Files
loongoffice/sc/source/core/data/table3.cxx
Caolán McNamara 8f436d3de7 use comphelper::rng::uniform_*_distribution everywhere
and automatically seed from time on first use

coverity#1242393 Don't call rand
coverity#1242404 Don't call rand
coverity#1242410 Don't call rand and additionally allow 0xFF as a value
coverity#1242409 Don't call rand
coverity#1242399 Don't call rand
coverity#1242372 Don't call rand
coverity#1242377 Don't call rand
coverity#1242378 Don't call rand
coverity#1242379 Don't call rand
coverity#1242382 Don't call rand
coverity#1242383 Don't call rand
coverity#1242402 Don't call rand
coverity#1242397 Don't call rand
coverity#1242390 Don't call rand
coverity#1242389 Don't call rand
coverity#1242388 Don't call rand
coverity#1242386 Don't call rand
coverity#1242384 Don't call rand
coverity#1242394 Don't call rand

Change-Id: I241feab9cb370e091fd6ccaba2af941eb95bc7cf
2014-10-06 14:13:27 +01:00

3014 lines
102 KiB
C++

/* -*- 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 <rtl/math.hxx>
#include <comphelper/random.hxx>
#include <unotools/textsearch.hxx>
#include <svl/zforlist.hxx>
#include <svl/zformat.hxx>
#include <unotools/charclass.hxx>
#include <unotools/collatorwrapper.hxx>
#include <com/sun/star/i18n/CollatorOptions.hpp>
#include <stdlib.h>
#include <unotools/transliterationwrapper.hxx>
#include "table.hxx"
#include "scitems.hxx"
#include "attrib.hxx"
#include "formulacell.hxx"
#include "document.hxx"
#include "globstr.hrc"
#include "global.hxx"
#include "stlpool.hxx"
#include "compiler.hxx"
#include "patattr.hxx"
#include "subtotal.hxx"
#include "docoptio.hxx"
#include "markdata.hxx"
#include "rangelst.hxx"
#include "attarray.hxx"
#include "userlist.hxx"
#include "progress.hxx"
#include "cellform.hxx"
#include "postit.hxx"
#include "queryparam.hxx"
#include "queryentry.hxx"
#include "segmenttree.hxx"
#include "subtotalparam.hxx"
#include "docpool.hxx"
#include "cellvalue.hxx"
#include "tokenarray.hxx"
#include "mtvcellfunc.hxx"
#include "columnspanset.hxx"
#include <fstalgorithm.hxx>
#include <listenercontext.hxx>
#include <sharedformula.hxx>
#include <refhint.hxx>
#include <listenerquery.hxx>
#include <bcaslot.hxx>
#include "rangelst.hxx"
#include <svl/sharedstringpool.hxx>
#include <vector>
#include <boost/checked_delete.hpp>
#include <boost/scoped_ptr.hpp>
#include <boost/scoped_array.hpp>
#include <boost/unordered_set.hpp>
#include <boost/noncopyable.hpp>
#include <boost/ptr_container/ptr_vector.hpp>
#include <mdds/flat_segment_tree.hpp>
using namespace ::com::sun::star;
namespace naturalsort {
using namespace ::com::sun::star::i18n;
/** Splits a given string into three parts: the prefix, number string, and
the suffix.
@param sWhole
Original string to be split into pieces
@param sPrefix
Prefix string that consists of the part before the first number token
@param sSuffix
String after the last number token. This may still contain number strings.
@param fNum
Number converted from the middle number string
@return Returns TRUE if a numeral element is found in a given string, or
FALSE if no numeral element is found.
*/
bool SplitString( const OUString &sWhole,
OUString &sPrefix, OUString &sSuffix, double &fNum )
{
i18n::LocaleDataItem aLocaleItem = ScGlobal::pLocaleData->getLocaleItem();
// Get prefix element
OUString sEmpty, sUser = "-";
ParseResult aPRPre = ScGlobal::pCharClass->parsePredefinedToken(
KParseType::IDENTNAME, sWhole, 0,
KParseTokens::ANY_LETTER, sUser, KParseTokens::ANY_LETTER, sUser );
sPrefix = sWhole.copy( 0, aPRPre.EndPos );
// Return FALSE if no numeral element is found
if ( aPRPre.EndPos == sWhole.getLength() )
return false;
// Get numeral element
sUser = aLocaleItem.decimalSeparator;
ParseResult aPRNum = ScGlobal::pCharClass->parsePredefinedToken(
KParseType::ANY_NUMBER, sWhole, aPRPre.EndPos,
KParseTokens::ANY_NUMBER, sEmpty, KParseTokens::ANY_NUMBER, sUser );
if ( aPRNum.EndPos == aPRPre.EndPos )
return false;
fNum = aPRNum.Value;
sSuffix = sWhole.copy( aPRNum.EndPos );
return true;
}
/** Naturally compares two given strings.
This is the main function that should be called externally. It returns
either 1, 0, or -1 depending on the comparison result of given two strings.
@param sInput1
Input string 1
@param sInput2
Input string 2
@param bCaseSens
Boolean value for case sensitivity
@param pData
Pointer to user defined sort list
@param pCW
Pointer to collator wrapper for normal string comparison
@return Returnes 1 if sInput1 is greater, 0 if sInput1 == sInput2, and -1 if
sInput2 is greater.
*/
short Compare( const OUString &sInput1, const OUString &sInput2,
const bool bCaseSens, const ScUserListData* pData, const CollatorWrapper *pCW )
{
OUString sStr1( sInput1 ), sStr2( sInput2 ), sPre1, sSuf1, sPre2, sSuf2;
do
{
double nNum1, nNum2;
bool bNumFound1 = SplitString( sStr1, sPre1, sSuf1, nNum1 );
bool bNumFound2 = SplitString( sStr2, sPre2, sSuf2, nNum2 );
short nPreRes; // Prefix comparison result
if ( pData )
{
if ( bCaseSens )
{
if ( !bNumFound1 || !bNumFound2 )
return static_cast<short>(pData->Compare( sStr1, sStr2 ));
else
nPreRes = pData->Compare( sPre1, sPre2 );
}
else
{
if ( !bNumFound1 || !bNumFound2 )
return static_cast<short>(pData->ICompare( sStr1, sStr2 ));
else
nPreRes = pData->ICompare( sPre1, sPre2 );
}
}
else
{
if ( !bNumFound1 || !bNumFound2 )
return static_cast<short>(pCW->compareString( sStr1, sStr2 ));
else
nPreRes = static_cast<short>(pCW->compareString( sPre1, sPre2 ));
}
// Prefix strings differ. Return immediately.
if ( nPreRes != 0 ) return nPreRes;
if ( nNum1 != nNum2 )
{
if ( nNum1 < nNum2 ) return -1;
return static_cast<short>( nNum1 > nNum2 );
}
// The prefix and the first numerical elements are equal, but the suffix
// strings may still differ. Stay in the loop.
sStr1 = sSuf1;
sStr2 = sSuf2;
} while (true);
return 0;
}
}
// STATIC DATA -----------------------------------------------------------
struct ScSortInfo
{
ScRefCellValue maCell;
SCCOLROW nOrg;
DECL_FIXEDMEMPOOL_NEWDEL( ScSortInfo );
};
IMPL_FIXEDMEMPOOL_NEWDEL( ScSortInfo )
// END OF STATIC DATA -----------------------------------------------------
class ScSortInfoArray : boost::noncopyable
{
public:
struct Cell
{
ScRefCellValue maCell;
const sc::CellTextAttr* mpAttr;
const SvtBroadcaster* mpBroadcaster;
const ScPostIt* mpNote;
const ScPatternAttr* mpPattern;
Cell() : mpAttr(NULL), mpBroadcaster(NULL), mpNote(NULL), mpPattern(NULL) {}
};
struct Row
{
std::vector<Cell> maCells;
bool mbHidden:1;
bool mbFiltered:1;
Row( size_t nColSize ) : maCells(nColSize, Cell()), mbHidden(false), mbFiltered(false) {}
};
typedef std::vector<Row*> RowsType;
private:
boost::scoped_ptr<RowsType> mpRows; /// row-wise data table for sort by row operation.
ScSortInfo*** pppInfo;
SCSIZE nCount;
SCCOLROW nStart;
SCCOLROW mnLastIndex; /// index of last non-empty cell position.
sal_uInt16 nUsedSorts;
std::vector<SCCOLROW> maOrderIndices;
bool mbKeepQuery;
bool mbUpdateRefs;
public:
ScSortInfoArray( sal_uInt16 nSorts, SCCOLROW nInd1, SCCOLROW nInd2 ) :
pppInfo(NULL),
nCount( nInd2 - nInd1 + 1 ), nStart( nInd1 ),
mnLastIndex(nInd2),
nUsedSorts(nSorts),
mbKeepQuery(false),
mbUpdateRefs(false)
{
if (nUsedSorts)
{
pppInfo = new ScSortInfo**[nUsedSorts];
for ( sal_uInt16 nSort = 0; nSort < nUsedSorts; nSort++ )
{
ScSortInfo** ppInfo = new ScSortInfo* [nCount];
for ( SCSIZE j = 0; j < nCount; j++ )
ppInfo[j] = new ScSortInfo;
pppInfo[nSort] = ppInfo;
}
}
for (size_t i = 0; i < nCount; ++i)
maOrderIndices.push_back(i+nStart);
}
~ScSortInfoArray()
{
if (pppInfo)
{
for ( sal_uInt16 nSort = 0; nSort < nUsedSorts; nSort++ )
{
ScSortInfo** ppInfo = pppInfo[nSort];
for ( SCSIZE j = 0; j < nCount; j++ )
delete ppInfo[j];
delete [] ppInfo;
}
delete[] pppInfo;
}
if (mpRows)
std::for_each(mpRows->begin(), mpRows->end(), boost::checked_deleter<Row>());
}
void SetKeepQuery( bool b ) { mbKeepQuery = b; }
bool IsKeepQuery() const { return mbKeepQuery; }
void SetUpdateRefs( bool b ) { mbUpdateRefs = b; }
bool IsUpdateRefs() const { return mbUpdateRefs; }
/**
* Call this only during normal sorting, not from reordering.
*/
ScSortInfo** GetFirstArray() const
{
OSL_ASSERT(pppInfo);
return pppInfo[0];
}
/**
* Call this only during normal sorting, not from reordering.
*/
ScSortInfo* Get( sal_uInt16 nSort, SCCOLROW nInd )
{
OSL_ASSERT(pppInfo);
return (pppInfo[nSort])[ nInd - nStart ];
}
/**
* Call this only during normal sorting, not from reordering.
*/
void Swap( SCCOLROW nInd1, SCCOLROW nInd2 )
{
OSL_ASSERT(pppInfo);
SCSIZE n1 = static_cast<SCSIZE>(nInd1 - nStart);
SCSIZE n2 = static_cast<SCSIZE>(nInd2 - nStart);
for ( sal_uInt16 nSort = 0; nSort < nUsedSorts; nSort++ )
{
ScSortInfo** ppInfo = pppInfo[nSort];
ScSortInfo* pTmp = ppInfo[n1];
ppInfo[n1] = ppInfo[n2];
ppInfo[n2] = pTmp;
}
std::swap(maOrderIndices[n1], maOrderIndices[n2]);
if (mpRows)
{
// Swap rows in data table.
RowsType& rRows = *mpRows;
std::swap(rRows[n1], rRows[n2]);
}
}
void SetOrderIndices( const std::vector<SCCOLROW>& rIndices )
{
maOrderIndices = rIndices;
}
/**
* @param rIndices indices are actual row positions on the sheet, not an
* offset from the top row.
*/
void ReorderByRow( const std::vector<SCCOLROW>& rIndices )
{
if (!mpRows)
return;
RowsType& rRows = *mpRows;
std::vector<SCCOLROW> aOrderIndices2;
aOrderIndices2.reserve(rIndices.size());
RowsType aRows2;
aRows2.reserve(rRows.size());
std::vector<SCCOLROW>::const_iterator it = rIndices.begin(), itEnd = rIndices.end();
for (; it != itEnd; ++it)
{
size_t nPos = *it - nStart; // switch to an offset to top row.
aRows2.push_back(rRows[nPos]);
aOrderIndices2.push_back(maOrderIndices[nPos]);
}
rRows.swap(aRows2);
maOrderIndices.swap(aOrderIndices2);
}
sal_uInt16 GetUsedSorts() const { return nUsedSorts; }
SCCOLROW GetStart() const { return nStart; }
SCCOLROW GetLast() const { return mnLastIndex; }
const std::vector<SCCOLROW>& GetOrderIndices() const { return maOrderIndices; }
RowsType& InitDataRows( size_t nRowSize, size_t nColSize )
{
mpRows.reset(new RowsType);
mpRows->reserve(nRowSize);
for (size_t i = 0; i < nRowSize; ++i)
mpRows->push_back(new Row(nColSize));
return *mpRows;
}
RowsType* GetDataRows()
{
return mpRows.get();
}
};
namespace {
void initDataRows(
ScSortInfoArray& rArray, ScTable& rTab, ScColumn* pCols,
SCCOL nCol1, SCROW nRow1, SCCOL nCol2, SCROW nRow2,
bool bPattern, bool bHiddenFiltered )
{
// Fill row-wise data table.
ScSortInfoArray::RowsType& rRows = rArray.InitDataRows(nRow2-nRow1+1, nCol2-nCol1+1);
for (SCCOL nCol = nCol1; nCol <= nCol2; ++nCol)
{
ScColumn& rCol = pCols[nCol];
// Skip reordering of cell formats if the whole span is on the same pattern entry.
bool bUniformPattern = rCol.GetPatternCount(nRow1, nRow2) < 2u;
sc::ColumnBlockConstPosition aBlockPos;
rCol.InitBlockPosition(aBlockPos);
for (SCROW nRow = nRow1; nRow <= nRow2; ++nRow)
{
ScSortInfoArray::Row& rRow = *rRows[nRow-nRow1];
ScSortInfoArray::Cell& rCell = rRow.maCells[nCol-nCol1];
rCell.maCell = rCol.GetCellValue(aBlockPos, nRow);
rCell.mpAttr = rCol.GetCellTextAttr(aBlockPos, nRow);
rCell.mpBroadcaster = rCol.GetBroadcaster(aBlockPos, nRow);
rCell.mpNote = rCol.GetCellNote(aBlockPos, nRow);
if (!bUniformPattern && bPattern)
rCell.mpPattern = rCol.GetPattern(nRow);
}
}
if (bHiddenFiltered)
{
for (SCROW nRow = nRow1; nRow <= nRow2; ++nRow)
{
ScSortInfoArray::Row& rRow = *rRows[nRow-nRow1];
rRow.mbHidden = rTab.RowHidden(nRow);
rRow.mbFiltered = rTab.RowFiltered(nRow);
}
}
}
}
ScSortInfoArray* ScTable::CreateSortInfoArray( const sc::ReorderParam& rParam )
{
ScSortInfoArray* pArray = NULL;
if (rParam.mbByRow)
{
// Create a sort info array with just the data table.
SCROW nRow1 = rParam.maSortRange.aStart.Row();
SCROW nRow2 = rParam.maSortRange.aEnd.Row();
SCCOL nCol1 = rParam.maSortRange.aStart.Col();
SCCOL nCol2 = rParam.maSortRange.aEnd.Col();
pArray = new ScSortInfoArray(0, nRow1, nRow2);
pArray->SetKeepQuery(rParam.mbHiddenFiltered);
pArray->SetUpdateRefs(rParam.mbUpdateRefs);
initDataRows(
*pArray, *this, aCol, nCol1, nRow1, nCol2, nRow2,
rParam.mbPattern, rParam.mbHiddenFiltered);
}
else
{
SCCOLROW nCol1 = rParam.maSortRange.aStart.Col();
SCCOLROW nCol2 = rParam.maSortRange.aEnd.Col();
pArray = new ScSortInfoArray(0, nCol1, nCol2);
pArray->SetKeepQuery(rParam.mbHiddenFiltered);
pArray->SetUpdateRefs(rParam.mbUpdateRefs);
}
return pArray;
}
ScSortInfoArray* ScTable::CreateSortInfoArray(
const ScSortParam& rSortParam, SCCOLROW nInd1, SCCOLROW nInd2,
bool bKeepQuery, bool bUpdateRefs )
{
sal_uInt16 nUsedSorts = 1;
while ( nUsedSorts < rSortParam.GetSortKeyCount() && rSortParam.maKeyState[nUsedSorts].bDoSort )
nUsedSorts++;
ScSortInfoArray* pArray = new ScSortInfoArray( nUsedSorts, nInd1, nInd2 );
pArray->SetKeepQuery(bKeepQuery);
pArray->SetUpdateRefs(bUpdateRefs);
if ( rSortParam.bByRow )
{
for ( sal_uInt16 nSort = 0; nSort < nUsedSorts; nSort++ )
{
SCCOL nCol = static_cast<SCCOL>(rSortParam.maKeyState[nSort].nField);
ScColumn* pCol = &aCol[nCol];
sc::ColumnBlockConstPosition aBlockPos;
pCol->InitBlockPosition(aBlockPos);
for ( SCROW nRow = nInd1; nRow <= nInd2; nRow++ )
{
ScSortInfo* pInfo = pArray->Get( nSort, nRow );
pInfo->maCell = pCol->GetCellValue(aBlockPos, nRow);
pInfo->nOrg = nRow;
}
}
initDataRows(
*pArray, *this, aCol, rSortParam.nCol1, nInd1, rSortParam.nCol2, nInd2,
rSortParam.bIncludePattern, bKeepQuery);
}
else
{
for ( sal_uInt16 nSort = 0; nSort < nUsedSorts; nSort++ )
{
SCROW nRow = rSortParam.maKeyState[nSort].nField;
for ( SCCOL nCol = static_cast<SCCOL>(nInd1);
nCol <= static_cast<SCCOL>(nInd2); nCol++ )
{
ScSortInfo* pInfo = pArray->Get( nSort, nCol );
pInfo->maCell = GetCellValue(nCol, nRow);
pInfo->nOrg = nCol;
}
}
}
return pArray;
}
namespace {
struct SortedColumn : boost::noncopyable
{
typedef mdds::flat_segment_tree<SCROW, const ScPatternAttr*> PatRangeType;
sc::CellStoreType maCells;
sc::CellTextAttrStoreType maCellTextAttrs;
sc::BroadcasterStoreType maBroadcasters;
sc::CellNoteStoreType maCellNotes;
PatRangeType maPatterns;
PatRangeType::const_iterator miPatternPos;
SortedColumn( size_t nTopEmptyRows ) :
maCells(nTopEmptyRows),
maCellTextAttrs(nTopEmptyRows),
maBroadcasters(nTopEmptyRows),
maCellNotes(nTopEmptyRows),
maPatterns(0, MAXROWCOUNT, NULL),
miPatternPos(maPatterns.begin()) {}
void setPattern( SCROW nRow, const ScPatternAttr* pPat )
{
miPatternPos = maPatterns.insert(miPatternPos, nRow, nRow+1, pPat).first;
}
};
struct SortedRowFlags
{
typedef mdds::flat_segment_tree<SCROW,bool> FlagsType;
FlagsType maRowsHidden;
FlagsType maRowsFiltered;
FlagsType::const_iterator miPosHidden;
FlagsType::const_iterator miPosFiltered;
SortedRowFlags() :
maRowsHidden(0, MAXROWCOUNT, false),
maRowsFiltered(0, MAXROWCOUNT, false),
miPosHidden(maRowsHidden.begin()),
miPosFiltered(maRowsFiltered.begin()) {}
void setRowHidden( SCROW nRow, bool b )
{
miPosHidden = maRowsHidden.insert(miPosHidden, nRow, nRow+1, b).first;
}
void setRowFiltered( SCROW nRow, bool b )
{
miPosFiltered = maRowsFiltered.insert(miPosFiltered, nRow, nRow+1, b).first;
}
};
struct PatternSpan
{
SCROW mnRow1;
SCROW mnRow2;
const ScPatternAttr* mpPattern;
PatternSpan( SCROW nRow1, SCROW nRow2, const ScPatternAttr* pPat ) :
mnRow1(nRow1), mnRow2(nRow2), mpPattern(pPat) {}
};
}
bool ScTable::IsSortCollatorGlobal() const
{
return pSortCollator == ScGlobal::GetCollator() ||
pSortCollator == ScGlobal::GetCaseCollator();
}
void ScTable::InitSortCollator( const ScSortParam& rPar )
{
if ( !rPar.aCollatorLocale.Language.isEmpty() )
{
if ( !pSortCollator || IsSortCollatorGlobal() )
pSortCollator = new CollatorWrapper( comphelper::getProcessComponentContext() );
pSortCollator->loadCollatorAlgorithm( rPar.aCollatorAlgorithm,
rPar.aCollatorLocale, (rPar.bCaseSens ? 0 : SC_COLLATOR_IGNORES) );
}
else
{ // SYSTEM
DestroySortCollator();
pSortCollator = (rPar.bCaseSens ? ScGlobal::GetCaseCollator() :
ScGlobal::GetCollator());
}
}
void ScTable::DestroySortCollator()
{
if ( pSortCollator )
{
if ( !IsSortCollatorGlobal() )
delete pSortCollator;
pSortCollator = NULL;
}
}
namespace {
template<typename _Hint, typename _ReorderMap, typename _Index>
class ReorderNotifier : std::unary_function<SvtListener*, void>
{
_Hint maHint;
public:
ReorderNotifier( const _ReorderMap& rMap, SCTAB nTab, _Index nPos1, _Index nPos2 ) :
maHint(rMap, nTab, nPos1, nPos2) {}
void operator() ( SvtListener* p )
{
p->Notify(maHint);
}
};
typedef ReorderNotifier<sc::RefColReorderHint, sc::ColRowReorderMapType, SCCOL> ColReorderNotifier;
typedef ReorderNotifier<sc::RefRowReorderHint, sc::ColRowReorderMapType, SCROW> RowReorderNotifier;
class FormulaGroupPosCollector : std::unary_function<SvtListener*, void>
{
sc::RefQueryFormulaGroup& mrQuery;
public:
FormulaGroupPosCollector( sc::RefQueryFormulaGroup& rQuery ) : mrQuery(rQuery) {}
void operator() ( SvtListener* p )
{
p->Query(mrQuery);
}
};
}
void ScTable::SortReorderByColumn(
ScSortInfoArray* pArray, SCROW nRow1, SCROW nRow2, bool bPattern, ScProgress* pProgress )
{
SCCOLROW nStart = pArray->GetStart();
SCCOLROW nLast = pArray->GetLast();
std::vector<SCCOLROW> aIndices = pArray->GetOrderIndices();
size_t nCount = aIndices.size();
// Cut formula grouping at row and reference boundaries before the reordering.
ScRange aSortRange(nStart, nRow1, nTab, nLast, nRow2, nTab);
for (SCCOL nCol = nStart; nCol <= nLast; ++nCol)
aCol[nCol].SplitFormulaGroupByRelativeRef(aSortRange);
// table to keep track of column index to position in the index table.
std::vector<SCCOLROW> aPosTable(nCount);
for (size_t i = 0; i < nCount; ++i)
aPosTable[aIndices[i]-nStart] = i;
SCCOLROW nDest = nStart;
for (size_t i = 0; i < nCount; ++i, ++nDest)
{
SCCOLROW nSrc = aIndices[i];
if (nDest != nSrc)
{
aCol[nDest].Swap(aCol[nSrc], nRow1, nRow2, bPattern);
// Update the position of the index that was originally equal to nDest.
size_t nPos = aPosTable[nDest-nStart];
aIndices[nPos] = nSrc;
aPosTable[nSrc-nStart] = nPos;
}
if (pProgress)
pProgress->SetStateOnPercent(i);
}
// Reset formula cell positions which became out-of-sync after column reordering.
for (SCCOL nCol = nStart; nCol <= nLast; ++nCol)
aCol[nCol].ResetFormulaCellPositions(nRow1, nRow2);
// Set up column reorder map (for later broadcasting of reference updates).
sc::ColRowReorderMapType aColMap;
const std::vector<SCCOLROW>& rOldIndices = pArray->GetOrderIndices();
for (size_t i = 0, n = rOldIndices.size(); i < n; ++i)
{
SCCOL nNew = i + nStart;
SCCOL nOld = rOldIndices[i];
aColMap.insert(sc::ColRowReorderMapType::value_type(nOld, nNew));
}
// Collect all listeners within sorted range ahead of time.
std::vector<SvtListener*> aListeners;
// Get all area listeners that listen on one column within the range and
// end their listening.
ScRange aMoveRange( nStart, nRow1, nTab, nLast, nRow2, nTab);
std::vector<sc::AreaListener> aAreaListeners = pDocument->GetBASM()->GetAllListeners(
aMoveRange, sc::OneColumnInsideArea);
{
std::vector<sc::AreaListener>::iterator it = aAreaListeners.begin(), itEnd = aAreaListeners.end();
for (; it != itEnd; ++it)
{
pDocument->EndListeningArea(it->maArea, it->mpListener);
aListeners.push_back( it->mpListener);
}
}
if (pArray->IsUpdateRefs())
{
for (SCCOL nCol = nStart; nCol <= nLast; ++nCol)
aCol[nCol].CollectListeners(aListeners, nRow1, nRow2);
// Remove any duplicate listener entries and notify all listeners
// afterward. We must ensure that we notify each unique listener only
// once.
std::sort(aListeners.begin(), aListeners.end());
aListeners.erase(std::unique(aListeners.begin(), aListeners.end()), aListeners.end());
ColReorderNotifier aFunc(aColMap, nTab, nRow1, nRow2);
std::for_each(aListeners.begin(), aListeners.end(), aFunc);
}
// Re-start area listeners on the reordered columns.
{
std::vector<sc::AreaListener>::iterator it = aAreaListeners.begin(), itEnd = aAreaListeners.end();
for (; it != itEnd; ++it)
{
ScRange aNewRange = it->maArea;
sc::ColRowReorderMapType::const_iterator itCol = aColMap.find( aNewRange.aStart.Col());
if (itCol != aColMap.end())
{
aNewRange.aStart.SetCol( itCol->second);
aNewRange.aEnd.SetCol( itCol->second);
}
pDocument->StartListeningArea(aNewRange, it->mpListener);
}
}
// Re-join formulas at row boundaries now that all the references have
// been adjusted for column reordering.
for (SCCOL nCol = nStart; nCol <= nLast; ++nCol)
{
sc::CellStoreType& rCells = aCol[nCol].maCells;
sc::CellStoreType::position_type aPos = rCells.position(nRow1);
sc::SharedFormulaUtil::joinFormulaCellAbove(aPos);
if (nRow2 < MAXROW)
{
aPos = rCells.position(aPos.first, nRow2+1);
sc::SharedFormulaUtil::joinFormulaCellAbove(aPos);
}
}
}
void ScTable::SortReorderByRow(
ScSortInfoArray* pArray, SCCOL nCol1, SCCOL nCol2, ScProgress* pProgress )
{
if (nCol2 < nCol1)
return;
SCROW nRow1 = pArray->GetStart();
SCROW nRow2 = pArray->GetLast();
ScSortInfoArray::RowsType* pRows = pArray->GetDataRows();
assert(pRows); // In sort-by-row mode we must have data rows already populated.
// Split formula groups at the sort range boundaries (if applicable).
std::vector<SCROW> aRowBounds;
aRowBounds.reserve(2);
aRowBounds.push_back(nRow1);
aRowBounds.push_back(nRow2+1);
for (SCCOL nCol = nCol1; nCol <= nCol2; ++nCol)
SplitFormulaGroups(nCol, aRowBounds);
// Cells in the data rows only reference values in the document. Make
// a copy before updating the document.
size_t nColCount = nCol2 - nCol1 + 1;
boost::ptr_vector<SortedColumn> aSortedCols; // storage for copied cells.
SortedRowFlags aRowFlags;
aSortedCols.reserve(nColCount);
for (size_t i = 0; i < nColCount; ++i)
{
// In the sorted column container, element positions and row
// positions must match, else formula cells may mis-behave during
// grouping.
aSortedCols.push_back(new SortedColumn(nRow1));
}
for (size_t i = 0; i < pRows->size(); ++i)
{
ScSortInfoArray::Row* pRow = (*pRows)[i];
for (size_t j = 0; j < pRow->maCells.size(); ++j)
{
ScAddress aCellPos(nCol1 + j, nRow1 + i, nTab);
ScSortInfoArray::Cell& rCell = pRow->maCells[j];
sc::CellStoreType& rCellStore = aSortedCols.at(j).maCells;
switch (rCell.maCell.meType)
{
case CELLTYPE_STRING:
assert(rCell.mpAttr);
rCellStore.push_back(*rCell.maCell.mpString);
break;
case CELLTYPE_VALUE:
assert(rCell.mpAttr);
rCellStore.push_back(rCell.maCell.mfValue);
break;
case CELLTYPE_EDIT:
assert(rCell.mpAttr);
rCellStore.push_back(rCell.maCell.mpEditText->Clone());
break;
case CELLTYPE_FORMULA:
{
assert(rCell.mpAttr);
ScAddress aOldPos = rCell.maCell.mpFormula->aPos;
ScFormulaCell* pNew = rCell.maCell.mpFormula->Clone( aCellPos, SC_CLONECELL_DEFAULT);
pNew->CopyAllBroadcasters(*rCell.maCell.mpFormula);
pNew->GetCode()->AdjustReferenceOnMovedOrigin(aOldPos, aCellPos);
rCellStore.push_back(pNew);
}
break;
default:
assert(!rCell.mpAttr);
rCellStore.push_back_empty();
}
sc::CellTextAttrStoreType& rAttrStore = aSortedCols.at(j).maCellTextAttrs;
if (rCell.mpAttr)
rAttrStore.push_back(*rCell.mpAttr);
else
rAttrStore.push_back_empty();
// At this point each broadcaster instance is managed by 2
// containers. We will release those in the original storage
// below before transferring them to the document.
sc::BroadcasterStoreType& rBCStore = aSortedCols.at(j).maBroadcasters;
if (rCell.mpBroadcaster)
// A const pointer would be implicitly converted to a bool type.
rBCStore.push_back(const_cast<SvtBroadcaster*>(rCell.mpBroadcaster));
else
rBCStore.push_back_empty();
// The same with cell note instances ...
sc::CellNoteStoreType& rNoteStore = aSortedCols.at(j).maCellNotes;
if (rCell.mpNote)
rNoteStore.push_back(const_cast<ScPostIt*>(rCell.mpNote));
else
rNoteStore.push_back_empty();
if (rCell.mpPattern)
aSortedCols.at(j).setPattern(aCellPos.Row(), rCell.mpPattern);
}
if (pArray->IsKeepQuery())
{
// Hidden and filtered flags are first converted to segments.
SCROW nRow = nRow1 + i;
aRowFlags.setRowHidden(nRow, pRow->mbHidden);
aRowFlags.setRowFiltered(nRow, pRow->mbFiltered);
}
if (pProgress)
pProgress->SetStateOnPercent(i);
}
for (size_t i = 0, n = aSortedCols.size(); i < n; ++i)
{
SCCOL nThisCol = i + nCol1;
{
sc::CellStoreType& rDest = aCol[nThisCol].maCells;
sc::CellStoreType& rSrc = aSortedCols[i].maCells;
rSrc.transfer(nRow1, nRow2, rDest, nRow1);
}
{
sc::CellTextAttrStoreType& rDest = aCol[nThisCol].maCellTextAttrs;
sc::CellTextAttrStoreType& rSrc = aSortedCols[i].maCellTextAttrs;
rSrc.transfer(nRow1, nRow2, rDest, nRow1);
}
{
sc::BroadcasterStoreType& rSrc = aSortedCols[i].maBroadcasters;
sc::BroadcasterStoreType& rDest = aCol[nThisCol].maBroadcasters;
// Release current broadcasters first, to prevent them from getting deleted.
rDest.release_range(nRow1, nRow2);
// Transfer sorted broadcaster segment to the document.
rSrc.transfer(nRow1, nRow2, rDest, nRow1);
}
{
sc::CellNoteStoreType& rSrc = aSortedCols[i].maCellNotes;
sc::CellNoteStoreType& rDest = aCol[nThisCol].maCellNotes;
// Do the same as broadcaster storage transfer (to prevent double deletion).
rDest.release_range(nRow1, nRow2);
rSrc.transfer(nRow1, nRow2, rDest, nRow1);
aCol[nThisCol].UpdateNoteCaptions(nRow1, nRow2);
}
{
// Get all row spans where the pattern is not NULL.
std::vector<PatternSpan> aSpans =
sc::toSpanArrayWithValue<SCROW,const ScPatternAttr*,PatternSpan>(
aSortedCols[i].maPatterns);
std::vector<PatternSpan>::iterator it = aSpans.begin(), itEnd = aSpans.end();
for (; it != itEnd; ++it)
{
assert(it->mpPattern); // should never be NULL.
pDocument->GetPool()->Put(*it->mpPattern);
}
for (it = aSpans.begin(); it != itEnd; ++it)
{
aCol[nThisCol].SetPatternArea(it->mnRow1, it->mnRow2, *it->mpPattern, true);
pDocument->GetPool()->Remove(*it->mpPattern);
}
}
aCol[nThisCol].CellStorageModified();
}
if (pArray->IsKeepQuery())
{
aRowFlags.maRowsHidden.build_tree();
aRowFlags.maRowsFiltered.build_tree();
// Remove all flags in the range first.
SetRowHidden(nRow1, nRow2, false);
SetRowFiltered(nRow1, nRow2, false);
std::vector<sc::RowSpan> aSpans =
sc::toSpanArray<SCROW,sc::RowSpan>(aRowFlags.maRowsHidden, nRow1);
std::vector<sc::RowSpan>::const_iterator it = aSpans.begin(), itEnd = aSpans.end();
for (; it != itEnd; ++it)
SetRowHidden(it->mnRow1, it->mnRow2, true);
aSpans = sc::toSpanArray<SCROW,sc::RowSpan>(aRowFlags.maRowsFiltered, nRow1);
it = aSpans.begin(), itEnd = aSpans.end();
for (; it != itEnd; ++it)
SetRowFiltered(it->mnRow1, it->mnRow2, true);
}
// Set up row reorder map (for later broadcasting of reference updates).
sc::ColRowReorderMapType aRowMap;
const std::vector<SCCOLROW>& rOldIndices = pArray->GetOrderIndices();
for (size_t i = 0, n = rOldIndices.size(); i < n; ++i)
{
SCROW nNew = i + nRow1;
SCROW nOld = rOldIndices[i];
aRowMap.insert(sc::ColRowReorderMapType::value_type(nOld, nNew));
}
// Collect all listeners within sorted range ahead of time.
std::vector<SvtListener*> aListeners;
// Get all area listeners that listen on one row within the range and end
// their listening.
ScRange aMoveRange( nCol1, nRow1, nTab, nCol2, nRow2, nTab);
std::vector<sc::AreaListener> aAreaListeners = pDocument->GetBASM()->GetAllListeners(
aMoveRange, sc::OneRowInsideArea);
{
std::vector<sc::AreaListener>::iterator it = aAreaListeners.begin(), itEnd = aAreaListeners.end();
for (; it != itEnd; ++it)
{
pDocument->EndListeningArea(it->maArea, it->mpListener);
aListeners.push_back( it->mpListener);
}
}
if (pArray->IsUpdateRefs())
{
// Collect listeners of cell broadcasters.
for (SCCOL nCol = nCol1; nCol <= nCol2; ++nCol)
aCol[nCol].CollectListeners(aListeners, nRow1, nRow2);
// Remove any duplicate listener entries. We must ensure that we notify
// each unique listener only once.
std::sort(aListeners.begin(), aListeners.end());
aListeners.erase(std::unique(aListeners.begin(), aListeners.end()), aListeners.end());
// Collect positions of all shared formula cells outside the sorted range,
// and make them unshared before notifying them.
sc::RefQueryFormulaGroup aFormulaGroupPos;
aFormulaGroupPos.setSkipRange(ScRange(nCol1, nRow1, nTab, nCol2, nRow2, nTab));
std::for_each(aListeners.begin(), aListeners.end(), FormulaGroupPosCollector(aFormulaGroupPos));
const sc::RefQueryFormulaGroup::TabsType& rGroupTabs = aFormulaGroupPos.getAllPositions();
sc::RefQueryFormulaGroup::TabsType::const_iterator itGroupTab = rGroupTabs.begin(), itGroupTabEnd = rGroupTabs.end();
for (; itGroupTab != itGroupTabEnd; ++itGroupTab)
{
const sc::RefQueryFormulaGroup::ColsType& rCols = itGroupTab->second;
sc::RefQueryFormulaGroup::ColsType::const_iterator itCol = rCols.begin(), itColEnd = rCols.end();
for (; itCol != itColEnd; ++itCol)
{
const sc::RefQueryFormulaGroup::ColType& rCol = itCol->second;
std::vector<SCROW> aBounds(rCol);
pDocument->UnshareFormulaCells(itGroupTab->first, itCol->first, aBounds);
}
}
// Notify the listeners.
RowReorderNotifier aFunc(aRowMap, nTab, nCol1, nCol2);
std::for_each(aListeners.begin(), aListeners.end(), aFunc);
// Re-group formulas in affected columns.
for (itGroupTab = rGroupTabs.begin(); itGroupTab != itGroupTabEnd; ++itGroupTab)
{
const sc::RefQueryFormulaGroup::ColsType& rCols = itGroupTab->second;
sc::RefQueryFormulaGroup::ColsType::const_iterator itCol = rCols.begin(), itColEnd = rCols.end();
for (; itCol != itColEnd; ++itCol)
pDocument->RegroupFormulaCells(itGroupTab->first, itCol->first);
}
}
// Re-start area listeners on the reordered rows.
{
std::vector<sc::AreaListener>::iterator it = aAreaListeners.begin(), itEnd = aAreaListeners.end();
for (; it != itEnd; ++it)
{
ScRange aNewRange = it->maArea;
sc::ColRowReorderMapType::const_iterator itRow = aRowMap.find( aNewRange.aStart.Row());
if (itRow != aRowMap.end())
{
aNewRange.aStart.SetRow( itRow->second);
aNewRange.aEnd.SetRow( itRow->second);
}
pDocument->StartListeningArea(aNewRange, it->mpListener);
}
}
// Re-group columns in the sorted range too.
for (SCCOL i = nCol1; i <= nCol2; ++i)
aCol[i].RegroupFormulaCells();
}
short ScTable::CompareCell(
sal_uInt16 nSort,
ScRefCellValue& rCell1, SCCOL nCell1Col, SCROW nCell1Row,
ScRefCellValue& rCell2, SCCOL nCell2Col, SCROW nCell2Row ) const
{
short nRes = 0;
CellType eType1 = rCell1.meType, eType2 = rCell2.meType;
if (!rCell1.isEmpty())
{
if (!rCell2.isEmpty())
{
bool bStr1 = ( eType1 != CELLTYPE_VALUE );
if (eType1 == CELLTYPE_FORMULA && rCell1.mpFormula->IsValue())
bStr1 = false;
bool bStr2 = ( eType2 != CELLTYPE_VALUE );
if (eType2 == CELLTYPE_FORMULA && rCell2.mpFormula->IsValue())
bStr2 = false;
if ( bStr1 && bStr2 ) // nur Strings untereinander als String vergleichen!
{
OUString aStr1;
OUString aStr2;
if (eType1 == CELLTYPE_STRING)
aStr1 = rCell1.mpString->getString();
else
GetString(nCell1Col, nCell1Row, aStr1);
if (eType2 == CELLTYPE_STRING)
aStr2 = rCell2.mpString->getString();
else
GetString(nCell2Col, nCell2Row, aStr2);
bool bUserDef = aSortParam.bUserDef; // custom sort order
bool bNaturalSort = aSortParam.bNaturalSort; // natural sort
bool bCaseSens = aSortParam.bCaseSens; // case sensitivity
if (bUserDef)
{
ScUserList* pList = ScGlobal::GetUserList();
const ScUserListData* pData = (*pList)[aSortParam.nUserIndex];
if (pData)
{
if ( bNaturalSort )
nRes = naturalsort::Compare( aStr1, aStr2, bCaseSens, pData, pSortCollator );
else
{
if ( bCaseSens )
nRes = sal::static_int_cast<short>( pData->Compare(aStr1, aStr2) );
else
nRes = sal::static_int_cast<short>( pData->ICompare(aStr1, aStr2) );
}
}
else
bUserDef = false;
}
if (!bUserDef)
{
if ( bNaturalSort )
nRes = naturalsort::Compare( aStr1, aStr2, bCaseSens, NULL, pSortCollator );
else
nRes = static_cast<short>( pSortCollator->compareString( aStr1, aStr2 ) );
}
}
else if ( bStr1 ) // String <-> Zahl
nRes = 1; // Zahl vorne
else if ( bStr2 ) // Zahl <-> String
nRes = -1; // Zahl vorne
else // Zahlen untereinander
{
double nVal1 = rCell1.getValue();
double nVal2 = rCell2.getValue();
if (nVal1 < nVal2)
nRes = -1;
else if (nVal1 > nVal2)
nRes = 1;
}
if ( !aSortParam.maKeyState[nSort].bAscending )
nRes = -nRes;
}
else
nRes = -1;
}
else
{
if (!rCell2.isEmpty())
nRes = 1;
else
nRes = 0; // beide leer
}
return nRes;
}
short ScTable::Compare( ScSortInfoArray* pArray, SCCOLROW nIndex1, SCCOLROW nIndex2 ) const
{
short nRes;
sal_uInt16 nSort = 0;
do
{
ScSortInfo* pInfo1 = pArray->Get( nSort, nIndex1 );
ScSortInfo* pInfo2 = pArray->Get( nSort, nIndex2 );
if ( aSortParam.bByRow )
nRes = CompareCell( nSort,
pInfo1->maCell, static_cast<SCCOL>(aSortParam.maKeyState[nSort].nField), pInfo1->nOrg,
pInfo2->maCell, static_cast<SCCOL>(aSortParam.maKeyState[nSort].nField), pInfo2->nOrg );
else
nRes = CompareCell( nSort,
pInfo1->maCell, static_cast<SCCOL>(pInfo1->nOrg), aSortParam.maKeyState[nSort].nField,
pInfo2->maCell, static_cast<SCCOL>(pInfo2->nOrg), aSortParam.maKeyState[nSort].nField );
} while ( nRes == 0 && ++nSort < pArray->GetUsedSorts() );
if( nRes == 0 )
{
ScSortInfo* pInfo1 = pArray->Get( 0, nIndex1 );
ScSortInfo* pInfo2 = pArray->Get( 0, nIndex2 );
if( pInfo1->nOrg < pInfo2->nOrg )
nRes = -1;
else if( pInfo1->nOrg > pInfo2->nOrg )
nRes = 1;
}
return nRes;
}
void ScTable::QuickSort( ScSortInfoArray* pArray, SCsCOLROW nLo, SCsCOLROW nHi )
{
if ((nHi - nLo) == 1)
{
if (Compare(pArray, nLo, nHi) > 0)
pArray->Swap( nLo, nHi );
}
else
{
SCsCOLROW ni = nLo;
SCsCOLROW nj = nHi;
do
{
while ((ni <= nHi) && (Compare(pArray, ni, nLo)) < 0)
ni++;
while ((nj >= nLo) && (Compare(pArray, nLo, nj)) < 0)
nj--;
if (ni <= nj)
{
if (ni != nj)
pArray->Swap( ni, nj );
ni++;
nj--;
}
} while (ni < nj);
if ((nj - nLo) < (nHi - ni))
{
if (nLo < nj)
QuickSort(pArray, nLo, nj);
if (ni < nHi)
QuickSort(pArray, ni, nHi);
}
else
{
if (ni < nHi)
QuickSort(pArray, ni, nHi);
if (nLo < nj)
QuickSort(pArray, nLo, nj);
}
}
}
short ScTable::Compare(SCCOLROW nIndex1, SCCOLROW nIndex2) const
{
short nRes;
sal_uInt16 nSort = 0;
const sal_uInt32 nMaxSorts = aSortParam.GetSortKeyCount();
if (aSortParam.bByRow)
{
do
{
SCCOL nCol = static_cast<SCCOL>(aSortParam.maKeyState[nSort].nField);
ScRefCellValue aCell1 = aCol[nCol].GetCellValue(nIndex1);
ScRefCellValue aCell2 = aCol[nCol].GetCellValue(nIndex2);
nRes = CompareCell(nSort, aCell1, nCol, nIndex1, aCell2, nCol, nIndex2);
} while ( nRes == 0 && ++nSort < nMaxSorts && aSortParam.maKeyState[nSort].bDoSort );
}
else
{
do
{
SCROW nRow = aSortParam.maKeyState[nSort].nField;
ScRefCellValue aCell1 = aCol[nIndex1].GetCellValue(nRow);
ScRefCellValue aCell2 = aCol[nIndex2].GetCellValue(nRow);
nRes = CompareCell( nSort, aCell1, static_cast<SCCOL>(nIndex1),
nRow, aCell2, static_cast<SCCOL>(nIndex2), nRow );
} while ( nRes == 0 && ++nSort < nMaxSorts && aSortParam.maKeyState[nSort].bDoSort );
}
return nRes;
}
bool ScTable::IsSorted( SCCOLROW nStart, SCCOLROW nEnd ) const // ueber aSortParam
{
for (SCCOLROW i=nStart; i<nEnd; i++)
{
if (Compare( i, i+1 ) > 0)
return false;
}
return true;
}
void ScTable::DecoladeRow( ScSortInfoArray* pArray, SCROW nRow1, SCROW nRow2 )
{
SCROW nRow;
int nMax = nRow2 - nRow1;
for (SCROW i = nRow1; (i + 4) <= nRow2; i += 4)
{
nRow = comphelper::rng::uniform_int_distribution(0, nMax-1);
pArray->Swap(i, nRow1 + nRow);
}
}
void ScTable::Sort(
const ScSortParam& rSortParam, bool bKeepQuery, bool bUpdateRefs,
ScProgress* pProgress, sc::ReorderParam* pUndo )
{
aSortParam = rSortParam;
InitSortCollator( rSortParam );
bGlobalKeepQuery = bKeepQuery;
if (pUndo)
{
// Copy over the basic sort parameters.
pUndo->mbByRow = rSortParam.bByRow;
pUndo->mbPattern = rSortParam.bIncludePattern;
pUndo->mbHiddenFiltered = bKeepQuery;
pUndo->mbUpdateRefs = bUpdateRefs;
}
if (rSortParam.bByRow)
{
SCROW nLastRow = 0;
for (SCCOL nCol = aSortParam.nCol1; nCol <= aSortParam.nCol2; nCol++)
nLastRow = std::max(nLastRow, aCol[nCol].GetLastDataPos());
nLastRow = std::min(nLastRow, aSortParam.nRow2);
SCROW nRow1 = (rSortParam.bHasHeader ?
aSortParam.nRow1 + 1 : aSortParam.nRow1);
if (!IsSorted(nRow1, nLastRow))
{
if(pProgress)
pProgress->SetState( 0, nLastRow-nRow1 );
boost::scoped_ptr<ScSortInfoArray> pArray(CreateSortInfoArray(aSortParam, nRow1, nLastRow, bKeepQuery, bUpdateRefs));
if ( nLastRow - nRow1 > 255 )
DecoladeRow(pArray.get(), nRow1, nLastRow);
QuickSort(pArray.get(), nRow1, nLastRow);
SortReorderByRow(pArray.get(), aSortParam.nCol1, aSortParam.nCol2, pProgress);
if (pUndo)
{
pUndo->maSortRange = ScRange(rSortParam.nCol1, nRow1, nTab, rSortParam.nCol2, nLastRow, nTab);
pUndo->maOrderIndices = pArray->GetOrderIndices();
}
}
}
else
{
SCCOL nLastCol;
for (nLastCol = aSortParam.nCol2;
(nLastCol > aSortParam.nCol1) && aCol[nLastCol].IsEmptyBlock(aSortParam.nRow1, aSortParam.nRow2); nLastCol--)
{
}
SCCOL nCol1 = (rSortParam.bHasHeader ?
aSortParam.nCol1 + 1 : aSortParam.nCol1);
if (!IsSorted(nCol1, nLastCol))
{
if(pProgress)
pProgress->SetState( 0, nLastCol-nCol1 );
boost::scoped_ptr<ScSortInfoArray> pArray(CreateSortInfoArray(aSortParam, nCol1, nLastCol, bKeepQuery, bUpdateRefs));
QuickSort(pArray.get(), nCol1, nLastCol);
SortReorderByColumn(pArray.get(), aSortParam.nRow1, aSortParam.nRow2, aSortParam.bIncludePattern, pProgress);
if (pUndo)
{
pUndo->maSortRange = ScRange(nCol1, aSortParam.nRow1, nTab, nLastCol, aSortParam.nRow2, nTab);
pUndo->maOrderIndices = pArray->GetOrderIndices();
}
}
}
DestroySortCollator();
}
void ScTable::Reorder( const sc::ReorderParam& rParam, ScProgress* pProgress )
{
if (rParam.maOrderIndices.empty())
return;
boost::scoped_ptr<ScSortInfoArray> pArray(CreateSortInfoArray(rParam));
if (!pArray)
return;
if (rParam.mbByRow)
{
// Re-play sorting from the known sort indices.
pArray->ReorderByRow(rParam.maOrderIndices);
SortReorderByRow(
pArray.get(), rParam.maSortRange.aStart.Col(), rParam.maSortRange.aEnd.Col(), pProgress);
}
else
{
// Ordering by column is much simpler. Just set the order indices and we are done.
pArray->SetOrderIndices(rParam.maOrderIndices);
SortReorderByColumn(
pArray.get(), rParam.maSortRange.aStart.Row(), rParam.maSortRange.aEnd.Row(),
rParam.mbPattern, pProgress);
}
}
namespace {
class SubTotalRowFinder
{
const ScTable& mrTab;
const ScSubTotalParam& mrParam;
public:
SubTotalRowFinder(const ScTable& rTab, const ScSubTotalParam& rParam) :
mrTab(rTab), mrParam(rParam) {}
bool operator() (size_t nRow, const ScFormulaCell* pCell)
{
if (!pCell->IsSubTotal())
return false;
SCCOL nStartCol = mrParam.nCol1;
SCCOL nEndCol = mrParam.nCol2;
for (SCCOL i = 0; i <= MAXCOL; ++i)
{
if (nStartCol <= i && i <= nEndCol)
continue;
if (mrTab.HasData(i, nRow))
return true;
}
return false;
}
};
}
bool ScTable::TestRemoveSubTotals( const ScSubTotalParam& rParam )
{
SCCOL nStartCol = rParam.nCol1;
SCROW nStartRow = rParam.nRow1 + 1; // Header
SCCOL nEndCol = rParam.nCol2;
SCROW nEndRow = rParam.nRow2;
for (SCCOL nCol = nStartCol; nCol <= nEndCol; ++nCol)
{
const sc::CellStoreType& rCells = aCol[nCol].maCells;
SubTotalRowFinder aFunc(*this, rParam);
std::pair<sc::CellStoreType::const_iterator,size_t> aPos =
sc::FindFormula(rCells, nStartRow, nEndRow, aFunc);
if (aPos.first != rCells.end())
return true;
}
return false;
}
namespace {
class RemoveSubTotalsHandler
{
std::vector<SCROW> maRemoved;
public:
void operator() (size_t nRow, const ScFormulaCell* p)
{
if (p->IsSubTotal())
maRemoved.push_back(nRow);
}
void getRows(std::vector<SCROW>& rRows)
{
// Sort and remove duplicates.
std::sort(maRemoved.begin(), maRemoved.end());
std::vector<SCROW>::iterator it = std::unique(maRemoved.begin(), maRemoved.end());
maRemoved.erase(it, maRemoved.end());
maRemoved.swap(rRows);
}
};
}
void ScTable::RemoveSubTotals( ScSubTotalParam& rParam )
{
SCCOL nStartCol = rParam.nCol1;
SCROW nStartRow = rParam.nRow1 + 1; // Header
SCCOL nEndCol = rParam.nCol2;
SCROW nEndRow = rParam.nRow2; // wird veraendert
RemoveSubTotalsHandler aFunc;
for (SCCOL nCol = nStartCol; nCol <= nEndCol; ++nCol)
{
const sc::CellStoreType& rCells = aCol[nCol].maCells;
sc::ParseFormula(rCells.begin(), rCells, nStartRow, nEndRow, aFunc);
}
std::vector<SCROW> aRows;
aFunc.getRows(aRows);
std::vector<SCROW>::reverse_iterator it = aRows.rbegin(), itEnd = aRows.rend();
for (; it != itEnd; ++it)
{
SCROW nRow = *it;
RemoveRowBreak(nRow+1, false, true);
pDocument->DeleteRow(0, nTab, MAXCOL, nTab, nRow, 1);
}
rParam.nRow2 -= aRows.size();
}
// harte Zahlenformate loeschen (fuer Ergebnisformeln)
static void lcl_RemoveNumberFormat( ScTable* pTab, SCCOL nCol, SCROW nRow )
{
const ScPatternAttr* pPattern = pTab->GetPattern( nCol, nRow );
if ( pPattern->GetItemSet().GetItemState( ATTR_VALUE_FORMAT, false )
== SfxItemState::SET )
{
ScPatternAttr aNewPattern( *pPattern );
SfxItemSet& rSet = aNewPattern.GetItemSet();
rSet.ClearItem( ATTR_VALUE_FORMAT );
rSet.ClearItem( ATTR_LANGUAGE_FORMAT );
pTab->SetPattern( nCol, nRow, aNewPattern, true );
}
}
// at least MSC needs this at linkage level to be able to use it in a template
typedef struct lcl_ScTable_DoSubTotals_RowEntry
{
sal_uInt16 nGroupNo;
SCROW nSubStartRow;
SCROW nDestRow;
SCROW nFuncStart;
SCROW nFuncEnd;
} RowEntry;
// neue Zwischenergebnisse
// rParam.nRow2 wird veraendert !
bool ScTable::DoSubTotals( ScSubTotalParam& rParam )
{
SCCOL nStartCol = rParam.nCol1;
SCROW nStartRow = rParam.nRow1 + 1; // Header
SCCOL nEndCol = rParam.nCol2;
SCROW nEndRow = rParam.nRow2; // wird veraendert
sal_uInt16 i;
// Leerzeilen am Ende weglassen,
// damit alle Ueberlaeufe (MAXROW) bei InsertRow gefunden werden (#35180#)
// Wenn sortiert wurde, sind alle Leerzeilen am Ende.
SCSIZE nEmpty = GetEmptyLinesInBlock( nStartCol, nStartRow, nEndCol, nEndRow, DIR_BOTTOM );
nEndRow -= nEmpty;
sal_uInt16 nLevelCount = 0; // Anzahl Gruppierungen
bool bDoThis = true;
for (i=0; i<MAXSUBTOTAL && bDoThis; i++)
if (rParam.bGroupActive[i])
nLevelCount = i+1;
else
bDoThis = false;
if (nLevelCount==0) // nichts tun
return true;
SCCOL* nGroupCol = rParam.nField; // Spalten nach denen
// gruppiert wird
// Durch (leer) als eigene Kategorie muss immer auf
// Teilergebniszeilen aus den anderen Spalten getestet werden
// (frueher nur, wenn eine Spalte mehrfach vorkam)
bool bTestPrevSub = ( nLevelCount > 1 );
OUString aSubString;
OUString aOutString;
bool bIgnoreCase = !rParam.bCaseSens;
OUString *pCompString[MAXSUBTOTAL]; // Pointer wegen Compiler-Problemen
for (i=0; i<MAXSUBTOTAL; i++)
pCompString[i] = new OUString;
//! sortieren?
ScStyleSheet* pStyle = (ScStyleSheet*) pDocument->GetStyleSheetPool()->Find(
ScGlobal::GetRscString(STR_STYLENAME_RESULT), SFX_STYLE_FAMILY_PARA );
bool bSpaceLeft = true; // Erfolg beim Einfuegen?
// For performance reasons collect formula entries so their
// references don't have to be tested for updates each time a new row is
// inserted
RowEntry aRowEntry;
::std::vector< RowEntry > aRowVector;
for (sal_uInt16 nLevel=0; nLevel<=nLevelCount && bSpaceLeft; nLevel++) // incl. Gesamtergebnis
{
bool bTotal = ( nLevel == nLevelCount );
aRowEntry.nGroupNo = bTotal ? 0 : (nLevelCount-nLevel-1);
// how many results per level
SCCOL nResCount = rParam.nSubTotals[aRowEntry.nGroupNo];
// result functions
ScSubTotalFunc* eResFunc = rParam.pFunctions[aRowEntry.nGroupNo];
if (nResCount > 0) // sonst nur sortieren
{
for (i=0; i<=aRowEntry.nGroupNo; i++)
{
GetString( nGroupCol[i], nStartRow, aSubString );
if ( bIgnoreCase )
*pCompString[i] = ScGlobal::pCharClass->uppercase( aSubString );
else
*pCompString[i] = aSubString;
} // aSubString bleibt auf dem letzten stehen
bool bBlockVis = false; // Gruppe eingeblendet?
aRowEntry.nSubStartRow = nStartRow;
for (SCROW nRow=nStartRow; nRow<=nEndRow+1 && bSpaceLeft; nRow++)
{
bool bChanged;
if (nRow>nEndRow)
bChanged = true;
else
{
bChanged = false;
if (!bTotal)
{
OUString aString;
for (i=0; i<=aRowEntry.nGroupNo && !bChanged; i++)
{
GetString( nGroupCol[i], nRow, aString );
if (bIgnoreCase)
aString = ScGlobal::pCharClass->uppercase(aString);
// wenn sortiert, ist "leer" eine eigene Gruppe
// sonst sind leere Zellen unten erlaubt
bChanged = ( ( !aString.isEmpty() || rParam.bDoSort ) &&
aString != *pCompString[i] );
}
if ( bChanged && bTestPrevSub )
{
// No group change on rows that will contain subtotal formulas
for ( ::std::vector< RowEntry >::const_iterator
iEntry( aRowVector.begin());
iEntry != aRowVector.end(); ++iEntry)
{
if ( iEntry->nDestRow == nRow )
{
bChanged = false;
break;
}
}
}
}
}
if ( bChanged )
{
aRowEntry.nDestRow = nRow;
aRowEntry.nFuncStart = aRowEntry.nSubStartRow;
aRowEntry.nFuncEnd = nRow-1;
bSpaceLeft = pDocument->InsertRow( 0, nTab, MAXCOL, nTab,
aRowEntry.nDestRow, 1 );
DBShowRow( aRowEntry.nDestRow, bBlockVis );
bBlockVis = false;
if ( rParam.bPagebreak && nRow < MAXROW &&
aRowEntry.nSubStartRow != nStartRow && nLevel == 0)
SetRowBreak(aRowEntry.nSubStartRow, false, true);
if (bSpaceLeft)
{
for ( ::std::vector< RowEntry >::iterator iMove(
aRowVector.begin() );
iMove != aRowVector.end(); ++iMove)
{
if ( aRowEntry.nDestRow <= iMove->nSubStartRow )
++iMove->nSubStartRow;
if ( aRowEntry.nDestRow <= iMove->nDestRow )
++iMove->nDestRow;
if ( aRowEntry.nDestRow <= iMove->nFuncStart )
++iMove->nFuncStart;
if ( aRowEntry.nDestRow <= iMove->nFuncEnd )
++iMove->nFuncEnd;
}
// collect formula positions
aRowVector.push_back( aRowEntry );
if (bTotal) // "Gesamtergebnis"
aOutString = ScGlobal::GetRscString( STR_TABLE_GESAMTERGEBNIS );
else
{ // " Ergebnis"
aOutString = aSubString;
if (aOutString.isEmpty())
aOutString = ScGlobal::GetRscString( STR_EMPTYDATA );
aOutString += " ";
sal_uInt16 nStrId = STR_TABLE_ERGEBNIS;
if ( nResCount == 1 )
switch ( eResFunc[0] )
{
case SUBTOTAL_FUNC_AVE: nStrId = STR_FUN_TEXT_AVG; break;
case SUBTOTAL_FUNC_CNT:
case SUBTOTAL_FUNC_CNT2: nStrId = STR_FUN_TEXT_COUNT; break;
case SUBTOTAL_FUNC_MAX: nStrId = STR_FUN_TEXT_MAX; break;
case SUBTOTAL_FUNC_MIN: nStrId = STR_FUN_TEXT_MIN; break;
case SUBTOTAL_FUNC_PROD: nStrId = STR_FUN_TEXT_PRODUCT; break;
case SUBTOTAL_FUNC_STD:
case SUBTOTAL_FUNC_STDP: nStrId = STR_FUN_TEXT_STDDEV; break;
case SUBTOTAL_FUNC_SUM: nStrId = STR_FUN_TEXT_SUM; break;
case SUBTOTAL_FUNC_VAR:
case SUBTOTAL_FUNC_VARP: nStrId = STR_FUN_TEXT_VAR; break;
default:
{
// added to avoid warnings
}
}
aOutString += ScGlobal::GetRscString( nStrId );
}
SetString( nGroupCol[aRowEntry.nGroupNo], aRowEntry.nDestRow, nTab, aOutString );
ApplyStyle( nGroupCol[aRowEntry.nGroupNo], aRowEntry.nDestRow, *pStyle );
++nRow;
++nEndRow;
aRowEntry.nSubStartRow = nRow;
for (i=0; i<=aRowEntry.nGroupNo; i++)
{
GetString( nGroupCol[i], nRow, aSubString );
if ( bIgnoreCase )
*pCompString[i] = ScGlobal::pCharClass->uppercase( aSubString );
else
*pCompString[i] = aSubString;
}
}
}
bBlockVis = !RowFiltered(nRow);
}
}
}
// now insert the formulas
ScComplexRefData aRef;
aRef.InitFlags();
aRef.Ref1.SetAbsTab(nTab);
aRef.Ref2.SetAbsTab(nTab);
for ( ::std::vector< RowEntry >::const_iterator iEntry( aRowVector.begin());
iEntry != aRowVector.end(); ++iEntry)
{
SCCOL nResCount = rParam.nSubTotals[iEntry->nGroupNo];
SCCOL* nResCols = rParam.pSubTotals[iEntry->nGroupNo];
ScSubTotalFunc* eResFunc = rParam.pFunctions[iEntry->nGroupNo];
for ( SCCOL nResult=0; nResult < nResCount; ++nResult )
{
aRef.Ref1.SetAbsCol(nResCols[nResult]);
aRef.Ref1.SetAbsRow(iEntry->nFuncStart);
aRef.Ref2.SetAbsCol(nResCols[nResult]);
aRef.Ref2.SetAbsRow(iEntry->nFuncEnd);
ScTokenArray aArr;
aArr.AddOpCode( ocSubTotal );
aArr.AddOpCode( ocOpen );
aArr.AddDouble( (double) eResFunc[nResult] );
aArr.AddOpCode( ocSep );
aArr.AddDoubleReference( aRef );
aArr.AddOpCode( ocClose );
aArr.AddOpCode( ocStop );
ScFormulaCell* pCell = new ScFormulaCell(
pDocument, ScAddress(nResCols[nResult], iEntry->nDestRow, nTab), aArr);
SetFormulaCell(nResCols[nResult], iEntry->nDestRow, pCell);
if ( nResCols[nResult] != nGroupCol[iEntry->nGroupNo] )
{
ApplyStyle( nResCols[nResult], iEntry->nDestRow, *pStyle );
// Zahlformat loeschen
lcl_RemoveNumberFormat( this, nResCols[nResult], iEntry->nDestRow );
}
}
}
//! je nach Einstellung Zwischensummen-Zeilen nach oben verschieben ?
//! Outlines direkt erzeugen?
if (bSpaceLeft)
DoAutoOutline( nStartCol, nStartRow, nEndCol, nEndRow );
for (i=0; i<MAXSUBTOTAL; i++)
delete pCompString[i];
rParam.nRow2 = nEndRow; // neues Ende
return bSpaceLeft;
}
void ScTable::MarkSubTotalCells(
sc::ColumnSpanSet& rSet, SCCOL nCol1, SCROW nRow1, SCCOL nCol2, SCROW nRow2, bool bVal ) const
{
if (!ValidCol(nCol1) || !ValidCol(nCol2))
return;
// Pick up all subtotal formula cells.
for (SCCOL nCol = nCol1; nCol <= nCol2; ++nCol)
aCol[nCol].MarkSubTotalCells(rSet, nRow1, nRow2, bVal);
// Pick up all filtered rows.
ScFlatBoolRowSegments::RangeData aFilteredSpan;
SCROW nRow = nRow1;
while (nRow <= nRow2)
{
if (!mpFilteredRows->getRangeData(nRow, aFilteredSpan))
// Failed for whatever reason.
return;
if (aFilteredSpan.mbValue)
{
// Filtered span found.
for (SCCOL nCol = nCol1; nCol <= nCol2; ++nCol)
rSet.set(nTab, nCol, nRow, aFilteredSpan.mnRow2, bVal);
}
nRow = aFilteredSpan.mnRow2 + 1;
}
}
namespace {
class QueryEvaluator
{
ScDocument& mrDoc;
svl::SharedStringPool& mrStrPool;
const ScTable& mrTab;
const ScQueryParam& mrParam;
const bool* mpTestEqualCondition;
utl::TransliterationWrapper* mpTransliteration;
CollatorWrapper* mpCollator;
const bool mbMatchWholeCell;
bool isPartialTextMatchOp(const ScQueryEntry& rEntry) const
{
switch (rEntry.eOp)
{
// these operators can only be used with textural comparisons.
case SC_CONTAINS:
case SC_DOES_NOT_CONTAIN:
case SC_BEGINS_WITH:
case SC_ENDS_WITH:
case SC_DOES_NOT_BEGIN_WITH:
case SC_DOES_NOT_END_WITH:
return true;
default:
;
}
return false;
}
bool isTextMatchOp(const ScQueryEntry& rEntry) const
{
if (isPartialTextMatchOp(rEntry))
return true;
switch (rEntry.eOp)
{
// these operators can be used for either textural or value comparison.
case SC_EQUAL:
case SC_NOT_EQUAL:
return true;
default:
;
}
return false;
}
bool isRealRegExp(const ScQueryEntry& rEntry) const
{
if (!mrParam.bRegExp)
return false;
return isTextMatchOp(rEntry);
}
bool isTestRegExp(const ScQueryEntry& rEntry) const
{
if (!mpTestEqualCondition)
return false;
if (!mrParam.bRegExp)
return false;
return (rEntry.eOp == SC_LESS_EQUAL || rEntry.eOp == SC_GREATER_EQUAL);
}
public:
QueryEvaluator(ScDocument& rDoc, const ScTable& rTab, const ScQueryParam& rParam,
const bool* pTestEqualCondition) :
mrDoc(rDoc),
mrStrPool(rDoc.GetSharedStringPool()),
mrTab(rTab),
mrParam(rParam),
mpTestEqualCondition(pTestEqualCondition),
mbMatchWholeCell(rDoc.GetDocOptions().IsMatchWholeCell())
{
if (rParam.bCaseSens)
{
mpTransliteration = ScGlobal::GetCaseTransliteration();
mpCollator = ScGlobal::GetCaseCollator();
}
else
{
mpTransliteration = ScGlobal::GetpTransliteration();
mpCollator = ScGlobal::GetCollator();
}
}
bool isQueryByValue(
const ScQueryEntry::Item& rItem, SCCOL nCol, SCROW nRow, ScRefCellValue& rCell)
{
if (rItem.meType == ScQueryEntry::ByString)
return false;
if (!rCell.isEmpty())
{
if (rCell.meType == CELLTYPE_FORMULA && rCell.mpFormula->GetErrCode())
// Error values are compared as string.
return false;
return rCell.hasNumeric();
}
return mrTab.HasValueData(nCol, nRow);
}
bool isQueryByString(
const ScQueryEntry& rEntry, const ScQueryEntry::Item& rItem,
SCCOL nCol, SCROW nRow, ScRefCellValue& rCell)
{
if (isTextMatchOp(rEntry))
return true;
if (rItem.meType != ScQueryEntry::ByString)
return false;
if (!rCell.isEmpty())
return rCell.hasString();
return mrTab.HasStringData(nCol, nRow);
}
std::pair<bool,bool> compareByValue(
const ScRefCellValue& rCell, SCCOL nCol, SCROW nRow,
const ScQueryEntry& rEntry, const ScQueryEntry::Item& rItem)
{
bool bOk = false;
bool bTestEqual = false;
double nCellVal;
if (!rCell.isEmpty())
{
switch (rCell.meType)
{
case CELLTYPE_VALUE :
nCellVal = rCell.mfValue;
break;
case CELLTYPE_FORMULA :
nCellVal = rCell.mpFormula->GetValue();
break;
default:
nCellVal = 0.0;
}
}
else
nCellVal = mrTab.GetValue(nCol, nRow);
/* NOTE: lcl_PrepareQuery() prepares a filter query such that if a
* date+time format was queried rEntry.bQueryByDate is not set. In
* case other queries wanted to use this mechanism they should do
* the same, in other words only if rEntry.nVal is an integer value
* rEntry.bQueryByDate should be true and the time fraction be
* stripped here. */
if (rItem.meType == ScQueryEntry::ByDate)
{
sal_uInt32 nNumFmt = mrTab.GetNumberFormat(nCol, nRow);
const SvNumberformat* pEntry = mrDoc.GetFormatTable()->GetEntry(nNumFmt);
if (pEntry)
{
short nNumFmtType = pEntry->GetType();
/* NOTE: Omitting the check for absence of
* NUMBERFORMAT_TIME would include also date+time formatted
* values of the same day. That may be desired in some
* cases, querying all time values of a day, but confusing
* in other cases. A user can always setup a standard
* filter query for x >= date AND x < date+1 */
if ((nNumFmtType & NUMBERFORMAT_DATE) && !(nNumFmtType & NUMBERFORMAT_TIME))
{
// The format is of date type. Strip off the time
// element.
nCellVal = ::rtl::math::approxFloor(nCellVal);
}
}
}
switch (rEntry.eOp)
{
case SC_EQUAL :
bOk = ::rtl::math::approxEqual(nCellVal, rItem.mfVal);
break;
case SC_LESS :
bOk = (nCellVal < rItem.mfVal) && !::rtl::math::approxEqual(nCellVal, rItem.mfVal);
break;
case SC_GREATER :
bOk = (nCellVal > rItem.mfVal) && !::rtl::math::approxEqual(nCellVal, rItem.mfVal);
break;
case SC_LESS_EQUAL :
bOk = (nCellVal < rItem.mfVal) || ::rtl::math::approxEqual(nCellVal, rItem.mfVal);
if ( bOk && mpTestEqualCondition )
bTestEqual = ::rtl::math::approxEqual(nCellVal, rItem.mfVal);
break;
case SC_GREATER_EQUAL :
bOk = (nCellVal > rItem.mfVal) || ::rtl::math::approxEqual( nCellVal, rItem.mfVal);
if ( bOk && mpTestEqualCondition )
bTestEqual = ::rtl::math::approxEqual(nCellVal, rItem.mfVal);
break;
case SC_NOT_EQUAL :
bOk = !::rtl::math::approxEqual(nCellVal, rItem.mfVal);
break;
default:
{
// added to avoid warnings
}
}
return std::pair<bool,bool>(bOk, bTestEqual);
}
std::pair<bool,bool> compareByString(
ScRefCellValue& rCell, SCROW nRow, const ScQueryEntry& rEntry, const ScQueryEntry::Item& rItem)
{
bool bOk = false;
bool bTestEqual = false;
bool bMatchWholeCell = mbMatchWholeCell;
svl::SharedString aCellStr;
if (isPartialTextMatchOp(rEntry))
// may have to do partial textural comparison.
bMatchWholeCell = false;
if (!rCell.isEmpty())
{
if (rCell.meType == CELLTYPE_FORMULA && rCell.mpFormula->GetErrCode())
{
// Error cell is evaluated as string (for now).
aCellStr = mrStrPool.intern(ScGlobal::GetErrorString(rCell.mpFormula->GetErrCode()));
}
else if (rCell.meType == CELLTYPE_STRING)
aCellStr = *rCell.mpString;
else
{
sal_uLong nFormat = mrTab.GetNumberFormat( static_cast<SCCOL>(rEntry.nField), nRow );
OUString aStr;
ScCellFormat::GetInputString(rCell, nFormat, aStr, *mrDoc.GetFormatTable(), &mrDoc);
aCellStr = mrStrPool.intern(aStr);
}
}
else
{
OUString aStr;
mrTab.GetInputString(static_cast<SCCOL>(rEntry.nField), nRow, aStr);
aCellStr = mrStrPool.intern(aStr);
}
bool bRealRegExp = isRealRegExp(rEntry);
bool bTestRegExp = isTestRegExp(rEntry);
if ( bRealRegExp || bTestRegExp )
{
sal_Int32 nStart = 0;
sal_Int32 nEnd = aCellStr.getLength();
// from 614 on, nEnd is behind the found text
bool bMatch = false;
if ( rEntry.eOp == SC_ENDS_WITH || rEntry.eOp == SC_DOES_NOT_END_WITH )
{
nEnd = 0;
nStart = aCellStr.getLength();
bMatch = rEntry.GetSearchTextPtr( mrParam.bCaseSens )
->SearchBackward(aCellStr.getString(), &nStart, &nEnd);
}
else
{
bMatch = rEntry.GetSearchTextPtr( mrParam.bCaseSens )
->SearchForward(aCellStr.getString(), &nStart, &nEnd);
}
if ( bMatch && bMatchWholeCell
&& (nStart != 0 || nEnd != aCellStr.getLength()) )
bMatch = false; // RegExp must match entire cell string
if ( bRealRegExp )
switch (rEntry.eOp)
{
case SC_EQUAL:
case SC_CONTAINS:
bOk = bMatch;
break;
case SC_NOT_EQUAL:
case SC_DOES_NOT_CONTAIN:
bOk = !bMatch;
break;
case SC_BEGINS_WITH:
bOk = ( bMatch && (nStart == 0) );
break;
case SC_DOES_NOT_BEGIN_WITH:
bOk = !( bMatch && (nStart == 0) );
break;
case SC_ENDS_WITH:
bOk = ( bMatch && (nEnd == aCellStr.getLength()) );
break;
case SC_DOES_NOT_END_WITH:
bOk = !( bMatch && (nEnd == aCellStr.getLength()) );
break;
default:
{
// added to avoid warnings
}
}
else
bTestEqual = bMatch;
}
if ( !bRealRegExp )
{
// Simple string matching i.e. no regexp match.
if (isTextMatchOp(rEntry))
{
if (rItem.meType != ScQueryEntry::ByString && rItem.maString.isEmpty())
{
// #i18374# When used from functions (match, countif, sumif, vlookup, hlookup, lookup),
// the query value is assigned directly, and the string is empty. In that case,
// don't find any string (isEqual would find empty string results in formula cells).
bOk = false;
if ( rEntry.eOp == SC_NOT_EQUAL )
bOk = !bOk;
}
else if ( bMatchWholeCell )
{
// Fast string equality check by comparing string identifiers.
if (mrParam.bCaseSens)
bOk = aCellStr.getData() == rItem.maString.getData();
else
bOk = aCellStr.getDataIgnoreCase() == rItem.maString.getDataIgnoreCase();
if ( rEntry.eOp == SC_NOT_EQUAL )
bOk = !bOk;
}
else
{
OUString aQueryStr = rItem.maString.getString();
OUString aCell( mpTransliteration->transliterate(
aCellStr.getString(), ScGlobal::eLnge, 0, aCellStr.getLength(),
NULL ) );
OUString aQuer( mpTransliteration->transliterate(
aQueryStr, ScGlobal::eLnge, 0, aQueryStr.getLength(),
NULL ) );
sal_Int32 nIndex = (rEntry.eOp == SC_ENDS_WITH
|| rEntry.eOp == SC_DOES_NOT_END_WITH) ? (aCell.getLength()-aQuer.getLength()) : 0;
sal_Int32 nStrPos = aCell.indexOf( aQuer, nIndex );
switch (rEntry.eOp)
{
case SC_EQUAL:
case SC_CONTAINS:
bOk = ( nStrPos != -1 );
break;
case SC_NOT_EQUAL:
case SC_DOES_NOT_CONTAIN:
bOk = ( nStrPos == -1 );
break;
case SC_BEGINS_WITH:
bOk = ( nStrPos == 0 );
break;
case SC_DOES_NOT_BEGIN_WITH:
bOk = ( nStrPos != 0 );
break;
case SC_ENDS_WITH:
bOk = ( nStrPos + aQuer.getLength() == aCell.getLength() );
break;
case SC_DOES_NOT_END_WITH:
bOk = ( nStrPos + aQuer.getLength() != aCell.getLength() );
break;
default:
{
// added to avoid warnings
}
}
}
}
else
{ // use collator here because data was probably sorted
sal_Int32 nCompare = mpCollator->compareString(
aCellStr.getString(), rItem.maString.getString());
switch (rEntry.eOp)
{
case SC_LESS :
bOk = (nCompare < 0);
break;
case SC_GREATER :
bOk = (nCompare > 0);
break;
case SC_LESS_EQUAL :
bOk = (nCompare <= 0);
if ( bOk && mpTestEqualCondition && !bTestEqual )
bTestEqual = (nCompare == 0);
break;
case SC_GREATER_EQUAL :
bOk = (nCompare >= 0);
if ( bOk && mpTestEqualCondition && !bTestEqual )
bTestEqual = (nCompare == 0);
break;
default:
{
// added to avoid warnings
}
}
}
}
return std::pair<bool,bool>(bOk, bTestEqual);
}
// To be called only if both isQueryByValue() and isQueryByString()
// returned false and range lookup is wanted! In range lookup comparison
// numbers are less than strings. Nothing else is compared.
std::pair<bool,bool> compareByRangeLookup(
const ScRefCellValue& rCell, SCCOL nCol, SCROW nRow,
const ScQueryEntry& rEntry, const ScQueryEntry::Item& rItem)
{
bool bTestEqual = false;
if (rItem.meType == ScQueryEntry::ByString && rEntry.eOp != SC_LESS && rEntry.eOp != SC_LESS_EQUAL)
return std::pair<bool,bool>(false, bTestEqual);
if (rItem.meType != ScQueryEntry::ByString && rEntry.eOp != SC_GREATER && rEntry.eOp != SC_GREATER_EQUAL)
return std::pair<bool,bool>(false, bTestEqual);
if (!rCell.isEmpty())
{
if (rItem.meType == ScQueryEntry::ByString)
{
if (rCell.meType == CELLTYPE_FORMULA && rCell.mpFormula->GetErrCode())
// Error values are compared as string.
return std::pair<bool,bool>(false, bTestEqual);
return std::pair<bool,bool>(rCell.hasNumeric(), bTestEqual);
}
return std::pair<bool,bool>(!rCell.hasNumeric(), bTestEqual);
}
if (rItem.meType == ScQueryEntry::ByString)
return std::pair<bool,bool>(mrTab.HasValueData(nCol, nRow), bTestEqual);
return std::pair<bool,bool>(!mrTab.HasValueData(nCol, nRow), bTestEqual);
}
};
}
bool ScTable::ValidQuery(
SCROW nRow, const ScQueryParam& rParam, ScRefCellValue* pCell, bool* pbTestEqualCondition)
{
if (!rParam.GetEntry(0).bDoQuery)
return true;
SCSIZE nEntryCount = rParam.GetEntryCount();
typedef std::pair<bool,bool> ResultType;
static std::vector<ResultType> aResults;
if (aResults.size() < nEntryCount)
aResults.resize(nEntryCount);
long nPos = -1;
QueryEvaluator aEval(*pDocument, *this, rParam, pbTestEqualCondition);
ScQueryParam::const_iterator it, itBeg = rParam.begin(), itEnd = rParam.end();
for (it = itBeg; it != itEnd && it->bDoQuery; ++it)
{
const ScQueryEntry& rEntry = *it;
SCCOL nCol = static_cast<SCCOL>(rEntry.nField);
// we can only handle one single direct query
ScRefCellValue aCell;
if (pCell && it == itBeg)
aCell = *pCell;
else
aCell = GetCellValue(nCol, nRow);
std::pair<bool,bool> aRes(false, false);
const ScQueryEntry::QueryItemsType& rItems = rEntry.GetQueryItems();
if (rItems.size() == 1 && rItems.front().meType == ScQueryEntry::ByEmpty)
{
if (rEntry.IsQueryByEmpty())
aRes.first = !aCol[rEntry.nField].HasDataAt(nRow);
else
{
OSL_ASSERT(rEntry.IsQueryByNonEmpty());
aRes.first = aCol[rEntry.nField].HasDataAt(nRow);
}
}
else
{
ScQueryEntry::QueryItemsType::const_iterator itr = rItems.begin(), itrEnd = rItems.end();
for (; itr != itrEnd; ++itr)
{
if (aEval.isQueryByValue(*itr, nCol, nRow, aCell))
{
std::pair<bool,bool> aThisRes =
aEval.compareByValue(aCell, nCol, nRow, rEntry, *itr);
aRes.first |= aThisRes.first;
aRes.second |= aThisRes.second;
}
else if (aEval.isQueryByString(rEntry, *itr, nCol, nRow, aCell))
{
std::pair<bool,bool> aThisRes =
aEval.compareByString(aCell, nRow, rEntry, *itr);
aRes.first |= aThisRes.first;
aRes.second |= aThisRes.second;
}
else if (rParam.mbRangeLookup)
{
std::pair<bool,bool> aThisRes =
aEval.compareByRangeLookup(aCell, nCol, nRow, rEntry, *itr);
aRes.first |= aThisRes.first;
aRes.second |= aThisRes.second;
}
if (aRes.first && aRes.second)
break;
}
}
if (nPos == -1)
{
nPos++;
aResults[nPos] = aRes;
}
else
{
if (rEntry.eConnect == SC_AND)
{
aResults[nPos].first = aResults[nPos].first && aRes.first;
aResults[nPos].second = aResults[nPos].second && aRes.second;
}
else
{
nPos++;
aResults[nPos] = aRes;
}
}
}
for ( long j=1; j <= nPos; j++ )
{
aResults[0].first = aResults[0].first || aResults[j].first;
aResults[0].second = aResults[0].second || aResults[j].second;
}
bool bRet = aResults[0].first;
if ( pbTestEqualCondition )
*pbTestEqualCondition = aResults[0].second;
return bRet;
}
void ScTable::TopTenQuery( ScQueryParam& rParam )
{
bool bSortCollatorInitialized = false;
SCSIZE nEntryCount = rParam.GetEntryCount();
SCROW nRow1 = (rParam.bHasHeader ? rParam.nRow1 + 1 : rParam.nRow1);
SCSIZE nCount = static_cast<SCSIZE>(rParam.nRow2 - nRow1 + 1);
for ( SCSIZE i=0; (i<nEntryCount) && (rParam.GetEntry(i).bDoQuery); i++ )
{
ScQueryEntry& rEntry = rParam.GetEntry(i);
ScQueryEntry::Item& rItem = rEntry.GetQueryItem();
switch ( rEntry.eOp )
{
case SC_TOPVAL:
case SC_BOTVAL:
case SC_TOPPERC:
case SC_BOTPERC:
{
ScSortParam aLocalSortParam( rParam, static_cast<SCCOL>(rEntry.nField) );
aSortParam = aLocalSortParam; // used in CreateSortInfoArray, Compare
if ( !bSortCollatorInitialized )
{
bSortCollatorInitialized = true;
InitSortCollator( aLocalSortParam );
}
boost::scoped_ptr<ScSortInfoArray> pArray(CreateSortInfoArray(aSortParam, nRow1, rParam.nRow2, bGlobalKeepQuery, false));
DecoladeRow( pArray.get(), nRow1, rParam.nRow2 );
QuickSort( pArray.get(), nRow1, rParam.nRow2 );
ScSortInfo** ppInfo = pArray->GetFirstArray();
SCSIZE nValidCount = nCount;
// keine Note-/Leerzellen zaehlen, sind ans Ende sortiert
while (nValidCount > 0 && ppInfo[nValidCount-1]->maCell.isEmpty())
nValidCount--;
// keine Strings zaehlen, sind zwischen Value und Leer
while (nValidCount > 0 && ppInfo[nValidCount-1]->maCell.hasString())
nValidCount--;
if ( nValidCount > 0 )
{
if ( rItem.meType == ScQueryEntry::ByString )
{ // dat wird nix
rItem.meType = ScQueryEntry::ByValue;
rItem.mfVal = 10; // 10 bzw. 10%
}
SCSIZE nVal = (rItem.mfVal >= 1 ? static_cast<SCSIZE>(rItem.mfVal) : 1);
SCSIZE nOffset = 0;
switch ( rEntry.eOp )
{
case SC_TOPVAL:
{
rEntry.eOp = SC_GREATER_EQUAL;
if ( nVal > nValidCount )
nVal = nValidCount;
nOffset = nValidCount - nVal; // 1 <= nVal <= nValidCount
}
break;
case SC_BOTVAL:
{
rEntry.eOp = SC_LESS_EQUAL;
if ( nVal > nValidCount )
nVal = nValidCount;
nOffset = nVal - 1; // 1 <= nVal <= nValidCount
}
break;
case SC_TOPPERC:
{
rEntry.eOp = SC_GREATER_EQUAL;
if ( nVal > 100 )
nVal = 100;
nOffset = nValidCount - (nValidCount * nVal / 100);
if ( nOffset >= nValidCount )
nOffset = nValidCount - 1;
}
break;
case SC_BOTPERC:
{
rEntry.eOp = SC_LESS_EQUAL;
if ( nVal > 100 )
nVal = 100;
nOffset = (nValidCount * nVal / 100);
if ( nOffset >= nValidCount )
nOffset = nValidCount - 1;
}
break;
default:
{
// added to avoid warnings
}
}
ScRefCellValue aCell = ppInfo[nOffset]->maCell;
if (aCell.hasNumeric())
rItem.mfVal = aCell.getValue();
else
{
OSL_FAIL( "TopTenQuery: pCell no ValueData" );
rEntry.eOp = SC_GREATER_EQUAL;
rItem.mfVal = 0;
}
}
else
{
rEntry.eOp = SC_GREATER_EQUAL;
rItem.meType = ScQueryEntry::ByValue;
rItem.mfVal = 0;
}
}
break;
default:
{
// added to avoid warnings
}
}
}
if ( bSortCollatorInitialized )
DestroySortCollator();
}
namespace {
class PrepareQueryItem : public std::unary_function<ScQueryEntry::Item, void>
{
const ScDocument& mrDoc;
public:
PrepareQueryItem(const ScDocument& rDoc) : mrDoc(rDoc) {}
void operator() (ScQueryEntry::Item& rItem)
{
if (rItem.meType != ScQueryEntry::ByString && rItem.meType != ScQueryEntry::ByDate)
return;
sal_uInt32 nIndex = 0;
bool bNumber = mrDoc.GetFormatTable()->
IsNumberFormat(rItem.maString.getString(), nIndex, rItem.mfVal);
// Advanced Filter creates only ByString queries that need to be
// converted to ByValue if appropriate. rItem.mfVal now holds the value
// if bNumber==true.
if (rItem.meType == ScQueryEntry::ByString)
{
if (bNumber)
rItem.meType = ScQueryEntry::ByValue;
return;
}
// Double-check if the query by date is really appropriate.
if (bNumber && ((nIndex % SV_COUNTRY_LANGUAGE_OFFSET) != 0))
{
const SvNumberformat* pEntry = mrDoc.GetFormatTable()->GetEntry(nIndex);
if (pEntry)
{
short nNumFmtType = pEntry->GetType();
if (!((nNumFmtType & NUMBERFORMAT_DATE) && !(nNumFmtType & NUMBERFORMAT_TIME)))
rItem.meType = ScQueryEntry::ByValue; // not a date only
}
else
rItem.meType = ScQueryEntry::ByValue; // what the ... not a date
}
else
rItem.meType = ScQueryEntry::ByValue; // not a date
}
};
void lcl_PrepareQuery( const ScDocument* pDoc, ScTable* pTab, ScQueryParam& rParam )
{
bool bTopTen = false;
SCSIZE nEntryCount = rParam.GetEntryCount();
for ( SCSIZE i = 0; i < nEntryCount; ++i )
{
ScQueryEntry& rEntry = rParam.GetEntry(i);
if (!rEntry.bDoQuery)
continue;
ScQueryEntry::QueryItemsType& rItems = rEntry.GetQueryItems();
std::for_each(rItems.begin(), rItems.end(), PrepareQueryItem(*pDoc));
if ( !bTopTen )
{
switch ( rEntry.eOp )
{
case SC_TOPVAL:
case SC_BOTVAL:
case SC_TOPPERC:
case SC_BOTPERC:
{
bTopTen = true;
}
break;
default:
{
}
}
}
}
if ( bTopTen )
{
pTab->TopTenQuery( rParam );
}
}
}
SCSIZE ScTable::Query(ScQueryParam& rParamOrg, bool bKeepSub)
{
ScQueryParam aParam( rParamOrg );
typedef boost::unordered_set<OUString, OUStringHash> StrSetType;
StrSetType aStrSet;
bool bStarted = false;
bool bOldResult = true;
SCROW nOldStart = 0;
SCROW nOldEnd = 0;
SCSIZE nCount = 0;
SCROW nOutRow = 0;
SCROW nHeader = aParam.bHasHeader ? 1 : 0;
lcl_PrepareQuery(pDocument, this, aParam);
if (!aParam.bInplace)
{
nOutRow = aParam.nDestRow + nHeader;
if (nHeader > 0)
CopyData( aParam.nCol1, aParam.nRow1, aParam.nCol2, aParam.nRow1,
aParam.nDestCol, aParam.nDestRow, aParam.nDestTab );
}
SCROW nRealRow2 = aParam.nRow2;
for (SCROW j = aParam.nRow1 + nHeader; j <= nRealRow2; ++j)
{
bool bResult; // Filterergebnis
bool bValid = ValidQuery(j, aParam);
if (!bValid && bKeepSub) // Subtotals stehenlassen
{
for (SCCOL nCol=aParam.nCol1; nCol<=aParam.nCol2 && !bValid; nCol++)
{
ScRefCellValue aCell = GetCellValue(nCol, j);
if (aCell.meType != CELLTYPE_FORMULA)
continue;
if (!aCell.mpFormula->IsSubTotal())
continue;
if (RefVisible(aCell.mpFormula))
bValid = true;
}
}
if (bValid)
{
if (aParam.bDuplicate)
bResult = true;
else
{
OUString aStr;
for (SCCOL k=aParam.nCol1; k <= aParam.nCol2; k++)
{
OUString aCellStr;
GetString(k, j, aCellStr);
OUStringBuffer aBuf(aStr);
aBuf.append(aCellStr);
aBuf.append(static_cast<sal_Unicode>(1));
aStr = aBuf.makeStringAndClear();
}
std::pair<StrSetType::iterator, bool> r = aStrSet.insert(aStr);
bool bIsUnique = r.second; // unique if inserted.
bResult = bIsUnique;
}
}
else
bResult = false;
if (aParam.bInplace)
{
if (bResult == bOldResult && bStarted)
nOldEnd = j;
else
{
if (bStarted)
DBShowRows(nOldStart,nOldEnd, bOldResult);
nOldStart = nOldEnd = j;
bOldResult = bResult;
}
bStarted = true;
}
else
{
if (bResult)
{
CopyData( aParam.nCol1,j, aParam.nCol2,j, aParam.nDestCol,nOutRow,aParam.nDestTab );
++nOutRow;
}
}
if (bResult)
++nCount;
}
if (aParam.bInplace && bStarted)
DBShowRows(nOldStart,nOldEnd, bOldResult);
if (aParam.bInplace)
SetDrawPageSize();
return nCount;
}
bool ScTable::CreateExcelQuery(SCCOL nCol1, SCROW nRow1, SCCOL nCol2, SCROW nRow2, ScQueryParam& rQueryParam)
{
bool bValid = true;
boost::scoped_array<SCCOL> pFields(new SCCOL[nCol2-nCol1+1]);
OUString aCellStr;
SCCOL nCol = nCol1;
OSL_ENSURE( rQueryParam.nTab != SCTAB_MAX, "rQueryParam.nTab no value, not bad but no good" );
SCTAB nDBTab = (rQueryParam.nTab == SCTAB_MAX ? nTab : rQueryParam.nTab);
SCROW nDBRow1 = rQueryParam.nRow1;
SCCOL nDBCol2 = rQueryParam.nCol2;
// Erste Zeile muessen Spaltenkoepfe sein
while (bValid && (nCol <= nCol2))
{
OUString aQueryStr;
GetUpperCellString(nCol, nRow1, aQueryStr);
bool bFound = false;
SCCOL i = rQueryParam.nCol1;
while (!bFound && (i <= nDBCol2))
{
if ( nTab == nDBTab )
GetUpperCellString(i, nDBRow1, aCellStr);
else
pDocument->GetUpperCellString(i, nDBRow1, nDBTab, aCellStr);
bFound = (aCellStr == aQueryStr);
if (!bFound) i++;
}
if (bFound)
pFields[nCol - nCol1] = i;
else
bValid = false;
nCol++;
}
if (bValid)
{
sal_uLong nVisible = 0;
for ( nCol=nCol1; nCol<=nCol2; nCol++ )
nVisible += aCol[nCol].VisibleCount( nRow1+1, nRow2 );
if ( nVisible > SCSIZE_MAX / sizeof(void*) )
{
OSL_FAIL("too many filter criteria");
nVisible = 0;
}
SCSIZE nNewEntries = nVisible;
rQueryParam.Resize( nNewEntries );
SCSIZE nIndex = 0;
SCROW nRow = nRow1 + 1;
svl::SharedStringPool& rPool = pDocument->GetSharedStringPool();
while (nRow <= nRow2)
{
nCol = nCol1;
while (nCol <= nCol2)
{
GetInputString( nCol, nRow, aCellStr );
if (!aCellStr.isEmpty())
{
if (nIndex < nNewEntries)
{
rQueryParam.GetEntry(nIndex).nField = pFields[nCol - nCol1];
rQueryParam.FillInExcelSyntax(rPool, aCellStr, nIndex);
nIndex++;
if (nIndex < nNewEntries)
rQueryParam.GetEntry(nIndex).eConnect = SC_AND;
}
else
bValid = false;
}
nCol++;
}
nRow++;
if (nIndex < nNewEntries)
rQueryParam.GetEntry(nIndex).eConnect = SC_OR;
}
}
return bValid;
}
bool ScTable::CreateStarQuery(SCCOL nCol1, SCROW nRow1, SCCOL nCol2, SCROW nRow2, ScQueryParam& rQueryParam)
{
// A valid StarQuery must be at least 4 columns wide. To be precise it
// should be exactly 4 columns ...
// Additionally, if this wasn't checked, a formula pointing to a valid 1-3
// column Excel style query range immediately left to itself would result
// in a circular reference when the field name or operator or value (first
// to third query range column) is obtained (#i58354#). Furthermore, if the
// range wasn't sufficiently specified data changes wouldn't flag formula
// cells for recalculation.
if (nCol2 - nCol1 < 3)
return false;
bool bValid;
bool bFound;
OUString aCellStr;
SCSIZE nIndex = 0;
SCROW nRow = nRow1;
OSL_ENSURE( rQueryParam.nTab != SCTAB_MAX, "rQueryParam.nTab no value, not bad but no good" );
SCTAB nDBTab = (rQueryParam.nTab == SCTAB_MAX ? nTab : rQueryParam.nTab);
SCROW nDBRow1 = rQueryParam.nRow1;
SCCOL nDBCol2 = rQueryParam.nCol2;
SCSIZE nNewEntries = static_cast<SCSIZE>(nRow2-nRow1+1);
rQueryParam.Resize( nNewEntries );
svl::SharedStringPool& rPool = pDocument->GetSharedStringPool();
do
{
ScQueryEntry& rEntry = rQueryParam.GetEntry(nIndex);
bValid = false;
// Erste Spalte UND/ODER
if (nIndex > 0)
{
GetUpperCellString(nCol1, nRow, aCellStr);
if ( aCellStr == ScGlobal::GetRscString(STR_TABLE_UND) )
{
rEntry.eConnect = SC_AND;
bValid = true;
}
else if ( aCellStr == ScGlobal::GetRscString(STR_TABLE_ODER) )
{
rEntry.eConnect = SC_OR;
bValid = true;
}
}
// Zweite Spalte FeldName
if ((nIndex < 1) || bValid)
{
bFound = false;
GetUpperCellString(nCol1 + 1, nRow, aCellStr);
for (SCCOL i=rQueryParam.nCol1; (i <= nDBCol2) && (!bFound); i++)
{
OUString aFieldStr;
if ( nTab == nDBTab )
GetUpperCellString(i, nDBRow1, aFieldStr);
else
pDocument->GetUpperCellString(i, nDBRow1, nDBTab, aFieldStr);
bFound = (aCellStr == aFieldStr);
if (bFound)
{
rEntry.nField = i;
bValid = true;
}
else
bValid = false;
}
}
// Dritte Spalte Operator =<>...
if (bValid)
{
bFound = false;
GetUpperCellString(nCol1 + 2, nRow, aCellStr);
if (aCellStr.startsWith("<"))
{
if (aCellStr[1] == '>')
rEntry.eOp = SC_NOT_EQUAL;
else if (aCellStr[1] == '=')
rEntry.eOp = SC_LESS_EQUAL;
else
rEntry.eOp = SC_LESS;
}
else if (aCellStr.startsWith(">"))
{
if (aCellStr[1] == '=')
rEntry.eOp = SC_GREATER_EQUAL;
else
rEntry.eOp = SC_GREATER;
}
else if (aCellStr.startsWith("="))
rEntry.eOp = SC_EQUAL;
}
// Vierte Spalte Wert
if (bValid)
{
OUString aStr;
GetString(nCol1 + 3, nRow, aStr);
rEntry.GetQueryItem().maString = rPool.intern(aStr);
rEntry.bDoQuery = true;
}
nIndex++;
nRow++;
}
while (bValid && (nRow <= nRow2) /* && (nIndex < MAXQUERY) */ );
return bValid;
}
bool ScTable::CreateQueryParam(SCCOL nCol1, SCROW nRow1, SCCOL nCol2, SCROW nRow2, ScQueryParam& rQueryParam)
{
SCSIZE i, nCount;
PutInOrder(nCol1, nCol2);
PutInOrder(nRow1, nRow2);
nCount = rQueryParam.GetEntryCount();
for (i=0; i < nCount; i++)
rQueryParam.GetEntry(i).Clear();
// Standard QueryTabelle
bool bValid = CreateStarQuery(nCol1, nRow1, nCol2, nRow2, rQueryParam);
// Excel QueryTabelle
if (!bValid)
bValid = CreateExcelQuery(nCol1, nRow1, nCol2, nRow2, rQueryParam);
nCount = rQueryParam.GetEntryCount();
if (bValid)
{
// bQueryByString muss gesetzt sein
for (i=0; i < nCount; i++)
rQueryParam.GetEntry(i).GetQueryItem().meType = ScQueryEntry::ByString;
}
else
{
// nix
for (i=0; i < nCount; i++)
rQueryParam.GetEntry(i).Clear();
}
return bValid;
}
bool ScTable::HasColHeader( SCCOL nStartCol, SCROW nStartRow, SCCOL nEndCol, SCROW /* nEndRow */ ) const
{
for (SCCOL nCol=nStartCol; nCol<=nEndCol; nCol++)
{
CellType eType = GetCellType( nCol, nStartRow );
if (eType != CELLTYPE_STRING && eType != CELLTYPE_EDIT)
return false;
}
return true;
}
bool ScTable::HasRowHeader( SCCOL nStartCol, SCROW nStartRow, SCCOL /* nEndCol */, SCROW nEndRow ) const
{
for (SCROW nRow=nStartRow; nRow<=nEndRow; nRow++)
{
CellType eType = GetCellType( nStartCol, nRow );
if (eType != CELLTYPE_STRING && eType != CELLTYPE_EDIT)
return false;
}
return true;
}
void ScTable::GetFilterEntries(SCCOL nCol, SCROW nRow1, SCROW nRow2, std::vector<ScTypedStrData>& rStrings, bool& rHasDates)
{
sc::ColumnBlockConstPosition aBlockPos;
aCol[nCol].InitBlockPosition(aBlockPos);
aCol[nCol].GetFilterEntries(aBlockPos, nRow1, nRow2, rStrings, rHasDates);
}
void ScTable::GetFilteredFilterEntries(
SCCOL nCol, SCROW nRow1, SCROW nRow2, const ScQueryParam& rParam, std::vector<ScTypedStrData>& rStrings, bool& rHasDates)
{
sc::ColumnBlockConstPosition aBlockPos;
aCol[nCol].InitBlockPosition(aBlockPos);
// remove the entry for this column from the query parameter
ScQueryParam aParam( rParam );
aParam.RemoveEntryByField(nCol);
lcl_PrepareQuery(pDocument, this, aParam);
bool bHasDates = false;
for ( SCROW j = nRow1; j <= nRow2; ++j )
{
if (ValidQuery(j, aParam))
{
bool bThisHasDates = false;
aCol[nCol].GetFilterEntries(aBlockPos, j, j, rStrings, bThisHasDates);
bHasDates |= bThisHasDates;
}
}
rHasDates = bHasDates;
}
bool ScTable::GetDataEntries(SCCOL nCol, SCROW nRow, std::set<ScTypedStrData>& rStrings, bool bLimit)
{
return aCol[nCol].GetDataEntries( nRow, rStrings, bLimit );
}
sal_uLong ScTable::GetCellCount() const
{
sal_uLong nCellCount = 0;
for ( SCCOL nCol=0; nCol<=MAXCOL; nCol++ )
nCellCount += aCol[nCol].GetCellCount();
return nCellCount;
}
sal_uLong ScTable::GetWeightedCount() const
{
sal_uLong nCellCount = 0;
for ( SCCOL nCol=0; nCol<=MAXCOL; nCol++ )
if ( aCol[nCol].GetCellCount() ) // GetCellCount ist inline
nCellCount += aCol[nCol].GetWeightedCount();
return nCellCount;
}
sal_uLong ScTable::GetCodeCount() const
{
sal_uLong nCodeCount = 0;
for ( SCCOL nCol=0; nCol<=MAXCOL; nCol++ )
if ( aCol[nCol].GetCellCount() ) // GetCellCount ist inline
nCodeCount += aCol[nCol].GetCodeCount();
return nCodeCount;
}
sal_Int32 ScTable::GetMaxStringLen( SCCOL nCol, SCROW nRowStart,
SCROW nRowEnd, rtl_TextEncoding eCharSet ) const
{
if ( ValidCol(nCol) )
return aCol[nCol].GetMaxStringLen( nRowStart, nRowEnd, eCharSet );
else
return 0;
}
sal_Int32 ScTable::GetMaxNumberStringLen(
sal_uInt16& nPrecision, SCCOL nCol, SCROW nRowStart, SCROW nRowEnd ) const
{
if ( ValidCol(nCol) )
return aCol[nCol].GetMaxNumberStringLen( nPrecision, nRowStart, nRowEnd );
else
return 0;
}
void ScTable::UpdateSelectionFunction( ScFunctionData& rData, const ScMarkData& rMark )
{
ScRangeList aRanges = rMark.GetMarkedRanges();
for (SCCOL nCol = 0; nCol <= MAXCOL && !rData.bError; ++nCol)
{
if (pColFlags && ColHidden(nCol))
continue;
aCol[nCol].UpdateSelectionFunction(aRanges, rData, *mpHiddenRows);
}
}
/* vim:set shiftwidth=4 softtabstop=4 expandtab: */