InternalData.cxx

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/* -*- 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 <InternalData.hxx>
#include <ResId.hxx>
#include <strings.hrc>
 
#include <comphelper/sequence.hxx>
#include <o3tl/safeint.hxx>
#include <osl/diagnose.h>
 
#ifdef DEBUG_CHART2_TOOLS
#define DEBUG_INTERNAL_DATA 1
#endif
 
#ifdef DEBUG_INTERNAL_DATA
#include <svl/gridprinter.hxx>
#endif
 
#include <algorithm>
#include <iterator>
#include <limits>
 
using ::com::sun::star::uno::Sequence;
 
using namespace ::com::sun::star;
 
namespace chart
{
 
namespace
{
struct lcl_NumberedStringGenerator
{
    lcl_NumberedStringGenerator( const OUString & rStub, std::u16string_view rWildcard ) :
            m_aStub( rStub ),
            m_nCounter( 0 ),
            m_nStubStartIndex( rStub.indexOf( rWildcard )),
            m_nWildcardLength( rWildcard.size())
    {
    }
    std::vector< uno::Any > operator()()
    {
        return { uno::Any(m_aStub.replaceAt( m_nStubStartIndex, m_nWildcardLength, OUString::number( ++m_nCounter ))) };
    }
private:
    OUString m_aStub;
    sal_Int32 m_nCounter;
    const sal_Int32 m_nStubStartIndex;
    const sal_Int32 m_nWildcardLength;
};
 
template< typename T >
    Sequence< T > lcl_ValarrayToSequence( const std::valarray< T > & rValarray )
{
#if defined __GLIBCXX__ && (!defined _GLIBCXX_RELEASE || _GLIBCXX_RELEASE < 12)
    // workaround for https://gcc.gnu.org/bugzilla/show_bug.cgi?id=103022
    if (!size(rValarray))
        return Sequence<T>();
#endif
 
    return comphelper::containerToSequence(rValarray);
}
 
} // anonymous namespace
 
InternalData::InternalData()
    : m_nColumnCount( 0 )
    , m_nRowCount( 0 )
    , m_aRowLabels( 0 )
    , m_aColumnLabels( 0 )
{}
 
const double fDefaultData[] = {
    9.10, 3.20, 4.54,
    2.40, 8.80, 9.65,
    3.10, 1.50, 3.70,
    4.30, 9.02, 6.20
};
 
void InternalData::createDefaultData()
{
    const sal_Int32 nRowCount = 4;
    const sal_Int32 nColumnCount = 3;
 
    m_nRowCount = nRowCount;
    m_nColumnCount = nColumnCount;
    const sal_Int32 nSize = nColumnCount * nRowCount;
    // @todo: localize this!
    const OUString aRowName(SchResId(STR_ROW_LABEL));
    const OUString aColName(SchResId(STR_COLUMN_LABEL));
 
    m_aData.resize( nSize );
    for( sal_Int32 i=0; i<nSize; ++i )
        m_aData[i] = fDefaultData[i];
 
    m_aRowLabels.clear();
    m_aRowLabels.reserve( m_nRowCount );
    generate_n( back_inserter( m_aRowLabels ), m_nRowCount,
        lcl_NumberedStringGenerator( aRowName, u"%ROWNUMBER" ));
 
    m_aColumnLabels.clear();
    m_aColumnLabels.reserve( m_nColumnCount );
    generate_n( back_inserter( m_aColumnLabels ), m_nColumnCount,
        lcl_NumberedStringGenerator( aColName, u"%COLUMNNUMBER" ));
}
 
void InternalData::setData( const Sequence< Sequence< double > >& rDataInRows )
{
    m_nRowCount = rDataInRows.getLength();
    m_nColumnCount = (m_nRowCount ? rDataInRows[0].getLength() : 0);
 
    if( m_aRowLabels.size() != static_cast< sal_uInt32 >( m_nRowCount ))
        m_aRowLabels.resize( m_nRowCount );
    if( m_aColumnLabels.size() != static_cast< sal_uInt32 >( m_nColumnCount ))
        m_aColumnLabels.resize( m_nColumnCount );
 
    m_aData.resize( m_nRowCount * m_nColumnCount );
    // set all values to Nan
    m_aData = std::numeric_limits<double>::quiet_NaN();
 
    for( sal_Int32 nRow=0; nRow<m_nRowCount; ++nRow )
    {
        int nDataIdx = nRow*m_nColumnCount;
        const sal_Int32 nMax = std::min( rDataInRows[nRow].getLength(), m_nColumnCount );
        for( sal_Int32 nCol=0; nCol < nMax; ++nCol )
        {
            m_aData[nDataIdx] = rDataInRows[nRow][nCol];
            nDataIdx += 1;
        }
    }
}
 
Sequence< Sequence< double > > InternalData::getData() const
{
    Sequence< Sequence< double > > aResult( m_nRowCount );
    auto aResultRange = asNonConstRange(aResult);
 
    for( sal_Int32 i=0; i<m_nRowCount; ++i )
        aResultRange[i] = lcl_ValarrayToSequence< tDataType::value_type >(
            m_aData[ std::slice( i*m_nColumnCount, m_nColumnCount, 1 ) ] );
 
    return aResult;
}
 
Sequence< double > InternalData::getColumnValues( sal_Int32 nColumnIndex ) const
{
    if( nColumnIndex >= 0 && nColumnIndex < m_nColumnCount )
        return lcl_ValarrayToSequence< tDataType::value_type >(
            m_aData[ std::slice( nColumnIndex, m_nRowCount, m_nColumnCount ) ] );
    return Sequence< double >();
}
Sequence< double > InternalData::getRowValues( sal_Int32 nRowIndex ) const
{
    if( nRowIndex >= 0 && nRowIndex < m_nRowCount )
        return lcl_ValarrayToSequence< tDataType::value_type >(
            m_aData[ std::slice( nRowIndex*m_nColumnCount, m_nColumnCount, 1 ) ] );
    return Sequence< double >();
}
 
void InternalData::setColumnValues( sal_Int32 nColumnIndex, const std::vector< double > & rNewData )
{
    if( nColumnIndex < 0 )
        return;
    enlargeData( nColumnIndex + 1, rNewData.size() );
 
    tDataType aSlice = m_aData[ std::slice( nColumnIndex, m_nRowCount, m_nColumnCount ) ];
    for( std::vector< double >::size_type i = 0; i < rNewData.size(); ++i )
        aSlice[i] = rNewData[i];
    m_aData[ std::slice( nColumnIndex, m_nRowCount, m_nColumnCount ) ] = aSlice;
}
 
void InternalData::setRowValues( sal_Int32 nRowIndex, const std::vector< double > & rNewData )
{
    if( nRowIndex < 0 )
        return;
    enlargeData( rNewData.size(), nRowIndex+1 );
 
    tDataType aSlice = m_aData[ std::slice( nRowIndex*m_nColumnCount, m_nColumnCount, 1 ) ];
    for( std::vector< double >::size_type i = 0; i < rNewData.size(); ++i )
        aSlice[i] = rNewData[i];
    m_aData[ std::slice( nRowIndex*m_nColumnCount, m_nColumnCount, 1 ) ]= aSlice;
}
 
void InternalData::setComplexColumnLabel( sal_Int32 nColumnIndex, std::vector< uno::Any >&& rComplexLabel )
{
    if( nColumnIndex < 0 )
        return;
    if( o3tl::make_unsigned(nColumnIndex) >= m_aColumnLabels.size() )
    {
        m_aColumnLabels.resize(nColumnIndex+1);
        enlargeData( nColumnIndex+1, 0 );
    }
    m_aColumnLabels[nColumnIndex] = std::move(rComplexLabel);
 
    dump();
}
 
void InternalData::setComplexRowLabel( sal_Int32 nRowIndex, std::vector< uno::Any >&& rComplexLabel )
{
    if( nRowIndex < 0 )
        return;
    if( o3tl::make_unsigned(nRowIndex) >= m_aRowLabels.size() )
    {
        m_aRowLabels.resize(nRowIndex+1);
        enlargeData( 0, nRowIndex+1 );
    }
    sal_Int32 nSize = static_cast<sal_Int32>( m_aRowLabels[nRowIndex].size() );
    if( nSize >= 1 && !rComplexLabel.empty() )
    {
        m_aRowLabels[nRowIndex].resize(nSize+1);
        m_aRowLabels[nRowIndex][nSize] = rComplexLabel[0];
    }
    else
    {
        m_aRowLabels[nRowIndex] = std::move(rComplexLabel);
    }
}
 
std::vector< uno::Any > InternalData::getComplexColumnLabel( sal_Int32 nColumnIndex ) const
{
    if( nColumnIndex < static_cast< sal_Int32 >( m_aColumnLabels.size() ) )
        return m_aColumnLabels[nColumnIndex];
    else
        return std::vector< uno::Any >();
}
std::vector< uno::Any > InternalData::getComplexRowLabel( sal_Int32 nRowIndex ) const
{
    if( nRowIndex < static_cast< sal_Int32 >( m_aRowLabels.size() ) )
        return m_aRowLabels[nRowIndex];
    else
        return std::vector< uno::Any >();
}
 
void InternalData::swapRowWithNext( sal_Int32 nRowIndex )
{
    if( nRowIndex >= m_nRowCount - 1 )
        return;
 
    const sal_Int32 nMax = m_nColumnCount;
    for( sal_Int32 nColIdx=0; nColIdx<nMax; ++nColIdx )
    {
        size_t nIndex1 = nColIdx + nRowIndex*m_nColumnCount;
        size_t nIndex2 = nIndex1 + m_nColumnCount;
        std::swap(m_aData[nIndex1], m_aData[nIndex2]);
    }
 
    std::vector< uno::Any > aTemp( m_aRowLabels[nRowIndex] );
    m_aRowLabels[nRowIndex] = m_aRowLabels[nRowIndex + 1];
    m_aRowLabels[nRowIndex + 1] = aTemp;
}
 
void InternalData::swapColumnWithNext( sal_Int32 nColumnIndex )
{
    if( nColumnIndex >= m_nColumnCount - 1 )
        return;
 
    const sal_Int32 nMax = m_nRowCount;
    for( sal_Int32 nRowIdx=0; nRowIdx<nMax; ++nRowIdx )
    {
        size_t nIndex1 = nColumnIndex + nRowIdx*m_nColumnCount;
        size_t nIndex2 = nIndex1 + 1;
        std::swap(m_aData[nIndex1], m_aData[nIndex2]);
    }
 
    std::vector< uno::Any > aTemp( m_aColumnLabels[nColumnIndex] );
    m_aColumnLabels[nColumnIndex] = m_aColumnLabels[nColumnIndex + 1];
    m_aColumnLabels[nColumnIndex + 1] = aTemp;
}
 
bool InternalData::enlargeData( sal_Int32 nColumnCount, sal_Int32 nRowCount )
{
    sal_Int32 nNewColumnCount( std::max<sal_Int32>( m_nColumnCount, nColumnCount ) );
    sal_Int32 nNewRowCount( std::max<sal_Int32>( m_nRowCount, nRowCount ) );
    sal_Int32 nNewSize( nNewColumnCount*nNewRowCount );
 
    bool bGrow = (nNewSize > m_nColumnCount*m_nRowCount);
 
    if( bGrow )
    {
        tDataType aNewData( std::numeric_limits<double>::quiet_NaN(), nNewSize );
        // copy old data
        for( int nCol=0; nCol<m_nColumnCount; ++nCol )
            static_cast< tDataType >(
                aNewData[ std::slice( nCol, m_nRowCount, nNewColumnCount ) ] ) =
                m_aData[ std::slice( nCol, m_nRowCount, m_nColumnCount ) ];
 
        m_aData.resize( nNewSize );
        m_aData = aNewData;
    }
    m_nColumnCount = nNewColumnCount;
    m_nRowCount = nNewRowCount;
    return bGrow;
}
 
void InternalData::insertColumn( sal_Int32 nAfterIndex )
{
    // note: -1 is allowed, as we insert after the given index
    OSL_ASSERT( nAfterIndex < m_nColumnCount && nAfterIndex >= -1 );
    if( nAfterIndex >= m_nColumnCount || nAfterIndex < -1 )
        return;
    sal_Int32 nNewColumnCount = m_nColumnCount + 1;
    sal_Int32 nNewSize( nNewColumnCount * m_nRowCount );
 
    tDataType aNewData( std::numeric_limits<double>::quiet_NaN(), nNewSize );
 
    // copy old data
    int nCol=0;
    for( ; nCol<=nAfterIndex; ++nCol )
        aNewData[ std::slice( nCol, m_nRowCount, nNewColumnCount ) ] =
            static_cast< tDataType >(
                m_aData[ std::slice( nCol, m_nRowCount, m_nColumnCount ) ] );
    for( ++nCol; nCol<nNewColumnCount; ++nCol )
        aNewData[ std::slice( nCol, m_nRowCount, nNewColumnCount ) ] =
            static_cast< tDataType >(
                m_aData[ std::slice( nCol - 1, m_nRowCount, m_nColumnCount ) ] );
 
    m_nColumnCount = nNewColumnCount;
    m_aData.resize( nNewSize );
    m_aData = aNewData;
 
    // labels
    if( nAfterIndex < static_cast< sal_Int32 >( m_aColumnLabels.size()))
        m_aColumnLabels.insert( m_aColumnLabels.begin() + (nAfterIndex + 1), std::vector< uno::Any >(1) );
 
    dump();
}
 
sal_Int32 InternalData::appendColumn()
{
    insertColumn( getColumnCount() - 1 );
    return getColumnCount() - 1;
}
 
sal_Int32 InternalData::appendRow()
{
    insertRow( getRowCount() - 1 );
    return getRowCount() - 1;
}
 
sal_Int32 InternalData::getRowCount() const
{
    return m_nRowCount;
}
 
sal_Int32 InternalData::getColumnCount() const
{
    return m_nColumnCount;
}
 
void InternalData::insertRow( sal_Int32 nAfterIndex )
{
    // note: -1 is allowed, as we insert after the given index
    OSL_ASSERT( nAfterIndex < m_nRowCount && nAfterIndex >= -1 );
    if( nAfterIndex >= m_nRowCount || nAfterIndex < -1 )
        return;
    sal_Int32 nNewRowCount = m_nRowCount + 1;
    sal_Int32 nNewSize( m_nColumnCount * nNewRowCount );
 
    tDataType aNewData( std::numeric_limits<double>::quiet_NaN(), nNewSize );
 
    // copy old data
    sal_Int32 nIndex = nAfterIndex + 1;
    aNewData[ std::slice( 0, nIndex * m_nColumnCount, 1 ) ] =
        static_cast< tDataType >(
            m_aData[ std::slice( 0, nIndex * m_nColumnCount, 1 ) ] );
 
    if( nIndex < m_nRowCount )
    {
        sal_Int32 nRemainingCount = m_nColumnCount * (m_nRowCount - nIndex);
        aNewData[ std::slice( (nIndex + 1) * m_nColumnCount, nRemainingCount, 1 ) ] =
            static_cast< tDataType >(
                m_aData[ std::slice( nIndex * m_nColumnCount, nRemainingCount, 1 ) ] );
    }
 
    m_nRowCount = nNewRowCount;
    m_aData.resize( nNewSize );
    m_aData = aNewData;
 
    // labels
    if( nAfterIndex < static_cast< sal_Int32 >( m_aRowLabels.size()))
        m_aRowLabels.insert( m_aRowLabels.begin() + nIndex, std::vector< uno::Any > (1));
 
    dump();
}
 
void InternalData::deleteColumn( sal_Int32 nAtIndex )
{
    OSL_ASSERT( nAtIndex < m_nColumnCount && nAtIndex >= 0 );
    if( nAtIndex >= m_nColumnCount || m_nColumnCount < 1 || nAtIndex < 0 )
        return;
    sal_Int32 nNewColumnCount = m_nColumnCount - 1;
    sal_Int32 nNewSize( nNewColumnCount * m_nRowCount );
 
    tDataType aNewData( std::numeric_limits<double>::quiet_NaN(), nNewSize );
 
    // copy old data
    int nCol=0;
    for( ; nCol<nAtIndex; ++nCol )
        aNewData[ std::slice( nCol, m_nRowCount, nNewColumnCount ) ] =
            static_cast< tDataType >(
                m_aData[ std::slice( nCol, m_nRowCount, m_nColumnCount ) ] );
    for( ; nCol<nNewColumnCount; ++nCol )
        aNewData[ std::slice( nCol, m_nRowCount, nNewColumnCount ) ] =
            static_cast< tDataType >(
                m_aData[ std::slice( nCol + 1, m_nRowCount, m_nColumnCount ) ] );
 
    m_nColumnCount = nNewColumnCount;
    m_aData.resize( nNewSize );
    m_aData = aNewData;
 
    // labels
    if( nAtIndex < static_cast< sal_Int32 >( m_aColumnLabels.size()))
        m_aColumnLabels.erase( m_aColumnLabels.begin() + nAtIndex );
 
    dump();
}
 
void InternalData::deleteRow( sal_Int32 nAtIndex )
{
    OSL_ASSERT( nAtIndex < m_nRowCount && nAtIndex >= 0 );
    if( nAtIndex >= m_nRowCount || m_nRowCount < 1 || nAtIndex < 0 )
        return;
    sal_Int32 nNewRowCount = m_nRowCount - 1;
    sal_Int32 nNewSize( m_nColumnCount * nNewRowCount );
 
    tDataType aNewData( std::numeric_limits<double>::quiet_NaN(), nNewSize );
 
    // copy old data
    sal_Int32 nIndex = nAtIndex;
    if( nIndex )
        aNewData[ std::slice( 0, nIndex * m_nColumnCount, 1 ) ] =
            static_cast< tDataType >(
                m_aData[ std::slice( 0, nIndex * m_nColumnCount, 1 ) ] );
 
    if( nIndex < nNewRowCount )
    {
        sal_Int32 nRemainingCount = m_nColumnCount * (nNewRowCount - nIndex);
        aNewData[ std::slice( nIndex * m_nColumnCount, nRemainingCount, 1 ) ] =
            static_cast< tDataType >(
                m_aData[ std::slice( (nIndex + 1) * m_nColumnCount, nRemainingCount, 1 ) ] );
    }
 
    m_nRowCount = nNewRowCount;
    m_aData.resize( nNewSize );
    m_aData = aNewData;
 
    // labels
    if( nAtIndex < static_cast< sal_Int32 >( m_aRowLabels.size()))
        m_aRowLabels.erase( m_aRowLabels.begin() + nAtIndex );
 
    dump();
}
 
void InternalData::setComplexRowLabels( tVecVecAny&& rNewRowLabels )
{
    m_aRowLabels = std::move(rNewRowLabels);
    sal_Int32 nNewRowCount = static_cast< sal_Int32 >( m_aRowLabels.size() );
    if( nNewRowCount < m_nRowCount )
        m_aRowLabels.resize( m_nRowCount );
    else
        enlargeData( 0, nNewRowCount );
}
 
const InternalData::tVecVecAny& InternalData::getComplexRowLabels() const
{
    return m_aRowLabels;
}
 
void InternalData::setComplexColumnLabels( tVecVecAny&& rNewColumnLabels )
{
    m_aColumnLabels = std::move(rNewColumnLabels);
    sal_Int32 nNewColumnCount = static_cast< sal_Int32 >( m_aColumnLabels.size() );
    if( nNewColumnCount < m_nColumnCount )
        m_aColumnLabels.resize( m_nColumnCount );
    else
        enlargeData( nNewColumnCount, 0 );
}
 
const InternalData::tVecVecAny& InternalData::getComplexColumnLabels() const
{
    return m_aColumnLabels;
}
 
#ifdef DEBUG_INTERNAL_DATA
void InternalData::dump() const
{
    // Header
    if (!m_aColumnLabels.empty())
    {
        svl::GridPrinter aPrinter(m_aColumnLabels[0].size(), m_aColumnLabels.size(), true);
        for (size_t nCol = 0; nCol < m_aColumnLabels.size(); ++nCol)
        {
            for (size_t nRow = 0; nRow < m_aColumnLabels[nCol].size(); ++nRow)
            {
                OUString aStr;
                if (m_aColumnLabels[nCol].at(nRow) >>= aStr)
                    aPrinter.set(nRow, nCol, aStr);
            }
        }
        aPrinter.print("Header");
    }
 
    if (!m_aRowLabels.empty())
    {
        svl::GridPrinter aPrinter(m_aRowLabels.size(), m_aRowLabels[0].size(), true);
        for (size_t nRow = 0; nRow < m_aRowLabels.size(); ++nRow)
        {
            for (size_t nCol = 0; nCol < m_aRowLabels[nRow].size(); ++nCol)
            {
                OUString aStr;
                if (m_aRowLabels[nRow].at(nCol) >>= aStr)
                    aPrinter.set(nRow, nCol, aStr);
            }
        }
        aPrinter.print("Row labels");
    }
 
    svl::GridPrinter aPrinter(m_nRowCount, m_nColumnCount, true);
 
    for (sal_Int32 nRow = 0; nRow < m_nRowCount; ++nRow)
    {
        tDataType aSlice( m_aData[ std::slice( nRow*m_nColumnCount, m_nColumnCount, 1 ) ] );
        for (sal_Int32 nCol = 0; nCol < m_nColumnCount; ++nCol)
            aPrinter.set(nRow, nCol, OUString::number(aSlice[nCol]));
    }
 
    aPrinter.print("Column data");
}
#else
void InternalData::dump() const {}
#endif
 
} //  namespace chart
 
/* vim:set shiftwidth=4 softtabstop=4 expandtab: */