/* -*- Mode: C++; tab-width: 4; indent-tabs-mode: nil; c-basic-offset: 4 -*- */
/*
* This file is part of the LibreOffice project.
*
* This Source Code Form is subject to the terms of the Mozilla Public
* License, v. 2.0. If a copy of the MPL was not distributed with this
* file, You can obtain one at http://mozilla.org/MPL/2.0/.
*
* This file incorporates work covered by the following license notice:
*
* Licensed to the Apache Software Foundation (ASF) under one or more
* contributor license agreements. See the NOTICE file distributed
* with this work for additional information regarding copyright
* ownership. The ASF licenses this file to you under the Apache
* License, Version 2.0 (the "License"); you may not use this file
* except in compliance with the License. You may obtain a copy of
* the License at http://www.apache.org/licenses/LICENSE-2.0 .
*/
#include <xichart.hxx>
#include <algorithm>
#include <memory>
#include <utility>
#include <com/sun/star/frame/XModel.hpp>
#include <com/sun/star/drawing/Direction3D.hpp>
#include <com/sun/star/drawing/ProjectionMode.hpp>
#include <com/sun/star/drawing/ShadeMode.hpp>
#include <com/sun/star/drawing/XShape.hpp>
#include <com/sun/star/drawing/XDrawPageSupplier.hpp>
#include <com/sun/star/chart/ChartAxisArrangeOrderType.hpp>
#include <com/sun/star/chart/ChartAxisLabelPosition.hpp>
#include <com/sun/star/chart/ChartAxisMarkPosition.hpp>
#include <com/sun/star/chart/ChartAxisPosition.hpp>
#include <com/sun/star/chart/ChartLegendExpansion.hpp>
#include <com/sun/star/chart/TimeInterval.hpp>
#include <com/sun/star/chart/TimeUnit.hpp>
#include <com/sun/star/chart/XChartDocument.hpp>
#include <com/sun/star/chart/XDiagramPositioning.hpp>
#include <com/sun/star/chart/DataLabelPlacement.hpp>
#include <com/sun/star/chart/ErrorBarStyle.hpp>
#include <com/sun/star/chart/MissingValueTreatment.hpp>
#include <com/sun/star/chart2/LinearRegressionCurve.hpp>
#include <com/sun/star/chart2/ExponentialRegressionCurve.hpp>
#include <com/sun/star/chart2/LogarithmicRegressionCurve.hpp>
#include <com/sun/star/chart2/PotentialRegressionCurve.hpp>
#include <com/sun/star/chart2/PolynomialRegressionCurve.hpp>
#include <com/sun/star/chart2/MovingAverageRegressionCurve.hpp>
#include <com/sun/star/chart2/CartesianCoordinateSystem2d.hpp>
#include <com/sun/star/chart2/CartesianCoordinateSystem3d.hpp>
#include <com/sun/star/chart2/FormattedString.hpp>
#include <com/sun/star/chart2/LogarithmicScaling.hpp>
#include <com/sun/star/chart2/LinearScaling.hpp>
#include <com/sun/star/chart2/PolarCoordinateSystem2d.hpp>
#include <com/sun/star/chart2/PolarCoordinateSystem3d.hpp>
#include <com/sun/star/chart2/XChartDocument.hpp>
#include <com/sun/star/chart2/XDiagram.hpp>
#include <com/sun/star/chart2/XCoordinateSystemContainer.hpp>
#include <com/sun/star/chart2/XChartTypeContainer.hpp>
#include <com/sun/star/chart2/XDataSeriesContainer.hpp>
#include <com/sun/star/chart2/XRegressionCurveContainer.hpp>
#include <com/sun/star/chart2/XTitled.hpp>
#include <com/sun/star/chart2/AxisType.hpp>
#include <com/sun/star/chart2/CurveStyle.hpp>
#include <com/sun/star/chart2/DataPointGeometry3D.hpp>
#include <com/sun/star/chart2/DataPointLabel.hpp>
#include <com/sun/star/chart2/LegendPosition.hpp>
#include <com/sun/star/chart2/StackingDirection.hpp>
#include <com/sun/star/chart2/TickmarkStyle.hpp>
#include <com/sun/star/chart2/RelativePosition.hpp>
#include <com/sun/star/chart2/RelativeSize.hpp>
#include <com/sun/star/chart2/data/XDataProvider.hpp>
#include <com/sun/star/chart2/data/XDataReceiver.hpp>
#include <com/sun/star/chart2/data/XDataSink.hpp>
#include <com/sun/star/chart2/data/LabeledDataSequence.hpp>
#include <comphelper/processfactory.hxx>
#include <o3tl/numeric.hxx>
#include <o3tl/unit_conversion.hxx>
#include <sfx2/objsh.hxx>
#include <svx/svdpage.hxx>
#include <svx/unoapi.hxx>
#include <sal/log.hxx>
#include <tools/helpers.hxx>
#include <document.hxx>
#include <drwlayer.hxx>
#include <docsh.hxx>
#include <tokenarray.hxx>
#include <compiler.hxx>
#include <reftokenhelper.hxx>
#include <chartlis.hxx>
#include <globstr.hrc>
#include <scresid.hxx>
#include <xltracer.hxx>
#include <xltools.hxx>
#include <xistream.hxx>
#include <xiformula.hxx>
#include <xistyle.hxx>
#include <xipage.hxx>
#include <xiview.hxx>
using ::com::sun::star::uno::Any;
using ::com::sun::star::uno::Reference;
using ::com::sun::star::uno::Sequence;
using ::com::sun::star::uno::UNO_QUERY;
using ::com::sun::star::uno::UNO_QUERY_THROW;
using ::com::sun::star::uno::UNO_SET_THROW;
using ::com::sun::star::uno::Exception;
using ::com::sun::star::beans::XPropertySet;
using ::com::sun::star::frame::XModel;
using ::com::sun::star::util::XNumberFormatsSupplier;
using ::com::sun::star::drawing::XDrawPage;
using ::com::sun::star::drawing::XDrawPageSupplier;
using ::com::sun::star::drawing::XShape;
using namespace ::com::sun::star::chart2;
using ::com::sun::star::chart2::data::XDataProvider;
using ::com::sun::star::chart2::data::XDataReceiver;
using ::com::sun::star::chart2::data::XDataSequence;
using ::com::sun::star::chart2::data::XDataSink;
using ::com::sun::star::chart2::data::XLabeledDataSequence;
using ::com::sun::star::chart2::data::LabeledDataSequence;
using ::formula::FormulaToken;
using ::formula::FormulaTokenArrayPlainIterator;
using ::std::unique_ptr;
namespace cssc = ::com::sun::star::chart;
namespace cssc2 = ::com::sun::star::chart2;
// Helpers ====================================================================
namespace {
XclImpStream& operator>>( XclImpStream& rStrm, XclChRectangle& rRect )
{
rRect.mnX = rStrm.ReadInt32();
rRect.mnY = rStrm.ReadInt32();
rRect.mnWidth = rStrm.ReadInt32();
rRect.mnHeight = rStrm.ReadInt32();
return rStrm;
}
void lclSetValueOrClearAny( Any& rAny, double fValue, bool bClear )
{
if( bClear )
rAny.clear();
else
rAny <<= fValue;
}
void lclSetExpValueOrClearAny( Any& rAny, double fValue, bool bLogScale, bool bClear )
{
if( !bClear && bLogScale )
fValue = pow( 10.0, fValue );
lclSetValueOrClearAny( rAny, fValue, bClear );
}
double lclGetSerialDay( const XclImpRoot& rRoot, sal_uInt16 nValue, sal_uInt16 nTimeUnit )
{
switch( nTimeUnit )
{
case EXC_CHDATERANGE_DAYS:
return nValue;
case EXC_CHDATERANGE_MONTHS:
return rRoot.GetDoubleFromDateTime( DateTime( Date( 1, static_cast< sal_uInt16 >( 1 + nValue % 12 ), static_cast< sal_uInt16 >( rRoot.GetBaseYear() + nValue / 12 ) ) ) );
case EXC_CHDATERANGE_YEARS:
return rRoot.GetDoubleFromDateTime( DateTime( Date( 1, 1, static_cast< sal_uInt16 >( rRoot.GetBaseYear() + nValue ) ) ) );
default:
OSL_ENSURE( false, "lclGetSerialDay - unexpected time unit" );
}
return nValue;
}
void lclConvertTimeValue( const XclImpRoot& rRoot, Any& rAny, sal_uInt16 nValue, bool bAuto, sal_uInt16 nTimeUnit )
{
if( bAuto )
rAny.clear();
else
rAny <<= lclGetSerialDay( rRoot, nValue, nTimeUnit );
}
sal_Int32 lclGetApiTimeUnit( sal_uInt16 nTimeUnit )
{
switch( nTimeUnit )
{
case EXC_CHDATERANGE_DAYS: return cssc::TimeUnit::DAY;
case EXC_CHDATERANGE_MONTHS: return cssc::TimeUnit::MONTH;
case EXC_CHDATERANGE_YEARS: return cssc::TimeUnit::YEAR;
default: OSL_ENSURE( false, "lclGetApiTimeUnit - unexpected time unit" );
}
return cssc::TimeUnit::DAY;
}
void lclConvertTimeInterval( Any& rInterval, sal_uInt16 nValue, bool bAuto, sal_uInt16 nTimeUnit )
{
if( bAuto || (nValue == 0) )
rInterval.clear();
else
rInterval <<= cssc::TimeInterval( nValue, lclGetApiTimeUnit( nTimeUnit ) );
}
} // namespace
// Common =====================================================================
/** Stores global data needed in various classes of the Chart import filter. */
struct XclImpChRootData : public XclChRootData
{
XclImpChChart& mrChartData; /// The chart data object.
explicit XclImpChRootData( XclImpChChart& rChartData ) : mrChartData( rChartData ) {}
};
XclImpChRoot::XclImpChRoot( const XclImpRoot& rRoot, XclImpChChart& rChartData ) :
XclImpRoot( rRoot ),
mxChData( std::make_shared<XclImpChRootData>( rChartData ) )
{
}
XclImpChRoot::~XclImpChRoot()
{
}
XclImpChChart& XclImpChRoot::GetChartData() const
{
return mxChData->mrChartData;
}
const XclChTypeInfo& XclImpChRoot::GetChartTypeInfo( XclChTypeId eType ) const
{
return mxChData->mxTypeInfoProv->GetTypeInfo( eType );
}
const XclChTypeInfo& XclImpChRoot::GetChartTypeInfo( sal_uInt16 nRecId ) const
{
return mxChData->mxTypeInfoProv->GetTypeInfoFromRecId( nRecId );
}
const XclChFormatInfo& XclImpChRoot::GetFormatInfo( XclChObjectType eObjType ) const
{
return mxChData->mxFmtInfoProv->GetFormatInfo( eObjType );
}
Color XclImpChRoot::GetFontAutoColor() const
{
return GetPalette().GetColor( EXC_COLOR_CHWINDOWTEXT );
}
Color XclImpChRoot::GetSeriesLineAutoColor( sal_uInt16 nFormatIdx ) const
{
return GetPalette().GetColor( XclChartHelper::GetSeriesLineAutoColorIdx( nFormatIdx ) );
}
Color XclImpChRoot::GetSeriesFillAutoColor( sal_uInt16 nFormatIdx ) const
{
const XclImpPalette& rPal = GetPalette();
Color aColor = rPal.GetColor( XclChartHelper::GetSeriesFillAutoColorIdx( nFormatIdx ) );
sal_uInt8 nTrans = XclChartHelper::GetSeriesFillAutoTransp( nFormatIdx );
return ScfTools::GetMixedColor( aColor, rPal.GetColor( EXC_COLOR_CHWINDOWBACK ), nTrans );
}
void XclImpChRoot::InitConversion( const Reference<XChartDocument>& xChartDoc, const tools::Rectangle& rChartRect ) const
{
// create formatting object tables
mxChData->InitConversion( GetRoot(), xChartDoc, rChartRect );
// lock the model to suppress any internal updates
if( xChartDoc.is() )
xChartDoc->lockControllers();
ScDocShell* pDocShell = GetDocShell();
Reference< XDataReceiver > xDataRec( xChartDoc, UNO_QUERY );
if( pDocShell && xDataRec.is() )
{
// create and register a data provider
Reference< XDataProvider > xDataProv(
ScfApiHelper::CreateInstance( pDocShell, SERVICE_CHART2_DATAPROVIDER ), UNO_QUERY );
if( xDataProv.is() )
xDataRec->attachDataProvider( xDataProv );
// attach the number formatter
Reference< XNumberFormatsSupplier > xNumFmtSupp( static_cast<cppu::OWeakObject*>(pDocShell->GetModel()), UNO_QUERY );
if( xNumFmtSupp.is() )
xDataRec->attachNumberFormatsSupplier( xNumFmtSupp );
}
}
void XclImpChRoot::FinishConversion( XclImpDffConverter& rDffConv ) const
{
rDffConv.Progress( EXC_CHART_PROGRESS_SIZE );
// unlock the model
Reference< XModel > xModel = mxChData->mxChartDoc;
if( xModel.is() )
xModel->unlockControllers();
rDffConv.Progress( EXC_CHART_PROGRESS_SIZE );
mxChData->FinishConversion();
}
Reference< XDataProvider > XclImpChRoot::GetDataProvider() const
{
return mxChData->mxChartDoc->getDataProvider();
}
Reference< XShape > XclImpChRoot::GetTitleShape( const XclChTextKey& rTitleKey ) const
{
return mxChData->GetTitleShape( rTitleKey );
}
sal_Int32 XclImpChRoot::CalcHmmFromChartX( sal_Int32 nPosX ) const
{
return static_cast< sal_Int32 >( mxChData->mfUnitSizeX * nPosX + mxChData->mnBorderGapX + 0.5 );
}
sal_Int32 XclImpChRoot::CalcHmmFromChartY( sal_Int32 nPosY ) const
{
return static_cast< sal_Int32 >( mxChData->mfUnitSizeY * nPosY + mxChData->mnBorderGapY + 0.5 );
}
css::awt::Rectangle XclImpChRoot::CalcHmmFromChartRect( const XclChRectangle& rRect ) const
{
return css::awt::Rectangle(
CalcHmmFromChartX( rRect.mnX ),
CalcHmmFromChartY( rRect.mnY ),
CalcHmmFromChartX( rRect.mnWidth ),
CalcHmmFromChartY( rRect.mnHeight ) );
}
double XclImpChRoot::CalcRelativeFromHmmX( sal_Int32 nPosX ) const
{
const tools::Long nWidth = mxChData->maChartRect.GetWidth();
if (!nWidth)
throw o3tl::divide_by_zero();
return static_cast<double>(nPosX) / nWidth;
}
double XclImpChRoot::CalcRelativeFromHmmY( sal_Int32 nPosY ) const
{
const tools::Long nHeight = mxChData->maChartRect.GetHeight();
if (!nHeight)
throw o3tl::divide_by_zero();
return static_cast<double >(nPosY) / nHeight;
}
double XclImpChRoot::CalcRelativeFromChartX( sal_Int32 nPosX ) const
{
return CalcRelativeFromHmmX( CalcHmmFromChartX( nPosX ) );
}
double XclImpChRoot::CalcRelativeFromChartY( sal_Int32 nPosY ) const
{
return CalcRelativeFromHmmY( CalcHmmFromChartY( nPosY ) );
}
void XclImpChRoot::ConvertLineFormat( ScfPropertySet& rPropSet,
const XclChLineFormat& rLineFmt, XclChPropertyMode ePropMode ) const
{
GetChartPropSetHelper().WriteLineProperties(
rPropSet, *mxChData->mxLineDashTable, rLineFmt, ePropMode );
}
void XclImpChRoot::ConvertAreaFormat( ScfPropertySet& rPropSet,
const XclChAreaFormat& rAreaFmt, XclChPropertyMode ePropMode ) const
{
GetChartPropSetHelper().WriteAreaProperties( rPropSet, rAreaFmt, ePropMode );
}
void XclImpChRoot::ConvertEscherFormat( ScfPropertySet& rPropSet,
const XclChEscherFormat& rEscherFmt, const XclChPicFormat* pPicFmt,
sal_uInt32 nDffFillType, XclChPropertyMode ePropMode ) const
{
GetChartPropSetHelper().WriteEscherProperties( rPropSet,
*mxChData->mxGradientTable, *mxChData->mxBitmapTable,
rEscherFmt, pPicFmt, nDffFillType, ePropMode );
}
void XclImpChRoot::ConvertFont( ScfPropertySet& rPropSet,
sal_uInt16 nFontIdx, const Color* pFontColor ) const
{
GetFontBuffer().WriteFontProperties( rPropSet, EXC_FONTPROPSET_CHART, nFontIdx, pFontColor );
}
void XclImpChRoot::ConvertPieRotation( ScfPropertySet& rPropSet, sal_uInt16 nAngle )
{
sal_Int32 nApiRot = (450 - (nAngle % 360)) % 360;
rPropSet.SetProperty( EXC_CHPROP_STARTINGANGLE, nApiRot );
}
XclImpChGroupBase::~XclImpChGroupBase()
{
}
void XclImpChGroupBase::ReadRecordGroup( XclImpStream& rStrm )
{
// read contents of the header record
ReadHeaderRecord( rStrm );
// only read sub records, if the next record is a CHBEGIN
if( rStrm.GetNextRecId() != EXC_ID_CHBEGIN )
return;
// read the CHBEGIN record, may be used for special initial processing
rStrm.StartNextRecord();
ReadSubRecord( rStrm );
// read the nested records
bool bLoop = true;
while( bLoop && rStrm.StartNextRecord() )
{
sal_uInt16 nRecId = rStrm.GetRecId();
bLoop = nRecId != EXC_ID_CHEND;
// skip unsupported nested blocks
if( nRecId == EXC_ID_CHBEGIN )
SkipBlock( rStrm );
else
ReadSubRecord( rStrm );
}
/* Returns with current CHEND record or unchanged stream, if no record
group present. In every case another call to StartNextRecord() will go
to next record of interest. */
}
void XclImpChGroupBase::SkipBlock( XclImpStream& rStrm )
{
OSL_ENSURE( rStrm.GetRecId() == EXC_ID_CHBEGIN, "XclImpChGroupBase::SkipBlock - no CHBEGIN record" );
// do nothing if current record is not CHBEGIN
bool bLoop = rStrm.GetRecId() == EXC_ID_CHBEGIN;
while( bLoop && rStrm.StartNextRecord() )
{
sal_uInt16 nRecId = rStrm.GetRecId();
bLoop = nRecId != EXC_ID_CHEND;
// skip nested record groups
if( nRecId == EXC_ID_CHBEGIN )
SkipBlock( rStrm );
}
}
// Frame formatting ===========================================================
void XclImpChFramePos::ReadChFramePos( XclImpStream& rStrm )
{
maData.mnTLMode = rStrm.ReaduInt16();
maData.mnBRMode = rStrm.ReaduInt16();
/* According to the spec, the upper 16 bits of all members in the
rectangle are unused and may contain garbage. */
maData.maRect.mnX = rStrm.ReadInt16(); rStrm.Ignore( 2 );
maData.maRect.mnY = rStrm.ReadInt16(); rStrm.Ignore( 2 );
maData.maRect.mnWidth = rStrm.ReadInt16(); rStrm.Ignore( 2 );
maData.maRect.mnHeight = rStrm.ReadInt16(); rStrm.Ignore( 2 );
}
void XclImpChLineFormat::ReadChLineFormat( XclImpStream& rStrm )
{
rStrm >> maData.maColor;
maData.mnPattern = rStrm.ReaduInt16();
maData.mnWeight = rStrm.ReadInt16();
maData.mnFlags = rStrm.ReaduInt16();
const XclImpRoot& rRoot = rStrm.GetRoot();
if( rRoot.GetBiff() == EXC_BIFF8 )
// BIFF8: index into palette used instead of RGB data
maData.maColor = rRoot.GetPalette().GetColor( rStrm.ReaduInt16() );
}
void XclImpChLineFormat::Convert( const XclImpChRoot& rRoot,
ScfPropertySet& rPropSet, XclChObjectType eObjType, sal_uInt16 nFormatIdx ) const
{
const XclChFormatInfo& rFmtInfo = rRoot.GetFormatInfo( eObjType );
if( IsAuto() )
{
XclChLineFormat aLineFmt;
aLineFmt.maColor = (eObjType == EXC_CHOBJTYPE_LINEARSERIES) ?
rRoot.GetSeriesLineAutoColor( nFormatIdx ) :
rRoot.GetPalette().GetColor( rFmtInfo.mnAutoLineColorIdx );
aLineFmt.mnPattern = EXC_CHLINEFORMAT_SOLID;
aLineFmt.mnWeight = rFmtInfo.mnAutoLineWeight;
rRoot.ConvertLineFormat( rPropSet, aLineFmt, rFmtInfo.mePropMode );
}
else
{
rRoot.ConvertLineFormat( rPropSet, maData, rFmtInfo.mePropMode );
}
}
void XclImpChAreaFormat::ReadChAreaFormat( XclImpStream& rStrm )
{
rStrm >> maData.maPattColor >> maData.maBackColor;
maData.mnPattern = rStrm.ReaduInt16();
maData.mnFlags = rStrm.ReaduInt16();
const XclImpRoot& rRoot = rStrm.GetRoot();
if( rRoot.GetBiff() == EXC_BIFF8 )
{
// BIFF8: index into palette used instead of RGB data
const XclImpPalette& rPal = rRoot.GetPalette();
maData.maPattColor = rPal.GetColor( rStrm.ReaduInt16() );
maData.maBackColor = rPal.GetColor( rStrm.ReaduInt16());
}
}
void XclImpChAreaFormat::Convert( const XclImpChRoot& rRoot,
ScfPropertySet& rPropSet, XclChObjectType eObjType, sal_uInt16 nFormatIdx ) const
{
const XclChFormatInfo& rFmtInfo = rRoot.GetFormatInfo( eObjType );
if( IsAuto() )
{
XclChAreaFormat aAreaFmt;
aAreaFmt.maPattColor = (eObjType == EXC_CHOBJTYPE_FILLEDSERIES) ?
rRoot.GetSeriesFillAutoColor( nFormatIdx ) :
rRoot.GetPalette().GetColor( rFmtInfo.mnAutoPattColorIdx );
aAreaFmt.mnPattern = EXC_PATT_SOLID;
rRoot.ConvertAreaFormat( rPropSet, aAreaFmt, rFmtInfo.mePropMode );
}
else
{
rRoot.ConvertAreaFormat( rPropSet, maData, rFmtInfo.mePropMode );
}
}
XclImpChEscherFormat::XclImpChEscherFormat( const XclImpRoot& rRoot ) :
mnDffFillType( mso_fillSolid )
{
maData.mxItemSet =
std::make_shared<SfxItemSet>( rRoot.GetDoc().GetDrawLayer()->GetItemPool() );
}
void XclImpChEscherFormat::ReadHeaderRecord( XclImpStream& rStrm )
{
// read from stream - CHESCHERFORMAT uses own ID for record continuation
XclImpDffPropSet aPropSet( rStrm.GetRoot() );
rStrm.ResetRecord( true, rStrm.GetRecId() );
rStrm >> aPropSet;
// get the data
aPropSet.FillToItemSet( *maData.mxItemSet );
// get fill type from DFF property set
mnDffFillType = aPropSet.GetPropertyValue( DFF_Prop_fillType );
}
void XclImpChEscherFormat::ReadSubRecord( XclImpStream& rStrm )
{
switch( rStrm.GetRecId() )
{
case EXC_ID_CHPICFORMAT:
maPicFmt.mnBmpMode = rStrm.ReaduInt16();
rStrm.Ignore( 2 );
maPicFmt.mnFlags = rStrm.ReaduInt16();
maPicFmt.mfScale = rStrm.ReadDouble();
break;
}
}
void XclImpChEscherFormat::Convert( const XclImpChRoot& rRoot,
ScfPropertySet& rPropSet, XclChObjectType eObjType, bool bUsePicFmt ) const
{
const XclChFormatInfo& rFmtInfo = rRoot.GetFormatInfo( eObjType );
rRoot.ConvertEscherFormat( rPropSet, maData, bUsePicFmt ? &maPicFmt : nullptr, mnDffFillType, rFmtInfo.mePropMode );
}
XclImpChFrameBase::XclImpChFrameBase( const XclChFormatInfo& rFmtInfo )
{
if( !rFmtInfo.mbCreateDefFrame )
return;
switch( rFmtInfo.meDefFrameType )
{
case EXC_CHFRAMETYPE_AUTO:
mxLineFmt = new XclImpChLineFormat();
if( rFmtInfo.mbIsFrame )
mxAreaFmt = std::make_shared<XclImpChAreaFormat>();
break;
case EXC_CHFRAMETYPE_INVISIBLE:
{
XclChLineFormat aLineFmt;
::set_flag( aLineFmt.mnFlags, EXC_CHLINEFORMAT_AUTO, false );
aLineFmt.mnPattern = EXC_CHLINEFORMAT_NONE;
mxLineFmt = new XclImpChLineFormat( aLineFmt );
if( rFmtInfo.mbIsFrame )
{
XclChAreaFormat aAreaFmt;
::set_flag( aAreaFmt.mnFlags, EXC_CHAREAFORMAT_AUTO, false );
aAreaFmt.mnPattern = EXC_PATT_NONE;
mxAreaFmt = std::make_shared<XclImpChAreaFormat>( aAreaFmt );
}
}
break;
default:
OSL_FAIL( "XclImpChFrameBase::XclImpChFrameBase - unknown frame type" );
}
}
void XclImpChFrameBase::ReadSubRecord( XclImpStream& rStrm )
{
switch( rStrm.GetRecId() )
{
case EXC_ID_CHLINEFORMAT:
mxLineFmt = new XclImpChLineFormat();
mxLineFmt->ReadChLineFormat( rStrm );
break;
case EXC_ID_CHAREAFORMAT:
mxAreaFmt = std::make_shared<XclImpChAreaFormat>();
mxAreaFmt->ReadChAreaFormat( rStrm );
break;
case EXC_ID_CHESCHERFORMAT:
mxEscherFmt = std::make_shared<XclImpChEscherFormat>( rStrm.GetRoot() );
mxEscherFmt->ReadRecordGroup( rStrm );
break;
}
}
void XclImpChFrameBase::ConvertLineBase( const XclImpChRoot& rRoot,
ScfPropertySet& rPropSet, XclChObjectType eObjType, sal_uInt16 nFormatIdx ) const
{
if( mxLineFmt )
mxLineFmt->Convert( rRoot, rPropSet, eObjType, nFormatIdx );
}
void XclImpChFrameBase::ConvertAreaBase( const XclImpChRoot& rRoot,
ScfPropertySet& rPropSet, XclChObjectType eObjType, sal_uInt16 nFormatIdx, bool bUsePicFmt ) const
{
if( rRoot.GetFormatInfo( eObjType ).mbIsFrame )
{
// CHESCHERFORMAT overrides CHAREAFORMAT (even if it is auto)
if( mxEscherFmt )
mxEscherFmt->Convert( rRoot, rPropSet, eObjType, bUsePicFmt );
else if( mxAreaFmt )
mxAreaFmt->Convert( rRoot, rPropSet, eObjType, nFormatIdx );
}
}
void XclImpChFrameBase::ConvertFrameBase( const XclImpChRoot& rRoot,
ScfPropertySet& rPropSet, XclChObjectType eObjType, sal_uInt16 nFormatIdx, bool bUsePicFmt ) const
{
ConvertLineBase( rRoot, rPropSet, eObjType, nFormatIdx );
ConvertAreaBase( rRoot, rPropSet, eObjType, nFormatIdx, bUsePicFmt );
}
XclImpChFrame::XclImpChFrame( const XclImpChRoot& rRoot, XclChObjectType eObjType ) :
XclImpChFrameBase( rRoot.GetFormatInfo( eObjType ) ),
XclImpChRoot( rRoot ),
meObjType( eObjType )
{
}
void XclImpChFrame::ReadHeaderRecord( XclImpStream& rStrm )
{
maData.mnFormat = rStrm.ReaduInt16();
maData.mnFlags = rStrm.ReaduInt16();
}
void XclImpChFrame::UpdateObjFrame( const XclObjLineData& rLineData, const XclObjFillData& rFillData )
{
const XclImpPalette& rPal = GetPalette();
if( rLineData.IsVisible() && (!mxLineFmt || !mxLineFmt->HasLine()) )
{
// line formatting
XclChLineFormat aLineFmt;
aLineFmt.maColor = rPal.GetColor( rLineData.mnColorIdx );
switch( rLineData.mnStyle )
{
case EXC_OBJ_LINE_SOLID: aLineFmt.mnPattern = EXC_CHLINEFORMAT_SOLID; break;
case EXC_OBJ_LINE_DASH: aLineFmt.mnPattern = EXC_CHLINEFORMAT_DASH; break;
case EXC_OBJ_LINE_DOT: aLineFmt.mnPattern = EXC_CHLINEFORMAT_DOT; break;
case EXC_OBJ_LINE_DASHDOT: aLineFmt.mnPattern = EXC_CHLINEFORMAT_DASHDOT; break;
case EXC_OBJ_LINE_DASHDOTDOT: aLineFmt.mnPattern = EXC_CHLINEFORMAT_DASHDOTDOT; break;
case EXC_OBJ_LINE_MEDTRANS: aLineFmt.mnPattern = EXC_CHLINEFORMAT_MEDTRANS; break;
case EXC_OBJ_LINE_DARKTRANS: aLineFmt.mnPattern = EXC_CHLINEFORMAT_DARKTRANS; break;
case EXC_OBJ_LINE_LIGHTTRANS: aLineFmt.mnPattern = EXC_CHLINEFORMAT_LIGHTTRANS; break;
case EXC_OBJ_LINE_NONE: aLineFmt.mnPattern = EXC_CHLINEFORMAT_NONE; break;
default: aLineFmt.mnPattern = EXC_CHLINEFORMAT_SOLID;
}
switch( rLineData.mnWidth )
{
case EXC_OBJ_LINE_HAIR: aLineFmt.mnWeight = EXC_CHLINEFORMAT_HAIR; break;
case EXC_OBJ_LINE_THIN: aLineFmt.mnWeight = EXC_CHLINEFORMAT_SINGLE; break;
case EXC_OBJ_LINE_MEDIUM: aLineFmt.mnWeight = EXC_CHLINEFORMAT_DOUBLE; break;
case EXC_OBJ_LINE_THICK: aLineFmt.mnWeight = EXC_CHLINEFORMAT_TRIPLE; break;
default: aLineFmt.mnWeight = EXC_CHLINEFORMAT_HAIR;
}
::set_flag( aLineFmt.mnFlags, EXC_CHLINEFORMAT_AUTO, rLineData.IsAuto() );
mxLineFmt = new XclImpChLineFormat( aLineFmt );
}
if( rFillData.IsFilled() && (!mxAreaFmt || !mxAreaFmt->HasArea()) && !mxEscherFmt )
{
// area formatting
XclChAreaFormat aAreaFmt;
aAreaFmt.maPattColor = rPal.GetColor( rFillData.mnPattColorIdx );
aAreaFmt.maBackColor = rPal.GetColor( rFillData.mnBackColorIdx );
aAreaFmt.mnPattern = rFillData.mnPattern;
::set_flag( aAreaFmt.mnFlags, EXC_CHAREAFORMAT_AUTO, rFillData.IsAuto() );
mxAreaFmt = std::make_shared<XclImpChAreaFormat>( aAreaFmt );
}
}
void XclImpChFrame::Convert( ScfPropertySet& rPropSet, bool bUsePicFmt ) const
{
ConvertFrameBase( GetChRoot(), rPropSet, meObjType, EXC_CHDATAFORMAT_UNKNOWN, bUsePicFmt );
}
// Source links ===============================================================
namespace {
/** Creates a labeled data sequence object, adds link for series title if present. */
Reference< XLabeledDataSequence > lclCreateLabeledDataSequence(
const XclImpChSourceLinkRef& xValueLink, const OUString& rValueRole,
const XclImpChSourceLink* pTitleLink = nullptr )
{
// create data sequence for values and title
Reference< XDataSequence > xValueSeq;
if( xValueLink )
xValueSeq = xValueLink->CreateDataSequence( rValueRole );
Reference< XDataSequence > xTitleSeq;
if( pTitleLink )
xTitleSeq = pTitleLink->CreateDataSequence( EXC_CHPROP_ROLE_LABEL );
// create the labeled data sequence, if values or title are present
Reference< XLabeledDataSequence > xLabeledSeq;
if( xValueSeq.is() || xTitleSeq.is() )
xLabeledSeq = LabeledDataSequence::create(comphelper::getProcessComponentContext());
if( xLabeledSeq.is() )
{
if( xValueSeq.is() )
xLabeledSeq->setValues( xValueSeq );
if( xTitleSeq.is() )
xLabeledSeq->setLabel( xTitleSeq );
}
return xLabeledSeq;
}
} // namespace
XclImpChSourceLink::XclImpChSourceLink( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot )
{
}
XclImpChSourceLink::~XclImpChSourceLink()
{
}
void XclImpChSourceLink::ReadChSourceLink( XclImpStream& rStrm )
{
maData.mnDestType = rStrm.ReaduInt8();
maData.mnLinkType = rStrm.ReaduInt8();
maData.mnFlags = rStrm.ReaduInt16();
maData.mnNumFmtIdx = rStrm.ReaduInt16();
mxTokenArray.reset();
if( GetLinkType() == EXC_CHSRCLINK_WORKSHEET )
{
// read token array
XclTokenArray aXclTokArr;
rStrm >> aXclTokArr;
// convert BIFF formula tokens to Calc token array
if( std::unique_ptr<ScTokenArray> pTokens = GetFormulaCompiler().CreateFormula( EXC_FMLATYPE_CHART, aXclTokArr ) )
mxTokenArray = std::move( pTokens );
}
// try to read a following CHSTRING record
if( (rStrm.GetNextRecId() == EXC_ID_CHSTRING) && rStrm.StartNextRecord() )
{
mxString = std::make_shared<XclImpString>();
rStrm.Ignore( 2 );
mxString->Read( rStrm, XclStrFlags::EightBitLength | XclStrFlags::SeparateFormats );
}
}
void XclImpChSourceLink::SetString( const OUString& rString )
{
if( !mxString )
mxString = std::make_shared<XclImpString>();
mxString->SetText( rString );
}
void XclImpChSourceLink::SetTextFormats( XclFormatRunVec&& rFormats )
{
if( mxString )
mxString->SetFormats( std::move(rFormats) );
}
sal_uInt16 XclImpChSourceLink::GetCellCount() const
{
sal_uInt32 nCellCount = 0;
if( mxTokenArray )
{
FormulaTokenArrayPlainIterator aIter(*mxTokenArray);
for( const FormulaToken* pToken = aIter.First(); pToken; pToken = aIter.Next() )
{
switch( pToken->GetType() )
{
case ::formula::svSingleRef:
case ::formula::svExternalSingleRef:
// single cell
++nCellCount;
break;
case ::formula::svDoubleRef:
case ::formula::svExternalDoubleRef:
{
// cell range
const ScComplexRefData& rComplexRef = *pToken->GetDoubleRef();
ScAddress aAbs1 = rComplexRef.Ref1.toAbs(GetRoot().GetDoc(), ScAddress());
ScAddress aAbs2 = rComplexRef.Ref2.toAbs(GetRoot().GetDoc(), ScAddress());
sal_uInt32 nTabs = static_cast<sal_uInt32>(aAbs2.Tab() - aAbs1.Tab() + 1);
sal_uInt32 nCols = static_cast<sal_uInt32>(aAbs2.Col() - aAbs1.Col() + 1);
sal_uInt32 nRows = static_cast<sal_uInt32>(aAbs2.Row() - aAbs1.Row() + 1);
nCellCount += nCols * nRows * nTabs;
}
break;
default: ;
}
}
}
return limit_cast< sal_uInt16 >( nCellCount );
}
void XclImpChSourceLink::ConvertNumFmt( ScfPropertySet& rPropSet, bool bPercent ) const
{
bool bLinkToSource = ::get_flag( maData.mnFlags, EXC_CHSRCLINK_NUMFMT );
sal_uInt32 nScNumFmt = bLinkToSource ? GetNumFmtBuffer().GetScFormat( maData.mnNumFmtIdx ) : NUMBERFORMAT_ENTRY_NOT_FOUND;
OUString aPropName = bPercent ? EXC_CHPROP_PERCENTAGENUMFMT : EXC_CHPROP_NUMBERFORMAT;
if( nScNumFmt != NUMBERFORMAT_ENTRY_NOT_FOUND )
rPropSet.SetProperty( aPropName, static_cast< sal_Int32 >( nScNumFmt ) );
else
// restore 'link to source' at data point (series may contain manual number format)
rPropSet.SetAnyProperty( aPropName, Any() );
}
Reference< XDataSequence > XclImpChSourceLink::CreateDataSequence( const OUString& rRole ) const
{
Reference< XDataSequence > xDataSeq;
Reference< XDataProvider > xDataProv = GetDataProvider();
if( xDataProv.is() )
{
if ( mxTokenArray )
{
ScCompiler aComp( GetDoc(), ScAddress(), *mxTokenArray, GetDoc().GetGrammar() );
OUStringBuffer aRangeRep;
aComp.CreateStringFromTokenArray( aRangeRep );
try
{
xDataSeq = xDataProv->createDataSequenceByRangeRepresentation( aRangeRep.makeStringAndClear() );
// set sequence role
ScfPropertySet aSeqProp( xDataSeq );
aSeqProp.SetProperty( EXC_CHPROP_ROLE, rRole );
}
catch( Exception& )
{
// OSL_FAIL( "XclImpChSourceLink::CreateDataSequence - cannot create data sequence" );
}
}
else if( rRole == EXC_CHPROP_ROLE_LABEL && mxString && !mxString->GetText().isEmpty() )
{
try
{
OUString aString(u"\""_ustr);
xDataSeq = xDataProv->createDataSequenceByRangeRepresentation( aString + mxString->GetText() + aString );
// set sequence role
ScfPropertySet aSeqProp( xDataSeq );
aSeqProp.SetProperty( EXC_CHPROP_ROLE, rRole );
}
catch( Exception& ) { }
}
}
return xDataSeq;
}
Sequence< Reference< XFormattedString > > XclImpChSourceLink::CreateStringSequence(
const XclImpChRoot& rRoot, sal_uInt16 nLeadFontIdx, const Color& rLeadFontColor ) const
{
::std::vector< Reference< XFormattedString > > aStringVec;
if( mxString )
{
for( XclImpStringIterator aIt( *mxString ); aIt.Is(); ++aIt )
{
Reference< css::chart2::XFormattedString2 > xFmtStr = css::chart2::FormattedString::create( comphelper::getProcessComponentContext() );
// set text data
xFmtStr->setString( aIt.GetPortionText() );
// set font formatting and font color
ScfPropertySet aStringProp( xFmtStr );
sal_uInt16 nFontIdx = aIt.GetPortionFont();
if( (nFontIdx == EXC_FONT_NOTFOUND) && (aIt.GetPortionIndex() == 0) )
// leading unformatted portion - use passed font settings
rRoot.ConvertFont( aStringProp, nLeadFontIdx, &rLeadFontColor );
else
rRoot.ConvertFont( aStringProp, nFontIdx );
// add string to vector of strings
aStringVec.emplace_back(xFmtStr );
}
}
return ScfApiHelper::VectorToSequence( aStringVec );
}
void XclImpChSourceLink::FillSourceLink( ::std::vector< ScTokenRef >& rTokens ) const
{
if( !mxTokenArray )
// no links to fill.
return;
FormulaTokenArrayPlainIterator aIter(*mxTokenArray);
for (FormulaToken* p = aIter.First(); p; p = aIter.Next())
{
ScTokenRef pToken(p->Clone());
if (ScRefTokenHelper::isRef(pToken))
// This is a reference token. Store it.
ScRefTokenHelper::join(&GetRoot().GetDoc(), rTokens, pToken, ScAddress());
}
}
// Text =======================================================================
XclImpChFontBase::~XclImpChFontBase()
{
}
void XclImpChFontBase::ConvertFontBase( const XclImpChRoot& rRoot, ScfPropertySet& rPropSet ) const
{
Color aFontColor = GetFontColor();
rRoot.ConvertFont( rPropSet, GetFontIndex(), &aFontColor );
}
void XclImpChFontBase::ConvertRotationBase( ScfPropertySet& rPropSet, bool bSupportsStacked ) const
{
XclChPropSetHelper::WriteRotationProperties( rPropSet, GetRotation(), bSupportsStacked );
}
XclImpChFont::XclImpChFont() :
mnFontIdx( EXC_FONT_NOTFOUND )
{
}
void XclImpChFont::ReadChFont( XclImpStream& rStrm )
{
mnFontIdx = rStrm.ReaduInt16();
}
XclImpChText::XclImpChText( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot )
{
}
void XclImpChText::ReadHeaderRecord( XclImpStream& rStrm )
{
maData.mnHAlign = rStrm.ReaduInt8();
maData.mnVAlign = rStrm.ReaduInt8();
maData.mnBackMode = rStrm.ReaduInt16();
Color aColor;
rStrm >> aColor;
maData.maTextComplexColor.setColor(aColor);
rStrm >> maData.maRect;
maData.mnFlags = rStrm.ReaduInt16();
if( GetBiff() == EXC_BIFF8 )
{
// BIFF8: index into palette used instead of RGB data
aColor = GetPalette().GetColor(rStrm.ReaduInt16());
maData.maTextComplexColor.setColor(aColor);
// placement and rotation
maData.mnFlags2 = rStrm.ReaduInt16();
maData.mnRotation = rStrm.ReaduInt16();
}
else
{
// BIFF2-BIFF7: get rotation from text orientation
sal_uInt8 nOrient = ::extract_value< sal_uInt8 >( maData.mnFlags, 8, 3 );
maData.mnRotation = XclTools::GetXclRotFromOrient( nOrient );
}
}
void XclImpChText::ReadSubRecord( XclImpStream& rStrm )
{
switch( rStrm.GetRecId() )
{
case EXC_ID_CHFRAMEPOS:
mxFramePos = std::make_shared<XclImpChFramePos>();
mxFramePos->ReadChFramePos( rStrm );
break;
case EXC_ID_CHFONT:
mxFont = std::make_shared<XclImpChFont>();
mxFont->ReadChFont( rStrm );
break;
case EXC_ID_CHFORMATRUNS:
if( GetBiff() == EXC_BIFF8 )
XclImpString::ReadFormats( rStrm, maFormats );
break;
case EXC_ID_CHSOURCELINK:
mxSrcLink = std::make_shared<XclImpChSourceLink>( GetChRoot() );
mxSrcLink->ReadChSourceLink( rStrm );
break;
case EXC_ID_CHFRAME:
mxFrame = std::make_shared<XclImpChFrame>( GetChRoot(), EXC_CHOBJTYPE_TEXT );
mxFrame->ReadRecordGroup( rStrm );
break;
case EXC_ID_CHOBJECTLINK:
maObjLink.mnTarget = rStrm.ReaduInt16();
maObjLink.maPointPos.mnSeriesIdx = rStrm.ReaduInt16();
maObjLink.maPointPos.mnPointIdx = rStrm.ReaduInt16();
break;
case EXC_ID_CHFRLABELPROPS:
ReadChFrLabelProps( rStrm );
break;
case EXC_ID_CHEND:
if( mxSrcLink && !maFormats.empty() )
mxSrcLink->SetTextFormats( std::vector(maFormats) );
break;
}
}
sal_uInt16 XclImpChText::GetFontIndex() const
{
return mxFont ? mxFont->GetFontIndex() : EXC_FONT_NOTFOUND;
}
Color XclImpChText::GetFontColor() const
{
return ::get_flag(maData.mnFlags, EXC_CHTEXT_AUTOCOLOR) ? GetFontAutoColor() : maData.maTextComplexColor.getFinalColor();
}
sal_uInt16 XclImpChText::GetRotation() const
{
return maData.mnRotation;
}
void XclImpChText::SetString( const OUString& rString )
{
if( !mxSrcLink )
mxSrcLink = std::make_shared<XclImpChSourceLink>( GetChRoot() );
mxSrcLink->SetString( rString );
}
void XclImpChText::UpdateText( const XclImpChText* pParentText )
{
if( !pParentText )
return;
// update missing members
if( !mxFrame )
mxFrame = pParentText->mxFrame;
if( !mxFont )
{
mxFont = pParentText->mxFont;
// text color is taken from CHTEXT record, not from font in CHFONT
::set_flag(maData.mnFlags, EXC_CHTEXT_AUTOCOLOR, ::get_flag(pParentText->maData.mnFlags, EXC_CHTEXT_AUTOCOLOR));
maData.maTextComplexColor = pParentText->maData.maTextComplexColor;
}
}
void XclImpChText::UpdateDataLabel( bool bCateg, bool bValue, bool bPercent )
{
::set_flag( maData.mnFlags, EXC_CHTEXT_SHOWCATEG, bCateg );
::set_flag( maData.mnFlags, EXC_CHTEXT_SHOWVALUE, bValue );
::set_flag( maData.mnFlags, EXC_CHTEXT_SHOWPERCENT, bPercent );
::set_flag( maData.mnFlags, EXC_CHTEXT_SHOWCATEGPERC, bCateg && bPercent );
::set_flag( maData.mnFlags, EXC_CHTEXT_DELETED, !bCateg && !bValue && !bPercent );
}
void XclImpChText::ConvertFont( ScfPropertySet& rPropSet ) const
{
ConvertFontBase( GetChRoot(), rPropSet );
}
void XclImpChText::ConvertRotation( ScfPropertySet& rPropSet, bool bSupportsStacked ) const
{
ConvertRotationBase( rPropSet, bSupportsStacked );
}
void XclImpChText::ConvertFrame( ScfPropertySet& rPropSet ) const
{
if( mxFrame )
mxFrame->Convert( rPropSet );
}
void XclImpChText::ConvertNumFmt( ScfPropertySet& rPropSet, bool bPercent ) const
{
if( mxSrcLink )
mxSrcLink->ConvertNumFmt( rPropSet, bPercent );
}
void XclImpChText::ConvertDataLabel( ScfPropertySet& rPropSet, const XclChTypeInfo& rTypeInfo, const ScfPropertySet* pGlobalPropSet ) const
{
// existing CHFRLABELPROPS record wins over flags from CHTEXT
sal_uInt16 nShowFlags = mxLabelProps ? mxLabelProps->mnFlags : maData.mnFlags;
sal_uInt16 SHOWANYCATEG = mxLabelProps ? EXC_CHFRLABELPROPS_SHOWCATEG : (EXC_CHTEXT_SHOWCATEGPERC | EXC_CHTEXT_SHOWCATEG);
sal_uInt16 SHOWANYVALUE = mxLabelProps ? EXC_CHFRLABELPROPS_SHOWVALUE : EXC_CHTEXT_SHOWVALUE;
sal_uInt16 SHOWANYPERCENT = mxLabelProps ? EXC_CHFRLABELPROPS_SHOWPERCENT : (EXC_CHTEXT_SHOWPERCENT | EXC_CHTEXT_SHOWCATEGPERC);
sal_uInt16 SHOWANYBUBBLE = mxLabelProps ? EXC_CHFRLABELPROPS_SHOWBUBBLE : EXC_CHTEXT_SHOWBUBBLE;
// get raw flags for label values
bool bShowNone = IsDeleted();
bool bShowCateg = !bShowNone && ::get_flag( nShowFlags, SHOWANYCATEG );
bool bShowPercent = !bShowNone && ::get_flag( nShowFlags, SHOWANYPERCENT );
bool bShowValue = !bShowNone && ::get_flag( nShowFlags, SHOWANYVALUE );
bool bShowBubble = !bShowNone && ::get_flag( nShowFlags, SHOWANYBUBBLE );
// adjust to Chart2 behaviour
if( rTypeInfo.meTypeId == EXC_CHTYPEID_BUBBLES )
bShowValue = bShowBubble; // Chart2 bubble charts show bubble size if 'ShowValue' is set
// other flags
bool bShowAny = bShowValue || bShowPercent || bShowCateg;
bool bShowSymbol = bShowAny && ::get_flag( maData.mnFlags, EXC_CHTEXT_SHOWSYMBOL );
// create API struct for label values, set API label separator
cssc2::DataPointLabel aPointLabel( bShowValue, bShowPercent, bShowCateg, bShowSymbol, false, false );
rPropSet.SetProperty( EXC_CHPROP_LABEL, aPointLabel );
OUString aSep = mxLabelProps ? mxLabelProps->maSeparator : OUString('\n');
if( aSep.isEmpty() )
aSep = "; ";
rPropSet.SetStringProperty( EXC_CHPROP_LABELSEPARATOR, aSep );
// text properties of attached label
if( !bShowAny )
return;
ConvertFont( rPropSet );
ConvertRotation( rPropSet, false );
// label placement
using namespace cssc::DataLabelPlacement;
sal_Int32 nPlacement = rTypeInfo.mnDefaultLabelPos;
switch( ::extract_value< sal_uInt16 >( maData.mnFlags2, 0, 4 ) )
{
case EXC_CHTEXT_POS_DEFAULT: nPlacement = rTypeInfo.mnDefaultLabelPos; break;
case EXC_CHTEXT_POS_OUTSIDE: nPlacement = OUTSIDE; break;
case EXC_CHTEXT_POS_INSIDE: nPlacement = INSIDE; break;
case EXC_CHTEXT_POS_CENTER: nPlacement = CENTER; break;
case EXC_CHTEXT_POS_AXIS: nPlacement = NEAR_ORIGIN; break;
case EXC_CHTEXT_POS_ABOVE: nPlacement = TOP; break;
case EXC_CHTEXT_POS_BELOW: nPlacement = BOTTOM; break;
case EXC_CHTEXT_POS_LEFT: nPlacement = LEFT; break;
case EXC_CHTEXT_POS_RIGHT: nPlacement = RIGHT; break;
case EXC_CHTEXT_POS_AUTO: nPlacement = AVOID_OVERLAP; break;
}
sal_Int32 nGlobalPlacement = 0;
if ( ( nPlacement == rTypeInfo.mnDefaultLabelPos ) && pGlobalPropSet &&
pGlobalPropSet->GetProperty( nGlobalPlacement, EXC_CHPROP_LABELPLACEMENT ) )
nPlacement = nGlobalPlacement;
rPropSet.SetProperty( EXC_CHPROP_LABELPLACEMENT, nPlacement );
// label number format (percentage format wins over value format)
if( bShowPercent || bShowValue )
ConvertNumFmt( rPropSet, bShowPercent );
}
Reference< XTitle > XclImpChText::CreateTitle() const
{
Reference< XTitle > xTitle;
if( mxSrcLink && mxSrcLink->HasString() )
{
// create the formatted strings
Sequence< Reference< XFormattedString > > aStringSeq(
mxSrcLink->CreateStringSequence( GetChRoot(), GetFontIndex(), GetFontColor() ) );
if( aStringSeq.hasElements() )
{
// create the title object
xTitle.set( ScfApiHelper::CreateInstance( SERVICE_CHART2_TITLE ), UNO_QUERY );
if( xTitle.is() )
{
// set the formatted strings
xTitle->setText( aStringSeq );
// more title formatting properties
ScfPropertySet aTitleProp( xTitle );
ConvertFrame( aTitleProp );
ConvertRotation( aTitleProp, true );
}
}
}
return xTitle;
}
void XclImpChText::ConvertTitlePosition( const XclChTextKey& rTitleKey ) const
{
if( !mxFramePos ) return;
const XclChFramePos& rPosData = mxFramePos->GetFramePosData();
OSL_ENSURE( (rPosData.mnTLMode == EXC_CHFRAMEPOS_PARENT) && (rPosData.mnBRMode == EXC_CHFRAMEPOS_PARENT),
"XclImpChText::ConvertTitlePosition - unexpected frame position mode" );
/* Check if title is moved manually. To get the actual position of the
title, we do some kind of hack and use the values from the CHTEXT
record, effectively ignoring the contents of the CHFRAMEPOS record
which contains the position relative to the default title position
(according to the spec, the CHFRAMEPOS supersedes the CHTEXT record).
Especially when it comes to axis titles, things would become very
complicated here, because the relative title position is stored in a
measurement unit that is dependent on the size of the inner plot area,
the interpretation of the X and Y coordinate is dependent on the
direction of the axis, and in 3D charts, and the title default
positions are dependent on the 3D view settings (rotation, elevation,
and perspective). Thus, it is easier to assume that the creator has
written out the correct absolute position and size of the title in the
CHTEXT record. This is assured by checking that the shape size stored
in the CHTEXT record is non-zero. */
if( !((rPosData.mnTLMode == EXC_CHFRAMEPOS_PARENT) &&
((rPosData.maRect.mnX != 0) || (rPosData.maRect.mnY != 0)) &&
(maData.maRect.mnWidth > 0) && (maData.maRect.mnHeight > 0)) )
return;
try
{
Reference< XShape > xTitleShape( GetTitleShape( rTitleKey ), UNO_SET_THROW );
// the call to XShape.getSize() may recalc the chart view
css::awt::Size aTitleSize = xTitleShape->getSize();
// rotated titles need special handling...
Degree100 nScRot = XclTools::GetScRotation( GetRotation(), 0_deg100 );
double fRad = toRadians(nScRot);
double fSin = fabs( sin( fRad ) );
// calculate the title position from the values in the CHTEXT record
css::awt::Point aTitlePos(
CalcHmmFromChartX( maData.maRect.mnX ),
CalcHmmFromChartY( maData.maRect.mnY ) );
// add part of height to X direction, if title is rotated down (clockwise)
if( nScRot > 18000_deg100 )
aTitlePos.X += static_cast< sal_Int32 >( fSin * aTitleSize.Height + 0.5 );
// add part of width to Y direction, if title is rotated up (counterclockwise)
else if( nScRot > 0_deg100 )
aTitlePos.Y += static_cast< sal_Int32 >( fSin * aTitleSize.Width + 0.5 );
// set the resulting position at the title shape
xTitleShape->setPosition( aTitlePos );
}
catch( Exception& )
{
}
}
void XclImpChText::ReadChFrLabelProps( XclImpStream& rStrm )
{
if( GetBiff() == EXC_BIFF8 )
{
mxLabelProps = std::make_shared<XclChFrLabelProps>();
sal_uInt16 nSepLen;
rStrm.Ignore( 12 );
mxLabelProps->mnFlags = rStrm.ReaduInt16();
nSepLen = rStrm.ReaduInt16();
if( nSepLen > 0 )
mxLabelProps->maSeparator = rStrm.ReadUniString( nSepLen );
}
}
namespace {
void lclUpdateText( XclImpChTextRef& rxText, const XclImpChText* xDefText )
{
if (rxText)
rxText->UpdateText( xDefText );
else if (xDefText)
{
rxText = std::make_shared<XclImpChText>(*xDefText);
}
}
void lclFinalizeTitle( XclImpChTextRef& rxTitle, const XclImpChText* pDefText, const OUString& rAutoTitle )
{
/* Do not update a title, if it is not visible (if rxTitle is null).
Existing reference indicates enabled title. */
if( rxTitle )
{
if( !rxTitle->HasString() )
rxTitle->SetString( rAutoTitle );
if( rxTitle->HasString() )
rxTitle->UpdateText(pDefText);
else
rxTitle.reset();
}
}
} // namespace
// Data series ================================================================
void XclImpChMarkerFormat::ReadChMarkerFormat( XclImpStream& rStrm )
{
rStrm >> maData.maLineColor >> maData.maFillColor;
maData.mnMarkerType = rStrm.ReaduInt16();
maData.mnFlags = rStrm.ReaduInt16();
const XclImpRoot& rRoot = rStrm.GetRoot();
if( rRoot.GetBiff() == EXC_BIFF8 )
{
// BIFF8: index into palette used instead of RGB data
const XclImpPalette& rPal = rRoot.GetPalette();
maData.maLineColor = rPal.GetColor( rStrm.ReaduInt16() );
maData.maFillColor = rPal.GetColor( rStrm.ReaduInt16() );
// marker size
maData.mnMarkerSize = rStrm.ReaduInt32();
}
}
void XclImpChMarkerFormat::Convert( const XclImpChRoot& rRoot,
ScfPropertySet& rPropSet, sal_uInt16 nFormatIdx, sal_Int16 nLineWeight ) const
{
if( IsAuto() )
{
XclChMarkerFormat aMarkerFmt;
// line and fill color of the symbol are equal to series line color
//TODO: Excel sets no fill color for specific symbols (e.g. cross)
aMarkerFmt.maLineColor = aMarkerFmt.maFillColor = rRoot.GetSeriesLineAutoColor( nFormatIdx );
switch( nLineWeight )
{
case EXC_CHLINEFORMAT_HAIR: aMarkerFmt.mnMarkerSize = EXC_CHMARKERFORMAT_HAIRSIZE; break;
case EXC_CHLINEFORMAT_SINGLE: aMarkerFmt.mnMarkerSize = EXC_CHMARKERFORMAT_SINGLESIZE; break;
case EXC_CHLINEFORMAT_DOUBLE: aMarkerFmt.mnMarkerSize = EXC_CHMARKERFORMAT_DOUBLESIZE; break;
case EXC_CHLINEFORMAT_TRIPLE: aMarkerFmt.mnMarkerSize = EXC_CHMARKERFORMAT_TRIPLESIZE; break;
default: aMarkerFmt.mnMarkerSize = EXC_CHMARKERFORMAT_SINGLESIZE;
}
aMarkerFmt.mnMarkerType = XclChartHelper::GetAutoMarkerType( nFormatIdx );
XclChPropSetHelper::WriteMarkerProperties( rPropSet, aMarkerFmt );
}
else
{
XclChPropSetHelper::WriteMarkerProperties( rPropSet, maData );
}
}
void XclImpChMarkerFormat::ConvertColor( const XclImpChRoot& rRoot,
ScfPropertySet& rPropSet, sal_uInt16 nFormatIdx ) const
{
Color aLineColor = IsAuto() ? rRoot.GetSeriesLineAutoColor( nFormatIdx ) : maData.maFillColor;
rPropSet.SetColorProperty( EXC_CHPROP_COLOR, aLineColor );
}
XclImpChPieFormat::XclImpChPieFormat() :
mnPieDist( 0 )
{
}
void XclImpChPieFormat::ReadChPieFormat( XclImpStream& rStrm )
{
mnPieDist = rStrm.ReaduInt16();
}
void XclImpChPieFormat::Convert( ScfPropertySet& rPropSet ) const
{
double fApiDist = ::std::min< double >( mnPieDist / 100.0, 1.0 );
rPropSet.SetProperty( EXC_CHPROP_OFFSET, fApiDist );
}
XclImpChSeriesFormat::XclImpChSeriesFormat() :
mnFlags( 0 )
{
}
void XclImpChSeriesFormat::ReadChSeriesFormat( XclImpStream& rStrm )
{
mnFlags = rStrm.ReaduInt16();
}
void XclImpCh3dDataFormat::ReadCh3dDataFormat( XclImpStream& rStrm )
{
maData.mnBase = rStrm.ReaduInt8();
maData.mnTop = rStrm.ReaduInt8();
}
void XclImpCh3dDataFormat::Convert( ScfPropertySet& rPropSet ) const
{
using namespace ::com::sun::star::chart2::DataPointGeometry3D;
sal_Int32 nApiType = (maData.mnBase == EXC_CH3DDATAFORMAT_RECT) ?
((maData.mnTop == EXC_CH3DDATAFORMAT_STRAIGHT) ? CUBOID : PYRAMID) :
((maData.mnTop == EXC_CH3DDATAFORMAT_STRAIGHT) ? CYLINDER : CONE);
rPropSet.SetProperty( EXC_CHPROP_GEOMETRY3D, nApiType );
}
XclImpChAttachedLabel::XclImpChAttachedLabel( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot ),
mnFlags( 0 )
{
}
void XclImpChAttachedLabel::ReadChAttachedLabel( XclImpStream& rStrm )
{
mnFlags = rStrm.ReaduInt16();
}
XclImpChTextRef XclImpChAttachedLabel::CreateDataLabel( const XclImpChText* pParent ) const
{
const sal_uInt16 EXC_CHATTLABEL_SHOWANYVALUE = EXC_CHATTLABEL_SHOWVALUE;
const sal_uInt16 EXC_CHATTLABEL_SHOWANYPERCENT = EXC_CHATTLABEL_SHOWPERCENT | EXC_CHATTLABEL_SHOWCATEGPERC;
const sal_uInt16 EXC_CHATTLABEL_SHOWANYCATEG = EXC_CHATTLABEL_SHOWCATEG | EXC_CHATTLABEL_SHOWCATEGPERC;
XclImpChTextRef xLabel;
if ( pParent )
xLabel = std::make_shared<XclImpChText>( *pParent );
else
xLabel = std::make_shared<XclImpChText>( GetChRoot() );
xLabel->UpdateDataLabel(
::get_flag( mnFlags, EXC_CHATTLABEL_SHOWANYCATEG ),
::get_flag( mnFlags, EXC_CHATTLABEL_SHOWANYVALUE ),
::get_flag( mnFlags, EXC_CHATTLABEL_SHOWANYPERCENT ) );
return xLabel;
}
XclImpChDataFormat::XclImpChDataFormat( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot )
{
}
void XclImpChDataFormat::ReadHeaderRecord( XclImpStream& rStrm )
{
maData.maPointPos.mnPointIdx = rStrm.ReaduInt16();
maData.maPointPos.mnSeriesIdx = rStrm.ReaduInt16();
maData.mnFormatIdx = rStrm.ReaduInt16();
maData.mnFlags = rStrm.ReaduInt16();
}
void XclImpChDataFormat::ReadSubRecord( XclImpStream& rStrm )
{
switch( rStrm.GetRecId() )
{
case EXC_ID_CHMARKERFORMAT:
mxMarkerFmt = std::make_shared<XclImpChMarkerFormat>();
mxMarkerFmt->ReadChMarkerFormat( rStrm );
break;
case EXC_ID_CHPIEFORMAT:
mxPieFmt = std::make_shared<XclImpChPieFormat>();
mxPieFmt->ReadChPieFormat( rStrm );
break;
case EXC_ID_CHSERIESFORMAT:
mxSeriesFmt = std::make_shared<XclImpChSeriesFormat>();
mxSeriesFmt->ReadChSeriesFormat( rStrm );
break;
case EXC_ID_CH3DDATAFORMAT:
mx3dDataFmt = std::make_shared<XclImpCh3dDataFormat>();
mx3dDataFmt->ReadCh3dDataFormat( rStrm );
break;
case EXC_ID_CHATTACHEDLABEL:
mxAttLabel = std::make_shared<XclImpChAttachedLabel>( GetChRoot() );
mxAttLabel->ReadChAttachedLabel( rStrm );
break;
default:
XclImpChFrameBase::ReadSubRecord( rStrm );
}
}
void XclImpChDataFormat::SetPointPos( const XclChDataPointPos& rPointPos, sal_uInt16 nFormatIdx )
{
maData.maPointPos = rPointPos;
maData.mnFormatIdx = nFormatIdx;
}
void XclImpChDataFormat::UpdateGroupFormat( const XclChExtTypeInfo& rTypeInfo )
{
// remove formats not used for the current chart type
RemoveUnusedFormats( rTypeInfo );
}
void XclImpChDataFormat::UpdateSeriesFormat( const XclChExtTypeInfo& rTypeInfo, const XclImpChDataFormat* pGroupFmt )
{
// update missing formats from passed chart type group format
if( pGroupFmt )
{
if( !mxLineFmt )
mxLineFmt = pGroupFmt->mxLineFmt;
if( !mxAreaFmt && !mxEscherFmt )
{
mxAreaFmt = pGroupFmt->mxAreaFmt;
mxEscherFmt = pGroupFmt->mxEscherFmt;
}
if( !mxMarkerFmt )
mxMarkerFmt = pGroupFmt->mxMarkerFmt;
if( !mxPieFmt )
mxPieFmt = pGroupFmt->mxPieFmt;
if( !mxSeriesFmt )
mxSeriesFmt = pGroupFmt->mxSeriesFmt;
if( !mx3dDataFmt )
mx3dDataFmt = pGroupFmt->mx3dDataFmt;
if( !mxAttLabel )
mxAttLabel = pGroupFmt->mxAttLabel;
}
/* Create missing but required formats. Existing line, area, and marker
format objects are needed to create automatic series formatting. */
if( !mxLineFmt )
mxLineFmt = new XclImpChLineFormat();
if( !mxAreaFmt && !mxEscherFmt )
mxAreaFmt = std::make_shared<XclImpChAreaFormat>();
if( !mxMarkerFmt )
mxMarkerFmt = std::make_shared<XclImpChMarkerFormat>();
// remove formats not used for the current chart type
RemoveUnusedFormats( rTypeInfo );
// update data label
UpdateDataLabel( pGroupFmt );
}
void XclImpChDataFormat::UpdatePointFormat( const XclChExtTypeInfo& rTypeInfo, const XclImpChDataFormat* pSeriesFmt )
{
// remove formats if they are automatic in this and in the passed series format
if( pSeriesFmt )
{
if( IsAutoLine() && pSeriesFmt->IsAutoLine() )
mxLineFmt.clear();
if( IsAutoArea() && pSeriesFmt->IsAutoArea() )
mxAreaFmt.reset();
if( IsAutoMarker() && pSeriesFmt->IsAutoMarker() )
mxMarkerFmt.reset();
mxSeriesFmt.reset();
}
// Excel ignores 3D bar format for single data points
mx3dDataFmt.reset();
// remove point line formats for linear chart types, TODO: implement in OOChart
if( !rTypeInfo.IsSeriesFrameFormat() )
mxLineFmt.clear();
// remove formats not used for the current chart type
RemoveUnusedFormats( rTypeInfo );
// update data label
UpdateDataLabel( pSeriesFmt );
}
void XclImpChDataFormat::UpdateTrendLineFormat()
{
if( !mxLineFmt )
mxLineFmt = new XclImpChLineFormat();
mxAreaFmt.reset();
mxEscherFmt.reset();
mxMarkerFmt.reset();
mxPieFmt.reset();
mxSeriesFmt.reset();
mx3dDataFmt.reset();
mxAttLabel.reset();
// update data label
UpdateDataLabel( nullptr );
}
void XclImpChDataFormat::Convert( ScfPropertySet& rPropSet, const XclChExtTypeInfo& rTypeInfo, const ScfPropertySet* pGlobalPropSet ) const
{
/* Line and area format.
#i71810# If the data points are filled with bitmaps, textures, or
patterns, then only bar charts will use the CHPICFORMAT record to
determine stacking/stretching mode. All other chart types ignore this
record and always use the property 'fill-type' from the DFF property
set (stretched for bitmaps, and stacked for textures and patterns). */
bool bUsePicFmt = rTypeInfo.meTypeCateg == EXC_CHTYPECATEG_BAR;
ConvertFrameBase( GetChRoot(), rPropSet, rTypeInfo.GetSeriesObjectType(), maData.mnFormatIdx, bUsePicFmt );
// #i83151# only hair lines in 3D charts with filled data points
if( rTypeInfo.mb3dChart && rTypeInfo.IsSeriesFrameFormat() && mxLineFmt && mxLineFmt->HasLine() )
rPropSet.SetProperty< sal_Int32 >( u"BorderWidth"_ustr, 0 );
// other formatting
if( mxMarkerFmt )
mxMarkerFmt->Convert( GetChRoot(), rPropSet, maData.mnFormatIdx, GetLineWeight() );
if( mxPieFmt )
mxPieFmt->Convert( rPropSet );
if( mx3dDataFmt )
mx3dDataFmt->Convert( rPropSet );
if( mxLabel )
mxLabel->ConvertDataLabel( rPropSet, rTypeInfo, pGlobalPropSet );
// 3D settings
rPropSet.SetProperty< sal_Int16 >( EXC_CHPROP_PERCENTDIAGONAL, 0 );
/* Special case: set marker color as line color, if series line is not
visible. This makes the color visible in the marker area.
TODO: remove this if OOChart supports own colors in markers. */
if( !rTypeInfo.IsSeriesFrameFormat() && !HasLine() && mxMarkerFmt )
mxMarkerFmt->ConvertColor( GetChRoot(), rPropSet, maData.mnFormatIdx );
}
void XclImpChDataFormat::ConvertLine( ScfPropertySet& rPropSet, XclChObjectType eObjType ) const
{
ConvertLineBase( GetChRoot(), rPropSet, eObjType );
}
void XclImpChDataFormat::ConvertArea( ScfPropertySet& rPropSet, sal_uInt16 nFormatIdx ) const
{
ConvertAreaBase( GetChRoot(), rPropSet, EXC_CHOBJTYPE_FILLEDSERIES, nFormatIdx );
}
void XclImpChDataFormat::RemoveUnusedFormats( const XclChExtTypeInfo& rTypeInfo )
{
// data point marker only in linear 2D charts
if( rTypeInfo.IsSeriesFrameFormat() )
mxMarkerFmt.reset();
// pie format only in pie/donut charts
if( rTypeInfo.meTypeCateg != EXC_CHTYPECATEG_PIE )
mxPieFmt.reset();
// 3D format only in 3D bar charts
if( !rTypeInfo.mb3dChart || (rTypeInfo.meTypeCateg != EXC_CHTYPECATEG_BAR) )
mx3dDataFmt.reset();
}
void XclImpChDataFormat::UpdateDataLabel( const XclImpChDataFormat* pParentFmt )
{
/* CHTEXT groups linked to data labels override existing CHATTACHEDLABEL
records. Only if there is a CHATTACHEDLABEL record without a CHTEXT
group, the contents of the CHATTACHEDLABEL record are used. In this
case a new CHTEXT group is created and filled with the settings from
the CHATTACHEDLABEL record. */
const XclImpChText* pDefText = nullptr;
if (pParentFmt)
pDefText = pParentFmt->GetDataLabel();
if (!pDefText)
pDefText = GetChartData().GetDefaultText( EXC_CHTEXTTYPE_DATALABEL );
if (mxLabel)
mxLabel->UpdateText(pDefText);
else if (mxAttLabel)
mxLabel = mxAttLabel->CreateDataLabel( pDefText );
}
XclImpChSerTrendLine::XclImpChSerTrendLine( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot )
{
}
void XclImpChSerTrendLine::ReadChSerTrendLine( XclImpStream& rStrm )
{
maData.mnLineType = rStrm.ReaduInt8();
maData.mnOrder = rStrm.ReaduInt8();
maData.mfIntercept = rStrm.ReadDouble();
maData.mnShowEquation = rStrm.ReaduInt8();
maData.mnShowRSquared = rStrm.ReaduInt8();
maData.mfForecastFor = rStrm.ReadDouble();
maData.mfForecastBack = rStrm.ReadDouble();
}
Reference< XRegressionCurve > XclImpChSerTrendLine::CreateRegressionCurve() const
{
// trend line type
Reference< XRegressionCurve > xRegCurve;
switch( maData.mnLineType )
{
case EXC_CHSERTREND_POLYNOMIAL:
if( maData.mnOrder == 1 )
{
xRegCurve = LinearRegressionCurve::create( comphelper::getProcessComponentContext() );
} else {
xRegCurve = PolynomialRegressionCurve::create( comphelper::getProcessComponentContext() );
}
break;
case EXC_CHSERTREND_EXPONENTIAL:
xRegCurve = ExponentialRegressionCurve::create( comphelper::getProcessComponentContext() );
break;
case EXC_CHSERTREND_LOGARITHMIC:
xRegCurve = LogarithmicRegressionCurve::create( comphelper::getProcessComponentContext() );
break;
case EXC_CHSERTREND_POWER:
xRegCurve = PotentialRegressionCurve::create( comphelper::getProcessComponentContext() );
break;
case EXC_CHSERTREND_MOVING_AVG:
xRegCurve = MovingAverageRegressionCurve::create( comphelper::getProcessComponentContext() );
break;
}
// trend line formatting
if( xRegCurve.is() && mxDataFmt )
{
ScfPropertySet aPropSet( xRegCurve );
mxDataFmt->ConvertLine( aPropSet, EXC_CHOBJTYPE_TRENDLINE );
aPropSet.SetProperty(EXC_CHPROP_CURVENAME, maTrendLineName);
aPropSet.SetProperty(EXC_CHPROP_POLYNOMIAL_DEGREE, static_cast<sal_Int32> (maData.mnOrder) );
aPropSet.SetProperty(EXC_CHPROP_MOVING_AVERAGE_PERIOD, static_cast<sal_Int32> (maData.mnOrder) );
aPropSet.SetProperty(EXC_CHPROP_EXTRAPOLATE_FORWARD, maData.mfForecastFor);
aPropSet.SetProperty(EXC_CHPROP_EXTRAPOLATE_BACKWARD, maData.mfForecastBack);
bool bForceIntercept = std::isfinite(maData.mfIntercept);
aPropSet.SetProperty(EXC_CHPROP_FORCE_INTERCEPT, bForceIntercept);
if (bForceIntercept)
{
aPropSet.SetProperty(EXC_CHPROP_INTERCEPT_VALUE, maData.mfIntercept);
}
// #i83100# show equation and correlation coefficient
ScfPropertySet aLabelProp( xRegCurve->getEquationProperties() );
aLabelProp.SetBoolProperty( EXC_CHPROP_SHOWEQUATION, maData.mnShowEquation != 0 );
aLabelProp.SetBoolProperty( EXC_CHPROP_SHOWCORRELATION, maData.mnShowRSquared != 0 );
// #i83100# formatting of the equation text box
if (const XclImpChText* pLabel = mxDataFmt->GetDataLabel())
{
pLabel->ConvertFont( aLabelProp );
pLabel->ConvertFrame( aLabelProp );
pLabel->ConvertNumFmt( aLabelProp, false );
}
}
return xRegCurve;
}
XclImpChSerErrorBar::XclImpChSerErrorBar( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot )
{
}
void XclImpChSerErrorBar::ReadChSerErrorBar( XclImpStream& rStrm )
{
maData.mnBarType = rStrm.ReaduInt8();
maData.mnSourceType = rStrm.ReaduInt8();
maData.mnLineEnd = rStrm.ReaduInt8();
rStrm.Ignore( 1 );
maData.mfValue = rStrm.ReadDouble();
maData.mnValueCount = rStrm.ReaduInt16();
}
void XclImpChSerErrorBar::SetSeriesData( XclImpChSourceLinkRef const & xValueLink, XclImpChDataFormatRef const & xDataFmt )
{
mxValueLink = xValueLink;
mxDataFmt = xDataFmt;
}
Reference< XLabeledDataSequence > XclImpChSerErrorBar::CreateValueSequence() const
{
return lclCreateLabeledDataSequence( mxValueLink, XclChartHelper::GetErrorBarValuesRole( maData.mnBarType ) );
}
Reference< XPropertySet > XclImpChSerErrorBar::CreateErrorBar( const XclImpChSerErrorBar* pPosBar, const XclImpChSerErrorBar* pNegBar )
{
Reference< XPropertySet > xErrorBar;
if( const XclImpChSerErrorBar* pPrimaryBar = pPosBar ? pPosBar : pNegBar )
{
xErrorBar.set( ScfApiHelper::CreateInstance( SERVICE_CHART2_ERRORBAR ), UNO_QUERY );
ScfPropertySet aBarProp( xErrorBar );
// plus/minus bars visible?
aBarProp.SetBoolProperty( EXC_CHPROP_SHOWPOSITIVEERROR, pPosBar != nullptr );
aBarProp.SetBoolProperty( EXC_CHPROP_SHOWNEGATIVEERROR, pNegBar != nullptr );
// type of displayed error
switch( pPrimaryBar->maData.mnSourceType )
{
case EXC_CHSERERR_PERCENT:
aBarProp.SetProperty( EXC_CHPROP_ERRORBARSTYLE, cssc::ErrorBarStyle::RELATIVE );
aBarProp.SetProperty( EXC_CHPROP_POSITIVEERROR, pPrimaryBar->maData.mfValue );
aBarProp.SetProperty( EXC_CHPROP_NEGATIVEERROR, pPrimaryBar->maData.mfValue );
break;
case EXC_CHSERERR_FIXED:
aBarProp.SetProperty( EXC_CHPROP_ERRORBARSTYLE, cssc::ErrorBarStyle::ABSOLUTE );
aBarProp.SetProperty( EXC_CHPROP_POSITIVEERROR, pPrimaryBar->maData.mfValue );
aBarProp.SetProperty( EXC_CHPROP_NEGATIVEERROR, pPrimaryBar->maData.mfValue );
break;
case EXC_CHSERERR_STDDEV:
aBarProp.SetProperty( EXC_CHPROP_ERRORBARSTYLE, cssc::ErrorBarStyle::STANDARD_DEVIATION );
aBarProp.SetProperty( EXC_CHPROP_WEIGHT, pPrimaryBar->maData.mfValue );
break;
case EXC_CHSERERR_STDERR:
aBarProp.SetProperty( EXC_CHPROP_ERRORBARSTYLE, cssc::ErrorBarStyle::STANDARD_ERROR );
break;
case EXC_CHSERERR_CUSTOM:
{
aBarProp.SetProperty( EXC_CHPROP_ERRORBARSTYLE, cssc::ErrorBarStyle::FROM_DATA );
// attach data sequences to error bar
Reference< XDataSink > xDataSink( xErrorBar, UNO_QUERY );
if( xDataSink.is() )
{
// create vector of all value sequences
::std::vector< Reference< XLabeledDataSequence > > aLabeledSeqVec;
// add positive values
if( pPosBar )
{
Reference< XLabeledDataSequence > xValueSeq = pPosBar->CreateValueSequence();
if( xValueSeq.is() )
aLabeledSeqVec.push_back( xValueSeq );
}
// add negative values
if( pNegBar )
{
Reference< XLabeledDataSequence > xValueSeq = pNegBar->CreateValueSequence();
if( xValueSeq.is() )
aLabeledSeqVec.push_back( xValueSeq );
}
// attach labeled data sequences to series
if( aLabeledSeqVec.empty() )
xErrorBar.clear();
else
xDataSink->setData( ScfApiHelper::VectorToSequence( aLabeledSeqVec ) );
}
}
break;
default:
xErrorBar.clear();
}
// error bar formatting
if( pPrimaryBar->mxDataFmt && xErrorBar.is() )
pPrimaryBar->mxDataFmt->ConvertLine( aBarProp, EXC_CHOBJTYPE_ERRORBAR );
}
return xErrorBar;
}
XclImpChSeries::XclImpChSeries( const XclImpChRoot& rRoot, sal_uInt16 nSeriesIdx ) :
XclImpChRoot( rRoot ),
mnGroupIdx( EXC_CHSERGROUP_NONE ),
mnSeriesIdx( nSeriesIdx ),
mnParentIdx( EXC_CHSERIES_INVALID ),
mbLabelDeleted( false )
{
}
void XclImpChSeries::ReadHeaderRecord( XclImpStream& rStrm )
{
maData.mnCategType = rStrm.ReaduInt16();
maData.mnValueType = rStrm.ReaduInt16();
maData.mnCategCount = rStrm.ReaduInt16();
maData.mnValueCount = rStrm.ReaduInt16();
if( GetBiff() == EXC_BIFF8 )
{
maData.mnBubbleType = rStrm.ReaduInt16();
maData.mnBubbleCount = rStrm.ReaduInt16();
}
}
void XclImpChSeries::ReadSubRecord( XclImpStream& rStrm )
{
switch( rStrm.GetRecId() )
{
case EXC_ID_CHSOURCELINK:
ReadChSourceLink( rStrm );
break;
case EXC_ID_CHDATAFORMAT:
ReadChDataFormat( rStrm );
break;
case EXC_ID_CHSERGROUP:
mnGroupIdx = rStrm.ReaduInt16();
break;
case EXC_ID_CHSERPARENT:
ReadChSerParent( rStrm );
break;
case EXC_ID_CHSERTRENDLINE:
ReadChSerTrendLine( rStrm );
break;
case EXC_ID_CHSERERRORBAR:
ReadChSerErrorBar( rStrm );
break;
case EXC_ID_CHLEGENDEXCEPTION:
ReadChLegendException( rStrm );
break;
}
}
void XclImpChSeries::SetDataFormat( const XclImpChDataFormatRef& xDataFmt )
{
if (!xDataFmt)
return;
sal_uInt16 nPointIdx = xDataFmt->GetPointPos().mnPointIdx;
if (nPointIdx == EXC_CHDATAFORMAT_ALLPOINTS)
{
if (mxSeriesFmt)
// Don't overwrite the existing format.
return;
mxSeriesFmt = xDataFmt;
if (HasParentSeries())
return;
XclImpChTypeGroupRef pTypeGroup = GetChartData().GetTypeGroup(mnGroupIdx);
if (pTypeGroup)
pTypeGroup->SetUsedFormatIndex(xDataFmt->GetFormatIdx());
return;
}
if (nPointIdx >= EXC_CHDATAFORMAT_MAXPOINTCOUNT)
// Above the max point count. Bail out.
return;
XclImpChDataFormatMap::iterator itr = maPointFmts.lower_bound(nPointIdx);
if (itr == maPointFmts.end() || maPointFmts.key_comp()(nPointIdx, itr->first))
{
// No object exists at this point index position. Insert it.
itr = maPointFmts.insert(itr, XclImpChDataFormatMap::value_type(nPointIdx, xDataFmt));
}
}
void XclImpChSeries::SetDataLabel( const XclImpChTextRef& xLabel )
{
if (!xLabel)
return;
sal_uInt16 nPointIdx = xLabel->GetPointPos().mnPointIdx;
if ((nPointIdx != EXC_CHDATAFORMAT_ALLPOINTS) && (nPointIdx >= EXC_CHDATAFORMAT_MAXPOINTCOUNT))
// Above the maximum allowed data points. Bail out.
return;
XclImpChTextMap::iterator itr = maLabels.lower_bound(nPointIdx);
if (itr == maLabels.end() || maLabels.key_comp()(nPointIdx, itr->first))
{
// No object exists at this point index position. Insert it.
itr = maLabels.insert(itr, XclImpChTextMap::value_type(nPointIdx, xLabel));
}
}
void XclImpChSeries::AddChildSeries( const XclImpChSeries& rSeries )
{
OSL_ENSURE( !HasParentSeries(), "XclImpChSeries::AddChildSeries - not allowed for child series" );
if (&rSeries == this)
{
SAL_WARN("sc.filter", "self add attempt");
return;
}
/* In Excel, trend lines and error bars are stored as own series. In Calc,
these are properties of the parent series. This function adds the
settings of the passed series to this series. */
maTrendLines.insert( maTrendLines.end(), rSeries.maTrendLines.begin(), rSeries.maTrendLines.end() );
for (auto const& it : rSeries.m_ErrorBars)
{
m_ErrorBars.insert(std::make_pair(it.first, std::make_unique<XclImpChSerErrorBar>(*it.second)));
}
}
void XclImpChSeries::FinalizeDataFormats()
{
if( HasParentSeries() )
{
// *** series is a child series, e.g. trend line or error bar ***
// create missing series format
if( !mxSeriesFmt )
mxSeriesFmt = CreateDataFormat( EXC_CHDATAFORMAT_ALLPOINTS, 0 );
if( mxSeriesFmt )
{
// #i83100# set text label format, e.g. for trend line equations
XclImpChTextRef xLabel;
XclImpChTextMap::iterator itr = maLabels.find(EXC_CHDATAFORMAT_ALLPOINTS);
if (itr != maLabels.end())
xLabel = itr->second;
mxSeriesFmt->SetDataLabel(xLabel);
// create missing automatic formats
mxSeriesFmt->UpdateTrendLineFormat();
}
// copy series formatting to child objects
for (auto const& trendLine : maTrendLines)
{
trendLine->SetDataFormat(mxSeriesFmt);
if (mxTitleLink && mxTitleLink->HasString())
{
trendLine->SetTrendlineName(mxTitleLink->GetString());
}
}
for (auto const& it : m_ErrorBars)
{
it.second->SetSeriesData( mxValueLink, mxSeriesFmt );
}
}
else if( XclImpChTypeGroup* pTypeGroup = GetChartData().GetTypeGroup( mnGroupIdx ).get() )
{
// *** series is a regular data series ***
// create missing series format
if( !mxSeriesFmt )
{
// #i51639# use a new unused format index to create series default format
sal_uInt16 nFormatIdx = pTypeGroup->PopUnusedFormatIndex();
mxSeriesFmt = CreateDataFormat( EXC_CHDATAFORMAT_ALLPOINTS, nFormatIdx );
}
// set text labels to data formats
for (auto const& label : maLabels)
{
sal_uInt16 nPointIdx = label.first;
if (nPointIdx == EXC_CHDATAFORMAT_ALLPOINTS)
{
if (!mxSeriesFmt)
mxSeriesFmt = CreateDataFormat(nPointIdx, EXC_CHDATAFORMAT_DEFAULT);
mxSeriesFmt->SetDataLabel(label.second);
}
else if (nPointIdx < EXC_CHDATAFORMAT_MAXPOINTCOUNT)
{
XclImpChDataFormatRef p;
XclImpChDataFormatMap::iterator itr = maPointFmts.lower_bound(nPointIdx);
if (itr == maPointFmts.end() || maPointFmts.key_comp()(nPointIdx, itr->first))
{
// No object exists at this point index position. Insert
// a new one.
p = CreateDataFormat(nPointIdx, EXC_CHDATAFORMAT_DEFAULT);
itr = maPointFmts.insert(
itr, XclImpChDataFormatMap::value_type(nPointIdx, p));
}
else
p = itr->second;
p->SetDataLabel(label.second);
}
}
// update series format (copy missing formatting from group default format)
if( mxSeriesFmt )
mxSeriesFmt->UpdateSeriesFormat( pTypeGroup->GetTypeInfo(), pTypeGroup->GetGroupFormat().get() );
// update data point formats (removes unchanged automatic formatting)
for (auto const& pointFormat : maPointFmts)
pointFormat.second->UpdatePointFormat( pTypeGroup->GetTypeInfo(), mxSeriesFmt.get() );
}
}
namespace {
/** Returns the property set of the specified data point. */
ScfPropertySet lclGetPointPropSet( Reference< XDataSeries > const & xDataSeries, sal_uInt16 nPointIdx )
{
ScfPropertySet aPropSet;
try
{
aPropSet.Set( xDataSeries->getDataPointByIndex( static_cast< sal_Int32 >( nPointIdx ) ) );
}
catch( Exception& )
{
OSL_FAIL( "lclGetPointPropSet - no data point property set" );
}
return aPropSet;
}
} // namespace
Reference< XLabeledDataSequence > XclImpChSeries::CreateValueSequence( const OUString& rValueRole ) const
{
return lclCreateLabeledDataSequence( mxValueLink, rValueRole, mxTitleLink.get() );
}
Reference< XLabeledDataSequence > XclImpChSeries::CreateCategSequence( const OUString& rCategRole ) const
{
return lclCreateLabeledDataSequence( mxCategLink, rCategRole );
}
Reference< XDataSeries > XclImpChSeries::CreateDataSeries() const
{
Reference< XDataSeries > xDataSeries;
if( const XclImpChTypeGroup* pTypeGroup = GetChartData().GetTypeGroup( mnGroupIdx ).get() )
{
const XclChExtTypeInfo& rTypeInfo = pTypeGroup->GetTypeInfo();
// create the data series object
xDataSeries.set( ScfApiHelper::CreateInstance( SERVICE_CHART2_DATASERIES ), UNO_QUERY );
// attach data and title sequences to series
Reference< XDataSink > xDataSink( xDataSeries, UNO_QUERY );
if( xDataSink.is() )
{
// create vector of all value sequences
::std::vector< Reference< XLabeledDataSequence > > aLabeledSeqVec;
// add Y values
Reference< XLabeledDataSequence > xYValueSeq =
CreateValueSequence( EXC_CHPROP_ROLE_YVALUES );
if( xYValueSeq.is() )
aLabeledSeqVec.push_back( xYValueSeq );
// add X values
if( !rTypeInfo.mbCategoryAxis )
{
Reference< XLabeledDataSequence > xXValueSeq =
CreateCategSequence( EXC_CHPROP_ROLE_XVALUES );
if( xXValueSeq.is() )
aLabeledSeqVec.push_back( xXValueSeq );
// add size values of bubble charts
if( rTypeInfo.meTypeId == EXC_CHTYPEID_BUBBLES )
{
Reference< XLabeledDataSequence > xSizeValueSeq =
lclCreateLabeledDataSequence( mxBubbleLink, EXC_CHPROP_ROLE_SIZEVALUES, mxTitleLink.get() );
if( xSizeValueSeq.is() )
aLabeledSeqVec.push_back( xSizeValueSeq );
}
}
// attach labeled data sequences to series
if( !aLabeledSeqVec.empty() )
xDataSink->setData( ScfApiHelper::VectorToSequence( aLabeledSeqVec ) );
}
// series formatting
ScfPropertySet aSeriesProp( xDataSeries );
if( mxSeriesFmt )
mxSeriesFmt->Convert( aSeriesProp, rTypeInfo );
if (mbLabelDeleted)
aSeriesProp.SetProperty(EXC_CHPROP_SHOWLEGENDENTRY, false);
// trend lines
ConvertTrendLines( xDataSeries );
// error bars
Reference< XPropertySet > xErrorBarX = CreateErrorBar( EXC_CHSERERR_XPLUS, EXC_CHSERERR_XMINUS );
if( xErrorBarX.is() )
aSeriesProp.SetProperty( EXC_CHPROP_ERRORBARX, xErrorBarX );
Reference< XPropertySet > xErrorBarY = CreateErrorBar( EXC_CHSERERR_YPLUS, EXC_CHSERERR_YMINUS );
if( xErrorBarY.is() )
aSeriesProp.SetProperty( EXC_CHPROP_ERRORBARY, xErrorBarY );
// own area formatting for every data point (TODO: varying line color not supported)
bool bVarPointFmt = pTypeGroup->HasVarPointFormat() && rTypeInfo.IsSeriesFrameFormat();
aSeriesProp.SetBoolProperty( EXC_CHPROP_VARYCOLORSBY, rTypeInfo.meTypeCateg == EXC_CHTYPECATEG_PIE );
// #i91271# always set area formatting for every point in pie/doughnut charts
if (mxSeriesFmt && mxValueLink && ((bVarPointFmt && mxSeriesFmt->IsAutoArea()) || (rTypeInfo.meTypeCateg == EXC_CHTYPECATEG_PIE)))
{
for( sal_uInt16 nPointIdx = 0, nPointCount = mxValueLink->GetCellCount(); nPointIdx < nPointCount; ++nPointIdx )
{
ScfPropertySet aPointProp = lclGetPointPropSet( xDataSeries, nPointIdx );
mxSeriesFmt->ConvertArea( aPointProp, bVarPointFmt ? nPointIdx : mnSeriesIdx );
}
}
// data point formatting
for (auto const& pointFormat : maPointFmts)
{
ScfPropertySet aPointProp = lclGetPointPropSet( xDataSeries, pointFormat.first );
pointFormat.second->Convert( aPointProp, rTypeInfo, &aSeriesProp );
}
}
return xDataSeries;
}
void XclImpChSeries::FillAllSourceLinks( ::std::vector< ScTokenRef >& rTokens ) const
{
if( mxValueLink )
mxValueLink->FillSourceLink( rTokens );
if( mxCategLink )
mxCategLink->FillSourceLink( rTokens );
if( mxTitleLink )
mxTitleLink->FillSourceLink( rTokens );
if( mxBubbleLink )
mxBubbleLink->FillSourceLink( rTokens );
}
void XclImpChSeries::ReadChSourceLink( XclImpStream& rStrm )
{
XclImpChSourceLinkRef xSrcLink = std::make_shared<XclImpChSourceLink>( GetChRoot() );
xSrcLink->ReadChSourceLink( rStrm );
switch( xSrcLink->GetDestType() )
{
case EXC_CHSRCLINK_TITLE: mxTitleLink = xSrcLink; break;
case EXC_CHSRCLINK_VALUES: mxValueLink = xSrcLink; break;
case EXC_CHSRCLINK_CATEGORY: mxCategLink = xSrcLink; break;
case EXC_CHSRCLINK_BUBBLES: mxBubbleLink = xSrcLink; break;
}
}
void XclImpChSeries::ReadChDataFormat( XclImpStream& rStrm )
{
// #i51639# chart stores all data formats and assigns them later to the series
GetChartData().ReadChDataFormat( rStrm );
}
void XclImpChSeries::ReadChSerParent( XclImpStream& rStrm )
{
mnParentIdx = rStrm.ReaduInt16();
// index to parent series is 1-based, convert it to 0-based
if( mnParentIdx > 0 )
--mnParentIdx;
else
mnParentIdx = EXC_CHSERIES_INVALID;
}
void XclImpChSeries::ReadChSerTrendLine( XclImpStream& rStrm )
{
XclImpChSerTrendLineRef xTrendLine = std::make_shared<XclImpChSerTrendLine>( GetChRoot() );
xTrendLine->ReadChSerTrendLine( rStrm );
maTrendLines.push_back( xTrendLine );
}
void XclImpChSeries::ReadChSerErrorBar( XclImpStream& rStrm )
{
unique_ptr<XclImpChSerErrorBar> pErrorBar(new XclImpChSerErrorBar(GetChRoot()));
pErrorBar->ReadChSerErrorBar(rStrm);
sal_uInt8 nBarType = pErrorBar->GetBarType();
m_ErrorBars.insert(std::make_pair(nBarType, std::move(pErrorBar)));
}
XclImpChDataFormatRef XclImpChSeries::CreateDataFormat( sal_uInt16 nPointIdx, sal_uInt16 nFormatIdx )
{
XclImpChDataFormatRef xDataFmt = std::make_shared<XclImpChDataFormat>( GetChRoot() );
xDataFmt->SetPointPos( XclChDataPointPos( mnSeriesIdx, nPointIdx ), nFormatIdx );
return xDataFmt;
}
void XclImpChSeries::ConvertTrendLines( Reference< XDataSeries > const & xDataSeries ) const
{
Reference< XRegressionCurveContainer > xRegCurveCont( xDataSeries, UNO_QUERY );
if( !xRegCurveCont.is() )
return;
for (auto const& trendLine : maTrendLines)
{
try
{
Reference< XRegressionCurve > xRegCurve = trendLine->CreateRegressionCurve();
if( xRegCurve.is() )
{
xRegCurveCont->addRegressionCurve( xRegCurve );
}
}
catch( Exception& )
{
OSL_FAIL( "XclImpChSeries::ConvertTrendLines - cannot add regression curve" );
}
}
}
Reference< XPropertySet > XclImpChSeries::CreateErrorBar( sal_uInt8 nPosBarId, sal_uInt8 nNegBarId ) const
{
XclImpChSerErrorBarMap::const_iterator itrPosBar = m_ErrorBars.find(nPosBarId);
XclImpChSerErrorBarMap::const_iterator itrNegBar = m_ErrorBars.find(nNegBarId);
XclImpChSerErrorBarMap::const_iterator itrEnd = m_ErrorBars.end();
if (itrPosBar == itrEnd || itrNegBar == itrEnd)
return Reference<XPropertySet>();
return XclImpChSerErrorBar::CreateErrorBar(itrPosBar->second.get(), itrNegBar->second.get());
}
void XclImpChSeries::ReadChLegendException(XclImpStream& rStrm)
{
rStrm.Ignore(2);
sal_uInt16 nFlags = rStrm.ReaduInt16();
mbLabelDeleted = (nFlags & EXC_CHLEGENDEXCEPTION_DELETED);
}
// Chart type groups ==========================================================
XclImpChType::XclImpChType( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot ),
mnRecId( EXC_ID_CHUNKNOWN ),
maTypeInfo( rRoot.GetChartTypeInfo( EXC_CHTYPEID_UNKNOWN ) )
{
}
void XclImpChType::ReadChType( XclImpStream& rStrm )
{
sal_uInt16 nRecId = rStrm.GetRecId();
bool bKnownType = true;
switch( nRecId )
{
case EXC_ID_CHBAR:
maData.mnOverlap = rStrm.ReadInt16();
maData.mnGap = rStrm.ReadInt16();
maData.mnFlags = rStrm.ReaduInt16();
break;
case EXC_ID_CHLINE:
case EXC_ID_CHAREA:
case EXC_ID_CHRADARLINE:
case EXC_ID_CHRADARAREA:
case EXC_ID_CHSURFACE:
maData.mnFlags = rStrm.ReaduInt16();
break;
case EXC_ID_CHPIE:
maData.mnRotation = rStrm.ReaduInt16();
maData.mnPieHole = rStrm.ReaduInt16();
if( GetBiff() == EXC_BIFF8 )
maData.mnFlags = rStrm.ReaduInt16();
else
maData.mnFlags = 0;
break;
case EXC_ID_CHPIEEXT:
maData.mnRotation = 0;
maData.mnPieHole = 0;
maData.mnFlags = 0;
break;
case EXC_ID_CHSCATTER:
if( GetBiff() == EXC_BIFF8 )
{
maData.mnBubbleSize = rStrm.ReaduInt16();
maData.mnBubbleType = rStrm.ReaduInt16();
maData.mnFlags = rStrm.ReaduInt16();
}
else
maData.mnFlags = 0;
break;
default:
bKnownType = false;
}
if( bKnownType )
mnRecId = nRecId;
}
void XclImpChType::Finalize( bool bStockChart )
{
switch( mnRecId )
{
case EXC_ID_CHLINE:
maTypeInfo = GetChartTypeInfo( bStockChart ?
EXC_CHTYPEID_STOCK : EXC_CHTYPEID_LINE );
break;
case EXC_ID_CHBAR:
maTypeInfo = GetChartTypeInfo( ::get_flagvalue(
maData.mnFlags, EXC_CHBAR_HORIZONTAL,
EXC_CHTYPEID_HORBAR, EXC_CHTYPEID_BAR ) );
break;
case EXC_ID_CHPIE:
maTypeInfo = GetChartTypeInfo( (maData.mnPieHole > 0) ?
EXC_CHTYPEID_DONUT : EXC_CHTYPEID_PIE );
break;
case EXC_ID_CHSCATTER:
maTypeInfo = GetChartTypeInfo( ::get_flagvalue(
maData.mnFlags, EXC_CHSCATTER_BUBBLES,
EXC_CHTYPEID_BUBBLES, EXC_CHTYPEID_SCATTER ) );
break;
default:
maTypeInfo = GetChartTypeInfo( mnRecId );
}
switch( maTypeInfo.meTypeId )
{
case EXC_CHTYPEID_PIEEXT:
case EXC_CHTYPEID_BUBBLES:
case EXC_CHTYPEID_SURFACE:
case EXC_CHTYPEID_UNKNOWN:
GetTracer().TraceChartUnKnownType();
break;
default:;
}
}
bool XclImpChType::IsStacked() const
{
bool bStacked = false;
if( maTypeInfo.mbSupportsStacking ) switch( maTypeInfo.meTypeCateg )
{
case EXC_CHTYPECATEG_LINE:
bStacked =
::get_flag( maData.mnFlags, EXC_CHLINE_STACKED ) &&
!::get_flag( maData.mnFlags, EXC_CHLINE_PERCENT );
break;
case EXC_CHTYPECATEG_BAR:
bStacked =
::get_flag( maData.mnFlags, EXC_CHBAR_STACKED ) &&
!::get_flag( maData.mnFlags, EXC_CHBAR_PERCENT );
break;
default:;
}
return bStacked;
}
bool XclImpChType::IsPercent() const
{
bool bPercent = false;
if( maTypeInfo.mbSupportsStacking ) switch( maTypeInfo.meTypeCateg )
{
case EXC_CHTYPECATEG_LINE:
bPercent =
::get_flag( maData.mnFlags, EXC_CHLINE_STACKED ) &&
::get_flag( maData.mnFlags, EXC_CHLINE_PERCENT );
break;
case EXC_CHTYPECATEG_BAR:
bPercent =
::get_flag( maData.mnFlags, EXC_CHBAR_STACKED ) &&
::get_flag( maData.mnFlags, EXC_CHBAR_PERCENT );
break;
default:;
}
return bPercent;
}
bool XclImpChType::HasCategoryLabels() const
{
// radar charts disable category labels in chart type, not in CHTICK of X axis
return (maTypeInfo.meTypeCateg != EXC_CHTYPECATEG_RADAR) || ::get_flag( maData.mnFlags, EXC_CHRADAR_AXISLABELS );
}
Reference< XCoordinateSystem > XclImpChType::CreateCoordSystem( bool b3dChart ) const
{
// create the coordinate system object
const Reference< css::uno::XComponentContext >& xContext = comphelper::getProcessComponentContext();
Reference< XCoordinateSystem > xCoordSystem;
if( maTypeInfo.mbPolarCoordSystem )
{
if( b3dChart )
xCoordSystem = css::chart2::PolarCoordinateSystem3d::create(xContext);
else
xCoordSystem = css::chart2::PolarCoordinateSystem2d::create(xContext);
}
else
{
if( b3dChart )
xCoordSystem = css::chart2::CartesianCoordinateSystem3d::create(xContext);
else
xCoordSystem = css::chart2::CartesianCoordinateSystem2d::create(xContext);
}
// swap X and Y axis
if( maTypeInfo.mbSwappedAxesSet )
{
ScfPropertySet aCoordSysProp( xCoordSystem );
aCoordSysProp.SetBoolProperty( EXC_CHPROP_SWAPXANDYAXIS, true );
}
return xCoordSystem;
}
Reference< XChartType > XclImpChType::CreateChartType( Reference< XDiagram > const & xDiagram, bool b3dChart ) const
{
OUString aService = OUString::createFromAscii( maTypeInfo.mpcServiceName );
Reference< XChartType > xChartType( ScfApiHelper::CreateInstance( aService ), UNO_QUERY );
// additional properties
switch( maTypeInfo.meTypeCateg )
{
case EXC_CHTYPECATEG_BAR:
{
ScfPropertySet aTypeProp( xChartType );
Sequence< sal_Int32 > aInt32Seq{ -maData.mnOverlap, -maData.mnOverlap };
aTypeProp.SetProperty( EXC_CHPROP_OVERLAPSEQ, aInt32Seq );
aInt32Seq = { maData.mnGap, maData.mnGap };
aTypeProp.SetProperty( EXC_CHPROP_GAPWIDTHSEQ, aInt32Seq );
}
break;
case EXC_CHTYPECATEG_PIE:
{
ScfPropertySet aTypeProp( xChartType );
aTypeProp.SetBoolProperty( EXC_CHPROP_USERINGS, maTypeInfo.meTypeId == EXC_CHTYPEID_DONUT );
/* #i85166# starting angle of first pie slice. 3D pie charts use Y
rotation setting in view3D element. Of-pie charts do not
support pie rotation. */
if( !b3dChart && (maTypeInfo.meTypeId != EXC_CHTYPEID_PIEEXT) )
{
ScfPropertySet aDiaProp( xDiagram );
XclImpChRoot::ConvertPieRotation( aDiaProp, maData.mnRotation );
}
}
break;
default:;
}
return xChartType;
}
void XclImpChChart3d::ReadChChart3d( XclImpStream& rStrm )
{
maData.mnRotation = rStrm.ReaduInt16();
maData.mnElevation = rStrm.ReadInt16();
maData.mnEyeDist = rStrm.ReaduInt16();
maData.mnRelHeight = rStrm.ReaduInt16();
maData.mnRelDepth = rStrm.ReaduInt16();
maData.mnDepthGap = rStrm.ReaduInt16();
maData.mnFlags = rStrm.ReaduInt16();
}
void XclImpChChart3d::Convert( ScfPropertySet& rPropSet, bool b3dWallChart ) const
{
namespace cssd = ::com::sun::star::drawing;
// #i104057# do not assert this, written by broken external generators
// OSL_ENSURE( ::get_flag( maData.mnFlags, EXC_CHCHART3D_HASWALLS ) == b3dWallChart, "XclImpChChart3d::Convert - wrong wall flag" );
sal_Int32 nRotationY = 0;
sal_Int32 nRotationX = 0;
sal_Int32 nPerspective = 15;
bool bRightAngled = false;
cssd::ProjectionMode eProjMode = cssd::ProjectionMode_PERSPECTIVE;
Color aAmbientColor, aLightColor;
if( b3dWallChart )
{
// Y rotation (Excel [0..359], Chart2 [-179,180])
nRotationY = NormAngle180<sal_Int32>(maData.mnRotation);
// X rotation a.k.a. elevation (Excel [-90..90], Chart2 [-179,180])
nRotationX = limit_cast< sal_Int32, sal_Int32 >( maData.mnElevation, -90, 90 );
// perspective (Excel and Chart2 [0,100])
nPerspective = limit_cast< sal_Int32, sal_Int32 >( maData.mnEyeDist, 0, 100 );
// right-angled axes
bRightAngled = !::get_flag( maData.mnFlags, EXC_CHCHART3D_REAL3D );
// projection mode (parallel axes, if right-angled, #i90360# or if perspective is at 0%)
bool bParallel = bRightAngled || (nPerspective == 0);
eProjMode = bParallel ? cssd::ProjectionMode_PARALLEL : cssd::ProjectionMode_PERSPECTIVE;
// ambient color (Gray 20%)
aAmbientColor = Color( 204, 204, 204 );
// light color (Gray 60%)
aLightColor = Color( 102, 102, 102 );
}
else
{
// Y rotation not used in pie charts, but 'first pie slice angle'
nRotationY = 0;
XclImpChRoot::ConvertPieRotation( rPropSet, maData.mnRotation );
// X rotation a.k.a. elevation (map Excel [10..80] to Chart2 [-80,-10])
nRotationX = limit_cast< sal_Int32, sal_Int32 >( maData.mnElevation, 10, 80 ) - 90;
// perspective (Excel and Chart2 [0,100])
nPerspective = limit_cast< sal_Int32, sal_Int32 >( maData.mnEyeDist, 0, 100 );
// no right-angled axes in pie charts, but parallel projection
bRightAngled = false;
eProjMode = cssd::ProjectionMode_PARALLEL;
// ambient color (Gray 30%)
aAmbientColor = Color( 179, 179, 179 );
// light color (Gray 70%)
aLightColor = Color( 76, 76, 76 );
}
// properties
rPropSet.SetProperty( EXC_CHPROP_3DRELATIVEHEIGHT, static_cast<sal_Int32>(maData.mnRelHeight / 2)); // seems to be 200%, change to 100%
rPropSet.SetProperty( EXC_CHPROP_ROTATIONVERTICAL, nRotationY );
rPropSet.SetProperty( EXC_CHPROP_ROTATIONHORIZONTAL, nRotationX );
rPropSet.SetProperty( EXC_CHPROP_PERSPECTIVE, nPerspective );
rPropSet.SetBoolProperty( EXC_CHPROP_RIGHTANGLEDAXES, bRightAngled );
rPropSet.SetProperty( EXC_CHPROP_D3DSCENEPERSPECTIVE, eProjMode );
// light settings
rPropSet.SetProperty( EXC_CHPROP_D3DSCENESHADEMODE, cssd::ShadeMode_FLAT );
rPropSet.SetColorProperty( EXC_CHPROP_D3DSCENEAMBIENTCOLOR, aAmbientColor );
rPropSet.SetBoolProperty( EXC_CHPROP_D3DSCENELIGHTON1, false );
rPropSet.SetBoolProperty( EXC_CHPROP_D3DSCENELIGHTON2, true );
rPropSet.SetColorProperty( EXC_CHPROP_D3DSCENELIGHTCOLOR2, aLightColor );
rPropSet.SetProperty( EXC_CHPROP_D3DSCENELIGHTDIR2, cssd::Direction3D( 0.2, 0.4, 1.0 ) );
}
XclImpChLegend::XclImpChLegend( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot )
{
}
void XclImpChLegend::ReadHeaderRecord( XclImpStream& rStrm )
{
rStrm >> maData.maRect;
maData.mnDockMode = rStrm.ReaduInt8();
maData.mnSpacing = rStrm.ReaduInt8();
maData.mnFlags = rStrm.ReaduInt16();
// trace unsupported features
if( GetTracer().IsEnabled() )
{
if( maData.mnDockMode == EXC_CHLEGEND_NOTDOCKED )
GetTracer().TraceChartLegendPosition();
if( ::get_flag( maData.mnFlags, EXC_CHLEGEND_DATATABLE ) )
GetTracer().TraceChartDataTable();
}
}
void XclImpChLegend::ReadSubRecord( XclImpStream& rStrm )
{
switch( rStrm.GetRecId() )
{
case EXC_ID_CHFRAMEPOS:
mxFramePos = std::make_shared<XclImpChFramePos>();
mxFramePos->ReadChFramePos( rStrm );
break;
case EXC_ID_CHTEXT:
mxText = std::make_shared<XclImpChText>( GetChRoot() );
mxText->ReadRecordGroup( rStrm );
break;
case EXC_ID_CHFRAME:
mxFrame = std::make_shared<XclImpChFrame>( GetChRoot(), EXC_CHOBJTYPE_LEGEND );
mxFrame->ReadRecordGroup( rStrm );
break;
}
}
void XclImpChLegend::Finalize()
{
// legend default formatting differs in OOChart and Excel, missing frame means automatic
if( !mxFrame )
mxFrame = std::make_shared<XclImpChFrame>( GetChRoot(), EXC_CHOBJTYPE_LEGEND );
// Update text formatting. If mxText is empty, the passed default text is used.
lclUpdateText( mxText, GetChartData().GetDefaultText( EXC_CHTEXTTYPE_LEGEND ) );
}
Reference< XLegend > XclImpChLegend::CreateLegend() const
{
Reference< XLegend > xLegend( ScfApiHelper::CreateInstance( SERVICE_CHART2_LEGEND ), UNO_QUERY );
if( xLegend.is() )
{
ScfPropertySet aLegendProp( xLegend );
aLegendProp.SetBoolProperty( EXC_CHPROP_SHOW, true );
// frame properties
if( mxFrame )
mxFrame->Convert( aLegendProp );
// text properties
if( mxText )
mxText->ConvertFont( aLegendProp );
/* Legend position and size. Default positions are used only if the
plot area is positioned automatically (Excel sets the plot area to
manual mode, if the legend is moved or resized). With manual plot
areas, Excel ignores the value in maData.mnDockMode completely. */
cssc2::LegendPosition eApiPos = cssc2::LegendPosition_LINE_END;
cssc::ChartLegendExpansion eApiExpand = cssc::ChartLegendExpansion_CUSTOM;
if( !GetChartData().IsManualPlotArea() ) switch( maData.mnDockMode )
{
case EXC_CHLEGEND_LEFT:
eApiPos = cssc2::LegendPosition_LINE_START;
eApiExpand = cssc::ChartLegendExpansion_HIGH;
break;
case EXC_CHLEGEND_RIGHT:
// top-right not supported
case EXC_CHLEGEND_CORNER:
eApiPos = cssc2::LegendPosition_LINE_END;
eApiExpand = cssc::ChartLegendExpansion_HIGH;
break;
case EXC_CHLEGEND_TOP:
eApiPos = cssc2::LegendPosition_PAGE_START;
eApiExpand = cssc::ChartLegendExpansion_WIDE;
break;
case EXC_CHLEGEND_BOTTOM:
eApiPos = cssc2::LegendPosition_PAGE_END;
eApiExpand = cssc::ChartLegendExpansion_WIDE;
break;
}
// no automatic position/size: try to find the correct position and size
if( GetChartData().IsManualPlotArea() || maData.mnDockMode == EXC_CHLEGEND_NOTDOCKED )
{
const XclChFramePos* pFramePos = mxFramePos ? &mxFramePos->GetFramePosData() : nullptr;
/* Legend position. Only the settings from the CHFRAMEPOS record
are used by Excel, the position in the CHLEGEND record will be
ignored. */
if( pFramePos )
{
RelativePosition aRelPos(
CalcRelativeFromChartX( pFramePos->maRect.mnX ),
CalcRelativeFromChartY( pFramePos->maRect.mnY ),
css::drawing::Alignment_TOP_LEFT );
aLegendProp.SetProperty( EXC_CHPROP_RELATIVEPOSITION, aRelPos );
}
else
{
// no manual position/size found, just go for the default
eApiPos = cssc2::LegendPosition_LINE_END;
}
/* Legend size. The member mnBRMode specifies whether size is
automatic or changes manually. Manual size is given in points,
not in chart units. */
if( pFramePos && (pFramePos->mnBRMode == EXC_CHFRAMEPOS_ABSSIZE_POINTS) &&
(pFramePos->maRect.mnWidth > 0) && (pFramePos->maRect.mnHeight > 0) )
{
eApiExpand = cssc::ChartLegendExpansion_CUSTOM;
sal_Int32 nWidthHmm = o3tl::convert(pFramePos->maRect.mnWidth, o3tl::Length::pt, o3tl::Length::mm100);
sal_Int32 nHeightHmm = o3tl::convert(pFramePos->maRect.mnHeight, o3tl::Length::pt, o3tl::Length::mm100);
RelativeSize aRelSize( CalcRelativeFromHmmX( nWidthHmm ), CalcRelativeFromHmmY( nHeightHmm ) );
aLegendProp.SetProperty( EXC_CHPROP_RELATIVESIZE, aRelSize );
}
else
{
// automatic size: determine entry direction from flags
eApiExpand = ::get_flagvalue( maData.mnFlags, EXC_CHLEGEND_STACKED,
cssc::ChartLegendExpansion_HIGH, cssc::ChartLegendExpansion_WIDE );
}
}
aLegendProp.SetProperty( EXC_CHPROP_ANCHORPOSITION, eApiPos );
aLegendProp.SetProperty( EXC_CHPROP_EXPANSION, eApiExpand );
}
return xLegend;
}
XclImpChDropBar::XclImpChDropBar( sal_uInt16 nDropBar ) :
mnDropBar( nDropBar ),
mnBarDist( 0 )
{
}
void XclImpChDropBar::ReadHeaderRecord( XclImpStream& rStrm )
{
mnBarDist = rStrm.ReaduInt16();
}
void XclImpChDropBar::Convert( const XclImpChRoot& rRoot, ScfPropertySet& rPropSet ) const
{
XclChObjectType eObjType = EXC_CHOBJTYPE_BACKGROUND;
switch( mnDropBar )
{
case EXC_CHDROPBAR_UP: eObjType = EXC_CHOBJTYPE_WHITEDROPBAR; break;
case EXC_CHDROPBAR_DOWN: eObjType = EXC_CHOBJTYPE_BLACKDROPBAR; break;
}
ConvertFrameBase( rRoot, rPropSet, eObjType );
}
XclImpChTypeGroup::XclImpChTypeGroup( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot ),
maType( rRoot ),
maTypeInfo( maType.GetTypeInfo() )
{
// Initialize unused format indexes set. At this time, all formats are unused.
for( sal_uInt16 nFormatIdx = 0; nFormatIdx <= EXC_CHSERIES_MAXSERIES; ++nFormatIdx )
maUnusedFormats.insert( maUnusedFormats.end(), nFormatIdx );
}
void XclImpChTypeGroup::ReadHeaderRecord( XclImpStream& rStrm )
{
rStrm.Ignore( 16 );
maData.mnFlags = rStrm.ReaduInt16();
maData.mnGroupIdx = rStrm.ReaduInt16();
}
void XclImpChTypeGroup::ReadSubRecord( XclImpStream& rStrm )
{
switch( rStrm.GetRecId() )
{
case EXC_ID_CHCHART3D:
mxChart3d = std::make_shared<XclImpChChart3d>();
mxChart3d->ReadChChart3d( rStrm );
break;
case EXC_ID_CHLEGEND:
mxLegend = std::make_shared<XclImpChLegend>( GetChRoot() );
mxLegend->ReadRecordGroup( rStrm );
break;
case EXC_ID_CHDEFAULTTEXT:
GetChartData().ReadChDefaultText( rStrm );
break;
case EXC_ID_CHDROPBAR:
ReadChDropBar( rStrm );
break;
case EXC_ID_CHCHARTLINE:
ReadChChartLine( rStrm );
break;
case EXC_ID_CHDATAFORMAT:
ReadChDataFormat( rStrm );
break;
default:
maType.ReadChType( rStrm );
}
}
void XclImpChTypeGroup::Finalize()
{
// check and set valid chart type
bool bStockChart =
(maType.GetRecId() == EXC_ID_CHLINE) && // must be a line chart
!mxChart3d && // must be a 2d chart
m_ChartLines.find(EXC_CHCHARTLINE_HILO) != m_ChartLines.end() && // must contain hi-lo lines
(maSeries.size() == static_cast<XclImpChSeriesVec::size_type>(HasDropBars() ? 4 : 3)); // correct series count
maType.Finalize( bStockChart );
// extended type info
maTypeInfo.Set( maType.GetTypeInfo(), static_cast< bool >(mxChart3d), false );
// reverse series order for some unstacked 2D chart types
if( maTypeInfo.mbReverseSeries && !Is3dChart() && !maType.IsStacked() && !maType.IsPercent() )
::std::reverse( maSeries.begin(), maSeries.end() );
// update chart type group format, may depend on chart type finalized above
if( mxGroupFmt )
mxGroupFmt->UpdateGroupFormat( maTypeInfo );
}
void XclImpChTypeGroup::AddSeries( XclImpChSeriesRef const & xSeries )
{
if( xSeries )
maSeries.push_back( xSeries );
// store first inserted series separately, series order may be reversed later
if( !mxFirstSeries )
mxFirstSeries = xSeries;
}
void XclImpChTypeGroup::SetUsedFormatIndex( sal_uInt16 nFormatIdx )
{
maUnusedFormats.erase( nFormatIdx );
}
sal_uInt16 XclImpChTypeGroup::PopUnusedFormatIndex()
{
OSL_ENSURE( !maUnusedFormats.empty(), "XclImpChTypeGroup::PopUnusedFormatIndex - no more format indexes available" );
sal_uInt16 nFormatIdx = maUnusedFormats.empty() ? 0 : *maUnusedFormats.begin();
SetUsedFormatIndex( nFormatIdx );
return nFormatIdx;
}
bool XclImpChTypeGroup::HasVarPointFormat() const
{
return ::get_flag( maData.mnFlags, EXC_CHTYPEGROUP_VARIEDCOLORS ) &&
((maTypeInfo.meVarPointMode == EXC_CHVARPOINT_MULTI) || // multiple series allowed
((maTypeInfo.meVarPointMode == EXC_CHVARPOINT_SINGLE) && // or exactly 1 series?
(maSeries.size() == 1)));
}
bool XclImpChTypeGroup::HasConnectorLines() const
{
// existence of connector lines (only in stacked bar charts)
if ( !(maType.IsStacked() || maType.IsPercent()) || (maTypeInfo.meTypeCateg != EXC_CHTYPECATEG_BAR) )
return false;
XclImpChLineFormatMap::const_iterator aConLine = m_ChartLines.find(EXC_CHCHARTLINE_CONNECT);
return (aConLine != m_ChartLines.end() && aConLine->second.HasLine());
}
OUString XclImpChTypeGroup::GetSingleSeriesTitle() const
{
// no automatic title for series with trendlines or error bars
// pie charts always show an automatic title, even if more series exist
return (mxFirstSeries && !mxFirstSeries->HasChildSeries() && (maTypeInfo.mbSingleSeriesVis || (maSeries.size() == 1))) ?
mxFirstSeries->GetTitle() : OUString();
}
void XclImpChTypeGroup::ConvertChart3d( ScfPropertySet& rPropSet ) const
{
if( mxChart3d )
mxChart3d->Convert( rPropSet, Is3dWallChart() );
}
Reference< XCoordinateSystem > XclImpChTypeGroup::CreateCoordSystem() const
{
return maType.CreateCoordSystem( Is3dChart() );
}
Reference< XChartType > XclImpChTypeGroup::CreateChartType( Reference< XDiagram > const & xDiagram, sal_Int32 nApiAxesSetIdx ) const
{
OSL_ENSURE( IsValidGroup(), "XclImpChTypeGroup::CreateChartType - type group without series" );
// create the chart type object
Reference< XChartType > xChartType = maType.CreateChartType( xDiagram, Is3dChart() );
// bar chart connector lines
if( HasConnectorLines() )
{
ScfPropertySet aDiaProp( xDiagram );
aDiaProp.SetBoolProperty( EXC_CHPROP_CONNECTBARS, true );
}
/* Stock chart needs special processing. Create one 'big' series with
data sequences of different roles. */
if( maTypeInfo.meTypeId == EXC_CHTYPEID_STOCK )
CreateStockSeries( xChartType, nApiAxesSetIdx );
else
CreateDataSeries( xChartType, nApiAxesSetIdx );
return xChartType;
}
Reference< XLabeledDataSequence > XclImpChTypeGroup::CreateCategSequence() const
{
Reference< XLabeledDataSequence > xLabeledSeq;
// create category sequence from first visible series
if( mxFirstSeries )
xLabeledSeq = mxFirstSeries->CreateCategSequence( EXC_CHPROP_ROLE_CATEG );
return xLabeledSeq;
}
void XclImpChTypeGroup::ReadChDropBar( XclImpStream& rStrm )
{
if (m_DropBars.find(EXC_CHDROPBAR_UP) == m_DropBars.end())
{
unique_ptr<XclImpChDropBar> p(new XclImpChDropBar(EXC_CHDROPBAR_UP));
p->ReadRecordGroup(rStrm);
m_DropBars.insert(std::make_pair(EXC_CHDROPBAR_UP, std::move(p)));
}
else if (m_DropBars.find(EXC_CHDROPBAR_DOWN) == m_DropBars.end())
{
unique_ptr<XclImpChDropBar> p(new XclImpChDropBar(EXC_CHDROPBAR_DOWN));
p->ReadRecordGroup(rStrm);
m_DropBars.insert(std::make_pair(EXC_CHDROPBAR_DOWN, std::move(p)));
}
}
void XclImpChTypeGroup::ReadChChartLine( XclImpStream& rStrm )
{
sal_uInt16 nLineId = rStrm.ReaduInt16();
if( (rStrm.GetNextRecId() == EXC_ID_CHLINEFORMAT) && rStrm.StartNextRecord() )
{
XclImpChLineFormat aLineFmt;
aLineFmt.ReadChLineFormat( rStrm );
m_ChartLines[nLineId] = std::move(aLineFmt);
}
}
void XclImpChTypeGroup::ReadChDataFormat( XclImpStream& rStrm )
{
// global series and data point format
XclImpChDataFormatRef xDataFmt = std::make_shared<XclImpChDataFormat>( GetChRoot() );
xDataFmt->ReadRecordGroup( rStrm );
const XclChDataPointPos& rPos = xDataFmt->GetPointPos();
if( (rPos.mnSeriesIdx == 0) && (rPos.mnPointIdx == 0) &&
(xDataFmt->GetFormatIdx() == EXC_CHDATAFORMAT_DEFAULT) )
mxGroupFmt = std::move(xDataFmt);
}
void XclImpChTypeGroup::InsertDataSeries( Reference< XChartType > const & xChartType,
Reference< XDataSeries > const & xSeries, sal_Int32 nApiAxesSetIdx ) const
{
Reference< XDataSeriesContainer > xSeriesCont( xChartType, UNO_QUERY );
if( !(xSeriesCont.is() && xSeries.is()) )
return;
// series stacking mode
cssc2::StackingDirection eStacking = cssc2::StackingDirection_NO_STACKING;
// stacked overrides deep-3d
if( maType.IsStacked() || maType.IsPercent() )
eStacking = cssc2::StackingDirection_Y_STACKING;
else if( Is3dDeepChart() )
eStacking = cssc2::StackingDirection_Z_STACKING;
// additional series properties
ScfPropertySet aSeriesProp( xSeries );
aSeriesProp.SetProperty( EXC_CHPROP_STACKINGDIR, eStacking );
aSeriesProp.SetProperty( EXC_CHPROP_ATTAXISINDEX, nApiAxesSetIdx );
// insert series into container
try
{
xSeriesCont->addDataSeries( xSeries );
}
catch( Exception& )
{
OSL_FAIL( "XclImpChTypeGroup::InsertDataSeries - cannot add data series" );
}
}
void XclImpChTypeGroup::CreateDataSeries( Reference< XChartType > const & xChartType, sal_Int32 nApiAxesSetIdx ) const
{
bool bSpline = false;
for (auto const& elem : maSeries)
{
Reference< XDataSeries > xDataSeries = elem->CreateDataSeries();
InsertDataSeries( xChartType, xDataSeries, nApiAxesSetIdx );
bSpline |= elem->HasSpline();
}
// spline - TODO: set at single series (#i66858#)
if( bSpline && !maTypeInfo.IsSeriesFrameFormat() && (maTypeInfo.meTypeCateg != EXC_CHTYPECATEG_RADAR) )
{
ScfPropertySet aTypeProp( xChartType );
aTypeProp.SetProperty( EXC_CHPROP_CURVESTYLE, css::chart2::CurveStyle_CUBIC_SPLINES );
}
}
void XclImpChTypeGroup::CreateStockSeries( Reference< XChartType > const & xChartType, sal_Int32 nApiAxesSetIdx ) const
{
// create the data series object
Reference< XDataSeries > xDataSeries( ScfApiHelper::CreateInstance( SERVICE_CHART2_DATASERIES ), UNO_QUERY );
Reference< XDataSink > xDataSink( xDataSeries, UNO_QUERY );
if( !xDataSink.is() )
return;
// create a list of data sequences from all series
::std::vector< Reference< XLabeledDataSequence > > aLabeledSeqVec;
OSL_ENSURE( maSeries.size() >= 3, "XclImpChTypeGroup::CreateChartType - missing stock series" );
int nRoleIdx = (maSeries.size() == 3) ? 1 : 0;
for( const auto& rxSeries : maSeries )
{
// create a data sequence with a specific role
OUString aRole;
switch( nRoleIdx )
{
case 0: aRole = EXC_CHPROP_ROLE_OPENVALUES; break;
case 1: aRole = EXC_CHPROP_ROLE_HIGHVALUES; break;
case 2: aRole = EXC_CHPROP_ROLE_LOWVALUES; break;
case 3: aRole = EXC_CHPROP_ROLE_CLOSEVALUES; break;
}
Reference< XLabeledDataSequence > xDataSeq = rxSeries->CreateValueSequence( aRole );
if( xDataSeq.is() )
aLabeledSeqVec.push_back( xDataSeq );
++nRoleIdx;
if (nRoleIdx >= 4)
break;
}
// attach labeled data sequences to series and insert series into chart type
xDataSink->setData( ScfApiHelper::VectorToSequence( aLabeledSeqVec ) );
// formatting of special stock chart elements
ScfPropertySet aTypeProp( xChartType );
aTypeProp.SetBoolProperty( EXC_CHPROP_JAPANESE, HasDropBars() );
aTypeProp.SetBoolProperty( EXC_CHPROP_SHOWFIRST, HasDropBars() );
aTypeProp.SetBoolProperty( EXC_CHPROP_SHOWHIGHLOW, true );
// hi-lo line format
XclImpChLineFormatMap::const_iterator aHiLoLine = m_ChartLines.find( EXC_CHCHARTLINE_HILO );
if (aHiLoLine != m_ChartLines.end())
{
ScfPropertySet aSeriesProp( xDataSeries );
aHiLoLine->second.Convert( GetChRoot(), aSeriesProp, EXC_CHOBJTYPE_HILOLINE );
}
// white dropbar format
XclImpChDropBarMap::const_iterator itr = m_DropBars.find(EXC_CHDROPBAR_UP);
Reference<XPropertySet> xWhitePropSet;
if (itr != m_DropBars.end() && aTypeProp.GetProperty(xWhitePropSet, EXC_CHPROP_WHITEDAY))
{
ScfPropertySet aBarProp( xWhitePropSet );
itr->second->Convert(GetChRoot(), aBarProp);
}
// black dropbar format
itr = m_DropBars.find(EXC_CHDROPBAR_DOWN);
Reference<XPropertySet> xBlackPropSet;
if (itr != m_DropBars.end() && aTypeProp.GetProperty(xBlackPropSet, EXC_CHPROP_BLACKDAY))
{
ScfPropertySet aBarProp( xBlackPropSet );
itr->second->Convert(GetChRoot(), aBarProp);
}
// insert the series into the chart type object
InsertDataSeries( xChartType, xDataSeries, nApiAxesSetIdx );
}
// Axes =======================================================================
XclImpChLabelRange::XclImpChLabelRange( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot )
{
}
void XclImpChLabelRange::ReadChLabelRange( XclImpStream& rStrm )
{
maLabelData.mnCross = rStrm.ReaduInt16();
maLabelData.mnLabelFreq = rStrm.ReaduInt16();
maLabelData.mnTickFreq = rStrm.ReaduInt16();
maLabelData.mnFlags = rStrm.ReaduInt16();
}
void XclImpChLabelRange::ReadChDateRange( XclImpStream& rStrm )
{
maDateData.mnMinDate = rStrm.ReaduInt16();
maDateData.mnMaxDate = rStrm.ReaduInt16();
maDateData.mnMajorStep = rStrm.ReaduInt16();
maDateData.mnMajorUnit = rStrm.ReaduInt16();
maDateData.mnMinorStep = rStrm.ReaduInt16();
maDateData.mnMinorUnit = rStrm.ReaduInt16();
maDateData.mnBaseUnit = rStrm.ReaduInt16();
maDateData.mnCross = rStrm.ReaduInt16();
maDateData.mnFlags = rStrm.ReaduInt16();
}
void XclImpChLabelRange::Convert( ScfPropertySet& rPropSet, ScaleData& rScaleData, bool bMirrorOrient ) const
{
// automatic axis type detection
rScaleData.AutoDateAxis = ::get_flag( maDateData.mnFlags, EXC_CHDATERANGE_AUTODATE );
// the flag EXC_CHDATERANGE_DATEAXIS specifies whether this is a date axis
if( ::get_flag( maDateData.mnFlags, EXC_CHDATERANGE_DATEAXIS ) )
{
/* Chart2 requires axis type CATEGORY for automatic category/date axis
(even if it is a date axis currently). */
rScaleData.AxisType = rScaleData.AutoDateAxis ? cssc2::AxisType::CATEGORY : cssc2::AxisType::DATE;
rScaleData.Scaling = css::chart2::LinearScaling::create( comphelper::getProcessComponentContext() );
/* Min/max values depend on base time unit, they specify the number of
days, months, or years starting from null date. */
lclConvertTimeValue( GetRoot(), rScaleData.Minimum, maDateData.mnMinDate, ::get_flag( maDateData.mnFlags, EXC_CHDATERANGE_AUTOMIN ), maDateData.mnBaseUnit );
lclConvertTimeValue( GetRoot(), rScaleData.Maximum, maDateData.mnMaxDate, ::get_flag( maDateData.mnFlags, EXC_CHDATERANGE_AUTOMAX ), maDateData.mnBaseUnit );
// increment
cssc::TimeIncrement& rTimeIncrement = rScaleData.TimeIncrement;
lclConvertTimeInterval( rTimeIncrement.MajorTimeInterval, maDateData.mnMajorStep, ::get_flag( maDateData.mnFlags, EXC_CHDATERANGE_AUTOMAJOR ), maDateData.mnMajorUnit );
lclConvertTimeInterval( rTimeIncrement.MinorTimeInterval, maDateData.mnMinorStep, ::get_flag( maDateData.mnFlags, EXC_CHDATERANGE_AUTOMINOR ), maDateData.mnMinorUnit );
// base unit
if( ::get_flag( maDateData.mnFlags, EXC_CHDATERANGE_AUTOBASE ) )
rTimeIncrement.TimeResolution.clear();
else
rTimeIncrement.TimeResolution <<= lclGetApiTimeUnit( maDateData.mnBaseUnit );
}
else
{
// do not overlap text unless all labels are visible
rPropSet.SetBoolProperty( EXC_CHPROP_TEXTOVERLAP, maLabelData.mnLabelFreq == 1 );
// do not break text into several lines unless all labels are visible
rPropSet.SetBoolProperty( EXC_CHPROP_TEXTBREAK, maLabelData.mnLabelFreq == 1 );
// do not stagger labels in two lines
rPropSet.SetProperty( EXC_CHPROP_ARRANGEORDER, cssc::ChartAxisArrangeOrderType_SIDE_BY_SIDE );
}
// reverse order
bool bReverse = ::get_flag( maLabelData.mnFlags, EXC_CHLABELRANGE_REVERSE ) != bMirrorOrient;
rScaleData.Orientation = bReverse ? cssc2::AxisOrientation_REVERSE : cssc2::AxisOrientation_MATHEMATICAL;
//TODO #i58731# show n-th category
}
void XclImpChLabelRange::ConvertAxisPosition( ScfPropertySet& rPropSet, bool b3dChart ) const
{
/* Crossing mode (max-cross flag overrides other crossing settings). Excel
does not move the Y axis in 3D charts, regardless of actual settings.
But: the Y axis has to be moved to "end", if the X axis is mirrored,
to keep it at the left end of the chart. */
bool bMaxCross = ::get_flag( maLabelData.mnFlags, b3dChart ? EXC_CHLABELRANGE_REVERSE : EXC_CHLABELRANGE_MAXCROSS );
cssc::ChartAxisPosition eAxisPos = bMaxCross ? cssc::ChartAxisPosition_END : cssc::ChartAxisPosition_VALUE;
rPropSet.SetProperty( EXC_CHPROP_CROSSOVERPOSITION, eAxisPos );
// crossing position (depending on axis type text/date)
if( ::get_flag( maDateData.mnFlags, EXC_CHDATERANGE_DATEAXIS ) )
{
bool bAutoCross = ::get_flag( maDateData.mnFlags, EXC_CHDATERANGE_AUTOCROSS );
/* Crossing position value depends on base time unit, it specifies the
number of days, months, or years from null date. Note that Excel
2007/2010 write broken BIFF8 files, they always stores the number
of days regardless of the base time unit (and they are reading it
the same way, thus wrongly displaying files written by Excel
97-2003). This filter sticks to the correct behaviour of Excel
97-2003. */
double fCrossingPos = bAutoCross ? 1.0 : lclGetSerialDay( GetRoot(), maDateData.mnCross, maDateData.mnBaseUnit );
rPropSet.SetProperty( EXC_CHPROP_CROSSOVERVALUE, fCrossingPos );
}
else
{
double fCrossingPos = b3dChart ? 1.0 : maLabelData.mnCross;
rPropSet.SetProperty( EXC_CHPROP_CROSSOVERVALUE, fCrossingPos );
}
}
XclImpChValueRange::XclImpChValueRange( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot )
{
}
void XclImpChValueRange::ReadChValueRange( XclImpStream& rStrm )
{
maData.mfMin = rStrm.ReadDouble();
maData.mfMax = rStrm.ReadDouble();
maData.mfMajorStep = rStrm.ReadDouble();
maData.mfMinorStep = rStrm.ReadDouble();
maData.mfCross = rStrm.ReadDouble();
maData.mnFlags = rStrm.ReaduInt16();
}
void XclImpChValueRange::Convert( ScaleData& rScaleData, bool bMirrorOrient ) const
{
// scaling algorithm
const bool bLogScale = ::get_flag( maData.mnFlags, EXC_CHVALUERANGE_LOGSCALE );
if( bLogScale )
rScaleData.Scaling = css::chart2::LogarithmicScaling::create( comphelper::getProcessComponentContext() );
else
rScaleData.Scaling = css::chart2::LinearScaling::create( comphelper::getProcessComponentContext() );
// min/max
lclSetExpValueOrClearAny( rScaleData.Minimum, maData.mfMin, bLogScale, ::get_flag( maData.mnFlags, EXC_CHVALUERANGE_AUTOMIN ) );
lclSetExpValueOrClearAny( rScaleData.Maximum, maData.mfMax, bLogScale, ::get_flag( maData.mnFlags, EXC_CHVALUERANGE_AUTOMAX ) );
// increment
bool bAutoMajor = ::get_flag( maData.mnFlags, EXC_CHVALUERANGE_AUTOMAJOR );
bool bAutoMinor = ::get_flag( maData.mnFlags, EXC_CHVALUERANGE_AUTOMINOR );
// major increment
IncrementData& rIncrementData = rScaleData.IncrementData;
lclSetValueOrClearAny( rIncrementData.Distance, maData.mfMajorStep, bAutoMajor );
// minor increment
Sequence< SubIncrement >& rSubIncrementSeq = rIncrementData.SubIncrements;
rSubIncrementSeq.realloc( 1 );
Any& rIntervalCount = rSubIncrementSeq.getArray()[ 0 ].IntervalCount;
rIntervalCount.clear();
if( bLogScale )
{
if( !bAutoMinor )
rIntervalCount <<= sal_Int32( 9 );
}
else if( !bAutoMajor && !bAutoMinor && (0.0 < maData.mfMinorStep) && (maData.mfMinorStep <= maData.mfMajorStep) )
{
double fCount = maData.mfMajorStep / maData.mfMinorStep + 0.5;
if( (1.0 <= fCount) && (fCount < 1001.0) )
rIntervalCount <<= static_cast< sal_Int32 >( fCount );
}
else if( bAutoMinor )
{
// tdf#114168 If minor unit is not set then set interval to 5, as MS Excel do.
rIntervalCount <<= static_cast< sal_Int32 >( 5 );
}
// reverse order
bool bReverse = ::get_flag( maData.mnFlags, EXC_CHVALUERANGE_REVERSE ) != bMirrorOrient;
rScaleData.Orientation = bReverse ? cssc2::AxisOrientation_REVERSE : cssc2::AxisOrientation_MATHEMATICAL;
}
void XclImpChValueRange::ConvertAxisPosition( ScfPropertySet& rPropSet ) const
{
bool bMaxCross = ::get_flag( maData.mnFlags, EXC_CHVALUERANGE_MAXCROSS );
bool bAutoCross = ::get_flag( maData.mnFlags, EXC_CHVALUERANGE_AUTOCROSS );
bool bLogScale = ::get_flag( maData.mnFlags, EXC_CHVALUERANGE_LOGSCALE );
// crossing mode (max-cross flag overrides other crossing settings)
cssc::ChartAxisPosition eAxisPos = bMaxCross ? cssc::ChartAxisPosition_END : cssc::ChartAxisPosition_VALUE;
rPropSet.SetProperty( EXC_CHPROP_CROSSOVERPOSITION, eAxisPos );
// crossing position
double fCrossingPos = bAutoCross ? 0.0 : maData.mfCross;
if( bLogScale ) fCrossingPos = pow( 10.0, fCrossingPos );
rPropSet.SetProperty( EXC_CHPROP_CROSSOVERVALUE, fCrossingPos );
}
namespace {
sal_Int32 lclGetApiTickmarks( sal_uInt8 nXclTickPos )
{
using namespace ::com::sun::star::chart2::TickmarkStyle;
sal_Int32 nApiTickmarks = css::chart2::TickmarkStyle::NONE;
::set_flag( nApiTickmarks, INNER, ::get_flag( nXclTickPos, EXC_CHTICK_INSIDE ) );
::set_flag( nApiTickmarks, OUTER, ::get_flag( nXclTickPos, EXC_CHTICK_OUTSIDE ) );
return nApiTickmarks;
}
cssc::ChartAxisLabelPosition lclGetApiLabelPosition( sal_Int8 nXclLabelPos )
{
using namespace ::com::sun::star::chart;
switch( nXclLabelPos )
{
case EXC_CHTICK_LOW: return ChartAxisLabelPosition_OUTSIDE_START;
case EXC_CHTICK_HIGH: return ChartAxisLabelPosition_OUTSIDE_END;
case EXC_CHTICK_NEXT: return ChartAxisLabelPosition_NEAR_AXIS;
}
return ChartAxisLabelPosition_NEAR_AXIS;
}
} // namespace
XclImpChTick::XclImpChTick( const XclImpChRoot& rRoot ) :
XclImpChRoot( rRoot )
{
}
void XclImpChTick::ReadChTick( XclImpStream& rStrm )
{
maData.mnMajor = rStrm.ReaduInt8();
maData.mnMinor = rStrm.ReaduInt8();
maData.mnLabelPos = rStrm.ReaduInt8();
maData.mnBackMode = rStrm.ReaduInt8();
rStrm.Ignore( 16 );
Color aColor;
rStrm >> aColor;
maData.maTextComplexColor.setColor(aColor);
maData.mnFlags = rStrm.ReaduInt16();
if( GetBiff() == EXC_BIFF8 )
{
// BIFF8: index into palette used instead of RGB data
maData.maTextComplexColor.setColor(GetPalette().GetColor(rStrm.ReaduInt16()));
// rotation
maData.mnRotation = rStrm.ReaduInt16();
}
else
{
// BIFF2-BIFF7: get rotation from text orientation
sal_uInt8 nOrient = ::extract_value< sal_uInt8 >( maData.mnFlags, 2, 3 );
maData.mnRotation = XclTools::GetXclRotFromOrient( nOrient );
}
}
Color XclImpChTick::GetFontColor() const
{
return ::get_flag(maData.mnFlags, EXC_CHTICK_AUTOCOLOR) ? GetFontAutoColor() : maData.maTextComplexColor.getFinalColor();
}
sal_uInt16 XclImpChTick::GetRotation() const
{
/* n#720443: Ignore auto-rotation if there is a suggested rotation.
* Better fix would be to improve our axis auto rotation algorithm.
*/
if( maData.mnRotation != EXC_ROT_NONE )
return maData.mnRotation;
return ::get_flag( maData.mnFlags, EXC_CHTICK_AUTOROT ) ? EXC_CHART_AUTOROTATION : maData.mnRotation;
}
void XclImpChTick::Convert( ScfPropertySet& rPropSet ) const
{
rPropSet.SetProperty( EXC_CHPROP_MAJORTICKS, lclGetApiTickmarks( maData.mnMajor ) );
rPropSet.SetProperty( EXC_CHPROP_MINORTICKS, lclGetApiTickmarks( maData.mnMinor ) );
rPropSet.SetProperty( EXC_CHPROP_LABELPOSITION, lclGetApiLabelPosition( maData.mnLabelPos ) );
rPropSet.SetProperty( EXC_CHPROP_MARKPOSITION, cssc::ChartAxisMarkPosition_AT_AXIS );
}
XclImpChAxis::XclImpChAxis( const XclImpChRoot& rRoot, sal_uInt16 nAxisType ) :
XclImpChRoot( rRoot ),
mnNumFmtIdx( EXC_FORMAT_NOTFOUND )
{
maData.mnType = nAxisType;
}
void XclImpChAxis::ReadHeaderRecord( XclImpStream& rStrm )
{
maData.mnType = rStrm.ReaduInt16();
}
void XclImpChAxis::ReadSubRecord( XclImpStream& rStrm )
{
switch( rStrm.GetRecId() )
{
case EXC_ID_CHLABELRANGE:
mxLabelRange = std::make_shared<XclImpChLabelRange>( GetChRoot() );
mxLabelRange->ReadChLabelRange( rStrm );
break;
case EXC_ID_CHDATERANGE:
if( !mxLabelRange )
mxLabelRange = std::make_shared<XclImpChLabelRange>( GetChRoot() );
mxLabelRange->ReadChDateRange( rStrm );
break;
case EXC_ID_CHVALUERANGE:
mxValueRange = std::make_shared<XclImpChValueRange>( GetChRoot() );
mxValueRange->ReadChValueRange( rStrm );
break;
case EXC_ID_CHFORMAT:
mnNumFmtIdx = rStrm.ReaduInt16();
break;
case EXC_ID_CHTICK:
mxTick = std::make_shared<XclImpChTick>( GetChRoot() );
mxTick->ReadChTick( rStrm );
break;
case EXC_ID_CHFONT:
mxFont = std::make_shared<XclImpChFont>();
mxFont->ReadChFont( rStrm );
break;
case EXC_ID_CHAXISLINE:
ReadChAxisLine( rStrm );
break;
}
}
void XclImpChAxis::Finalize()
{
// add default scaling, needed e.g. to adjust rotation direction of pie and radar charts
if( !mxLabelRange )
mxLabelRange = std::make_shared<XclImpChLabelRange>( GetChRoot() );
if( !mxValueRange )
mxValueRange = std::make_shared<XclImpChValueRange>( GetChRoot() );
// remove invisible grid lines completely
if( mxMajorGrid && !mxMajorGrid->HasLine() )
mxMajorGrid.clear();
if( mxMinorGrid && !mxMinorGrid->HasLine() )
mxMinorGrid.clear();
// default tick settings different in OOChart and Excel
if( !mxTick )
mxTick = std::make_shared<XclImpChTick>( GetChRoot() );
// #i4140# different default axis line color
if( !mxAxisLine )
{
XclChLineFormat aLineFmt;
// set "show axis" flag, default if line format record is missing
::set_flag( aLineFmt.mnFlags, EXC_CHLINEFORMAT_SHOWAXIS );
mxAxisLine = new XclImpChLineFormat( aLineFmt );
}
// add wall/floor frame for 3d charts
if( !mxWallFrame )
CreateWallFrame();
}
sal_uInt16 XclImpChAxis::GetFontIndex() const
{
return mxFont ? mxFont->GetFontIndex() : EXC_FONT_NOTFOUND;
}
Color XclImpChAxis::GetFontColor() const
{
return mxTick ? mxTick->GetFontColor() : GetFontAutoColor();
}
sal_uInt16 XclImpChAxis::GetRotation() const
{
return mxTick ? mxTick->GetRotation() : EXC_CHART_AUTOROTATION;
}
Reference< XAxis > XclImpChAxis::CreateAxis( const XclImpChTypeGroup& rTypeGroup, const XclImpChAxis* pCrossingAxis ) const
{
// create the axis object (always)
Reference< XAxis > xAxis( ScfApiHelper::CreateInstance( SERVICE_CHART2_AXIS ), UNO_QUERY );
if( xAxis.is() )
{
ScfPropertySet aAxisProp( xAxis );
// #i58688# axis enabled
aAxisProp.SetBoolProperty( EXC_CHPROP_SHOW, !mxAxisLine || mxAxisLine->IsShowAxis() );
// axis line properties
if( mxAxisLine )
mxAxisLine->Convert( GetChRoot(), aAxisProp, EXC_CHOBJTYPE_AXISLINE );
// axis ticks properties
if( mxTick )
mxTick->Convert( aAxisProp );
// axis caption text --------------------------------------------------
// radar charts disable their category labels via chart type, not via axis
bool bHasLabels = (!mxTick || mxTick->HasLabels()) &&
((GetAxisType() != EXC_CHAXIS_X) || rTypeGroup.HasCategoryLabels());
aAxisProp.SetBoolProperty( EXC_CHPROP_DISPLAYLABELS, bHasLabels );
if( bHasLabels )
{
// font settings from CHFONT record or from default text
if( mxFont )
ConvertFontBase( GetChRoot(), aAxisProp );
else if( const XclImpChText* pDefText = GetChartData().GetDefaultText( EXC_CHTEXTTYPE_AXISLABEL ) )
pDefText->ConvertFont( aAxisProp );
// label text rotation
ConvertRotationBase( aAxisProp, true );
// number format
bool bLinkNumberFmtToSource = true;
if ( mnNumFmtIdx != EXC_FORMAT_NOTFOUND )
{
sal_uInt32 nScNumFmt = GetNumFmtBuffer().GetScFormat( mnNumFmtIdx );
if( nScNumFmt != NUMBERFORMAT_ENTRY_NOT_FOUND )
{
aAxisProp.SetProperty( EXC_CHPROP_NUMBERFORMAT, static_cast< sal_Int32 >( nScNumFmt ) );
bLinkNumberFmtToSource = false;
}
}
aAxisProp.SetProperty( EXC_CHPROP_NUMBERFORMAT_LINKSRC, bLinkNumberFmtToSource );
}
// axis scaling and increment -----------------------------------------
const XclChExtTypeInfo& rTypeInfo = rTypeGroup.GetTypeInfo();
ScaleData aScaleData = xAxis->getScaleData();
// set axis type
switch( GetAxisType() )
{
case EXC_CHAXIS_X:
if( rTypeInfo.mbCategoryAxis )
{
aScaleData.AxisType = cssc2::AxisType::CATEGORY;
aScaleData.Categories = rTypeGroup.CreateCategSequence();
}
else
aScaleData.AxisType = cssc2::AxisType::REALNUMBER;
break;
case EXC_CHAXIS_Y:
aScaleData.AxisType = rTypeGroup.IsPercent() ?
cssc2::AxisType::PERCENT : cssc2::AxisType::REALNUMBER;
break;
case EXC_CHAXIS_Z:
aScaleData.AxisType = cssc2::AxisType::SERIES;
break;
}
// axis scaling settings, dependent on axis type
switch( aScaleData.AxisType )
{
case cssc2::AxisType::CATEGORY:
case cssc2::AxisType::SERIES:
// #i71684# radar charts have reversed rotation direction
if (mxLabelRange)
mxLabelRange->Convert( aAxisProp, aScaleData, rTypeInfo.meTypeCateg == EXC_CHTYPECATEG_RADAR );
else
SAL_WARN("sc.filter", "missing LabelRange");
break;
case cssc2::AxisType::REALNUMBER:
case cssc2::AxisType::PERCENT:
// #i85167# pie/donut charts have reversed rotation direction (at Y axis!)
if (mxValueRange)
mxValueRange->Convert( aScaleData, rTypeInfo.meTypeCateg == EXC_CHTYPECATEG_PIE );
else
SAL_WARN("sc.filter", "missing ValueRange");
break;
default:
OSL_FAIL( "XclImpChAxis::CreateAxis - unknown axis type" );
}
/* Do not set a value to the Origin member anymore (will be done via
new axis properties 'CrossoverPosition' and 'CrossoverValue'). */
aScaleData.Origin.clear();
// write back
xAxis->setScaleData( aScaleData );
// grid ---------------------------------------------------------------
// main grid
ScfPropertySet aGridProp( xAxis->getGridProperties() );
aGridProp.SetBoolProperty( EXC_CHPROP_SHOW, static_cast<bool>(mxMajorGrid) );
if( mxMajorGrid )
mxMajorGrid->Convert( GetChRoot(), aGridProp, EXC_CHOBJTYPE_GRIDLINE );
// sub grid
Sequence< Reference< XPropertySet > > aSubGridPropSeq = xAxis->getSubGridProperties();
if( aSubGridPropSeq.hasElements() )
{
ScfPropertySet aSubGridProp( aSubGridPropSeq[ 0 ] );
aSubGridProp.SetBoolProperty( EXC_CHPROP_SHOW, static_cast<bool>(mxMinorGrid) );
if( mxMinorGrid )
mxMinorGrid->Convert( GetChRoot(), aSubGridProp, EXC_CHOBJTYPE_GRIDLINE );
}
// position of crossing axis ------------------------------------------
if( pCrossingAxis )
pCrossingAxis->ConvertAxisPosition( aAxisProp, rTypeGroup );
}
return xAxis;
}
void XclImpChAxis::ConvertWall( ScfPropertySet& rPropSet ) const
{
// #i71810# walls and floor in 3D charts use the CHPICFORMAT record for bitmap mode
if( mxWallFrame )
mxWallFrame->Convert( rPropSet, true );
}
void XclImpChAxis::ConvertAxisPosition( ScfPropertySet& rPropSet, const XclImpChTypeGroup& rTypeGroup ) const
{
if( ((GetAxisType() == EXC_CHAXIS_X) && rTypeGroup.GetTypeInfo().mbCategoryAxis) || (GetAxisType() == EXC_CHAXIS_Z) )
{
if (mxLabelRange)
mxLabelRange->ConvertAxisPosition( rPropSet, rTypeGroup.Is3dChart() );
else
SAL_WARN("sc.filter", "missing LabelRange");
}
else
{
if (mxValueRange)
mxValueRange->ConvertAxisPosition( rPropSet );
else
SAL_WARN("sc.filter", "missing ValueRange");
}
}
void XclImpChAxis::ReadChAxisLine( XclImpStream& rStrm )
{
XclImpChLineFormatRef* pxLineFmt = nullptr;
bool bWallFrame = false;
switch( rStrm.ReaduInt16() )
{
case EXC_CHAXISLINE_AXISLINE: pxLineFmt = &mxAxisLine; break;
case EXC_CHAXISLINE_MAJORGRID: pxLineFmt = &mxMajorGrid; break;
case EXC_CHAXISLINE_MINORGRID: pxLineFmt = &mxMinorGrid; break;
case EXC_CHAXISLINE_WALLS: bWallFrame = true; break;
}
if( bWallFrame )
CreateWallFrame();
bool bLoop = pxLineFmt || bWallFrame;
while( bLoop )
{
sal_uInt16 nRecId = rStrm.GetNextRecId();
bLoop = ((nRecId == EXC_ID_CHLINEFORMAT) ||
(nRecId == EXC_ID_CHAREAFORMAT) ||
(nRecId == EXC_ID_CHESCHERFORMAT))
&& rStrm.StartNextRecord();
if( bLoop )
{
if( pxLineFmt && (nRecId == EXC_ID_CHLINEFORMAT) )
{
(*pxLineFmt) = new XclImpChLineFormat();
(*pxLineFmt)->ReadChLineFormat( rStrm );
}
else if( bWallFrame && mxWallFrame )
{
mxWallFrame->ReadSubRecord( rStrm );
}
}
}
}
void XclImpChAxis::CreateWallFrame()
{
switch( GetAxisType() )
{
case EXC_CHAXIS_X:
mxWallFrame = std::make_shared<XclImpChFrame>( GetChRoot(), EXC_CHOBJTYPE_WALL3D );
break;
case EXC_CHAXIS_Y:
mxWallFrame = std::make_shared<XclImpChFrame>( GetChRoot(), EXC_CHOBJTYPE_FLOOR3D );
break;
default:
mxWallFrame.reset();
}
}
XclImpChAxesSet::XclImpChAxesSet( const XclImpChRoot& rRoot, sal_uInt16 nAxesSetId ) :
XclImpChRoot( rRoot )
{
maData.mnAxesSetId = nAxesSetId;
}
void XclImpChAxesSet::ReadHeaderRecord( XclImpStream& rStrm )
{
maData.mnAxesSetId = rStrm.ReaduInt16();
rStrm >> maData.maRect;
}
void XclImpChAxesSet::ReadSubRecord( XclImpStream& rStrm )
{
switch( rStrm.GetRecId() )
{
case EXC_ID_CHFRAMEPOS:
mxFramePos = std::make_shared<XclImpChFramePos>();
mxFramePos->ReadChFramePos( rStrm );
break;
case EXC_ID_CHAXIS:
ReadChAxis( rStrm );
break;
case EXC_ID_CHTEXT:
ReadChText( rStrm );
break;
case EXC_ID_CHPLOTFRAME:
ReadChPlotFrame( rStrm );
break;
case EXC_ID_CHTYPEGROUP:
ReadChTypeGroup( rStrm );
break;
}
}
void XclImpChAxesSet::Finalize()
{
if( IsValidAxesSet() )
{
// finalize chart type groups, erase empty groups without series
XclImpChTypeGroupMap aValidGroups;
for (auto const& typeGroup : maTypeGroups)
{
XclImpChTypeGroupRef xTypeGroup = typeGroup.second;
xTypeGroup->Finalize();
if( xTypeGroup->IsValidGroup() )
aValidGroups.emplace(typeGroup.first, xTypeGroup);
}
maTypeGroups.swap( aValidGroups );
}
// invalid chart type groups are deleted now, check again with IsValidAxesSet()
if( !IsValidAxesSet() )
return;
// always create missing axis objects
if( !mxXAxis )
mxXAxis = std::make_shared<XclImpChAxis>( GetChRoot(), EXC_CHAXIS_X );
if( !mxYAxis )
mxYAxis = std::make_shared<XclImpChAxis>( GetChRoot(), EXC_CHAXIS_Y );
if( !mxZAxis && GetFirstTypeGroup()->Is3dDeepChart() )
mxZAxis = std::make_shared<XclImpChAxis>( GetChRoot(), EXC_CHAXIS_Z );
// finalize axes
if( mxXAxis ) mxXAxis->Finalize();
if( mxYAxis ) mxYAxis->Finalize();
if( mxZAxis ) mxZAxis->Finalize();
// finalize axis titles
const XclImpChText* pDefText = GetChartData().GetDefaultText( EXC_CHTEXTTYPE_AXISTITLE );
OUString aAutoTitle(ScResId(STR_AXISTITLE));
lclFinalizeTitle( mxXAxisTitle, pDefText, aAutoTitle );
lclFinalizeTitle( mxYAxisTitle, pDefText, aAutoTitle );
lclFinalizeTitle( mxZAxisTitle, pDefText, aAutoTitle );
// #i47745# missing plot frame -> invisible border and area
if( !mxPlotFrame )
mxPlotFrame = std::make_shared<XclImpChFrame>( GetChRoot(), EXC_CHOBJTYPE_PLOTFRAME );
}
XclImpChTypeGroupRef XclImpChAxesSet::GetTypeGroup( sal_uInt16 nGroupIdx ) const
{
XclImpChTypeGroupMap::const_iterator itr = maTypeGroups.find(nGroupIdx);
return itr == maTypeGroups.end() ? XclImpChTypeGroupRef() : itr->second;
}
XclImpChTypeGroupRef XclImpChAxesSet::GetFirstTypeGroup() const
{
XclImpChTypeGroupRef xTypeGroup;
if( !maTypeGroups.empty() )
xTypeGroup = maTypeGroups.begin()->second;
return xTypeGroup;
}
XclImpChLegendRef XclImpChAxesSet::GetLegend() const
{
XclImpChLegendRef xLegend;
for( const auto& rEntry : maTypeGroups )
{
xLegend = rEntry.second->GetLegend();
if (xLegend)
break;
}
return xLegend;
}
OUString XclImpChAxesSet::GetSingleSeriesTitle() const
{
return (maTypeGroups.size() == 1) ? maTypeGroups.begin()->second->GetSingleSeriesTitle() : OUString();
}
void XclImpChAxesSet::Convert( Reference< XDiagram > const & xDiagram ) const
{
if( !(IsValidAxesSet() && xDiagram.is()) )
return;
// diagram background formatting
if( GetAxesSetId() == EXC_CHAXESSET_PRIMARY )
ConvertBackground( xDiagram );
// create the coordinate system, this inserts all chart types and series
Reference< XCoordinateSystem > xCoordSystem = CreateCoordSystem( xDiagram );
if( !xCoordSystem.is() )
return;
// insert coordinate system, if not already done
try
{
Reference< XCoordinateSystemContainer > xCoordSystemCont( xDiagram, UNO_QUERY_THROW );
Sequence< Reference< XCoordinateSystem > > aCoordSystems = xCoordSystemCont->getCoordinateSystems();
if( !aCoordSystems.hasElements() )
xCoordSystemCont->addCoordinateSystem( xCoordSystem );
}
catch( Exception& )
{
OSL_FAIL( "XclImpChAxesSet::Convert - cannot insert coordinate system" );
}
// create the axes with grids and axis titles and insert them into the diagram
ConvertAxis( mxXAxis, mxXAxisTitle, xCoordSystem, mxYAxis.get() );
ConvertAxis( mxYAxis, mxYAxisTitle, xCoordSystem, mxXAxis.get() );
ConvertAxis( mxZAxis, mxZAxisTitle, xCoordSystem, nullptr );
}
void XclImpChAxesSet::ConvertTitlePositions() const
{
if( mxXAxisTitle )
mxXAxisTitle->ConvertTitlePosition( XclChTextKey( EXC_CHTEXTTYPE_AXISTITLE, maData.mnAxesSetId, EXC_CHAXIS_X ) );
if( mxYAxisTitle )
mxYAxisTitle->ConvertTitlePosition( XclChTextKey( EXC_CHTEXTTYPE_AXISTITLE, maData.mnAxesSetId, EXC_CHAXIS_Y ) );
if( mxZAxisTitle )
mxZAxisTitle->ConvertTitlePosition( XclChTextKey( EXC_CHTEXTTYPE_AXISTITLE, maData.mnAxesSetId, EXC_CHAXIS_Z ) );
}
void XclImpChAxesSet::ReadChAxis( XclImpStream& rStrm )
{
XclImpChAxisRef xAxis = std::make_shared<XclImpChAxis>( GetChRoot() );
xAxis->ReadRecordGroup( rStrm );
switch( xAxis->GetAxisType() )
{
case EXC_CHAXIS_X: mxXAxis = xAxis; break;
case EXC_CHAXIS_Y: mxYAxis = xAxis; break;
case EXC_CHAXIS_Z: mxZAxis = xAxis; break;
}
}
void XclImpChAxesSet::ReadChText( XclImpStream& rStrm )
{
XclImpChTextRef xText = std::make_shared<XclImpChText>( GetChRoot() );
xText->ReadRecordGroup( rStrm );
switch( xText->GetLinkTarget() )
{
case EXC_CHOBJLINK_XAXIS: mxXAxisTitle = xText; break;
case EXC_CHOBJLINK_YAXIS: mxYAxisTitle = xText; break;
case EXC_CHOBJLINK_ZAXIS: mxZAxisTitle = xText; break;
}
}
void XclImpChAxesSet::ReadChPlotFrame( XclImpStream& rStrm )
{
if( (rStrm.GetNextRecId() == EXC_ID_CHFRAME) && rStrm.StartNextRecord() )
{
mxPlotFrame = std::make_shared<XclImpChFrame>( GetChRoot(), EXC_CHOBJTYPE_PLOTFRAME );
mxPlotFrame->ReadRecordGroup( rStrm );
}
}
void XclImpChAxesSet::ReadChTypeGroup( XclImpStream& rStrm )
{
XclImpChTypeGroupRef xTypeGroup = std::make_shared<XclImpChTypeGroup>( GetChRoot() );
xTypeGroup->ReadRecordGroup( rStrm );
sal_uInt16 nGroupIdx = xTypeGroup->GetGroupIdx();
XclImpChTypeGroupMap::iterator itr = maTypeGroups.lower_bound(nGroupIdx);
if (itr != maTypeGroups.end() && !maTypeGroups.key_comp()(nGroupIdx, itr->first))
{
// Overwrite the existing element.
itr->second = std::move(xTypeGroup);
}
else
maTypeGroups.insert(
itr, XclImpChTypeGroupMap::value_type(nGroupIdx, xTypeGroup));
}
Reference< XCoordinateSystem > XclImpChAxesSet::CreateCoordSystem( Reference< XDiagram > const & xDiagram ) const
{
Reference< XCoordinateSystem > xCoordSystem;
/* Try to get existing coordinate system. For now, all series from primary
and secondary axes sets are inserted into one coordinate system. Later,
this should be changed to use one coordinate system for each axes set. */
Reference< XCoordinateSystemContainer > xCoordSystemCont( xDiagram, UNO_QUERY );
if( xCoordSystemCont.is() )
{
Sequence< Reference< XCoordinateSystem > > aCoordSystems = xCoordSystemCont->getCoordinateSystems();
OSL_ENSURE( aCoordSystems.getLength() <= 1, "XclImpChAxesSet::CreateCoordSystem - too many existing coordinate systems" );
if( aCoordSystems.hasElements() )
xCoordSystem = aCoordSystems[ 0 ];
}
// create the coordinate system according to the first chart type
if( !xCoordSystem.is() )
{
XclImpChTypeGroupRef xTypeGroup = GetFirstTypeGroup();
if( xTypeGroup )
{
xCoordSystem = xTypeGroup->CreateCoordSystem();
// convert 3d chart settings
ScfPropertySet aDiaProp( xDiagram );
xTypeGroup->ConvertChart3d( aDiaProp );
}
}
/* Create XChartType objects for all chart type groups. Each group will
add its series to the data provider attached to the chart document. */
Reference< XChartTypeContainer > xChartTypeCont( xCoordSystem, UNO_QUERY );
if( xChartTypeCont.is() )
{
sal_Int32 nApiAxesSetIdx = GetApiAxesSetIndex();
for( const auto& rEntry : maTypeGroups )
{
try
{
Reference< XChartType > xChartType = rEntry.second->CreateChartType( xDiagram, nApiAxesSetIdx );
if( xChartType.is() )
xChartTypeCont->addChartType( xChartType );
}
catch( Exception& )
{
OSL_FAIL( "XclImpChAxesSet::CreateCoordSystem - cannot add chart type" );
}
}
}
return xCoordSystem;
}
void XclImpChAxesSet::ConvertAxis(
XclImpChAxisRef const & xChAxis, XclImpChTextRef const & xChAxisTitle,
Reference< XCoordinateSystem > const & xCoordSystem, const XclImpChAxis* pCrossingAxis ) const
{
if( !xChAxis )
return;
// create and attach the axis object
Reference< XAxis > xAxis = CreateAxis( *xChAxis, pCrossingAxis );
if( !xAxis.is() )
return;
// create and attach the axis title
if( xChAxisTitle ) try
{
Reference< XTitled > xTitled( xAxis, UNO_QUERY_THROW );
Reference< XTitle > xTitle( xChAxisTitle->CreateTitle(), UNO_SET_THROW );
xTitled->setTitleObject( xTitle );
}
catch( Exception& )
{
OSL_FAIL( "XclImpChAxesSet::ConvertAxis - cannot set axis title" );
}
// insert axis into coordinate system
try
{
sal_Int32 nApiAxisDim = xChAxis->GetApiAxisDimension();
sal_Int32 nApiAxesSetIdx = GetApiAxesSetIndex();
xCoordSystem->setAxisByDimension( nApiAxisDim, xAxis, nApiAxesSetIdx );
}
catch( Exception& )
{
OSL_FAIL( "XclImpChAxesSet::ConvertAxis - cannot set axis" );
}
}
Reference< XAxis > XclImpChAxesSet::CreateAxis( const XclImpChAxis& rChAxis, const XclImpChAxis* pCrossingAxis ) const
{
Reference< XAxis > xAxis;
if( const XclImpChTypeGroup* pTypeGroup = GetFirstTypeGroup().get() )
xAxis = rChAxis.CreateAxis( *pTypeGroup, pCrossingAxis );
return xAxis;
}
void XclImpChAxesSet::ConvertBackground( Reference< XDiagram > const & xDiagram ) const
{
XclImpChTypeGroupRef xTypeGroup = GetFirstTypeGroup();
if( xTypeGroup && xTypeGroup->Is3dWallChart() )
{
// wall/floor formatting (3D charts)
if( mxXAxis )
{
ScfPropertySet aWallProp( xDiagram->getWall() );
mxXAxis->ConvertWall( aWallProp );
}
if( mxYAxis )
{
ScfPropertySet aFloorProp( xDiagram->getFloor() );
mxYAxis->ConvertWall( aFloorProp );
}
}
else if( mxPlotFrame )
{
// diagram background formatting
ScfPropertySet aWallProp( xDiagram->getWall() );
mxPlotFrame->Convert( aWallProp );
}
}
// The chart object ===========================================================
XclImpChChart::XclImpChChart( const XclImpRoot& rRoot ) :
XclImpChRoot( rRoot, *this )
{
mxPrimAxesSet = std::make_shared<XclImpChAxesSet>( GetChRoot(), EXC_CHAXESSET_PRIMARY );
mxSecnAxesSet = std::make_shared<XclImpChAxesSet>( GetChRoot(), EXC_CHAXESSET_SECONDARY );
}
XclImpChChart::~XclImpChChart()
{
}
void XclImpChChart::ReadHeaderRecord( XclImpStream& rStrm )
{
// coordinates are stored as 16.16 fixed point
rStrm >> maRect;
}
void XclImpChChart::ReadSubRecord( XclImpStream& rStrm )
{
switch( rStrm.GetRecId() )
{
case EXC_ID_CHFRAME:
mxFrame = std::make_shared<XclImpChFrame>( GetChRoot(), EXC_CHOBJTYPE_BACKGROUND );
mxFrame->ReadRecordGroup( rStrm );
break;
case EXC_ID_CHSERIES:
ReadChSeries( rStrm );
break;
case EXC_ID_CHPROPERTIES:
ReadChProperties( rStrm );
break;
case EXC_ID_CHDEFAULTTEXT:
ReadChDefaultText( rStrm );
break;
case EXC_ID_CHAXESSET:
ReadChAxesSet( rStrm );
break;
case EXC_ID_CHTEXT:
ReadChText( rStrm );
break;
case EXC_ID_CHEND:
Finalize(); // finalize the entire chart object
break;
}
}
void XclImpChChart::ReadChDefaultText( XclImpStream& rStrm )
{
sal_uInt16 nTextId = rStrm.ReaduInt16();
if( (rStrm.GetNextRecId() == EXC_ID_CHTEXT) && rStrm.StartNextRecord() )
{
unique_ptr<XclImpChText> pText(new XclImpChText(GetChRoot()));
pText->ReadRecordGroup(rStrm);
m_DefTexts.insert(std::make_pair(nTextId, std::move(pText)));
}
}
void XclImpChChart::ReadChDataFormat( XclImpStream& rStrm )
{
XclImpChDataFormatRef xDataFmt = std::make_shared<XclImpChDataFormat>( GetChRoot() );
xDataFmt->ReadRecordGroup( rStrm );
if( xDataFmt->GetPointPos().mnSeriesIdx <= EXC_CHSERIES_MAXSERIES )
{
const XclChDataPointPos& rPos = xDataFmt->GetPointPos();
XclImpChDataFormatMap::iterator itr = maDataFmts.lower_bound(rPos);
if (itr == maDataFmts.end() || maDataFmts.key_comp()(rPos, itr->first))
// No element exists for this data point. Insert it.
maDataFmts.insert(
itr, XclImpChDataFormatMap::value_type(rPos, xDataFmt));
/* Do not overwrite existing data format group, Excel always uses the
first data format group occurring in any CHSERIES group. */
}
}
void XclImpChChart::UpdateObjFrame( const XclObjLineData& rLineData, const XclObjFillData& rFillData )
{
if( !mxFrame )
mxFrame = std::make_shared<XclImpChFrame>( GetChRoot(), EXC_CHOBJTYPE_BACKGROUND );
mxFrame->UpdateObjFrame( rLineData, rFillData );
}
XclImpChTypeGroupRef XclImpChChart::GetTypeGroup( sal_uInt16 nGroupIdx ) const
{
XclImpChTypeGroupRef xTypeGroup = mxPrimAxesSet->GetTypeGroup( nGroupIdx );
if( !xTypeGroup ) xTypeGroup = mxSecnAxesSet->GetTypeGroup( nGroupIdx );
if( !xTypeGroup ) xTypeGroup = mxPrimAxesSet->GetFirstTypeGroup();
return xTypeGroup;
}
const XclImpChText* XclImpChChart::GetDefaultText( XclChTextType eTextType ) const
{
sal_uInt16 nDefTextId = EXC_CHDEFTEXT_GLOBAL;
bool bBiff8 = GetBiff() == EXC_BIFF8;
switch( eTextType )
{
case EXC_CHTEXTTYPE_TITLE: nDefTextId = EXC_CHDEFTEXT_GLOBAL; break;
case EXC_CHTEXTTYPE_LEGEND: nDefTextId = EXC_CHDEFTEXT_GLOBAL; break;
case EXC_CHTEXTTYPE_AXISTITLE: nDefTextId = bBiff8 ? EXC_CHDEFTEXT_AXESSET : EXC_CHDEFTEXT_GLOBAL; break;
case EXC_CHTEXTTYPE_AXISLABEL: nDefTextId = bBiff8 ? EXC_CHDEFTEXT_AXESSET : EXC_CHDEFTEXT_GLOBAL; break;
case EXC_CHTEXTTYPE_DATALABEL: nDefTextId = bBiff8 ? EXC_CHDEFTEXT_AXESSET : EXC_CHDEFTEXT_GLOBAL; break;
}
XclImpChTextMap::const_iterator const itr = m_DefTexts.find(nDefTextId);
return itr == m_DefTexts.end() ? nullptr : itr->second.get();
}
bool XclImpChChart::IsManualPlotArea() const
{
// there is no real automatic mode in BIFF5 charts
return (GetBiff() <= EXC_BIFF5) || ::get_flag( maProps.mnFlags, EXC_CHPROPS_USEMANPLOTAREA );
}
void XclImpChChart::Convert( const Reference<XChartDocument>& xChartDoc,
XclImpDffConverter& rDffConv, const OUString& rObjName, const tools::Rectangle& rChartRect ) const
{
// initialize conversion (locks the model to suppress any internal updates)
InitConversion( xChartDoc, rChartRect );
// chart frame formatting
if( mxFrame )
{
ScfPropertySet aFrameProp( xChartDoc->getPageBackground() );
mxFrame->Convert( aFrameProp );
}
// chart title
if( mxTitle ) try
{
Reference< XTitled > xTitled( xChartDoc, UNO_QUERY_THROW );
Reference< XTitle > xTitle( mxTitle->CreateTitle(), UNO_SET_THROW );
xTitled->setTitleObject( xTitle );
}
catch( Exception& )
{
}
/* Create the diagram object and attach it to the chart document. Currently,
one diagram is used to carry all coordinate systems and data series. */
Reference< XDiagram > xDiagram = CreateDiagram();
xChartDoc->setFirstDiagram( xDiagram );
// coordinate systems and chart types, convert axis settings
mxPrimAxesSet->Convert( xDiagram );
mxSecnAxesSet->Convert( xDiagram );
// legend
if( xDiagram.is() && mxLegend )
xDiagram->setLegend( mxLegend->CreateLegend() );
/* Following all conversions needing the old Chart1 API that involves full
initialization of the chart view. */
Reference< cssc::XChartDocument > xChart1Doc( xChartDoc, UNO_QUERY );
if( xChart1Doc.is() )
{
Reference< cssc::XDiagram > xDiagram1 = xChart1Doc->getDiagram();
/* Set the 'IncludeHiddenCells' property via the old API as only this
ensures that the data provider and all created sequences get this
flag correctly. */
ScfPropertySet aDiaProp( xDiagram1 );
bool bShowVisCells = ::get_flag( maProps.mnFlags, EXC_CHPROPS_SHOWVISIBLEONLY );
aDiaProp.SetBoolProperty( EXC_CHPROP_INCLUDEHIDDENCELLS, !bShowVisCells );
// plot area position and size (there is no real automatic mode in BIFF5 charts)
XclImpChFramePosRef xPlotAreaPos = mxPrimAxesSet->GetPlotAreaFramePos();
if( IsManualPlotArea() && xPlotAreaPos ) try
{
const XclChFramePos& rFramePos = xPlotAreaPos->GetFramePosData();
if( (rFramePos.mnTLMode == EXC_CHFRAMEPOS_PARENT) && (rFramePos.mnBRMode == EXC_CHFRAMEPOS_PARENT) )
{
Reference< cssc::XDiagramPositioning > xPositioning( xDiagram1, UNO_QUERY_THROW );
css::awt::Rectangle aDiagramRect = CalcHmmFromChartRect( rFramePos.maRect );
// for pie charts, always set inner plot area size to exclude the data labels as Excel does
const XclImpChTypeGroup* pFirstTypeGroup = mxPrimAxesSet->GetFirstTypeGroup().get();
if( pFirstTypeGroup && (pFirstTypeGroup->GetTypeInfo().meTypeCateg == EXC_CHTYPECATEG_PIE) )
xPositioning->setDiagramPositionExcludingAxes( aDiagramRect );
else if( pFirstTypeGroup && pFirstTypeGroup->Is3dChart() )
xPositioning->setDiagramPositionIncludingAxesAndAxisTitles( aDiagramRect );
else
xPositioning->setDiagramPositionIncludingAxes( aDiagramRect );
}
}
catch( Exception& )
{
}
// positions of all title objects
if( mxTitle )
mxTitle->ConvertTitlePosition( XclChTextKey( EXC_CHTEXTTYPE_TITLE ) );
mxPrimAxesSet->ConvertTitlePositions();
mxSecnAxesSet->ConvertTitlePositions();
}
// unlock the model
FinishConversion( rDffConv );
// start listening to this chart
ScDocument& rDoc = GetRoot().GetDoc();
ScChartListenerCollection* pChartCollection = rDoc.GetChartListenerCollection();
if(!pChartCollection)
return;
std::vector< ScTokenRef > aRefTokens;
for( const auto& rxSeries : maSeries )
rxSeries->FillAllSourceLinks( aRefTokens );
if( !aRefTokens.empty() )
{
::std::unique_ptr< ScChartListener > xListener( new ScChartListener( rObjName, rDoc, std::move(aRefTokens) ) );
xListener->SetUsed( true );
xListener->StartListeningTo();
pChartCollection->insert( xListener.release() );
}
}
void XclImpChChart::ReadChSeries( XclImpStream& rStrm )
{
sal_uInt16 nNewSeriesIdx = static_cast< sal_uInt16 >( maSeries.size() );
XclImpChSeriesRef xSeries = std::make_shared<XclImpChSeries>( GetChRoot(), nNewSeriesIdx );
xSeries->ReadRecordGroup( rStrm );
maSeries.push_back( xSeries );
}
void XclImpChChart::ReadChProperties( XclImpStream& rStrm )
{
maProps.mnFlags = rStrm.ReaduInt16();
maProps.mnEmptyMode = rStrm.ReaduInt8();
}
void XclImpChChart::ReadChAxesSet( XclImpStream& rStrm )
{
XclImpChAxesSetRef xAxesSet = std::make_shared<XclImpChAxesSet>( GetChRoot(), EXC_CHAXESSET_NONE );
xAxesSet->ReadRecordGroup( rStrm );
switch( xAxesSet->GetAxesSetId() )
{
case EXC_CHAXESSET_PRIMARY: mxPrimAxesSet = xAxesSet; break;
case EXC_CHAXESSET_SECONDARY: mxSecnAxesSet = xAxesSet; break;
}
}
void XclImpChChart::ReadChText( XclImpStream& rStrm )
{
XclImpChTextRef xText = std::make_shared<XclImpChText>( GetChRoot() );
xText->ReadRecordGroup( rStrm );
switch( xText->GetLinkTarget() )
{
case EXC_CHOBJLINK_TITLE:
mxTitle = xText;
break;
case EXC_CHOBJLINK_DATA:
{
sal_uInt16 nSeriesIdx = xText->GetPointPos().mnSeriesIdx;
if( nSeriesIdx < maSeries.size() )
maSeries[ nSeriesIdx ]->SetDataLabel( xText );
}
break;
}
}
void XclImpChChart::Finalize()
{
// finalize series (must be done first)
FinalizeSeries();
// #i49218# legend may be attached to primary or secondary axes set
mxLegend = mxPrimAxesSet->GetLegend();
if( !mxLegend )
mxLegend = mxSecnAxesSet->GetLegend();
if( mxLegend )
mxLegend->Finalize();
// axes sets, updates chart type group default formats -> must be called before FinalizeDataFormats()
mxPrimAxesSet->Finalize();
mxSecnAxesSet->Finalize();
// formatting of all series
FinalizeDataFormats();
// #i47745# missing frame -> invisible border and area
if( !mxFrame )
mxFrame = std::make_shared<XclImpChFrame>( GetChRoot(), EXC_CHOBJTYPE_BACKGROUND );
// chart title
FinalizeTitle();
}
void XclImpChChart::FinalizeSeries()
{
for( const XclImpChSeriesRef& xSeries : maSeries )
{
if( xSeries->HasParentSeries() )
{
/* Process child series (trend lines and error bars). Data of
child series will be set at the connected parent series. */
if( xSeries->GetParentIdx() < maSeries.size() )
maSeries[ xSeries->GetParentIdx() ]->AddChildSeries( *xSeries );
}
else
{
// insert the series into the related chart type group
if( XclImpChTypeGroup* pTypeGroup = GetTypeGroup( xSeries->GetGroupIdx() ).get() )
pTypeGroup->AddSeries( xSeries );
}
}
}
void XclImpChChart::FinalizeDataFormats()
{
/* #i51639# (part 1): CHDATAFORMAT groups are part of CHSERIES groups.
Each CHDATAFORMAT group specifies the series and data point it is
assigned to. This makes it possible to have a data format that is
related to another series, e.g. a CHDATAFORMAT group for series 2 is
part of a CHSERIES group that describes series 1. Therefore the chart
itself has collected all CHDATAFORMAT groups to be able to store data
format groups for series that have not been imported at that time. This
loop finally assigns these groups to the related series. */
for( const auto& [rPos, rDataFmt] : maDataFmts )
{
sal_uInt16 nSeriesIdx = rPos.mnSeriesIdx;
if( nSeriesIdx < maSeries.size() )
maSeries[ nSeriesIdx ]->SetDataFormat( rDataFmt );
}
/* #i51639# (part 2): Finalize data formats of all series. This adds for
example missing CHDATAFORMAT groups for entire series that are needed
for automatic colors of lines and areas. */
for( auto& rxSeries : maSeries )
rxSeries->FinalizeDataFormats();
}
void XclImpChChart::FinalizeTitle()
{
// special handling for auto-generated title
OUString aAutoTitle;
if( !mxTitle || (!mxTitle->IsDeleted() && !mxTitle->HasString()) )
{
// automatic title from first series name (if there are no series on secondary axes set)
if( !mxSecnAxesSet->IsValidAxesSet() )
aAutoTitle = mxPrimAxesSet->GetSingleSeriesTitle();
if( mxTitle || (!aAutoTitle.isEmpty()) )
{
if( !mxTitle )
mxTitle = std::make_shared<XclImpChText>( GetChRoot() );
if( aAutoTitle.isEmpty() )
aAutoTitle = ScResId(STR_CHARTTITLE);
}
}
// will reset mxTitle, if it does not contain a string and no auto title exists
lclFinalizeTitle( mxTitle, GetDefaultText( EXC_CHTEXTTYPE_TITLE ), aAutoTitle );
}
Reference< XDiagram > XclImpChChart::CreateDiagram() const
{
// create a diagram object
Reference< XDiagram > xDiagram( ScfApiHelper::CreateInstance( SERVICE_CHART2_DIAGRAM ), UNO_QUERY );
// convert global chart settings
ScfPropertySet aDiaProp( xDiagram );
// treatment of missing values
using namespace cssc::MissingValueTreatment;
sal_Int32 nMissingValues = LEAVE_GAP;
switch( maProps.mnEmptyMode )
{
case EXC_CHPROPS_EMPTY_SKIP: nMissingValues = LEAVE_GAP; break;
case EXC_CHPROPS_EMPTY_ZERO: nMissingValues = USE_ZERO; break;
case EXC_CHPROPS_EMPTY_INTERPOLATE: nMissingValues = CONTINUE; break;
}
aDiaProp.SetProperty( EXC_CHPROP_MISSINGVALUETREATMENT, nMissingValues );
return xDiagram;
}
XclImpChartDrawing::XclImpChartDrawing( const XclImpRoot& rRoot, bool bOwnTab ) :
XclImpDrawing( rRoot, bOwnTab ), // sheet charts may contain OLE objects
mnScTab( rRoot.GetCurrScTab() ),
mbOwnTab( bOwnTab )
{
}
void XclImpChartDrawing::ConvertObjects( XclImpDffConverter& rDffConv,
const Reference< XModel >& rxModel, const tools::Rectangle& rChartRect )
{
maChartRect = rChartRect; // needed in CalcAnchorRect() callback
SdrModel* pSdrModel = nullptr;
SdrPage* pSdrPage = nullptr;
if( mbOwnTab )
{
// chart sheet: insert all shapes into the sheet, not into the chart object
pSdrModel = GetDoc().GetDrawLayer();
pSdrPage = GetSdrPage( mnScTab );
}
else
{
// embedded chart object: insert all shapes into the chart
try
{
Reference< XDrawPageSupplier > xDrawPageSupp( rxModel, UNO_QUERY_THROW );
Reference< XDrawPage > xDrawPage( xDrawPageSupp->getDrawPage(), UNO_SET_THROW );
pSdrPage = ::GetSdrPageFromXDrawPage( xDrawPage );
pSdrModel = pSdrPage ? &pSdrPage->getSdrModelFromSdrPage() : nullptr;
}
catch( Exception& )
{
}
}
if( pSdrModel && pSdrPage )
ImplConvertObjects( rDffConv, *pSdrModel, *pSdrPage );
}
tools::Rectangle XclImpChartDrawing::CalcAnchorRect( const XclObjAnchor& rAnchor, bool bDffAnchor ) const
{
/* In objects with DFF client anchor, the position of the shape is stored
in the cell address components of the client anchor. In old BIFF3-BIFF5
objects, the position is stored in the offset components of the anchor. */
tools::Rectangle aRect(
static_cast< tools::Long >( static_cast< double >( bDffAnchor ? rAnchor.maFirst.mnCol : rAnchor.mnLX ) / EXC_CHART_TOTALUNITS * maChartRect.GetWidth() + 0.5 ),
static_cast< tools::Long >( static_cast< double >( bDffAnchor ? rAnchor.maFirst.mnRow : rAnchor.mnTY ) / EXC_CHART_TOTALUNITS * maChartRect.GetHeight() + 0.5 ),
static_cast< tools::Long >( static_cast< double >( bDffAnchor ? rAnchor.maLast.mnCol : rAnchor.mnRX ) / EXC_CHART_TOTALUNITS * maChartRect.GetWidth() + 0.5 ),
static_cast< tools::Long >( static_cast< double >( bDffAnchor ? rAnchor.maLast.mnRow : rAnchor.mnBY ) / EXC_CHART_TOTALUNITS * maChartRect.GetHeight() + 0.5 ) );
aRect.Normalize();
// move shapes into chart area for sheet charts
if( mbOwnTab )
aRect.Move( maChartRect.Left(), maChartRect.Top() );
return aRect;
}
void XclImpChartDrawing::OnObjectInserted( const XclImpDrawObjBase& )
{
}
XclImpChart::XclImpChart( const XclImpRoot& rRoot, bool bOwnTab ) :
XclImpRoot( rRoot ),
mbOwnTab( bOwnTab ),
mbIsPivotChart( false )
{
}
XclImpChart::~XclImpChart()
{
}
void XclImpChart::ReadChartSubStream( XclImpStream& rStrm )
{
XclImpPageSettings& rPageSett = GetPageSettings();
XclImpTabViewSettings& rTabViewSett = GetTabViewSettings();
bool bLoop = true;
while( bLoop && rStrm.StartNextRecord() )
{
// page settings - only for charts in entire sheet
if( mbOwnTab ) switch( rStrm.GetRecId() )
{
case EXC_ID_HORPAGEBREAKS:
case EXC_ID_VERPAGEBREAKS: rPageSett.ReadPageBreaks( rStrm ); break;
case EXC_ID_HEADER:
case EXC_ID_FOOTER: rPageSett.ReadHeaderFooter( rStrm ); break;
case EXC_ID_LEFTMARGIN:
case EXC_ID_RIGHTMARGIN:
case EXC_ID_TOPMARGIN:
case EXC_ID_BOTTOMMARGIN: rPageSett.ReadMargin( rStrm ); break;
case EXC_ID_PRINTHEADERS: rPageSett.ReadPrintHeaders( rStrm ); break;
case EXC_ID_PRINTGRIDLINES: rPageSett.ReadPrintGridLines( rStrm ); break;
case EXC_ID_HCENTER:
case EXC_ID_VCENTER: rPageSett.ReadCenter( rStrm ); break;
case EXC_ID_SETUP: rPageSett.ReadSetup( rStrm ); break;
case EXC_ID8_IMGDATA: rPageSett.ReadImgData( rStrm ); break;
case EXC_ID_WINDOW2: rTabViewSett.ReadWindow2( rStrm, true );break;
case EXC_ID_SCL: rTabViewSett.ReadScl( rStrm ); break;
case EXC_ID_SHEETEXT: //0x0862
{
// FIXME: do not need to pass palette, XclImpTabVieSettings is derived from root
XclImpPalette& rPal = GetPalette();
rTabViewSett.ReadTabBgColor( rStrm, rPal);
}
break;
case EXC_ID_CODENAME: ReadCodeName( rStrm, false ); break;
}
// common records
switch( rStrm.GetRecId() )
{
case EXC_ID_EOF: bLoop = false; break;
// #i31882# ignore embedded chart objects
case EXC_ID2_BOF:
case EXC_ID3_BOF:
case EXC_ID4_BOF:
case EXC_ID5_BOF: XclTools::SkipSubStream( rStrm ); break;
case EXC_ID_CHCHART: ReadChChart( rStrm ); break;
case EXC_ID8_CHPIVOTREF:
GetTracer().TracePivotChartExists();
mbIsPivotChart = true;
break;
// BIFF specific records
default: switch( GetBiff() )
{
case EXC_BIFF5: switch( rStrm.GetRecId() )
{
case EXC_ID_OBJ: GetChartDrawing().ReadObj( rStrm ); break;
}
break;
case EXC_BIFF8: switch( rStrm.GetRecId() )
{
case EXC_ID_MSODRAWING: GetChartDrawing().ReadMsoDrawing( rStrm ); break;
// #i61786# weird documents: OBJ without MSODRAWING -> read in BIFF5 format
case EXC_ID_OBJ: GetChartDrawing().ReadObj( rStrm ); break;
}
break;
default:;
}
}
}
}
void XclImpChart::UpdateObjFrame( const XclObjLineData& rLineData, const XclObjFillData& rFillData )
{
if( !mxChartData )
mxChartData = std::make_shared<XclImpChChart>( GetRoot() );
mxChartData->UpdateObjFrame( rLineData, rFillData );
}
std::size_t XclImpChart::GetProgressSize() const
{
return
(mxChartData ? XclImpChChart::GetProgressSize() : 0) +
(mxChartDrawing ? mxChartDrawing->GetProgressSize() : 0);
}
void XclImpChart::Convert( Reference< XModel > const & xModel, XclImpDffConverter& rDffConv, const OUString& rObjName, const tools::Rectangle& rChartRect ) const
{
Reference< XChartDocument > xChartDoc( xModel, UNO_QUERY );
if( xChartDoc.is() )
{
if( mxChartData )
mxChartData->Convert( xChartDoc, rDffConv, rObjName, rChartRect );
if( mxChartDrawing )
mxChartDrawing->ConvertObjects( rDffConv, xModel, rChartRect );
}
}
XclImpChartDrawing& XclImpChart::GetChartDrawing()
{
if( !mxChartDrawing )
mxChartDrawing = std::make_shared<XclImpChartDrawing>( GetRoot(), mbOwnTab );
return *mxChartDrawing;
}
void XclImpChart::ReadChChart( XclImpStream& rStrm )
{
mxChartData = std::make_shared<XclImpChChart>( GetRoot() );
mxChartData->ReadRecordGroup( rStrm );
}
/* vim:set shiftwidth=4 softtabstop=4 expandtab: */
↑ V1048 The 'nPlacement' variable was assigned the same value.
↑ V1048 The 'nDefTextId' variable was assigned the same value.
↑ V1048 The 'nDefTextId' variable was assigned the same value.