/* -*- Mode: C++; tab-width: 4; indent-tabs-mode: nil; c-basic-offset: 4 -*- */ /************************************************************************* * * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * * Copyright 2000, 2010 Oracle and/or its affiliates. * * OpenOffice.org - a multi-platform office productivity suite * * This file is part of OpenOffice.org. * * OpenOffice.org is free software: you can redistribute it and/or modify * it under the terms of the GNU Lesser General Public License version 3 * only, as published by the Free Software Foundation. * * OpenOffice.org is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU Lesser General Public License version 3 for more details * (a copy is included in the LICENSE file that accompanied this code). * * You should have received a copy of the GNU Lesser General Public License * version 3 along with OpenOffice.org. If not, see * * for a copy of the LGPLv3 License. * ************************************************************************/ #include #include #include "cell.hxx" #include "cellrange.hxx" #include "tablemodel.hxx" #include "tablerow.hxx" #include "tablerows.hxx" #include "tablecolumn.hxx" #include "tablecolumns.hxx" #include "tablelayouter.hxx" #include "svx/svdotable.hxx" #include "editeng/borderline.hxx" #include "editeng/boxitem.hxx" #include "svx/svdmodel.hxx" #include "svx/svdstr.hrc" #include "svx/svdglob.hxx" using ::editeng::SvxBorderLine; using ::rtl::OUString; using ::com::sun::star::awt::XLayoutConstrains; using namespace ::com::sun::star::uno; using namespace ::com::sun::star::table; using namespace ::com::sun::star::lang; using namespace ::com::sun::star::container; using namespace ::com::sun::star::beans; using namespace ::com::sun::star::table; using namespace ::com::sun::star::text; // ----------------------------------------------------------------------------- namespace sdr { namespace table { // ----------------------------------------------------------------------------- static SvxBorderLine gEmptyBorder; // ----------------------------------------------------------------------------- TableLayouter::TableLayouter( const TableModelRef& xTableModel ) : mxTable( xTableModel ) , meWritingMode( WritingMode_LR_TB ) , msSize( RTL_CONSTASCII_USTRINGPARAM( "Size" ) ) { } // ----------------------------------------------------------------------------- TableLayouter::~TableLayouter() { ClearBorderLayout(); } // ----------------------------------------------------------------------------- basegfx::B2ITuple TableLayouter::getCellSize( const CellPos& rPos ) const { sal_Int32 width = 0; sal_Int32 height = 0; try { CellRef xCell( getCell( rPos ) ); if( xCell.is() && !xCell->isMerged() ) { CellPos aPos( rPos ); sal_Int32 nRowCount = getRowCount(); sal_Int32 nRowSpan = std::max( xCell->getRowSpan(), (sal_Int32)1 ); while( nRowSpan && (aPos.mnRow < nRowCount) ) { if( ((sal_Int32)maRows.size()) <= aPos.mnRow ) break; height += maRows[aPos.mnRow++].mnSize; nRowSpan--; } sal_Int32 nColCount = getColumnCount(); sal_Int32 nColSpan = std::max( xCell->getColumnSpan(), (sal_Int32)1 ); while( nColSpan && (aPos.mnCol < nColCount ) ) { if( ((sal_Int32)maColumns.size()) <= aPos.mnCol ) break; width += maColumns[aPos.mnCol++].mnSize; nColSpan--; } } } catch( Exception& ) { OSL_FAIL( "TableLayouter::getCellSize(), exception caught!" ); } return basegfx::B2ITuple( width, height ); } // ----------------------------------------------------------------------------- bool TableLayouter::getCellArea( const CellPos& rPos, basegfx::B2IRectangle& rArea ) const { try { CellRef xCell( getCell( rPos ) ); if( xCell.is() && !xCell->isMerged() && isValid(rPos) ) { const basegfx::B2ITuple aCellSize( getCellSize( rPos ) ); if( (rPos.mnCol < ((sal_Int32)maColumns.size()) && (rPos.mnRow < ((sal_Int32)maRows.size()) ) ) ) { const sal_Int32 x = maColumns[rPos.mnCol].mnPos; const sal_Int32 y = maRows[rPos.mnRow].mnPos; rArea = basegfx::B2IRectangle( x, y, x + aCellSize.getX(), y + aCellSize.getY() ); return true; } } } catch( Exception& ) { OSL_FAIL( "TableLayouter::getCellSize(), exception caught!" ); } return false; } // ----------------------------------------------------------------------------- sal_Int32 TableLayouter::getRowHeight( sal_Int32 nRow ) const { if( isValidRow(nRow) ) return maRows[nRow].mnSize; else return 0; } // ----------------------------------------------------------------------------- sal_Int32 TableLayouter::getColumnWidth( sal_Int32 nColumn ) const { if( isValidColumn(nColumn) ) return maColumns[nColumn].mnSize; else return 0; } // ----------------------------------------------------------------------------- bool TableLayouter::isEdgeVisible( sal_Int32 nEdgeX, sal_Int32 nEdgeY, bool bHorizontal ) const { const BorderLineMap& rMap = bHorizontal ? maHorizontalBorders : maVerticalBorders; if( (nEdgeX >= 0) && (nEdgeX < sal::static_int_cast(rMap.size())) && (nEdgeY >= 0) && (nEdgeY < sal::static_int_cast(rMap[nEdgeX].size())) ) { return rMap[nEdgeX][nEdgeY] != 0; } else { OSL_FAIL( "sdr::table::TableLayouter::getBorderLine(), invalid edge!" ); } return false; } // ----------------------------------------------------------------------------- /** returns the requested borderline in rpBorderLine or a null pointer if there is no border at this edge */ SvxBorderLine* TableLayouter::getBorderLine( sal_Int32 nEdgeX, sal_Int32 nEdgeY, bool bHorizontal )const { SvxBorderLine* pLine = 0; const BorderLineMap& rMap = bHorizontal ? maHorizontalBorders : maVerticalBorders; if( (nEdgeX >= 0) && (nEdgeX < sal::static_int_cast(rMap.size())) && (nEdgeY >= 0) && (nEdgeY < sal::static_int_cast(rMap[nEdgeX].size())) ) { pLine = rMap[nEdgeX][nEdgeY]; if( pLine == &gEmptyBorder ) pLine = 0; } else { OSL_FAIL( "sdr::table::TableLayouter::getBorderLine(), invalid edge!" ); } return pLine; } // ----------------------------------------------------------------------------- sal_Int32 TableLayouter::getHorizontalEdge( int nEdgeY, sal_Int32* pnMin /*= 0*/, sal_Int32* pnMax /*= 0*/ ) { sal_Int32 nRet = 0; if( (nEdgeY >= 0) && (nEdgeY <= getRowCount() ) ) nRet = maRows[std::min((sal_Int32)nEdgeY,getRowCount()-1)].mnPos; if( nEdgeY == getRowCount() ) nRet += maRows[nEdgeY - 1].mnSize; if( pnMin ) { if( (nEdgeY > 0) && (nEdgeY <= getRowCount() ) ) { *pnMin = maRows[nEdgeY-1].mnPos + 600; // todo } else { *pnMin = nRet; } } if( pnMax ) { *pnMax = 0x0fffffff; } return nRet; } // ----------------------------------------------------------------------------- sal_Int32 TableLayouter::getVerticalEdge( int nEdgeX, sal_Int32* pnMin /*= 0*/, sal_Int32* pnMax /*= 0*/ ) { sal_Int32 nRet = 0; const sal_Int32 nColCount = getColumnCount(); if( (nEdgeX >= 0) && (nEdgeX <= nColCount ) ) nRet = maColumns[std::min((sal_Int32)nEdgeX,nColCount-1)].mnPos; const bool bRTL = meWritingMode == WritingMode_RL_TB; if( bRTL ) { if( (nEdgeX >= 0) && (nEdgeX < nColCount) ) nRet += maColumns[nEdgeX].mnSize; } else { if( nEdgeX == getColumnCount() ) nRet += maColumns[nEdgeX - 1].mnSize; } if( pnMin ) { *pnMin = nRet; if( bRTL ) { if( nEdgeX < nColCount ) *pnMin = nRet - maColumns[nEdgeX].mnSize + getMinimumColumnWidth(nEdgeX); } else { if( (nEdgeX > 0) && (nEdgeX <= nColCount ) ) *pnMin = maColumns[nEdgeX-1].mnPos + getMinimumColumnWidth( nEdgeX-1 ); } } if( pnMax ) { *pnMax = 0x0fffffff; // todo if( bRTL ) { if( nEdgeX > 0 ) *pnMax = nRet + maColumns[nEdgeX-1].mnSize - getMinimumColumnWidth( nEdgeX-1 ); } else { if( (nEdgeX >= 0) && (nEdgeX < nColCount ) ) *pnMax = maColumns[nEdgeX].mnPos + maColumns[nEdgeX].mnSize - getMinimumColumnWidth( nEdgeX ); } } return nRet; } // ----------------------------------------------------------------------------- static bool checkMergeOrigin( const TableModelRef& xTable, sal_Int32 nMergedX, sal_Int32 nMergedY, sal_Int32 nCellX, sal_Int32 nCellY, bool& bRunning ) { Reference< XMergeableCell > xCell( xTable->getCellByPosition( nCellX, nCellY ), UNO_QUERY ); if( xCell.is() && !xCell->isMerged() ) { const sal_Int32 nRight = xCell->getColumnSpan() + nCellX; const sal_Int32 nBottom = xCell->getRowSpan() + nCellY; if( (nMergedX < nRight) && (nMergedY < nBottom) ) return true; bRunning = false; } return false; } /** returns true if the cell(nMergedX,nMergedY) is merged with other cells. the returned cell( rOriginX, rOriginY ) is the origin( top left cell ) of the merge. */ bool findMergeOrigin( const TableModelRef& xTable, sal_Int32 nMergedX, sal_Int32 nMergedY, sal_Int32& rOriginX, sal_Int32& rOriginY ) { rOriginX = nMergedX; rOriginY = nMergedY; if( xTable.is() ) try { // check if this cell already the origin or not merged at all Reference< XMergeableCell > xCell( xTable->getCellByPosition( nMergedX, nMergedY ), UNO_QUERY_THROW ); if( !xCell.is() || !xCell->isMerged() ) return true; bool bCheckVert = true; bool bCheckHorz = true; sal_Int32 nMinCol = 0; sal_Int32 nMinRow = 0; sal_Int32 nStep = 1, i; sal_Int32 nRow, nCol; do { if( bCheckVert ) { nRow = nMergedY - nStep; if( nRow >= nMinRow ) { nCol = nMergedX; for( i = 0; (i <= nStep) && (nCol >= nMinCol); i++, nCol-- ) { if( checkMergeOrigin( xTable, nMergedX, nMergedY, nCol, nRow, bCheckVert ) ) { rOriginX = nCol; rOriginY = nRow; return true; } if( !bCheckVert ) { if( nCol == nMergedX ) { nMinRow = nRow+1; } else { bCheckVert = true; } break; } } } else { bCheckVert = false; } } if( bCheckHorz ) { nCol = nMergedX - nStep; if( nCol >= nMinCol ) { nRow = nMergedY; for( i = 0; (i < nStep) && (nRow >= nMinRow); i++, nRow-- ) { if( checkMergeOrigin( xTable, nMergedX, nMergedY, nCol, nRow, bCheckHorz ) ) { rOriginX = nCol; rOriginY = nRow; return true; } if( !bCheckHorz ) { if( nRow == nMergedY ) { nMinCol = nCol+1; } else { bCheckHorz = true; } break; } } } else { bCheckHorz = false; } } nStep++; } while( bCheckVert || bCheckHorz ); } catch( Exception& ) { OSL_FAIL("sdr::table::TableLayouter::findMergeOrigin(), exception caught!"); } return false; } // ----------------------------------------------------------------------------- sal_Int32 TableLayouter::getMinimumColumnWidth( sal_Int32 nColumn ) { if( isValidColumn( nColumn ) ) { return maColumns[nColumn].mnMinSize; } else { OSL_FAIL( "TableLayouter::getMinimumColumnWidth(), column out of range!" ); return 0; } } // ----------------------------------------------------------------------------- sal_Int32 TableLayouter::distribute( LayoutVector& rLayouts, sal_Int32 nDistribute ) { // break loops after 100 runs to avoid freezing office due to developer error sal_Int32 nSafe = 100; const sal_Size nCount = rLayouts.size(); sal_Size nIndex; bool bConstrainsBroken = false; do { // first enforce minimum size constrains on all entities for( nIndex = 0; nIndex < nCount; ++nIndex ) { Layout& rLayout = rLayouts[nIndex]; if( rLayout.mnSize < rLayout.mnMinSize ) { nDistribute -= rLayout.mnMinSize - rLayout.mnSize; rLayout.mnSize = rLayout.mnMinSize; } } // calculate current width // if nDistribute is < 0 (shrinking), entities that are already // at minimum width are not counted sal_Int32 nCurrentWidth = 0; for( nIndex = 0; nIndex < nCount; ++nIndex ) { Layout& rLayout = rLayouts[nIndex]; if( (nDistribute > 0) || (rLayout.mnSize > rLayout.mnMinSize) ) nCurrentWidth += rLayout.mnSize; } bConstrainsBroken = false; // now distribute over entities if( (nCurrentWidth != 0) && (nDistribute != 0) ) { sal_Int32 nDistributed = nDistribute; for( nIndex = 0; nIndex < nCount; ++nIndex ) { Layout& rLayout = rLayouts[nIndex]; if( (nDistribute > 0) || (rLayout.mnSize > rLayout.mnMinSize) ) { sal_Int32 n; if( nIndex == (nCount-1) ) n = nDistributed; // for last entitie, use up rest else n = (nDistribute * rLayout.mnSize) / nCurrentWidth; // nDistributed -= n; rLayout.mnSize += n; if( rLayout.mnSize < rLayout.mnMinSize ) bConstrainsBroken = true; } } } } while( bConstrainsBroken && --nSafe ); sal_Int32 nSize = 0; for( nIndex = 0; nIndex < nCount; ++nIndex ) nSize += rLayouts[nIndex].mnSize; return nSize; } // ----------------------------------------------------------------------------- typedef std::vector< CellRef > MergeableCellVector; typedef std::vector< MergeableCellVector > MergeVector; typedef std::vector< sal_Int32 > Int32Vector; // ----------------------------------------------------------------------------- void TableLayouter::LayoutTableWidth( Rectangle& rArea, bool bFit ) { const sal_Int32 nColCount = getColumnCount(); const sal_Int32 nRowCount = getRowCount(); if( nColCount == 0 ) return; MergeVector aMergedCells( nColCount ); Int32Vector aOptimalColumns; const OUString sOptimalSize( RTL_CONSTASCII_USTRINGPARAM("OptimalSize") ); if( sal::static_int_cast< sal_Int32 >( maColumns.size() ) != nColCount ) maColumns.resize( nColCount ); Reference< XTableColumns > xCols( mxTable->getColumns(), UNO_QUERY_THROW ); // first calculate current width and initial minimum width per column, // merged cells will be counted later sal_Int32 nCurrentWidth = 0; sal_Int32 nCol = 0, nRow = 0; for( nCol = 0; nCol < nColCount; nCol++ ) { sal_Int32 nMinWidth = 0; bool bIsEmpty = true; // check if all cells in this column are merged for( nRow = 0; nRow < nRowCount; ++nRow ) { CellRef xCell( getCell( CellPos( nCol, nRow ) ) ); if( xCell.is() && !xCell->isMerged() ) { bIsEmpty = false; sal_Int32 nColSpan = xCell->getColumnSpan(); if( nColSpan > 1 ) { // merged cells will be evaluated later aMergedCells[nCol+nColSpan-1].push_back( xCell ); } else { nMinWidth = std::max( nMinWidth, xCell->getMinimumSize().Width ); } } } maColumns[nCol].mnMinSize = nMinWidth; if( bIsEmpty ) { maColumns[nCol].mnSize = 0; } else { sal_Int32 nColWidth = 0; Reference< XPropertySet > xColSet( xCols->getByIndex( nCol ), UNO_QUERY_THROW ); sal_Bool bOptimal = sal_False; xColSet->getPropertyValue( sOptimalSize ) >>= bOptimal; if( bOptimal ) { aOptimalColumns.push_back(nCol); } else { xColSet->getPropertyValue( msSize ) >>= nColWidth; } maColumns[nCol].mnSize = nColWidth; if( maColumns[nCol].mnSize < nMinWidth ) maColumns[nCol].mnSize = nMinWidth; nCurrentWidth += maColumns[nCol].mnSize; } } // if we have optimal sized rows, distribute what is given (left) if( !bFit && !aOptimalColumns.empty() && (nCurrentWidth < rArea.getWidth()) ) { sal_Int32 nLeft = rArea.getWidth() - nCurrentWidth; sal_Int32 nDistribute = nLeft / aOptimalColumns.size(); Int32Vector::iterator iter( aOptimalColumns.begin() ); while( iter != aOptimalColumns.end() ) { sal_Int32 nOptCol = (*iter++); if( iter == aOptimalColumns.end() ) nDistribute = nLeft; maColumns[nOptCol].mnSize += nDistribute; nLeft -= nDistribute; } DBG_ASSERT( nLeft == 0, "svx::TableLayouter::LayoutTableWidtht(), layouting failed!" ); } // now check if merged cells fit for( nCol = 1; nCol < nColCount; ++nCol ) { bool bChanges = false; MergeableCellVector::iterator iter( aMergedCells[nCol].begin() ); const sal_Int32 nOldSize = maColumns[nCol].mnSize; while( iter != aMergedCells[nCol].end() ) { CellRef xCell( (*iter++) ); sal_Int32 nMinWidth = xCell->getMinimumSize().Width; for( sal_Int32 nMCol = nCol - xCell->getColumnSpan() + 1; (nMCol > 0) && (nMCol < nCol); ++nMCol ) nMinWidth -= maColumns[nMCol].mnSize; if( nMinWidth > maColumns[nCol].mnMinSize ) maColumns[nCol].mnMinSize = nMinWidth; if( nMinWidth > maColumns[nCol].mnSize ) { maColumns[nCol].mnSize = nMinWidth; bChanges = true; } } if( bChanges ) nCurrentWidth += maColumns[nCol].mnSize - nOldSize; } // now scale if wanted and needed if( bFit && (nCurrentWidth != rArea.getWidth()) ) distribute( maColumns, rArea.getWidth() - nCurrentWidth ); // last step, update left edges sal_Int32 nNewWidth = 0; const bool bRTL = meWritingMode == WritingMode_RL_TB; RangeIterator coliter( 0, nColCount, !bRTL ); while( coliter.next(nCol ) ) { maColumns[nCol].mnPos = nNewWidth; nNewWidth += maColumns[nCol].mnSize; if( bFit ) { Reference< XPropertySet > xColSet( xCols->getByIndex(nCol), UNO_QUERY_THROW ); xColSet->setPropertyValue( msSize, Any( maColumns[nCol].mnSize ) ); } } rArea.SetSize( Size( nNewWidth, rArea.GetHeight() ) ); updateCells( rArea ); } // ----------------------------------------------------------------------------- void TableLayouter::LayoutTableHeight( Rectangle& rArea, bool bFit ) { const sal_Int32 nColCount = getColumnCount(); const sal_Int32 nRowCount = getRowCount(); if( nRowCount == 0 ) return; Reference< XTableRows > xRows( mxTable->getRows() ); MergeVector aMergedCells( nRowCount ); Int32Vector aOptimalRows; const OUString sOptimalSize( RTL_CONSTASCII_USTRINGPARAM("OptimalSize") ); // first calculate current height and initial minimum size per column, // merged cells will be counted later sal_Int32 nCurrentHeight = 0; sal_Int32 nCol, nRow; for( nRow = 0; nRow < nRowCount; ++nRow ) { sal_Int32 nMinHeight = 0; bool bIsEmpty = true; // check if all cells in this row are merged for( nCol = 0; nCol < nColCount; ++nCol ) { CellRef xCell( getCell( CellPos( nCol, nRow ) ) ); if( xCell.is() && !xCell->isMerged() ) { bIsEmpty = false; sal_Int32 nRowSpan = xCell->getRowSpan(); if( nRowSpan > 1 ) { // merged cells will be evaluated later aMergedCells[nRow+nRowSpan-1].push_back( xCell ); } else { nMinHeight = std::max( nMinHeight, xCell->getMinimumSize().Height ); } } } maRows[nRow].mnMinSize = nMinHeight; if( bIsEmpty ) { maRows[nRow].mnSize = 0; } else { sal_Int32 nRowHeight = 0; Reference< XPropertySet > xRowSet( xRows->getByIndex(nRow), UNO_QUERY_THROW ); sal_Bool bOptimal = sal_False; xRowSet->getPropertyValue( sOptimalSize ) >>= bOptimal; if( bOptimal ) { aOptimalRows.push_back( nRow ); } else { xRowSet->getPropertyValue( msSize ) >>= nRowHeight; } maRows[nRow].mnSize = nRowHeight; if( maRows[nRow].mnSize < nMinHeight ) maRows[nRow].mnSize = nMinHeight; nCurrentHeight += maRows[nRow].mnSize; } } // if we have optimal sized rows, distribute what is given (left) if( !bFit && !aOptimalRows.empty() && (nCurrentHeight < rArea.getHeight()) ) { sal_Int32 nLeft = rArea.getHeight() - nCurrentHeight; sal_Int32 nDistribute = nLeft / aOptimalRows.size(); Int32Vector::iterator iter( aOptimalRows.begin() ); while( iter != aOptimalRows.end() ) { sal_Int32 nOptRow = (*iter++); if( iter == aOptimalRows.end() ) nDistribute = nLeft; maRows[nOptRow].mnSize += nDistribute; nLeft -= nDistribute; } DBG_ASSERT( nLeft == 0, "svx::TableLayouter::LayoutTableHeight(), layouting failed!" ); } // now check if merged cells fit for( nRow = 1; nRow < nRowCount; ++nRow ) { bool bChanges = false; sal_Int32 nOldSize = maRows[nRow].mnSize; MergeableCellVector::iterator iter( aMergedCells[nRow].begin() ); while( iter != aMergedCells[nRow].end() ) { CellRef xCell( (*iter++) ); sal_Int32 nMinHeight = xCell->getMinimumSize().Height; for( sal_Int32 nMRow = nRow - xCell->getRowSpan() + 1; (nMRow > 0) && (nMRow < nRow); ++nMRow ) nMinHeight -= maRows[nMRow].mnSize; if( nMinHeight > maRows[nRow].mnMinSize ) maRows[nRow].mnMinSize = nMinHeight; if( nMinHeight > maRows[nRow].mnSize ) { maRows[nRow].mnSize = nMinHeight; bChanges = true; } } if( bChanges ) nCurrentHeight += maRows[nRow].mnSize - nOldSize; } // now scale if wanted and needed if( bFit && nCurrentHeight != rArea.getHeight() ) distribute( maRows, rArea.getHeight() - nCurrentHeight ); // last step, update left edges sal_Int32 nNewHeight = 0; for( nRow = 0; nRow < nRowCount; ++nRow ) { maRows[nRow].mnPos = nNewHeight; nNewHeight += maRows[nRow].mnSize; if( bFit ) { Reference< XPropertySet > xRowSet( xRows->getByIndex(nRow), UNO_QUERY_THROW ); xRowSet->setPropertyValue( msSize, Any( maRows[nRow].mnSize ) ); } } rArea.SetSize( Size( rArea.GetWidth(), nNewHeight ) ); updateCells( rArea ); } // ----------------------------------------------------------------------------- /** try to fit the table into the given rectangle. If the rectangle is to small, it will be grown to fit the table. */ void TableLayouter::LayoutTable( Rectangle& rRectangle, bool bFitWidth, bool bFitHeight ) { if( !mxTable.is() ) return; const sal_Int32 nRowCount = mxTable->getRowCount(); const sal_Int32 nColCount = mxTable->getColumnCount(); if( (nRowCount != getRowCount()) || (nColCount != getColumnCount()) ) { if( static_cast< sal_Int32 >( maRows.size() ) != nRowCount ) maRows.resize( nRowCount ); Reference< XTableRows > xRows( mxTable->getRows() ); for( sal_Int32 nRow = 0; nRow < nRowCount; nRow++ ) maRows[nRow].clear(); if( static_cast< sal_Int32 >( maColumns.size() ) != nColCount ) maColumns.resize( nColCount ); for( sal_Int32 nCol = 0; nCol < nColCount; nCol++ ) maColumns[nCol].clear(); } LayoutTableWidth( rRectangle, bFitWidth ); LayoutTableHeight( rRectangle, bFitHeight ); UpdateBorderLayout(); } // ----------------------------------------------------------------------------- void TableLayouter::updateCells( Rectangle& rRectangle ) { const sal_Int32 nColCount = getColumnCount(); const sal_Int32 nRowCount = getRowCount(); CellPos aPos; for( aPos.mnRow = 0; aPos.mnRow < nRowCount; aPos.mnRow++ ) { for( aPos.mnCol = 0; aPos.mnCol < nColCount; aPos.mnCol++ ) { CellRef xCell( getCell( aPos ) ); if( xCell.is() ) { basegfx::B2IRectangle aCellArea; getCellArea( aPos, aCellArea ); Rectangle aCellRect; aCellRect.Left() = aCellArea.getMinX(); aCellRect.Right() = aCellArea.getMaxX(); aCellRect.Top() = aCellArea.getMinY(); aCellRect.Bottom() = aCellArea.getMaxY(); aCellRect.Move( rRectangle.Left(), rRectangle.Top() ); xCell->setCellRect( aCellRect ); } } } } // ----------------------------------------------------------------------------- CellRef TableLayouter::getCell( const CellPos& rPos ) const { CellRef xCell; if( mxTable.is() ) try { xCell.set( dynamic_cast< Cell* >( mxTable->getCellByPosition( rPos.mnCol, rPos.mnRow ).get() ) ); } catch( Exception& ) { OSL_FAIL( "sdr::table::TableLayouter::getCell(), exception caught!" ); } return xCell; } // ----------------------------------------------------------------------------- bool TableLayouter::HasPriority( const SvxBorderLine* pThis, const SvxBorderLine* pOther ) { if (!pThis || ((pThis == &gEmptyBorder) && (pOther != 0))) return false; if (!pOther || (pOther == &gEmptyBorder)) return true; sal_uInt16 nThisSize = pThis->GetOutWidth() + pThis->GetDistance() + pThis->GetInWidth(); sal_uInt16 nOtherSize = pOther->GetOutWidth() + pOther->GetDistance() + pOther->GetInWidth(); if (nThisSize > nOtherSize) return true; else if (nThisSize < nOtherSize) { return false; } else { if ( pOther->GetInWidth() && !pThis->GetInWidth() ) { return true; } else if ( pThis->GetInWidth() && !pOther->GetInWidth() ) { return false; } else { return true; //! ??? } } } // ----------------------------------------------------------------------------- void TableLayouter::SetBorder( sal_Int32 nCol, sal_Int32 nRow, bool bHorizontal, const SvxBorderLine* pLine ) { if( pLine == 0 ) pLine = &gEmptyBorder; SvxBorderLine *pOld = bHorizontal ? maHorizontalBorders[nCol][nRow] : maVerticalBorders[nCol][nRow]; if( HasPriority( pLine, pOld ) ) { if( (pOld != 0) && (pOld != &gEmptyBorder) ) delete pOld; SvxBorderLine* pNew = ( pLine != &gEmptyBorder ) ? new SvxBorderLine(*pLine) : &gEmptyBorder; if( bHorizontal ) maHorizontalBorders[nCol][nRow] = pNew; else maVerticalBorders[nCol][nRow] = pNew; } } // ----------------------------------------------------------------------------- void TableLayouter::ClearBorderLayout() { ClearBorderLayout(maHorizontalBorders); ClearBorderLayout(maVerticalBorders); } // ----------------------------------------------------------------------------- void TableLayouter::ClearBorderLayout(BorderLineMap& rMap) { const sal_Int32 nColCount = rMap.size(); for( sal_Int32 nCol = 0; nCol < nColCount; nCol++ ) { const sal_Int32 nRowCount = rMap[nCol].size(); for( sal_Int32 nRow = 0; nRow < nRowCount; nRow++ ) { SvxBorderLine* pLine = rMap[nCol][nRow]; if( pLine ) { if( pLine != &gEmptyBorder ) delete pLine; rMap[nCol][nRow] = 0; } } } } // ----------------------------------------------------------------------------- void TableLayouter::ResizeBorderLayout() { ClearBorderLayout(); ResizeBorderLayout(maHorizontalBorders); ResizeBorderLayout(maVerticalBorders); } // ----------------------------------------------------------------------------- void TableLayouter::ResizeBorderLayout( BorderLineMap& rMap ) { const sal_Int32 nColCount = getColumnCount() + 1; const sal_Int32 nRowCount = getRowCount() + 1; if( sal::static_int_cast(rMap.size()) != nColCount ) rMap.resize( nColCount ); for( sal_Int32 nCol = 0; nCol < nColCount; nCol++ ) { if( sal::static_int_cast(rMap[nCol].size()) != nRowCount ) rMap[nCol].resize( nRowCount ); } } // ----------------------------------------------------------------------------- void TableLayouter::UpdateBorderLayout() { // make sure old border layout is cleared and border maps have correct size ResizeBorderLayout(); const sal_Int32 nColCount = getColumnCount(); const sal_Int32 nRowCount = getRowCount(); CellPos aPos; for( aPos.mnRow = 0; aPos.mnRow < nRowCount; aPos.mnRow++ ) { for( aPos.mnCol = 0; aPos.mnCol < nColCount; aPos.mnCol++ ) { CellRef xCell( getCell( aPos ) ); if( !xCell.is() || xCell->isMerged() ) continue; const SvxBoxItem* pThisAttr = (const SvxBoxItem*)xCell->GetItemSet().GetItem( SDRATTR_TABLE_BORDER ); OSL_ENSURE(pThisAttr,"sdr::table::TableLayouter::UpdateBorderLayout(), no border attribute?"); if( !pThisAttr ) continue; const sal_Int32 nLastRow = xCell->getRowSpan() + aPos.mnRow; const sal_Int32 nLastCol = xCell->getColumnSpan() + aPos.mnCol; for( sal_Int32 nRow = aPos.mnRow; nRow < nLastRow; nRow++ ) { SetBorder( aPos.mnCol, nRow, false, pThisAttr->GetLeft() ); SetBorder( nLastCol, nRow, false, pThisAttr->GetRight() ); } for( sal_Int32 nCol = aPos.mnCol; nCol < nLastCol; nCol++ ) { SetBorder( nCol, aPos.mnRow, true, pThisAttr->GetTop() ); SetBorder( nCol, nLastRow, true, pThisAttr->GetBottom() ); } } } } // ----------------------------------------------------------------------------- void TableLayouter::DistributeColumns( ::Rectangle& rArea, sal_Int32 nFirstCol, sal_Int32 nLastCol ) { if( mxTable.is() ) try { const sal_Int32 nColCount = getColumnCount(); if( (nFirstCol < 0) || (nFirstCol>= nLastCol) || (nLastCol >= nColCount) ) return; sal_Int32 nAllWidth = 0; for( sal_Int32 nCol = nFirstCol; nCol <= nLastCol; ++nCol ) nAllWidth += getColumnWidth(nCol); sal_Int32 nWidth = nAllWidth / (nLastCol-nFirstCol+1); Reference< XTableColumns > xCols( mxTable->getColumns(), UNO_QUERY_THROW ); for( sal_Int32 nCol = nFirstCol; nCol <= nLastCol; ++nCol ) { if( nCol == nLastCol ) nWidth = nAllWidth; // last column get round errors Reference< XPropertySet > xColSet( xCols->getByIndex( nCol ), UNO_QUERY_THROW ); xColSet->setPropertyValue( msSize, Any( nWidth ) ); nAllWidth -= nWidth; } LayoutTable( rArea, true, false ); } catch( Exception& e ) { (void)e; OSL_FAIL("sdr::table::TableLayouter::DistributeColumns(), exception caught!"); } } // ----------------------------------------------------------------------------- void TableLayouter::DistributeRows( ::Rectangle& rArea, sal_Int32 nFirstRow, sal_Int32 nLastRow ) { if( mxTable.is() ) try { const sal_Int32 nRowCount = mxTable->getRowCount(); if( (nFirstRow < 0) || (nFirstRow>= nLastRow) || (nLastRow >= nRowCount) ) return; sal_Int32 nAllHeight = 0; sal_Int32 nMinHeight = 0; for( sal_Int32 nRow = nFirstRow; nRow <= nLastRow; ++nRow ) { nMinHeight = std::max( maRows[nRow].mnMinSize, nMinHeight ); nAllHeight += maRows[nRow].mnSize; } const sal_Int32 nRows = (nLastRow-nFirstRow+1); sal_Int32 nHeight = nAllHeight / nRows; if( nHeight < nMinHeight ) { sal_Int32 nNeededHeight = nRows * nMinHeight; rArea.Bottom() += nNeededHeight - nAllHeight; nHeight = nMinHeight; nAllHeight = nRows * nMinHeight; } Reference< XTableRows > xRows( mxTable->getRows(), UNO_QUERY_THROW ); for( sal_Int32 nRow = nFirstRow; nRow <= nLastRow; ++nRow ) { if( nRow == nLastRow ) nHeight = nAllHeight; // last row get round errors Reference< XPropertySet > xRowSet( xRows->getByIndex( nRow ), UNO_QUERY_THROW ); xRowSet->setPropertyValue( msSize, Any( nHeight ) ); nAllHeight -= nHeight; } LayoutTable( rArea, false, true ); } catch( Exception& e ) { (void)e; OSL_FAIL("sdr::table::TableLayouter::DistributeRows(), exception caught!"); } } // ----------------------------------------------------------------------------- void TableLayouter::SetWritingMode( com::sun::star::text::WritingMode eWritingMode ) { meWritingMode = eWritingMode; } } } /* vim:set shiftwidth=4 softtabstop=4 expandtab: */