/* -*- 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 #include #include #include "document.hxx" #include "table.hxx" #include "globstr.hrc" #include "subtotal.hxx" #include "docoptio.hxx" #include "interpre.hxx" #include "markdata.hxx" #include "validat.hxx" #include "scitems.hxx" #include "stlpool.hxx" #include "poolhelp.hxx" #include "detdata.hxx" #include "patattr.hxx" #include "chgtrack.hxx" #include "progress.hxx" #include "paramisc.hxx" #include "compiler.hxx" #include "externalrefmgr.hxx" #include "colorscale.hxx" #include "attrib.hxx" #include "formulacell.hxx" #include "tokenarray.hxx" #include "scmatrix.hxx" using namespace formula; // ----------------------------------------------------------------------- /** (Goal Seek) Find a value of x that is a root of f(x) This function is used internally for the goal seek operation. It uses the Regula Falsi (aka false position) algorithm to find a root of f(x). The start value and the target value are to be given by the user in the goal seek dialog. The f(x) in this case is defined as the formula in the formula cell minus target value. This function may also perform additional search in the horizontal directions when the f(x) is discrete in order to ensure a non-zero slope necessary for deriving a subsequent x that is reasonably close to the root of interest. @change 24.10.2004 by Kohei Yoshida (kohei@openoffice.org) @see #i28955# @change 6 Aug 2013, fdo37341 */ bool ScDocument::Solver(SCCOL nFCol, SCROW nFRow, SCTAB nFTab, SCCOL nVCol, SCROW nVRow, SCTAB nVTab, const OUString& sValStr, double& nX) { bool bRet = false; nX = 0.0; if ( ValidColRow( nFCol, nFRow ) && ValidTab( nFTab ) && ValidColRow( nVCol, nVRow ) && ValidTab( nVTab ) && nFTab < static_cast( maTabs.size() ) && maTabs[nFTab] && nVTab < static_cast( maTabs.size() ) && maTabs[nVTab] ) { CellType eFType, eVType; GetCellType(nFCol, nFRow, nFTab, eFType); GetCellType(nVCol, nVRow, nVTab, eVType); // #i108005# convert target value to number using default format, // as previously done in ScInterpreter::GetDouble double fTargetVal = 0.0; sal_uInt32 nFIndex = 0; if ( eFType == CELLTYPE_FORMULA && eVType == CELLTYPE_VALUE && GetFormatTable()->IsNumberFormat( sValStr, nFIndex, fTargetVal ) ) { bool bDoneIteration = false; ScAddress aValueAdr( nVCol, nVRow, nVTab ); ScAddress aFormulaAdr( nFCol, nFRow, nFTab ); double* pVCell = GetValueCell( aValueAdr ); ScRange aVRange( aValueAdr, aValueAdr ); // for SetDirty // Original value to be restored later if necessary double fSaveVal = *pVCell; const sal_uInt16 nMaxIter = 100; const double fEps = 1E-10; const double fDelta = 1E-6; double fBestX, fXPrev; double fBestF, fFPrev; fBestX = fXPrev = fSaveVal; ScFormulaCell* pFormula = GetFormulaCell( aFormulaAdr ); pFormula->Interpret(); bool bError = ( pFormula->GetErrCode() != 0 ); // bError always corresponds with fF fFPrev = pFormula->GetValue() - fTargetVal; fBestF = fabs( fFPrev ); if ( fBestF < fDelta ) bDoneIteration = true; double fX = fXPrev + fEps; double fF = fFPrev; double fSlope; sal_uInt16 nIter = 0; bool bHorMoveError = false; // Conform Regula Falsi Method while ( !bDoneIteration && ( nIter++ < nMaxIter ) ) { *pVCell = fX; SetDirty( aVRange ); pFormula->Interpret(); bError = ( pFormula->GetErrCode() != 0 ); fF = pFormula->GetValue() - fTargetVal; if ( fF == fFPrev && !bError ) { // HORIZONTAL SEARCH: Keep moving x in both directions until the f(x) // becomes different from the previous f(x). This routine is needed // when a given function is discrete, in which case the resulting slope // may become zero which ultimately causes the goal seek operation // to fail. #i28955# sal_uInt16 nHorIter = 0; const double fHorStepAngle = 5.0; const double fHorMaxAngle = 80.0; int nHorMaxIter = static_cast( fHorMaxAngle / fHorStepAngle ); bool bDoneHorMove = false; while ( !bDoneHorMove && !bHorMoveError && nHorIter++ < nHorMaxIter ) { double fHorAngle = fHorStepAngle * static_cast( nHorIter ); double fHorTangent = ::rtl::math::tan( fHorAngle * F_PI / 180 ); sal_uInt16 nIdx = 0; while( nIdx++ < 2 && !bDoneHorMove ) { double fHorX; if ( nIdx == 1 ) fHorX = fX + fabs( fF ) * fHorTangent; else fHorX = fX - fabs( fF ) * fHorTangent; *pVCell = fHorX; SetDirty( aVRange ); pFormula->Interpret(); bHorMoveError = ( pFormula->GetErrCode() != 0 ); if ( bHorMoveError ) break; fF = pFormula->GetValue() - fTargetVal; if ( fF != fFPrev ) { fX = fHorX; bDoneHorMove = true; } } } if ( !bDoneHorMove ) bHorMoveError = true; } if ( bError ) { // move closer to last valid value (fXPrev), keep fXPrev & fFPrev double fDiff = ( fXPrev - fX ) / 2; if ( fabs( fDiff ) < fEps ) fDiff = ( fDiff < 0.0 ? - fEps : fEps ); fX += fDiff; } else if ( bHorMoveError ) break; else if ( fabs(fF) < fDelta ) { // converged to root fBestX = fX; bDoneIteration = true; } else { if ( fabs(fF) + fDelta < fBestF ) { fBestX = fX; fBestF = fabs( fF ); } if ( ( fXPrev - fX ) != 0 ) { fSlope = ( fFPrev - fF ) / ( fXPrev - fX ); if ( fabs( fSlope ) < fEps ) fSlope = fSlope < 0.0 ? -fEps : fEps; } else fSlope = fEps; fXPrev = fX; fFPrev = fF; fX = fX - ( fF / fSlope ); } } // Try a nice rounded input value if possible. const double fNiceDelta = ( bDoneIteration && fabs( fBestX ) >= 1e-3 ? 1e-3 : fDelta ); nX = ::rtl::math::approxFloor( ( fBestX / fNiceDelta ) + 0.5 ) * fNiceDelta; if ( bDoneIteration ) { *pVCell = nX; SetDirty( aVRange ); pFormula->Interpret(); if ( fabs( pFormula->GetValue() - fTargetVal ) > fabs( fF ) ) nX = fBestX; bRet = true; } else if ( bError || bHorMoveError ) { nX = fBestX; } *pVCell = fSaveVal; SetDirty( aVRange ); pFormula->Interpret(); if ( !bDoneIteration ) { SetError( nVCol, nVRow, nVTab, NOTAVAILABLE ); } } else { SetError( nVCol, nVRow, nVTab, NOTAVAILABLE ); } } return bRet; } void ScDocument::InsertMatrixFormula(SCCOL nCol1, SCROW nRow1, SCCOL nCol2, SCROW nRow2, const ScMarkData& rMark, const OUString& rFormula, const ScTokenArray* pArr, const formula::FormulaGrammar::Grammar eGram, bool bDirtyFlag ) { PutInOrder(nCol1, nCol2); PutInOrder(nRow1, nRow2); nCol2 = std::min(nCol2, MAXCOL); nRow2 = std::min(nRow2, MAXROW); if (!rMark.GetSelectCount()) { SAL_WARN("sc", "ScDocument::InsertMatrixFormula: No table marked"); return; } SCTAB nTab1 = *rMark.begin(); ScFormulaCell* pCell; ScAddress aPos( nCol1, nRow1, nTab1 ); if (pArr) pCell = new ScFormulaCell( this, aPos, pArr, eGram, MM_FORMULA ); else pCell = new ScFormulaCell( this, aPos, rFormula, eGram, MM_FORMULA ); pCell->SetMatColsRows( nCol2 - nCol1 + 1, nRow2 - nRow1 + 1, bDirtyFlag ); ScMarkData::const_iterator itr = rMark.begin(), itrEnd = rMark.end(); SCTAB nMax = static_cast(maTabs.size()); for (; itr != itrEnd && *itr < nMax; ++itr) { if (!maTabs[*itr]) continue; if (*itr == nTab1) maTabs[*itr]->SetFormulaCell(nCol1, nRow1, pCell); else maTabs[*itr]->SetFormulaCell( nCol1, nRow1, new ScFormulaCell( *pCell, *this, ScAddress(nCol1, nRow1, *itr), SC_CLONECELL_STARTLISTENING)); } ScAddress aBasePos(nCol1, nRow1, nTab1); ScSingleRefData aRefData; aRefData.InitFlags(); aRefData.SetColRel( true ); aRefData.SetRowRel( true ); aRefData.SetTabRel( true ); aRefData.SetAddress(aBasePos, aBasePos); ScTokenArray aArr; // consists only of one single reference token. ScToken* t = static_cast(aArr.AddMatrixSingleReference( aRefData)); itr = rMark.begin(); for (; itr != itrEnd && *itr < nMax; ++itr) { SCTAB nTab = *itr; ScTable* pTab = FetchTable(nTab); if (!pTab) continue; if (nTab != nTab1) { aRefData.SetRelTab(nTab - aBasePos.Tab()); t->GetSingleRef() = aRefData; } for (SCCOL nCol = nCol1; nCol <= nCol2; ++nCol) { for (SCROW nRow = nRow1; nRow <= nRow2; ++nRow) { if (nCol == nCol1 && nRow == nRow1) // Skip the base position. continue; // Token array must be cloned so that each formula cell receives its own copy. aPos = ScAddress(nCol, nRow, nTab); // Reference in each cell must point to the origin cell relative to the current cell. aRefData.SetAddress(aBasePos, aPos); t->GetSingleRef() = aRefData; boost::scoped_ptr pTokArr(aArr.Clone()); pCell = new ScFormulaCell( this, aPos, pTokArr.get(), eGram, MM_REFERENCE ); pTab->SetFormulaCell(nCol, nRow, pCell); } } } } void ScDocument::InsertTableOp(const ScTabOpParam& rParam, // Mehrfachoperation SCCOL nCol1, SCROW nRow1, SCCOL nCol2, SCROW nRow2, const ScMarkData& rMark) { PutInOrder(nCol1, nCol2); PutInOrder(nRow1, nRow2); SCTAB i, nTab1; SCCOL j; SCROW k; i = 0; bool bStop = false; SCTAB nMax = static_cast(maTabs.size()); ScMarkData::const_iterator itr = rMark.begin(), itrEnd = rMark.end(); for (; itr != itrEnd && *itr < nMax; ++itr) { if (maTabs[*itr]) { i = *itr; bStop = true; break; } } nTab1 = i; if (!bStop) { OSL_FAIL("ScDocument::InsertTableOp: No table marked"); return; } ScRefAddress aRef; OUStringBuffer aForString('='); aForString.append(ScCompiler::GetNativeSymbol(ocTableOp)); aForString.append(ScCompiler::GetNativeSymbol( ocOpen)); const String& sSep = ScCompiler::GetNativeSymbol( ocSep); if (rParam.nMode == 0) // nur Spalte { aRef.Set( rParam.aRefFormulaCell.GetAddress(), true, false, false ); aForString.append(aRef.GetRefString(this, nTab1)); aForString.append(sSep); aForString.append(rParam.aRefColCell.GetRefString(this, nTab1)); aForString.append(sSep); aRef.Set( nCol1, nRow1, nTab1, false, true, true ); aForString.append(aRef.GetRefString(this, nTab1)); nCol1++; nCol2 = std::min( nCol2, (SCCOL)(rParam.aRefFormulaEnd.Col() - rParam.aRefFormulaCell.Col() + nCol1 + 1)); } else if (rParam.nMode == 1) // nur zeilenweise { aRef.Set( rParam.aRefFormulaCell.GetAddress(), false, true, false ); aForString.append(aRef.GetRefString(this, nTab1)); aForString.append(sSep); aForString.append(rParam.aRefRowCell.GetRefString(this, nTab1)); aForString.append(sSep); aRef.Set( nCol1, nRow1, nTab1, true, false, true ); aForString.append(aRef.GetRefString(this, nTab1)); nRow1++; nRow2 = std::min( nRow2, (SCROW)(rParam.aRefFormulaEnd.Row() - rParam.aRefFormulaCell.Row() + nRow1 + 1)); } else // beides { aForString.append(rParam.aRefFormulaCell.GetRefString(this, nTab1)); aForString.append(sSep); aForString.append(rParam.aRefColCell.GetRefString(this, nTab1)); aForString.append(sSep); aRef.Set( nCol1, nRow1 + 1, nTab1, false, true, true ); aForString.append(aRef.GetRefString(this, nTab1)); aForString.append(sSep); aForString.append(rParam.aRefRowCell.GetRefString(this, nTab1)); aForString.append(sSep); aRef.Set( nCol1 + 1, nRow1, nTab1, true, false, true ); aForString.append(aRef.GetRefString(this, nTab1)); nCol1++; nRow1++; } aForString.append(ScCompiler::GetNativeSymbol( ocClose )); ScFormulaCell aRefCell( this, ScAddress( nCol1, nRow1, nTab1 ), aForString.makeStringAndClear(), formula::FormulaGrammar::GRAM_NATIVE, MM_NONE ); for( j = nCol1; j <= nCol2; j++ ) for( k = nRow1; k <= nRow2; k++ ) for (i = 0; i < static_cast(maTabs.size()); i++) { itr = rMark.begin(); for (; itr != itrEnd && *itr < nMax; ++itr) if( maTabs[*itr] ) maTabs[*itr]->SetFormulaCell( j, k, new ScFormulaCell(aRefCell, *this, ScAddress(j, k, *itr), SC_CLONECELL_STARTLISTENING)); } } namespace { bool setCacheTableReferenced(ScToken& rToken, ScExternalRefManager& rRefMgr, const ScAddress& rPos) { switch (rToken.GetType()) { case svExternalSingleRef: return rRefMgr.setCacheTableReferenced( rToken.GetIndex(), rToken.GetString(), 1); case svExternalDoubleRef: { const ScComplexRefData& rRef = rToken.GetDoubleRef(); ScRange aAbs = rRef.toAbs(rPos); size_t nSheets = aAbs.aEnd.Tab() - aAbs.aStart.Tab() + 1; return rRefMgr.setCacheTableReferenced( rToken.GetIndex(), rToken.GetString(), nSheets); } case svExternalName: /* TODO: external names aren't supported yet, but would * have to be marked as well, if so. Mechanism would be * different. */ OSL_FAIL("ScDocument::MarkUsedExternalReferences: implement the svExternalName case!"); default: ; } return false; } } bool ScDocument::MarkUsedExternalReferences( ScTokenArray& rArr, const ScAddress& rPos ) { if (!rArr.GetLen()) return false; ScExternalRefManager* pRefMgr = NULL; rArr.Reset(); ScToken* t = NULL; bool bAllMarked = false; while (!bAllMarked && (t = static_cast(rArr.GetNextReferenceOrName())) != NULL) { if (t->IsExternalRef()) { if (!pRefMgr) pRefMgr = GetExternalRefManager(); bAllMarked = setCacheTableReferenced(*t, *pRefMgr, rPos); } else if (t->GetType() == svIndex) { // this is a named range. Check if the range contains an external // reference. ScRangeData* pRangeData = GetRangeName()->findByIndex(t->GetIndex()); if (!pRangeData) continue; ScTokenArray* pArray = pRangeData->GetCode(); for (t = static_cast(pArray->First()); t; t = static_cast(pArray->Next())) { if (!t->IsExternalRef()) continue; if (!pRefMgr) pRefMgr = GetExternalRefManager(); bAllMarked = setCacheTableReferenced(*t, *pRefMgr, rPos); } } } return bAllMarked; } bool ScDocument::GetNextSpellingCell(SCCOL& nCol, SCROW& nRow, SCTAB nTab, bool bInSel, const ScMarkData& rMark) const { if (ValidTab(nTab) && nTab < static_cast(maTabs.size()) && maTabs[nTab]) return maTabs[nTab]->GetNextSpellingCell( nCol, nRow, bInSel, rMark ); else return false; } bool ScDocument::GetNextMarkedCell( SCCOL& rCol, SCROW& rRow, SCTAB nTab, const ScMarkData& rMark ) { if (ValidTab(nTab) && nTab < static_cast(maTabs.size()) && maTabs[nTab]) return maTabs[nTab]->GetNextMarkedCell( rCol, rRow, rMark ); else return false; } bool ScDocument::ReplaceStyle(const SvxSearchItem& rSearchItem, SCCOL nCol, SCROW nRow, SCTAB nTab, ScMarkData& rMark, bool bIsUndoP) { if (nTab < static_cast(maTabs.size()) && maTabs[nTab]) return maTabs[nTab]->ReplaceStyle(rSearchItem, nCol, nRow, rMark, bIsUndoP); else return false; } void ScDocument::CompileDBFormula() { TableContainer::iterator it = maTabs.begin(); for (;it != maTabs.end(); ++it) { if (*it) (*it)->CompileDBFormula(); } } void ScDocument::CompileDBFormula( bool bCreateFormulaString ) { TableContainer::iterator it = maTabs.begin(); for (;it != maTabs.end(); ++it) { if (*it) (*it)->CompileDBFormula( bCreateFormulaString ); } } void ScDocument::CompileNameFormula( bool bCreateFormulaString ) { TableContainer::iterator it = maTabs.begin(); for (;it != maTabs.end(); ++it) { if (*it) (*it)->CompileNameFormula( bCreateFormulaString ); } } void ScDocument::CompileColRowNameFormula() { TableContainer::iterator it = maTabs.begin(); for (;it != maTabs.end(); ++it) { if (*it) (*it)->CompileColRowNameFormula(); } } void ScDocument::InvalidateTableArea() { TableContainer::iterator it = maTabs.begin(); for (;it != maTabs.end() && *it; ++it) { (*it)->InvalidateTableArea(); if ( (*it)->IsScenario() ) (*it)->InvalidateScenarioRanges(); } } sal_Int32 ScDocument::GetMaxStringLen( SCTAB nTab, SCCOL nCol, SCROW nRowStart, SCROW nRowEnd, CharSet eCharSet ) const { if (ValidTab(nTab) && nTab < static_cast(maTabs.size()) && maTabs[nTab]) return maTabs[nTab]->GetMaxStringLen( nCol, nRowStart, nRowEnd, eCharSet ); else return 0; } xub_StrLen ScDocument::GetMaxNumberStringLen( sal_uInt16& nPrecision, SCTAB nTab, SCCOL nCol, SCROW nRowStart, SCROW nRowEnd ) const { if (ValidTab(nTab) && nTab < static_cast(maTabs.size()) && maTabs[nTab]) return maTabs[nTab]->GetMaxNumberStringLen( nPrecision, nCol, nRowStart, nRowEnd ); else return 0; } bool ScDocument::GetSelectionFunction( ScSubTotalFunc eFunc, const ScAddress& rCursor, const ScMarkData& rMark, double& rResult ) { ScFunctionData aData(eFunc); ScRange aSingle( rCursor ); if ( rMark.IsMarked() ) rMark.GetMarkArea(aSingle); SCCOL nStartCol = aSingle.aStart.Col(); SCROW nStartRow = aSingle.aStart.Row(); SCCOL nEndCol = aSingle.aEnd.Col(); SCROW nEndRow = aSingle.aEnd.Row(); SCTAB nMax = static_cast(maTabs.size()); ScMarkData::const_iterator itr = rMark.begin(), itrEnd = rMark.end(); for (; itr != itrEnd && *itr < nMax && !aData.bError; ++itr) if (maTabs[*itr]) maTabs[*itr]->UpdateSelectionFunction( aData, nStartCol, nStartRow, nEndCol, nEndRow, rMark ); //! rMark an UpdateSelectionFunction uebergeben !!!!! if (!aData.bError) switch (eFunc) { case SUBTOTAL_FUNC_SUM: rResult = aData.nVal; break; case SUBTOTAL_FUNC_SELECTION_COUNT: rResult = aData.nCount; break; case SUBTOTAL_FUNC_CNT: case SUBTOTAL_FUNC_CNT2: rResult = aData.nCount; break; case SUBTOTAL_FUNC_AVE: if (aData.nCount) rResult = aData.nVal / (double) aData.nCount; else aData.bError = true; break; case SUBTOTAL_FUNC_MAX: case SUBTOTAL_FUNC_MIN: if (aData.nCount) rResult = aData.nVal; else aData.bError = true; break; default: { // added to avoid warnings } } if (aData.bError) rResult = 0.0; return !aData.bError; } double ScDocument::RoundValueAsShown( double fVal, sal_uInt32 nFormat ) const { short nType; if ( (nType = GetFormatTable()->GetType( nFormat )) != NUMBERFORMAT_DATE && nType != NUMBERFORMAT_TIME && nType != NUMBERFORMAT_DATETIME ) { short nPrecision; if ((nFormat % SV_COUNTRY_LANGUAGE_OFFSET) != 0) { nPrecision = (short)GetFormatTable()->GetFormatPrecision( nFormat ); switch ( nType ) { case NUMBERFORMAT_PERCENT: // 0,41% == 0,0041 nPrecision += 2; break; case NUMBERFORMAT_SCIENTIFIC: // 1,23e-3 == 0,00123 { if ( fVal > 0.0 ) nPrecision = sal::static_int_cast( nPrecision - (short)floor( log10( fVal ) ) ); else if ( fVal < 0.0 ) nPrecision = sal::static_int_cast( nPrecision - (short)floor( log10( -fVal ) ) ); break; } } } else { nPrecision = (short)GetDocOptions().GetStdPrecision(); // #i115512# no rounding for automatic decimals if (nPrecision == static_cast(SvNumberFormatter::UNLIMITED_PRECISION)) return fVal; } double fRound = ::rtl::math::round( fVal, nPrecision ); if ( ::rtl::math::approxEqual( fVal, fRound ) ) return fVal; // durch Rundung hoechstens Fehler else return fRound; } else return fVal; } // // bedingte Formate und Gueltigkeitsbereiche // sal_uLong ScDocument::AddCondFormat( ScConditionalFormat* pNew, SCTAB nTab ) { if(!pNew) return 0; if(ValidTab(nTab) && nTab < static_cast(maTabs.size()) && maTabs[nTab]) return maTabs[nTab]->AddCondFormat( pNew ); return 0; } sal_uLong ScDocument::AddValidationEntry( const ScValidationData& rNew ) { if (rNew.IsEmpty()) return 0; // leer ist immer 0 if (!pValidationList) pValidationList = new ScValidationDataList; sal_uLong nMax = 0; for( ScValidationDataList::iterator it = pValidationList->begin(); it != pValidationList->end(); ++it ) { const ScValidationData* pData = *it; sal_uLong nKey = pData->GetKey(); if ( pData->EqualEntries( rNew ) ) return nKey; if ( nKey > nMax ) nMax = nKey; } // Der Aufruf kann aus ScPatternAttr::PutInPool kommen, darum Clone (echte Kopie) sal_uLong nNewKey = nMax + 1; ScValidationData* pInsert = rNew.Clone(this); pInsert->SetKey( nNewKey ); pValidationList->InsertNew( pInsert ); return nNewKey; } const SfxPoolItem* ScDocument::GetEffItem( SCCOL nCol, SCROW nRow, SCTAB nTab, sal_uInt16 nWhich ) const { const ScPatternAttr* pPattern = GetPattern( nCol, nRow, nTab ); if ( pPattern ) { const SfxItemSet& rSet = pPattern->GetItemSet(); const SfxPoolItem* pItem; if ( rSet.GetItemState( ATTR_CONDITIONAL, true, &pItem ) == SFX_ITEM_SET ) { const std::vector& rIndex = static_cast(pPattern->GetItem(ATTR_CONDITIONAL)).GetCondFormatData(); ScConditionalFormatList* pCondFormList = GetCondFormList( nTab ); if (!rIndex.empty() && pCondFormList) { for(std::vector::const_iterator itr = rIndex.begin(), itrEnd = rIndex.end(); itr != itrEnd; ++itr) { const ScConditionalFormat* pForm = pCondFormList->GetFormat( *itr ); if ( pForm ) { ScAddress aPos(nCol, nRow, nTab); ScRefCellValue aCell; aCell.assign(const_cast(*this), aPos); OUString aStyle = pForm->GetCellStyle(aCell, aPos); if (!aStyle.isEmpty()) { SfxStyleSheetBase* pStyleSheet = xPoolHelper->GetStylePool()->Find( aStyle, SFX_STYLE_FAMILY_PARA ); if ( pStyleSheet && pStyleSheet->GetItemSet().GetItemState( nWhich, true, &pItem ) == SFX_ITEM_SET ) return pItem; } } } } } return &rSet.Get( nWhich ); } OSL_FAIL("no pattern"); return NULL; } const SfxItemSet* ScDocument::GetCondResult( SCCOL nCol, SCROW nRow, SCTAB nTab ) const { ScConditionalFormatList* pFormatList = GetCondFormList(nTab); if (!pFormatList) return NULL; ScAddress aPos(nCol, nRow, nTab); ScRefCellValue aCell; aCell.assign(const_cast(*this), aPos); const ScPatternAttr* pPattern = GetPattern( nCol, nRow, nTab ); const std::vector& rIndex = static_cast(pPattern->GetItem(ATTR_CONDITIONAL)).GetCondFormatData(); return GetCondResult(aCell, aPos, *pFormatList, rIndex); } const SfxItemSet* ScDocument::GetCondResult( ScRefCellValue& rCell, const ScAddress& rPos, const ScConditionalFormatList& rList, const std::vector& rIndex ) const { std::vector::const_iterator itr = rIndex.begin(), itrEnd = rIndex.end(); for (; itr != itrEnd; ++itr) { const ScConditionalFormat* pForm = rList.GetFormat(*itr); if (!pForm) continue; const OUString& aStyle = pForm->GetCellStyle(rCell, rPos); if (!aStyle.isEmpty()) { SfxStyleSheetBase* pStyleSheet = xPoolHelper->GetStylePool()->Find(aStyle, SFX_STYLE_FAMILY_PARA); if (pStyleSheet) return &pStyleSheet->GetItemSet(); // if style is not there, treat like no condition } } return NULL; } ScConditionalFormat* ScDocument::GetCondFormat( SCCOL nCol, SCROW nRow, SCTAB nTab ) const { sal_uInt32 nIndex = 0; const std::vector& rCondFormats = static_cast(GetAttr(nCol, nRow, nTab, ATTR_CONDITIONAL))->GetCondFormatData(); if(!rCondFormats.empty()) nIndex = rCondFormats[0]; if (nIndex) { ScConditionalFormatList* pCondFormList = GetCondFormList(nTab); if (pCondFormList) return pCondFormList->GetFormat( nIndex ); else { OSL_FAIL("pCondFormList is 0"); } } return NULL; } ScConditionalFormatList* ScDocument::GetCondFormList(SCTAB nTab) const { if(ValidTab(nTab) && nTab < static_cast(maTabs.size()) && maTabs[nTab]) return maTabs[nTab]->GetCondFormList(); return NULL; } void ScDocument::SetCondFormList( ScConditionalFormatList* pList, SCTAB nTab ) { if(ValidTab(nTab) && nTab < static_cast(maTabs.size()) && maTabs[nTab]) maTabs[nTab]->SetCondFormList(pList); } const ScValidationData* ScDocument::GetValidationEntry( sal_uLong nIndex ) const { if ( pValidationList ) return pValidationList->GetData( nIndex ); else return NULL; } void ScDocument::DeleteConditionalFormat(sal_uLong nOldIndex, SCTAB nTab) { if(ValidTab(nTab) && nTab < static_cast(maTabs.size()) && maTabs[nTab]) maTabs[nTab]->DeleteConditionalFormat(nOldIndex); } //------------------------------------------------------------------------ bool ScDocument::HasDetectiveOperations() const { return pDetOpList && pDetOpList->Count(); } void ScDocument::AddDetectiveOperation( const ScDetOpData& rData ) { if (!pDetOpList) pDetOpList = new ScDetOpList; pDetOpList->Append( new ScDetOpData( rData ) ); } void ScDocument::ClearDetectiveOperations() { delete pDetOpList; // loescht auch die Eintraege pDetOpList = NULL; } void ScDocument::SetDetOpList(ScDetOpList* pNew) { delete pDetOpList; // loescht auch die Eintraege pDetOpList = pNew; } //------------------------------------------------------------------------ // // Vergleich von Dokumenten // //------------------------------------------------------------------------ // Pfriemel-Faktoren #define SC_DOCCOMP_MAXDIFF 256 #define SC_DOCCOMP_MINGOOD 128 #define SC_DOCCOMP_COLUMNS 10 #define SC_DOCCOMP_ROWS 100 sal_uInt16 ScDocument::RowDifferences( SCROW nThisRow, SCTAB nThisTab, ScDocument& rOtherDoc, SCROW nOtherRow, SCTAB nOtherTab, SCCOL nMaxCol, SCCOLROW* pOtherCols ) { sal_uLong nDif = 0; sal_uLong nUsed = 0; for (SCCOL nThisCol=0; nThisCol<=nMaxCol; nThisCol++) { SCCOL nOtherCol; if ( pOtherCols ) nOtherCol = static_cast(pOtherCols[nThisCol]); else nOtherCol = nThisCol; if (ValidCol(nOtherCol)) // nur Spalten vergleichen, die in beiden Dateien sind { ScRefCellValue aThisCell, aOtherCell; aThisCell.assign(*this, ScAddress(nThisCol, nThisRow, nThisTab)); aOtherCell.assign(rOtherDoc, ScAddress(nOtherCol, nOtherRow, nOtherTab)); if (!aThisCell.equalsWithoutFormat(aOtherCell)) { if (!aThisCell.isEmpty() && !aOtherCell.isEmpty()) nDif += 3; else nDif += 4; // Inhalt <-> leer zaehlt mehr } if (!aThisCell.isEmpty() || !aOtherCell.isEmpty()) ++nUsed; } } if (nUsed > 0) return static_cast((nDif*64)/nUsed); // max.256 (SC_DOCCOMP_MAXDIFF) OSL_ENSURE(!nDif,"Diff withoud Used"); return 0; } sal_uInt16 ScDocument::ColDifferences( SCCOL nThisCol, SCTAB nThisTab, ScDocument& rOtherDoc, SCCOL nOtherCol, SCTAB nOtherTab, SCROW nMaxRow, SCCOLROW* pOtherRows ) { //! optimieren mit Iterator oder so sal_uLong nDif = 0; sal_uLong nUsed = 0; for (SCROW nThisRow=0; nThisRow<=nMaxRow; nThisRow++) { SCROW nOtherRow; if ( pOtherRows ) nOtherRow = pOtherRows[nThisRow]; else nOtherRow = nThisRow; if (ValidRow(nOtherRow)) // nur Zeilen vergleichen, die in beiden Dateien sind { ScRefCellValue aThisCell, aOtherCell; aThisCell.assign(*this, ScAddress(nThisCol, nThisRow, nThisTab)); aOtherCell.assign(rOtherDoc, ScAddress(nOtherCol, nOtherRow, nOtherTab)); if (!aThisCell.equalsWithoutFormat(aOtherCell)) { if (!aThisCell.isEmpty() && !aOtherCell.isEmpty()) nDif += 3; else nDif += 4; // Inhalt <-> leer zaehlt mehr } if (!aThisCell.isEmpty() || !aOtherCell.isEmpty()) ++nUsed; } } if (nUsed > 0) return static_cast((nDif*64)/nUsed); // max.256 OSL_ENSURE(!nDif,"Diff without Used"); return 0; } void ScDocument::FindOrder( SCCOLROW* pOtherRows, SCCOLROW nThisEndRow, SCCOLROW nOtherEndRow, bool bColumns, ScDocument& rOtherDoc, SCTAB nThisTab, SCTAB nOtherTab, SCCOLROW nEndCol, SCCOLROW* pTranslate, ScProgress* pProgress, sal_uLong nProAdd ) { // bColumns=true: Zeilen sind Spalten und umgekehrt SCCOLROW nMaxCont; // wieviel weiter SCCOLROW nMinGood; // was ist ein Treffer (incl.) if ( bColumns ) { nMaxCont = SC_DOCCOMP_COLUMNS; // 10 Spalten nMinGood = SC_DOCCOMP_MINGOOD; //! Extra Durchgang mit nMinGood = 0 ???? } else { nMaxCont = SC_DOCCOMP_ROWS; // 100 Zeilen nMinGood = SC_DOCCOMP_MINGOOD; } bool bUseTotal = bColumns && !pTranslate; // nur beim ersten Durchgang SCCOLROW nOtherRow = 0; sal_uInt16 nComp; SCCOLROW nThisRow; bool bTotal = false; // ueber verschiedene nThisRow beibehalten SCCOLROW nUnknown = 0; for (nThisRow = 0; nThisRow <= nThisEndRow; nThisRow++) { SCCOLROW nTempOther = nOtherRow; bool bFound = false; sal_uInt16 nBest = SC_DOCCOMP_MAXDIFF; SCCOLROW nMax = std::min( nOtherEndRow, static_cast(( nTempOther + nMaxCont + nUnknown )) ); for (SCCOLROW i=nTempOther; i<=nMax && nBest>0; i++) // bei 0 abbrechen { if (bColumns) nComp = ColDifferences( static_cast(nThisRow), nThisTab, rOtherDoc, static_cast(i), nOtherTab, nEndCol, pTranslate ); else nComp = RowDifferences( nThisRow, nThisTab, rOtherDoc, i, nOtherTab, static_cast(nEndCol), pTranslate ); if ( nComp < nBest && ( nComp <= nMinGood || bTotal ) ) { nTempOther = i; nBest = nComp; bFound = true; } if ( nComp < SC_DOCCOMP_MAXDIFF || bFound ) bTotal = false; else if ( i == nTempOther && bUseTotal ) bTotal = true; // nur ganz oben } if ( bFound ) { pOtherRows[nThisRow] = nTempOther; nOtherRow = nTempOther + 1; nUnknown = 0; } else { pOtherRows[nThisRow] = SCROW_MAX; ++nUnknown; } if (pProgress) pProgress->SetStateOnPercent(nProAdd+static_cast(nThisRow)); } // Bloecke ohne Uebereinstimmung ausfuellen SCROW nFillStart = 0; SCROW nFillPos = 0; bool bInFill = false; for (nThisRow = 0; nThisRow <= nThisEndRow+1; nThisRow++) { SCROW nThisOther = ( nThisRow <= nThisEndRow ) ? pOtherRows[nThisRow] : (nOtherEndRow+1); if ( ValidRow(nThisOther) ) { if ( bInFill ) { if ( nThisOther > nFillStart ) // ist was zu verteilen da? { SCROW nDiff1 = nThisOther - nFillStart; SCROW nDiff2 = nThisRow - nFillPos; SCROW nMinDiff = std::min(nDiff1, nDiff2); for (SCROW i=0; iMAXTAB; nTemp++) if (!rOtherDoc.IsScenario(nTemp)) { rOtherDoc.GetName( nTemp, aOtherName ); if ( aThisName.equals(aOtherName) ) nOtherTab = nTemp; } } pOtherTabs[nThisTab] = nOtherTab; } // auffuellen, damit einzeln umbenannte Tabellen nicht wegfallen SCTAB nFillStart = 0; SCTAB nFillPos = 0; bool bInFill = false; for (nThisTab = 0; nThisTab <= nThisCount; nThisTab++) { SCTAB nThisOther = ( nThisTab < nThisCount ) ? pOtherTabs[nThisTab] : nOtherCount; if ( ValidTab(nThisOther) ) { if ( bInFill ) { if ( nThisOther > nFillStart ) // ist was zu verteilen da? { SCTAB nDiff1 = nThisOther - nFillStart; SCTAB nDiff2 = nThisTab - nFillPos; SCTAB nMinDiff = std::min(nDiff1, nDiff2); for (SCTAB i=0; i= nMatch2 ) // ohne Spalten ? { // Spalten zuruecksetzen for (nThisCol = 0; nThisCol<=nThisEndCol; nThisCol++) pOtherCols[nThisCol] = nThisCol; // Zeilenarrays vertauschen (geloescht werden sowieso beide) SCCOLROW* pSwap = pTempRows; pTempRows = pOtherRows; pOtherRows = pSwap; } else { // bleibt bei pOtherCols, pOtherRows } // Change-Actions erzeugen // 1) Spalten von rechts // 2) Zeilen von unten // 3) einzelne Zellen in normaler Reihenfolge // Actions fuer eingefuegte/geloeschte Spalten SCCOL nLastOtherCol = static_cast(nOtherEndCol + 1); // nThisEndCol ... 0 for ( nThisCol = nThisEndCol+1; nThisCol > 0; ) { --nThisCol; SCCOL nOtherCol = static_cast(pOtherCols[nThisCol]); if ( ValidCol(nOtherCol) && nOtherCol+1 < nLastOtherCol ) { // Luecke -> geloescht ScRange aDelRange( nOtherCol+1, 0, nOtherTab, nLastOtherCol-1, MAXROW, nOtherTab ); pChangeTrack->AppendDeleteRange( aDelRange, &rOtherDoc, n1, n2 ); } if ( nOtherCol > MAXCOL ) // eingefuegt { // zusammenfassen if ( nThisCol == nThisEndCol || ValidCol(static_cast(pOtherCols[nThisCol+1])) ) { SCCOL nFirstNew = static_cast(nThisCol); while ( nFirstNew > 0 && pOtherCols[nFirstNew-1] > MAXCOL ) --nFirstNew; SCCOL nDiff = nThisCol - nFirstNew; ScRange aRange( nLastOtherCol, 0, nOtherTab, nLastOtherCol+nDiff, MAXROW, nOtherTab ); pChangeTrack->AppendInsert( aRange ); } } else nLastOtherCol = nOtherCol; } if ( nLastOtherCol > 0 ) // ganz oben geloescht { ScRange aDelRange( 0, 0, nOtherTab, nLastOtherCol-1, MAXROW, nOtherTab ); pChangeTrack->AppendDeleteRange( aDelRange, &rOtherDoc, n1, n2 ); } // Actions fuer eingefuegte/geloeschte Zeilen SCROW nLastOtherRow = nOtherEndRow + 1; // nThisEndRow ... 0 for ( nThisRow = nThisEndRow+1; nThisRow > 0; ) { --nThisRow; SCROW nOtherRow = pOtherRows[nThisRow]; if ( ValidRow(nOtherRow) && nOtherRow+1 < nLastOtherRow ) { // Luecke -> geloescht ScRange aDelRange( 0, nOtherRow+1, nOtherTab, MAXCOL, nLastOtherRow-1, nOtherTab ); pChangeTrack->AppendDeleteRange( aDelRange, &rOtherDoc, n1, n2 ); } if ( nOtherRow > MAXROW ) // eingefuegt { // zusammenfassen if ( nThisRow == nThisEndRow || ValidRow(pOtherRows[nThisRow+1]) ) { SCROW nFirstNew = nThisRow; while ( nFirstNew > 0 && pOtherRows[nFirstNew-1] > MAXROW ) --nFirstNew; SCROW nDiff = nThisRow - nFirstNew; ScRange aRange( 0, nLastOtherRow, nOtherTab, MAXCOL, nLastOtherRow+nDiff, nOtherTab ); pChangeTrack->AppendInsert( aRange ); } } else nLastOtherRow = nOtherRow; } if ( nLastOtherRow > 0 ) // ganz oben geloescht { ScRange aDelRange( 0, 0, nOtherTab, MAXCOL, nLastOtherRow-1, nOtherTab ); pChangeTrack->AppendDeleteRange( aDelRange, &rOtherDoc, n1, n2 ); } // Zeilen durchgehen um einzelne Zellen zu finden for (nThisRow = 0; nThisRow <= nThisEndRow; nThisRow++) { SCROW nOtherRow = pOtherRows[nThisRow]; for (nThisCol = 0; nThisCol <= nThisEndCol; nThisCol++) { SCCOL nOtherCol = static_cast(pOtherCols[nThisCol]); ScAddress aThisPos( nThisCol, nThisRow, nThisTab ); ScCellValue aThisCell; aThisCell.assign(*this, aThisPos); ScCellValue aOtherCell; // start empty if ( ValidCol(nOtherCol) && ValidRow(nOtherRow) ) { ScAddress aOtherPos( nOtherCol, nOtherRow, nOtherTab ); aOtherCell.assign(*this, aOtherPos); } if (!aThisCell.equalsWithoutFormat(aOtherCell)) { ScRange aRange( aThisPos ); ScChangeActionContent* pAction = new ScChangeActionContent( aRange ); pAction->SetOldValue(aOtherCell, &rOtherDoc, this); pAction->SetNewValue(aThisCell, this); pChangeTrack->Append( pAction ); } } aProgress.SetStateOnPercent(nProgressStart+nThisRow); } delete[] pOtherCols; delete[] pOtherRows; delete[] pTempRows; } } //! Inhalt von eingefuegten / geloeschten Tabellen ??? //! Aktionen fuer eingefuegte / geloeschte Tabellen ??? delete[] pOtherTabs; } /* vim:set shiftwidth=4 softtabstop=4 expandtab: */