinaryIndex; ++it )
;
if( it != aSections.end() )
nNextSectionIndex = *it;
for( nIndex = nBeginBinaryIndex; nIndex <= nEndBinaryIndex; nIndex++ )
{
if( nIndex == nNextSectionIndex )
{
nIndex += 6;
++it;
nNextSectionIndex = (it == aSections.end() ? 0 : *it );
}
if( ( pFontData[ nIndex ] >= '0' && pFontData[ nIndex ] <= '9' ) ||
( pFontData[ nIndex ] >= 'a' && pFontData[ nIndex ] <= 'f' ) ||
( pFontData[ nIndex ] >= 'A' && pFontData[ nIndex ] <= 'F' ) )
nLength2++;
}
DBG_ASSERT( !(nLength2 & 1), "uneven number of hex chars in binary pfa section" );
nLength2 /= 2;
}
// now we can actually write the font stream !
#if OSL_DEBUG_LEVEL > 1
{
OStringBuffer aLine( " PDFWriterImpl::emitEmbeddedFont" );
emitComment( aLine.getStr() );
}
#endif
OStringBuffer aLine( 512 );
nStreamObject = createObject();
if( !updateObject(nStreamObject))
throw FontException();
sal_Int32 nStreamLengthObject = createObject();
aLine.append( nStreamObject );
aLine.append( " 0 obj\n"
"<</Length " );
aLine.append( nStreamLengthObject );
aLine.append( " 0 R"
#ifndef DEBUG_DISABLE_PDFCOMPRESSION
"/Filter/FlateDecode"
#endif
"/Length1 " );
aLine.append( nLength1 );
aLine.append( " /Length2 " );
aLine.append( nLength2 );
aLine.append( " /Length3 ");
aLine.append( nLength3 );
aLine.append( ">>\n"
"stream\n" );
if( !writeBuffer( aLine.getStr(), aLine.getLength() ) )
throw FontException();
sal_uInt64 nBeginStreamPos = 0;
osl_getFilePos( m_aFile, &nBeginStreamPos );
beginCompression();
checkAndEnableStreamEncryption( nStreamObject );
// write ascii section
if( aSections.begin() == aSections.end() )
{
if( ! writeBuffer( pFontData, nEndAsciiIndex+1 ) )
throw FontException();
}
else
{
// first section always starts at 0
it = aSections.begin();
nIndex = (*it)+6;
++it;
while( *it < nEndAsciiIndex )
{
if( ! writeBuffer( pFontData+nIndex, (*it)-nIndex ) )
throw FontException();
nIndex = (*it)+6;
++it;
}
// write partial last section
if( ! writeBuffer( pFontData+nIndex, nEndAsciiIndex-nIndex+1 ) )
throw FontException();
}
// write binary section
if( ! bConvertHexData )
{
if( aSections.begin() == aSections.end() )
{
if( ! writeBuffer( pFontData+nBeginBinaryIndex, nFontLen-nBeginBinaryIndex ) )
throw FontException();
}
else
{
for( it = aSections.begin(); *it < nBeginBinaryIndex; ++it )
;
// write first partial section
if( ! writeBuffer( pFontData+nBeginBinaryIndex, (*it) - nBeginBinaryIndex ) )
throw FontException();
// write following sections
while( it != aSections.end() )
{
nIndex = (*it)+6;
++it;
if( nIndex < nFontLen ) // last section marker is usually the EOF which has only 2 bytes
{
sal_Int32 nSectionLen = (it == aSections.end()) ? nFontLen - nIndex : (*it) - nIndex;
if( ! writeBuffer( pFontData+nIndex, nSectionLen ) )
throw FontException();
}
}
}
}
else
{
boost::shared_array<unsigned char> pWriteBuffer( new unsigned char[ nLength2 ] );
rtl_zeroMemory( pWriteBuffer.get(), nLength2 );
int nWriteIndex = 0;
int nNextSectionIndex = 0;
for( it = aSections.begin(); it != aSections.end() && *it < nBeginBinaryIndex; ++it )
;
if( it != aSections.end() )
nNextSectionIndex = *it;
for( nIndex = nBeginBinaryIndex; nIndex <= nEndBinaryIndex; nIndex++ )
{
if( nIndex == nNextSectionIndex )
{
nIndex += 6;
++it;
nNextSectionIndex = (it == aSections.end() ? nFontLen : *it );
}
unsigned char cNibble = 0x80;
if( pFontData[ nIndex ] >= '0' && pFontData[ nIndex ] <= '9' )
cNibble = pFontData[nIndex] - '0';
else if( pFontData[ nIndex ] >= 'a' && pFontData[ nIndex ] <= 'f' )
cNibble = pFontData[nIndex] - 'a' + 10;
else if( pFontData[ nIndex ] >= 'A' && pFontData[ nIndex ] <= 'F' )
cNibble = pFontData[nIndex] - 'A' + 10;
if( cNibble != 0x80 )
{
if( !(nWriteIndex & 1 ) )
cNibble <<= 4;
pWriteBuffer.get()[ nWriteIndex/2 ] |= cNibble;
nWriteIndex++;
}
}
if( ! writeBuffer( pWriteBuffer.get(), nLength2 ) )
throw FontException();
if( aSections.empty() )
{
if( ! writeBuffer( pFontData+nIndex, nFontLen-nIndex ) )
throw FontException();
}
else
{
// write rest of this section
if( nIndex < nNextSectionIndex )
{
if( ! writeBuffer( pFontData+nIndex, nNextSectionIndex - nIndex ) )
throw FontException();
}
// write following sections
while( it != aSections.end() )
{
nIndex = (*it)+6;
++it;
if( nIndex < nFontLen ) // last section marker is usually the EOF which has only 2 bytes
{
sal_Int32 nSectionLen = (it == aSections.end()) ? nFontLen - nIndex : (*it) - nIndex;
if( ! writeBuffer( pFontData+nIndex, nSectionLen ) )
throw FontException();
}
}
}
}
endCompression();
disableStreamEncryption();
sal_uInt64 nEndStreamPos = 0;
osl_getFilePos( m_aFile, &nEndStreamPos );
// and finally close the stream
aLine.setLength( 0 );
aLine.append( "\nendstream\nendobj\n\n" );
if( ! writeBuffer( aLine.getStr(), aLine.getLength() ) )
throw FontException();
// write stream length object
aLine.setLength( 0 );
if( ! updateObject( nStreamLengthObject ) )
throw FontException();
aLine.append( nStreamLengthObject );
aLine.append( " 0 obj\n" );
aLine.append( (sal_Int64)(nEndStreamPos-nBeginStreamPos ) );
aLine.append( "\nendobj\n\n" );
if( ! writeBuffer( aLine.getStr(), aLine.getLength() ) )
throw FontException();
}
else
{
rtl::OStringBuffer aErrorComment( 256 );
aErrorComment.append( "GetEmbedFontData failed for font \"" );
aErrorComment.append( OUStringToOString( pFont->GetFamilyName(), RTL_TEXTENCODING_UTF8 ) );
aErrorComment.append( '\"' );
if( pFont->GetSlant() == ITALIC_NORMAL )
aErrorComment.append( " italic" );
else if( pFont->GetSlant() == ITALIC_OBLIQUE )
aErrorComment.append( " oblique" );
aErrorComment.append( " weight=" );
aErrorComment.append( sal_Int32(pFont->GetWeight()) );
emitComment( aErrorComment.getStr() );
}
if( nStreamObject )
// write font descriptor
nFontDescriptor = emitFontDescriptor( pFont, aInfo, 0, nStreamObject );
if( nFontDescriptor )
{
if( pEncoding )
nToUnicodeStream = createToUnicodeCMap( nEncoding, &aUnicodes[0], pUnicodesPerGlyph, pEncToUnicodeIndex, sizeof(nEncoding)/sizeof(nEncoding[0]) );
// write font object
sal_Int32 nObject = createObject();
if( ! updateObject( nObject ) )
throw FontException();
OStringBuffer aLine( 1024 );
aLine.append( nObject );
aLine.append( " 0 obj\n"
"<</Type/Font/Subtype/Type1/BaseFont/" );
appendName( aInfo.m_aPSName, aLine );
aLine.append( "\n" );
if( !pFont->mbSymbolFlag && pEncoding == 0 )
aLine.append( "/Encoding/WinAnsiEncoding\n" );
if( nToUnicodeStream )
{
aLine.append( "/ToUnicode " );
aLine.append( nToUnicodeStream );
aLine.append( " 0 R\n" );
}
aLine.append( "/FirstChar 0 /LastChar 255\n"
"/Widths[" );
for( int i = 0; i < 256; i++ )
{
aLine.append( pWidths[i] );
aLine.append( ((i&15) == 15) ? "\n" : " " );
}
aLine.append( "]\n"
"/FontDescriptor " );
aLine.append( nFontDescriptor );
aLine.append( " 0 R>>\n"
"endobj\n\n" );
if( ! writeBuffer( aLine.getStr(), aLine.getLength() ) )
throw FontException();
nFontObject = nObject;
aRet[ rEmbed.m_nNormalFontID ] = nObject;
// write additional encodings
for( std::list< EmbedEncoding >::iterator enc_it = rEmbed.m_aExtendedEncodings.begin(); enc_it != rEmbed.m_aExtendedEncodings.end(); ++enc_it )
{
sal_Int32 aEncWidths[ 256 ];
// emit encoding dict
sal_Int32 nEncObject = createObject();
if( ! updateObject( nEncObject ) )
throw FontException();
OutputDevice* pRef = getReferenceDevice();
pRef->Push( PUSH_FONT | PUSH_MAPMODE );
pRef->SetMapMode( MapMode( MAP_PIXEL ) );
Font aFont( pFont->GetFamilyName(), pFont->GetStyleName(), Size( 0, 1000 ) );
aFont.SetWeight( pFont->GetWeight() );
aFont.SetItalic( pFont->GetSlant() );
aFont.SetPitch( pFont->GetPitch() );
pRef->SetFont( aFont );
pRef->ImplNewFont();
aLine.setLength( 0 );
aLine.append( nEncObject );
aLine.append( " 0 obj\n"
"<</Type/Encoding/Differences[ 0\n" );
int nEncoded = 0;
aUnicodes.clear();
for( std::vector< EmbedCode >::iterator str_it = enc_it->m_aEncVector.begin(); str_it != enc_it->m_aEncVector.end(); ++str_it )
{
String aStr( str_it->m_aUnicode );
aEncWidths[nEncoded] = pRef->GetTextWidth( aStr );
nEncodedCodes[nEncoded] = str_it->m_aUnicode;
nEncoding[nEncoded] = sal::static_int_cast<sal_uInt8>(nEncoded);
pEncToUnicodeIndex[nEncoded] = static_cast<sal_Int32>(aUnicodes.size());
aUnicodes.push_back( nEncodedCodes[nEncoded] );
pUnicodesPerGlyph[nEncoded] = 1;
aLine.append( " /" );
aLine.append( str_it->m_aName );
if( !((++nEncoded) & 15) )
aLine.append( "\n" );
}
aLine.append( "]>>\n"
"endobj\n\n" );
pRef->Pop();
if( ! writeBuffer( aLine.getStr(), aLine.getLength() ) )
throw FontException();
nToUnicodeStream = createToUnicodeCMap( nEncoding, &aUnicodes[0], pUnicodesPerGlyph, pEncToUnicodeIndex, nEncoded );
nObject = createObject();
if( ! updateObject( nObject ) )
throw FontException();
aLine.setLength( 0 );
aLine.append( nObject );
aLine.append( " 0 obj\n"
"<</Type/Font/Subtype/Type1/BaseFont/" );
appendName( aInfo.m_aPSName, aLine );
aLine.append( "\n" );
aLine.append( "/Encoding " );
aLine.append( nEncObject );
aLine.append( " 0 R\n" );
if( nToUnicodeStream )
{
aLine.append( "/ToUnicode " );
aLine.append( nToUnicodeStream );
aLine.append( " 0 R\n" );
}
aLine.append( "/FirstChar 0\n"
"/LastChar " );
aLine.append( (sal_Int32)(nEncoded-1) );
aLine.append( "\n"
"/Widths[" );
for( int i = 0; i < nEncoded; i++ )
{
aLine.append( aEncWidths[i] );
aLine.append( ((i&15) == 15) ? "\n" : " " );
}
aLine.append( " ]\n"
"/FontDescriptor " );
aLine.append( nFontDescriptor );
aLine.append( " 0 R>>\n"
"endobj\n\n" );
if( ! writeBuffer( aLine.getStr(), aLine.getLength() ) )
throw FontException();
aRet[ enc_it->m_nFontID ] = nObject;
}
}
}
catch( FontException& )
{
// these do nothing in case there was no compression or encryption ongoing
endCompression();
disableStreamEncryption();
}
if( pFontData )
m_pReferenceDevice->mpGraphics->FreeEmbedFontData( pFontData, nFontLen );
return aRet;
}
static void appendSubsetName( int nSubsetID, const OUString& rPSName, OStringBuffer& rBuffer )
{
if( nSubsetID )
{
for( int i = 0; i < 6; i++ )
{
int nOffset = (nSubsetID % 26);
nSubsetID /= 26;
rBuffer.append( (sal_Char)('A'+nOffset) );
}
rBuffer.append( '+' );
}
appendName( rPSName, rBuffer );
}
sal_Int32 PDFWriterImpl::createToUnicodeCMap( sal_uInt8* pEncoding,
sal_Ucs* pUnicodes,
sal_Int32* pUnicodesPerGlyph,
sal_Int32* pEncToUnicodeIndex,
int nGlyphs )
{
int nMapped = 0, n = 0;
for( n = 0; n < nGlyphs; n++ )
if( pUnicodes[pEncToUnicodeIndex[n]] && pUnicodesPerGlyph[n] )
nMapped++;
if( nMapped == 0 )
return 0;
sal_Int32 nStream = createObject();
CHECK_RETURN( updateObject( nStream ) );
OStringBuffer aContents( 1024 );
aContents.append(
"/CIDInit/ProcSet findresource begin\n"
"12 dict begin\n"
"begincmap\n"
"/CIDSystemInfo<<\n"
"/Registry (Adobe)\n"
"/Ordering (UCS)\n"
"/Supplement 0\n"
">> def\n"
"/CMapName/Adobe-Identity-UCS def\n"
"/CMapType 2 def\n"
"1 begincodespacerange\n"
"<00> <FF>\n"
"endcodespacerange\n"
);
int nCount = 0;
for( n = 0; n < nGlyphs; n++ )
{
if( pUnicodes[pEncToUnicodeIndex[n]] && pUnicodesPerGlyph[n] )
{
if( (nCount % 100) == 0 )
{
if( nCount )
aContents.append( "endbfchar\n" );
aContents.append( (sal_Int32)((nMapped-nCount > 100) ? 100 : nMapped-nCount ) );
aContents.append( " beginbfchar\n" );
}
aContents.append( '<' );
appendHex( (sal_Int8)pEncoding[n], aContents );
aContents.append( "> <" );
// TODO: handle unicodes>U+FFFF
sal_Int32 nIndex = pEncToUnicodeIndex[n];
for( sal_Int32 j = 0; j < pUnicodesPerGlyph[n]; j++ )
{
appendHex( (sal_Int8)(pUnicodes[nIndex + j] / 256), aContents );
appendHex( (sal_Int8)(pUnicodes[nIndex + j] & 255), aContents );
}
aContents.append( ">\n" );
nCount++;
}
}
aContents.append( "endbfchar\n"
"endcmap\n"
"CMapName currentdict /CMap defineresource pop\n"
"end\n"
"end\n" );
#ifndef DEBUG_DISABLE_PDFCOMPRESSION
ZCodec* pCodec = new ZCodec( 0x4000, 0x4000 );
SvMemoryStream aStream;
pCodec->BeginCompression();
pCodec->Write( aStream, (const BYTE*)aContents.getStr(), aContents.getLength() );
pCodec->EndCompression();
delete pCodec;
#endif
#if OSL_DEBUG_LEVEL > 1
{
OStringBuffer aLine( " PDFWriterImpl::createToUnicodeCMap" );
emitComment( aLine.getStr() );
}
#endif
OStringBuffer aLine( 40 );
aLine.append( nStream );
aLine.append( " 0 obj\n<</Length " );
#ifndef DEBUG_DISABLE_PDFCOMPRESSION
sal_Int32 nLen = (sal_Int32)aStream.Tell();
aStream.Seek( 0 );
aLine.append( nLen );
aLine.append( "/Filter/FlateDecode" );
#else
aLine.append( aContents.getLength() );
#endif
aLine.append( ">>\nstream\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
checkAndEnableStreamEncryption( nStream );
#ifndef DEBUG_DISABLE_PDFCOMPRESSION
CHECK_RETURN( writeBuffer( aStream.GetData(), nLen ) );
#else
CHECK_RETURN( writeBuffer( aContents.getStr(), aContents.getLength() ) );
#endif
disableStreamEncryption();
aLine.setLength( 0 );
aLine.append( "\nendstream\n"
"endobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
return nStream;
}
sal_Int32 PDFWriterImpl::emitFontDescriptor( const ImplFontData* pFont, FontSubsetInfo& rInfo, sal_Int32 nSubsetID, sal_Int32 nFontStream )
{
OStringBuffer aLine( 1024 );
// get font flags, see PDF reference 1.4 p. 358
// possibly characters outside Adobe standard encoding
// so set Symbolic flag
sal_Int32 nFontFlags = (1<<2);
if( pFont->GetSlant() == ITALIC_NORMAL || pFont->GetSlant() == ITALIC_OBLIQUE )
nFontFlags |= (1 << 6);
if( pFont->GetPitch() == PITCH_FIXED )
nFontFlags |= 1;
if( pFont->GetFamilyType() == FAMILY_SCRIPT )
nFontFlags |= (1 << 3);
else if( pFont->GetFamilyType() == FAMILY_ROMAN )
nFontFlags |= (1 << 1);
sal_Int32 nFontDescriptor = createObject();
CHECK_RETURN( updateObject( nFontDescriptor ) );
aLine.setLength( 0 );
aLine.append( nFontDescriptor );
aLine.append( " 0 obj\n"
"<</Type/FontDescriptor/FontName/" );
appendSubsetName( nSubsetID, rInfo.m_aPSName, aLine );
aLine.append( "\n"
"/Flags " );
aLine.append( nFontFlags );
aLine.append( "\n"
"/FontBBox[" );
// note: Top and Bottom are reversed in VCL and PDF rectangles
aLine.append( (sal_Int32)rInfo.m_aFontBBox.TopLeft().X() );
aLine.append( ' ' );
aLine.append( (sal_Int32)rInfo.m_aFontBBox.TopLeft().Y() );
aLine.append( ' ' );
aLine.append( (sal_Int32)rInfo.m_aFontBBox.BottomRight().X() );
aLine.append( ' ' );
aLine.append( (sal_Int32)(rInfo.m_aFontBBox.BottomRight().Y()+1) );
aLine.append( "]/ItalicAngle " );
if( pFont->GetSlant() == ITALIC_OBLIQUE || pFont->GetSlant() == ITALIC_NORMAL )
aLine.append( "-30" );
else
aLine.append( "0" );
aLine.append( "\n"
"/Ascent " );
aLine.append( (sal_Int32)rInfo.m_nAscent );
aLine.append( "\n"
"/Descent " );
aLine.append( (sal_Int32)-rInfo.m_nDescent );
aLine.append( "\n"
"/CapHeight " );
aLine.append( (sal_Int32)rInfo.m_nCapHeight );
// According to PDF reference 1.4 StemV is required
// seems a tad strange to me, but well ...
aLine.append( "\n"
"/StemV 80\n" );
if( nFontStream )
{
aLine.append( "/FontFile" );
switch( rInfo.m_nFontType )
{
case FontSubsetInfo::SFNT_TTF:
aLine.append( '2' );
break;
case FontSubsetInfo::TYPE1_PFA:
case FontSubsetInfo::TYPE1_PFB:
case FontSubsetInfo::ANY_TYPE1:
break;
default:
DBG_ERROR( "unknown fonttype in PDF font descriptor" );
return 0;
}
aLine.append( ' ' );
aLine.append( nFontStream );
aLine.append( " 0 R\n" );
}
aLine.append( ">>\n"
"endobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
return nFontDescriptor;
}
void PDFWriterImpl::appendBuiltinFontsToDict( OStringBuffer& rDict ) const
{
for( std::map< sal_Int32, sal_Int32 >::const_iterator it =
m_aBuiltinFontToObjectMap.begin(); it != m_aBuiltinFontToObjectMap.end(); ++it )
{
rDict.append( m_aBuiltinFonts[it->first].getNameObject() );
rDict.append( ' ' );
rDict.append( it->second );
rDict.append( " 0 R" );
}
}
bool PDFWriterImpl::emitFonts()
{
if( ! m_pReferenceDevice->ImplGetGraphics() )
return false;
OStringBuffer aLine( 1024 );
std::map< sal_Int32, sal_Int32 > aFontIDToObject;
OUString aTmpName;
osl_createTempFile( NULL, NULL, &aTmpName.pData );
for( FontSubsetData::iterator it = m_aSubsets.begin(); it != m_aSubsets.end(); ++it )
{
for( FontEmitList::iterator lit = it->second.m_aSubsets.begin(); lit != it->second.m_aSubsets.end(); ++lit )
{
sal_Int32 pGlyphIDs[ 256 ];
sal_Int32 pWidths[ 256 ];
sal_uInt8 pEncoding[ 256 ];
sal_Int32 pEncToUnicodeIndex[ 256 ];
sal_Int32 pUnicodesPerGlyph[ 256 ];
std::vector<sal_Ucs> aUnicodes;
aUnicodes.reserve( 256 );
int nGlyphs = 1;
// fill arrays and prepare encoding index map
sal_Int32 nToUnicodeStream = 0;
rtl_zeroMemory( pGlyphIDs, sizeof( pGlyphIDs ) );
rtl_zeroMemory( pEncoding, sizeof( pEncoding ) );
rtl_zeroMemory( pUnicodesPerGlyph, sizeof( pUnicodesPerGlyph ) );
rtl_zeroMemory( pEncToUnicodeIndex, sizeof( pEncToUnicodeIndex ) );
for( FontEmitMapping::iterator fit = lit->m_aMapping.begin(); fit != lit->m_aMapping.end();++fit )
{
sal_uInt8 nEnc = fit->second.getGlyphId();
DBG_ASSERT( pGlyphIDs[nEnc] == 0 && pEncoding[nEnc] == 0, "duplicate glyph" );
DBG_ASSERT( nEnc <= lit->m_aMapping.size(), "invalid glyph encoding" );
pGlyphIDs[ nEnc ] = fit->first;
pEncoding[ nEnc ] = nEnc;
pEncToUnicodeIndex[ nEnc ] = static_cast<sal_Int32>(aUnicodes.size());
pUnicodesPerGlyph[ nEnc ] = fit->second.countCodes();
for( sal_Int32 n = 0; n < pUnicodesPerGlyph[ nEnc ]; n++ )
aUnicodes.push_back( fit->second.getCode( n ) );
if( fit->second.getCode(0) )
nToUnicodeStream = 1;
if( nGlyphs < 256 )
nGlyphs++;
else
{
DBG_ERROR( "too many glyphs for subset" );
}
}
FontSubsetInfo aSubsetInfo;
if( m_pReferenceDevice->mpGraphics->CreateFontSubset( aTmpName, it->first, pGlyphIDs, pEncoding, pWidths, nGlyphs, aSubsetInfo ) )
{
// create font stream
oslFileHandle aFontFile;
CHECK_RETURN( (osl_File_E_None == osl_openFile( aTmpName.pData, &aFontFile, osl_File_OpenFlag_Read ) ) );
// get file size
sal_uInt64 nLength1;
CHECK_RETURN( (osl_File_E_None == osl_setFilePos( aFontFile, osl_Pos_End, 0 ) ) );
CHECK_RETURN( (osl_File_E_None == osl_getFilePos( aFontFile, &nLength1 ) ) );
CHECK_RETURN( (osl_File_E_None == osl_setFilePos( aFontFile, osl_Pos_Absolut, 0 ) ) );
#if OSL_DEBUG_LEVEL > 1
{
OStringBuffer aLine1( " PDFWriterImpl::emitFonts" );
emitComment( aLine1.getStr() );
}
#endif
sal_Int32 nFontStream = createObject();
sal_Int32 nStreamLengthObject = createObject();
CHECK_RETURN( updateObject( nFontStream ) );
aLine.setLength( 0 );
aLine.append( nFontStream );
aLine.append( " 0 obj\n"
"<</Length " );
aLine.append( (sal_Int32)nStreamLengthObject );
aLine.append( " 0 R"
#ifndef DEBUG_DISABLE_PDFCOMPRESSION
"/Filter/FlateDecode"
#endif
"/Length1 " );
sal_uInt64 nStartPos = 0;
if( aSubsetInfo.m_nFontType == FontSubsetInfo::SFNT_TTF )
{
aLine.append( (sal_Int32)nLength1 );
aLine.append( ">>\n"
"stream\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
CHECK_RETURN( (osl_File_E_None == osl_getFilePos( m_aFile, &nStartPos ) ) );
// copy font file
beginCompression();
checkAndEnableStreamEncryption( nFontStream );
sal_Bool bEOF = sal_False;
do
{
char buf[8192];
sal_uInt64 nRead;
CHECK_RETURN( (osl_File_E_None == osl_readFile( aFontFile, buf, sizeof( buf ), &nRead ) ) );
CHECK_RETURN( writeBuffer( buf, nRead ) );
CHECK_RETURN( (osl_File_E_None == osl_isEndOfFile( aFontFile, &bEOF ) ) );
} while( ! bEOF );
}
else if( (aSubsetInfo.m_nFontType & FontSubsetInfo::CFF_FONT) != 0 )
{
// TODO: implement
DBG_ERROR( "PDFWriterImpl does not support CFF-font subsets yet!" );
}
else if( (aSubsetInfo.m_nFontType & FontSubsetInfo::TYPE1_PFB) != 0 ) // TODO: also support PFA?
{
unsigned char* pBuffer = new unsigned char[ (int)nLength1 ];
sal_uInt64 nBytesRead = 0;
CHECK_RETURN( (osl_File_E_None == osl_readFile( aFontFile, pBuffer, nLength1, &nBytesRead ) ) );
DBG_ASSERT( nBytesRead==nLength1, "PDF-FontSubset read incomplete!" );
CHECK_RETURN( (osl_File_E_None == osl_setFilePos( aFontFile, osl_Pos_Absolut, 0 ) ) );
// get the PFB-segment lengths
ThreeInts aSegmentLengths = {0,0,0};
getPfbSegmentLengths( pBuffer, (int)nBytesRead, aSegmentLengths );
// the lengths below are mandatory for PDF-exported Type1 fonts
// because the PFB segment headers get stripped! WhyOhWhy.
aLine.append( (sal_Int32)aSegmentLengths[0] );
aLine.append( "/Length2 " );
aLine.append( (sal_Int32)aSegmentLengths[1] );
aLine.append( "/Length3 " );
aLine.append( (sal_Int32)aSegmentLengths[2] );
aLine.append( ">>\n"
"stream\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
CHECK_RETURN( (osl_File_E_None == osl_getFilePos( m_aFile, &nStartPos ) ) );
// emit PFB-sections without section headers
beginCompression();
checkAndEnableStreamEncryption( nFontStream );
CHECK_RETURN( writeBuffer( pBuffer+ 6, aSegmentLengths[0] ) );
CHECK_RETURN( writeBuffer( pBuffer+12 + aSegmentLengths[0], aSegmentLengths[1] ) );
CHECK_RETURN( writeBuffer( pBuffer+18 + aSegmentLengths[0] + aSegmentLengths[1], aSegmentLengths[2] ) );
delete[] pBuffer;
}
else
{
fprintf( stderr, "PDF: CreateFontSubset result in not yet supported format=%d\n",aSubsetInfo.m_nFontType);
aLine.append( "0 >>\nstream\n" );
}
endCompression();
disableStreamEncryption();
// close the file
osl_closeFile( aFontFile );
sal_uInt64 nEndPos = 0;
CHECK_RETURN( (osl_File_E_None == osl_getFilePos( m_aFile, &nEndPos ) ) );
// end the stream
aLine.setLength( 0 );
aLine.append( "\nendstream\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
// emit stream length object
CHECK_RETURN( updateObject( nStreamLengthObject ) );
aLine.setLength( 0 );
aLine.append( nStreamLengthObject );
aLine.append( " 0 obj\n" );
aLine.append( (sal_Int64)(nEndPos-nStartPos) );
aLine.append( "\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
// write font descriptor
sal_Int32 nFontDescriptor = emitFontDescriptor( it->first, aSubsetInfo, lit->m_nFontID, nFontStream );
if( nToUnicodeStream )
nToUnicodeStream = createToUnicodeCMap( pEncoding, &aUnicodes[0], pUnicodesPerGlyph, pEncToUnicodeIndex, nGlyphs );
sal_Int32 nFontObject = createObject();
CHECK_RETURN( updateObject( nFontObject ) );
aLine.setLength( 0 );
aLine.append( nFontObject );
aLine.append( " 0 obj\n" );
aLine.append( ((aSubsetInfo.m_nFontType & FontSubsetInfo::ANY_TYPE1) != 0) ?
"<</Type/Font/Subtype/Type1/BaseFont/" :
"<</Type/Font/Subtype/TrueType/BaseFont/" );
appendSubsetName( lit->m_nFontID, aSubsetInfo.m_aPSName, aLine );
aLine.append( "\n"
"/FirstChar 0\n"
"/LastChar " );
aLine.append( (sal_Int32)(nGlyphs-1) );
aLine.append( "\n"
"/Widths[" );
for( int i = 0; i < nGlyphs; i++ )
{
aLine.append( pWidths[ i ] );
aLine.append( ((i & 15) == 15) ? "\n" : " " );
}
aLine.append( "]\n"
"/FontDescriptor " );
aLine.append( nFontDescriptor );
aLine.append( " 0 R\n" );
if( nToUnicodeStream )
{
aLine.append( "/ToUnicode " );
aLine.append( nToUnicodeStream );
aLine.append( " 0 R\n" );
}
aLine.append( ">>\n"
"endobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
aFontIDToObject[ lit->m_nFontID ] = nFontObject;
}
else
{
const ImplFontData* pFont = it->first;
rtl::OStringBuffer aErrorComment( 256 );
aErrorComment.append( "CreateFontSubset failed for font \"" );
aErrorComment.append( OUStringToOString( pFont->GetFamilyName(), RTL_TEXTENCODING_UTF8 ) );
aErrorComment.append( '\"' );
if( pFont->GetSlant() == ITALIC_NORMAL )
aErrorComment.append( " italic" );
else if( pFont->GetSlant() == ITALIC_OBLIQUE )
aErrorComment.append( " oblique" );
aErrorComment.append( " weight=" );
aErrorComment.append( sal_Int32(pFont->GetWeight()) );
emitComment( aErrorComment.getStr() );
}
}
}
osl_removeFile( aTmpName.pData );
// emit embedded fonts
for( FontEmbedData::iterator eit = m_aEmbeddedFonts.begin(); eit != m_aEmbeddedFonts.end(); ++eit )
{
std::map< sal_Int32, sal_Int32 > aObjects = emitEmbeddedFont( eit->first, eit->second );
for( std::map< sal_Int32, sal_Int32 >::iterator fit = aObjects.begin(); fit != aObjects.end(); ++fit )
{
CHECK_RETURN( fit->second );
aFontIDToObject[ fit->first ] = fit->second;
}
}
// emit system fonts
for( FontEmbedData::iterator sit = m_aSystemFonts.begin(); sit != m_aSystemFonts.end(); ++sit )
{
std::map< sal_Int32, sal_Int32 > aObjects = emitSystemFont( sit->first, sit->second );
for( std::map< sal_Int32, sal_Int32 >::iterator fit = aObjects.begin(); fit != aObjects.end(); ++fit )
{
CHECK_RETURN( fit->second );
aFontIDToObject[ fit->first ] = fit->second;
}
}
OStringBuffer aFontDict( 1024 );
aFontDict.append( getFontDictObject() );
aFontDict.append( " 0 obj\n"
"<<" );
int ni = 0;
for( std::map< sal_Int32, sal_Int32 >::iterator mit = aFontIDToObject.begin(); mit != aFontIDToObject.end(); ++mit )
{
aFontDict.append( "/F" );
aFontDict.append( mit->first );
aFontDict.append( ' ' );
aFontDict.append( mit->second );
aFontDict.append( " 0 R" );
if( ((++ni) & 7) == 0 )
aFontDict.append( '\n' );
}
// emit builtin font for widget apperances / variable text
for( std::map< sal_Int32, sal_Int32 >::iterator it = m_aBuiltinFontToObjectMap.begin();
it != m_aBuiltinFontToObjectMap.end(); ++it )
{
ImplPdfBuiltinFontData aData(m_aBuiltinFonts[it->first]);
it->second = emitBuiltinFont( &aData, it->second );
}
appendBuiltinFontsToDict( aFontDict );
aFontDict.append( "\n>>\nendobj\n\n" );
CHECK_RETURN( updateObject( getFontDictObject() ) );
CHECK_RETURN( writeBuffer( aFontDict.getStr(), aFontDict.getLength() ) );
return true;
}
sal_Int32 PDFWriterImpl::emitResources()
{
// emit shadings
if( ! m_aGradients.empty() )
CHECK_RETURN( emitGradients() );
// emit tilings
if( ! m_aTilings.empty() )
CHECK_RETURN( emitTilings() );
// emit font dict
CHECK_RETURN( emitFonts() );
// emit Resource dict
OStringBuffer aLine( 512 );
sal_Int32 nResourceDict = getResourceDictObj();
CHECK_RETURN( updateObject( nResourceDict ) );
aLine.setLength( 0 );
aLine.append( nResourceDict );
aLine.append( " 0 obj\n" );
m_aGlobalResourceDict.append( aLine, getFontDictObject() );
aLine.append( "endobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
return nResourceDict;
}
sal_Int32 PDFWriterImpl::updateOutlineItemCount( std::vector< sal_Int32 >& rCounts,
sal_Int32 nItemLevel,
sal_Int32 nCurrentItemId )
{
/* The /Count number of an item is
positive: the number of visible subitems
negative: the negative number of subitems that will become visible if
the item gets opened
see PDF ref 1.4 p 478
*/
sal_Int32 nCount = 0;
if( m_aContext.OpenBookmarkLevels < 0 || // all levels arevisible
m_aContext.OpenBookmarkLevels >= nItemLevel // this level is visible
)
{
PDFOutlineEntry& rItem = m_aOutline[ nCurrentItemId ];
sal_Int32 nChildren = rItem.m_aChildren.size();
for( sal_Int32 i = 0; i < nChildren; i++ )
nCount += updateOutlineItemCount( rCounts, nItemLevel+1, rItem.m_aChildren[i] );
rCounts[nCurrentItemId] = nCount;
// return 1 (this item) + visible sub items
if( nCount < 0 )
nCount = 0;
nCount++;
}
else
{
// this bookmark level is invisible
PDFOutlineEntry& rItem = m_aOutline[ nCurrentItemId ];
sal_Int32 nChildren = rItem.m_aChildren.size();
rCounts[ nCurrentItemId ] = -sal_Int32(rItem.m_aChildren.size());
for( sal_Int32 i = 0; i < nChildren; i++ )
updateOutlineItemCount( rCounts, nItemLevel+1, rItem.m_aChildren[i] );
nCount = -1;
}
return nCount;
}
sal_Int32 PDFWriterImpl::emitOutline()
{
int i, nItems = m_aOutline.size();
// do we have an outline at all ?
if( nItems < 2 )
return 0;
// reserve object numbers for all outline items
for( i = 0; i < nItems; ++i )
m_aOutline[i].m_nObject = createObject();
// update all parent, next and prev object ids
for( i = 0; i < nItems; ++i )
{
PDFOutlineEntry& rItem = m_aOutline[i];
int nChildren = rItem.m_aChildren.size();
if( nChildren )
{
for( int n = 0; n < nChildren; ++n )
{
PDFOutlineEntry& rChild = m_aOutline[ rItem.m_aChildren[n] ];
rChild.m_nParentObject = rItem.m_nObject;
rChild.m_nPrevObject = (n > 0) ? m_aOutline[ rItem.m_aChildren[n-1] ].m_nObject : 0;
rChild.m_nNextObject = (n < nChildren-1) ? m_aOutline[ rItem.m_aChildren[n+1] ].m_nObject : 0;
}
}
}
// calculate Count entries for all items
std::vector< sal_Int32 > aCounts( nItems );
updateOutlineItemCount( aCounts, 0, 0 );
// emit hierarchy
for( i = 0; i < nItems; ++i )
{
PDFOutlineEntry& rItem = m_aOutline[i];
OStringBuffer aLine( 1024 );
CHECK_RETURN( updateObject( rItem.m_nObject ) );
aLine.append( rItem.m_nObject );
aLine.append( " 0 obj\n" );
aLine.append( "<<" );
// number of visible children (all levels)
if( i > 0 || aCounts[0] > 0 )
{
aLine.append( "/Count " );
aLine.append( aCounts[i] );
}
if( ! rItem.m_aChildren.empty() )
{
// children list: First, Last
aLine.append( "/First " );
aLine.append( m_aOutline[rItem.m_aChildren.front()].m_nObject );
aLine.append( " 0 R/Last " );
aLine.append( m_aOutline[rItem.m_aChildren.back()].m_nObject );
aLine.append( " 0 R\n" );
}
if( i > 0 )
{
// Title, Dest, Parent, Prev, Next
aLine.append( "/Title" );
appendUnicodeTextStringEncrypt( rItem.m_aTitle, rItem.m_nObject, aLine );
aLine.append( "\n" );
// Dest is not required
if( rItem.m_nDestID >= 0 && rItem.m_nDestID < (sal_Int32)m_aDests.size() )
{
aLine.append( "/Dest" );
appendDest( rItem.m_nDestID, aLine );
}
aLine.append( "/Parent " );
aLine.append( rItem.m_nParentObject );
aLine.append( " 0 R" );
if( rItem.m_nPrevObject )
{
aLine.append( "/Prev " );
aLine.append( rItem.m_nPrevObject );
aLine.append( " 0 R" );
}
if( rItem.m_nNextObject )
{
aLine.append( "/Next " );
aLine.append( rItem.m_nNextObject );
aLine.append( " 0 R" );
}
}
aLine.append( ">>\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
}
return m_aOutline[0].m_nObject;
}
#undef CHECK_RETURN
#define CHECK_RETURN( x ) if( !x ) return false
bool PDFWriterImpl::appendDest( sal_Int32 nDestID, OStringBuffer& rBuffer )
{
if( nDestID < 0 || nDestID >= (sal_Int32)m_aDests.size() )
{
#if OSL_DEBUG_LEVEL > 1
fprintf( stderr, "ERROR: invalid dest %d requested\n", (int)nDestID );
#endif
return false;
}
const PDFDest& rDest = m_aDests[ nDestID ];
const PDFPage& rDestPage = m_aPages[ rDest.m_nPage ];
rBuffer.append( '[' );
rBuffer.append( rDestPage.m_nPageObject );
rBuffer.append( " 0 R" );
switch( rDest.m_eType )
{
case PDFWriter::XYZ:
default:
rBuffer.append( "/XYZ " );
appendFixedInt( rDest.m_aRect.Left(), rBuffer );
rBuffer.append( ' ' );
appendFixedInt( rDest.m_aRect.Bottom(), rBuffer );
rBuffer.append( " 0" );
break;
case PDFWriter::Fit:
rBuffer.append( "/Fit" );
break;
case PDFWriter::FitRectangle:
rBuffer.append( "/FitR " );
appendFixedInt( rDest.m_aRect.Left(), rBuffer );
rBuffer.append( ' ' );
appendFixedInt( rDest.m_aRect.Top(), rBuffer );
rBuffer.append( ' ' );
appendFixedInt( rDest.m_aRect.Right(), rBuffer );
rBuffer.append( ' ' );
appendFixedInt( rDest.m_aRect.Bottom(), rBuffer );
break;
case PDFWriter::FitHorizontal:
rBuffer.append( "/FitH " );
appendFixedInt( rDest.m_aRect.Bottom(), rBuffer );
break;
case PDFWriter::FitVertical:
rBuffer.append( "/FitV " );
appendFixedInt( rDest.m_aRect.Left(), rBuffer );
break;
case PDFWriter::FitPageBoundingBox:
rBuffer.append( "/FitB" );
break;
case PDFWriter::FitPageBoundingBoxHorizontal:
rBuffer.append( "/FitBH " );
appendFixedInt( rDest.m_aRect.Bottom(), rBuffer );
break;
case PDFWriter::FitPageBoundingBoxVertical:
rBuffer.append( "/FitBV " );
appendFixedInt( rDest.m_aRect.Left(), rBuffer );
break;
}
rBuffer.append( ']' );
return true;
}
bool PDFWriterImpl::emitLinkAnnotations()
{
int nAnnots = m_aLinks.size();
for( int i = 0; i < nAnnots; i++ )
{
const PDFLink& rLink = m_aLinks[i];
if( ! updateObject( rLink.m_nObject ) )
continue;
OStringBuffer aLine( 1024 );
aLine.append( rLink.m_nObject );
aLine.append( " 0 obj\n" );
//i59651 key /F set bits Print to 1 rest to 0. We don't set NoZoom NoRotate to 1, since it's a 'should'
// see PDF 8.4.2 and ISO 19005-1:2005 6.5.3
aLine.append( "<</Type/Annot" );
if( m_bIsPDF_A1 )
aLine.append( "/F 4" );
aLine.append( "/Subtype/Link/Border[0 0 0]/Rect[" );
appendFixedInt( rLink.m_aRect.Left()-7, aLine );//the +7 to have a better shape of the border rectangle
aLine.append( ' ' );
appendFixedInt( rLink.m_aRect.Top(), aLine );
aLine.append( ' ' );
appendFixedInt( rLink.m_aRect.Right()+7, aLine );//the +7 to have a better shape of the border rectangle
aLine.append( ' ' );
appendFixedInt( rLink.m_aRect.Bottom(), aLine );
aLine.append( "]" );
if( rLink.m_nDest >= 0 )
{
aLine.append( "/Dest" );
appendDest( rLink.m_nDest, aLine );
}
else
{
/*--->i56629
destination is external to the document, so
we check in the following sequence:
if target type is neither .pdf, nor .od[tpgs], then
check if relative or absolute and act accordingly (use URI or 'launch application' as requested)
end processing
else if target is .od[tpgs]: then
if conversion of type from od[tpgs] to pdf is requested, convert it and this becomes the new target file
processing continue
if (new)target is .pdf : then
if GotToR is requested, then
convert the target in GoToR where the fragment of the URI is
considered the named destination in the target file, set relative or absolute as requested
else strip the fragment from URL and then set URI or 'launch application' as requested
*/
//
// FIXME: check if the decode mechanisms for URL processing throughout this implementation
// are the correct one!!
//
// extract target file type
INetURLObject aDocumentURL( m_aContext.BaseURL );
INetURLObject aTargetURL( rLink.m_aURL );
sal_Int32 nChangeFileExtensionToPDF = 0;
sal_Int32 nSetGoToRMode = 0;
sal_Bool bTargetHasPDFExtension = sal_False;
INetProtocol eTargetProtocol = aTargetURL.GetProtocol();
sal_Bool bIsUNCPath = sal_False;
// check if the protocol is a known one, or if there is no protocol at all (on target only)
// if there is no protocol, make the target relative to the current document directory
// getting the needed URL information from the current document path
if( eTargetProtocol == INET_PROT_NOT_VALID )
{
if( rLink.m_aURL.getLength() > 4 && rLink.m_aURL.compareToAscii( "\\\\\\\\", 4 ) == 0)
{
bIsUNCPath = sal_True;
}
else
{
INetURLObject aNewBase( aDocumentURL );//duplicate document URL
aNewBase.removeSegment(); //remove last segment from it, obtaining the base URL of the
//target document
aNewBase.insertName( rLink.m_aURL );
aTargetURL = aNewBase;//reassign the new target URL
//recompute the target protocol, with the new URL
//normal URL processing resumes
eTargetProtocol = aTargetURL.GetProtocol();
}
}
rtl::OUString aFileExtension = aTargetURL.GetFileExtension();
// Check if the URL ends in '/': if yes it's a directory,
// it will be forced to a URI link.
// possibly a malformed URI, leave it as it is, force as URI
if( aTargetURL.hasFinalSlash() )
m_aContext.DefaultLinkAction = PDFWriter::URIAction;
if( aFileExtension.getLength() > 0 )
{
if( m_aContext.ConvertOOoTargetToPDFTarget )
{
//examine the file type (.odm .odt. .odp, odg, ods)
if( aFileExtension.equalsIgnoreAsciiCase(rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( "odm" ) ) ) )
nChangeFileExtensionToPDF++;
if( aFileExtension.equalsIgnoreAsciiCase(rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( "odt" ) ) ) )
nChangeFileExtensionToPDF++;
else if( aFileExtension.equalsIgnoreAsciiCase(rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( "odp" ) ) ) )
nChangeFileExtensionToPDF++;
else if( aFileExtension.equalsIgnoreAsciiCase(rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( "odg" ) ) ) )
nChangeFileExtensionToPDF++;
else if( aFileExtension.equalsIgnoreAsciiCase(rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( "ods" ) ) ) )
nChangeFileExtensionToPDF++;
if( nChangeFileExtensionToPDF )
aTargetURL.setExtension(rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( "pdf" ) ) );
}
//check if extension is pdf, see if GoToR should be forced
bTargetHasPDFExtension = aTargetURL.GetFileExtension().equalsIgnoreAsciiCase(rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( "pdf" ) ) );
if( m_aContext.ForcePDFAction && bTargetHasPDFExtension )
nSetGoToRMode++;
}
//prepare the URL, if relative or not
INetProtocol eBaseProtocol = aDocumentURL.GetProtocol();
//queue the string common to all types of actions
aLine.append( "/A<</Type/Action/S");
if( bIsUNCPath ) // handle Win UNC paths
{
aLine.append( "/Launch/Win<</F" );
// INetURLObject is not good with UNC paths, use original path
appendLiteralStringEncrypt( rLink.m_aURL, rLink.m_nObject, aLine );
aLine.append( ">>" );
}
else
{
sal_Int32 nSetRelative = 0;
//check if relative file link is requested and if the protocol is 'file://'
if( m_aContext.RelFsys && eBaseProtocol == eTargetProtocol && eTargetProtocol == INET_PROT_FILE )
nSetRelative++;
rtl::OUString aFragment = aTargetURL.GetMark( INetURLObject::NO_DECODE /*DECODE_WITH_CHARSET*/ ); //fragment as is,
if( nSetGoToRMode == 0 )
switch( m_aContext.DefaultLinkAction )
{
default:
case PDFWriter::URIAction :
case PDFWriter::URIActionDestination :
aLine.append( "/URI/URI" );
break;
case PDFWriter::LaunchAction:
// now:
// if a launch action is requested and the hyperlink target has a fragment
// and the target file does not have a pdf extension, or it's not a 'file:://' protocol
// then force the uri action on it
// This code will permit the correct opening of application on web pages, the one that
// normally have fragments (but I may be wrong...)
// and will force the use of URI when the protocol is not file://
if( (aFragment.getLength() > 0 && !bTargetHasPDFExtension) ||
eTargetProtocol != INET_PROT_FILE )
aLine.append( "/URI/URI" );
else
aLine.append( "/Launch/F" );
break;
}
//fragment are encoded in the same way as in the named destination processing
rtl::OUString aURLNoMark = aTargetURL.GetURLNoMark( INetURLObject::DECODE_WITH_CHARSET );
if( nSetGoToRMode )
{//add the fragment
aLine.append("/GoToR");
aLine.append("/F");
appendLiteralStringEncrypt( nSetRelative ? INetURLObject::GetRelURL( m_aContext.BaseURL, aURLNoMark,
INetURLObject::WAS_ENCODED,
INetURLObject::DECODE_WITH_CHARSET ) :
aURLNoMark, rLink.m_nObject, aLine );
if( aFragment.getLength() > 0 )
{
aLine.append("/D/");
appendDestinationName( aFragment , aLine );
}
}
else
{
// change the fragment to accomodate the bookmark (only if the file extension is PDF and
// the requested action is of the correct type)
if(m_aContext.DefaultLinkAction == PDFWriter::URIActionDestination &&
bTargetHasPDFExtension && aFragment.getLength() > 0 )
{
OStringBuffer aLineLoc( 1024 );
appendDestinationName( aFragment , aLineLoc );
//substitute the fragment
aTargetURL.SetMark( aLineLoc.getStr() );
}
rtl::OUString aURL = aTargetURL.GetMainURL( (nSetRelative || eTargetProtocol == INET_PROT_FILE) ? INetURLObject::DECODE_WITH_CHARSET : INetURLObject::NO_DECODE );
// check if we have a URL available, if the string is empty, set it as the original one
// if( aURL.getLength() == 0 )
// appendLiteralStringEncrypt( rLink.m_aURL , rLink.m_nObject, aLine );
// else
appendLiteralStringEncrypt( nSetRelative ? INetURLObject::GetRelURL( m_aContext.BaseURL, aURL ) :
aURL , rLink.m_nObject, aLine );
}
//<--- i56629
}
aLine.append( ">>\n" );
}
if( rLink.m_nStructParent > 0 )
{
aLine.append( "/StructParent " );
aLine.append( rLink.m_nStructParent );
}
aLine.append( ">>\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
}
return true;
}
bool PDFWriterImpl::emitNoteAnnotations()
{
// emit note annotations
int nAnnots = m_aNotes.size();
for( int i = 0; i < nAnnots; i++ )
{
const PDFNoteEntry& rNote = m_aNotes[i];
if( ! updateObject( rNote.m_nObject ) )
return false;
OStringBuffer aLine( 1024 );
aLine.append( rNote.m_nObject );
aLine.append( " 0 obj\n" );
//i59651 key /F set bits Print to 1 rest to 0. We don't set NoZoom NoRotate to 1, since it's a 'should'
// see PDF 8.4.2 and ISO 19005-1:2005 6.5.3
aLine.append( "<</Type/Annot" );
if( m_bIsPDF_A1 )
aLine.append( "/F 4" );
aLine.append( "/Subtype/Text/Rect[" );
appendFixedInt( rNote.m_aRect.Left(), aLine );
aLine.append( ' ' );
appendFixedInt( rNote.m_aRect.Top(), aLine );
aLine.append( ' ' );
appendFixedInt( rNote.m_aRect.Right(), aLine );
aLine.append( ' ' );
appendFixedInt( rNote.m_aRect.Bottom(), aLine );
aLine.append( "]" );
// contents of the note (type text string)
aLine.append( "/Contents\n" );
appendUnicodeTextStringEncrypt( rNote.m_aContents.Contents, rNote.m_nObject, aLine );
aLine.append( "\n" );
// optional title
if( rNote.m_aContents.Title.Len() )
{
aLine.append( "/T" );
appendUnicodeTextStringEncrypt( rNote.m_aContents.Title, rNote.m_nObject, aLine );
aLine.append( "\n" );
}
aLine.append( ">>\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
}
return true;
}
Font PDFWriterImpl::replaceFont( const Font& rControlFont, const Font& rAppSetFont )
{
bool bAdjustSize = false;
Font aFont( rControlFont );
if( ! aFont.GetName().Len() )
{
aFont = rAppSetFont;
if( rControlFont.GetHeight() )
aFont.SetSize( Size( 0, rControlFont.GetHeight() ) );
else
bAdjustSize = true;
if( rControlFont.GetItalic() != ITALIC_DONTKNOW )
aFont.SetItalic( rControlFont.GetItalic() );
if( rControlFont.GetWeight() != WEIGHT_DONTKNOW )
aFont.SetWeight( rControlFont.GetWeight() );
}
else if( ! aFont.GetHeight() )
{
aFont.SetSize( rAppSetFont.GetSize() );
bAdjustSize = true;
}
if( bAdjustSize )
{
Size aFontSize = aFont.GetSize();
OutputDevice* pDefDev = Application::GetDefaultDevice();
aFontSize = OutputDevice::LogicToLogic( aFontSize, pDefDev->GetMapMode(), getMapMode() );
aFont.SetSize( aFontSize );
}
return aFont;
}
sal_Int32 PDFWriterImpl::getBestBuiltinFont( const Font& rFont )
{
sal_Int32 nBest = 4; // default to Helvetica
OUString aFontName( rFont.GetName() );
aFontName = aFontName.toAsciiLowerCase();
if( aFontName.indexOf( OUString( RTL_CONSTASCII_USTRINGPARAM( "times" ) ) ) != -1 )
nBest = 8;
else if( aFontName.indexOf( OUString( RTL_CONSTASCII_USTRINGPARAM( "courier" ) ) ) != -1 )
nBest = 0;
else if( aFontName.indexOf( OUString( RTL_CONSTASCII_USTRINGPARAM( "dingbats" ) ) ) != -1 )
nBest = 13;
else if( aFontName.indexOf( OUString( RTL_CONSTASCII_USTRINGPARAM( "symbol" ) ) ) != -1 )
nBest = 12;
if( nBest < 12 )
{
if( rFont.GetItalic() == ITALIC_OBLIQUE || rFont.GetItalic() == ITALIC_NORMAL )
nBest += 1;
if( rFont.GetWeight() > WEIGHT_MEDIUM )
nBest += 2;
}
if( m_aBuiltinFontToObjectMap.find( nBest ) == m_aBuiltinFontToObjectMap.end() )
m_aBuiltinFontToObjectMap[ nBest ] = createObject();
return nBest;
}
static inline const Color& replaceColor( const Color& rCol1, const Color& rCol2 )
{
return (rCol1 == Color( COL_TRANSPARENT )) ? rCol2 : rCol1;
}
void PDFWriterImpl::createDefaultPushButtonAppearance( PDFWidget& rButton, const PDFWriter::PushButtonWidget& rWidget )
{
const StyleSettings& rSettings = Application::GetSettings().GetStyleSettings();
// save graphics state
push( sal::static_int_cast<sal_uInt16>(~0U) );
// transform relative to control's coordinates since an
// appearance stream is a form XObject
// this relies on the m_aRect member of rButton NOT already being transformed
// to default user space
if( rWidget.Background || rWidget.Border )
{
setLineColor( rWidget.Border ? replaceColor( rWidget.BorderColor, rSettings.GetLightColor() ) : Color( COL_TRANSPARENT ) );
setFillColor( rWidget.Background ? replaceColor( rWidget.BackgroundColor, rSettings.GetDialogColor() ) : Color( COL_TRANSPARENT ) );
drawRectangle( rWidget.Location );
}
// prepare font to use
Font aFont = replaceFont( rWidget.TextFont, rSettings.GetPushButtonFont() );
setFont( aFont );
setTextColor( replaceColor( rWidget.TextColor, rSettings.GetButtonTextColor() ) );
drawText( rButton.m_aRect, rButton.m_aText, rButton.m_nTextStyle );
// create DA string while local mapmode is still in place
// (that is before endRedirect())
OStringBuffer aDA( 256 );
appendNonStrokingColor( replaceColor( rWidget.TextColor, rSettings.GetButtonTextColor() ), aDA );
Font aDummyFont( String( RTL_CONSTASCII_USTRINGPARAM( "Helvetica" ) ), aFont.GetSize() );
sal_Int32 nDummyBuiltin = getBestBuiltinFont( aDummyFont );
aDA.append( ' ' );
aDA.append( m_aBuiltinFonts[nDummyBuiltin].getNameObject() );
aDA.append( ' ' );
m_aPages[m_nCurrentPage].appendMappedLength( sal_Int32( aFont.GetHeight() ), aDA );
aDA.append( " Tf" );
rButton.m_aDAString = aDA.makeStringAndClear();
pop();
rButton.m_aAppearances[ "N" ][ "Standard" ] = new SvMemoryStream();
/* seems like a bad hack but at least works in both AR5 and 6:
we draw the button ourselves and tell AR
the button would be totally transparent with no text
One would expect that simply setting a normal appearance
should suffice, but no, as soon as the user actually presses
the button and an action is tied to it (gasp! a button that
does something) the appearance gets replaced by some crap that AR
creates on the fly even if no DA or MK is given. On AR6 at least
the DA and MK work as expected, but on AR5 this creates a region
filled with the background color but nor text. Urgh.
*/
rButton.m_aMKDict = "/BC [] /BG [] /CA";
rButton.m_aMKDictCAString = "";
}
Font PDFWriterImpl::drawFieldBorder( PDFWidget& rIntern,
const PDFWriter::AnyWidget& rWidget,
const StyleSettings& rSettings )
{
Font aFont = replaceFont( rWidget.TextFont, rSettings.GetFieldFont() );
if( rWidget.Background || rWidget.Border )
{
if( rWidget.Border && rWidget.BorderColor == Color( COL_TRANSPARENT ) )
{
sal_Int32 nDelta = getReferenceDevice()->ImplGetDPIX() / 500;
if( nDelta < 1 )
nDelta = 1;
setLineColor( Color( COL_TRANSPARENT ) );
Rectangle aRect = rIntern.m_aRect;
setFillColor( rSettings.GetLightBorderColor() );
drawRectangle( aRect );
aRect.Left() += nDelta; aRect.Top() += nDelta;
aRect.Right() -= nDelta; aRect.Bottom() -= nDelta;
setFillColor( rSettings.GetFieldColor() );
drawRectangle( aRect );
setFillColor( rSettings.GetLightColor() );
drawRectangle( Rectangle( Point( aRect.Left(), aRect.Bottom()-nDelta ), aRect.BottomRight() ) );
drawRectangle( Rectangle( Point( aRect.Right()-nDelta, aRect.Top() ), aRect.BottomRight() ) );
setFillColor( rSettings.GetDarkShadowColor() );
drawRectangle( Rectangle( aRect.TopLeft(), Point( aRect.Left()+nDelta, aRect.Bottom() ) ) );
drawRectangle( Rectangle( aRect.TopLeft(), Point( aRect.Right(), aRect.Top()+nDelta ) ) );
}
else
{
setLineColor( rWidget.Border ? replaceColor( rWidget.BorderColor, rSettings.GetShadowColor() ) : Color( COL_TRANSPARENT ) );
setFillColor( rWidget.Background ? replaceColor( rWidget.BackgroundColor, rSettings.GetFieldColor() ) : Color( COL_TRANSPARENT ) );
drawRectangle( rIntern.m_aRect );
}
if( rWidget.Border )
{
// adjust edit area accounting for border
sal_Int32 nDelta = aFont.GetHeight()/4;
if( nDelta < 1 )
nDelta = 1;
rIntern.m_aRect.Left() += nDelta;
rIntern.m_aRect.Top() += nDelta;
rIntern.m_aRect.Right() -= nDelta;
rIntern.m_aRect.Bottom()-= nDelta;
}
}
return aFont;
}
void PDFWriterImpl::createDefaultEditAppearance( PDFWidget& rEdit, const PDFWriter::EditWidget& rWidget )
{
const StyleSettings& rSettings = Application::GetSettings().GetStyleSettings();
SvMemoryStream* pEditStream = new SvMemoryStream( 1024, 1024 );
push( sal::static_int_cast<sal_uInt16>(~0U) );
// prepare font to use, draw field border
Font aFont = drawFieldBorder( rEdit, rWidget, rSettings );
sal_Int32 nBest = m_aContext.FieldsUseSystemFonts ? getSystemFont( aFont ): getBestBuiltinFont( aFont );
// prepare DA string
OStringBuffer aDA( 32 );
appendNonStrokingColor( replaceColor( rWidget.TextColor, rSettings.GetFieldTextColor() ), aDA );
aDA.append( ' ' );
if( m_aContext.FieldsUseSystemFonts )
{
aDA.append( "/F" );
aDA.append( nBest );
OStringBuffer aDR( 32 );
aDR.append( "/Font " );
aDR.append( getFontDictObject() );
aDR.append( " 0 R" );
rEdit.m_aDRDict = aDR.makeStringAndClear();
}
else
aDA.append( m_aBuiltinFonts[nBest].getNameObject() );
aDA.append( ' ' );
m_aPages[ m_nCurrentPage ].appendMappedLength( sal_Int32( aFont.GetHeight() ), aDA );
aDA.append( " Tf" );
/* create an empty appearance stream, let the viewer create
the appearance at runtime. This is because AR5 seems to
paint the widget appearance always, and a dynamically created
appearance on top of it. AR6 is well behaved in that regard, so
that behaviour seems to be a bug. Anyway this empty appearance
relies on /NeedAppearances in the AcroForm dictionary set to "true"
*/
beginRedirect( pEditStream, rEdit.m_aRect );
OStringBuffer aAppearance( 32 );
aAppearance.append( "/Tx BMC\nEMC\n" );
writeBuffer( aAppearance.getStr(), aAppearance.getLength() );
endRedirect();
pop();
rEdit.m_aAppearances[ "N" ][ "Standard" ] = pEditStream;
rEdit.m_aDAString = aDA.makeStringAndClear();
}
void PDFWriterImpl::createDefaultListBoxAppearance( PDFWidget& rBox, const PDFWriter::ListBoxWidget& rWidget )
{
const StyleSettings& rSettings = Application::GetSettings().GetStyleSettings();
SvMemoryStream* pListBoxStream = new SvMemoryStream( 1024, 1024 );
push( sal::static_int_cast<sal_uInt16>(~0U) );
// prepare font to use, draw field border
Font aFont = drawFieldBorder( rBox, rWidget, rSettings );
sal_Int32 nBest = m_aContext.FieldsUseSystemFonts ? getSystemFont( aFont ): getBestBuiltinFont( aFont );
beginRedirect( pListBoxStream, rBox.m_aRect );
OStringBuffer aAppearance( 64 );
#if 0
if( ! rWidget.DropDown )
{
// prepare linewidth for DA string hack, see below
Size aFontSize = lcl_convert( m_aGraphicsStack.front().m_aMapMode,
m_aMapMode,
getReferenceDevice(),
Size( 0, aFont.GetHeight() ) );
sal_Int32 nLW = aFontSize.Height() / 40;
appendFixedInt( nLW > 0 ? nLW : 1, aAppearance );
aAppearance.append( " w\n" );
writeBuffer( aAppearance.getStr(), aAppearance.getLength() );
aAppearance.setLength( 0 );
}
#endif
setLineColor( Color( COL_TRANSPARENT ) );
setFillColor( replaceColor( rWidget.BackgroundColor, rSettings.GetFieldColor() ) );
drawRectangle( rBox.m_aRect );
// empty appearance, see createDefaultEditAppearance for reference
aAppearance.append( "/Tx BMC\nEMC\n" );
writeBuffer( aAppearance.getStr(), aAppearance.getLength() );
endRedirect();
pop();
rBox.m_aAppearances[ "N" ][ "Standard" ] = pListBoxStream;
// prepare DA string
OStringBuffer aDA( 256 );
#if 0
if( !rWidget.DropDown )
{
/* another of AR5's peculiarities: the selected item of a choice
field is highlighted using the non stroking color - same as the
text color. so workaround that by using text rendering mode 2
(fill, then stroke) and set the stroking color
*/
appendStrokingColor( replaceColor( rWidget.BackgroundColor, rSettings.GetFieldColor() ), aDA );
aDA.append( " 2 Tr " );
}
#endif
// prepare DA string
appendNonStrokingColor( replaceColor( rWidget.TextColor, rSettings.GetFieldTextColor() ), aDA );
aDA.append( ' ' );
if( m_aContext.FieldsUseSystemFonts )
{
aDA.append( "/F" );
aDA.append( nBest );
OStringBuffer aDR( 32 );
aDR.append( "/Font " );
aDR.append( getFontDictObject() );
aDR.append( " 0 R" );
rBox.m_aDRDict = aDR.makeStringAndClear();
}
else
aDA.append( m_aBuiltinFonts[nBest].getNameObject() );
aDA.append( ' ' );
m_aPages[ m_nCurrentPage ].appendMappedLength( sal_Int32( aFont.GetHeight() ), aDA );
aDA.append( " Tf" );
rBox.m_aDAString = aDA.makeStringAndClear();
}
void PDFWriterImpl::createDefaultCheckBoxAppearance( PDFWidget& rBox, const PDFWriter::CheckBoxWidget& rWidget )
{
const StyleSettings& rSettings = Application::GetSettings().GetStyleSettings();
// save graphics state
push( sal::static_int_cast<sal_uInt16>(~0U) );
if( rWidget.Background || rWidget.Border )
{
setLineColor( rWidget.Border ? replaceColor( rWidget.BorderColor, rSettings.GetCheckedColor() ) : Color( COL_TRANSPARENT ) );
setFillColor( rWidget.Background ? replaceColor( rWidget.BackgroundColor, rSettings.GetFieldColor() ) : Color( COL_TRANSPARENT ) );
drawRectangle( rBox.m_aRect );
}
Font aFont = replaceFont( rWidget.TextFont, rSettings.GetRadioCheckFont() );
setFont( aFont );
Size aFontSize = aFont.GetSize();
if( aFontSize.Height() > rBox.m_aRect.GetHeight() )
aFontSize.Height() = rBox.m_aRect.GetHeight();
sal_Int32 nDelta = aFontSize.Height()/10;
if( nDelta < 1 )
nDelta = 1;
Rectangle aCheckRect, aTextRect;
if( rWidget.ButtonIsLeft )
{
aCheckRect.Left() = rBox.m_aRect.Left() + nDelta;
aCheckRect.Top() = rBox.m_aRect.Top() + (rBox.m_aRect.GetHeight()-aFontSize.Height())/2;
aCheckRect.Right() = aCheckRect.Left() + aFontSize.Height();
aCheckRect.Bottom() = aCheckRect.Top() + aFontSize.Height();
// #i74206# handle small controls without text area
while( aCheckRect.GetWidth() > rBox.m_aRect.GetWidth() && aCheckRect.GetWidth() > nDelta )
{
aCheckRect.Right() -= nDelta;
aCheckRect.Top() += nDelta/2;
aCheckRect.Bottom() -= nDelta - (nDelta/2);
}
aTextRect.Left() = rBox.m_aRect.Left() + aCheckRect.GetWidth()+5*nDelta;
aTextRect.Top() = rBox.m_aRect.Top();
aTextRect.Right() = aTextRect.Left() + rBox.m_aRect.GetWidth() - aCheckRect.GetWidth()-6*nDelta;
aTextRect.Bottom() = rBox.m_aRect.Bottom();
}
else
{
aCheckRect.Left() = rBox.m_aRect.Right() - nDelta - aFontSize.Height();
aCheckRect.Top() = rBox.m_aRect.Top() + (rBox.m_aRect.GetHeight()-aFontSize.Height())/2;
aCheckRect.Right() = aCheckRect.Left() + aFontSize.Height();
aCheckRect.Bottom() = aCheckRect.Top() + aFontSize.Height();
// #i74206# handle small controls without text area
while( aCheckRect.GetWidth() > rBox.m_aRect.GetWidth() && aCheckRect.GetWidth() > nDelta )
{
aCheckRect.Left() += nDelta;
aCheckRect.Top() += nDelta/2;
aCheckRect.Bottom() -= nDelta - (nDelta/2);
}
aTextRect.Left() = rBox.m_aRect.Left();
aTextRect.Top() = rBox.m_aRect.Top();
aTextRect.Right() = aTextRect.Left() + rBox.m_aRect.GetWidth() - aCheckRect.GetWidth()-6*nDelta;
aTextRect.Bottom() = rBox.m_aRect.Bottom();
}
setLineColor( Color( COL_BLACK ) );
setFillColor( Color( COL_TRANSPARENT ) );
OStringBuffer aLW( 32 );
aLW.append( "q " );
m_aPages[m_nCurrentPage].appendMappedLength( nDelta, aLW );
aLW.append( " w " );
writeBuffer( aLW.getStr(), aLW.getLength() );
drawRectangle( aCheckRect );
writeBuffer( " Q\n", 3 );
setTextColor( replaceColor( rWidget.TextColor, rSettings.GetRadioCheckTextColor() ) );
drawText( aTextRect, rBox.m_aText, rBox.m_nTextStyle );
pop();
OStringBuffer aDA( 256 );
appendNonStrokingColor( replaceColor( rWidget.TextColor, rSettings.GetRadioCheckTextColor() ), aDA );
sal_Int32 nBest = getBestBuiltinFont( Font( String( RTL_CONSTASCII_USTRINGPARAM( "ZapfDingbats" ) ), aFont.GetSize() ) );
aDA.append( ' ' );
aDA.append( m_aBuiltinFonts[nBest].getNameObject() );
aDA.append( " 0 Tf" );
rBox.m_aDAString = aDA.makeStringAndClear();
rBox.m_aMKDict = "/CA";
rBox.m_aMKDictCAString = "8";
rBox.m_aRect = aCheckRect;
// create appearance streams
sal_Char cMark = '8';
sal_Int32 nCharXOffset = 1000-m_aBuiltinFonts[13].m_aWidths[sal_Int32(cMark)];
nCharXOffset *= aCheckRect.GetHeight();
nCharXOffset /= 2000;
sal_Int32 nCharYOffset = 1000-
(m_aBuiltinFonts[13].m_nAscent+m_aBuiltinFonts[13].m_nDescent); // descent is negative
nCharYOffset *= aCheckRect.GetHeight();
nCharYOffset /= 2000;
SvMemoryStream* pCheckStream = new SvMemoryStream( 256, 256 );
beginRedirect( pCheckStream, aCheckRect );
aDA.append( "/Tx BMC\nq BT\n" );
appendNonStrokingColor( replaceColor( rWidget.TextColor, rSettings.GetRadioCheckTextColor() ), aDA );
aDA.append( ' ' );
aDA.append( m_aBuiltinFonts[nBest].getNameObject() );
aDA.append( ' ' );
m_aPages[ m_nCurrentPage ].appendMappedLength( sal_Int32( aCheckRect.GetHeight() ), aDA );
aDA.append( " Tf\n" );
m_aPages[ m_nCurrentPage ].appendMappedLength( nCharXOffset, aDA );
aDA.append( " " );
m_aPages[ m_nCurrentPage ].appendMappedLength( nCharYOffset, aDA );
aDA.append( " Td (" );
aDA.append( cMark );
aDA.append( ") Tj\nET\nQ\nEMC\n" );
writeBuffer( aDA.getStr(), aDA.getLength() );
endRedirect();
rBox.m_aAppearances[ "N" ][ "Yes" ] = pCheckStream;
SvMemoryStream* pUncheckStream = new SvMemoryStream( 256, 256 );
beginRedirect( pUncheckStream, aCheckRect );
writeBuffer( "/Tx BMC\nEMC\n", 12 );
endRedirect();
rBox.m_aAppearances[ "N" ][ "Off" ] = pUncheckStream;
}
void PDFWriterImpl::createDefaultRadioButtonAppearance( PDFWidget& rBox, const PDFWriter::RadioButtonWidget& rWidget )
{
const StyleSettings& rSettings = Application::GetSettings().GetStyleSettings();
// save graphics state
push( sal::static_int_cast<sal_uInt16>(~0U) );
if( rWidget.Background || rWidget.Border )
{
setLineColor( rWidget.Border ? replaceColor( rWidget.BorderColor, rSettings.GetCheckedColor() ) : Color( COL_TRANSPARENT ) );
setFillColor( rWidget.Background ? replaceColor( rWidget.BackgroundColor, rSettings.GetFieldColor() ) : Color( COL_TRANSPARENT ) );
drawRectangle( rBox.m_aRect );
}
Font aFont = replaceFont( rWidget.TextFont, rSettings.GetRadioCheckFont() );
setFont( aFont );
Size aFontSize = aFont.GetSize();
if( aFontSize.Height() > rBox.m_aRect.GetHeight() )
aFontSize.Height() = rBox.m_aRect.GetHeight();
sal_Int32 nDelta = aFontSize.Height()/10;
if( nDelta < 1 )
nDelta = 1;
Rectangle aCheckRect, aTextRect;
if( rWidget.ButtonIsLeft )
{
aCheckRect.Left() = rBox.m_aRect.Left() + nDelta;
aCheckRect.Top() = rBox.m_aRect.Top() + (rBox.m_aRect.GetHeight()-aFontSize.Height())/2;
aCheckRect.Right() = aCheckRect.Left() + aFontSize.Height();
aCheckRect.Bottom() = aCheckRect.Top() + aFontSize.Height();
// #i74206# handle small controls without text area
while( aCheckRect.GetWidth() > rBox.m_aRect.GetWidth() && aCheckRect.GetWidth() > nDelta )
{
aCheckRect.Right() -= nDelta;
aCheckRect.Top() += nDelta/2;
aCheckRect.Bottom() -= nDelta - (nDelta/2);
}
aTextRect.Left() = rBox.m_aRect.Left() + aCheckRect.GetWidth()+5*nDelta;
aTextRect.Top() = rBox.m_aRect.Top();
aTextRect.Right() = aTextRect.Left() + rBox.m_aRect.GetWidth() - aCheckRect.GetWidth()-6*nDelta;
aTextRect.Bottom() = rBox.m_aRect.Bottom();
}
else
{
aCheckRect.Left() = rBox.m_aRect.Right() - nDelta - aFontSize.Height();
aCheckRect.Top() = rBox.m_aRect.Top() + (rBox.m_aRect.GetHeight()-aFontSize.Height())/2;
aCheckRect.Right() = aCheckRect.Left() + aFontSize.Height();
aCheckRect.Bottom() = aCheckRect.Top() + aFontSize.Height();
// #i74206# handle small controls without text area
while( aCheckRect.GetWidth() > rBox.m_aRect.GetWidth() && aCheckRect.GetWidth() > nDelta )
{
aCheckRect.Left() += nDelta;
aCheckRect.Top() += nDelta/2;
aCheckRect.Bottom() -= nDelta - (nDelta/2);
}
aTextRect.Left() = rBox.m_aRect.Left();
aTextRect.Top() = rBox.m_aRect.Top();
aTextRect.Right() = aTextRect.Left() + rBox.m_aRect.GetWidth() - aCheckRect.GetWidth()-6*nDelta;
aTextRect.Bottom() = rBox.m_aRect.Bottom();
}
setLineColor( Color( COL_BLACK ) );
setFillColor( Color( COL_TRANSPARENT ) );
OStringBuffer aLW( 32 );
aLW.append( "q " );
m_aPages[ m_nCurrentPage ].appendMappedLength( nDelta, aLW );
aLW.append( " w " );
writeBuffer( aLW.getStr(), aLW.getLength() );
drawEllipse( aCheckRect );
writeBuffer( " Q\n", 3 );
setTextColor( replaceColor( rWidget.TextColor, rSettings.GetRadioCheckTextColor() ) );
drawText( aTextRect, rBox.m_aText, rBox.m_nTextStyle );
pop();
OStringBuffer aDA( 256 );
appendNonStrokingColor( replaceColor( rWidget.TextColor, rSettings.GetRadioCheckTextColor() ), aDA );
sal_Int32 nBest = getBestBuiltinFont( Font( String( RTL_CONSTASCII_USTRINGPARAM( "ZapfDingbats" ) ), aFont.GetSize() ) );
aDA.append( ' ' );
aDA.append( m_aBuiltinFonts[nBest].getNameObject() );
aDA.append( " 0 Tf" );
rBox.m_aDAString = aDA.makeStringAndClear();
//to encrypt this (el)
rBox.m_aMKDict = "/CA";
//after this assignement, to m_aMKDic cannot be added anything
rBox.m_aMKDictCAString = "l";
rBox.m_aRect = aCheckRect;
// create appearance streams
push( sal::static_int_cast<sal_uInt16>(~0U) );
SvMemoryStream* pCheckStream = new SvMemoryStream( 256, 256 );
beginRedirect( pCheckStream, aCheckRect );
aDA.append( "/Tx BMC\nq BT\n" );
appendNonStrokingColor( replaceColor( rWidget.TextColor, rSettings.GetRadioCheckTextColor() ), aDA );
aDA.append( ' ' );
aDA.append( m_aBuiltinFonts[nBest].getNameObject() );
aDA.append( ' ' );
m_aPages[m_nCurrentPage].appendMappedLength( sal_Int32( aCheckRect.GetHeight() ), aDA );
aDA.append( " Tf\n0 0 Td\nET\nQ\n" );
writeBuffer( aDA.getStr(), aDA.getLength() );
setFillColor( replaceColor( rWidget.TextColor, rSettings.GetRadioCheckTextColor() ) );
setLineColor( Color( COL_TRANSPARENT ) );
aCheckRect.Left() += 3*nDelta;
aCheckRect.Top() += 3*nDelta;
aCheckRect.Bottom() -= 3*nDelta;
aCheckRect.Right() -= 3*nDelta;
drawEllipse( aCheckRect );
writeBuffer( "\nEMC\n", 5 );
endRedirect();
pop();
rBox.m_aAppearances[ "N" ][ "Yes" ] = pCheckStream;
SvMemoryStream* pUncheckStream = new SvMemoryStream( 256, 256 );
beginRedirect( pUncheckStream, aCheckRect );
writeBuffer( "/Tx BMC\nEMC\n", 12 );
endRedirect();
rBox.m_aAppearances[ "N" ][ "Off" ] = pUncheckStream;
}
bool PDFWriterImpl::emitAppearances( PDFWidget& rWidget, OStringBuffer& rAnnotDict )
{
// TODO: check and insert default streams
rtl::OString aStandardAppearance;
switch( rWidget.m_eType )
{
case PDFWriter::CheckBox:
aStandardAppearance = OUStringToOString( rWidget.m_aValue, RTL_TEXTENCODING_ASCII_US );
break;
default:
break;
}
if( rWidget.m_aAppearances.size() )
{
rAnnotDict.append( "/AP<<\n" );
for( PDFAppearanceMap::iterator dict_it = rWidget.m_aAppearances.begin(); dict_it != rWidget.m_aAppearances.end(); ++dict_it )
{
rAnnotDict.append( "/" );
rAnnotDict.append( dict_it->first );
bool bUseSubDict = (dict_it->second.size() > 1);
rAnnotDict.append( bUseSubDict ? "<<" : " " );
for( PDFAppearanceStreams::const_iterator stream_it = dict_it->second.begin();
stream_it != dict_it->second.end(); ++stream_it )
{
SvMemoryStream* pApppearanceStream = stream_it->second;
dict_it->second[ stream_it->first ] = NULL;
bool bDeflate = compressStream( pApppearanceStream );
pApppearanceStream->Seek( STREAM_SEEK_TO_END );
sal_Int64 nStreamLen = pApppearanceStream->Tell();
pApppearanceStream->Seek( STREAM_SEEK_TO_BEGIN );
sal_Int32 nObject = createObject();
CHECK_RETURN( updateObject( nObject ) );
#if OSL_DEBUG_LEVEL > 1
{
OStringBuffer aLine( " PDFWriterImpl::emitAppearances" );
emitComment( aLine.getStr() );
}
#endif
OStringBuffer aLine;
aLine.append( nObject );
aLine.append( " 0 obj\n"
"<</Type/XObject\n"
"/Subtype/Form\n"
"/BBox[0 0 " );
appendFixedInt( rWidget.m_aRect.GetWidth()-1, aLine );
aLine.append( " " );
appendFixedInt( rWidget.m_aRect.GetHeight()-1, aLine );
aLine.append( "]\n"
"/Resources " );
aLine.append( getResourceDictObj() );
aLine.append( " 0 R\n"
"/Length " );
aLine.append( nStreamLen );
aLine.append( "\n" );
if( bDeflate )
aLine.append( "/Filter/FlateDecode\n" );
aLine.append( ">>\nstream\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
checkAndEnableStreamEncryption( nObject );
CHECK_RETURN( writeBuffer( pApppearanceStream->GetData(), nStreamLen ) );
disableStreamEncryption();
CHECK_RETURN( writeBuffer( "\nendstream\nendobj\n\n", 19 ) );
if( bUseSubDict )
{
rAnnotDict.append( " /" );
rAnnotDict.append( stream_it->first );
rAnnotDict.append( " " );
}
rAnnotDict.append( nObject );
rAnnotDict.append( " 0 R" );
delete pApppearanceStream;
}
rAnnotDict.append( bUseSubDict ? ">>\n" : "\n" );
}
rAnnotDict.append( ">>\n" );
if( aStandardAppearance.getLength() )
{
rAnnotDict.append( "/AS /" );
rAnnotDict.append( aStandardAppearance );
rAnnotDict.append( "\n" );
}
}
return true;
}
bool PDFWriterImpl::emitWidgetAnnotations()
{
ensureUniqueRadioOnValues();
int nAnnots = m_aWidgets.size();
for( int a = 0; a < nAnnots; a++ )
{
PDFWidget& rWidget = m_aWidgets[a];
OStringBuffer aLine( 1024 );
OStringBuffer aValue( 256 );
aLine.append( rWidget.m_nObject );
aLine.append( " 0 obj\n"
"<<" );
if( rWidget.m_eType != PDFWriter::Hierarchy )
{
// emit widget annotation only for terminal fields
if( rWidget.m_aKids.empty() )
{
aLine.append( "/Type/Annot/Subtype/Widget/F 4\n"
"/Rect[" );
appendFixedInt( rWidget.m_aRect.Left()-1, aLine );
aLine.append( ' ' );
appendFixedInt( rWidget.m_aRect.Top()+1, aLine );
aLine.append( ' ' );
appendFixedInt( rWidget.m_aRect.Right()+1, aLine );
aLine.append( ' ' );
appendFixedInt( rWidget.m_aRect.Bottom()-1, aLine );
aLine.append( "]\n" );
}
aLine.append( "/FT/" );
switch( rWidget.m_eType )
{
case PDFWriter::RadioButton:
case PDFWriter::CheckBox:
// for radio buttons only the RadioButton field, not the
// CheckBox children should have a value, else acrobat reader
// does not always check the right button
// of course real check boxes (not belonging to a readio group)
// need their values, too
if( rWidget.m_eType == PDFWriter::RadioButton || rWidget.m_nRadioGroup < 0 )
{
aValue.append( "/" );
// check for radio group with all buttons unpressed
if( rWidget.m_aValue.getLength() == 0 )
aValue.append( "Off" );
else
appendName( rWidget.m_aValue, aValue );
}
case PDFWriter::PushButton:
aLine.append( "Btn" );
break;
case PDFWriter::ListBox:
if( rWidget.m_nFlags & 0x200000 ) // multiselect
{
aValue.append( "[" );
for( unsigned int i = 0; i < rWidget.m_aSelectedEntries.size(); i++ )
{
sal_Int32 nEntry = rWidget.m_aSelectedEntries[i];
if( nEntry >= 0 && nEntry < sal_Int32(rWidget.m_aListEntries.size()) )
appendUnicodeTextStringEncrypt( rWidget.m_aListEntries[ nEntry ], rWidget.m_nObject, aValue );
}
aValue.append( "]" );
}
else if( rWidget.m_aSelectedEntries.size() > 0 &&
rWidget.m_aSelectedEntries[0] >= 0 &&
rWidget.m_aSelectedEntries[0] < sal_Int32(rWidget.m_aListEntries.size()) )
{
appendUnicodeTextStringEncrypt( rWidget.m_aListEntries[ rWidget.m_aSelectedEntries[0] ], rWidget.m_nObject, aValue );
}
else
appendUnicodeTextStringEncrypt( rtl::OUString(), rWidget.m_nObject, aValue );
aLine.append( "Ch" );
break;
case PDFWriter::ComboBox:
appendUnicodeTextStringEncrypt( rWidget.m_aValue, rWidget.m_nObject, aValue );
aLine.append( "Ch" );
break;
case PDFWriter::Edit:
aLine.append( "Tx" );
appendUnicodeTextStringEncrypt( rWidget.m_aValue, rWidget.m_nObject, aValue );
break;
case PDFWriter::Hierarchy: // make the compiler happy
break;
}
aLine.append( "\n" );
aLine.append( "/P " );
aLine.append( m_aPages[ rWidget.m_nPage ].m_nPageObject );
aLine.append( " 0 R\n" );
}
if( rWidget.m_nParent )
{
aLine.append( "/Parent " );
aLine.append( rWidget.m_nParent );
aLine.append( " 0 R\n" );
}
if( rWidget.m_aKids.size() )
{
aLine.append( "/Kids[" );
for( unsigned int i = 0; i < rWidget.m_aKids.size(); i++ )
{
aLine.append( rWidget.m_aKids[i] );
aLine.append( " 0 R" );
aLine.append( ( (i&15) == 15 ) ? "\n" : " " );
}
aLine.append( "]\n" );
}
if( rWidget.m_aName.getLength() )
{
aLine.append( "/T" );
appendLiteralStringEncrypt( rWidget.m_aName, rWidget.m_nObject, aLine );
aLine.append( "\n" );
}
if( m_aContext.Version > PDFWriter::PDF_1_2 && rWidget.m_aDescription.getLength() )
{
// the alternate field name should be unicode able since it is
// supposed to be used in UI
aLine.append( "/TU" );
appendUnicodeTextStringEncrypt( rWidget.m_aDescription, rWidget.m_nObject, aLine );
aLine.append( "\n" );
}
if( rWidget.m_nFlags )
{
aLine.append( "/Ff " );
aLine.append( rWidget.m_nFlags );
aLine.append( "\n" );
}
if( aValue.getLength() )
{
OString aVal = aValue.makeStringAndClear();
aLine.append( "/V " );
aLine.append( aVal );
aLine.append( "\n"
"/DV " );
aLine.append( aVal );
aLine.append( "\n" );
}
if( rWidget.m_eType == PDFWriter::ListBox || rWidget.m_eType == PDFWriter::ComboBox )
{
sal_Int32 nTI = -1;
aLine.append( "/Opt[\n" );
sal_Int32 i = 0;
for( std::vector< OUString >::const_iterator it = rWidget.m_aListEntries.begin(); it != rWidget.m_aListEntries.end(); ++it, ++i )
{
appendUnicodeTextStringEncrypt( *it, rWidget.m_nObject, aLine );
aLine.append( "\n" );
if( *it == rWidget.m_aValue )
nTI = i;
}
aLine.append( "]\n" );
if( nTI > 0 )
{
aLine.append( "/TI " );
aLine.append( nTI );
aLine.append( "\n" );
if( rWidget.m_nFlags & 0x200000 ) // Multiselect
{
aLine.append( "/I [" );
aLine.append( nTI );
aLine.append( "]\n" );
}
}
}
if( rWidget.m_eType == PDFWriter::Edit && rWidget.m_nMaxLen > 0 )
{
aLine.append( "/MaxLen " );
aLine.append( rWidget.m_nMaxLen );
aLine.append( "\n" );
}
if( rWidget.m_eType == PDFWriter::PushButton )
{
if(!m_bIsPDF_A1)
{
OStringBuffer aDest;
if( rWidget.m_nDest != -1 && appendDest( rWidget.m_nDest, aDest ) )
{
aLine.append( "/AA<</D<</Type/Action/S/GoTo/D " );
aLine.append( aDest.makeStringAndClear() );
aLine.append( ">>>>\n" );
}
else if( rWidget.m_aListEntries.empty() )
{
// create a reset form action
aLine.append( "/AA<</D<</Type/Action/S/ResetForm>>>>\n" );
}
else if( rWidget.m_bSubmit )
{
// create a submit form action
aLine.append( "/AA<</D<</Type/Action/S/SubmitForm/F" );
appendLiteralStringEncrypt( rWidget.m_aListEntries.front(), rWidget.m_nObject, aLine );
aLine.append( "/Flags " );
sal_Int32 nFlags = 0;
switch( m_aContext.SubmitFormat )
{
case PDFWriter::HTML:
nFlags |= 4;
break;
case PDFWriter::XML:
if( m_aContext.Version > PDFWriter::PDF_1_3 )
nFlags |= 32;
break;
case PDFWriter::PDF:
if( m_aContext.Version > PDFWriter::PDF_1_3 )
nFlags |= 256;
break;
case PDFWriter::FDF:
default:
break;
}
if( rWidget.m_bSubmitGet )
nFlags |= 8;
aLine.append( nFlags );
aLine.append( ">>>>\n" );
}
else
{
// create a URI action
aLine.append( "/AA<</D<</Type/Action/S/URI/URI(" );
aLine.append( OUStringToOString( rWidget.m_aListEntries.front(), RTL_TEXTENCODING_ASCII_US ) );
aLine.append( ")>>>>\n" );
}
}
else
m_aErrors.insert( PDFWriter::Warning_FormAction_Omitted_PDFA );
}
if( rWidget.m_aDAString.getLength() )
{
if( rWidget.m_aDRDict.getLength() )
{
aLine.append( "/DR<<" );
aLine.append( rWidget.m_aDRDict );
aLine.append( ">>\n" );
}
else
{
aLine.append( "/DR<</Font<<" );
appendBuiltinFontsToDict( aLine );
aLine.append( ">>>>\n" );
}
aLine.append( "/DA" );
appendLiteralStringEncrypt( rWidget.m_aDAString, rWidget.m_nObject, aLine );
aLine.append( "\n" );
if( rWidget.m_nTextStyle & TEXT_DRAW_CENTER )
aLine.append( "/Q 1\n" );
else if( rWidget.m_nTextStyle & TEXT_DRAW_RIGHT )
aLine.append( "/Q 2\n" );
}
// appearance charactristics for terminal fields
// which are supposed to have an appearance constructed
// by the viewer application
if( rWidget.m_aMKDict.getLength() )
{
aLine.append( "/MK<<" );
aLine.append( rWidget.m_aMKDict );
//add the CA string, encrypting it
appendLiteralStringEncrypt(rWidget.m_aMKDictCAString, rWidget.m_nObject, aLine);
aLine.append( ">>\n" );
}
CHECK_RETURN( emitAppearances( rWidget, aLine ) );
aLine.append( ">>\n"
"endobj\n\n" );
CHECK_RETURN( updateObject( rWidget.m_nObject ) );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
}
return true;
}
bool PDFWriterImpl::emitAnnotations()
{
if( m_aPages.size() < 1 )
return false;
CHECK_RETURN( emitLinkAnnotations() );
CHECK_RETURN( emitNoteAnnotations() );
CHECK_RETURN( emitWidgetAnnotations() );
return true;
}
#undef CHECK_RETURN
#define CHECK_RETURN( x ) if( !x ) return false
bool PDFWriterImpl::emitCatalog()
{
// build page tree
// currently there is only one node that contains all leaves
// first create a page tree node id
sal_Int32 nTreeNode = createObject();
// emit global resource dictionary (page emit needs it)
CHECK_RETURN( emitResources() );
// emit all pages
for( std::vector<PDFPage>::iterator it = m_aPages.begin(); it != m_aPages.end(); ++it )
if( ! it->emit( nTreeNode ) )
return false;
sal_Int32 nNamedDestinationsDictionary = emitNamedDestinations();
sal_Int32 nOutlineDict = emitOutline();
//emit Output intent i59651
sal_Int32 nOutputIntentObject = emitOutputIntent();
//emit metadata
sal_Int32 nMetadataObject = emitDocumentMetadata();
sal_Int32 nStructureDict = 0;
if(m_aStructure.size() > 1)
{
///check if dummy structure containers are needed
addInternalStructureContainer(m_aStructure[0]);
nStructureDict = m_aStructure[0].m_nObject = createObject();
emitStructure( m_aStructure[ 0 ] );
}
// adjust tree node file offset
if( ! updateObject( nTreeNode ) )
return false;
// emit tree node
OStringBuffer aLine( 2048 );
aLine.append( nTreeNode );
aLine.append( " 0 obj\n" );
aLine.append( "<</Type/Pages\n" );
aLine.append( "/Resources " );
aLine.append( getResourceDictObj() );
aLine.append( " 0 R\n" );
switch( m_eInheritedOrientation )
{
case PDFWriter::Landscape: aLine.append( "/Rotate 90\n" );break;
case PDFWriter::Seascape: aLine.append( "/Rotate -90\n" );break;
case PDFWriter::Inherit: // actually Inherit would be a bug, but insignificant
case PDFWriter::Portrait:
default:
break;
}
sal_Int32 nMediaBoxWidth = 0;
sal_Int32 nMediaBoxHeight = 0;
if( m_aPages.empty() ) // sanity check, this should not happen
{
nMediaBoxWidth = m_nInheritedPageWidth;
nMediaBoxHeight = m_nInheritedPageHeight;
}
else
{
for( std::vector<PDFPage>::const_iterator iter = m_aPages.begin(); iter != m_aPages.end(); ++iter )
{
if( iter->m_nPageWidth > nMediaBoxWidth )
nMediaBoxWidth = iter->m_nPageWidth;
if( iter->m_nPageHeight > nMediaBoxHeight )
nMediaBoxHeight = iter->m_nPageHeight;
}
}
aLine.append( "/MediaBox[ 0 0 " );
aLine.append( nMediaBoxWidth );
aLine.append( ' ' );
aLine.append( nMediaBoxHeight );
aLine.append( " ]\n"
"/Kids[ " );
unsigned int i = 0;
for( std::vector<PDFPage>::const_iterator iter = m_aPages.begin(); iter != m_aPages.end(); ++iter, i++ )
{
aLine.append( iter->m_nPageObject );
aLine.append( " 0 R" );
aLine.append( ( (i&15) == 15 ) ? "\n" : " " );
}
aLine.append( "]\n"
"/Count " );
aLine.append( (sal_Int32)m_aPages.size() );
aLine.append( ">>\n"
"endobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
// emit annotation objects
CHECK_RETURN( emitAnnotations() );
// emit Catalog
m_nCatalogObject = createObject();
if( ! updateObject( m_nCatalogObject ) )
return false;
aLine.setLength( 0 );
aLine.append( m_nCatalogObject );
aLine.append( " 0 obj\n"
"<</Type/Catalog/Pages " );
aLine.append( nTreeNode );
aLine.append( " 0 R\n" );
//--->i56629
//check if there are named destinations to emit (root must be inside the catalog)
if( nNamedDestinationsDictionary )
{
aLine.append("/Dests ");
aLine.append( nNamedDestinationsDictionary );
aLine.append( " 0 R\n" );
}
//<----
if( m_aContext.PageLayout != PDFWriter::DefaultLayout )
switch( m_aContext.PageLayout )
{
default :
case PDFWriter::SinglePage :
aLine.append( "/PageLayout/SinglePage\n" );
break;
case PDFWriter::Continuous :
aLine.append( "/PageLayout/OneColumn\n" );
break;
case PDFWriter::ContinuousFacing :
//the flag m_aContext.FirstPageLeft below is used to set the page on the left side
aLine.append( "/PageLayout/TwoColumnRight\n" );//odd page on the right side
break;
}
if( m_aContext.PDFDocumentMode != PDFWriter::ModeDefault && !m_aContext.OpenInFullScreenMode )
switch( m_aContext.PDFDocumentMode )
{
default :
aLine.append( "/PageMode/UseNone\n" );
break;
case PDFWriter::UseOutlines :
aLine.append( "/PageMode/UseOutlines\n" ); //document is opened with outline pane open
break;
case PDFWriter::UseThumbs :
aLine.append( "/PageMode/UseThumbs\n" ); //document is opened with thumbnails pane open
break;
}
else if( m_aContext.OpenInFullScreenMode )
aLine.append( "/PageMode/FullScreen\n" ); //document is opened full screen
OStringBuffer aInitPageRef;
if( m_aContext.InitialPage >= 0 && m_aContext.InitialPage < (sal_Int32)m_aPages.size() )
{
aInitPageRef.append( m_aPages[m_aContext.InitialPage].m_nPageObject );
aInitPageRef.append( " 0 R" );
}
else
aInitPageRef.append( "0" );
switch( m_aContext.PDFDocumentAction )
{
case PDFWriter::ActionDefault : //do nothing, this is the Acrobat default
default:
if( aInitPageRef.getLength() > 1 )
{
aLine.append( "/OpenAction[" );
aLine.append( aInitPageRef );
aLine.append( " /XYZ null null 0]\n" );
}
break;
case PDFWriter::FitInWindow :
aLine.append( "/OpenAction[" );
aLine.append( aInitPageRef );
aLine.append( " /Fit]\n" ); //Open fit page
break;
case PDFWriter::FitWidth :
aLine.append( "/OpenAction[" );
aLine.append( aInitPageRef );
aLine.append( " /FitH " );
aLine.append( m_nInheritedPageHeight );//Open fit width
aLine.append( "]\n" );
break;
case PDFWriter::FitVisible :
aLine.append( "/OpenAction[" );
aLine.append( aInitPageRef );
aLine.append( " /FitBH " );
aLine.append( m_nInheritedPageHeight );//Open fit visible
aLine.append( "]\n" );
break;
case PDFWriter::ActionZoom :
aLine.append( "/OpenAction[" );
aLine.append( aInitPageRef );
aLine.append( " /XYZ null null " );
if( m_aContext.Zoom >= 50 && m_aContext.Zoom <= 1600 )
aLine.append( (double)m_aContext.Zoom/100.0 );
else
aLine.append( "0" );
aLine.append( "]\n" );
break;
}
// viewer preferences, if we had some, then emit
if( m_aContext.HideViewerToolbar ||
( m_aContext.Version > PDFWriter::PDF_1_3 && m_aDocInfo.Title.Len() && m_aContext.DisplayPDFDocumentTitle ) ||
m_aContext.HideViewerMenubar ||
m_aContext.HideViewerWindowControls || m_aContext.FitWindow ||
m_aContext.CenterWindow || (m_aContext.FirstPageLeft && m_aContext.PageLayout == PDFWriter::ContinuousFacing ) ||
m_aContext.OpenInFullScreenMode )
{
aLine.append( "/ViewerPreferences<<" );
if( m_aContext.HideViewerToolbar )
aLine.append( "/HideToolbar true\n" );
if( m_aContext.HideViewerMenubar )
aLine.append( "/HideMenubar true\n" );
if( m_aContext.HideViewerWindowControls )
aLine.append( "/HideWindowUI true\n" );
if( m_aContext.FitWindow )
aLine.append( "/FitWindow true\n" );
if( m_aContext.CenterWindow )
aLine.append( "/CenterWindow true\n" );
if( m_aContext.Version > PDFWriter::PDF_1_3 && m_aDocInfo.Title.Len() && m_aContext.DisplayPDFDocumentTitle )
aLine.append( "/DisplayDocTitle true\n" );
if( m_aContext.FirstPageLeft && m_aContext.PageLayout == PDFWriter::ContinuousFacing )
aLine.append( "/Direction/R2L\n" );
if( m_aContext.OpenInFullScreenMode )
switch( m_aContext.PDFDocumentMode )
{
default :
case PDFWriter::ModeDefault :
aLine.append( "/NonFullScreenPageMode/UseNone\n" );
break;
case PDFWriter::UseOutlines :
aLine.append( "/NonFullScreenPageMode/UseOutlines\n" );
break;
case PDFWriter::UseThumbs :
aLine.append( "/NonFullScreenPageMode/UseThumbs\n" );
break;
}
aLine.append( ">>\n" );
}
if( nOutlineDict )
{
aLine.append( "/Outlines " );
aLine.append( nOutlineDict );
aLine.append( " 0 R\n" );
}
if( nStructureDict )
{
aLine.append( "/StructTreeRoot " );
aLine.append( nStructureDict );
aLine.append( " 0 R\n" );
}
if( m_aContext.DocumentLocale.Language.getLength() > 0 )
{
OUStringBuffer aLocBuf( 16 );
aLocBuf.append( m_aContext.DocumentLocale.Language.toAsciiLowerCase() );
if( m_aContext.DocumentLocale.Country.getLength() > 0 )
{
aLocBuf.append( sal_Unicode('-') );
aLocBuf.append( m_aContext.DocumentLocale.Country );
}
aLine.append( "/Lang" );
appendLiteralStringEncrypt( aLocBuf.makeStringAndClear(), m_nCatalogObject, aLine );
aLine.append( "\n" );
}
if( m_aContext.Tagged && m_aContext.Version > PDFWriter::PDF_1_3 )
{
aLine.append( "/MarkInfo<</Marked true>>\n" );
}
if( m_aWidgets.size() > 0 )
{
aLine.append( "/AcroForm<</Fields[\n" );
int nWidgets = m_aWidgets.size();
int nOut = 0;
for( int j = 0; j < nWidgets; j++ )
{
// output only root fields
if( m_aWidgets[j].m_nParent < 1 )
{
aLine.append( m_aWidgets[j].m_nObject );
aLine.append( (nOut++ % 5)==4 ? " 0 R\n" : " 0 R " );
}
}
aLine.append( "\n]/DR " );
aLine.append( getResourceDictObj() );
aLine.append( " 0 R" );
if( m_bIsPDF_A1 )
aLine.append( ">>\n" );
else
aLine.append( "/NeedAppearances true>>\n" );
}
//--->i59651
//check if there is a Metadata object
if( nOutputIntentObject )
{
aLine.append("/OutputIntents[");
aLine.append( nOutputIntentObject );
aLine.append( " 0 R]" );
}
if( nMetadataObject )
{
aLine.append("/Metadata ");
aLine.append( nMetadataObject );
aLine.append( " 0 R" );
}
//<----
aLine.append( ">>\n"
"endobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
return true;
}
sal_Int32 PDFWriterImpl::emitInfoDict( )
{
sal_Int32 nObject = createObject();
if( updateObject( nObject ) )
{
OStringBuffer aLine( 1024 );
aLine.append( nObject );
aLine.append( " 0 obj\n"
"<<" );
if( m_aDocInfo.Title.Len() )
{
aLine.append( "/Title" );
appendUnicodeTextStringEncrypt( m_aDocInfo.Title, nObject, aLine );
aLine.append( "\n" );
}
if( m_aDocInfo.Author.Len() )
{
aLine.append( "/Author" );
appendUnicodeTextStringEncrypt( m_aDocInfo.Author, nObject, aLine );
aLine.append( "\n" );
}
if( m_aDocInfo.Subject.Len() )
{
aLine.append( "/Subject" );
appendUnicodeTextStringEncrypt( m_aDocInfo.Subject, nObject, aLine );
aLine.append( "\n" );
}
if( m_aDocInfo.Keywords.Len() )
{
aLine.append( "/Keywords" );
appendUnicodeTextStringEncrypt( m_aDocInfo.Keywords, nObject, aLine );
aLine.append( "\n" );
}
if( m_aDocInfo.Creator.Len() )
{
aLine.append( "/Creator" );
appendUnicodeTextStringEncrypt( m_aDocInfo.Creator, nObject, aLine );
aLine.append( "\n" );
}
if( m_aDocInfo.Producer.Len() )
{
aLine.append( "/Producer" );
appendUnicodeTextStringEncrypt( m_aDocInfo.Producer, nObject, aLine );
aLine.append( "\n" );
}
aLine.append( "/CreationDate" );
appendLiteralStringEncrypt( m_aCreationDateString, nObject, aLine );
aLine.append( ">>\nendobj\n\n" );
if( ! writeBuffer( aLine.getStr(), aLine.getLength() ) )
nObject = 0;
}
else
nObject = 0;
return nObject;
}
//--->i56629
// Part of this function may be shared with method appendDest.
//
sal_Int32 PDFWriterImpl::emitNamedDestinations()
{
sal_Int32 nCount = m_aNamedDests.size();
if( nCount <= 0 )
return 0;//define internal error
//get the object number for all the destinations
sal_Int32 nObject = createObject();
if( updateObject( nObject ) )
{
//emit the dictionary
OStringBuffer aLine( 1024 );
aLine.append( nObject );
aLine.append( " 0 obj\n"
"<<" );
sal_Int32 nDestID;
for( nDestID = 0; nDestID < nCount; nDestID++ )
{
const PDFNamedDest& rDest = m_aNamedDests[ nDestID ];
// In order to correctly function both under an Internet browser and
// directly with a reader (provided the reader has the feature) we
// need to set the name of the destination the same way it will be encoded
// in an Internet link
INetURLObject aLocalURL(
OUString( RTL_CONSTASCII_USTRINGPARAM( "http://ahost.ax" ) ) ); //dummy location, won't be used
aLocalURL.SetMark( rDest.m_aDestName );
const rtl::OUString aName = aLocalURL.GetMark( INetURLObject::NO_DECODE ); //same coding as
// in link creation ( see PDFWriterImpl::emitLinkAnnotations )
const PDFPage& rDestPage = m_aPages[ rDest.m_nPage ];
aLine.append( '/' );
appendDestinationName( aName, aLine ); // this conversion must be done when forming the link to target ( see in emitCatalog )
aLine.append( '[' ); // the '[' can be emitted immediately, because the appendDestinationName function
//maps the preceeding character properly
aLine.append( rDestPage.m_nPageObject );
aLine.append( " 0 R" );
switch( rDest.m_eType )
{
case PDFWriter::XYZ:
default:
aLine.append( "/XYZ " );
appendFixedInt( rDest.m_aRect.Left(), aLine );
aLine.append( ' ' );
appendFixedInt( rDest.m_aRect.Bottom(), aLine );
aLine.append( " 0" );
break;
case PDFWriter::Fit:
aLine.append( "/Fit" );
break;
case PDFWriter::FitRectangle:
aLine.append( "/FitR " );
appendFixedInt( rDest.m_aRect.Left(), aLine );
aLine.append( ' ' );
appendFixedInt( rDest.m_aRect.Top(), aLine );
aLine.append( ' ' );
appendFixedInt( rDest.m_aRect.Right(), aLine );
aLine.append( ' ' );
appendFixedInt( rDest.m_aRect.Bottom(), aLine );
break;
case PDFWriter::FitHorizontal:
aLine.append( "/FitH " );
appendFixedInt( rDest.m_aRect.Bottom(), aLine );
break;
case PDFWriter::FitVertical:
aLine.append( "/FitV " );
appendFixedInt( rDest.m_aRect.Left(), aLine );
break;
case PDFWriter::FitPageBoundingBox:
aLine.append( "/FitB" );
break;
case PDFWriter::FitPageBoundingBoxHorizontal:
aLine.append( "/FitBH " );
appendFixedInt( rDest.m_aRect.Bottom(), aLine );
break;
case PDFWriter::FitPageBoundingBoxVertical:
aLine.append( "/FitBV " );
appendFixedInt( rDest.m_aRect.Left(), aLine );
break;
}
aLine.append( "]\n" );
}
//close
aLine.append( ">>\nendobj\n\n" );
if( ! writeBuffer( aLine.getStr(), aLine.getLength() ) )
nObject = 0;
}
else
nObject = 0;
return nObject;
}
//<--- i56629
//--->i59651
// emits the output intent dictionary
sal_Int32 PDFWriterImpl::emitOutputIntent()
{
if( !m_bIsPDF_A1 )
return 0;
//emit the sRGB standard profile, in ICC format, in a stream, per IEC61966-2.1
OStringBuffer aLine( 1024 );
sal_Int32 nICCObject = createObject();
sal_Int32 nStreamLengthObject = createObject();
aLine.append( nICCObject );
// sRGB has 3 colors, hence /N 3 below (PDF 1.4 table 4.16)
aLine.append( " 0 obj\n<</N 3/Length " );
aLine.append( nStreamLengthObject );
aLine.append( " 0 R" );
#ifndef DEBUG_DISABLE_PDFCOMPRESSION
aLine.append( "/Filter/FlateDecode" );
#endif
aLine.append( ">>\nstream\n" );
CHECK_RETURN( updateObject( nICCObject ) );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
//get file position
sal_uInt64 nBeginStreamPos = 0;
osl_getFilePos( m_aFile, &nBeginStreamPos );
beginCompression();
checkAndEnableStreamEncryption( nICCObject );
sal_Int32 nStreamSize = writeBuffer( nsRGB_ICC_profile, (sal_Int32) sizeof( nsRGB_ICC_profile ) );
disableStreamEncryption();
endCompression();
sal_uInt64 nEndStreamPos = 0;
osl_getFilePos( m_aFile, &nEndStreamPos );
if( nStreamSize == 0 )
return 0;
if( ! writeBuffer( "\nendstream\nendobj\n\n", 19 ) )
return 0 ;
aLine.setLength( 0 );
//emit the stream length object
CHECK_RETURN( updateObject( nStreamLengthObject ) );
aLine.setLength( 0 );
aLine.append( nStreamLengthObject );
aLine.append( " 0 obj\n" );
aLine.append( (sal_Int64)(nEndStreamPos-nBeginStreamPos) );
aLine.append( "\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
aLine.setLength( 0 );
//emit the OutputIntent dictionary
sal_Int32 nOIObject = createObject();
CHECK_RETURN( updateObject( nOIObject ) );
aLine.append( nOIObject );
aLine.append( " 0 obj\n"
"<</Type/OutputIntent/S/GTS_PDFA1/OutputConditionIdentifier");
rtl::OUString aComment( RTL_CONSTASCII_USTRINGPARAM( "sRGB IEC61966-2.1" ) );
appendLiteralStringEncrypt( aComment ,nOIObject, aLine );
aLine.append("/DestOutputProfile ");
aLine.append( nICCObject );
aLine.append( " 0 R>>\nendobj\n\n" );;
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
return nOIObject;
}
// formats the string for the XML stream
static void escapeStringXML( const rtl::OUString& rStr, rtl::OUString &rValue)
{
const sal_Unicode* pUni = rStr.getStr();
int nLen = rStr.getLength();
for( ; nLen; nLen--, pUni++ )
{
switch( *pUni )
{
case sal_Unicode('&'):
rValue += rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( "&" ) );
break;
case sal_Unicode('<'):
rValue += rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( "<" ) );
break;
case sal_Unicode('>'):
rValue += rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( ">" ) );
break;
case sal_Unicode('\''):
rValue += rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( "'" ) );
break;
case sal_Unicode('"'):
rValue += rtl::OUString( RTL_CONSTASCII_USTRINGPARAM( """ ) );
break;
default:
rValue += rtl::OUString( *pUni );
break;
}
}
}
// emits the document metadata
//
sal_Int32 PDFWriterImpl::emitDocumentMetadata()
{
if( !m_bIsPDF_A1 )
return 0;
//get the object number for all the destinations
sal_Int32 nObject = createObject();
if( updateObject( nObject ) )
{
// the following string are written in UTF-8 unicode
OStringBuffer aMetadataStream( 8192 );
aMetadataStream.append( "<?xpacket begin=\"" );
// this lines writes Unicode “zero width non-breaking space character” (U+FEFF) (aka byte-order mark ) used
// as a byte-order marker.
aMetadataStream.append( OUStringToOString( OUString( sal_Unicode( 0xFEFF ) ), RTL_TEXTENCODING_UTF8 ) );
aMetadataStream.append( "\" id=\"W5M0MpCehiHzreSzNTczkc9d\"?>\n" );
aMetadataStream.append( "<x:xmpmeta xmlns:x=\"adobe:ns:meta/\">\n" );
aMetadataStream.append( " <rdf:RDF xmlns:rdf=\"http://www.w3.org/1999/02/22-rdf-syntax-ns#\">\n" );
//PDF/A part ( ISO 19005-1:2005 - 6.7.11 )
aMetadataStream.append( " <rdf:Description rdf:about=\"\"\n" );
aMetadataStream.append( " xmlns:pdfaid=\"http://www.aiim.org/pdfa/ns/id/\">\n" );
aMetadataStream.append( " <pdfaid:part>1</pdfaid:part>\n" );
aMetadataStream.append( " <pdfaid:conformance>A</pdfaid:conformance>\n" );
aMetadataStream.append( " </rdf:Description>\n" );
//... Dublin Core properties go here
if( m_aDocInfo.Title.Len() ||
m_aDocInfo.Author.Len() ||
m_aDocInfo.Subject.Len() )
{
aMetadataStream.append( " <rdf:Description rdf:about=\"\"\n" );
aMetadataStream.append( " xmlns:dc=\"http://purl.org/dc/elements/1.1/\">\n" );
if( m_aDocInfo.Title.Len() )
{
// this is according to PDF/A-1, technical corrigendum 1 (2007-04-01)
aMetadataStream.append( " <dc:title>\n" );
aMetadataStream.append( " <rdf:Alt>\n" );
aMetadataStream.append( " <rdf:li xml:lang=\"x-default\">" );
rtl::OUString aTitle;
escapeStringXML( m_aDocInfo.Title, aTitle );
aMetadataStream.append( OUStringToOString( aTitle, RTL_TEXTENCODING_UTF8 ) );
aMetadataStream.append( "</rdf:li>\n" );
aMetadataStream.append( " </rdf:Alt>\n" );
aMetadataStream.append( " </dc:title>\n" );
}
if( m_aDocInfo.Author.Len() )
{
aMetadataStream.append( " <dc:creator>\n" );
aMetadataStream.append( " <rdf:Seq>\n" );
aMetadataStream.append( " <rdf:li>" );
rtl::OUString aAuthor;
escapeStringXML( m_aDocInfo.Author, aAuthor );
aMetadataStream.append( OUStringToOString( aAuthor , RTL_TEXTENCODING_UTF8 ) );
aMetadataStream.append( "</rdf:li>\n" );
aMetadataStream.append( " </rdf:Seq>\n" );
aMetadataStream.append( " </dc:creator>\n" );
}
if( m_aDocInfo.Subject.Len() )
{
// this is according to PDF/A-1, technical corrigendum 1 (2007-04-01)
aMetadataStream.append( " <dc:description>\n" );
aMetadataStream.append( " <rdf:Alt>\n" );
aMetadataStream.append( " <rdf:li xml:lang=\"x-default\">" );
rtl::OUString aSubject;
escapeStringXML( m_aDocInfo.Subject, aSubject );
aMetadataStream.append( OUStringToOString( aSubject , RTL_TEXTENCODING_UTF8 ) );
aMetadataStream.append( "</rdf:li>\n" );
aMetadataStream.append( " </rdf:Alt>\n" );
aMetadataStream.append( " </dc:description>\n" );
}
aMetadataStream.append( " </rdf:Description>\n" );
}
//... PDF properties go here
if( m_aDocInfo.Producer.Len() ||
m_aDocInfo.Keywords.Len() )
{
aMetadataStream.append( " <rdf:Description rdf:about=\"\"\n" );
aMetadataStream.append( " xmlns:pdf=\"http://ns.adobe.com/pdf/1.3/\">\n" );
if( m_aDocInfo.Producer.Len() )
{
aMetadataStream.append( " <pdf:Producer>" );
rtl::OUString aProducer;
escapeStringXML( m_aDocInfo.Producer, aProducer );
aMetadataStream.append( OUStringToOString( aProducer , RTL_TEXTENCODING_UTF8 ) );
aMetadataStream.append( "</pdf:Producer>\n" );
}
if( m_aDocInfo.Keywords.Len() )
{
aMetadataStream.append( " <pdf:Keywords>" );
rtl::OUString aKeywords;
escapeStringXML( m_aDocInfo.Keywords, aKeywords );
aMetadataStream.append( OUStringToOString( aKeywords , RTL_TEXTENCODING_UTF8 ) );
aMetadataStream.append( "</pdf:Keywords>\n" );
}
aMetadataStream.append( " </rdf:Description>\n" );
}
aMetadataStream.append( " <rdf:Description rdf:about=\"\"\n" );
aMetadataStream.append( " xmlns:xmp=\"http://ns.adobe.com/xap/1.0/\">\n" );
if( m_aDocInfo.Creator.Len() )
{
aMetadataStream.append( " <xmp:CreatorTool>" );
rtl::OUString aCreator;
escapeStringXML( m_aDocInfo.Creator, aCreator );
aMetadataStream.append( OUStringToOString( aCreator , RTL_TEXTENCODING_UTF8 ) );
aMetadataStream.append( "</xmp:CreatorTool>\n" );
}
//creation date
aMetadataStream.append( " <xmp:CreateDate>" );
aMetadataStream.append( m_aCreationMetaDateString );
aMetadataStream.append( "</xmp:CreateDate>\n" );
aMetadataStream.append( " </rdf:Description>\n" );
aMetadataStream.append( " </rdf:RDF>\n" );
aMetadataStream.append( "</x:xmpmeta>\n" );
//add the padding
for( sal_Int32 nSpaces = 1; nSpaces <= 2100; nSpaces++ )
{
aMetadataStream.append( " " );
if( nSpaces % 100 == 0 )
aMetadataStream.append( "\n" );
}
aMetadataStream.append( "<?xpacket end=\"w\"?>\n" );
OStringBuffer aMetadataObj( 1024 );
aMetadataObj.append( nObject );
aMetadataObj.append( " 0 obj\n" );
aMetadataObj.append( "<</Type/Metadata/Subtype/XML/Length " );
aMetadataObj.append( (sal_Int32) aMetadataStream.getLength() );
aMetadataObj.append( ">>\nstream\n" );
CHECK_RETURN( writeBuffer( aMetadataObj.getStr(), aMetadataObj.getLength() ) );
//emit the stream
CHECK_RETURN( writeBuffer( aMetadataStream.getStr(), aMetadataStream.getLength() ) );
aMetadataObj.setLength( 0 );
aMetadataObj.append( "\nendstream\nendobj\n\n" );
if( ! writeBuffer( aMetadataObj.getStr(), aMetadataObj.getLength() ) )
nObject = 0;
}
else
nObject = 0;
return nObject;
}
//<---i59651
bool PDFWriterImpl::emitTrailer()
{
// emit doc info
OString aInfoValuesOut;
sal_Int32 nDocInfoObject = emitInfoDict( );
sal_Int32 nSecObject = 0;
if( m_aContext.Encrypt == true )
{
//emit the security information
//must be emitted as indirect dictionary object, since
//Acrobat Reader 5 works only with this kind of implementation
nSecObject = createObject();
if( updateObject( nSecObject ) )
{
OStringBuffer aLineS( 1024 );
aLineS.append( nSecObject );
aLineS.append( " 0 obj\n"
"<</Filter/Standard/V " );
// check the version
if( m_aContext.Security128bit == true )
aLineS.append( "2/Length 128/R 3" );
else
aLineS.append( "1/R 2" );
// emit the owner password, must not be encrypted
aLineS.append( "/O(" );
appendLiteralString( (const sal_Char*)m_nEncryptedOwnerPassword, 32, aLineS );
aLineS.append( ")/U(" );
appendLiteralString( (const sal_Char*)m_nEncryptedUserPassword, 32, aLineS );
aLineS.append( ")/P " );// the permission set
aLineS.append( m_nAccessPermissions );
aLineS.append( ">>\nendobj\n\n" );
if( !writeBuffer( aLineS.getStr(), aLineS.getLength() ) )
nSecObject = 0;
}
else
nSecObject = 0;
}
// emit xref table
// remember start
sal_uInt64 nXRefOffset = 0;
CHECK_RETURN( (osl_File_E_None == osl_getFilePos( m_aFile, &nXRefOffset )) );
CHECK_RETURN( writeBuffer( "xref\n", 5 ) );
sal_Int32 nObjects = m_aObjects.size();
OStringBuffer aLine;
aLine.append( "0 " );
aLine.append( (sal_Int32)(nObjects+1) );
aLine.append( "\n" );
aLine.append( "0000000000 65535 f \n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
for( sal_Int32 i = 0; i < nObjects; i++ )
{
aLine.setLength( 0 );
OString aOffset = OString::valueOf( (sal_Int64)m_aObjects[i] );
for( sal_Int32 j = 0; j < (10-aOffset.getLength()); j++ )
aLine.append( '0' );
aLine.append( aOffset );
aLine.append( " 00000 n \n" );
DBG_ASSERT( aLine.getLength() == 20, "invalid xref entry" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
}
// prepare document checksum
OStringBuffer aDocChecksum( 2*RTL_DIGEST_LENGTH_MD5+1 );
if( m_aDocDigest )
{
sal_uInt8 nMD5Sum[ RTL_DIGEST_LENGTH_MD5 ];
rtl_digest_getMD5( m_aDocDigest, nMD5Sum, sizeof(nMD5Sum) );
for( unsigned int i = 0; i < RTL_DIGEST_LENGTH_MD5; i++ )
appendHex( nMD5Sum[i], aDocChecksum );
}
// document id set in setDocInfo method
// emit trailer
aLine.setLength( 0 );
aLine.append( "trailer\n"
"<</Size " );
aLine.append( (sal_Int32)(nObjects+1) );
aLine.append( "/Root " );
aLine.append( m_nCatalogObject );
aLine.append( " 0 R\n" );
if( nSecObject |= 0 )
{
aLine.append( "/Encrypt ");
aLine.append( nSecObject );
aLine.append( " 0 R\n" );
}
if( nDocInfoObject )
{
aLine.append( "/Info " );
aLine.append( nDocInfoObject );
aLine.append( " 0 R\n" );
}
if( m_aDocID.getLength() )
{
aLine.append( "/ID [ <" );
aLine.append( m_aDocID.getStr(), m_aDocID.getLength() );
aLine.append( ">\n"
"<" );
aLine.append( m_aDocID.getStr(), m_aDocID.getLength() );
aLine.append( "> ]\n" );
}
if( aDocChecksum.getLength() )
{
aLine.append( "/DocChecksum /" );
aLine.append( aDocChecksum );
aLine.append( "\n" );
}
if( m_aAdditionalStreams.size() > 0 )
{
aLine.append( "/AdditionalStreams [" );
for( unsigned int i = 0; i < m_aAdditionalStreams.size(); i++ )
{
aLine.append( "/" );
appendName( m_aAdditionalStreams[i].m_aMimeType, aLine );
aLine.append( " " );
aLine.append( m_aAdditionalStreams[i].m_nStreamObject );
aLine.append( " 0 R\n" );
}
aLine.append( "]\n" );
}
aLine.append( ">>\n"
"startxref\n" );
aLine.append( (sal_Int64)nXRefOffset );
aLine.append( "\n"
"%%EOF\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
return true;
}
struct AnnotationSortEntry
{
sal_Int32 nTabOrder;
sal_Int32 nObject;
sal_Int32 nWidgetIndex;
AnnotationSortEntry( sal_Int32 nTab, sal_Int32 nObj, sal_Int32 nI ) :
nTabOrder( nTab ),
nObject( nObj ),
nWidgetIndex( nI )
{}
};
struct AnnotSortContainer
{
std::set< sal_Int32 > aObjects;
std::vector< AnnotationSortEntry > aSortedAnnots;
};
struct AnnotSorterLess
{
std::vector< PDFWriterImpl::PDFWidget >& m_rWidgets;
AnnotSorterLess( std::vector< PDFWriterImpl::PDFWidget >& rWidgets ) : m_rWidgets( rWidgets ) {}
bool operator()( const AnnotationSortEntry& rLeft, const AnnotationSortEntry& rRight )
{
if( rLeft.nTabOrder < rRight.nTabOrder )
return true;
if( rRight.nTabOrder < rLeft.nTabOrder )
return false;
if( rLeft.nWidgetIndex < 0 && rRight.nWidgetIndex < 0 )
return false;
if( rRight.nWidgetIndex < 0 )
return true;
if( rLeft.nWidgetIndex < 0 )
return false;
// remember: widget rects are in PDF coordinates, so they are ordered down up
if( m_rWidgets[ rLeft.nWidgetIndex ].m_aRect.Top() >
m_rWidgets[ rRight.nWidgetIndex ].m_aRect.Top() )
return true;
if( m_rWidgets[ rRight.nWidgetIndex ].m_aRect.Top() >
m_rWidgets[ rLeft.nWidgetIndex ].m_aRect.Top() )
return false;
if( m_rWidgets[ rLeft.nWidgetIndex ].m_aRect.Left() <
m_rWidgets[ rRight.nWidgetIndex ].m_aRect.Left() )
return true;
return false;
}
};
void PDFWriterImpl::sortWidgets()
{
// sort widget annotations on each page as per their
// TabOrder attribute
std::hash_map< sal_Int32, AnnotSortContainer > sorted;
int nWidgets = m_aWidgets.size();
for( int nW = 0; nW < nWidgets; nW++ )
{
const PDFWidget& rWidget = m_aWidgets[nW];
if( rWidget.m_nPage >= 0 )
{
AnnotSortContainer& rCont = sorted[ rWidget.m_nPage ];
// optimize vector allocation
if( rCont.aSortedAnnots.empty() )
rCont.aSortedAnnots.reserve( m_aPages[ rWidget.m_nPage ].m_aAnnotations.size() );
// insert widget to tab sorter
// RadioButtons are not page annotations, only their individual check boxes are
if( rWidget.m_eType != PDFWriter::RadioButton )
{
rCont.aObjects.insert( rWidget.m_nObject );
rCont.aSortedAnnots.push_back( AnnotationSortEntry( rWidget.m_nTabOrder, rWidget.m_nObject, nW ) );
}
}
}
for( std::hash_map< sal_Int32, AnnotSortContainer >::iterator it = sorted.begin(); it != sorted.end(); ++it )
{
// append entries for non widget annotations
PDFPage& rPage = m_aPages[ it->first ];
unsigned int nAnnots = rPage.m_aAnnotations.size();
for( unsigned int nA = 0; nA < nAnnots; nA++ )
if( it->second.aObjects.find( rPage.m_aAnnotations[nA] ) == it->second.aObjects.end())
it->second.aSortedAnnots.push_back( AnnotationSortEntry( 10000, rPage.m_aAnnotations[nA], -1 ) );
AnnotSorterLess aLess( m_aWidgets );
std::stable_sort( it->second.aSortedAnnots.begin(), it->second.aSortedAnnots.end(), aLess );
// sanity check
if( it->second.aSortedAnnots.size() == nAnnots)
{
for( unsigned int nA = 0; nA < nAnnots; nA++ )
rPage.m_aAnnotations[nA] = it->second.aSortedAnnots[nA].nObject;
}
else
{
DBG_ASSERT( 0, "wrong number of sorted annotations" );
#if OSL_DEBUG_LEVEL > 0
fprintf( stderr, "PDFWriterImpl::sortWidgets(): wrong number of sorted assertions on page nr %ld\n"
" %ld sorted and %ld unsorted\n", (long int)it->first, (long int)it->second.aSortedAnnots.size(), (long int)nAnnots );
#endif
}
}
// FIXME: implement tab order in structure tree for PDF 1.5
}
namespace vcl {
class PDFStreamIf :
public cppu::WeakImplHelper1< com::sun::star::io::XOutputStream >
{
PDFWriterImpl* m_pWriter;
bool m_bWrite;
public:
PDFStreamIf( PDFWriterImpl* pWriter ) : m_pWriter( pWriter ), m_bWrite( true ) {}
virtual ~PDFStreamIf();
virtual void SAL_CALL writeBytes( const com::sun::star::uno::Sequence< sal_Int8 >& aData ) throw();
virtual void SAL_CALL flush() throw();
virtual void SAL_CALL closeOutput() throw();
};
}
PDFStreamIf::~PDFStreamIf()
{
}
void SAL_CALL PDFStreamIf::writeBytes( const com::sun::star::uno::Sequence< sal_Int8 >& aData ) throw()
{
if( m_bWrite )
{
sal_Int32 nBytes = aData.getLength();
if( nBytes > 0 )
m_pWriter->writeBuffer( aData.getConstArray(), nBytes );
}
}
void SAL_CALL PDFStreamIf::flush() throw()
{
}
void SAL_CALL PDFStreamIf::closeOutput() throw()
{
m_bWrite = false;
}
bool PDFWriterImpl::emitAdditionalStreams()
{
unsigned int nStreams = m_aAdditionalStreams.size();
for( unsigned int i = 0; i < nStreams; i++ )
{
PDFAddStream& rStream = m_aAdditionalStreams[i];
rStream.m_nStreamObject = createObject();
sal_Int32 nSizeObject = createObject();
if( ! updateObject( rStream.m_nStreamObject ) )
return false;
OStringBuffer aLine;
aLine.append( rStream.m_nStreamObject );
aLine.append( " 0 obj\n<</Length " );
aLine.append( nSizeObject );
aLine.append( " 0 R" );
if( rStream.m_bCompress )
aLine.append( "/Filter/FlateDecode" );
aLine.append( ">>\nstream\n" );
if( ! writeBuffer( aLine.getStr(), aLine.getLength() ) )
return false;
sal_uInt64 nBeginStreamPos = 0, nEndStreamPos = 0;
if( osl_File_E_None != osl_getFilePos( m_aFile, &nBeginStreamPos ) )
{
osl_closeFile( m_aFile );
m_bOpen = false;
}
if( rStream.m_bCompress )
beginCompression();
checkAndEnableStreamEncryption( rStream.m_nStreamObject );
com::sun::star::uno::Reference< com::sun::star::io::XOutputStream > xStream( new PDFStreamIf( this ) );
rStream.m_pStream->write( xStream );
xStream.clear();
delete rStream.m_pStream;
rStream.m_pStream = NULL;
disableStreamEncryption();
if( rStream.m_bCompress )
endCompression();
if( osl_File_E_None != osl_getFilePos( m_aFile, &nEndStreamPos ) )
{
osl_closeFile( m_aFile );
m_bOpen = false;
return false;
}
if( ! writeBuffer( "\nendstream\nendobj\n\n", 19 ) )
return false ;
// emit stream length object
if( ! updateObject( nSizeObject ) )
return false;
aLine.setLength( 0 );
aLine.append( nSizeObject );
aLine.append( " 0 obj\n" );
aLine.append( (sal_Int64)(nEndStreamPos-nBeginStreamPos) );
aLine.append( "\nendobj\n\n" );
if( ! writeBuffer( aLine.getStr(), aLine.getLength() ) )
return false;
}
return true;
}
bool PDFWriterImpl::emit()
{
endPage();
// resort structure tree and annotations if necessary
// needed for widget tab order
sortWidgets();
// emit additional streams
CHECK_RETURN( emitAdditionalStreams() );
// emit catalog
CHECK_RETURN( emitCatalog() );
// emit trailer
CHECK_RETURN( emitTrailer() );
osl_closeFile( m_aFile );
m_bOpen = false;
return true;
}
std::set< PDFWriter::ErrorCode > PDFWriterImpl::getErrors()
{
return m_aErrors;
}
sal_Int32 PDFWriterImpl::getSystemFont( const Font& i_rFont )
{
getReferenceDevice()->Push();
getReferenceDevice()->SetFont( i_rFont );
getReferenceDevice()->ImplNewFont();
const ImplFontData* pDevFont = m_pReferenceDevice->mpFontEntry->maFontSelData.mpFontData;
sal_Int32 nFontID = 0;
FontEmbedData::iterator it = m_aSystemFonts.find( pDevFont );
if( it != m_aSystemFonts.end() )
nFontID = it->second.m_nNormalFontID;
else
{
nFontID = m_nNextFID++;
m_aSystemFonts[ pDevFont ] = EmbedFont();
m_aSystemFonts[ pDevFont ].m_nNormalFontID = nFontID;
}
getReferenceDevice()->Pop();
getReferenceDevice()->ImplNewFont();
return nFontID;
}
void PDFWriterImpl::registerGlyphs( int nGlyphs,
sal_GlyphId* pGlyphs,
sal_Int32* pGlyphWidths,
sal_Ucs* pUnicodes,
sal_Int32* pUnicodesPerGlyph,
sal_uInt8* pMappedGlyphs,
sal_Int32* pMappedFontObjects,
const ImplFontData* pFallbackFonts[] )
{
const ImplFontData* pDevFont = m_pReferenceDevice->mpFontEntry->maFontSelData.mpFontData;
sal_Ucs* pCurUnicode = pUnicodes;
for( int i = 0; i < nGlyphs; pCurUnicode += pUnicodesPerGlyph[i] , i++ )
{
const int nFontGlyphId = pGlyphs[i] & (GF_IDXMASK | GF_ISCHAR | GF_GSUB);
const ImplFontData* pCurrentFont = pFallbackFonts[i] ? pFallbackFonts[i] : pDevFont;
if( isBuiltinFont( pCurrentFont ) )
{
sal_Int32 nFontID = 0;
FontEmbedData::iterator it = m_aEmbeddedFonts.find( pCurrentFont );
if( it != m_aEmbeddedFonts.end() )
nFontID = it->second.m_nNormalFontID;
else
{
nFontID = m_nNextFID++;
m_aEmbeddedFonts[ pCurrentFont ] = EmbedFont();
m_aEmbeddedFonts[ pCurrentFont ].m_nNormalFontID = nFontID;
}
pGlyphWidths[ i ] = 0;
pMappedGlyphs[ i ] = sal::static_int_cast<sal_Int8>( nFontGlyphId );
pMappedFontObjects[ i ] = nFontID;
const ImplPdfBuiltinFontData* pFD = GetPdfFontData( pCurrentFont );
if( pFD )
{
const BuiltinFont* pBuiltinFont = pFD->GetBuiltinFont();
pGlyphWidths[i] = pBuiltinFont->m_aWidths[ nFontGlyphId & 0x00ff ];
}
}
else if( pCurrentFont->mbSubsettable )
{
FontSubset& rSubset = m_aSubsets[ pCurrentFont ];
// search for font specific glyphID
FontMapping::iterator it = rSubset.m_aMapping.find( nFontGlyphId );
if( it != rSubset.m_aMapping.end() )
{
pMappedFontObjects[i] = it->second.m_nFontID;
pMappedGlyphs[i] = it->second.m_nSubsetGlyphID;
}
else
{
// create new subset if necessary
if( rSubset.m_aSubsets.empty()
|| (rSubset.m_aSubsets.back().m_aMapping.size() > 254) )
{
rSubset.m_aSubsets.push_back( FontEmit( m_nNextFID++ ) );
}
// copy font id
pMappedFontObjects[i] = rSubset.m_aSubsets.back().m_nFontID;
// create new glyph in subset
sal_uInt8 nNewId = sal::static_int_cast<sal_uInt8>(rSubset.m_aSubsets.back().m_aMapping.size()+1);
pMappedGlyphs[i] = nNewId;
// add new glyph to emitted font subset
GlyphEmit& rNewGlyphEmit = rSubset.m_aSubsets.back().m_aMapping[ nFontGlyphId ];
rNewGlyphEmit.setGlyphId( nNewId );
for( sal_Int32 n = 0; n < pUnicodesPerGlyph[i]; n++ )
rNewGlyphEmit.addCode( pCurUnicode[n] );
// add new glyph to font mapping
Glyph& rNewGlyph = rSubset.m_aMapping[ nFontGlyphId ];
rNewGlyph.m_nFontID = pMappedFontObjects[i];
rNewGlyph.m_nSubsetGlyphID = nNewId;
}
getReferenceDevice()->ImplGetGraphics();
const bool bVertical = ((pGlyphs[i] & GF_ROTMASK) != 0);
pGlyphWidths[i] = m_aFontCache.getGlyphWidth( pCurrentFont,
nFontGlyphId,
bVertical,
m_pReferenceDevice->mpGraphics );
}
else if( pCurrentFont->IsEmbeddable() )
{
sal_Int32 nFontID = 0;
FontEmbedData::iterator it = m_aEmbeddedFonts.find( pCurrentFont );
if( it != m_aEmbeddedFonts.end() )
nFontID = it->second.m_nNormalFontID;
else
{
nFontID = m_nNextFID++;
m_aEmbeddedFonts[ pCurrentFont ] = EmbedFont();
m_aEmbeddedFonts[ pCurrentFont ].m_nNormalFontID = nFontID;
}
EmbedFont& rEmbedFont = m_aEmbeddedFonts[pCurrentFont];
const Ucs2SIntMap* pEncoding = NULL;
const Ucs2OStrMap* pNonEncoded = NULL;
getReferenceDevice()->ImplGetGraphics();
pEncoding = m_pReferenceDevice->mpGraphics->GetFontEncodingVector( pCurrentFont, &pNonEncoded );
Ucs2SIntMap::const_iterator enc_it;
Ucs2OStrMap::const_iterator nonenc_it;
sal_Int32 nCurFontID = nFontID;
sal_Ucs cChar = *pCurUnicode;
if( pEncoding )
{
enc_it = pEncoding->find( cChar );
if( enc_it != pEncoding->end() && enc_it->second > 0 )
{
DBG_ASSERT( (enc_it->second & 0xffffff00) == 0, "Invalid character code" );
cChar = (sal_Ucs)enc_it->second;
}
else if( (enc_it == pEncoding->end() || enc_it->second == -1) &&
pNonEncoded &&
(nonenc_it = pNonEncoded->find( cChar )) != pNonEncoded->end() )
{
nCurFontID = 0;
// find non encoded glyph
for( std::list< EmbedEncoding >::iterator nec_it = rEmbedFont.m_aExtendedEncodings.begin(); nec_it != rEmbedFont.m_aExtendedEncodings.end(); ++nec_it )
{
if( nec_it->m_aCMap.find( cChar ) != nec_it->m_aCMap.end() )
{
nCurFontID = nec_it->m_nFontID;
cChar = (sal_Ucs)nec_it->m_aCMap[ cChar ];
break;
}
}
if( nCurFontID == 0 ) // new nonencoded glyph
{
if( rEmbedFont.m_aExtendedEncodings.empty() || rEmbedFont.m_aExtendedEncodings.back().m_aEncVector.size() == 255 )
{
rEmbedFont.m_aExtendedEncodings.push_back( EmbedEncoding() );
rEmbedFont.m_aExtendedEncodings.back().m_nFontID = m_nNextFID++;
}
EmbedEncoding& rEncoding = rEmbedFont.m_aExtendedEncodings.back();
rEncoding.m_aEncVector.push_back( EmbedCode() );
rEncoding.m_aEncVector.back().m_aUnicode = cChar;
rEncoding.m_aEncVector.back().m_aName = nonenc_it->second;
rEncoding.m_aCMap[ cChar ] = (sal_Int8)(rEncoding.m_aEncVector.size()-1);
nCurFontID = rEncoding.m_nFontID;
cChar = (sal_Ucs)rEncoding.m_aCMap[ cChar ];
}
}
else
pEncoding = NULL;
}
if( ! pEncoding )
{
if( cChar & 0xff00 )
{
// some characters can be used by conversion
if( cChar >= 0xf000 && cChar <= 0xf0ff ) // symbol encoding in private use area
cChar -= 0xf000;
else
{
String aString(cChar);
ByteString aChar( aString, RTL_TEXTENCODING_MS_1252 );
cChar = ((sal_Ucs)aChar.GetChar( 0 )) & 0x00ff;
}
}
}
pMappedGlyphs[ i ] = (sal_Int8)cChar;
pMappedFontObjects[ i ] = nCurFontID;
pGlyphWidths[ i ] = m_aFontCache.getGlyphWidth( pCurrentFont,
(pEncoding ? *pCurUnicode : cChar) | GF_ISCHAR,
false,
m_pReferenceDevice->mpGraphics );
}
}
}
void PDFWriterImpl::drawRelief( SalLayout& rLayout, const String& rText, bool bTextLines )
{
push( PUSH_ALL );
FontRelief eRelief = m_aCurrentPDFState.m_aFont.GetRelief();
Color aTextColor = m_aCurrentPDFState.m_aFont.GetColor();
Color aTextLineColor = m_aCurrentPDFState.m_aTextLineColor;
Color aOverlineColor = m_aCurrentPDFState.m_aOverlineColor;
Color aReliefColor( COL_LIGHTGRAY );
if( aTextColor == COL_BLACK )
aTextColor = Color( COL_WHITE );
if( aTextLineColor == COL_BLACK )
aTextLineColor = Color( COL_WHITE );
if( aOverlineColor == COL_BLACK )
aOverlineColor = Color( COL_WHITE );
if( aTextColor == COL_WHITE )
aReliefColor = Color( COL_BLACK );
Font aSetFont = m_aCurrentPDFState.m_aFont;
aSetFont.SetRelief( RELIEF_NONE );
aSetFont.SetShadow( FALSE );
aSetFont.SetColor( aReliefColor );
setTextLineColor( aReliefColor );
setOverlineColor( aReliefColor );
setFont( aSetFont );
long nOff = 1 + getReferenceDevice()->mnDPIX/300;
if( eRelief == RELIEF_ENGRAVED )
nOff = -nOff;
rLayout.DrawOffset() += Point( nOff, nOff );
updateGraphicsState();
drawLayout( rLayout, rText, bTextLines );
rLayout.DrawOffset() -= Point( nOff, nOff );
setTextLineColor( aTextLineColor );
setOverlineColor( aOverlineColor );
aSetFont.SetColor( aTextColor );
setFont( aSetFont );
updateGraphicsState();
drawLayout( rLayout, rText, bTextLines );
// clean up the mess
pop();
}
void PDFWriterImpl::drawShadow( SalLayout& rLayout, const String& rText, bool bTextLines )
{
Font aSaveFont = m_aCurrentPDFState.m_aFont;
Color aSaveTextLineColor = m_aCurrentPDFState.m_aTextLineColor;
Color aSaveOverlineColor = m_aCurrentPDFState.m_aOverlineColor;
Font& rFont = m_aCurrentPDFState.m_aFont;
if( rFont.GetColor() == Color( COL_BLACK ) || rFont.GetColor().GetLuminance() < 8 )
rFont.SetColor( Color( COL_LIGHTGRAY ) );
else
rFont.SetColor( Color( COL_BLACK ) );
rFont.SetShadow( FALSE );
rFont.SetOutline( FALSE );
setFont( rFont );
setTextLineColor( rFont.GetColor() );
setOverlineColor( rFont.GetColor() );
updateGraphicsState();
long nOff = 1 + ((m_pReferenceDevice->mpFontEntry->mnLineHeight-24)/24);
if( rFont.IsOutline() )
nOff++;
rLayout.DrawBase() += Point( nOff, nOff );
drawLayout( rLayout, rText, bTextLines );
rLayout.DrawBase() -= Point( nOff, nOff );
setFont( aSaveFont );
setTextLineColor( aSaveTextLineColor );
setOverlineColor( aSaveOverlineColor );
updateGraphicsState();
}
void PDFWriterImpl::drawVerticalGlyphs(
const std::vector<PDFWriterImpl::PDFGlyph>& rGlyphs,
OStringBuffer& rLine,
const Point& rAlignOffset,
const Matrix3& rRotScale,
double fAngle,
double fXScale,
double fSkew,
sal_Int32 nFontHeight )
{
long nXOffset = 0;
Point aCurPos( rGlyphs[0].m_aPos );
aCurPos = m_pReferenceDevice->PixelToLogic( aCurPos );
aCurPos += rAlignOffset;
for( size_t i = 0; i < rGlyphs.size(); i++ )
{
// have to emit each glyph on its own
double fDeltaAngle = 0.0;
double fYScale = 1.0;
double fTempXScale = fXScale;
double fSkewB = fSkew;
double fSkewA = 0.0;
Point aDeltaPos;
if( ( rGlyphs[i].m_nGlyphId & GF_ROTMASK ) == GF_ROTL )
{
fDeltaAngle = M_PI/2.0;
aDeltaPos.X() = m_pReferenceDevice->GetFontMetric().GetAscent();
aDeltaPos.Y() = (int)((double)m_pReferenceDevice->GetFontMetric().GetDescent() * fXScale);
fYScale = fXScale;
fTempXScale = 1.0;
fSkewA = -fSkewB;
fSkewB = 0.0;
}
else if( ( rGlyphs[i].m_nGlyphId & GF_ROTMASK ) == GF_ROTR )
{
fDeltaAngle = -M_PI/2.0;
aDeltaPos.X() = (int)((double)m_pReferenceDevice->GetFontMetric().GetDescent()*fXScale);
aDeltaPos.Y() = -m_pReferenceDevice->GetFontMetric().GetAscent();
fYScale = fXScale;
fTempXScale = 1.0;
fSkewA = fSkewB;
fSkewB = 0.0;
}
aDeltaPos += (m_pReferenceDevice->PixelToLogic( Point( (int)((double)nXOffset/fXScale), 0 ) ) - m_pReferenceDevice->PixelToLogic( Point() ) );
if( i < rGlyphs.size()-1 )
nXOffset += rGlyphs[i+1].m_aPos.Y() - rGlyphs[i].m_aPos.Y();
if( ! rGlyphs[i].m_nGlyphId )
continue;
aDeltaPos = rRotScale.transform( aDeltaPos );
Matrix3 aMat;
if( fSkewB != 0.0 || fSkewA != 0.0 )
aMat.skew( fSkewA, fSkewB );
aMat.scale( fTempXScale, fYScale );
aMat.rotate( fAngle+fDeltaAngle );
aMat.translate( aCurPos.X()+aDeltaPos.X(), aCurPos.Y()+aDeltaPos.Y() );
aMat.append( m_aPages.back(), rLine );
rLine.append( " Tm" );
if( i == 0 || rGlyphs[i-1].m_nMappedFontId != rGlyphs[i].m_nMappedFontId )
{
rLine.append( " /F" );
rLine.append( rGlyphs[i].m_nMappedFontId );
rLine.append( ' ' );
m_aPages.back().appendMappedLength( nFontHeight, rLine, true );
rLine.append( " Tf" );
}
rLine.append( "<" );
appendHex( rGlyphs[i].m_nMappedGlyphId, rLine );
rLine.append( ">Tj\n" );
}
}
void PDFWriterImpl::drawHorizontalGlyphs(
const std::vector<PDFWriterImpl::PDFGlyph>& rGlyphs,
OStringBuffer& rLine,
const Point& rAlignOffset,
double fAngle,
double fXScale,
double fSkew,
sal_Int32 nFontHeight,
sal_Int32 nPixelFontHeight
)
{
// horizontal (= normal) case
// fill in run end indices
// end is marked by index of the first glyph of the next run
// a run is marked by same mapped font id and same Y position
std::vector< sal_uInt32 > aRunEnds;
aRunEnds.reserve( rGlyphs.size() );
for( size_t i = 1; i < rGlyphs.size(); i++ )
{
if( rGlyphs[i].m_nMappedFontId != rGlyphs[i-1].m_nMappedFontId ||
rGlyphs[i].m_aPos.Y() != rGlyphs[i-1].m_aPos.Y() )
{
aRunEnds.push_back(i);
}
}
// last run ends at last glyph
aRunEnds.push_back( rGlyphs.size() );
// loop over runs of the same font
sal_uInt32 nBeginRun = 0;
for( size_t nRun = 0; nRun < aRunEnds.size(); nRun++ )
{
// setup text matrix
Point aCurPos = rGlyphs[nBeginRun].m_aPos;
// back transformation to current coordinate system
aCurPos = m_pReferenceDevice->PixelToLogic( aCurPos );
aCurPos += rAlignOffset;
// the first run can be set with "Td" operator
// subsequent use of that operator would move
// the texline matrix relative to what was set before
// making use of that would drive us into rounding issues
Matrix3 aMat;
if( nRun == 0 && fAngle == 0.0 && fXScale == 1.0 && fSkew == 0.0 )
{
m_aPages.back().appendPoint( aCurPos, rLine, false );
rLine.append( " Td " );
}
else
{
if( fSkew != 0.0 )
aMat.skew( 0.0, fSkew );
aMat.scale( fXScale, 1.0 );
aMat.rotate( fAngle );
aMat.translate( aCurPos.X(), aCurPos.Y() );
aMat.append( m_aPages.back(), rLine );
rLine.append( " Tm\n" );
}
// set up correct font
rLine.append( "/F" );
rLine.append( rGlyphs[nBeginRun].m_nMappedFontId );
rLine.append( ' ' );
m_aPages.back().appendMappedLength( nFontHeight, rLine, true );
rLine.append( " Tf" );
// output glyphs using Tj or TJ
OStringBuffer aKernedLine( 256 ), aUnkernedLine( 256 );
aKernedLine.append( "[<" );
aUnkernedLine.append( '<' );
appendHex( rGlyphs[nBeginRun].m_nMappedGlyphId, aKernedLine );
appendHex( rGlyphs[nBeginRun].m_nMappedGlyphId, aUnkernedLine );
aMat.invert();
bool bNeedKern = false;
for( sal_uInt32 nPos = nBeginRun+1; nPos < aRunEnds[nRun]; nPos++ )
{
appendHex( rGlyphs[nPos].m_nMappedGlyphId, aUnkernedLine );
// check if default glyph positioning is sufficient
const Point aThisPos = aMat.transform( rGlyphs[nPos].m_aPos );
const Point aPrevPos = aMat.transform( rGlyphs[nPos-1].m_aPos );
double fAdvance = aThisPos.X() - aPrevPos.X();
fAdvance *= 1000.0 / nPixelFontHeight;
const sal_Int32 nAdjustment = (sal_Int32)(rGlyphs[nPos-1].m_nNativeWidth - fAdvance + 0.5);
if( nAdjustment != 0 )
{
// apply individual glyph positioning
bNeedKern = true;
aKernedLine.append( ">" );
aKernedLine.append( nAdjustment );
aKernedLine.append( "<" );
}
appendHex( rGlyphs[nPos].m_nMappedGlyphId, aKernedLine );
}
aKernedLine.append( ">]TJ\n" );
aUnkernedLine.append( ">Tj\n" );
rLine.append( bNeedKern ? aKernedLine : aUnkernedLine );
// set beginning of next run
nBeginRun = aRunEnds[nRun];
}
}
void PDFWriterImpl::drawLayout( SalLayout& rLayout, const String& rText, bool bTextLines )
{
// relief takes precedence over shadow (see outdev3.cxx)
if( m_aCurrentPDFState.m_aFont.GetRelief() != RELIEF_NONE )
{
drawRelief( rLayout, rText, bTextLines );
return;
}
else if( m_aCurrentPDFState.m_aFont.IsShadow() )
drawShadow( rLayout, rText, bTextLines );
OStringBuffer aLine( 512 );
const int nMaxGlyphs = 256;
sal_GlyphId pGlyphs[nMaxGlyphs];
sal_Int32 pGlyphWidths[nMaxGlyphs];
sal_uInt8 pMappedGlyphs[nMaxGlyphs];
sal_Int32 pMappedFontObjects[nMaxGlyphs];
std::vector<sal_Ucs> aUnicodes;
aUnicodes.reserve( nMaxGlyphs );
sal_Int32 pUnicodesPerGlyph[nMaxGlyphs];
int pCharPosAry[nMaxGlyphs];
sal_Int32 nAdvanceWidths[nMaxGlyphs];
const ImplFontData* pFallbackFonts[nMaxGlyphs];
bool bVertical = m_aCurrentPDFState.m_aFont.IsVertical();
int nGlyphs;
int nIndex = 0;
int nMinCharPos = 0, nMaxCharPos = rText.Len()-1;
double fXScale = 1.0;
double fSkew = 0.0;
sal_Int32 nPixelFontHeight = m_pReferenceDevice->mpFontEntry->maFontSelData.mnHeight;
TextAlign eAlign = m_aCurrentPDFState.m_aFont.GetAlign();
// transform font height back to current units
// note: the layout calculates in outdevs device pixel !!
sal_Int32 nFontHeight = m_pReferenceDevice->ImplDevicePixelToLogicHeight( nPixelFontHeight );
if( m_aCurrentPDFState.m_aFont.GetWidth() )
{
Font aFont( m_aCurrentPDFState.m_aFont );
aFont.SetWidth( 0 );
FontMetric aMetric = m_pReferenceDevice->GetFontMetric( aFont );
if( aMetric.GetWidth() != m_aCurrentPDFState.m_aFont.GetWidth() )
{
fXScale =
(double)m_aCurrentPDFState.m_aFont.GetWidth() /
(double)aMetric.GetWidth();
}
// force state before GetFontMetric
m_pReferenceDevice->ImplNewFont();
}
// perform artificial italics if necessary
if( ( m_aCurrentPDFState.m_aFont.GetItalic() == ITALIC_NORMAL ||
m_aCurrentPDFState.m_aFont.GetItalic() == ITALIC_OBLIQUE ) &&
!( m_pReferenceDevice->mpFontEntry->maFontSelData.mpFontData->GetSlant() == ITALIC_NORMAL ||
m_pReferenceDevice->mpFontEntry->maFontSelData.mpFontData->GetSlant() == ITALIC_OBLIQUE )
)
{
fSkew = M_PI/12.0;
}
// if the mapmode is distorted we need to adjust for that also
if( m_aCurrentPDFState.m_aMapMode.GetScaleX() != m_aCurrentPDFState.m_aMapMode.GetScaleY() )
{
fXScale *= double(m_aCurrentPDFState.m_aMapMode.GetScaleX()) / double(m_aCurrentPDFState.m_aMapMode.GetScaleY());
}
int nAngle = m_aCurrentPDFState.m_aFont.GetOrientation();
// normalize angles
while( nAngle < 0 )
nAngle += 3600;
nAngle = nAngle % 3600;
double fAngle = (double)nAngle * M_PI / 1800.0;
Matrix3 aRotScale;
aRotScale.scale( fXScale, 1.0 );
if( fAngle != 0.0 )
aRotScale.rotate( -fAngle );
bool bPop = false;
bool bABold = false;
// artificial bold necessary ?
if( m_pReferenceDevice->mpFontEntry->maFontSelData.mpFontData->GetWeight() <= WEIGHT_MEDIUM &&
m_pReferenceDevice->mpFontEntry->maFontSelData.GetWeight() > WEIGHT_MEDIUM )
{
if( ! bPop )
aLine.append( "q " );
bPop = true;
bABold = true;
}
// setup text colors (if necessary)
Color aStrokeColor( COL_TRANSPARENT );
Color aNonStrokeColor( COL_TRANSPARENT );
if( m_aCurrentPDFState.m_aFont.IsOutline() )
{
aStrokeColor = m_aCurrentPDFState.m_aFont.GetColor();
aNonStrokeColor = Color( COL_WHITE );
}
else
aNonStrokeColor = m_aCurrentPDFState.m_aFont.GetColor();
if( bABold )
aStrokeColor = m_aCurrentPDFState.m_aFont.GetColor();
if( aStrokeColor != Color( COL_TRANSPARENT ) && aStrokeColor != m_aCurrentPDFState.m_aLineColor )
{
if( ! bPop )
aLine.append( "q " );
bPop = true;
appendStrokingColor( aStrokeColor, aLine );
aLine.append( "\n" );
}
if( aNonStrokeColor != Color( COL_TRANSPARENT ) && aNonStrokeColor != m_aCurrentPDFState.m_aFillColor )
{
if( ! bPop )
aLine.append( "q " );
bPop = true;
appendNonStrokingColor( aNonStrokeColor, aLine );
aLine.append( "\n" );
}
// begin text object
aLine.append( "BT\n" );
// outline attribute ?
if( m_aCurrentPDFState.m_aFont.IsOutline() || bABold )
{
// set correct text mode, set stroke width
aLine.append( "2 Tr " ); // fill, then stroke
if( m_aCurrentPDFState.m_aFont.IsOutline() )
{
// unclear what to do in case of outline and artificial bold
// for the time being outline wins
aLine.append( "0.25 w \n" );
}
else
{
double fW = (double)m_aCurrentPDFState.m_aFont.GetHeight() / 30.0;
m_aPages.back().appendMappedLength( fW, aLine );
aLine.append ( " w\n" );
}
}
FontMetric aRefDevFontMetric = m_pReferenceDevice->GetFontMetric();
// collect the glyphs into a single array
const int nTmpMaxGlyphs = rLayout.GetOrientation() ? 1 : nMaxGlyphs; // #i97991# temporary workaround for #i87686#
std::vector< PDFGlyph > aGlyphs;
aGlyphs.reserve( nTmpMaxGlyphs );
// first get all the glyphs and register them; coordinates still in Pixel
Point aGNGlyphPos;
while( (nGlyphs = rLayout.GetNextGlyphs( nTmpMaxGlyphs, pGlyphs, aGNGlyphPos, nIndex, nAdvanceWidths, pCharPosAry )) != 0 )
{
aUnicodes.clear();
for( int i = 0; i < nGlyphs; i++ )
{
pFallbackFonts[i] = rLayout.GetFallbackFontData( pGlyphs[i] );
// default case: 1 glyph is one unicode
pUnicodesPerGlyph[i] = 1;
if( (pGlyphs[i] & GF_ISCHAR) )
{
aUnicodes.push_back( static_cast<sal_Ucs>(pGlyphs[i] & GF_IDXMASK) );
}
else if( pCharPosAry[i] >= nMinCharPos && pCharPosAry[i] <= nMaxCharPos )
{
int nChars = 1;
aUnicodes.push_back( rText.GetChar( sal::static_int_cast<xub_StrLen>(pCharPosAry[i]) ) );
pUnicodesPerGlyph[i] = 1;
// try to handle ligatures and such
if( i < nGlyphs-1 )
{
pUnicodesPerGlyph[i] = nChars = pCharPosAry[i+1] - pCharPosAry[i];
for( int n = 1; n < nChars; n++ )
aUnicodes.push_back( rText.GetChar( sal::static_int_cast<xub_StrLen>(pCharPosAry[i]+n) ) );
}
// #i36691# hack that is needed because currently the pGlyphs[]
// argument is ignored for embeddable fonts and so the layout
// engine's glyph work is ignored (i.e. char mirroring)
// TODO: a real solution would be to map the layout engine's
// glyphid (i.e. FreeType's synthetic glyphid for a Type1 font)
// back to unicode and then to embeddable font's encoding
if( getReferenceDevice()->GetLayoutMode() & TEXT_LAYOUT_BIDI_RTL )
{
size_t nI = aUnicodes.size()-1;
for( int n = 0; n < nChars; n++, nI-- )
aUnicodes[nI] = static_cast<sal_Ucs>(GetMirroredChar(aUnicodes[nI]));
}
}
else
aUnicodes.push_back( 0 );
// note: in case of ctl one character may result
// in multiple glyphs. The current SalLayout
// implementations set -1 then to indicate that no direct
// mapping is possible
}
registerGlyphs( nGlyphs, pGlyphs, pGlyphWidths, &aUnicodes[0], pUnicodesPerGlyph, pMappedGlyphs, pMappedFontObjects, pFallbackFonts );
for( int i = 0; i < nGlyphs; i++ )
{
aGlyphs.push_back( PDFGlyph( aGNGlyphPos,
pGlyphWidths[i],
pGlyphs[i],
pMappedFontObjects[i],
pMappedGlyphs[i] ) );
if( bVertical )
aGNGlyphPos.Y() += nAdvanceWidths[i]/rLayout.GetUnitsPerPixel();
else
aGNGlyphPos.X() += nAdvanceWidths[i]/rLayout.GetUnitsPerPixel();
}
}
Point aAlignOffset;
if ( eAlign == ALIGN_BOTTOM )
aAlignOffset.Y() -= aRefDevFontMetric.GetDescent();
else if ( eAlign == ALIGN_TOP )
aAlignOffset.Y() += aRefDevFontMetric.GetAscent();
if( aAlignOffset.X() || aAlignOffset.Y() )
aAlignOffset = aRotScale.transform( aAlignOffset );
/* #159153# do not emit an empty glyph vector; this can happen if e.g. the original
string contained only on of the UTF16 BOMs
*/
if( ! aGlyphs.empty() )
{
if( bVertical )
drawVerticalGlyphs( aGlyphs, aLine, aAlignOffset, aRotScale, fAngle, fXScale, fSkew, nFontHeight );
else
drawHorizontalGlyphs( aGlyphs, aLine, aAlignOffset, fAngle, fXScale, fSkew, nFontHeight, nPixelFontHeight );
}
// end textobject
aLine.append( "ET\n" );
if( bPop )
aLine.append( "Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
// draw eventual textlines
FontStrikeout eStrikeout = m_aCurrentPDFState.m_aFont.GetStrikeout();
FontUnderline eUnderline = m_aCurrentPDFState.m_aFont.GetUnderline();
FontUnderline eOverline = m_aCurrentPDFState.m_aFont.GetOverline();
if( bTextLines &&
(
( eUnderline != UNDERLINE_NONE && eUnderline != UNDERLINE_DONTKNOW ) ||
( eOverline != UNDERLINE_NONE && eOverline != UNDERLINE_DONTKNOW ) ||
( eStrikeout != STRIKEOUT_NONE && eStrikeout != STRIKEOUT_DONTKNOW )
)
)
{
BOOL bUnderlineAbove = OutputDevice::ImplIsUnderlineAbove( m_aCurrentPDFState.m_aFont );
if( m_aCurrentPDFState.m_aFont.IsWordLineMode() )
{
Point aPos, aStartPt;
sal_Int32 nWidth = 0, nAdvance=0;
for( int nStart = 0;;)
{
sal_GlyphId nGlyphIndex;
if( !rLayout.GetNextGlyphs( 1, &nGlyphIndex, aPos, nStart, &nAdvance ) )
break;
if( !rLayout.IsSpacingGlyph( nGlyphIndex ) )
{
if( !nWidth )
aStartPt = aPos;
nWidth += nAdvance;
}
else if( nWidth > 0 )
{
drawTextLine( m_pReferenceDevice->PixelToLogic( aStartPt ),
m_pReferenceDevice->ImplDevicePixelToLogicWidth( nWidth ),
eStrikeout, eUnderline, eOverline, bUnderlineAbove );
nWidth = 0;
}
}
if( nWidth > 0 )
{
drawTextLine( m_pReferenceDevice->PixelToLogic( aStartPt ),
m_pReferenceDevice->ImplDevicePixelToLogicWidth( nWidth ),
eStrikeout, eUnderline, eOverline, bUnderlineAbove );
}
}
else
{
Point aStartPt = rLayout.GetDrawPosition();
int nWidth = rLayout.GetTextWidth() / rLayout.GetUnitsPerPixel();
drawTextLine( m_pReferenceDevice->PixelToLogic( aStartPt ),
m_pReferenceDevice->ImplDevicePixelToLogicWidth( nWidth ),
eStrikeout, eUnderline, eOverline, bUnderlineAbove );
}
}
// write eventual emphasis marks
if( m_aCurrentPDFState.m_aFont.GetEmphasisMark() & EMPHASISMARK_STYLE )
{
PolyPolygon aEmphPoly;
Rectangle aEmphRect1;
Rectangle aEmphRect2;
long nEmphYOff;
long nEmphWidth;
long nEmphHeight;
BOOL bEmphPolyLine;
FontEmphasisMark nEmphMark;
push( PUSH_ALL );
aLine.setLength( 0 );
aLine.append( "q\n" );
nEmphMark = m_pReferenceDevice->ImplGetEmphasisMarkStyle( m_aCurrentPDFState.m_aFont );
if ( nEmphMark & EMPHASISMARK_POS_BELOW )
nEmphHeight = m_pReferenceDevice->mnEmphasisDescent;
else
nEmphHeight = m_pReferenceDevice->mnEmphasisAscent;
m_pReferenceDevice->ImplGetEmphasisMark( aEmphPoly,
bEmphPolyLine,
aEmphRect1,
aEmphRect2,
nEmphYOff,
nEmphWidth,
nEmphMark,
m_pReferenceDevice->ImplDevicePixelToLogicWidth(nEmphHeight),
m_pReferenceDevice->mpFontEntry->mnOrientation );
if ( bEmphPolyLine )
{
setLineColor( m_aCurrentPDFState.m_aFont.GetColor() );
setFillColor( Color( COL_TRANSPARENT ) );
}
else
{
setFillColor( m_aCurrentPDFState.m_aFont.GetColor() );
setLineColor( Color( COL_TRANSPARENT ) );
}
writeBuffer( aLine.getStr(), aLine.getLength() );
Point aOffset = Point(0,0);
if ( nEmphMark & EMPHASISMARK_POS_BELOW )
aOffset.Y() += m_pReferenceDevice->mpFontEntry->maMetric.mnDescent + nEmphYOff;
else
aOffset.Y() -= m_pReferenceDevice->mpFontEntry->maMetric.mnAscent + nEmphYOff;
long nEmphWidth2 = nEmphWidth / 2;
long nEmphHeight2 = nEmphHeight / 2;
aOffset += Point( nEmphWidth2, nEmphHeight2 );
if ( eAlign == ALIGN_BOTTOM )
aOffset.Y() -= m_pReferenceDevice->mpFontEntry->maMetric.mnDescent;
else if ( eAlign == ALIGN_TOP )
aOffset.Y() += m_pReferenceDevice->mpFontEntry->maMetric.mnAscent;
for( int nStart = 0;;)
{
Point aPos;
sal_GlyphId nGlyphIndex;
sal_Int32 nAdvance;
if( !rLayout.GetNextGlyphs( 1, &nGlyphIndex, aPos, nStart, &nAdvance ) )
break;
if( !rLayout.IsSpacingGlyph( nGlyphIndex ) )
{
Point aAdjOffset = aOffset;
aAdjOffset.X() += (nAdvance - nEmphWidth) / 2;
aAdjOffset = aRotScale.transform( aAdjOffset );
aAdjOffset -= Point( nEmphWidth2, nEmphHeight2 );
aPos += aAdjOffset;
aPos = m_pReferenceDevice->PixelToLogic( aPos );
drawEmphasisMark( aPos.X(), aPos.Y(),
aEmphPoly, bEmphPolyLine,
aEmphRect1, aEmphRect2 );
}
}
writeBuffer( "Q\n", 2 );
pop();
}
}
void PDFWriterImpl::drawEmphasisMark( long nX, long nY,
const PolyPolygon& rPolyPoly, BOOL bPolyLine,
const Rectangle& rRect1, const Rectangle& rRect2 )
{
// TODO: pass nWidth as width of this mark
// long nWidth = 0;
if ( rPolyPoly.Count() )
{
if ( bPolyLine )
{
Polygon aPoly = rPolyPoly.GetObject( 0 );
aPoly.Move( nX, nY );
drawPolyLine( aPoly );
}
else
{
PolyPolygon aPolyPoly = rPolyPoly;
aPolyPoly.Move( nX, nY );
drawPolyPolygon( aPolyPoly );
}
}
if ( !rRect1.IsEmpty() )
{
Rectangle aRect( Point( nX+rRect1.Left(),
nY+rRect1.Top() ), rRect1.GetSize() );
drawRectangle( aRect );
}
if ( !rRect2.IsEmpty() )
{
Rectangle aRect( Point( nX+rRect2.Left(),
nY+rRect2.Top() ), rRect2.GetSize() );
drawRectangle( aRect );
}
}
void PDFWriterImpl::drawText( const Point& rPos, const String& rText, xub_StrLen nIndex, xub_StrLen nLen, bool bTextLines )
{
MARK( "drawText" );
updateGraphicsState();
// get a layout from the OuputDevice's SalGraphics
// this also enforces font substitution and sets the font on SalGraphics
SalLayout* pLayout = m_pReferenceDevice->ImplLayout( rText, nIndex, nLen, rPos );
if( pLayout )
{
drawLayout( *pLayout, rText, bTextLines );
pLayout->Release();
}
}
void PDFWriterImpl::drawTextArray( const Point& rPos, const String& rText, const sal_Int32* pDXArray, xub_StrLen nIndex, xub_StrLen nLen, bool bTextLines )
{
MARK( "drawText with array" );
updateGraphicsState();
// get a layout from the OuputDevice's SalGraphics
// this also enforces font substitution and sets the font on SalGraphics
SalLayout* pLayout = m_pReferenceDevice->ImplLayout( rText, nIndex, nLen, rPos, 0, pDXArray );
if( pLayout )
{
drawLayout( *pLayout, rText, bTextLines );
pLayout->Release();
}
}
void PDFWriterImpl::drawStretchText( const Point& rPos, ULONG nWidth, const String& rText, xub_StrLen nIndex, xub_StrLen nLen, bool bTextLines )
{
MARK( "drawStretchText" );
updateGraphicsState();
// get a layout from the OuputDevice's SalGraphics
// this also enforces font substitution and sets the font on SalGraphics
SalLayout* pLayout = m_pReferenceDevice->ImplLayout( rText, nIndex, nLen, rPos, nWidth );
if( pLayout )
{
drawLayout( *pLayout, rText, bTextLines );
pLayout->Release();
}
}
void PDFWriterImpl::drawText( const Rectangle& rRect, const String& rOrigStr, USHORT nStyle, bool bTextLines )
{
long nWidth = rRect.GetWidth();
long nHeight = rRect.GetHeight();
if ( nWidth <= 0 || nHeight <= 0 )
return;
MARK( "drawText with rectangle" );
updateGraphicsState();
// clip with rectangle
OStringBuffer aLine;
aLine.append( "q " );
m_aPages.back().appendRect( rRect, aLine );
aLine.append( " W* n\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
// if disabled text is needed, put in here
Point aPos = rRect.TopLeft();
long nTextHeight = m_pReferenceDevice->GetTextHeight();
xub_StrLen nMnemonicPos = STRING_NOTFOUND;
String aStr = rOrigStr;
if ( nStyle & TEXT_DRAW_MNEMONIC )
aStr = m_pReferenceDevice->GetNonMnemonicString( aStr, nMnemonicPos );
// multiline text
if ( nStyle & TEXT_DRAW_MULTILINE )
{
XubString aLastLine;
ImplMultiTextLineInfo aMultiLineInfo;
ImplTextLineInfo* pLineInfo;
long nMaxTextWidth;
xub_StrLen i;
xub_StrLen nLines;
xub_StrLen nFormatLines;
if ( nTextHeight )
{
::vcl::DefaultTextLayout aLayout( *m_pReferenceDevice );
nMaxTextWidth = OutputDevice::ImplGetTextLines( aMultiLineInfo, nWidth, aStr, nStyle, aLayout );
nLines = (xub_StrLen)(nHeight/nTextHeight);
nFormatLines = aMultiLineInfo.Count();
if ( !nLines )
nLines = 1;
if ( nFormatLines > nLines )
{
if ( nStyle & TEXT_DRAW_ENDELLIPSIS )
{
// handle last line
nFormatLines = nLines-1;
pLineInfo = aMultiLineInfo.GetLine( nFormatLines );
aLastLine = aStr.Copy( pLineInfo->GetIndex() );
aLastLine.ConvertLineEnd( LINEEND_LF );
// replace line feed by space
xub_StrLen nLastLineLen = aLastLine.Len();
for ( i = 0; i < nLastLineLen; i++ )
{
if ( aLastLine.GetChar( i ) == _LF )
aLastLine.SetChar( i, ' ' );
}
aLastLine = m_pReferenceDevice->GetEllipsisString( aLastLine, nWidth, nStyle );
nStyle &= ~(TEXT_DRAW_VCENTER | TEXT_DRAW_BOTTOM);
nStyle |= TEXT_DRAW_TOP;
}
}
// vertical alignment
if ( nStyle & TEXT_DRAW_BOTTOM )
aPos.Y() += nHeight-(nFormatLines*nTextHeight);
else if ( nStyle & TEXT_DRAW_VCENTER )
aPos.Y() += (nHeight-(nFormatLines*nTextHeight))/2;
// draw all lines excluding the last
for ( i = 0; i < nFormatLines; i++ )
{
pLineInfo = aMultiLineInfo.GetLine( i );
if ( nStyle & TEXT_DRAW_RIGHT )
aPos.X() += nWidth-pLineInfo->GetWidth();
else if ( nStyle & TEXT_DRAW_CENTER )
aPos.X() += (nWidth-pLineInfo->GetWidth())/2;
xub_StrLen nIndex = pLineInfo->GetIndex();
xub_StrLen nLineLen = pLineInfo->GetLen();
drawText( aPos, aStr, nIndex, nLineLen, bTextLines );
// mnemonics should not appear in documents,
// if the need arises, put them in here
aPos.Y() += nTextHeight;
aPos.X() = rRect.Left();
}
// output last line left adjusted since it was shortened
if ( aLastLine.Len() )
drawText( aPos, aLastLine, 0, STRING_LEN, bTextLines );
}
}
else
{
long nTextWidth = m_pReferenceDevice->GetTextWidth( aStr );
// Evt. Text kuerzen
if ( nTextWidth > nWidth )
{
if ( nStyle & (TEXT_DRAW_ENDELLIPSIS | TEXT_DRAW_PATHELLIPSIS | TEXT_DRAW_NEWSELLIPSIS) )
{
aStr = m_pReferenceDevice->GetEllipsisString( aStr, nWidth, nStyle );
nStyle &= ~(TEXT_DRAW_CENTER | TEXT_DRAW_RIGHT);
nStyle |= TEXT_DRAW_LEFT;
nTextWidth = m_pReferenceDevice->GetTextWidth( aStr );
}
}
// vertical alignment
if ( nStyle & TEXT_DRAW_RIGHT )
aPos.X() += nWidth-nTextWidth;
else if ( nStyle & TEXT_DRAW_CENTER )
aPos.X() += (nWidth-nTextWidth)/2;
if ( nStyle & TEXT_DRAW_BOTTOM )
aPos.Y() += nHeight-nTextHeight;
else if ( nStyle & TEXT_DRAW_VCENTER )
aPos.Y() += (nHeight-nTextHeight)/2;
// mnemonics should be inserted here if the need arises
// draw the actual text
drawText( aPos, aStr, 0, STRING_LEN, bTextLines );
}
// reset clip region to original value
aLine.setLength( 0 );
aLine.append( "Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::drawLine( const Point& rStart, const Point& rStop )
{
MARK( "drawLine" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) )
return;
OStringBuffer aLine;
m_aPages.back().appendPoint( rStart, aLine );
aLine.append( " m " );
m_aPages.back().appendPoint( rStop, aLine );
aLine.append( " l S\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::drawLine( const Point& rStart, const Point& rStop, const LineInfo& rInfo )
{
MARK( "drawLine with LineInfo" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) )
return;
if( rInfo.GetStyle() == LINE_SOLID && rInfo.GetWidth() < 2 )
{
drawLine( rStart, rStop );
return;
}
OStringBuffer aLine;
aLine.append( "q " );
if( m_aPages.back().appendLineInfo( rInfo, aLine ) )
{
m_aPages.back().appendPoint( rStart, aLine );
aLine.append( " m " );
m_aPages.back().appendPoint( rStop, aLine );
aLine.append( " l S Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
else
{
PDFWriter::ExtLineInfo aInfo;
convertLineInfoToExtLineInfo( rInfo, aInfo );
Point aPolyPoints[2] = { rStart, rStop };
Polygon aPoly( 2, aPolyPoints );
drawPolyLine( aPoly, aInfo );
}
}
void PDFWriterImpl::drawWaveLine( const Point& rStart, const Point& rStop, sal_Int32 nDelta, sal_Int32 nLineWidth )
{
Point aDiff( rStop-rStart );
double fLen = sqrt( (double)(aDiff.X()*aDiff.X() + aDiff.Y()*aDiff.Y()) );
if( fLen < 1.0 )
return;
MARK( "drawWaveLine" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) )
return;
OStringBuffer aLine( 512 );
aLine.append( "q " );
m_aPages.back().appendMappedLength( nLineWidth, aLine, true );
aLine.append( " w " );
appendDouble( (double)aDiff.X()/fLen, aLine );
aLine.append( ' ' );
appendDouble( -(double)aDiff.Y()/fLen, aLine );
aLine.append( ' ' );
appendDouble( (double)aDiff.Y()/fLen, aLine );
aLine.append( ' ' );
appendDouble( (double)aDiff.X()/fLen, aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( rStart, aLine );
aLine.append( " cm " );
m_aPages.back().appendWaveLine( (sal_Int32)fLen, 0, nDelta, aLine );
aLine.append( "Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
#define WCONV( x ) m_pReferenceDevice->ImplDevicePixelToLogicWidth( x )
#define HCONV( x ) m_pReferenceDevice->ImplDevicePixelToLogicHeight( x )
void PDFWriterImpl::drawWaveTextLine( OStringBuffer& aLine, long nWidth, FontUnderline eTextLine, Color aColor, bool bIsAbove )
{
// note: units in pFontEntry are ref device pixel
ImplFontEntry* pFontEntry = m_pReferenceDevice->mpFontEntry;
long nLineHeight = 0;
long nLinePos = 0;
appendStrokingColor( aColor, aLine );
aLine.append( "\n" );
if ( bIsAbove )
{
if ( !pFontEntry->maMetric.mnAboveWUnderlineSize )
m_pReferenceDevice->ImplInitAboveTextLineSize();
nLineHeight = HCONV( pFontEntry->maMetric.mnAboveWUnderlineSize );
nLinePos = HCONV( pFontEntry->maMetric.mnAboveWUnderlineOffset );
}
else
{
if ( !pFontEntry->maMetric.mnWUnderlineSize )
m_pReferenceDevice->ImplInitTextLineSize();
nLineHeight = HCONV( pFontEntry->maMetric.mnWUnderlineSize );
nLinePos = HCONV( pFontEntry->maMetric.mnWUnderlineOffset );
}
if ( (eTextLine == UNDERLINE_SMALLWAVE) && (nLineHeight > 3) )
nLineHeight = 3;
long nLineWidth = getReferenceDevice()->mnDPIX/450;
if ( ! nLineWidth )
nLineWidth = 1;
if ( eTextLine == UNDERLINE_BOLDWAVE )
nLineWidth = 3*nLineWidth;
m_aPages.back().appendMappedLength( (sal_Int32)nLineWidth, aLine );
aLine.append( " w " );
if ( eTextLine == UNDERLINE_DOUBLEWAVE )
{
long nOrgLineHeight = nLineHeight;
nLineHeight /= 3;
if ( nLineHeight < 2 )
{
if ( nOrgLineHeight > 1 )
nLineHeight = 2;
else
nLineHeight = 1;
}
long nLineDY = nOrgLineHeight-(nLineHeight*2);
if ( nLineDY < nLineWidth )
nLineDY = nLineWidth;
long nLineDY2 = nLineDY/2;
if ( !nLineDY2 )
nLineDY2 = 1;
nLinePos -= nLineWidth-nLineDY2;
m_aPages.back().appendWaveLine( nWidth, -nLinePos, 2*nLineHeight, aLine );
nLinePos += nLineWidth+nLineDY;
m_aPages.back().appendWaveLine( nWidth, -nLinePos, 2*nLineHeight, aLine );
}
else
{
if ( eTextLine != UNDERLINE_BOLDWAVE )
nLinePos -= nLineWidth/2;
m_aPages.back().appendWaveLine( nWidth, -nLinePos, nLineHeight, aLine );
}
}
void PDFWriterImpl::drawStraightTextLine( OStringBuffer& aLine, long nWidth, FontUnderline eTextLine, Color aColor, bool bIsAbove )
{
// note: units in pFontEntry are ref device pixel
ImplFontEntry* pFontEntry = m_pReferenceDevice->mpFontEntry;
long nLineHeight = 0;
long nLinePos = 0;
long nLinePos2 = 0;
if ( eTextLine > UNDERLINE_BOLDWAVE )
eTextLine = UNDERLINE_SINGLE;
switch ( eTextLine )
{
case UNDERLINE_SINGLE:
case UNDERLINE_DOTTED:
case UNDERLINE_DASH:
case UNDERLINE_LONGDASH:
case UNDERLINE_DASHDOT:
case UNDERLINE_DASHDOTDOT:
if ( bIsAbove )
{
if ( !pFontEntry->maMetric.mnAboveUnderlineSize )
m_pReferenceDevice->ImplInitAboveTextLineSize();
nLineHeight = HCONV( pFontEntry->maMetric.mnAboveUnderlineSize );
nLinePos = HCONV( pFontEntry->maMetric.mnAboveUnderlineOffset );
}
else
{
if ( !pFontEntry->maMetric.mnUnderlineSize )
m_pReferenceDevice->ImplInitTextLineSize();
nLineHeight = HCONV( pFontEntry->maMetric.mnUnderlineSize );
nLinePos = HCONV( pFontEntry->maMetric.mnUnderlineOffset );
}
break;
case UNDERLINE_BOLD:
case UNDERLINE_BOLDDOTTED:
case UNDERLINE_BOLDDASH:
case UNDERLINE_BOLDLONGDASH:
case UNDERLINE_BOLDDASHDOT:
case UNDERLINE_BOLDDASHDOTDOT:
if ( bIsAbove )
{
if ( !pFontEntry->maMetric.mnAboveBUnderlineSize )
m_pReferenceDevice->ImplInitAboveTextLineSize();
nLineHeight = HCONV( pFontEntry->maMetric.mnAboveBUnderlineSize );
nLinePos = HCONV( pFontEntry->maMetric.mnAboveBUnderlineOffset );
}
else
{
if ( !pFontEntry->maMetric.mnBUnderlineSize )
m_pReferenceDevice->ImplInitTextLineSize();
nLineHeight = HCONV( pFontEntry->maMetric.mnBUnderlineSize );
nLinePos = HCONV( pFontEntry->maMetric.mnBUnderlineOffset );
nLinePos += nLineHeight/2;
}
break;
case UNDERLINE_DOUBLE:
if ( bIsAbove )
{
if ( !pFontEntry->maMetric.mnAboveDUnderlineSize )
m_pReferenceDevice->ImplInitAboveTextLineSize();
nLineHeight = HCONV( pFontEntry->maMetric.mnAboveDUnderlineSize );
nLinePos = HCONV( pFontEntry->maMetric.mnAboveDUnderlineOffset1 );
nLinePos2 = HCONV( pFontEntry->maMetric.mnAboveDUnderlineOffset2 );
}
else
{
if ( !pFontEntry->maMetric.mnDUnderlineSize )
m_pReferenceDevice->ImplInitTextLineSize();
nLineHeight = HCONV( pFontEntry->maMetric.mnDUnderlineSize );
nLinePos = HCONV( pFontEntry->maMetric.mnDUnderlineOffset1 );
nLinePos2 = HCONV( pFontEntry->maMetric.mnDUnderlineOffset2 );
}
default:
break;
}
if ( nLineHeight )
{
m_aPages.back().appendMappedLength( (sal_Int32)nLineHeight, aLine, true );
aLine.append( " w " );
appendStrokingColor( aColor, aLine );
aLine.append( "\n" );
switch ( eTextLine )
{
case UNDERLINE_DOTTED:
case UNDERLINE_BOLDDOTTED:
aLine.append( "[ " );
m_aPages.back().appendMappedLength( (sal_Int32)nLineHeight, aLine, false );
aLine.append( " ] 0 d\n" );
break;
case UNDERLINE_DASH:
case UNDERLINE_LONGDASH:
case UNDERLINE_BOLDDASH:
case UNDERLINE_BOLDLONGDASH:
{
sal_Int32 nDashLength = 4*nLineHeight;
sal_Int32 nVoidLength = 2*nLineHeight;
if ( ( eTextLine == UNDERLINE_LONGDASH ) || ( eTextLine == UNDERLINE_BOLDLONGDASH ) )
nDashLength = 8*nLineHeight;
aLine.append( "[ " );
m_aPages.back().appendMappedLength( nDashLength, aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( nVoidLength, aLine, false );
aLine.append( " ] 0 d\n" );
}
break;
case UNDERLINE_DASHDOT:
case UNDERLINE_BOLDDASHDOT:
{
sal_Int32 nDashLength = 4*nLineHeight;
sal_Int32 nVoidLength = 2*nLineHeight;
aLine.append( "[ " );
m_aPages.back().appendMappedLength( nDashLength, aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( nVoidLength, aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( (sal_Int32)nLineHeight, aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( nVoidLength, aLine, false );
aLine.append( " ] 0 d\n" );
}
break;
case UNDERLINE_DASHDOTDOT:
case UNDERLINE_BOLDDASHDOTDOT:
{
sal_Int32 nDashLength = 4*nLineHeight;
sal_Int32 nVoidLength = 2*nLineHeight;
aLine.append( "[ " );
m_aPages.back().appendMappedLength( nDashLength, aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( nVoidLength, aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( (sal_Int32)nLineHeight, aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( nVoidLength, aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( (sal_Int32)nLineHeight, aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( nVoidLength, aLine, false );
aLine.append( " ] 0 d\n" );
}
break;
default:
break;
}
aLine.append( "0 " );
m_aPages.back().appendMappedLength( (sal_Int32)(-nLinePos), aLine, true );
aLine.append( " m " );
m_aPages.back().appendMappedLength( (sal_Int32)nWidth, aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( (sal_Int32)(-nLinePos), aLine, true );
aLine.append( " l S\n" );
if ( eTextLine == UNDERLINE_DOUBLE )
{
aLine.append( "0 " );
m_aPages.back().appendMappedLength( (sal_Int32)(-nLinePos2-nLineHeight), aLine, true );
aLine.append( " m " );
m_aPages.back().appendMappedLength( (sal_Int32)nWidth, aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( (sal_Int32)(-nLinePos2-nLineHeight), aLine, true );
aLine.append( " l S\n" );
}
}
}
void PDFWriterImpl::drawStrikeoutLine( OStringBuffer& aLine, long nWidth, FontStrikeout eStrikeout, Color aColor )
{
// note: units in pFontEntry are ref device pixel
ImplFontEntry* pFontEntry = m_pReferenceDevice->mpFontEntry;
long nLineHeight = 0;
long nLinePos = 0;
long nLinePos2 = 0;
if ( eStrikeout > STRIKEOUT_X )
eStrikeout = STRIKEOUT_SINGLE;
switch ( eStrikeout )
{
case STRIKEOUT_SINGLE:
if ( !pFontEntry->maMetric.mnStrikeoutSize )
m_pReferenceDevice->ImplInitTextLineSize();
nLineHeight = HCONV( pFontEntry->maMetric.mnStrikeoutSize );
nLinePos = HCONV( pFontEntry->maMetric.mnStrikeoutOffset );
break;
case STRIKEOUT_BOLD:
if ( !pFontEntry->maMetric.mnBStrikeoutSize )
m_pReferenceDevice->ImplInitTextLineSize();
nLineHeight = HCONV( pFontEntry->maMetric.mnBStrikeoutSize );
nLinePos = HCONV( pFontEntry->maMetric.mnBStrikeoutOffset );
break;
case STRIKEOUT_DOUBLE:
if ( !pFontEntry->maMetric.mnDStrikeoutSize )
m_pReferenceDevice->ImplInitTextLineSize();
nLineHeight = HCONV( pFontEntry->maMetric.mnDStrikeoutSize );
nLinePos = HCONV( pFontEntry->maMetric.mnDStrikeoutOffset1 );
nLinePos2 = HCONV( pFontEntry->maMetric.mnDStrikeoutOffset2 );
break;
default:
break;
}
if ( nLineHeight )
{
m_aPages.back().appendMappedLength( (sal_Int32)nLineHeight, aLine, true );
aLine.append( " w " );
appendStrokingColor( aColor, aLine );
aLine.append( "\n" );
aLine.append( "0 " );
m_aPages.back().appendMappedLength( (sal_Int32)(-nLinePos), aLine, true );
aLine.append( " m " );
m_aPages.back().appendMappedLength( (sal_Int32)nWidth, aLine, true );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( (sal_Int32)(-nLinePos), aLine, true );
aLine.append( " l S\n" );
if ( eStrikeout == STRIKEOUT_DOUBLE )
{
aLine.append( "0 " );
m_aPages.back().appendMappedLength( (sal_Int32)(-nLinePos2-nLineHeight), aLine, true );
aLine.append( " m " );
m_aPages.back().appendMappedLength( (sal_Int32)nWidth, aLine, true );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( (sal_Int32)(-nLinePos2-nLineHeight), aLine, true );
aLine.append( " l S\n" );
}
}
}
void PDFWriterImpl::drawStrikeoutChar( const Point& rPos, long nWidth, FontStrikeout eStrikeout )
{
String aStrikeoutChar = String::CreateFromAscii( eStrikeout == STRIKEOUT_SLASH ? "/" : "X" );
String aStrikeout = aStrikeoutChar;
while( m_pReferenceDevice->GetTextWidth( aStrikeout ) < nWidth )
aStrikeout.Append( aStrikeout );
// do not get broader than nWidth modulo 1 character
while( m_pReferenceDevice->GetTextWidth( aStrikeout ) >= nWidth )
aStrikeout.Erase( 0, 1 );
aStrikeout.Append( aStrikeoutChar );
BOOL bShadow = m_aCurrentPDFState.m_aFont.IsShadow();
if ( bShadow )
{
Font aFont = m_aCurrentPDFState.m_aFont;
aFont.SetShadow( FALSE );
setFont( aFont );
updateGraphicsState();
}
// strikeout string is left aligned non-CTL text
ULONG nOrigTLM = m_pReferenceDevice->GetLayoutMode();
m_pReferenceDevice->SetLayoutMode( TEXT_LAYOUT_BIDI_STRONG|TEXT_LAYOUT_COMPLEX_DISABLED );
drawText( rPos, aStrikeout, 0, aStrikeout.Len(), false );
m_pReferenceDevice->SetLayoutMode( nOrigTLM );
if ( bShadow )
{
Font aFont = m_aCurrentPDFState.m_aFont;
aFont.SetShadow( TRUE );
setFont( aFont );
updateGraphicsState();
}
}
void PDFWriterImpl::drawTextLine( const Point& rPos, long nWidth, FontStrikeout eStrikeout, FontUnderline eUnderline, FontUnderline eOverline, bool bUnderlineAbove )
{
if ( !nWidth ||
( ((eStrikeout == STRIKEOUT_NONE)||(eStrikeout == STRIKEOUT_DONTKNOW)) &&
((eUnderline == UNDERLINE_NONE)||(eUnderline == UNDERLINE_DONTKNOW)) &&
((eOverline == UNDERLINE_NONE)||(eOverline == UNDERLINE_DONTKNOW)) ) )
return;
MARK( "drawTextLine" );
updateGraphicsState();
// note: units in pFontEntry are ref device pixel
ImplFontEntry* pFontEntry = m_pReferenceDevice->mpFontEntry;
Color aUnderlineColor = m_aCurrentPDFState.m_aTextLineColor;
Color aOverlineColor = m_aCurrentPDFState.m_aOverlineColor;
Color aStrikeoutColor = m_aCurrentPDFState.m_aFont.GetColor();
bool bStrikeoutDone = false;
bool bUnderlineDone = false;
bool bOverlineDone = false;
if ( (eStrikeout == STRIKEOUT_SLASH) || (eStrikeout == STRIKEOUT_X) )
{
drawStrikeoutChar( rPos, nWidth, eStrikeout );
bStrikeoutDone = true;
}
Point aPos( rPos );
TextAlign eAlign = m_aCurrentPDFState.m_aFont.GetAlign();
if( eAlign == ALIGN_TOP )
aPos.Y() += HCONV( pFontEntry->maMetric.mnAscent );
else if( eAlign == ALIGN_BOTTOM )
aPos.Y() -= HCONV( pFontEntry->maMetric.mnDescent );
OStringBuffer aLine( 512 );
// save GS
aLine.append( "q " );
// rotate and translate matrix
double fAngle = (double)m_aCurrentPDFState.m_aFont.GetOrientation() * M_PI / 1800.0;
Matrix3 aMat;
aMat.rotate( fAngle );
aMat.translate( aPos.X(), aPos.Y() );
aMat.append( m_aPages.back(), aLine );
aLine.append( " cm\n" );
if ( aUnderlineColor.GetTransparency() != 0 )
aUnderlineColor = aStrikeoutColor;
if ( (eUnderline == UNDERLINE_SMALLWAVE) ||
(eUnderline == UNDERLINE_WAVE) ||
(eUnderline == UNDERLINE_DOUBLEWAVE) ||
(eUnderline == UNDERLINE_BOLDWAVE) )
{
drawWaveTextLine( aLine, nWidth, eUnderline, aUnderlineColor, bUnderlineAbove );
bUnderlineDone = true;
}
if ( (eOverline == UNDERLINE_SMALLWAVE) ||
(eOverline == UNDERLINE_WAVE) ||
(eOverline == UNDERLINE_DOUBLEWAVE) ||
(eOverline == UNDERLINE_BOLDWAVE) )
{
drawWaveTextLine( aLine, nWidth, eOverline, aOverlineColor, true );
bOverlineDone = true;
}
if ( !bUnderlineDone )
{
drawStraightTextLine( aLine, nWidth, eUnderline, aUnderlineColor, bUnderlineAbove );
}
if ( !bOverlineDone )
{
drawStraightTextLine( aLine, nWidth, eOverline, aOverlineColor, true );
}
if ( !bStrikeoutDone )
{
drawStrikeoutLine( aLine, nWidth, eStrikeout, aStrikeoutColor );
}
aLine.append( "Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::drawPolygon( const Polygon& rPoly )
{
MARK( "drawPolygon" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor == Color( COL_TRANSPARENT ) )
return;
int nPoints = rPoly.GetSize();
OStringBuffer aLine( 20 * nPoints );
m_aPages.back().appendPolygon( rPoly, aLine );
if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor != Color( COL_TRANSPARENT ) )
aLine.append( "B*\n" );
else if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) )
aLine.append( "S\n" );
else
aLine.append( "f*\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::drawPolyPolygon( const PolyPolygon& rPolyPoly )
{
MARK( "drawPolyPolygon" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor == Color( COL_TRANSPARENT ) )
return;
int nPolygons = rPolyPoly.Count();
OStringBuffer aLine( 40 * nPolygons );
m_aPages.back().appendPolyPolygon( rPolyPoly, aLine );
if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor != Color( COL_TRANSPARENT ) )
aLine.append( "B*\n" );
else if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) )
aLine.append( "S\n" );
else
aLine.append( "f*\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::drawTransparent( const PolyPolygon& rPolyPoly, sal_uInt32 nTransparentPercent )
{
DBG_ASSERT( nTransparentPercent <= 100, "invalid alpha value" );
nTransparentPercent = nTransparentPercent % 100;
MARK( "drawTransparent" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor == Color( COL_TRANSPARENT ) )
return;
if( m_bIsPDF_A1 || m_aContext.Version < PDFWriter::PDF_1_4 )
{
m_aErrors.insert( m_bIsPDF_A1 ?
PDFWriter::Warning_Transparency_Omitted_PDFA :
PDFWriter::Warning_Transparency_Omitted_PDF13 );
drawPolyPolygon( rPolyPoly );
return;
}
// create XObject
m_aTransparentObjects.push_back( TransparencyEmit() );
// FIXME: polygons with beziers may yield incorrect bound rect
m_aTransparentObjects.back().m_aBoundRect = rPolyPoly.GetBoundRect();
// convert rectangle to default user space
m_aPages.back().convertRect( m_aTransparentObjects.back().m_aBoundRect );
m_aTransparentObjects.back().m_nObject = createObject();
m_aTransparentObjects.back().m_nExtGStateObject = createObject();
m_aTransparentObjects.back().m_fAlpha = (double)(100-nTransparentPercent) / 100.0;
m_aTransparentObjects.back().m_pContentStream = new SvMemoryStream( 256, 256 );
// create XObject's content stream
OStringBuffer aContent( 256 );
m_aPages.back().appendPolyPolygon( rPolyPoly, aContent );
if( m_aCurrentPDFState.m_aLineColor != Color( COL_TRANSPARENT ) &&
m_aCurrentPDFState.m_aFillColor != Color( COL_TRANSPARENT ) )
aContent.append( " B*\n" );
else if( m_aCurrentPDFState.m_aLineColor != Color( COL_TRANSPARENT ) )
aContent.append( " S\n" );
else
aContent.append( " f*\n" );
m_aTransparentObjects.back().m_pContentStream->Write( aContent.getStr(), aContent.getLength() );
OStringBuffer aObjName( 16 );
aObjName.append( "Tr" );
aObjName.append( m_aTransparentObjects.back().m_nObject );
OString aTrName( aObjName.makeStringAndClear() );
aObjName.append( "EGS" );
aObjName.append( m_aTransparentObjects.back().m_nExtGStateObject );
OString aExtName( aObjName.makeStringAndClear() );
OStringBuffer aLine( 80 );
// insert XObject
aLine.append( "q /" );
aLine.append( aExtName );
aLine.append( " gs /" );
aLine.append( aTrName );
aLine.append( " Do Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
pushResource( ResXObject, aTrName, m_aTransparentObjects.back().m_nObject );
pushResource( ResExtGState, aExtName, m_aTransparentObjects.back().m_nExtGStateObject );
}
void PDFWriterImpl::pushResource( ResourceKind eKind, const OString& rResource, sal_Int32 nObject )
{
if( nObject >= 0 )
{
switch( eKind )
{
case ResXObject:
m_aGlobalResourceDict.m_aXObjects[ rResource ] = nObject;
if( ! m_aOutputStreams.empty() )
m_aOutputStreams.front().m_aResourceDict.m_aXObjects[ rResource ] = nObject;
break;
case ResExtGState:
m_aGlobalResourceDict.m_aExtGStates[ rResource ] = nObject;
if( ! m_aOutputStreams.empty() )
m_aOutputStreams.front().m_aResourceDict.m_aExtGStates[ rResource ] = nObject;
break;
case ResShading:
m_aGlobalResourceDict.m_aShadings[ rResource ] = nObject;
if( ! m_aOutputStreams.empty() )
m_aOutputStreams.front().m_aResourceDict.m_aShadings[ rResource ] = nObject;
break;
case ResPattern:
m_aGlobalResourceDict.m_aPatterns[ rResource ] = nObject;
if( ! m_aOutputStreams.empty() )
m_aOutputStreams.front().m_aResourceDict.m_aPatterns[ rResource ] = nObject;
break;
}
}
}
void PDFWriterImpl::beginRedirect( SvStream* pStream, const Rectangle& rTargetRect )
{
push( PUSH_ALL );
clearClipRegion();
updateGraphicsState();
m_aOutputStreams.push_front( StreamRedirect() );
m_aOutputStreams.front().m_pStream = pStream;
m_aOutputStreams.front().m_aMapMode = m_aMapMode;
if( !rTargetRect.IsEmpty() )
{
m_aOutputStreams.front().m_aTargetRect =
lcl_convert( m_aGraphicsStack.front().m_aMapMode,
m_aMapMode,
getReferenceDevice(),
rTargetRect );
Point aDelta = m_aOutputStreams.front().m_aTargetRect.BottomLeft();
long nPageHeight = pointToPixel(m_aPages[m_nCurrentPage].getHeight());
aDelta.Y() = -(nPageHeight - m_aOutputStreams.front().m_aTargetRect.Bottom());
m_aMapMode.SetOrigin( m_aMapMode.GetOrigin() + aDelta );
}
// setup graphics state for independent object stream
// force reemitting colors
m_aCurrentPDFState.m_aLineColor = Color( COL_TRANSPARENT );
m_aCurrentPDFState.m_aFillColor = Color( COL_TRANSPARENT );
}
Rectangle PDFWriterImpl::getRedirectTargetRect() const
{
return m_aOutputStreams.empty() ? Rectangle() : m_aOutputStreams.front().m_aTargetRect;
}
SvStream* PDFWriterImpl::endRedirect()
{
SvStream* pStream = NULL;
if( ! m_aOutputStreams.empty() )
{
pStream = m_aOutputStreams.front().m_pStream;
m_aMapMode = m_aOutputStreams.front().m_aMapMode;
m_aOutputStreams.pop_front();
}
pop();
// force reemitting colors
m_aCurrentPDFState.m_aLineColor = Color( COL_TRANSPARENT );
m_aCurrentPDFState.m_aFillColor = Color( COL_TRANSPARENT );
updateGraphicsState();
return pStream;
}
void PDFWriterImpl::beginTransparencyGroup()
{
updateGraphicsState();
if( m_aContext.Version >= PDFWriter::PDF_1_4 )
beginRedirect( new SvMemoryStream( 1024, 1024 ), Rectangle() );
}
void PDFWriterImpl::endTransparencyGroup( const Rectangle& rBoundingBox, sal_uInt32 nTransparentPercent )
{
DBG_ASSERT( nTransparentPercent <= 100, "invalid alpha value" );
nTransparentPercent = nTransparentPercent % 100;
if( m_aContext.Version >= PDFWriter::PDF_1_4 )
{
// create XObject
m_aTransparentObjects.push_back( TransparencyEmit() );
m_aTransparentObjects.back().m_aBoundRect = rBoundingBox;
// convert rectangle to default user space
m_aPages.back().convertRect( m_aTransparentObjects.back().m_aBoundRect );
m_aTransparentObjects.back().m_nObject = createObject();
m_aTransparentObjects.back().m_fAlpha = (double)(100-nTransparentPercent) / 100.0;
// get XObject's content stream
m_aTransparentObjects.back().m_pContentStream = static_cast<SvMemoryStream*>(endRedirect());
m_aTransparentObjects.back().m_nExtGStateObject = createObject();
OStringBuffer aObjName( 16 );
aObjName.append( "Tr" );
aObjName.append( m_aTransparentObjects.back().m_nObject );
OString aTrName( aObjName.makeStringAndClear() );
aObjName.append( "EGS" );
aObjName.append( m_aTransparentObjects.back().m_nExtGStateObject );
OString aExtName( aObjName.makeStringAndClear() );
OStringBuffer aLine( 80 );
// insert XObject
aLine.append( "q /" );
aLine.append( aExtName );
aLine.append( " gs /" );
aLine.append( aTrName );
aLine.append( " Do Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
pushResource( ResXObject, aTrName, m_aTransparentObjects.back().m_nObject );
pushResource( ResExtGState, aExtName, m_aTransparentObjects.back().m_nExtGStateObject );
}
}
void PDFWriterImpl::endTransparencyGroup( const Rectangle& rBoundingBox, const Bitmap& rAlphaMask )
{
if( m_aContext.Version >= PDFWriter::PDF_1_4 )
{
// create XObject
m_aTransparentObjects.push_back( TransparencyEmit() );
m_aTransparentObjects.back().m_aBoundRect = rBoundingBox;
// convert rectangle to default user space
m_aPages.back().convertRect( m_aTransparentObjects.back().m_aBoundRect );
m_aTransparentObjects.back().m_nObject = createObject();
m_aTransparentObjects.back().m_fAlpha = 0.0;
// get XObject's content stream
m_aTransparentObjects.back().m_pContentStream = static_cast<SvMemoryStream*>(endRedirect());
m_aTransparentObjects.back().m_nExtGStateObject = createObject();
// draw soft mask
beginRedirect( new SvMemoryStream( 1024, 1024 ), Rectangle() );
drawBitmap( rBoundingBox.TopLeft(), rBoundingBox.GetSize(), rAlphaMask );
m_aTransparentObjects.back().m_pSoftMaskStream = static_cast<SvMemoryStream*>(endRedirect());
OStringBuffer aObjName( 16 );
aObjName.append( "Tr" );
aObjName.append( m_aTransparentObjects.back().m_nObject );
OString aTrName( aObjName.makeStringAndClear() );
aObjName.append( "EGS" );
aObjName.append( m_aTransparentObjects.back().m_nExtGStateObject );
OString aExtName( aObjName.makeStringAndClear() );
OStringBuffer aLine( 80 );
// insert XObject
aLine.append( "q /" );
aLine.append( aExtName );
aLine.append( " gs /" );
aLine.append( aTrName );
aLine.append( " Do Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
pushResource( ResXObject, aTrName, m_aTransparentObjects.back().m_nObject );
pushResource( ResExtGState, aExtName, m_aTransparentObjects.back().m_nExtGStateObject );
}
}
void PDFWriterImpl::drawRectangle( const Rectangle& rRect )
{
MARK( "drawRectangle" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor == Color( COL_TRANSPARENT ) )
return;
OStringBuffer aLine( 40 );
m_aPages.back().appendRect( rRect, aLine );
if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor != Color( COL_TRANSPARENT ) )
aLine.append( " B*\n" );
else if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) )
aLine.append( " S\n" );
else
aLine.append( " f*\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::drawRectangle( const Rectangle& rRect, sal_uInt32 nHorzRound, sal_uInt32 nVertRound )
{
MARK( "drawRectangle with rounded edges" );
if( !nHorzRound && !nVertRound )
drawRectangle( rRect );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor == Color( COL_TRANSPARENT ) )
return;
if( nHorzRound > (sal_uInt32)rRect.GetWidth()/2 )
nHorzRound = rRect.GetWidth()/2;
if( nVertRound > (sal_uInt32)rRect.GetHeight()/2 )
nVertRound = rRect.GetHeight()/2;
Point aPoints[16];
const double kappa = 0.5522847498;
const sal_uInt32 kx = (sal_uInt32)((kappa*(double)nHorzRound)+0.5);
const sal_uInt32 ky = (sal_uInt32)((kappa*(double)nVertRound)+0.5);
aPoints[1] = Point( rRect.TopLeft().X() + nHorzRound, rRect.TopLeft().Y() );
aPoints[0] = Point( aPoints[1].X() - kx, aPoints[1].Y() );
aPoints[2] = Point( rRect.TopRight().X()+1 - nHorzRound, aPoints[1].Y() );
aPoints[3] = Point( aPoints[2].X()+kx, aPoints[2].Y() );
aPoints[5] = Point( rRect.TopRight().X()+1, rRect.TopRight().Y()+nVertRound );
aPoints[4] = Point( aPoints[5].X(), aPoints[5].Y()-ky );
aPoints[6] = Point( aPoints[5].X(), rRect.BottomRight().Y()+1 - nVertRound );
aPoints[7] = Point( aPoints[6].X(), aPoints[6].Y()+ky );
aPoints[9] = Point( rRect.BottomRight().X()+1-nHorzRound, rRect.BottomRight().Y()+1 );
aPoints[8] = Point( aPoints[9].X()+kx, aPoints[9].Y() );
aPoints[10] = Point( rRect.BottomLeft().X() + nHorzRound, aPoints[9].Y() );
aPoints[11] = Point( aPoints[10].X()-kx, aPoints[10].Y() );
aPoints[13] = Point( rRect.BottomLeft().X(), rRect.BottomLeft().Y()+1-nVertRound );
aPoints[12] = Point( aPoints[13].X(), aPoints[13].Y()+ky );
aPoints[14] = Point( rRect.TopLeft().X(), rRect.TopLeft().Y()+nVertRound );
aPoints[15] = Point( aPoints[14].X(), aPoints[14].Y()-ky );
OStringBuffer aLine( 80 );
m_aPages.back().appendPoint( aPoints[1], aLine );
aLine.append( " m " );
m_aPages.back().appendPoint( aPoints[2], aLine );
aLine.append( " l " );
m_aPages.back().appendPoint( aPoints[3], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[4], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[5], aLine );
aLine.append( " c\n" );
m_aPages.back().appendPoint( aPoints[6], aLine );
aLine.append( " l " );
m_aPages.back().appendPoint( aPoints[7], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[8], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[9], aLine );
aLine.append( " c\n" );
m_aPages.back().appendPoint( aPoints[10], aLine );
aLine.append( " l " );
m_aPages.back().appendPoint( aPoints[11], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[12], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[13], aLine );
aLine.append( " c\n" );
m_aPages.back().appendPoint( aPoints[14], aLine );
aLine.append( " l " );
m_aPages.back().appendPoint( aPoints[15], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[0], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[1], aLine );
aLine.append( " c " );
if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor != Color( COL_TRANSPARENT ) )
aLine.append( "b*\n" );
else if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) )
aLine.append( "s\n" );
else
aLine.append( "f*\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::drawEllipse( const Rectangle& rRect )
{
MARK( "drawEllipse" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor == Color( COL_TRANSPARENT ) )
return;
Point aPoints[12];
const double kappa = 0.5522847498;
const sal_uInt32 kx = (sal_uInt32)((kappa*(double)rRect.GetWidth()/2.0)+0.5);
const sal_uInt32 ky = (sal_uInt32)((kappa*(double)rRect.GetHeight()/2.0)+0.5);
aPoints[1] = Point( rRect.TopLeft().X() + rRect.GetWidth()/2, rRect.TopLeft().Y() );
aPoints[0] = Point( aPoints[1].X() - kx, aPoints[1].Y() );
aPoints[2] = Point( aPoints[1].X() + kx, aPoints[1].Y() );
aPoints[4] = Point( rRect.TopRight().X()+1, rRect.TopRight().Y() + rRect.GetHeight()/2 );
aPoints[3] = Point( aPoints[4].X(), aPoints[4].Y() - ky );
aPoints[5] = Point( aPoints[4].X(), aPoints[4].Y() + ky );
aPoints[7] = Point( rRect.BottomLeft().X() + rRect.GetWidth()/2, rRect.BottomLeft().Y()+1 );
aPoints[6] = Point( aPoints[7].X() + kx, aPoints[7].Y() );
aPoints[8] = Point( aPoints[7].X() - kx, aPoints[7].Y() );
aPoints[10] = Point( rRect.TopLeft().X(), rRect.TopLeft().Y() + rRect.GetHeight()/2 );
aPoints[9] = Point( aPoints[10].X(), aPoints[10].Y() + ky );
aPoints[11] = Point( aPoints[10].X(), aPoints[10].Y() - ky );
OStringBuffer aLine( 80 );
m_aPages.back().appendPoint( aPoints[1], aLine );
aLine.append( " m " );
m_aPages.back().appendPoint( aPoints[2], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[3], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[4], aLine );
aLine.append( " c\n" );
m_aPages.back().appendPoint( aPoints[5], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[6], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[7], aLine );
aLine.append( " c\n" );
m_aPages.back().appendPoint( aPoints[8], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[9], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[10], aLine );
aLine.append( " c\n" );
m_aPages.back().appendPoint( aPoints[11], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[0], aLine );
aLine.append( ' ' );
m_aPages.back().appendPoint( aPoints[1], aLine );
aLine.append( " c " );
if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor != Color( COL_TRANSPARENT ) )
aLine.append( "b*\n" );
else if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) )
aLine.append( "s\n" );
else
aLine.append( "f*\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
static double calcAngle( const Rectangle& rRect, const Point& rPoint )
{
Point aOrigin((rRect.Left()+rRect.Right()+1)/2,
(rRect.Top()+rRect.Bottom()+1)/2);
Point aPoint = rPoint - aOrigin;
double fX = (double)aPoint.X();
double fY = (double)-aPoint.Y();
if( rRect.GetWidth() > rRect.GetHeight() )
fY = fY*((double)rRect.GetWidth()/(double)rRect.GetHeight());
else if( rRect.GetHeight() > rRect.GetWidth() )
fX = fX*((double)rRect.GetHeight()/(double)rRect.GetWidth());
return atan2( fY, fX );
}
void PDFWriterImpl::drawArc( const Rectangle& rRect, const Point& rStart, const Point& rStop, bool bWithPie, bool bWithChord )
{
MARK( "drawArc" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor == Color( COL_TRANSPARENT ) )
return;
// calculate start and stop angles
const double fStartAngle = calcAngle( rRect, rStart );
double fStopAngle = calcAngle( rRect, rStop );
while( fStopAngle < fStartAngle )
fStopAngle += 2.0*M_PI;
const int nFragments = (int)((fStopAngle-fStartAngle)/(M_PI/2.0))+1;
const double fFragmentDelta = (fStopAngle-fStartAngle)/(double)nFragments;
const double kappa = fabs( 4.0 * (1.0-cos(fFragmentDelta/2.0))/sin(fFragmentDelta/2.0) / 3.0);
const double halfWidth = (double)rRect.GetWidth()/2.0;
const double halfHeight = (double)rRect.GetHeight()/2.0;
const Point aCenter( (rRect.Left()+rRect.Right()+1)/2,
(rRect.Top()+rRect.Bottom()+1)/2 );
OStringBuffer aLine( 30*nFragments );
Point aPoint( (int)(halfWidth * cos(fStartAngle) ),
-(int)(halfHeight * sin(fStartAngle) ) );
aPoint += aCenter;
m_aPages.back().appendPoint( aPoint, aLine );
aLine.append( " m " );
if( !basegfx::fTools::equal(fStartAngle, fStopAngle) )
{
for( int i = 0; i < nFragments; i++ )
{
const double fStartFragment = fStartAngle + (double)i*fFragmentDelta;
const double fStopFragment = fStartFragment + fFragmentDelta;
aPoint = Point( (int)(halfWidth * (cos(fStartFragment) - kappa*sin(fStartFragment) ) ),
-(int)(halfHeight * (sin(fStartFragment) + kappa*cos(fStartFragment) ) ) );
aPoint += aCenter;
m_aPages.back().appendPoint( aPoint, aLine );
aLine.append( ' ' );
aPoint = Point( (int)(halfWidth * (cos(fStopFragment) + kappa*sin(fStopFragment) ) ),
-(int)(halfHeight * (sin(fStopFragment) - kappa*cos(fStopFragment) ) ) );
aPoint += aCenter;
m_aPages.back().appendPoint( aPoint, aLine );
aLine.append( ' ' );
aPoint = Point( (int)(halfWidth * cos(fStopFragment) ),
-(int)(halfHeight * sin(fStopFragment) ) );
aPoint += aCenter;
m_aPages.back().appendPoint( aPoint, aLine );
aLine.append( " c\n" );
}
}
if( bWithChord || bWithPie )
{
if( bWithPie )
{
m_aPages.back().appendPoint( aCenter, aLine );
aLine.append( " l " );
}
aLine.append( "h " );
}
if( ! bWithChord && ! bWithPie )
aLine.append( "S\n" );
else if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor != Color( COL_TRANSPARENT ) )
aLine.append( "B*\n" );
else if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) )
aLine.append( "S\n" );
else
aLine.append( "f*\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::drawPolyLine( const Polygon& rPoly )
{
MARK( "drawPolyLine" );
USHORT nPoints = rPoly.GetSize();
if( nPoints < 2 )
return;
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) )
return;
OStringBuffer aLine( 20 * nPoints );
m_aPages.back().appendPolygon( rPoly, aLine, rPoly[0] == rPoly[nPoints-1] );
aLine.append( "S\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::drawPolyLine( const Polygon& rPoly, const LineInfo& rInfo )
{
MARK( "drawPolyLine with LineInfo" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) )
return;
OStringBuffer aLine;
aLine.append( "q " );
if( m_aPages.back().appendLineInfo( rInfo, aLine ) )
{
writeBuffer( aLine.getStr(), aLine.getLength() );
drawPolyLine( rPoly );
writeBuffer( "Q\n", 2 );
}
else
{
PDFWriter::ExtLineInfo aInfo;
convertLineInfoToExtLineInfo( rInfo, aInfo );
drawPolyLine( rPoly, aInfo );
}
}
void PDFWriterImpl::convertLineInfoToExtLineInfo( const LineInfo& rIn, PDFWriter::ExtLineInfo& rOut )
{
DBG_ASSERT( rIn.GetStyle() == LINE_DASH, "invalid conversion" );
rOut.m_fLineWidth = rIn.GetWidth();
rOut.m_fTransparency = 0.0;
rOut.m_eCap = PDFWriter::capButt;
rOut.m_eJoin = PDFWriter::joinMiter;
rOut.m_fMiterLimit = 10;
rOut.m_aDashArray.clear();
int nDashes = rIn.GetDashCount();
int nDashLen = rIn.GetDashLen();
int nDistance = rIn.GetDistance();
for( int n = 0; n < nDashes; n++ )
{
rOut.m_aDashArray.push_back( nDashLen );
rOut.m_aDashArray.push_back( nDistance );
}
int nDots = rIn.GetDotCount();
int nDotLen = rIn.GetDotLen();
for( int n = 0; n < nDots; n++ )
{
rOut.m_aDashArray.push_back( nDotLen );
rOut.m_aDashArray.push_back( nDistance );
}
}
void PDFWriterImpl::drawPolyLine( const Polygon& rPoly, const PDFWriter::ExtLineInfo& rInfo )
{
MARK( "drawPolyLine with ExtLineInfo" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) )
return;
if( rInfo.m_fTransparency >= 1.0 )
return;
if( rInfo.m_fTransparency != 0.0 )
beginTransparencyGroup();
OStringBuffer aLine;
aLine.append( "q " );
m_aPages.back().appendMappedLength( rInfo.m_fLineWidth, aLine );
aLine.append( " w" );
if( rInfo.m_aDashArray.size() < 10 ) // implmentation limit of acrobat reader
{
switch( rInfo.m_eCap )
{
default:
case PDFWriter::capButt: aLine.append( " 0 J" );break;
case PDFWriter::capRound: aLine.append( " 1 J" );break;
case PDFWriter::capSquare: aLine.append( " 2 J" );break;
}
switch( rInfo.m_eJoin )
{
default:
case PDFWriter::joinMiter:
{
double fLimit = rInfo.m_fMiterLimit;
if( rInfo.m_fLineWidth < rInfo.m_fMiterLimit )
fLimit = fLimit / rInfo.m_fLineWidth;
if( fLimit < 1.0 )
fLimit = 1.0;
aLine.append( " 0 j " );
appendDouble( fLimit, aLine );
aLine.append( " M" );
}
break;
case PDFWriter::joinRound: aLine.append( " 1 j" );break;
case PDFWriter::joinBevel: aLine.append( " 2 j" );break;
}
if( rInfo.m_aDashArray.size() > 0 )
{
aLine.append( " [ " );
for( std::vector<double>::const_iterator it = rInfo.m_aDashArray.begin();
it != rInfo.m_aDashArray.end(); ++it )
{
m_aPages.back().appendMappedLength( *it, aLine );
aLine.append( ' ' );
}
aLine.append( "] 0 d" );
}
aLine.append( "\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
drawPolyLine( rPoly );
}
else
{
basegfx::B2DPolygon aPoly(rPoly.getB2DPolygon());
basegfx::B2DPolyPolygon aPolyPoly;
basegfx::tools::applyLineDashing(aPoly, rInfo.m_aDashArray, &aPolyPoly);
// Old applyLineDashing subdivided the polygon. New one will create bezier curve segments.
// To mimic old behaviour, apply subdivide here. If beziers shall be written (better quality)
// this line needs to be removed and the loop below adapted accordingly
aPolyPoly = basegfx::tools::adaptiveSubdivideByAngle(aPolyPoly);
const sal_uInt32 nPolygonCount(aPolyPoly.count());
for( sal_uInt32 nPoly = 0; nPoly < nPolygonCount; nPoly++ )
{
aLine.append( (nPoly != 0 && (nPoly & 7) == 0) ? "\n" : " " );
aPoly = aPolyPoly.getB2DPolygon( nPoly );
const sal_uInt32 nPointCount(aPoly.count());
if(nPointCount)
{
const sal_uInt32 nEdgeCount(aPoly.isClosed() ? nPointCount : nPointCount - 1);
basegfx::B2DPoint aCurrent(aPoly.getB2DPoint(0));
for(sal_uInt32 a(0); a < nEdgeCount; a++)
{
if( a > 0 )
aLine.append( " " );
const sal_uInt32 nNextIndex((a + 1) % nPointCount);
const basegfx::B2DPoint aNext(aPoly.getB2DPoint(nNextIndex));
m_aPages.back().appendPoint( Point( FRound(aCurrent.getX()),
FRound(aCurrent.getY()) ),
aLine );
aLine.append( " m " );
m_aPages.back().appendPoint( Point( FRound(aNext.getX()),
FRound(aNext.getY()) ),
aLine );
aLine.append( " l" );
// prepare next edge
aCurrent = aNext;
}
}
}
aLine.append( " S " );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
writeBuffer( "Q\n", 2 );
if( rInfo.m_fTransparency != 0.0 )
{
// FIXME: actually this may be incorrect with bezier polygons
Rectangle aBoundRect( rPoly.GetBoundRect() );
// avoid clipping with thick lines
if( rInfo.m_fLineWidth > 0.0 )
{
sal_Int32 nLW = sal_Int32(rInfo.m_fLineWidth);
aBoundRect.Top() -= nLW;
aBoundRect.Left() -= nLW;
aBoundRect.Right() += nLW;
aBoundRect.Bottom() += nLW;
}
endTransparencyGroup( aBoundRect, (USHORT)(100.0*rInfo.m_fTransparency) );
}
}
void PDFWriterImpl::drawPixel( const Point& rPoint, const Color& rColor )
{
MARK( "drawPixel" );
Color aColor = ( rColor == Color( COL_TRANSPARENT ) ? m_aGraphicsStack.front().m_aLineColor : rColor );
if( aColor == Color( COL_TRANSPARENT ) )
return;
// pixels are drawn in line color, so have to set
// the nonstroking color to line color
Color aOldFillColor = m_aGraphicsStack.front().m_aFillColor;
setFillColor( aColor );
updateGraphicsState();
OStringBuffer aLine( 20 );
m_aPages.back().appendPoint( rPoint, aLine );
aLine.append( ' ' );
appendDouble( 1.0/double(getReferenceDevice()->ImplGetDPIX()), aLine );
aLine.append( ' ' );
appendDouble( 1.0/double(getReferenceDevice()->ImplGetDPIY()), aLine );
aLine.append( " re f\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
setFillColor( aOldFillColor );
}
void PDFWriterImpl::drawPixel( const Polygon& rPoints, const Color* pColors )
{
MARK( "drawPixel with Polygon" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) && ! pColors )
return;
USHORT nPoints = rPoints.GetSize();
OStringBuffer aLine( nPoints*40 );
aLine.append( "q " );
if( ! pColors )
{
appendNonStrokingColor( m_aGraphicsStack.front().m_aLineColor, aLine );
aLine.append( ' ' );
}
OStringBuffer aPixel(32);
aPixel.append( ' ' );
appendDouble( 1.0/double(getReferenceDevice()->ImplGetDPIX()), aPixel );
aPixel.append( ' ' );
appendDouble( 1.0/double(getReferenceDevice()->ImplGetDPIY()), aPixel );
OString aPixelStr = aPixel.makeStringAndClear();
for( USHORT i = 0; i < nPoints; i++ )
{
if( pColors )
{
if( pColors[i] == Color( COL_TRANSPARENT ) )
continue;
appendNonStrokingColor( pColors[i], aLine );
aLine.append( ' ' );
}
m_aPages.back().appendPoint( rPoints[i], aLine );
aLine.append( aPixelStr );
aLine.append( " re f\n" );
}
aLine.append( "Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
class AccessReleaser
{
BitmapReadAccess* m_pAccess;
public:
AccessReleaser( BitmapReadAccess* pAccess ) : m_pAccess( pAccess ){}
~AccessReleaser() { delete m_pAccess; }
};
bool PDFWriterImpl::writeTransparentObject( TransparencyEmit& rObject )
{
CHECK_RETURN( updateObject( rObject.m_nObject ) );
bool bFlateFilter = compressStream( rObject.m_pContentStream );
rObject.m_pContentStream->Seek( STREAM_SEEK_TO_END );
ULONG nSize = rObject.m_pContentStream->Tell();
rObject.m_pContentStream->Seek( STREAM_SEEK_TO_BEGIN );
#if OSL_DEBUG_LEVEL > 1
{
OStringBuffer aLine( " PDFWriterImpl::writeTransparentObject" );
emitComment( aLine.getStr() );
}
#endif
OStringBuffer aLine( 512 );
CHECK_RETURN( updateObject( rObject.m_nObject ) );
aLine.append( rObject.m_nObject );
aLine.append( " 0 obj\n"
"<</Type/XObject\n"
"/Subtype/Form\n"
"/BBox[ " );
appendFixedInt( rObject.m_aBoundRect.Left(), aLine );
aLine.append( ' ' );
appendFixedInt( rObject.m_aBoundRect.Top(), aLine );
aLine.append( ' ' );
appendFixedInt( rObject.m_aBoundRect.Right(), aLine );
aLine.append( ' ' );
appendFixedInt( rObject.m_aBoundRect.Bottom()+1, aLine );
aLine.append( " ]\n" );
if( ! rObject.m_pSoftMaskStream )
{
if( ! m_bIsPDF_A1 )
{
aLine.append( "/Group<</S/Transparency/CS/DeviceRGB/K true>>\n" );
}
}
/* #i42884# the PDF reference recommends that each Form XObject
* should have a resource dict; alas if that is the same object
* as the one of the page it triggers an endless recursion in
* acroread 5 (6 and up have that fixed). Since we have only one
* resource dict anyway, let's use the one from the page by NOT
* emitting a Resources entry.
*/
#if 0
aLine.append( " /Resources " );
aLine.append( getResourceDictObj() );
aLine.append( " 0 R\n" );
#endif
aLine.append( "/Length " );
aLine.append( (sal_Int32)(nSize) );
aLine.append( "\n" );
if( bFlateFilter )
aLine.append( "/Filter/FlateDecode\n" );
aLine.append( ">>\n"
"stream\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
checkAndEnableStreamEncryption( rObject.m_nObject );
CHECK_RETURN( writeBuffer( rObject.m_pContentStream->GetData(), nSize ) );
disableStreamEncryption();
aLine.setLength( 0 );
aLine.append( "\n"
"endstream\n"
"endobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
// write ExtGState dict for this XObject
aLine.setLength( 0 );
aLine.append( rObject.m_nExtGStateObject );
aLine.append( " 0 obj\n"
"<<" );
if( ! rObject.m_pSoftMaskStream )
{
//i59651
if( m_bIsPDF_A1 )
{
aLine.append( "/CA 1.0/ca 1.0" );
m_aErrors.insert( PDFWriter::Warning_Transparency_Omitted_PDFA );
}
else
{
aLine.append( "/CA " );
appendDouble( rObject.m_fAlpha, aLine );
aLine.append( "\n"
" /ca " );
appendDouble( rObject.m_fAlpha, aLine );
}
aLine.append( "\n" );
}
else
{
if( m_bIsPDF_A1 )
{
aLine.append( "/SMask/None" );
m_aErrors.insert( PDFWriter::Warning_Transparency_Omitted_PDFA );
}
else
{
rObject.m_pSoftMaskStream->Seek( STREAM_SEEK_TO_END );
sal_Int32 nMaskSize = (sal_Int32)rObject.m_pSoftMaskStream->Tell();
rObject.m_pSoftMaskStream->Seek( STREAM_SEEK_TO_BEGIN );
sal_Int32 nMaskObject = createObject();
aLine.append( "/SMask<</Type/Mask/S/Luminosity/G " );
aLine.append( nMaskObject );
aLine.append( " 0 R>>\n" );
OStringBuffer aMask;
aMask.append( nMaskObject );
aMask.append( " 0 obj\n"
"<</Type/XObject\n"
"/Subtype/Form\n"
"/BBox[" );
appendFixedInt( rObject.m_aBoundRect.Left(), aMask );
aMask.append( ' ' );
appendFixedInt( rObject.m_aBoundRect.Top(), aMask );
aMask.append( ' ' );
appendFixedInt( rObject.m_aBoundRect.Right(), aMask );
aMask.append( ' ' );
appendFixedInt( rObject.m_aBoundRect.Bottom()+1, aMask );
aMask.append( "]\n" );
/* #i42884# see above */
#if 0
aLine.append( "/Resources " );
aMask.append( getResourceDictObj() );
aMask.append( " 0 R\n" );
#endif
aMask.append( "/Group<</S/Transparency/CS/DeviceRGB>>\n" );
aMask.append( "/Length " );
aMask.append( nMaskSize );
aMask.append( ">>\n"
"stream\n" );
CHECK_RETURN( updateObject( nMaskObject ) );
checkAndEnableStreamEncryption( nMaskObject );
CHECK_RETURN( writeBuffer( aMask.getStr(), aMask.getLength() ) );
CHECK_RETURN( writeBuffer( rObject.m_pSoftMaskStream->GetData(), nMaskSize ) );
disableStreamEncryption();
aMask.setLength( 0 );
aMask.append( "\nendstream\n"
"endobj\n\n" );
CHECK_RETURN( writeBuffer( aMask.getStr(), aMask.getLength() ) );
}
}
aLine.append( ">>\n"
"endobj\n\n" );
CHECK_RETURN( updateObject( rObject.m_nExtGStateObject ) );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
return true;
}
bool PDFWriterImpl::writeGradientFunction( GradientEmit& rObject )
{
sal_Int32 nFunctionObject = createObject();
CHECK_RETURN( updateObject( nFunctionObject ) );
OutputDevice* pRefDevice = getReferenceDevice();
pRefDevice->Push( PUSH_ALL );
if( rObject.m_aSize.Width() > pRefDevice->GetOutputSizePixel().Width() )
rObject.m_aSize.Width() = pRefDevice->GetOutputSizePixel().Width();
if( rObject.m_aSize.Height() > pRefDevice->GetOutputSizePixel().Height() )
rObject.m_aSize.Height() = pRefDevice->GetOutputSizePixel().Height();
pRefDevice->SetMapMode( MapMode( MAP_PIXEL ) );
pRefDevice->DrawGradient( Rectangle( Point( 0, 0 ), rObject.m_aSize ), rObject.m_aGradient );
Bitmap aSample = pRefDevice->GetBitmap( Point( 0, 0 ), rObject.m_aSize );
BitmapReadAccess* pAccess = aSample.AcquireReadAccess();
AccessReleaser aReleaser( pAccess );
Size aSize = aSample.GetSizePixel();
sal_Int32 nStreamLengthObject = createObject();
#if OSL_DEBUG_LEVEL > 1
{
OStringBuffer aLine( " PDFWriterImpl::writeGradientFunction" );
emitComment( aLine.getStr() );
}
#endif
OStringBuffer aLine( 120 );
aLine.append( nFunctionObject );
aLine.append( " 0 obj\n"
"<</FunctionType 0\n"
"/Domain[ 0 1 0 1 ]\n"
"/Size[ " );
aLine.append( (sal_Int32)aSize.Width() );
aLine.append( ' ' );
aLine.append( (sal_Int32)aSize.Height() );
aLine.append( " ]\n"
"/BitsPerSample 8\n"
"/Range[ 0 1 0 1 0 1 ]\n"
"/Length " );
aLine.append( nStreamLengthObject );
aLine.append( " 0 R\n"
#ifndef DEBUG_DISABLE_PDFCOMPRESSION
"/Filter/FlateDecode"
#endif
">>\n"
"stream\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
sal_uInt64 nStartStreamPos = 0;
CHECK_RETURN( (osl_File_E_None == osl_getFilePos( m_aFile, &nStartStreamPos )) );
checkAndEnableStreamEncryption( nFunctionObject );
beginCompression();
for( int y = 0; y < aSize.Height(); y++ )
{
for( int x = 0; x < aSize.Width(); x++ )
{
sal_uInt8 aCol[3];
BitmapColor aColor = pAccess->GetColor( y, x );
aCol[0] = aColor.GetRed();
aCol[1] = aColor.GetGreen();
aCol[2] = aColor.GetBlue();
CHECK_RETURN( writeBuffer( aCol, 3 ) );
}
}
endCompression();
disableStreamEncryption();
sal_uInt64 nEndStreamPos = 0;
CHECK_RETURN( (osl_File_E_None == osl_getFilePos( m_aFile, &nEndStreamPos )) );
aLine.setLength( 0 );
aLine.append( "\nendstream\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
// write stream length
CHECK_RETURN( updateObject( nStreamLengthObject ) );
aLine.setLength( 0 );
aLine.append( nStreamLengthObject );
aLine.append( " 0 obj\n" );
aLine.append( (sal_Int64)(nEndStreamPos-nStartStreamPos) );
aLine.append( "\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
CHECK_RETURN( updateObject( rObject.m_nObject ) );
aLine.setLength( 0 );
aLine.append( rObject.m_nObject );
aLine.append( " 0 obj\n"
"<</ShadingType 1\n"
"/ColorSpace/DeviceRGB\n"
"/AntiAlias true\n"
"/Domain[ 0 1 0 1 ]\n"
"/Matrix[ " );
aLine.append( (sal_Int32)aSize.Width() );
aLine.append( " 0 0 " );
aLine.append( (sal_Int32)aSize.Height() );
aLine.append( " 0 0 ]\n"
"/Function " );
aLine.append( nFunctionObject );
aLine.append( " 0 R\n"
">>\n"
"endobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
pRefDevice->Pop();
return true;
}
bool PDFWriterImpl::writeJPG( JPGEmit& rObject )
{
CHECK_RETURN( rObject.m_pStream );
CHECK_RETURN( updateObject( rObject.m_nObject ) );
sal_Int32 nLength = 0;
rObject.m_pStream->Seek( STREAM_SEEK_TO_END );
nLength = rObject.m_pStream->Tell();
rObject.m_pStream->Seek( STREAM_SEEK_TO_BEGIN );
sal_Int32 nMaskObject = 0;
if( !!rObject.m_aMask )
{
if( rObject.m_aMask.GetBitCount() == 1 ||
( rObject.m_aMask.GetBitCount() == 8 && m_aContext.Version >= PDFWriter::PDF_1_4 && !m_bIsPDF_A1 )//i59651
)
{
nMaskObject = createObject();
}
else if( m_bIsPDF_A1 )
m_aErrors.insert( PDFWriter::Warning_Transparency_Omitted_PDFA );
else if( m_aContext.Version < PDFWriter::PDF_1_4 )
m_aErrors.insert( PDFWriter::Warning_Transparency_Omitted_PDF13 );
}
#if OSL_DEBUG_LEVEL > 1
{
OStringBuffer aLine( " PDFWriterImpl::writeJPG" );
emitComment( aLine.getStr() );
}
#endif
OStringBuffer aLine(200);
aLine.append( rObject.m_nObject );
aLine.append( " 0 obj\n"
"<</Type/XObject/Subtype/Image/Width " );
aLine.append( (sal_Int32)rObject.m_aID.m_aPixelSize.Width() );
aLine.append( " /Height " );
aLine.append( (sal_Int32)rObject.m_aID.m_aPixelSize.Height() );
aLine.append( " /BitsPerComponent 8 " );
if( rObject.m_bTrueColor )
aLine.append( "/ColorSpace/DeviceRGB" );
else
aLine.append( "/ColorSpace/DeviceGray" );
aLine.append( "/Filter/DCTDecode/Length " );
aLine.append( nLength );
if( nMaskObject )
{
aLine.append( rObject.m_aMask.GetBitCount() == 1 ? " /Mask " : " /SMask " );
aLine.append( nMaskObject );
aLine.append( " 0 R " );
}
aLine.append( ">>\nstream\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
checkAndEnableStreamEncryption( rObject.m_nObject );
CHECK_RETURN( writeBuffer( rObject.m_pStream->GetData(), nLength ) );
disableStreamEncryption();
aLine.setLength( 0 );
aLine.append( "\nendstream\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
if( nMaskObject )
{
BitmapEmit aEmit;
aEmit.m_nObject = nMaskObject;
if( rObject.m_aMask.GetBitCount() == 1 )
aEmit.m_aBitmap = BitmapEx( rObject.m_aMask, rObject.m_aMask );
else if( rObject.m_aMask.GetBitCount() == 8 )
aEmit.m_aBitmap = BitmapEx( rObject.m_aMask, AlphaMask( rObject.m_aMask ) );
writeBitmapObject( aEmit, true );
}
return true;
}
bool PDFWriterImpl::writeBitmapObject( BitmapEmit& rObject, bool bMask )
{
CHECK_RETURN( updateObject( rObject.m_nObject ) );
Bitmap aBitmap;
Color aTransparentColor( COL_TRANSPARENT );
bool bWriteMask = false;
if( ! bMask )
{
aBitmap = rObject.m_aBitmap.GetBitmap();
if( rObject.m_aBitmap.IsAlpha() )
{
if( m_aContext.Version >= PDFWriter::PDF_1_4 )
bWriteMask = true;
// else draw without alpha channel
}
else
{
switch( rObject.m_aBitmap.GetTransparentType() )
{
case TRANSPARENT_NONE:
// comes from drawMask function
if( aBitmap.GetBitCount() == 1 && rObject.m_bDrawMask )
bMask = true;
break;
case TRANSPARENT_COLOR:
aTransparentColor = rObject.m_aBitmap.GetTransparentColor();
break;
case TRANSPARENT_BITMAP:
bWriteMask = true;
break;
}
}
}
else
{
if( m_aContext.Version < PDFWriter::PDF_1_4 || ! rObject.m_aBitmap.IsAlpha() )
{
aBitmap = rObject.m_aBitmap.GetMask();
aBitmap.Convert( BMP_CONVERSION_1BIT_THRESHOLD );
DBG_ASSERT( aBitmap.GetBitCount() == 1, "mask conversion failed" );
}
else if( aBitmap.GetBitCount() != 8 )
{
aBitmap = rObject.m_aBitmap.GetAlpha().GetBitmap();
aBitmap.Convert( BMP_CONVERSION_8BIT_GREYS );
DBG_ASSERT( aBitmap.GetBitCount() == 8, "alpha mask conversion failed" );
}
}
BitmapReadAccess* pAccess = aBitmap.AcquireReadAccess();
AccessReleaser aReleaser( pAccess );
bool bTrueColor;
sal_Int32 nBitsPerComponent;
switch( aBitmap.GetBitCount() )
{
case 1:
case 2:
case 4:
case 8:
bTrueColor = false;
nBitsPerComponent = aBitmap.GetBitCount();
break;
default:
bTrueColor = true;
nBitsPerComponent = 8;
break;
}
sal_Int32 nStreamLengthObject = createObject();
sal_Int32 nMaskObject = 0;
#if OSL_DEBUG_LEVEL > 1
{
OStringBuffer aLine( " PDFWriterImpl::writeBitmapObject" );
emitComment( aLine.getStr() );
}
#endif
OStringBuffer aLine(1024);
aLine.append( rObject.m_nObject );
aLine.append( " 0 obj\n"
"<</Type/XObject/Subtype/Image/Width " );
aLine.append( (sal_Int32)aBitmap.GetSizePixel().Width() );
aLine.append( " /Height " );
aLine.append( (sal_Int32)aBitmap.GetSizePixel().Height() );
aLine.append( " /BitsPerComponent " );
aLine.append( nBitsPerComponent );
aLine.append( " /Length " );
aLine.append( nStreamLengthObject );
aLine.append( " 0 R\n" );
#ifndef DEBUG_DISABLE_PDFCOMPRESSION
aLine.append( "/Filter/FlateDecode" );
#endif
if( ! bMask )
{
aLine.append( "/ColorSpace" );
if( bTrueColor )
aLine.append( "/DeviceRGB\n" );
else if( aBitmap.HasGreyPalette() )
{
aLine.append( "/DeviceGray\n" );
if( aBitmap.GetBitCount() == 1 )
{
// #i47395# 1 bit bitmaps occasionally have an inverted grey palette
sal_Int32 nBlackIndex = pAccess->GetBestPaletteIndex( BitmapColor( Color( COL_BLACK ) ) );
DBG_ASSERT( nBlackIndex == 0 || nBlackIndex == 1, "wrong black index" );
if( nBlackIndex == 1 )
aLine.append( "/Decode[1 0]\n" );
}
}
else
{
aLine.append( "[ /Indexed/DeviceRGB " );
aLine.append( (sal_Int32)(pAccess->GetPaletteEntryCount()-1) );
aLine.append( "\n<" );
if( m_aContext.Encrypt )
{
enableStringEncryption( rObject.m_nObject );
//check encryption buffer size
if( checkEncryptionBufferSize( pAccess->GetPaletteEntryCount()*3 ) )
{
int nChar = 0;
//fill the encryption buffer
for( USHORT i = 0; i < pAccess->GetPaletteEntryCount(); i++ )
{
const BitmapColor& rColor = pAccess->GetPaletteColor( i );
m_pEncryptionBuffer[nChar++] = rColor.GetRed();
m_pEncryptionBuffer[nChar++] = rColor.GetGreen();
m_pEncryptionBuffer[nChar++] = rColor.GetBlue();
}
//encrypt the colorspace lookup table
rtl_cipher_encodeARCFOUR( m_aCipher, m_pEncryptionBuffer, nChar, m_pEncryptionBuffer, nChar );
//now queue the data for output
nChar = 0;
for( USHORT i = 0; i < pAccess->GetPaletteEntryCount(); i++ )
{
appendHex(m_pEncryptionBuffer[nChar++], aLine );
appendHex(m_pEncryptionBuffer[nChar++], aLine );
appendHex(m_pEncryptionBuffer[nChar++], aLine );
}
}
}
else //no encryption requested (PDF/A-1a program flow drops here)
{
for( USHORT i = 0; i < pAccess->GetPaletteEntryCount(); i++ )
{
const BitmapColor& rColor = pAccess->GetPaletteColor( i );
appendHex( rColor.GetRed(), aLine );
appendHex( rColor.GetGreen(), aLine );
appendHex( rColor.GetBlue(), aLine );
}
}
aLine.append( ">\n]\n" );
}
}
else
{
if( aBitmap.GetBitCount() == 1 )
{
aLine.append( " /ImageMask true\n" );
sal_Int32 nBlackIndex = pAccess->GetBestPaletteIndex( BitmapColor( Color( COL_BLACK ) ) );
DBG_ASSERT( nBlackIndex == 0 || nBlackIndex == 1, "wrong black index" );
if( nBlackIndex )
aLine.append( "/Decode[ 1 0 ]\n" );
else
aLine.append( "/Decode[ 0 1 ]\n" );
}
else if( aBitmap.GetBitCount() == 8 )
{
aLine.append( "/ColorSpace/DeviceGray\n"
"/Decode [ 1 0 ]\n" );
}
}
if( ! bMask && m_aContext.Version > PDFWriter::PDF_1_2 && !m_bIsPDF_A1 )//i59651
{
if( bWriteMask )
{
nMaskObject = createObject();
if( rObject.m_aBitmap.IsAlpha() && m_aContext.Version > PDFWriter::PDF_1_3 )
aLine.append( "/SMask " );
else
aLine.append( "/Mask " );
aLine.append( nMaskObject );
aLine.append( " 0 R\n" );
}
else if( aTransparentColor != Color( COL_TRANSPARENT ) )
{
aLine.append( "/Mask[ " );
if( bTrueColor )
{
aLine.append( (sal_Int32)aTransparentColor.GetRed() );
aLine.append( ' ' );
aLine.append( (sal_Int32)aTransparentColor.GetRed() );
aLine.append( ' ' );
aLine.append( (sal_Int32)aTransparentColor.GetGreen() );
aLine.append( ' ' );
aLine.append( (sal_Int32)aTransparentColor.GetGreen() );
aLine.append( ' ' );
aLine.append( (sal_Int32)aTransparentColor.GetBlue() );
aLine.append( ' ' );
aLine.append( (sal_Int32)aTransparentColor.GetBlue() );
}
else
{
sal_Int32 nIndex = pAccess->GetBestPaletteIndex( BitmapColor( aTransparentColor ) );
aLine.append( nIndex );
}
aLine.append( " ]\n" );
}
}
else if( m_bIsPDF_A1 )
m_aErrors.insert( PDFWriter::Warning_Transparency_Omitted_PDFA );
aLine.append( ">>\n"
"stream\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
sal_uInt64 nStartPos = 0;
CHECK_RETURN( (osl_File_E_None == osl_getFilePos( m_aFile, &nStartPos )) );
checkAndEnableStreamEncryption( rObject.m_nObject );
beginCompression();
if( ! bTrueColor || pAccess->GetScanlineFormat() == BMP_FORMAT_24BIT_TC_RGB )
{
const int nScanLineBytes = 1 + ( pAccess->GetBitCount() * ( pAccess->Width() - 1 ) / 8U );
for( int i = 0; i < pAccess->Height(); i++ )
{
CHECK_RETURN( writeBuffer( pAccess->GetScanline( i ), nScanLineBytes ) );
}
}
else
{
const int nScanLineBytes = pAccess->Width()*3;
boost::shared_array<sal_uInt8> pCol( new sal_uInt8[ nScanLineBytes ] );
for( int y = 0; y < pAccess->Height(); y++ )
{
for( int x = 0; x < pAccess->Width(); x++ )
{
BitmapColor aColor = pAccess->GetColor( y, x );
pCol[3*x+0] = aColor.GetRed();
pCol[3*x+1] = aColor.GetGreen();
pCol[3*x+2] = aColor.GetBlue();
}
CHECK_RETURN( writeBuffer( pCol.get(), nScanLineBytes ) );
}
}
endCompression();
disableStreamEncryption();
sal_uInt64 nEndPos = 0;
CHECK_RETURN( (osl_File_E_None == osl_getFilePos( m_aFile, &nEndPos )) );
aLine.setLength( 0 );
aLine.append( "\nendstream\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
CHECK_RETURN( updateObject( nStreamLengthObject ) );
aLine.setLength( 0 );
aLine.append( nStreamLengthObject );
aLine.append( " 0 obj\n" );
aLine.append( (sal_Int64)(nEndPos-nStartPos) );
aLine.append( "\nendobj\n\n" );
CHECK_RETURN( writeBuffer( aLine.getStr(), aLine.getLength() ) );
if( nMaskObject )
{
BitmapEmit aEmit;
aEmit.m_nObject = nMaskObject;
aEmit.m_aBitmap = rObject.m_aBitmap;
return writeBitmapObject( aEmit, true );
}
return true;
}
void PDFWriterImpl::drawJPGBitmap( SvStream& rDCTData, bool bIsTrueColor, const Size& rSizePixel, const Rectangle& rTargetArea, const Bitmap& rMask )
{
MARK( "drawJPGBitmap" );
OStringBuffer aLine( 80 );
updateGraphicsState();
// #i40055# sanity check
if( ! (rTargetArea.GetWidth() && rTargetArea.GetHeight() ) )
return;
if( ! (rSizePixel.Width() && rSizePixel.Height()) )
return;
SvMemoryStream* pStream = new SvMemoryStream;
rDCTData.Seek( 0 );
*pStream << rDCTData;
pStream->Seek( STREAM_SEEK_TO_END );
BitmapID aID;
aID.m_aPixelSize = rSizePixel;
aID.m_nSize = pStream->Tell();
pStream->Seek( STREAM_SEEK_TO_BEGIN );
aID.m_nChecksum = rtl_crc32( 0, pStream->GetData(), aID.m_nSize );
if( ! rMask.IsEmpty() )
aID.m_nMaskChecksum = rMask.GetChecksum();
std::list< JPGEmit >::const_iterator it;
for( it = m_aJPGs.begin(); it != m_aJPGs.end() && ! (aID == it->m_aID); ++it )
;
if( it == m_aJPGs.end() )
{
m_aJPGs.push_front( JPGEmit() );
JPGEmit& rEmit = m_aJPGs.front();
rEmit.m_nObject = createObject();
rEmit.m_aID = aID;
rEmit.m_pStream = pStream;
rEmit.m_bTrueColor = bIsTrueColor;
if( !! rMask && rMask.GetSizePixel() == rSizePixel )
rEmit.m_aMask = rMask;
it = m_aJPGs.begin();
}
else
delete pStream;
aLine.append( "q " );
sal_Int32 nCheckWidth = 0;
m_aPages.back().appendMappedLength( (sal_Int32)rTargetArea.GetWidth(), aLine, false, &nCheckWidth );
aLine.append( " 0 0 " );
sal_Int32 nCheckHeight = 0;
m_aPages.back().appendMappedLength( (sal_Int32)rTargetArea.GetHeight(), aLine, true, &nCheckHeight );
aLine.append( ' ' );
m_aPages.back().appendPoint( rTargetArea.BottomLeft(), aLine );
aLine.append( " cm\n/Im" );
aLine.append( it->m_nObject );
aLine.append( " Do Q\n" );
if( nCheckWidth == 0 || nCheckHeight == 0 )
{
// #i97512# avoid invalid current matrix
aLine.setLength( 0 );
aLine.append( "\n%jpeg image /Im" );
aLine.append( it->m_nObject );
aLine.append( " scaled to zero size, omitted\n" );
}
writeBuffer( aLine.getStr(), aLine.getLength() );
OStringBuffer aObjName( 16 );
aObjName.append( "Im" );
aObjName.append( it->m_nObject );
pushResource( ResXObject, aObjName.makeStringAndClear(), it->m_nObject );
}
void PDFWriterImpl::drawBitmap( const Point& rDestPoint, const Size& rDestSize, const BitmapEmit& rBitmap, const Color& rFillColor )
{
OStringBuffer aLine( 80 );
updateGraphicsState();
aLine.append( "q " );
if( rFillColor != Color( COL_TRANSPARENT ) )
{
appendNonStrokingColor( rFillColor, aLine );
aLine.append( ' ' );
}
sal_Int32 nCheckWidth = 0;
m_aPages.back().appendMappedLength( (sal_Int32)rDestSize.Width(), aLine, false, &nCheckWidth );
aLine.append( " 0 0 " );
sal_Int32 nCheckHeight = 0;
m_aPages.back().appendMappedLength( (sal_Int32)rDestSize.Height(), aLine, true, &nCheckHeight );
aLine.append( ' ' );
m_aPages.back().appendPoint( rDestPoint + Point( 0, rDestSize.Height()-1 ), aLine );
aLine.append( " cm\n/Im" );
aLine.append( rBitmap.m_nObject );
aLine.append( " Do Q\n" );
if( nCheckWidth == 0 || nCheckHeight == 0 )
{
// #i97512# avoid invalid current matrix
aLine.setLength( 0 );
aLine.append( "\n%bitmap image /Im" );
aLine.append( rBitmap.m_nObject );
aLine.append( " scaled to zero size, omitted\n" );
}
writeBuffer( aLine.getStr(), aLine.getLength() );
}
const PDFWriterImpl::BitmapEmit& PDFWriterImpl::createBitmapEmit( const BitmapEx& rBitmap, bool bDrawMask )
{
BitmapID aID;
aID.m_aPixelSize = rBitmap.GetSizePixel();
aID.m_nSize = rBitmap.GetBitCount();
aID.m_nChecksum = rBitmap.GetBitmap().GetChecksum();
aID.m_nMaskChecksum = 0;
if( rBitmap.IsAlpha() )
aID.m_nMaskChecksum = rBitmap.GetAlpha().GetChecksum();
else
{
Bitmap aMask = rBitmap.GetMask();
if( ! aMask.IsEmpty() )
aID.m_nMaskChecksum = aMask.GetChecksum();
}
std::list< BitmapEmit >::const_iterator it;
for( it = m_aBitmaps.begin(); it != m_aBitmaps.end(); ++it )
{
if( aID == it->m_aID )
break;
}
if( it == m_aBitmaps.end() )
{
m_aBitmaps.push_front( BitmapEmit() );
m_aBitmaps.front().m_aID = aID;
m_aBitmaps.front().m_aBitmap = rBitmap;
m_aBitmaps.front().m_nObject = createObject();
m_aBitmaps.front().m_bDrawMask = bDrawMask;
it = m_aBitmaps.begin();
}
OStringBuffer aObjName( 16 );
aObjName.append( "Im" );
aObjName.append( it->m_nObject );
pushResource( ResXObject, aObjName.makeStringAndClear(), it->m_nObject );
return *it;
}
void PDFWriterImpl::drawBitmap( const Point& rDestPoint, const Size& rDestSize, const Bitmap& rBitmap )
{
MARK( "drawBitmap (Bitmap)" );
// #i40055# sanity check
if( ! (rDestSize.Width() && rDestSize.Height()) )
return;
const BitmapEmit& rEmit = createBitmapEmit( BitmapEx( rBitmap ) );
drawBitmap( rDestPoint, rDestSize, rEmit, Color( COL_TRANSPARENT ) );
}
void PDFWriterImpl::drawBitmap( const Point& rDestPoint, const Size& rDestSize, const BitmapEx& rBitmap )
{
MARK( "drawBitmap (BitmapEx)" );
// #i40055# sanity check
if( ! (rDestSize.Width() && rDestSize.Height()) )
return;
const BitmapEmit& rEmit = createBitmapEmit( rBitmap );
drawBitmap( rDestPoint, rDestSize, rEmit, Color( COL_TRANSPARENT ) );
}
void PDFWriterImpl::drawMask( const Point& rDestPoint, const Size& rDestSize, const Bitmap& rBitmap, const Color& rFillColor )
{
MARK( "drawMask" );
// #i40055# sanity check
if( ! (rDestSize.Width() && rDestSize.Height()) )
return;
Bitmap aBitmap( rBitmap );
if( aBitmap.GetBitCount() > 1 )
aBitmap.Convert( BMP_CONVERSION_1BIT_THRESHOLD );
DBG_ASSERT( aBitmap.GetBitCount() == 1, "mask conversion failed" );
const BitmapEmit& rEmit = createBitmapEmit( BitmapEx( aBitmap ), true );
drawBitmap( rDestPoint, rDestSize, rEmit, rFillColor );
}
sal_Int32 PDFWriterImpl::createGradient( const Gradient& rGradient, const Size& rSize )
{
Size aPtSize( lcl_convert( m_aGraphicsStack.front().m_aMapMode,
MapMode( MAP_POINT ),
getReferenceDevice(),
rSize ) );
// check if we already have this gradient
std::list<GradientEmit>::iterator it;
for( it = m_aGradients.begin(); it != m_aGradients.end(); ++it )
{
if( it->m_aGradient == rGradient )
{
if( it->m_aSize.Width() < aPtSize.Width() )
it->m_aSize.Width() = aPtSize.Width();
if( it->m_aSize.Height() <= aPtSize.Height() )
it->m_aSize.Height() = aPtSize.Height();
break;
}
}
if( it == m_aGradients.end() )
{
m_aGradients.push_front( GradientEmit() );
m_aGradients.front().m_aGradient = rGradient;
m_aGradients.front().m_nObject = createObject();
m_aGradients.front().m_aSize = aPtSize;
it = m_aGradients.begin();
}
OStringBuffer aObjName( 16 );
aObjName.append( 'P' );
aObjName.append( it->m_nObject );
pushResource( ResShading, aObjName.makeStringAndClear(), it->m_nObject );
return it->m_nObject;
}
void PDFWriterImpl::drawGradient( const Rectangle& rRect, const Gradient& rGradient )
{
MARK( "drawGradient (Rectangle)" );
if( m_aContext.Version == PDFWriter::PDF_1_2 )
{
drawRectangle( rRect );
return;
}
sal_Int32 nGradient = createGradient( rGradient, rRect.GetSize() );
Point aTranslate( rRect.BottomLeft() );
aTranslate += Point( 0, 1 );
updateGraphicsState();
OStringBuffer aLine( 80 );
aLine.append( "q 1 0 0 1 " );
m_aPages.back().appendPoint( aTranslate, aLine );
aLine.append( " cm " );
// if a stroke is appended reset the clip region before stroke
if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) )
aLine.append( "q " );
aLine.append( "0 0 " );
m_aPages.back().appendMappedLength( (sal_Int32)rRect.GetWidth(), aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( (sal_Int32)rRect.GetHeight(), aLine, true );
aLine.append( " re W n\n" );
aLine.append( "/P" );
aLine.append( nGradient );
aLine.append( " sh " );
if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) )
{
aLine.append( "Q 0 0 " );
m_aPages.back().appendMappedLength( (sal_Int32)rRect.GetWidth(), aLine, false );
aLine.append( ' ' );
m_aPages.back().appendMappedLength( (sal_Int32)rRect.GetHeight(), aLine, true );
aLine.append( " re S " );
}
aLine.append( "Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::drawGradient( const PolyPolygon& rPolyPoly, const Gradient& rGradient )
{
MARK( "drawGradient (PolyPolygon)" );
if( m_aContext.Version == PDFWriter::PDF_1_2 )
{
drawPolyPolygon( rPolyPoly );
return;
}
sal_Int32 nGradient = createGradient( rGradient, rPolyPoly.GetBoundRect().GetSize() );
updateGraphicsState();
Rectangle aBoundRect = rPolyPoly.GetBoundRect();
Point aTranslate = aBoundRect.BottomLeft() + Point( 0, 1 );
int nPolygons = rPolyPoly.Count();
OStringBuffer aLine( 80*nPolygons );
aLine.append( "q " );
// set PolyPolygon as clip path
m_aPages.back().appendPolyPolygon( rPolyPoly, aLine );
aLine.append( "W* n\n" );
aLine.append( "1 0 0 1 " );
m_aPages.back().appendPoint( aTranslate, aLine );
aLine.append( " cm\n" );
aLine.append( "/P" );
aLine.append( nGradient );
aLine.append( " sh Q\n" );
if( m_aGraphicsStack.front().m_aLineColor != Color( COL_TRANSPARENT ) )
{
// and draw the surrounding path
m_aPages.back().appendPolyPolygon( rPolyPoly, aLine );
aLine.append( "S\n" );
}
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::drawHatch( const PolyPolygon& rPolyPoly, const Hatch& rHatch )
{
MARK( "drawHatch" );
updateGraphicsState();
if( m_aGraphicsStack.front().m_aLineColor == Color( COL_TRANSPARENT ) &&
m_aGraphicsStack.front().m_aFillColor == Color( COL_TRANSPARENT ) )
return;
if( rPolyPoly.Count() )
{
PolyPolygon aPolyPoly( rPolyPoly );
aPolyPoly.Optimize( POLY_OPTIMIZE_NO_SAME );
push( PUSH_LINECOLOR );
setLineColor( rHatch.GetColor() );
getReferenceDevice()->ImplDrawHatch( aPolyPoly, rHatch, FALSE );
pop();
}
}
void PDFWriterImpl::drawWallpaper( const Rectangle& rRect, const Wallpaper& rWall )
{
MARK( "drawWallpaper" );
bool bDrawColor = false;
bool bDrawGradient = false;
bool bDrawBitmap = false;
BitmapEx aBitmap;
Point aBmpPos = rRect.TopLeft();
Size aBmpSize;
if( rWall.IsBitmap() )
{
aBitmap = rWall.GetBitmap();
aBmpSize = lcl_convert( aBitmap.GetPrefMapMode(),
getMapMode(),
getReferenceDevice(),
aBitmap.GetPrefSize() );
Rectangle aRect( rRect );
if( rWall.IsRect() )
{
aRect = rWall.GetRect();
aBmpPos = aRect.TopLeft();
aBmpSize = aRect.GetSize();
}
if( rWall.GetStyle() != WALLPAPER_SCALE )
{
if( rWall.GetStyle() != WALLPAPER_TILE )
{
bDrawBitmap = true;
if( rWall.IsGradient() )
bDrawGradient = true;
else
bDrawColor = true;
switch( rWall.GetStyle() )
{
case WALLPAPER_TOPLEFT:
break;
case WALLPAPER_TOP:
aBmpPos.X() += (aRect.GetWidth()-aBmpSize.Width())/2;
break;
case WALLPAPER_LEFT:
aBmpPos.Y() += (aRect.GetHeight()-aBmpSize.Height())/2;
break;
case WALLPAPER_TOPRIGHT:
aBmpPos.X() += aRect.GetWidth()-aBmpSize.Width();
break;
case WALLPAPER_CENTER:
aBmpPos.X() += (aRect.GetWidth()-aBmpSize.Width())/2;
aBmpPos.Y() += (aRect.GetHeight()-aBmpSize.Height())/2;
break;
case WALLPAPER_RIGHT:
aBmpPos.X() += aRect.GetWidth()-aBmpSize.Width();
aBmpPos.Y() += (aRect.GetHeight()-aBmpSize.Height())/2;
break;
case WALLPAPER_BOTTOMLEFT:
aBmpPos.Y() += aRect.GetHeight()-aBmpSize.Height();
break;
case WALLPAPER_BOTTOM:
aBmpPos.X() += (aRect.GetWidth()-aBmpSize.Width())/2;
aBmpPos.Y() += aRect.GetHeight()-aBmpSize.Height();
break;
case WALLPAPER_BOTTOMRIGHT:
aBmpPos.X() += aRect.GetWidth()-aBmpSize.Width();
aBmpPos.Y() += aRect.GetHeight()-aBmpSize.Height();
break;
default: ;
}
}
else
{
// push the bitmap
const BitmapEmit& rEmit = createBitmapEmit( BitmapEx( aBitmap ) );
// convert to page coordinates; this needs to be done here
// since the emit does not know the page anymore
Rectangle aConvertRect( aBmpPos, aBmpSize );
m_aPages.back().convertRect( aConvertRect );
OStringBuffer aNameBuf(16);
aNameBuf.append( "Im" );
aNameBuf.append( rEmit.m_nObject );
OString aImageName( aNameBuf.makeStringAndClear() );
// push the pattern
OStringBuffer aTilingStream( 32 );
appendFixedInt( aConvertRect.GetWidth(), aTilingStream );
aTilingStream.append( " 0 0 " );
appendFixedInt( aConvertRect.GetHeight(), aTilingStream );
aTilingStream.append( " 0 0 cm\n/" );
aTilingStream.append( aImageName );
aTilingStream.append( " Do\n" );
m_aTilings.push_back( TilingEmit() );
m_aTilings.back().m_nObject = createObject();
m_aTilings.back().m_aRectangle = Rectangle( Point( 0, 0 ), aConvertRect.GetSize() );
m_aTilings.back().m_pTilingStream = new SvMemoryStream();
m_aTilings.back().m_pTilingStream->Write( aTilingStream.getStr(), aTilingStream.getLength() );
// phase the tiling so wallpaper begins on upper left
m_aTilings.back().m_aTransform.matrix[2] = double(aConvertRect.Left() % aConvertRect.GetWidth()) / fDivisor;
m_aTilings.back().m_aTransform.matrix[5] = double(aConvertRect.Top() % aConvertRect.GetHeight()) / fDivisor;
m_aTilings.back().m_aResources.m_aXObjects[aImageName] = rEmit.m_nObject;
updateGraphicsState();
OStringBuffer aObjName( 16 );
aObjName.append( 'P' );
aObjName.append( m_aTilings.back().m_nObject );
OString aPatternName( aObjName.makeStringAndClear() );
pushResource( ResPattern, aPatternName, m_aTilings.back().m_nObject );
// fill a rRect with the pattern
OStringBuffer aLine( 100 );
aLine.append( "q /Pattern cs /" );
aLine.append( aPatternName );
aLine.append( " scn " );
m_aPages.back().appendRect( rRect, aLine );
aLine.append( " f Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
}
else
{
aBmpPos = aRect.TopLeft();
aBmpSize = aRect.GetSize();
bDrawBitmap = true;
}
if( aBitmap.IsTransparent() )
{
if( rWall.IsGradient() )
bDrawGradient = true;
else
bDrawColor = true;
}
}
else if( rWall.IsGradient() )
bDrawGradient = true;
else
bDrawColor = true;
if( bDrawGradient )
{
drawGradient( rRect, rWall.GetGradient() );
}
if( bDrawColor )
{
Color aOldLineColor = m_aGraphicsStack.front().m_aLineColor;
Color aOldFillColor = m_aGraphicsStack.front().m_aFillColor;
setLineColor( Color( COL_TRANSPARENT ) );
setFillColor( rWall.GetColor() );
drawRectangle( rRect );
setLineColor( aOldLineColor );
setFillColor( aOldFillColor );
}
if( bDrawBitmap )
{
// set temporary clip region since aBmpPos and aBmpSize
// may be outside rRect
OStringBuffer aLine( 20 );
aLine.append( "q " );
m_aPages.back().appendRect( rRect, aLine );
aLine.append( " W n\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
drawBitmap( aBmpPos, aBmpSize, aBitmap );
writeBuffer( "Q\n", 2 );
}
}
void PDFWriterImpl::beginPattern( const Rectangle& rCellRect )
{
beginRedirect( new SvMemoryStream(), rCellRect );
}
sal_Int32 PDFWriterImpl::endPattern( const SvtGraphicFill::Transform& rTransform )
{
Rectangle aConvertRect( getRedirectTargetRect() );
DBG_ASSERT( aConvertRect.GetWidth() != 0 && aConvertRect.GetHeight() != 0, "empty cell rectangle in pattern" );
// get scaling between current mapmode and PDF output
Size aScaling( lcl_convert( m_aGraphicsStack.front().m_aMapMode, m_aMapMode, getReferenceDevice(), Size( 10000, 10000 ) ) );
double fSX = (double(aScaling.Width()) / 10000.0);
double fSY = (double(aScaling.Height()) / 10000.0);
// transform translation part of matrix
Size aTranslation( (long)rTransform.matrix[2], (long)rTransform.matrix[5] );
aTranslation = lcl_convert( m_aGraphicsStack.front().m_aMapMode, m_aMapMode, getReferenceDevice(), aTranslation );
sal_Int32 nTilingId = m_aTilings.size();
m_aTilings.push_back( TilingEmit() );
TilingEmit& rTile = m_aTilings.back();
rTile.m_nObject = createObject();
rTile.m_aResources = m_aOutputStreams.front().m_aResourceDict;
rTile.m_aTransform.matrix[0] = rTransform.matrix[0] * fSX;
rTile.m_aTransform.matrix[1] = rTransform.matrix[1] * fSY;
rTile.m_aTransform.matrix[2] = aTranslation.Width();
rTile.m_aTransform.matrix[3] = rTransform.matrix[3] * fSX;
rTile.m_aTransform.matrix[4] = rTransform.matrix[4] * fSY;
rTile.m_aTransform.matrix[5] = -aTranslation.Height();
// caution: endRedirect pops the stream, so do this last
rTile.m_pTilingStream = dynamic_cast<SvMemoryStream*>(endRedirect());
// FIXME: bound rect will not work with rotated matrix
rTile.m_aRectangle = Rectangle( Point(0,0), aConvertRect.GetSize() );
rTile.m_aCellSize = aConvertRect.GetSize();
OStringBuffer aObjName( 16 );
aObjName.append( 'P' );
aObjName.append( rTile.m_nObject );
pushResource( ResPattern, aObjName.makeStringAndClear(), rTile.m_nObject );
return nTilingId;
}
void PDFWriterImpl::drawPolyPolygon( const PolyPolygon& rPolyPoly, sal_Int32 nPattern, bool bEOFill )
{
if( nPattern < 0 || nPattern >= (sal_Int32)m_aTilings.size() )
return;
m_aPages.back().endStream();
sal_Int32 nXObject = createObject();
OStringBuffer aNameBuf( 16 );
aNameBuf.append( "Pol" );
aNameBuf.append( nXObject );
OString aObjName( aNameBuf.makeStringAndClear() );
Rectangle aObjRect;
if( updateObject( nXObject ) )
{
// get bounding rect of object
PolyPolygon aSubDiv;
rPolyPoly.AdaptiveSubdivide( aSubDiv );
aObjRect = aSubDiv.GetBoundRect();
Rectangle aConvObjRect( aObjRect );
m_aPages.back().convertRect( aConvObjRect );
// move polypolygon to bottom left of page
PolyPolygon aLocalPath( rPolyPoly );
sal_Int32 nPgWd = getReferenceDevice()->ImplGetDPIX() * m_aPages.back().getWidth() / 72;
sal_Int32 nPgHt = getReferenceDevice()->ImplGetDPIY() * m_aPages.back().getHeight() / 72;
Size aLogicPgSz = getReferenceDevice()->PixelToLogic( Size( nPgWd, nPgHt ), m_aGraphicsStack.front().m_aMapMode );
sal_Int32 nXOff = aObjRect.Left();
sal_Int32 nYOff = aLogicPgSz.Height() - aObjRect.Bottom();
aLocalPath.Move( -nXOff, nYOff );
// prepare XObject's content stream
OStringBuffer aStream( 512 );
aStream.append( "/Pattern cs /P" );
aStream.append( m_aTilings[ nPattern ].m_nObject );
aStream.append( " scn\n" );
m_aPages.back().appendPolyPolygon( aLocalPath, aStream );
aStream.append( bEOFill ? "f*" : "f" );
SvMemoryStream aMemStream( aStream.getLength() );
aMemStream.Write( aStream.getStr(), aStream.getLength() );
bool bDeflate = compressStream( &aMemStream );
aMemStream.Seek( STREAM_SEEK_TO_END );
sal_Int32 nStreamLen = (sal_Int32)aMemStream.Tell();
aMemStream.Seek( STREAM_SEEK_TO_BEGIN );
// add new XObject to global resource dict
m_aGlobalResourceDict.m_aXObjects[ aObjName ] = nXObject;
// write XObject
OStringBuffer aLine( 512 );
aLine.append( nXObject );
aLine.append( " 0 obj\n"
"<</Type/XObject/Subtype/Form/BBox[0 0 " );
appendFixedInt( aConvObjRect.GetWidth(), aLine );
aLine.append( ' ' );
appendFixedInt( aConvObjRect.GetHeight(), aLine );
aLine.append( "]/Length " );
aLine.append( nStreamLen );
if( bDeflate )
aLine.append( "/Filter/FlateDecode" );
aLine.append( ">>\n"
"stream\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
checkAndEnableStreamEncryption( nXObject );
writeBuffer( aMemStream.GetData(), nStreamLen );
disableStreamEncryption();
writeBuffer( "\nendstream\nendobj\n\n", 19 );
}
m_aPages.back().beginStream();
OStringBuffer aLine( 80 );
aLine.append( "q 1 0 0 1 " );
m_aPages.back().appendPoint( aObjRect.BottomLeft(), aLine );
aLine.append( " cm/" );
aLine.append( aObjName );
aLine.append( " Do Q\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
}
void PDFWriterImpl::updateGraphicsState()
{
OStringBuffer aLine( 256 );
GraphicsState& rNewState = m_aGraphicsStack.front();
// first set clip region since it might invalidate everything else
if( (rNewState.m_nUpdateFlags & GraphicsState::updateClipRegion) )
{
rNewState.m_nUpdateFlags &= ~GraphicsState::updateClipRegion;
if( m_aCurrentPDFState.m_bClipRegion != rNewState.m_bClipRegion ||
( rNewState.m_bClipRegion && m_aCurrentPDFState.m_aClipRegion != rNewState.m_aClipRegion ) )
{
if( m_aCurrentPDFState.m_bClipRegion && m_aCurrentPDFState.m_aClipRegion.count() )
{
aLine.append( "Q " );
// invalidate everything but the clip region
m_aCurrentPDFState = GraphicsState();
rNewState.m_nUpdateFlags = sal::static_int_cast<sal_uInt16>(~GraphicsState::updateClipRegion);
}
if( rNewState.m_bClipRegion && rNewState.m_aClipRegion.count() )
{
// clip region is always stored in private PDF mapmode
MapMode aNewMapMode = rNewState.m_aMapMode;
rNewState.m_aMapMode = m_aMapMode;
getReferenceDevice()->SetMapMode( rNewState.m_aMapMode );
m_aCurrentPDFState.m_aMapMode = rNewState.m_aMapMode;
aLine.append( "q " );
m_aPages.back().appendPolyPolygon( rNewState.m_aClipRegion, aLine );
aLine.append( "W* n\n" );
rNewState.m_aMapMode = aNewMapMode;
getReferenceDevice()->SetMapMode( rNewState.m_aMapMode );
m_aCurrentPDFState.m_aMapMode = rNewState.m_aMapMode;
}
}
}
if( (rNewState.m_nUpdateFlags & GraphicsState::updateMapMode) )
{
rNewState.m_nUpdateFlags &= ~GraphicsState::updateMapMode;
getReferenceDevice()->SetMapMode( rNewState.m_aMapMode );
}
if( (rNewState.m_nUpdateFlags & GraphicsState::updateFont) )
{
rNewState.m_nUpdateFlags &= ~GraphicsState::updateFont;
getReferenceDevice()->SetFont( rNewState.m_aFont );
getReferenceDevice()->ImplNewFont();
}
if( (rNewState.m_nUpdateFlags & GraphicsState::updateLayoutMode) )
{
rNewState.m_nUpdateFlags &= ~GraphicsState::updateLayoutMode;
getReferenceDevice()->SetLayoutMode( rNewState.m_nLayoutMode );
}
if( (rNewState.m_nUpdateFlags & GraphicsState::updateDigitLanguage) )
{
rNewState.m_nUpdateFlags &= ~GraphicsState::updateDigitLanguage;
getReferenceDevice()->SetDigitLanguage( rNewState.m_aDigitLanguage );
}
if( (rNewState.m_nUpdateFlags & GraphicsState::updateLineColor) )
{
rNewState.m_nUpdateFlags &= ~GraphicsState::updateLineColor;
if( m_aCurrentPDFState.m_aLineColor != rNewState.m_aLineColor &&
rNewState.m_aLineColor != Color( COL_TRANSPARENT ) )
{
appendStrokingColor( rNewState.m_aLineColor, aLine );
aLine.append( "\n" );
}
}
if( (rNewState.m_nUpdateFlags & GraphicsState::updateFillColor) )
{
rNewState.m_nUpdateFlags &= ~GraphicsState::updateFillColor;
if( m_aCurrentPDFState.m_aFillColor != rNewState.m_aFillColor &&
rNewState.m_aFillColor != Color( COL_TRANSPARENT ) )
{
appendNonStrokingColor( rNewState.m_aFillColor, aLine );
aLine.append( "\n" );
}
}
if( (rNewState.m_nUpdateFlags & GraphicsState::updateTransparentPercent) )
{
rNewState.m_nUpdateFlags &= ~GraphicsState::updateTransparentPercent;
if( m_aContext.Version >= PDFWriter::PDF_1_4 && m_aCurrentPDFState.m_nTransparentPercent != rNewState.m_nTransparentPercent )
{
// TODO: switch extended graphicsstate
}
}
// everything is up to date now
m_aCurrentPDFState = m_aGraphicsStack.front();
if( aLine.getLength() )
writeBuffer( aLine.getStr(), aLine.getLength() );
}
/* #i47544# imitate OutputDevice behaviour:
* if a font with a nontransparent color is set, it overwrites the current
* text color. OTOH setting the text color will overwrite the color of the font.
*/
void PDFWriterImpl::setFont( const Font& rFont )
{
Color aColor = rFont.GetColor();
if( aColor == Color( COL_TRANSPARENT ) )
aColor = m_aGraphicsStack.front().m_aFont.GetColor();
m_aGraphicsStack.front().m_aFont = rFont;
m_aGraphicsStack.front().m_aFont.SetColor( aColor );
m_aGraphicsStack.front().m_nUpdateFlags |= GraphicsState::updateFont;
}
void PDFWriterImpl::push( sal_uInt16 nFlags )
{
OSL_ENSURE( m_aGraphicsStack.size() > 0, "invalid graphics stack" );
m_aGraphicsStack.push_front( m_aGraphicsStack.front() );
m_aGraphicsStack.front().m_nFlags = nFlags;
}
void PDFWriterImpl::pop()
{
OSL_ENSURE( m_aGraphicsStack.size() > 1, "pop without push" );
if( m_aGraphicsStack.size() < 2 )
return;
GraphicsState aState = m_aGraphicsStack.front();
m_aGraphicsStack.pop_front();
GraphicsState& rOld = m_aGraphicsStack.front();
// move those parameters back that were not pushed
// in the first place
if( ! (aState.m_nFlags & PUSH_LINECOLOR) )
setLineColor( aState.m_aLineColor );
if( ! (aState.m_nFlags & PUSH_FILLCOLOR) )
setFillColor( aState.m_aFillColor );
if( ! (aState.m_nFlags & PUSH_FONT) )
setFont( aState.m_aFont );
if( ! (aState.m_nFlags & PUSH_TEXTCOLOR) )
setTextColor( aState.m_aFont.GetColor() );
if( ! (aState.m_nFlags & PUSH_MAPMODE) )
setMapMode( aState.m_aMapMode );
if( ! (aState.m_nFlags & PUSH_CLIPREGION) )
{
// do not use setClipRegion here
// it would convert again assuming the current mapmode
rOld.m_aClipRegion = aState.m_aClipRegion;
rOld.m_bClipRegion = aState.m_bClipRegion;
}
if( ! (aState.m_nFlags & PUSH_TEXTLINECOLOR ) )
setTextLineColor( aState.m_aTextLineColor );
if( ! (aState.m_nFlags & PUSH_OVERLINECOLOR ) )
setOverlineColor( aState.m_aOverlineColor );
if( ! (aState.m_nFlags & PUSH_TEXTALIGN ) )
setTextAlign( aState.m_aFont.GetAlign() );
if( ! (aState.m_nFlags & PUSH_TEXTFILLCOLOR) )
setTextFillColor( aState.m_aFont.GetFillColor() );
if( ! (aState.m_nFlags & PUSH_REFPOINT) )
{
// what ?
}
// invalidate graphics state
m_aGraphicsStack.front().m_nUpdateFlags = sal::static_int_cast<sal_uInt16>(~0U);
}
void PDFWriterImpl::setMapMode( const MapMode& rMapMode )
{
m_aGraphicsStack.front().m_aMapMode = rMapMode;
getReferenceDevice()->SetMapMode( rMapMode );
m_aCurrentPDFState.m_aMapMode = rMapMode;
}
void PDFWriterImpl::setClipRegion( const basegfx::B2DPolyPolygon& rRegion )
{
basegfx::B2DPolyPolygon aRegion = getReferenceDevice()->LogicToPixel( rRegion, m_aGraphicsStack.front().m_aMapMode );
aRegion = getReferenceDevice()->PixelToLogic( aRegion, m_aMapMode );
m_aGraphicsStack.front().m_aClipRegion = aRegion;
m_aGraphicsStack.front().m_bClipRegion = true;
m_aGraphicsStack.front().m_nUpdateFlags |= GraphicsState::updateClipRegion;
}
void PDFWriterImpl::moveClipRegion( sal_Int32 nX, sal_Int32 nY )
{
if( m_aGraphicsStack.front().m_bClipRegion && m_aGraphicsStack.front().m_aClipRegion.count() )
{
Point aPoint( lcl_convert( m_aGraphicsStack.front().m_aMapMode,
m_aMapMode,
getReferenceDevice(),
Point( nX, nY ) ) );
aPoint -= lcl_convert( m_aGraphicsStack.front().m_aMapMode,
m_aMapMode,
getReferenceDevice(),
Point() );
basegfx::B2DHomMatrix aMat;
aMat.translate( aPoint.X(), aPoint.Y() );
m_aGraphicsStack.front().m_aClipRegion.transform( aMat );
m_aGraphicsStack.front().m_nUpdateFlags |= GraphicsState::updateClipRegion;
}
}
bool PDFWriterImpl::intersectClipRegion( const Rectangle& rRect )
{
basegfx::B2DPolyPolygon aRect( basegfx::tools::createPolygonFromRect(
basegfx::B2DRectangle( rRect.Left(), rRect.Top(), rRect.Right(), rRect.Bottom() ) ) );
return intersectClipRegion( aRect );
}
bool PDFWriterImpl::intersectClipRegion( const basegfx::B2DPolyPolygon& rRegion )
{
basegfx::B2DPolyPolygon aRegion( getReferenceDevice()->LogicToPixel( rRegion, m_aGraphicsStack.front().m_aMapMode ) );
aRegion = getReferenceDevice()->PixelToLogic( aRegion, m_aMapMode );
m_aGraphicsStack.front().m_nUpdateFlags |= GraphicsState::updateClipRegion;
if( m_aGraphicsStack.front().m_bClipRegion )
{
basegfx::B2DPolyPolygon aOld( basegfx::tools::prepareForPolygonOperation( m_aGraphicsStack.front().m_aClipRegion ) );
aRegion = basegfx::tools::prepareForPolygonOperation( aRegion );
m_aGraphicsStack.front().m_aClipRegion = basegfx::tools::solvePolygonOperationAnd( aOld, aRegion );
}
else
{
m_aGraphicsStack.front().m_aClipRegion = aRegion;
m_aGraphicsStack.front().m_bClipRegion = true;
}
return true;
}
void PDFWriterImpl::createNote( const Rectangle& rRect, const PDFNote& rNote, sal_Int32 nPageNr )
{
if( nPageNr < 0 )
nPageNr = m_nCurrentPage;
if( nPageNr < 0 || nPageNr >= (sal_Int32)m_aPages.size() )
return;
m_aNotes.push_back( PDFNoteEntry() );
m_aNotes.back().m_nObject = createObject();
m_aNotes.back().m_aContents = rNote;
m_aNotes.back().m_aRect = rRect;
// convert to default user space now, since the mapmode may change
m_aPages[nPageNr].convertRect( m_aNotes.back().m_aRect );
// insert note to page's annotation list
m_aPages[ nPageNr ].m_aAnnotations.push_back( m_aNotes.back().m_nObject );
}
sal_Int32 PDFWriterImpl::createLink( const Rectangle& rRect, sal_Int32 nPageNr )
{
if( nPageNr < 0 )
nPageNr = m_nCurrentPage;
if( nPageNr < 0 || nPageNr >= (sal_Int32)m_aPages.size() )
return -1;
sal_Int32 nRet = m_aLinks.size();
m_aLinks.push_back( PDFLink() );
m_aLinks.back().m_nObject = createObject();
m_aLinks.back().m_nPage = nPageNr;
m_aLinks.back().m_aRect = rRect;
// convert to default user space now, since the mapmode may change
m_aPages[nPageNr].convertRect( m_aLinks.back().m_aRect );
// insert link to page's annotation list
m_aPages[ nPageNr ].m_aAnnotations.push_back( m_aLinks.back().m_nObject );
return nRet;
}
//--->i56629
sal_Int32 PDFWriterImpl::createNamedDest( const rtl::OUString& sDestName, const Rectangle& rRect, sal_Int32 nPageNr, PDFWriter::DestAreaType eType )
{
if( nPageNr < 0 )
nPageNr = m_nCurrentPage;
if( nPageNr < 0 || nPageNr >= (sal_Int32)m_aPages.size() )
return -1;
sal_Int32 nRet = m_aNamedDests.size();
m_aNamedDests.push_back( PDFNamedDest() );
m_aNamedDests.back().m_aDestName = sDestName;
m_aNamedDests.back().m_nPage = nPageNr;
m_aNamedDests.back().m_eType = eType;
m_aNamedDests.back().m_aRect = rRect;
// convert to default user space now, since the mapmode may change
m_aPages[nPageNr].convertRect( m_aNamedDests.back().m_aRect );
return nRet;
}
//<---i56629
sal_Int32 PDFWriterImpl::createDest( const Rectangle& rRect, sal_Int32 nPageNr, PDFWriter::DestAreaType eType )
{
if( nPageNr < 0 )
nPageNr = m_nCurrentPage;
if( nPageNr < 0 || nPageNr >= (sal_Int32)m_aPages.size() )
return -1;
sal_Int32 nRet = m_aDests.size();
m_aDests.push_back( PDFDest() );
m_aDests.back().m_nPage = nPageNr;
m_aDests.back().m_eType = eType;
m_aDests.back().m_aRect = rRect;
// convert to default user space now, since the mapmode may change
m_aPages[nPageNr].convertRect( m_aDests.back().m_aRect );
return nRet;
}
sal_Int32 PDFWriterImpl::setLinkDest( sal_Int32 nLinkId, sal_Int32 nDestId )
{
if( nLinkId < 0 || nLinkId >= (sal_Int32)m_aLinks.size() )
return -1;
if( nDestId < 0 || nDestId >= (sal_Int32)m_aDests.size() )
return -2;
m_aLinks[ nLinkId ].m_nDest = nDestId;
return 0;
}
sal_Int32 PDFWriterImpl::setLinkURL( sal_Int32 nLinkId, const OUString& rURL )
{
if( nLinkId < 0 || nLinkId >= (sal_Int32)m_aLinks.size() )
return -1;
m_aLinks[ nLinkId ].m_nDest = -1;
using namespace ::com::sun::star;
if (!m_xTrans.is())
{
uno::Reference< lang::XMultiServiceFactory > xFact( comphelper::getProcessServiceFactory() );
if( xFact.is() )
{
m_xTrans = uno::Reference < util::XURLTransformer >(
xFact->createInstance( OUString( RTL_CONSTASCII_USTRINGPARAM( "com.sun.star.util.URLTransformer" ) ) ), uno::UNO_QUERY );
}
}
util::URL aURL;
aURL.Complete = rURL;
if (m_xTrans.is())
m_xTrans->parseStrict( aURL );
m_aLinks[ nLinkId ].m_aURL = aURL.Complete;
return 0;
}
void PDFWriterImpl::setLinkPropertyId( sal_Int32 nLinkId, sal_Int32 nPropertyId )
{
m_aLinkPropertyMap[ nPropertyId ] = nLinkId;
}
sal_Int32 PDFWriterImpl::createOutlineItem( sal_Int32 nParent, const OUString& rText, sal_Int32 nDestID )
{
// create new item
sal_Int32 nNewItem = m_aOutline.size();
m_aOutline.push_back( PDFOutlineEntry() );
// set item attributes
setOutlineItemParent( nNewItem, nParent );
setOutlineItemText( nNewItem, rText );
setOutlineItemDest( nNewItem, nDestID );
return nNewItem;
}
sal_Int32 PDFWriterImpl::setOutlineItemParent( sal_Int32 nItem, sal_Int32 nNewParent )
{
if( nItem < 1 || nItem >= (sal_Int32)m_aOutline.size() )
return -1;
int nRet = 0;
if( nNewParent < 0 || nNewParent >= (sal_Int32)m_aOutline.size() || nNewParent == nItem )
{
nNewParent = 0;
nRet = -2;
}
// remove item from previous parent
sal_Int32 nParentID = m_aOutline[ nItem ].m_nParentID;
if( nParentID >= 0 && nParentID < (sal_Int32)m_aOutline.size() )
{
PDFOutlineEntry& rParent = m_aOutline[ nParentID ];
for( std::vector<sal_Int32>::iterator it = rParent.m_aChildren.begin();
it != rParent.m_aChildren.end(); ++it )
{
if( *it == nItem )
{
rParent.m_aChildren.erase( it );
break;
}
}
}
// insert item to new parent's list of children
m_aOutline[ nNewParent ].m_aChildren.push_back( nItem );
return nRet;
}
sal_Int32 PDFWriterImpl::setOutlineItemText( sal_Int32 nItem, const OUString& rText )
{
if( nItem < 1 || nItem >= (sal_Int32)m_aOutline.size() )
return -1;
m_aOutline[ nItem ].m_aTitle = rText;
return 0;
}
sal_Int32 PDFWriterImpl::setOutlineItemDest( sal_Int32 nItem, sal_Int32 nDestID )
{
if( nItem < 1 || nItem >= (sal_Int32)m_aOutline.size() ) // item does not exist
return -1;
if( nDestID < 0 || nDestID >= (sal_Int32)m_aDests.size() ) // dest does not exist
return -2;
m_aOutline[nItem].m_nDestID = nDestID;
return 0;
}
const sal_Char* PDFWriterImpl::getStructureTag( PDFWriter::StructElement eType )
{
static std::map< PDFWriter::StructElement, const char* > aTagStrings;
if( aTagStrings.empty() )
{
aTagStrings[ PDFWriter::NonStructElement] = "NonStruct";
aTagStrings[ PDFWriter::Document ] = "Document";
aTagStrings[ PDFWriter::Part ] = "Part";
aTagStrings[ PDFWriter::Article ] = "Art";
aTagStrings[ PDFWriter::Section ] = "Sect";
aTagStrings[ PDFWriter::Division ] = "Div";
aTagStrings[ PDFWriter::BlockQuote ] = "BlockQuote";
aTagStrings[ PDFWriter::Caption ] = "Caption";
aTagStrings[ PDFWriter::TOC ] = "TOC";
aTagStrings[ PDFWriter::TOCI ] = "TOCI";
aTagStrings[ PDFWriter::Index ] = "Index";
aTagStrings[ PDFWriter::Paragraph ] = "P";
aTagStrings[ PDFWriter::Heading ] = "H";
aTagStrings[ PDFWriter::H1 ] = "H1";
aTagStrings[ PDFWriter::H2 ] = "H2";
aTagStrings[ PDFWriter::H3 ] = "H3";
aTagStrings[ PDFWriter::H4 ] = "H4";
aTagStrings[ PDFWriter::H5 ] = "H5";
aTagStrings[ PDFWriter::H6 ] = "H6";
aTagStrings[ PDFWriter::List ] = "L";
aTagStrings[ PDFWriter::ListItem ] = "LI";
aTagStrings[ PDFWriter::LILabel ] = "Lbl";
aTagStrings[ PDFWriter::LIBody ] = "LBody";
aTagStrings[ PDFWriter::Table ] = "Table";
aTagStrings[ PDFWriter::TableRow ] = "TR";
aTagStrings[ PDFWriter::TableHeader ] = "TH";
aTagStrings[ PDFWriter::TableData ] = "TD";
aTagStrings[ PDFWriter::Span ] = "Span";
aTagStrings[ PDFWriter::Quote ] = "Quote";
aTagStrings[ PDFWriter::Note ] = "Note";
aTagStrings[ PDFWriter::Reference ] = "Reference";
aTagStrings[ PDFWriter::BibEntry ] = "BibEntry";
aTagStrings[ PDFWriter::Code ] = "Code";
aTagStrings[ PDFWriter::Link ] = "Link";
aTagStrings[ PDFWriter::Figure ] = "Figure";
aTagStrings[ PDFWriter::Formula ] = "Formula";
aTagStrings[ PDFWriter::Form ] = "Form";
}
std::map< PDFWriter::StructElement, const char* >::const_iterator it = aTagStrings.find( eType );
return it != aTagStrings.end() ? it->second : "Div";
}
void PDFWriterImpl::beginStructureElementMCSeq()
{
if( m_bEmitStructure &&
m_nCurrentStructElement > 0 && // StructTreeRoot
! m_aStructure[ m_nCurrentStructElement ].m_bOpenMCSeq // already opened sequence
)
{
PDFStructureElement& rEle = m_aStructure[ m_nCurrentStructElement ];
OStringBuffer aLine( 128 );
sal_Int32 nMCID = m_aPages[ m_nCurrentPage ].m_aMCIDParents.size();
aLine.append( "/" );
if( rEle.m_aAlias.getLength() > 0 )
aLine.append( rEle.m_aAlias );
else
aLine.append( getStructureTag( rEle.m_eType ) );
aLine.append( "<</MCID " );
aLine.append( nMCID );
aLine.append( ">>BDC\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
// update the element's content list
#if OSL_DEBUG_LEVEL > 1
fprintf( stderr, "beginning marked content id %" SAL_PRIdINT32 " on page object %" SAL_PRIdINT32 ", structure first page = %" SAL_PRIdINT32 "\n",
nMCID,
m_aPages[ m_nCurrentPage ].m_nPageObject,
rEle.m_nFirstPageObject );
#endif
rEle.m_aKids.push_back( PDFStructureElementKid( nMCID, m_aPages[m_nCurrentPage].m_nPageObject ) );
// update the page's mcid parent list
m_aPages[ m_nCurrentPage ].m_aMCIDParents.push_back( rEle.m_nObject );
// mark element MC sequence as open
rEle.m_bOpenMCSeq = true;
}
// handle artifacts
else if( ! m_bEmitStructure && m_aContext.Tagged &&
m_nCurrentStructElement > 0 &&
m_aStructure[ m_nCurrentStructElement ].m_eType == PDFWriter::NonStructElement &&
! m_aStructure[ m_nCurrentStructElement ].m_bOpenMCSeq // already opened sequence
)
{
OStringBuffer aLine( 128 );
aLine.append( "/Artifact BMC\n" );
writeBuffer( aLine.getStr(), aLine.getLength() );
// mark element MC sequence as open
m_aStructure[ m_nCurrentStructElement ].m_bOpenMCSeq = true;
}
}
void PDFWriterImpl::endStructureElementMCSeq()
{
if( m_nCurrentStructElement > 0 && // StructTreeRoot
( m_bEmitStructure || m_aStructure[ m_nCurrentStructElement ].m_eType == PDFWriter::NonStructElement ) &&
m_aStructure[ m_nCurrentStructElement ].m_bOpenMCSeq // must have an opened MC sequence
)
{
writeBuffer( "EMC\n", 4 );
m_aStructure[ m_nCurrentStructElement ].m_bOpenMCSeq = false;
}
}
bool PDFWriterImpl::checkEmitStructure()
{
bool bEmit = false;
if( m_aContext.Tagged )
{
bEmit = true;
sal_Int32 nEle = m_nCurrentStructElement;
while( nEle > 0 && nEle < sal_Int32(m_aStructure.size()) )
{
if( m_aStructure[ nEle ].m_eType == PDFWriter::NonStructElement )
{
bEmit = false;
break;
}
nEle = m_aStructure[ nEle ].m_nParentElement;
}
}
return bEmit;
}
sal_Int32 PDFWriterImpl::beginStructureElement( PDFWriter::StructElement eType, const rtl::OUString& rAlias )
{
if( m_nCurrentPage < 0 )
return -1;
if( ! m_aContext.Tagged )
return -1;
// close eventual current MC sequence
endStructureElementMCSeq();
if( m_nCurrentStructElement == 0 &&
eType != PDFWriter::Document && eType != PDFWriter::NonStructElement )
{
// struct tree root hit, but not beginning document
// this might happen with setCurrentStructureElement
// silently insert structure into document again if one properly exists
if( ! m_aStructure[ 0 ].m_aChildren.empty() )
{
PDFWriter::StructElement childType = PDFWriter::NonStructElement;
sal_Int32 nNewCurElement = 0;
const std::list< sal_Int32 >& rRootChildren = m_aStructure[0].m_aChildren;
for( std::list< sal_Int32 >::const_iterator it = rRootChildren.begin();
childType != PDFWriter::Document && it != rRootChildren.end(); ++it )
{
nNewCurElement = *it;
childType = m_aStructure[ nNewCurElement ].m_eType;
}
if( childType == PDFWriter::Document )
{
m_nCurrentStructElement = nNewCurElement;
DBG_ASSERT( 0, "Structure element inserted to StructTreeRoot that is not a document" );
}
else {
DBG_ERROR( "document structure in disorder !" );
}
}
else {
DBG_ERROR( "PDF document structure MUST be contained in a Document element" );
}
}
sal_Int32 nNewId = sal_Int32(m_aStructure.size());
m_aStructure.push_back( PDFStructureElement() );
PDFStructureElement& rEle = m_aStructure.back();
rEle.m_eType = eType;
rEle.m_nOwnElement = nNewId;
rEle.m_nParentElement = m_nCurrentStructElement;
rEle.m_nFirstPageObject = m_aPages[ m_nCurrentPage ].m_nPageObject;
m_aStructure[ m_nCurrentStructElement ].m_aChildren.push_back( nNewId );
m_nCurrentStructElement = nNewId;
// handle alias names
if( rAlias.getLength() && eType != PDFWriter::NonStructElement )
{
OStringBuffer aNameBuf( rAlias.getLength() );
appendName( rAlias, aNameBuf );
OString aAliasName( aNameBuf.makeStringAndClear() );
rEle.m_aAlias = aAliasName;
m_aRoleMap[ aAliasName ] = getStructureTag( eType );
}
#if OSL_DEBUG_LEVEL > 1
OStringBuffer aLine( "beginStructureElement " );
aLine.append( m_nCurrentStructElement );
aLine.append( ": " );
aLine.append( getStructureTag( eType ) );
if( rEle.m_aAlias.getLength() )
{
aLine.append( " aliased as \"" );
aLine.append( rEle.m_aAlias );
aLine.append( '\"' );
}
emitComment( aLine.getStr() );
#endif
// check whether to emit structure henceforth
m_bEmitStructure = checkEmitStructure();
if( m_bEmitStructure ) // don't create nonexistant objects
{
rEle.m_nObject = createObject();
// update parent's kids list
m_aStructure[ rEle.m_nParentElement ].m_aKids.push_back( rEle.m_nObject );
}
return nNewId;
}
void PDFWriterImpl::endStructureElement()
{
if( m_nCurrentPage < 0 )
return;
if( ! m_aContext.Tagged )
return;
if( m_nCurrentStructElement == 0 )
{
// hit the struct tree root, that means there is an endStructureElement
// without corresponding beginStructureElement
return;
}
// end the marked content sequence
endStructureElementMCSeq();
#if OSL_DEBUG_LEVEL > 1
OStringBuffer aLine( "endStructureElement " );
aLine.append( m_nCurrentStructElement );
aLine.append( ": " );
aLine.append( getStructureTag( m_aStructure[ m_nCurrentStructElement ].m_eType ) );
if( m_aStructure[ m_nCurrentStructElement ].m_aAlias.getLength() )
{
aLine.append( " aliased as \"" );
aLine.append( m_aStructure[ m_nCurrentStructElement ].m_aAlias );
aLine.append( '\"' );
}
#endif
// "end" the structure element, the parent becomes current element
m_nCurrentStructElement = m_aStructure[ m_nCurrentStructElement ].m_nParentElement;
// check whether to emit structure henceforth
m_bEmitStructure = checkEmitStructure();
#if OSL_DEBUG_LEVEL > 1
if( m_bEmitStructure )
emitComment( aLine.getStr() );
#endif
}
//---> i94258
/*
* This function adds an internal structure list container to overcome the 8191 elements array limitation
* in kids element emission.
* Recursive function
*
*/
void PDFWriterImpl::addInternalStructureContainer( PDFStructureElement& rEle )
{
if( rEle.m_eType == PDFWriter::NonStructElement &&
rEle.m_nOwnElement != rEle.m_nParentElement )
return;
for( std::list< sal_Int32 >::const_iterator it = rEle.m_aChildren.begin(); it != rEle.m_aChildren.end(); ++it )
{
if( *it > 0 && *it < sal_Int32(m_aStructure.size()) )
{
PDFStructureElement& rChild = m_aStructure[ *it ];
if( rChild.m_eType != PDFWriter::NonStructElement )
{
//triggered when a child of the rEle element is found
if( rChild.m_nParentElement == rEle.m_nOwnElement )
addInternalStructureContainer( rChild );//examine the child
else
{
DBG_ERROR( "PDFWriterImpl::addInternalStructureContainer: invalid child structure element" );
#if OSL_DEBUG_LEVEL > 1
fprintf( stderr, "PDFWriterImpl::addInternalStructureContainer: invalid child structure elemnt with id %" SAL_PRIdINT32 "\n", *it );
#endif
}
}
}
else
{
DBG_ERROR( "PDFWriterImpl::emitStructure: invalid child structure id" );
#if OSL_DEBUG_LEVEL > 1
fprintf( stderr, "PDFWriterImpl::addInternalStructureContainer: invalid child structure id %" SAL_PRIdINT32 "\n", *it );
#endif
}
}
if( rEle.m_nOwnElement != rEle.m_nParentElement )
{
if( !rEle.m_aKids.empty() )
{
if( rEle.m_aKids.size() > ncMaxPDFArraySize ) {
//then we need to add the containers for the kids elements
// a list to be used for the new kid element
std::list< PDFStructureElementKid > aNewKids;
std::list< sal_Int32 > aNewChildren;
// add Div in RoleMap, in case no one else did (TODO: is it needed? Is it dangerous?)
OStringBuffer aNameBuf( "Div" );
OString aAliasName( aNameBuf.makeStringAndClear() );
m_aRoleMap[ aAliasName ] = getStructureTag( PDFWriter::Division );
while( rEle.m_aKids.size() > ncMaxPDFArraySize )
{
sal_Int32 nCurrentStructElement = rEle.m_nOwnElement;
sal_Int32 nNewId = sal_Int32(m_aStructure.size());
m_aStructure.push_back( PDFStructureElement() );
PDFStructureElement& rEleNew = m_aStructure.back();
rEleNew.m_aAlias = aAliasName;
rEleNew.m_eType = PDFWriter::Division; // a new Div type container
rEleNew.m_nOwnElement = nNewId;
rEleNew.m_nParentElement = nCurrentStructElement;
//inherit the same page as the first child to be reparented
rEleNew.m_nFirstPageObject = m_aStructure[ rEle.m_aChildren.front() ].m_nFirstPageObject;
rEleNew.m_nObject = createObject();//assign a PDF object number
//add the object to the kid list of the parent
aNewKids.push_back( PDFStructureElementKid( rEleNew.m_nObject ) );
aNewChildren.push_back( nNewId );
std::list< sal_Int32 >::iterator aChildEndIt( rEle.m_aChildren.begin() );
std::list< PDFStructureElementKid >::iterator aKidEndIt( rEle.m_aKids.begin() );
advance( aChildEndIt, ncMaxPDFArraySize );
advance( aKidEndIt, ncMaxPDFArraySize );
rEleNew.m_aKids.splice( rEleNew.m_aKids.begin(),
rEle.m_aKids,
rEle.m_aKids.begin(),
aKidEndIt );
rEleNew.m_aChildren.splice( rEleNew.m_aChildren.begin(),
rEle.m_aChildren,
rEle.m_aChildren.begin(),
aChildEndIt );
// set the kid's new parent
for( std::list< sal_Int32 >::const_iterator it = rEleNew.m_aChildren.begin();
it != rEleNew.m_aChildren.end(); ++it )
{
m_aStructure[ *it ].m_nParentElement = nNewId;
}
}
//finally add the new kids resulting from the container added
rEle.m_aKids.insert( rEle.m_aKids.begin(), aNewKids.begin(), aNewKids.end() );
rEle.m_aChildren.insert( rEle.m_aChildren.begin(), aNewChildren.begin(), aNewChildren.end() );
}
}
}
}
//<--- i94258
bool PDFWriterImpl::setCurrentStructureElement( sal_Int32 nEle )
{
bool bSuccess = false;
if( m_aContext.Tagged && nEle >= 0 && nEle < sal_Int32(m_aStructure.size()) )
{
// end eventual previous marked content sequence
endStructureElementMCSeq();
m_nCurrentStructElement = nEle;
m_bEmitStructure = checkEmitStructure();
#if OSL_DEBUG_LEVEL > 1
OStringBuffer aLine( "setCurrentStructureElement " );
aLine.append( m_nCurrentStructElement );
aLine.append( ": " );
aLine.append( getStructureTag( m_aStructure[ m_nCurrentStructElement ].m_eType ) );
if( m_aStructure[ m_nCurrentStructElement ].m_aAlias.getLength() )
{
aLine.append( " aliased as \"" );
aLine.append( m_aStructure[ m_nCurrentStructElement ].m_aAlias );
aLine.append( '\"' );
}
if( ! m_bEmitStructure )
aLine.append( " (inside NonStruct)" );
emitComment( aLine.getStr() );
#endif
bSuccess = true;
}
return bSuccess;
}
sal_Int32 PDFWriterImpl::getCurrentStructureElement()
{
return m_nCurrentStructElement;
}
bool PDFWriterImpl::setStructureAttribute( enum PDFWriter::StructAttribute eAttr, enum PDFWriter::StructAttributeValue eVal )
{
if( !m_aContext.Tagged )
return false;
bool bInsert = false;
if( m_nCurrentStructElement > 0 && m_bEmitStructure )
{
PDFWriter::StructElement eType = m_aStructure[ m_nCurrentStructElement ].m_eType;
switch( eAttr )
{
case PDFWriter::Placement:
if( eVal == PDFWriter::Block ||
eVal == PDFWriter::Inline ||
eVal == PDFWriter::Before ||
eVal == PDFWriter::Start ||
eVal == PDFWriter::End )
bInsert = true;
break;
case PDFWriter::WritingMode:
if( eVal == PDFWriter::LrTb ||
eVal == PDFWriter::RlTb ||
eVal == PDFWriter::TbRl )
{
bInsert = true;
}
break;
case PDFWriter::TextAlign:
if( eVal == PDFWriter::Start ||
eVal == PDFWriter::Center ||
eVal == PDFWriter::End ||
eVal == PDFWriter::Justify )
{
if( eType == PDFWriter::Paragraph ||
eType == PDFWriter::Heading ||
eType == PDFWriter::H1 ||
eType == PDFWriter::H2 ||
eType == PDFWriter::H3 ||
eType == PDFWriter::H4 ||
eType == PDFWriter::H5 ||
eType == PDFWriter::H6 ||
eType == PDFWriter::List ||
eType == PDFWriter::ListItem ||
eType == PDFWriter::LILabel ||
eType == PDFWriter::LIBody ||
eType == PDFWriter::Table ||
eType == PDFWriter::TableRow ||
eType == PDFWriter::TableHeader ||
eType == PDFWriter::TableData )
{
bInsert = true;
}
}
break;
case PDFWriter::Width:
case PDFWriter::Height:
if( eVal == PDFWriter::Auto )
{
if( eType == PDFWriter::Figure ||
eType == PDFWriter::Formula ||
eType == PDFWriter::Form ||
eType == PDFWriter::Table ||
eType == PDFWriter::TableHeader ||
eType == PDFWriter::TableData )
{
bInsert = true;
}
}
break;
case PDFWriter::BlockAlign:
if( eVal == PDFWriter::Before ||
eVal == PDFWriter::Middle ||
eVal == PDFWriter::After ||
eVal == PDFWriter::Justify )
{
if( eType == PDFWriter::TableHeader ||
eType == PDFWriter::TableData )
{
bInsert = true;
}
}
break;
case PDFWriter::InlineAlign:
if( eVal == PDFWriter::Start ||
eVal == PDFWriter::Center ||
eVal == PDFWriter::End )
{
if( eType == PDFWriter::TableHeader ||
eType == PDFWriter::TableData )
{
bInsert = true;
}
}
break;
case PDFWriter::LineHeight:
if( eVal == PDFWriter::Normal ||
eVal == PDFWriter::Auto )
{
// only for ILSE and BLSE
if( eType == PDFWriter::Paragraph ||
eType == PDFWriter::Heading ||
eType == PDFWriter::H1 ||
eType == PDFWriter::H2 ||
eType == PDFWriter::H3 ||
eType == PDFWriter::H4 ||
eType == PDFWriter::H5 ||
eType == PDFWriter::H6 ||
eType == PDFWriter::List ||
eType == PDFWriter::ListItem ||
eType == PDFWriter::LILabel ||
eType == PDFWriter::LIBody ||
eType == PDFWriter::Table ||
eType == PDFWriter::TableRow ||
eType == PDFWriter::TableHeader ||
eType == PDFWriter::TableData ||
eType == PDFWriter::Span ||
eType == PDFWriter::Quote ||
eType == PDFWriter::Note ||
eType == PDFWriter::Reference ||
eType == PDFWriter::BibEntry ||
eType == PDFWriter::Code ||
eType == PDFWriter::Link )
{
bInsert = true;
}
}
break;
case PDFWriter::TextDecorationType:
if( eVal == PDFWriter::NONE ||
eVal == PDFWriter::Underline ||
eVal == PDFWriter::Overline ||
eVal == PDFWriter::LineThrough )
{
// only for ILSE and BLSE
if( eType == PDFWriter::Paragraph ||
eType == PDFWriter::Heading ||
eType == PDFWriter::H1 ||
eType == PDFWriter::H2 ||
eType == PDFWriter::H3 ||
eType == PDFWriter::H4 ||
eType == PDFWriter::H5 ||
eType == PDFWriter::H6 ||
eType == PDFWriter::List ||
eType == PDFWriter::ListItem ||
eType == PDFWriter::LILabel ||
eType == PDFWriter::LIBody ||
eType == PDFWriter::Table ||
eType == PDFWriter::TableRow ||
eType == PDFWriter::TableHeader ||
eType == PDFWriter::TableData ||
eType == PDFWriter::Span ||
eType == PDFWriter::Quote ||
eType == PDFWriter::Note ||
eType == PDFWriter::Reference ||
eType == PDFWriter::BibEntry ||
eType == PDFWriter::Code ||
eType == PDFWriter::Link )
{
bInsert = true;
}
}
break;
case PDFWriter::ListNumbering:
if( eVal == PDFWriter::NONE ||
eVal == PDFWriter::Disc ||
eVal == PDFWriter::Circle ||
eVal == PDFWriter::Square ||
eVal == PDFWriter::Decimal ||
eVal == PDFWriter::UpperRoman ||
eVal == PDFWriter::LowerRoman ||
eVal == PDFWriter::UpperAlpha ||
eVal == PDFWriter::LowerAlpha )
{
if( eType == PDFWriter::List )
bInsert = true;
}
break;
default: break;
}
}
if( bInsert )
m_aStructure[ m_nCurrentStructElement ].m_aAttributes[ eAttr ] = PDFStructureAttribute( eVal );
#if OSL_DEBUG_LEVEL > 1
else if( m_nCurrentStructElement > 0 && m_bEmitStructure )
fprintf( stderr, "rejecting setStructureAttribute( %s, %s ) on %s (%s) element\n",
getAttributeTag( eAttr ),
getAttributeValueTag( eVal ),
getStructureTag( m_aStructure[ m_nCurrentStructElement ].m_eType ),
m_aStructure[ m_nCurrentStructElement ].m_aAlias.getStr()
);
#endif
return bInsert;
}
bool PDFWriterImpl::setStructureAttributeNumerical( enum PDFWriter::StructAttribute eAttr, sal_Int32 nValue )
{
if( ! m_aContext.Tagged )
return false;
bool bInsert = false;
if( m_nCurrentStructElement > 0 && m_bEmitStructure )
{
if( eAttr == PDFWriter::Language )
{
m_aStructure[ m_nCurrentStructElement ].m_aLocale = MsLangId::convertLanguageToLocale( (LanguageType)nValue );
return true;
}
PDFWriter::StructElement eType = m_aStructure[ m_nCurrentStructElement ].m_eType;
switch( eAttr )
{
case PDFWriter::SpaceBefore:
case PDFWriter::SpaceAfter:
case PDFWriter::StartIndent:
case PDFWriter::EndIndent:
// just for BLSE
if( eType == PDFWriter::Paragraph ||
eType == PDFWriter::Heading ||
eType == PDFWriter::H1 ||
eType == PDFWriter::H2 ||
eType == PDFWriter::H3 ||
eType == PDFWriter::H4 ||
eType == PDFWriter::H5 ||
eType == PDFWriter::H6 ||
eType == PDFWriter::List ||
eType == PDFWriter::ListItem ||
eType == PDFWriter::LILabel ||
eType == PDFWriter::LIBody ||
eType == PDFWriter::Table ||
eType == PDFWriter::TableRow ||
eType == PDFWriter::TableHeader ||
eType == PDFWriter::TableData )
{
bInsert = true;
}
break;
case PDFWriter::TextIndent:
// paragraph like BLSE and additional elements
if( eType == PDFWriter::Paragraph ||
eType == PDFWriter::Heading ||
eType == PDFWriter::H1 ||
eType == PDFWriter::H2 ||
eType == PDFWriter::H3 ||
eType == PDFWriter::H4 ||
eType == PDFWriter::H5 ||
eType == PDFWriter::H6 ||
eType == PDFWriter::LILabel ||
eType == PDFWriter::LIBody ||
eType == PDFWriter::TableHeader ||
eType == PDFWriter::TableData )
{
bInsert = true;
}
break;
case PDFWriter::Width:
case PDFWriter::Height:
if( eType == PDFWriter::Figure ||
eType == PDFWriter::Formula ||
eType == PDFWriter::Form ||
eType == PDFWriter::Table ||
eType == PDFWriter::TableHeader ||
eType == PDFWriter::TableData )
{
bInsert = true;
}
break;
case PDFWriter::LineHeight:
case PDFWriter::BaselineShift:
// only for ILSE and BLSE
if( eType == PDFWriter::Paragraph ||
eType == PDFWriter::Heading ||
eType == PDFWriter::H1 ||
eType == PDFWriter::H2 ||
eType == PDFWriter::H3 ||
eType == PDFWriter::H4 ||
eType == PDFWriter::H5 ||
eType == PDFWriter::H6 ||
eType == PDFWriter::List ||
eType == PDFWriter::ListItem ||
eType == PDFWriter::LILabel ||
eType == PDFWriter::LIBody ||
eType == PDFWriter::Table ||
eType == PDFWriter::TableRow ||
eType == PDFWriter::TableHeader ||
eType == PDFWriter::TableData ||
eType == PDFWriter::Span ||
eType == PDFWriter::Quote ||
eType == PDFWriter::Note ||
eType == PDFWriter::Reference ||
eType == PDFWriter::BibEntry ||
eType == PDFWriter::Code ||
eType == PDFWriter::Link )
{
bInsert = true;
}
break;
case PDFWriter::RowSpan:
case PDFWriter::ColSpan:
// only for table cells
if( eType == PDFWriter::TableHeader ||
eType == PDFWriter::TableData )
{
bInsert = true;
}
break;
case PDFWriter::LinkAnnotation:
if( eType == PDFWriter::Link )
bInsert = true;
break;
default: break;
}
}
if( bInsert )
m_aStructure[ m_nCurrentStructElement ].m_aAttributes[ eAttr ] = PDFStructureAttribute( nValue );
#if OSL_DEBUG_LEVEL > 1
else if( m_nCurrentStructElement > 0 && m_bEmitStructure )
fprintf( stderr, "rejecting setStructureAttributeNumerical( %s, %d ) on %s (%s) element\n",
getAttributeTag( eAttr ),
(int)nValue,
getStructureTag( m_aStructure[ m_nCurrentStructElement ].m_eType ),
m_aStructure[ m_nCurrentStructElement ].m_aAlias.getStr() );
#endif
return bInsert;
}
void PDFWriterImpl::setStructureBoundingBox( const Rectangle& rRect )
{
sal_Int32 nPageNr = m_nCurrentPage;
if( nPageNr < 0 || nPageNr >= (sal_Int32)m_aPages.size() || !m_aContext.Tagged )
return;
if( m_nCurrentStructElement > 0 && m_bEmitStructure )
{
PDFWriter::StructElement eType = m_aStructure[ m_nCurrentStructElement ].m_eType;
if( eType == PDFWriter::Figure ||
eType == PDFWriter::Formula ||
eType == PDFWriter::Form ||
eType == PDFWriter::Table )
{
m_aStructure[ m_nCurrentStructElement ].m_aBBox = rRect;
// convert to default user space now, since the mapmode may change
m_aPages[nPageNr].convertRect( m_aStructure[ m_nCurrentStructElement ].m_aBBox );
}
}
}
void PDFWriterImpl::setActualText( const String& rText )
{
if( m_aContext.Tagged && m_nCurrentStructElement > 0 && m_bEmitStructure )
{
m_aStructure[ m_nCurrentStructElement ].m_aActualText = rText;
}
}
void PDFWriterImpl::setAlternateText( const String& rText )
{
if( m_aContext.Tagged && m_nCurrentStructElement > 0 && m_bEmitStructure )
{
m_aStructure[ m_nCurrentStructElement ].m_aAltText = rText;
}
}
void PDFWriterImpl::setAutoAdvanceTime( sal_uInt32 nSeconds, sal_Int32 nPageNr )
{
if( nPageNr < 0 )
nPageNr = m_nCurrentPage;
if( nPageNr < 0 || nPageNr >= (sal_Int32)m_aPages.size() )
return;
m_aPages[ nPageNr ].m_nDuration = nSeconds;
}
void PDFWriterImpl::setPageTransition( PDFWriter::PageTransition eType, sal_uInt32 nMilliSec, sal_Int32 nPageNr )
{
if( nPageNr < 0 )
nPageNr = m_nCurrentPage;
if( nPageNr < 0 || nPageNr >= (sal_Int32)m_aPages.size() )
return;
m_aPages[ nPageNr ].m_eTransition = eType;
m_aPages[ nPageNr ].m_nTransTime = nMilliSec;
}
void PDFWriterImpl::ensureUniqueRadioOnValues()
{
// loop over radio groups
for( std::map<sal_Int32,sal_Int32>::const_iterator group = m_aRadioGroupWidgets.begin();
group != m_aRadioGroupWidgets.end(); ++group )
{
PDFWidget& rGroupWidget = m_aWidgets[ group->second ];
// check whether all kids have a unique OnValue
std::hash_map< OUString, sal_Int32, OUStringHash > aOnValues;
int nChildren = rGroupWidget.m_aKidsIndex.size();
bool bIsUnique = true;
for( int nKid = 0; nKid < nChildren && bIsUnique; nKid++ )
{
int nKidIndex = rGroupWidget.m_aKidsIndex[nKid];
const OUString& rVal = m_aWidgets[nKidIndex].m_aOnValue;
#if OSL_DEBUG_LEVEL > 1
fprintf( stderr, "OnValue: %s\n", OUStringToOString( rVal, RTL_TEXTENCODING_UTF8 ).getStr() );
#endif
if( aOnValues.find( rVal ) == aOnValues.end() )
{
aOnValues[ rVal ] = 1;
}
else
{
bIsUnique = false;
}
}
if( ! bIsUnique )
{
#if OSL_DEBUG_LEVEL > 1
fprintf( stderr, "enforcing unique OnValues\n" );
#endif
// make unique by using ascending OnValues
for( int nKid = 0; nKid < nChildren; nKid++ )
{
int nKidIndex = rGroupWidget.m_aKidsIndex[nKid];
PDFWidget& rKid = m_aWidgets[nKidIndex];
rKid.m_aOnValue = OUString::valueOf( sal_Int32(nKid+1) );
if( ! rKid.m_aValue.equalsAscii( "Off" ) )
rKid.m_aValue = rKid.m_aOnValue;
}
}
// finally move the "Yes" appearance to the OnValue appearance
for( int nKid = 0; nKid < nChildren; nKid++ )
{
int nKidIndex = rGroupWidget.m_aKidsIndex[nKid];
PDFWidget& rKid = m_aWidgets[nKidIndex];
PDFAppearanceMap::iterator app_it = rKid.m_aAppearances.find( "N" );
if( app_it != rKid.m_aAppearances.end() )
{
PDFAppearanceStreams::iterator stream_it = app_it->second.find( "Yes" );
if( stream_it != app_it->second.end() )
{
SvMemoryStream* pStream = stream_it->second;
app_it->second.erase( stream_it );
OStringBuffer aBuf( rKid.m_aOnValue.getLength()*2 );
appendName( rKid.m_aOnValue, aBuf );
(app_it->second)[ aBuf.makeStringAndClear() ] = pStream;
}
#if OSL_DEBUG_LEVEL > 1
else
fprintf( stderr, "error: RadioButton without \"Yes\" stream\n" );
#endif
}
// update selected radio button
if( ! rKid.m_aValue.equalsAscii( "Off" ) )
{
rGroupWidget.m_aValue = rKid.m_aValue;
}
}
}
}
sal_Int32 PDFWriterImpl::findRadioGroupWidget( const PDFWriter::RadioButtonWidget& rBtn )
{
sal_Int32 nRadioGroupWidget = -1;
std::map< sal_Int32, sal_Int32 >::const_iterator it = m_aRadioGroupWidgets.find( rBtn.RadioGroup );
if( it == m_aRadioGroupWidgets.end() )
{
m_aRadioGroupWidgets[ rBtn.RadioGroup ] = nRadioGroupWidget =
sal_Int32(m_aWidgets.size());
// new group, insert the radiobutton
m_aWidgets.push_back( PDFWidget() );
m_aWidgets.back().m_nObject = createObject();
m_aWidgets.back().m_nPage = m_nCurrentPage;
m_aWidgets.back().m_eType = PDFWriter::RadioButton;
m_aWidgets.back().m_nRadioGroup = rBtn.RadioGroup;
m_aWidgets.back().m_nFlags |= 0x00008000;
createWidgetFieldName( sal_Int32(m_aWidgets.size()-1), rBtn );
}
else
nRadioGroupWidget = it->second;
return nRadioGroupWidget;
}
sal_Int32 PDFWriterImpl::createControl( const PDFWriter::AnyWidget& rControl, sal_Int32 nPageNr )
{
if( nPageNr < 0 )
nPageNr = m_nCurrentPage;
if( nPageNr < 0 || nPageNr >= (sal_Int32)m_aPages.size() )
return -1;
sal_Int32 nNewWidget = m_aWidgets.size();
m_aWidgets.push_back( PDFWidget() );
m_aWidgets.back().m_nObject = createObject();
m_aWidgets.back().m_aRect = rControl.Location;
m_aWidgets.back().m_nPage = nPageNr;
m_aWidgets.back().m_eType = rControl.getType();
sal_Int32 nRadioGroupWidget = -1;
// for unknown reasons the radio buttons of a radio group must not have a
// field name, else the buttons are in fact check boxes -
// that is multiple buttons of the radio group can be selected
if( rControl.getType() == PDFWriter::RadioButton )
nRadioGroupWidget = findRadioGroupWidget( static_cast<const PDFWriter::RadioButtonWidget&>(rControl) );
else
{
createWidgetFieldName( nNewWidget, rControl );
}
// caution: m_aWidgets must not be changed after here or rNewWidget may be invalid
PDFWidget& rNewWidget = m_aWidgets[nNewWidget];
rNewWidget.m_aDescription = rControl.Description;
rNewWidget.m_aText = rControl.Text;
rNewWidget.m_nTextStyle = rControl.TextStyle &
( TEXT_DRAW_LEFT | TEXT_DRAW_CENTER | TEXT_DRAW_RIGHT | TEXT_DRAW_TOP |
TEXT_DRAW_VCENTER | TEXT_DRAW_BOTTOM |
TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK );
rNewWidget.m_nTabOrder = rControl.TabOrder;
// various properties are set via the flags (/Ff) property of the field dict
if( rControl.ReadOnly )
rNewWidget.m_nFlags |= 1;
if( rControl.getType() == PDFWriter::PushButton )
{
const PDFWriter::PushButtonWidget& rBtn = static_cast<const PDFWriter::PushButtonWidget&>(rControl);
if( rNewWidget.m_nTextStyle == 0 )
rNewWidget.m_nTextStyle =
TEXT_DRAW_CENTER | TEXT_DRAW_VCENTER |
TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK;
rNewWidget.m_nFlags |= 0x00010000;
if( rBtn.URL.getLength() )
rNewWidget.m_aListEntries.push_back( rBtn.URL );
rNewWidget.m_bSubmit = rBtn.Submit;
rNewWidget.m_bSubmitGet = rBtn.SubmitGet;
rNewWidget.m_nDest = rBtn.Dest;
createDefaultPushButtonAppearance( rNewWidget, rBtn );
}
else if( rControl.getType() == PDFWriter::RadioButton )
{
const PDFWriter::RadioButtonWidget& rBtn = static_cast<const PDFWriter::RadioButtonWidget&>(rControl);
if( rNewWidget.m_nTextStyle == 0 )
rNewWidget.m_nTextStyle =
TEXT_DRAW_VCENTER | TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK;
/* PDF sees a RadioButton group as one radio button with
* children which are in turn check boxes
*
* so we need to create a radio button on demand for a new group
* and insert a checkbox for each RadioButtonWidget as its child
*/
rNewWidget.m_eType = PDFWriter::CheckBox;
rNewWidget.m_nRadioGroup = rBtn.RadioGroup;
DBG_ASSERT( nRadioGroupWidget >= 0 && nRadioGroupWidget < (sal_Int32)m_aWidgets.size(), "no radio group parent" );
PDFWidget& rRadioButton = m_aWidgets[nRadioGroupWidget];
rRadioButton.m_aKids.push_back( rNewWidget.m_nObject );
rRadioButton.m_aKidsIndex.push_back( nNewWidget );
rNewWidget.m_nParent = rRadioButton.m_nObject;
rNewWidget.m_aValue = OUString( RTL_CONSTASCII_USTRINGPARAM( "Off" ) );
rNewWidget.m_aOnValue = rBtn.OnValue;
if( ! rRadioButton.m_aValue.getLength() && rBtn.Selected )
{
rNewWidget.m_aValue = rNewWidget.m_aOnValue;
rRadioButton.m_aValue = rNewWidget.m_aOnValue;
}
createDefaultRadioButtonAppearance( rNewWidget, rBtn );
// union rect of radio group
Rectangle aRect = rNewWidget.m_aRect;
m_aPages[ nPageNr ].convertRect( aRect );
rRadioButton.m_aRect.Union( aRect );
}
else if( rControl.getType() == PDFWriter::CheckBox )
{
const PDFWriter::CheckBoxWidget& rBox = static_cast<const PDFWriter::CheckBoxWidget&>(rControl);
if( rNewWidget.m_nTextStyle == 0 )
rNewWidget.m_nTextStyle =
TEXT_DRAW_VCENTER | TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK;
rNewWidget.m_aValue = OUString::createFromAscii( rBox.Checked ? "Yes" : "Off" );
// create default appearance before m_aRect gets transformed
createDefaultCheckBoxAppearance( rNewWidget, rBox );
}
else if( rControl.getType() == PDFWriter::ListBox )
{
if( rNewWidget.m_nTextStyle == 0 )
rNewWidget.m_nTextStyle = TEXT_DRAW_VCENTER;
const PDFWriter::ListBoxWidget& rLstBox = static_cast<const PDFWriter::ListBoxWidget&>(rControl);
rNewWidget.m_aListEntries = rLstBox.Entries;
rNewWidget.m_aSelectedEntries = rLstBox.SelectedEntries;
rNewWidget.m_aValue = rLstBox.Text;
if( rLstBox.DropDown )
rNewWidget.m_nFlags |= 0x00020000;
if( rLstBox.Sort )
rNewWidget.m_nFlags |= 0x00080000;
if( rLstBox.MultiSelect && !rLstBox.DropDown && (int)m_aContext.Version > (int)PDFWriter::PDF_1_3 )
rNewWidget.m_nFlags |= 0x00200000;
createDefaultListBoxAppearance( rNewWidget, rLstBox );
}
else if( rControl.getType() == PDFWriter::ComboBox )
{
if( rNewWidget.m_nTextStyle == 0 )
rNewWidget.m_nTextStyle = TEXT_DRAW_VCENTER;
const PDFWriter::ComboBoxWidget& rBox = static_cast<const PDFWriter::ComboBoxWidget&>(rControl);
rNewWidget.m_aValue = rBox.Text;
rNewWidget.m_aListEntries = rBox.Entries;
rNewWidget.m_nFlags |= 0x00060000; // combo and edit flag
if( rBox.Sort )
rNewWidget.m_nFlags |= 0x00080000;
PDFWriter::ListBoxWidget aLBox;
aLBox.Name = rBox.Name;
aLBox.Description = rBox.Description;
aLBox.Text = rBox.Text;
aLBox.TextStyle = rBox.TextStyle;
aLBox.ReadOnly = rBox.ReadOnly;
aLBox.Border = rBox.Border;
aLBox.BorderColor = rBox.BorderColor;
aLBox.Background = rBox.Background;
aLBox.BackgroundColor = rBox.BackgroundColor;
aLBox.TextFont = rBox.TextFont;
aLBox.TextColor = rBox.TextColor;
aLBox.DropDown = true;
aLBox.Sort = rBox.Sort;
aLBox.MultiSelect = false;
aLBox.Entries = rBox.Entries;
createDefaultListBoxAppearance( rNewWidget, aLBox );
}
else if( rControl.getType() == PDFWriter::Edit )
{
if( rNewWidget.m_nTextStyle == 0 )
rNewWidget.m_nTextStyle = TEXT_DRAW_LEFT | TEXT_DRAW_VCENTER;
const PDFWriter::EditWidget& rEdit = static_cast<const PDFWriter::EditWidget&>(rControl);
if( rEdit.MultiLine )
{
rNewWidget.m_nFlags |= 0x00001000;
rNewWidget.m_nTextStyle |= TEXT_DRAW_MULTILINE | TEXT_DRAW_WORDBREAK;
}
if( rEdit.Password )
rNewWidget.m_nFlags |= 0x00002000;
if( rEdit.FileSelect && m_aContext.Version > PDFWriter::PDF_1_3 )
rNewWidget.m_nFlags |= 0x00100000;
rNewWidget.m_nMaxLen = rEdit.MaxLen;
rNewWidget.m_aValue = rEdit.Text;
createDefaultEditAppearance( rNewWidget, rEdit );
}
// convert to default user space now, since the mapmode may change
// note: create default appearances before m_aRect gets transformed
m_aPages[ nPageNr ].convertRect( rNewWidget.m_aRect );
// insert widget to page's annotation list
m_aPages[ nPageNr ].m_aAnnotations.push_back( rNewWidget.m_nObject );
// mark page as having widgets
m_aPages[ nPageNr ].m_bHasWidgets = true;
return nNewWidget;
}
void PDFWriterImpl::beginControlAppearance( sal_Int32 nControl )
{
if( nControl < 0 || nControl >= (sal_Int32)m_aWidgets.size() )
return;
PDFWidget& rWidget = m_aWidgets[ nControl ];
m_nCurrentControl = nControl;
SvMemoryStream* pControlStream = new SvMemoryStream( 1024, 1024 );
// back conversion of control rect to current MapMode; necessary because
// MapMode between createControl and beginControlAppearance
// could have changed; therefore the widget rectangle is
// already converted
Rectangle aBack( Point( rWidget.m_aRect.Left(), pointToPixel(m_aPages[m_nCurrentPage].getHeight()) - rWidget.m_aRect.Top() - rWidget.m_aRect.GetHeight() ),
rWidget.m_aRect.GetSize() );
aBack = lcl_convert( m_aMapMode,
m_aGraphicsStack.front().m_aMapMode,
getReferenceDevice(),
aBack );
beginRedirect( pControlStream, aBack );
writeBuffer( "/Tx BMC\n", 8 );
}
bool PDFWriterImpl::endControlAppearance( PDFWriter::WidgetState eState )
{
bool bRet = false;
if( ! m_aOutputStreams.empty() )
writeBuffer( "\nEMC\n", 5 );
SvMemoryStream* pAppearance = static_cast<SvMemoryStream*>(endRedirect());
if( pAppearance && m_nCurrentControl >= 0 && m_nCurrentControl < (sal_Int32)m_aWidgets.size() )
{
PDFWidget& rWidget = m_aWidgets[ m_nCurrentControl ];
OString aState, aStyle;
switch( rWidget.m_eType )
{
case PDFWriter::PushButton:
if( eState == PDFWriter::Up || eState == PDFWriter::Down )
{
aState = (eState == PDFWriter::Up) ? "N" : "D";
aStyle = "Standard";
}
break;
case PDFWriter::CheckBox:
if( eState == PDFWriter::Up || eState == PDFWriter::Down )
{
aState = "N";
aStyle = (eState == PDFWriter::Up) ? "Off" : "Yes";
/* cf PDFReference 3rd ed. V1.4 p539:
recommended name for on state is "Yes",
recommended name for off state is "Off"
*/
}
break;
case PDFWriter::RadioButton:
if( eState == PDFWriter::Up || eState == PDFWriter::Down )
{
aState = "N";
if( eState == PDFWriter::Up )
aStyle = "Off";
else
{
OStringBuffer aBuf( rWidget.m_aOnValue.getLength()*2 );
appendName( rWidget.m_aOnValue, aBuf );
aStyle = aBuf.makeStringAndClear();
}
}
break;
case PDFWriter::Edit:
aState = "N";
aStyle = "Standard";
break;
case PDFWriter::ListBox:
case PDFWriter::ComboBox:
case PDFWriter::Hierarchy:
break;
}
if( aState.getLength() && aStyle.getLength() )
{
// delete eventual existing stream
PDFAppearanceStreams::iterator it =
rWidget.m_aAppearances[ aState ].find( aStyle );
if( it != rWidget.m_aAppearances[ aState ].end() )
delete it->second;
rWidget.m_aAppearances[ aState ][ aStyle ] = pAppearance;
bRet = true;
}
}
if( ! bRet )
delete pAppearance;
m_nCurrentControl = -1;
return bRet;
}
void PDFWriterImpl::addStream( const String& rMimeType, PDFOutputStream* pStream, bool bCompress )
{
if( pStream )
{
m_aAdditionalStreams.push_back( PDFAddStream() );
PDFAddStream& rStream = m_aAdditionalStreams.back();
rStream.m_aMimeType = rMimeType.Len()
? OUString( rMimeType )
: OUString( RTL_CONSTASCII_USTRINGPARAM( "application/octet-stream" ) );
rStream.m_pStream = pStream;
rStream.m_bCompress = bCompress;
}
}
/*************************************************************
begin i12626 methods
Implements Algorithm 3.2, step 1 only
*/
void PDFWriterImpl::padPassword( rtl::OUString aPassword, sal_uInt8 *paPasswordTarget )
{
// get ansi-1252 version of the password string CHECKIT ! i12626
rtl::OString aString = rtl::OUStringToOString( aPassword, RTL_TEXTENCODING_MS_1252 );
//copy the string to the target
sal_Int32 nToCopy = ( aString.getLength() < 32 ) ? aString.getLength() : 32;
sal_Int32 nCurrentChar;
for( nCurrentChar = 0; nCurrentChar < nToCopy; nCurrentChar++ )
paPasswordTarget[nCurrentChar] = (sal_uInt8)( aString.getStr()[nCurrentChar] );
//pad it
if( nCurrentChar < 32 )
{//fill with standard byte string
sal_Int32 i,y;
for( i = nCurrentChar, y = 0 ; i < 32; i++, y++ )
paPasswordTarget[i] = m_nPadString[y];
}
}
/**********************************
Algorithm 3.2 Compute the encryption key used
step 1 should already be done before calling, the paThePaddedPassword parameter should contain
the padded password and must be 32 byte long, the encryption key is returned into the paEncryptionKey parameter,
it will be 16 byte long for 128 bit security; for 40 bit security only the first 5 bytes are used
TODO: in pdf ver 1.5 and 1.6 the step 6 is different, should be implemented. See spec.
*/
void PDFWriterImpl::computeEncryptionKey(sal_uInt8 *paThePaddedPassword, sal_uInt8 *paEncryptionKey )
{
//step 2
if( m_aDigest )
{
rtlDigestError nError = rtl_digest_updateMD5( m_aDigest, paThePaddedPassword, ENCRYPTED_PWD_SIZE );
//step 3
if( nError == rtl_Digest_E_None )
nError = rtl_digest_updateMD5( m_aDigest, m_nEncryptedOwnerPassword , sizeof( m_nEncryptedOwnerPassword ) );
//Step 4
sal_uInt8 nPerm[4];
nPerm[0] = (sal_uInt8)m_nAccessPermissions;
nPerm[1] = (sal_uInt8)( m_nAccessPermissions >> 8 );
nPerm[2] = (sal_uInt8)( m_nAccessPermissions >> 16 );
nPerm[3] = (sal_uInt8)( m_nAccessPermissions >> 24 );
if( nError == rtl_Digest_E_None )
nError = rtl_digest_updateMD5( m_aDigest, nPerm , sizeof( nPerm ) );
//step 5, get the document ID, binary form
if( nError == rtl_Digest_E_None )
nError = rtl_digest_updateMD5( m_aDigest, m_nDocID , sizeof( m_nDocID ) );
//get the digest
sal_uInt8 nMD5Sum[ RTL_DIGEST_LENGTH_MD5 ];
if( nError == rtl_Digest_E_None )
{
rtl_digest_getMD5( m_aDigest, nMD5Sum, sizeof( nMD5Sum ) );
//step 6, only if 128 bit
if( m_aContext.Security128bit )
{
for( sal_Int32 i = 0; i < 50; i++ )
{
nError = rtl_digest_updateMD5( m_aDigest, &nMD5Sum, sizeof( nMD5Sum ) );
if( nError != rtl_Digest_E_None )
break;
rtl_digest_getMD5( m_aDigest, nMD5Sum, sizeof( nMD5Sum ) );
}
}
}
//Step 7
for( sal_Int32 i = 0; i < MD5_DIGEST_SIZE; i++ )
paEncryptionKey[i] = nMD5Sum[i];
}
}
/**********************************
Algorithm 3.3 Compute the encryption dictionary /O value, save into the class data member
the step numbers down here correspond to the ones in PDF v.1.4 specfication
*/
void PDFWriterImpl::computeODictionaryValue()
{
//step 1 already done, data is in m_nPaddedOwnerPassword
//step 2
if( m_aDigest )
{
rtlDigestError nError = rtl_digest_updateMD5( m_aDigest, &m_nPaddedOwnerPassword, sizeof( m_nPaddedOwnerPassword ) );
if( nError == rtl_Digest_E_None )
{
sal_uInt8 nMD5Sum[ RTL_DIGEST_LENGTH_MD5 ];
rtl_digest_getMD5( m_aDigest, nMD5Sum, sizeof(nMD5Sum) );
//step 3, only if 128 bit
if( m_aContext.Security128bit )
{
sal_Int32 i;
for( i = 0; i < 50; i++ )
{
nError = rtl_digest_updateMD5( m_aDigest, nMD5Sum, sizeof( nMD5Sum ) );
if( nError != rtl_Digest_E_None )
break;
rtl_digest_getMD5( m_aDigest, nMD5Sum, sizeof( nMD5Sum ) );
}
}
//Step 4, the key is in nMD5Sum
//step 5 already done, data is in m_nPaddedUserPassword
//step 6
rtl_cipher_initARCFOUR( m_aCipher, rtl_Cipher_DirectionEncode,
nMD5Sum, m_nKeyLength , NULL, 0 );
// encrypt the user password using the key set above
rtl_cipher_encodeARCFOUR( m_aCipher, m_nPaddedUserPassword, sizeof( m_nPaddedUserPassword ), // the data to be encrypted
m_nEncryptedOwnerPassword, sizeof( m_nEncryptedOwnerPassword ) ); //encrypted data, stored in class data member
//Step 7, only if 128 bit
if( m_aContext.Security128bit )
{
sal_uInt32 i, y;
sal_uInt8 nLocalKey[ SECUR_128BIT_KEY ]; // 16 = 128 bit key
for( i = 1; i <= 19; i++ ) // do it 19 times, start with 1
{
for( y = 0; y < sizeof( nLocalKey ); y++ )
nLocalKey[y] = (sal_uInt8)( nMD5Sum[y] ^ i );
rtl_cipher_initARCFOUR( m_aCipher, rtl_Cipher_DirectionEncode,
nLocalKey, SECUR_128BIT_KEY, NULL, 0 ); //destination data area, on init can be NULL
rtl_cipher_encodeARCFOUR( m_aCipher, m_nEncryptedOwnerPassword, sizeof( m_nEncryptedOwnerPassword ), // the data to be encrypted
m_nEncryptedOwnerPassword, sizeof( m_nEncryptedOwnerPassword ) ); // encrypted data, can be the same as the input, encrypt "in place"
//step 8, store in class data member
}
}
}
}
}
/**********************************
Algorithms 3.4 and 3.5 Compute the encryption dictionary /U value, save into the class data member, revision 2 (40 bit) or 3 (128 bit)
*/
void PDFWriterImpl::computeUDictionaryValue()
{
//step 1, common to both 3.4 and 3.5
computeEncryptionKey( m_nPaddedUserPassword , m_nEncryptionKey );
if( m_aContext.Security128bit == false )
{
//3.4
//step 2 and 3
rtl_cipher_initARCFOUR( m_aCipher, rtl_Cipher_DirectionEncode,
m_nEncryptionKey, 5 , // key and key length
NULL, 0 ); //destination data area
// encrypt the user password using the key set above, save for later use
rtl_cipher_encodeARCFOUR( m_aCipher, m_nPadString, sizeof( m_nPadString ), // the data to be encrypted
m_nEncryptedUserPassword, sizeof( m_nEncryptedUserPassword ) ); //encrypted data, stored in class data member
}
else
{
//or 3.5, for 128 bit security
//step6, initilize the last 16 bytes of the encrypted user password to 0
for(sal_uInt32 i = MD5_DIGEST_SIZE; i < sizeof( m_nEncryptedUserPassword ); i++)
m_nEncryptedUserPassword[i] = 0;
//step 2
if( m_aDigest )
{
rtlDigestError nError = rtl_digest_updateMD5( m_aDigest, m_nPadString, sizeof( m_nPadString ) );
//step 3
if( nError == rtl_Digest_E_None )
nError = rtl_digest_updateMD5( m_aDigest, m_nDocID , sizeof(m_nDocID) );
sal_uInt8 nMD5Sum[ RTL_DIGEST_LENGTH_MD5 ];
rtl_digest_getMD5( m_aDigest, nMD5Sum, sizeof(nMD5Sum) );
//Step 4
rtl_cipher_initARCFOUR( m_aCipher, rtl_Cipher_DirectionEncode,
m_nEncryptionKey, SECUR_128BIT_KEY, NULL, 0 ); //destination data area
rtl_cipher_encodeARCFOUR( m_aCipher, nMD5Sum, sizeof( nMD5Sum ), // the data to be encrypted
m_nEncryptedUserPassword, sizeof( nMD5Sum ) ); //encrypted data, stored in class data member
//step 5
sal_uInt32 i, y;
sal_uInt8 nLocalKey[SECUR_128BIT_KEY];
for( i = 1; i <= 19; i++ ) // do it 19 times, start with 1
{
for( y = 0; y < sizeof( nLocalKey ) ; y++ )
nLocalKey[y] = (sal_uInt8)( m_nEncryptionKey[y] ^ i );
rtl_cipher_initARCFOUR( m_aCipher, rtl_Cipher_DirectionEncode,
nLocalKey, SECUR_128BIT_KEY, // key and key length
NULL, 0 ); //destination data area, on init can be NULL
rtl_cipher_encodeARCFOUR( m_aCipher, m_nEncryptedUserPassword, SECUR_128BIT_KEY, // the data to be encrypted
m_nEncryptedUserPassword, SECUR_128BIT_KEY ); // encrypted data, can be the same as the input, encrypt "in place"
}
}
}
}
/* init the encryption engine
1. init the document id, used both for building the document id and for building the encryption key(s)
2. build the encryption key following algorithms described in the PDF specification
*/
void PDFWriterImpl::initEncryption()
{
m_aOwnerPassword = m_aContext.OwnerPassword;
m_aUserPassword = m_aContext.UserPassword;
/* password stuff computing, before sending out anything */
DBG_ASSERT( m_aCipher != NULL, "PDFWriterImpl::initEncryption: a cipher (ARCFOUR) object is not available !" );
DBG_ASSERT( m_aDigest != NULL, "PDFWriterImpl::initEncryption: a digest (MD5) object is not available !" );
if( m_aCipher && m_aDigest )
{
//if there is no owner password, force it to the user password
if( m_aOwnerPassword.getLength() == 0 )
m_aOwnerPassword = m_aUserPassword;
initPadString();
/*
1) pad passwords
*/
padPassword( m_aOwnerPassword, m_nPaddedOwnerPassword );
padPassword( m_aUserPassword, m_nPaddedUserPassword );
/*
2) compute the access permissions, in numerical form
the default value depends on the revision 2 (40 bit) or 3 (128 bit security):
- for 40 bit security the unused bit must be set to 1, since they are not used
- for 128 bit security the same bit must be preset to 0 and set later if needed
according to the table 3.15, pdf v 1.4 */
m_nAccessPermissions = ( m_aContext.Security128bit ) ? 0xfffff0c0 : 0xffffffc0 ;
/* check permissions for 40 bit security case */
m_nAccessPermissions |= ( m_aContext.AccessPermissions.CanPrintTheDocument ) ? 1 << 2 : 0;
m_nAccessPermissions |= ( m_aContext.AccessPermissions.CanModifyTheContent ) ? 1 << 3 : 0;
m_nAccessPermissions |= ( m_aContext.AccessPermissions.CanCopyOrExtract ) ? 1 << 4 : 0;
m_nAccessPermissions |= ( m_aContext.AccessPermissions.CanAddOrModify ) ? 1 << 5 : 0;
m_nKeyLength = SECUR_40BIT_KEY;
m_nRC4KeyLength = SECUR_40BIT_KEY+5; // for this value see PDF spec v 1.4, algorithm 3.1 step 4, where n is 5
if( m_aContext.Security128bit )
{
m_nKeyLength = SECUR_128BIT_KEY;
m_nRC4KeyLength = 16; // for this value see PDF spec v 1.4, algorithm 3.1 step 4, where n is 16, thus maximum
// permitted value is 16
m_nAccessPermissions |= ( m_aContext.AccessPermissions.CanFillInteractive ) ? 1 << 8 : 0;
m_nAccessPermissions |= ( m_aContext.AccessPermissions.CanExtractForAccessibility ) ? 1 << 9 : 0;
m_nAccessPermissions |= ( m_aContext.AccessPermissions.CanAssemble ) ? 1 << 10 : 0;
m_nAccessPermissions |= ( m_aContext.AccessPermissions.CanPrintFull ) ? 1 << 11 : 0;
}
computeODictionaryValue();
computeUDictionaryValue();
//clear out exceding key values, prepares for generation number default to 0 as well
// see checkAndEnableStreamEncryption in pdfwriter_impl.hxx
sal_Int32 i, y;
for( i = m_nKeyLength, y = 0; y < 5 ; y++ )
m_nEncryptionKey[i++] = 0;
}
else //either no cipher or no digest or both, something is wrong with memory or something else
m_aContext.Encrypt = false; //then turn the encryption off
}
/* end i12626 methods */