/* -*- 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 <oox/dump/dumperbase.hxx>
#include <algorithm>
#include <string_view>
#include <com/sun/star/lang/XMultiServiceFactory.hpp>
#include <com/sun/star/io/TextOutputStream.hpp>
#include <com/sun/star/ucb/SimpleFileAccess.hpp>
#include <osl/file.hxx>
#include <rtl/math.hxx>
#include <rtl/tencinfo.h>
#include <oox/core/filterbase.hxx>
#include <oox/helper/binaryoutputstream.hxx>
#include <oox/helper/textinputstream.hxx>
#include <tools/time.hxx>
#include <o3tl/string_view.hxx>
#include <o3tl/numeric.hxx>
#include <utility>
#ifdef DBG_UTIL
namespace oox::dump {
using namespace ::com::sun::star;
using namespace ::com::sun::star::io;
using namespace ::com::sun::star::ucb;
using namespace ::com::sun::star::uno;
using ::oox::core::FilterBase;
namespace {
const sal_Unicode OOX_DUMP_BOM = 0 xFEFF;
const sal_Int32 OOX_DUMP_MAXSTRLEN = 80 ;
const sal_Int32 OOX_DUMP_INDENT = 2 ;
const sal_Unicode OOX_DUMP_BINDOT = '.' ;
const sal_Unicode OOX_DUMP_CFG_LISTSEP = ',' ;
const sal_Unicode OOX_DUMP_CFG_QUOTE = '\' ';
const sal_Unicode OOX_DUMP_LF = '\n' ;
const sal_Unicode OOX_DUMP_ITEMSEP = '=' ;
const sal_Int32 OOX_DUMP_BYTESPERLINE = 16 ;
const sal_Int64 OOX_DUMP_MAXARRAY = 16 ;
} // namespace
// file names -----------------------------------------------------------------
OUString InputOutputHelper::convertFileNameToUrl( const OUString& rFileName )
{
OUString aFileUrl;
if ( ::osl::FileBase::getFileURLFromSystemPath( rFileName, aFileUrl ) == ::osl::FileBase::E_None )
return aFileUrl;
return OUString();
}
sal_Int32 InputOutputHelper::getFileNamePos( std::u16string_view rFileUrl )
{
size_t nSepPos = rFileUrl.find( '/' );
return (nSepPos == std::u16string_view::npos) ? 0 : (nSepPos + 1 );
}
std::u16string_view InputOutputHelper::getFileNameExtension( std::u16string_view rFileUrl )
{
sal_Int32 nNamePos = getFileNamePos( rFileUrl );
size_t nExtPos = rFileUrl.rfind( '.' );
if ( nExtPos != std::u16string_view::npos && static_cast <sal_Int32>(nExtPos) >= nNamePos )
return rFileUrl.substr( nExtPos + 1 );
return std::u16string_view();
}
// input streams --------------------------------------------------------------
Reference< XInputStream > InputOutputHelper::openInputStream(
const Reference< XComponentContext >& rxContext, const OUString& rFileName )
{
Reference< XInputStream > xInStrm;
if ( rxContext.is() ) try
{
Reference<XSimpleFileAccess3> xFileAccess(SimpleFileAccess::create(rxContext));
xInStrm = xFileAccess->openFileRead( rFileName );
}
catch ( Exception& )
{
}
return xInStrm;
}
// output streams -------------------------------------------------------------
Reference< XOutputStream > InputOutputHelper::openOutputStream(
const Reference< XComponentContext >& rxContext, const OUString& rFileName )
{
Reference< XOutputStream > xOutStrm;
if ( rxContext.is() ) try
{
Reference<XSimpleFileAccess3> xFileAccess(SimpleFileAccess::create(rxContext));
xOutStrm = xFileAccess->openFileWrite( rFileName );
}
catch ( Exception& )
{
}
return xOutStrm;
}
Reference< XTextOutputStream2 > InputOutputHelper::openTextOutputStream(
const Reference< XComponentContext >& rxContext, const Reference< XOutputStream >& rxOutStrm, rtl_TextEncoding eTextEnc )
{
Reference< XTextOutputStream2 > xTextOutStrm;
const char * pcCharset = rtl_getMimeCharsetFromTextEncoding( eTextEnc );
if ( rxContext.is() && rxOutStrm.is() && pcCharset ) try
{
xTextOutStrm = TextOutputStream::create(rxContext);
xTextOutStrm->setOutputStream( rxOutStrm );
xTextOutStrm->setEncoding( OUString::createFromAscii( pcCharset ) );
}
catch ( Exception& )
{
}
return xTextOutStrm;
}
Reference< XTextOutputStream2 > InputOutputHelper::openTextOutputStream(
const Reference< XComponentContext >& rxContext, const OUString& rFileName, rtl_TextEncoding eTextEnc )
{
return openTextOutputStream( rxContext, openOutputStream( rxContext, rFileName ), eTextEnc );
}
ItemFormat::ItemFormat() :
meDataType( DATATYPE_VOID ),
meFmtType( FORMATTYPE_NONE )
{
}
void ItemFormat::set( DataType eDataType, FormatType eFmtType, const OUString& rItemName )
{
meDataType = eDataType;
meFmtType = eFmtType;
maItemName = rItemName;
maListName.clear();
}
OUStringVector::const_iterator ItemFormat::parse( const OUStringVector& rFormatVec )
{
set( DATATYPE_VOID, FORMATTYPE_NONE, OUString() );
OUStringVector::const_iterator aIt = rFormatVec.begin(), aEnd = rFormatVec.end();
OUString aDataType, aFmtType;
if ( aIt != aEnd ) aDataType = *aIt++;
if ( aIt != aEnd ) aFmtType = *aIt++;
if ( aIt != aEnd ) maItemName = *aIt++;
if ( aIt != aEnd ) maListName = *aIt++;
meDataType = StringHelper::convertToDataType( aDataType );
meFmtType = StringHelper::convertToFormatType( aFmtType );
if ( meFmtType == FORMATTYPE_NONE )
{
if ( aFmtType == "unused" )
set( meDataType, FORMATTYPE_HEX, OOX_DUMP_UNUSED );
else if ( aFmtType == "unknown" )
set( meDataType, FORMATTYPE_HEX, OOX_DUMP_UNKNOWN );
}
return aIt;
}
OUStringVector ItemFormat::parse( std::u16string_view rFormatStr )
{
OUStringVector aFormatVec;
StringHelper::convertStringToStringList( aFormatVec, rFormatStr, false );
OUStringVector::const_iterator aIt = parse( aFormatVec );
return OUStringVector( aIt, const_cast < const OUStringVector& >( aFormatVec ).end() );
}
// append string to string ----------------------------------------------------
void StringHelper::appendChar( OUStringBuffer& rStr, sal_Unicode cChar, sal_Int32 nCount )
{
for ( sal_Int32 nIndex = 0 ; nIndex < nCount; ++nIndex )
rStr.append( cChar );
}
void StringHelper::appendString( OUStringBuffer& rStr, std::u16string_view rData, sal_Int32 nWidth, sal_Unicode cFill )
{
appendChar( rStr, cFill, nWidth - rData.size() );
rStr.append( rData );
}
// append decimal -------------------------------------------------------------
void StringHelper::appendDec( OUStringBuffer& rStr, sal_uInt8 nData, sal_Int32 nWidth, sal_Unicode cFill )
{
appendString( rStr, OUString::number( nData ), nWidth, cFill );
}
void StringHelper::appendDec( OUStringBuffer& rStr, sal_Int8 nData, sal_Int32 nWidth, sal_Unicode cFill )
{
appendString( rStr, OUString::number( nData ), nWidth, cFill );
}
void StringHelper::appendDec( OUStringBuffer& rStr, sal_uInt16 nData, sal_Int32 nWidth, sal_Unicode cFill )
{
appendString( rStr, OUString::number( nData ), nWidth, cFill );
}
void StringHelper::appendDec( OUStringBuffer& rStr, sal_Int16 nData, sal_Int32 nWidth, sal_Unicode cFill )
{
appendString( rStr, OUString::number( nData ), nWidth, cFill );
}
void StringHelper::appendDec( OUStringBuffer& rStr, sal_uInt32 nData, sal_Int32 nWidth, sal_Unicode cFill )
{
appendString( rStr, OUString::number( nData ), nWidth, cFill );
}
void StringHelper::appendDec( OUStringBuffer& rStr, sal_Int32 nData, sal_Int32 nWidth, sal_Unicode cFill )
{
appendString( rStr, OUString::number( nData ), nWidth, cFill );
}
void StringHelper::appendDec( OUStringBuffer& rStr, sal_uInt64 nData, sal_Int32 nWidth, sal_Unicode cFill )
{
/* Values greater than biggest signed 64bit integer will change to
negative when converting to sal_Int64 . Therefore , the trailing digit
will be written separately. */
OUStringBuffer aBuffer;
if ( nData > 9 )
aBuffer.append( static_cast <sal_Int64>(nData / 10 ) );
aBuffer.append( static_cast < sal_Unicode >( '0' + (nData % 10 ) ) );
appendString( rStr, aBuffer.makeStringAndClear(), nWidth, cFill );
}
void StringHelper::appendDec( OUStringBuffer& rStr, sal_Int64 nData, sal_Int32 nWidth, sal_Unicode cFill )
{
appendString( rStr, OUString::number( nData ), nWidth, cFill );
}
void StringHelper::appendDec( OUStringBuffer& rStr, double fData, sal_Int32 nWidth, sal_Unicode cFill )
{
appendString( rStr, ::rtl::math::doubleToUString( fData, rtl_math_StringFormat_G, 15 , '.' , true ), nWidth, cFill );
}
// append hexadecimal ---------------------------------------------------------
void StringHelper::appendHex( OUStringBuffer& rStr, sal_uInt8 nData, bool bPrefix )
{
static const sal_Unicode spcHexDigits[] = { '0' ,'1' ,'2' ,'3' ,'4' ,'5' ,'6' ,'7' ,'8' ,'9' ,'A' ,'B' ,'C' ,'D' ,'E' ,'F' };
if ( bPrefix )
rStr.append( "0x" );
rStr.append( OUStringChar(spcHexDigits[ (nData >> 4 ) & 0 x0F ] ) + OUStringChar( spcHexDigits[ nData & 0 x0F ] ) );
}
void StringHelper::appendHex( OUStringBuffer& rStr, sal_Int8 nData, bool bPrefix )
{
appendHex( rStr, static_cast < sal_uInt8 >( nData ), bPrefix );
}
void StringHelper::appendHex( OUStringBuffer& rStr, sal_uInt16 nData, bool bPrefix )
{
appendHex( rStr, static_cast < sal_uInt8 >( nData >> 8 ), bPrefix );
appendHex( rStr, static_cast < sal_uInt8 >( nData ), false );
}
void StringHelper::appendHex( OUStringBuffer& rStr, sal_Int16 nData, bool bPrefix )
{
appendHex( rStr, static_cast < sal_uInt16 >( nData ), bPrefix );
}
void StringHelper::appendHex( OUStringBuffer& rStr, sal_uInt32 nData, bool bPrefix )
{
appendHex( rStr, static_cast < sal_uInt16 >( nData >> 16 ), bPrefix );
appendHex( rStr, static_cast < sal_uInt16 >( nData ), false );
}
void StringHelper::appendHex( OUStringBuffer& rStr, sal_Int32 nData, bool bPrefix )
{
appendHex( rStr, static_cast < sal_uInt32 >( nData ), bPrefix );
}
void StringHelper::appendHex( OUStringBuffer& rStr, sal_uInt64 nData, bool bPrefix )
{
appendHex( rStr, static_cast < sal_uInt32 >( nData >> 32 ), bPrefix );
appendHex( rStr, static_cast < sal_uInt32 >( nData ), false );
}
void StringHelper::appendHex( OUStringBuffer& rStr, sal_Int64 nData, bool bPrefix )
{
appendHex( rStr, static_cast < sal_uInt64 >( nData ), bPrefix );
}
static sal_uInt64
lcl_ConvertDouble(double const f)
{
sal_uInt64 i = sal_uInt64();
for (size_t j = 0 ; j < sizeof (double ); ++j)
{ // hopefully both endian independent and strict aliasing safe
reinterpret_cast <char *>(&i)[j] = reinterpret_cast <char const *>(&f)[j];
}
return i;
}
void StringHelper::appendHex( OUStringBuffer& rStr, double fData, bool bPrefix )
{
appendHex( rStr, lcl_ConvertDouble(fData), bPrefix );
}
// append shortened hexadecimal -----------------------------------------------
void StringHelper::appendShortHex( OUStringBuffer& rStr, sal_uInt8 nData, bool bPrefix )
{
appendHex( rStr, nData, bPrefix );
}
void StringHelper::appendShortHex( OUStringBuffer& rStr, sal_Int8 nData, bool bPrefix )
{
appendHex( rStr, nData, bPrefix );
}
void StringHelper::appendShortHex( OUStringBuffer& rStr, sal_uInt16 nData, bool bPrefix )
{
if ( nData > SAL_MAX_UINT8 )
appendHex( rStr, nData, bPrefix );
else
appendHex( rStr, static_cast < sal_uInt8 >( nData ), bPrefix );
}
void StringHelper::appendShortHex( OUStringBuffer& rStr, sal_Int16 nData, bool bPrefix )
{
appendShortHex( rStr, static_cast < sal_uInt16 >( nData ), bPrefix );
}
void StringHelper::appendShortHex( OUStringBuffer& rStr, sal_uInt32 nData, bool bPrefix )
{
if ( nData > SAL_MAX_UINT16 )
appendHex( rStr, nData, bPrefix );
else
appendShortHex( rStr, static_cast < sal_uInt16 >( nData ), bPrefix );
}
void StringHelper::appendShortHex( OUStringBuffer& rStr, sal_Int32 nData, bool bPrefix )
{
appendShortHex( rStr, static_cast < sal_uInt32 >( nData ), bPrefix );
}
void StringHelper::appendShortHex( OUStringBuffer& rStr, sal_uInt64 nData, bool bPrefix )
{
if ( nData > SAL_MAX_UINT32 )
appendHex( rStr, nData, bPrefix );
else
appendShortHex( rStr, static_cast < sal_uInt32 >( nData ), bPrefix );
}
void StringHelper::appendShortHex( OUStringBuffer& rStr, sal_Int64 nData, bool bPrefix )
{
appendShortHex( rStr, static_cast < sal_uInt64 >( nData ), bPrefix );
}
void StringHelper::appendShortHex( OUStringBuffer& rStr, double fData, bool bPrefix )
{
appendHex( rStr, fData, bPrefix );
}
// append binary --------------------------------------------------------------
void StringHelper::appendBin( OUStringBuffer& rStr, sal_uInt8 nData, bool bDots )
{
for ( sal_uInt8 nMask = 0 x80; nMask != 0 ; (nMask >>= 1 ) &= 0 x7F )
{
rStr.append( static_cast < sal_Unicode >( (nData & nMask) ? '1' : '0' ) );
if ( bDots && (nMask == 0 x10) )
rStr.append( OOX_DUMP_BINDOT );
}
}
void StringHelper::appendBin( OUStringBuffer& rStr, sal_Int8 nData, bool bDots )
{
appendBin( rStr, static_cast < sal_uInt8 >( nData ), bDots );
}
void StringHelper::appendBin( OUStringBuffer& rStr, sal_uInt16 nData, bool bDots )
{
appendBin( rStr, static_cast < sal_uInt8 >( nData >> 8 ), bDots );
if ( bDots )
rStr.append( OOX_DUMP_BINDOT );
appendBin( rStr, static_cast < sal_uInt8 >( nData ), bDots );
}
void StringHelper::appendBin( OUStringBuffer& rStr, sal_Int16 nData, bool bDots )
{
appendBin( rStr, static_cast < sal_uInt16 >( nData ), bDots );
}
void StringHelper::appendBin( OUStringBuffer& rStr, sal_uInt32 nData, bool bDots )
{
appendBin( rStr, static_cast < sal_uInt16 >( nData >> 16 ), bDots );
if ( bDots )
rStr.append( OOX_DUMP_BINDOT );
appendBin( rStr, static_cast < sal_uInt16 >( nData ), bDots );
}
void StringHelper::appendBin( OUStringBuffer& rStr, sal_Int32 nData, bool bDots )
{
appendBin( rStr, static_cast < sal_uInt32 >( nData ), bDots );
}
void StringHelper::appendBin( OUStringBuffer& rStr, sal_uInt64 nData, bool bDots )
{
appendBin( rStr, static_cast < sal_uInt32 >( nData >> 32 ), bDots );
if ( bDots )
rStr.append( OOX_DUMP_BINDOT );
appendBin( rStr, static_cast < sal_uInt32 >( nData ), bDots );
}
void StringHelper::appendBin( OUStringBuffer& rStr, sal_Int64 nData, bool bDots )
{
appendBin( rStr, static_cast < sal_uInt64 >( nData ), bDots );
}
void StringHelper::appendBin( OUStringBuffer& rStr, double fData, bool bDots )
{
appendBin( rStr, lcl_ConvertDouble(fData), bDots );
}
// append formatted value -----------------------------------------------------
void StringHelper::appendBool( OUStringBuffer& rStr, bool bData )
{
rStr.appendAscii( bData ? "true" : "false" );
}
// encoded text output --------------------------------------------------------
void StringHelper::appendCChar( OUStringBuffer& rStr, sal_Unicode cChar, bool bPrefix )
{
if ( cChar > 0 x00FF )
{
if ( bPrefix )
rStr.append( "\\u" );
appendHex( rStr, static_cast < sal_uInt16 >( cChar ), false );
}
else
{
if ( bPrefix )
rStr.append( "\\x" );
appendHex( rStr, static_cast < sal_uInt8 >( cChar ), false );
}
}
void StringHelper::appendEncChar( OUStringBuffer& rStr, sal_Unicode cChar, sal_Int32 nCount, bool bPrefix )
{
if ( cChar < 0 x0020 )
{
// C-style hex code
OUStringBuffer aCode;
appendCChar( aCode, cChar, bPrefix );
OUString aCodeStr = aCode.makeStringAndClear();
for ( sal_Int32 nIdx = 0 ; nIdx < nCount; ++nIdx )
rStr.append( aCodeStr );
}
else
{
appendChar( rStr, cChar, nCount );
}
}
void StringHelper::appendEncString( OUStringBuffer& rStr, std::u16string_view rData, bool bPrefix )
{
size_t nBeg = 0 ;
size_t nIdx = 0 ;
size_t nEnd = rData.size();
while ( nIdx < nEnd )
{
// find next character that needs encoding
while ( (nIdx < nEnd) && (rData[ nIdx ] >= 0 x20) ) ++nIdx;
// append portion
if ( nBeg < nIdx )
{
if ( (nBeg == 0 ) && (nIdx == nEnd) )
rStr.append( rData );
else
rStr.append( rData.substr(nBeg, nIdx - nBeg) );
}
// append characters to be encoded
while ( (nIdx < nEnd) && (rData[ nIdx ] < 0 x20) )
{
appendCChar( rStr, rData[ nIdx ], bPrefix );
++nIdx;
}
// adjust limits
nBeg = nIdx;
}
}
// token list -----------------------------------------------------------------
void StringHelper::appendToken( OUStringBuffer& rStr, std::u16string_view rToken, sal_Unicode cSep )
{
if ( (rStr.getLength() > 0 ) && (!rToken.empty()) )
rStr.append( cSep );
rStr.append( rToken );
}
void StringHelper::appendIndex( OUStringBuffer& rStr, sal_Int64 nIdx )
{
OUStringBuffer aToken;
appendDec( aToken, nIdx );
rStr.append( "[" + aToken + "]" );
}
std::u16string_view StringHelper::getToken( std::u16string_view rData, sal_Int32& rnPos, sal_Unicode cSep )
{
return trimSpaces( o3tl::getToken(rData, 0 , cSep, rnPos ) );
}
void StringHelper::enclose( OUStringBuffer& rStr, sal_Unicode cOpen, sal_Unicode cClose )
{
rStr.insert( 0 , cOpen ).append( cClose ? cClose : cOpen );
}
// string conversion ----------------------------------------------------------
namespace {
sal_Int32 lclIndexOf( std::u16string_view rStr, sal_Unicode cChar, sal_Int32 nStartPos )
{
size_t nIndex = rStr.find( cChar, nStartPos );
return (nIndex == std::u16string_view::npos) ? rStr.size() : nIndex;
}
OUString lclTrimQuotedStringList( std::u16string_view rStr )
{
OUStringBuffer aBuffer;
size_t nPos = 0 ;
size_t nLen = rStr.size();
while ( nPos < nLen )
{
if ( rStr[ nPos ] == OOX_DUMP_CFG_QUOTE )
{
// quoted string, skip leading quote character
++nPos;
// process quoted text and embedded literal quote characters
OUStringBuffer aToken;
do
{
// seek to next quote character and add text portion to token buffer
size_t nEnd = lclIndexOf( rStr, OOX_DUMP_CFG_QUOTE, nPos );
aToken.append( rStr.substr(nPos, nEnd - nPos) );
// process literal quotes
while ( (nEnd + 1 < nLen) && (rStr[ nEnd ] == OOX_DUMP_CFG_QUOTE) && (rStr[ nEnd + 1 ] == OOX_DUMP_CFG_QUOTE) )
{
aToken.append( OOX_DUMP_CFG_QUOTE );
nEnd += 2 ;
}
// nEnd is start of possible next text portion
nPos = nEnd;
}
while ( (nPos < nLen) && (rStr[ nPos ] != OOX_DUMP_CFG_QUOTE) );
// add token, seek to list separator, ignore text following closing quote
aBuffer.append( aToken );
nPos = lclIndexOf( rStr, OOX_DUMP_CFG_LISTSEP, nPos );
if ( nPos < nLen )
aBuffer.append( OOX_DUMP_LF );
// set current position behind list separator
++nPos;
}
else
{
// find list separator, add token text to buffer
size_t nEnd = lclIndexOf( rStr, OOX_DUMP_CFG_LISTSEP, nPos );
aBuffer.append( rStr.substr(nPos, nEnd - nPos) );
if ( nEnd < nLen )
aBuffer.append( OOX_DUMP_LF );
// set current position behind list separator
nPos = nEnd + 1 ;
}
}
return aBuffer.makeStringAndClear();
}
} // namespace
std::u16string_view StringHelper::trimSpaces( std::u16string_view rStr )
{
size_t nBeg = 0 ;
while ( (nBeg < rStr.size()) && ((rStr[ nBeg ] == ' ' ) || (rStr[ nBeg ] == '\t' )) )
++nBeg;
size_t nEnd = rStr.size();
while ( (nEnd > nBeg) && ((rStr[ nEnd - 1 ] == ' ' ) || (rStr[ nEnd - 1 ] == '\t' )) )
--nEnd;
return rStr.substr( nBeg, nEnd - nBeg );
}
OUString StringHelper::trimTrailingNul( const OUString& rStr )
{
sal_Int32 nLastPos = rStr.getLength() - 1 ;
if ( (nLastPos >= 0 ) && (rStr[ nLastPos ] == 0 ) )
return rStr.copy( 0 , nLastPos );
return rStr;
}
OString StringHelper::convertToUtf8( std::u16string_view rStr )
{
return OUStringToOString( rStr, RTL_TEXTENCODING_UTF8 );
}
DataType StringHelper::convertToDataType( std::u16string_view rStr )
{
DataType eType = DATATYPE_VOID;
if ( rStr == u"int8" )
eType = DATATYPE_INT8;
else if ( rStr == u"uint8" )
eType = DATATYPE_UINT8;
else if ( rStr == u"int16" )
eType = DATATYPE_INT16;
else if ( rStr == u"uint16" )
eType = DATATYPE_UINT16;
else if ( rStr == u"int32" )
eType = DATATYPE_INT32;
else if ( rStr == u"uint32" )
eType = DATATYPE_UINT32;
else if ( rStr == u"int64" )
eType = DATATYPE_INT64;
else if ( rStr == u"uint64" )
eType = DATATYPE_UINT64;
else if ( rStr == u"float" )
eType = DATATYPE_FLOAT;
else if ( rStr == u"double" )
eType = DATATYPE_DOUBLE;
return eType;
}
FormatType StringHelper::convertToFormatType( std::u16string_view rStr )
{
FormatType eType = FORMATTYPE_NONE;
if ( rStr == u"dec" )
eType = FORMATTYPE_DEC;
else if ( rStr == u"hex" )
eType = FORMATTYPE_HEX;
else if ( rStr == u"shorthex" )
eType = FORMATTYPE_SHORTHEX;
else if ( rStr == u"bin" )
eType = FORMATTYPE_BIN;
else if ( rStr == u"fix" )
eType = FORMATTYPE_FIX;
else if ( rStr == u"bool" )
eType = FORMATTYPE_BOOL;
return eType;
}
bool StringHelper::convertFromDec( sal_Int64& ornData, std::u16string_view rData )
{
size_t nPos = 0 ;
size_t nLen = rData.size();
bool bNeg = false ;
if ( (nLen > 0 ) && (rData[ 0 ] == '-' ) )
{
bNeg = true ;
++nPos;
}
ornData = 0 ;
for ( ; nPos < nLen; ++nPos )
{
sal_Unicode cChar = rData[ nPos ];
if ( (cChar < '0' ) || (cChar > '9' ) )
return false ;
ornData = (ornData * 10 ) + (cChar - '0' );
}
if ( bNeg )
ornData *= -1 ;
return true ;
}
bool StringHelper::convertFromHex( sal_Int64& ornData, std::u16string_view rData )
{
ornData = 0 ;
for ( size_t nPos = 0 , nLen = rData.size(); nPos < nLen; ++nPos )
{
sal_Unicode cChar = rData[ nPos ];
sal_Int32 nValue = o3tl::convertToHex<sal_Int32>(cChar);
if (nValue == -1 )
return false ;
ornData = (ornData << 4 ) + nValue;
}
return true ;
}
bool StringHelper::convertStringToInt( sal_Int64& ornData, std::u16string_view rData )
{
if ( (rData.size() > 2 ) && (rData[ 0 ] == '0' ) && ((rData[ 1 ] == 'X' ) || (rData[ 1 ] == 'x' )) )
return convertFromHex( ornData, rData.substr( 2 ) );
return convertFromDec( ornData, rData );
}
bool StringHelper::convertStringToDouble( double & orfData, std::u16string_view rData )
{
rtl_math_ConversionStatus eStatus = rtl_math_ConversionStatus_Ok;
sal_Int32 nSize = 0 ;
sal_Unicode const * pBegin = rData.data();
sal_Unicode const * pEnd;
orfData = rtl_math_uStringToDouble(pBegin,
pBegin + rData.size(),
'.' , '\0' ,
&eStatus, &pEnd);
nSize = static_cast <sal_Int32>(pEnd - pBegin);
return (eStatus == rtl_math_ConversionStatus_Ok) && (nSize == static_cast <sal_Int32>(rData.size()));
}
bool StringHelper::convertStringToBool( std::u16string_view rData )
{
if ( rData == u"true" )
return true ;
if ( rData == u"false" )
return false ;
sal_Int64 nData;
return convertStringToInt( nData, rData ) && (nData != 0 );
}
OUStringPair StringHelper::convertStringToPair( const OUString& rString, sal_Unicode cSep )
{
OUStringPair aPair;
if ( !rString.isEmpty() )
{
sal_Int32 nEqPos = rString.indexOf( cSep );
if ( nEqPos < 0 )
{
aPair.first = rString;
}
else
{
aPair.first = StringHelper::trimSpaces( rString.subView( 0 , nEqPos ) );
aPair.second = StringHelper::trimSpaces( rString.subView( nEqPos + 1 ) );
}
}
return aPair;
}
void StringHelper::convertStringToStringList( OUStringVector& orVec, std::u16string_view rData, bool bIgnoreEmpty )
{
orVec.clear();
OUString aUnquotedData = lclTrimQuotedStringList( rData );
sal_Int32 nPos = 0 ;
sal_Int32 nLen = aUnquotedData.getLength();
while ( (0 <= nPos) && (nPos < nLen) )
{
std::u16string_view aToken = getToken( aUnquotedData, nPos, OOX_DUMP_LF );
if ( !bIgnoreEmpty || !aToken.empty() )
orVec.push_back( OUString(aToken) );
}
}
void StringHelper::convertStringToIntList( Int64Vector& orVec, std::u16string_view rData, bool bIgnoreEmpty )
{
orVec.clear();
OUString aUnquotedData = lclTrimQuotedStringList( rData );
sal_Int32 nPos = 0 ;
sal_Int32 nLen = aUnquotedData.getLength();
sal_Int64 nData;
while ( (0 <= nPos) && (nPos < nLen) )
{
bool bOk = convertStringToInt( nData, getToken( aUnquotedData, nPos, OOX_DUMP_LF ) );
if ( !bIgnoreEmpty || bOk )
orVec.push_back( bOk ? nData : 0 );
}
}
Base::~Base()
{
}
ConfigItemBase::~ConfigItemBase()
{
}
void ConfigItemBase::readConfigBlock( TextInputStream& rStrm )
{
readConfigBlockContents( rStrm );
}
void ConfigItemBase::implProcessConfigItemStr(
TextInputStream& /*rStrm*/, const OUString& /*rKey*/, const OUString& /*rData*/ )
{
}
void ConfigItemBase::implProcessConfigItemInt(
TextInputStream& /*rStrm*/, sal_Int64 /*nKey*/, const OUString& /*rData*/ )
{
}
void ConfigItemBase::readConfigBlockContents( TextInputStream& rStrm )
{
bool bLoop = true ;
while ( bLoop && !rStrm.isEof() )
{
OUString aKey, aData;
switch ( readConfigLine( rStrm, aKey, aData ) )
{
case LINETYPE_DATA:
processConfigItem( rStrm, aKey, aData );
break ;
case LINETYPE_END:
bLoop = false ;
break ;
}
}
}
ConfigItemBase::LineType ConfigItemBase::readConfigLine(
TextInputStream& rStrm, OUString& orKey, OUString& orData )
{
OUString aLine;
while ( !rStrm.isEof() && aLine.isEmpty() )
{
aLine = rStrm.readLine();
if ( !aLine.isEmpty() && (aLine[ 0 ] == OOX_DUMP_BOM) )
aLine = aLine.copy( 1 );
aLine = StringHelper::trimSpaces( aLine );
if ( !aLine.isEmpty() )
{
// ignore comments (starting with hash or semicolon)
sal_Unicode cChar = aLine[ 0 ];
if ( (cChar == '#' ) || (cChar == ';' ) )
aLine.clear();
}
}
OUStringPair aPair = StringHelper::convertStringToPair( aLine );
orKey = aPair.first;
orData = aPair.second;
return ( !orKey.isEmpty() && (!orData.isEmpty() || orKey != "end" )) ?
LINETYPE_DATA : LINETYPE_END;
}
void ConfigItemBase::processConfigItem(
TextInputStream& rStrm, const OUString& rKey, const OUString& rData )
{
sal_Int64 nKey;
if ( StringHelper::convertStringToInt( nKey, rKey ) )
implProcessConfigItemInt( rStrm, nKey, rData );
else
implProcessConfigItemStr( rStrm, rKey, rData );
}
NameListBase::~NameListBase()
{
}
void NameListBase::setName( sal_Int64 nKey, const String& rName )
{
implSetName( nKey, rName );
}
void NameListBase::includeList( const NameListRef& rxList )
{
if ( rxList )
{
for (auto const & elem : *rxList)
maMap[ elem.first ] = elem.second;
implIncludeList( *rxList );
}
}
bool NameListBase::implIsValid() const
{
return true ;
}
void NameListBase::implProcessConfigItemStr(
TextInputStream& rStrm, const OUString& rKey, const OUString& rData )
{
if ( rKey == "include" )
include( rData );
else if ( rKey == "exclude" )
exclude( rData );
else
ConfigItemBase::implProcessConfigItemStr( rStrm, rKey, rData );
}
void NameListBase::implProcessConfigItemInt(
TextInputStream& /*rStrm*/, sal_Int64 nKey, const OUString& rData )
{
implSetName( nKey, rData );
}
void NameListBase::insertRawName( sal_Int64 nKey, const OUString& rName )
{
maMap[ nKey ] = rName;
}
const OUString* NameListBase::findRawName( sal_Int64 nKey ) const
{
const_iterator aIt = maMap.find( nKey );
return (aIt == end()) ? nullptr : &aIt->second;
}
void NameListBase::include( std::u16string_view rListKeys )
{
OUStringVector aVec;
StringHelper::convertStringToStringList( aVec, rListKeys, true );
for (auto const & elem : aVec)
includeList( mrCfgData.getNameList(elem) );
}
void NameListBase::exclude( std::u16string_view rKeys )
{
Int64Vector aVec;
StringHelper::convertStringToIntList( aVec, rKeys, true );
for (auto const & elem : aVec)
maMap.erase(elem);
}
void ItemFormatMap::insertFormats( const NameListRef& rxNameList )
{
if ( Base::isValid( rxNameList ) )
{
for (auto const & elemName : *rxNameList)
maMap[ elemName.first ].parse( elemName.second );
}
}
ConstList::ConstList( const SharedConfigData& rCfgData ) :
NameListBase( rCfgData ),
maDefName( OOX_DUMP_ERR_NONAME ),
mbQuoteNames( false )
{
}
void ConstList::implProcessConfigItemStr(
TextInputStream& rStrm, const OUString& rKey, const OUString& rData )
{
if ( rKey == "default" )
maDefName = rData; // Sets a default name for unknown keys.
else if ( rKey == "quote-names" )
setQuoteNames( StringHelper::convertStringToBool( rData ) );
else
NameListBase::implProcessConfigItemStr( rStrm, rKey, rData );
}
void ConstList::implSetName( sal_Int64 nKey, const OUString& rName )
{
insertRawName( nKey, rName );
}
OUString ConstList::implGetName( const Config& /*rCfg*/, sal_Int64 nKey ) const
{
const OUString* pName = findRawName( nKey );
OUString aName = pName ? *pName : maDefName;
if ( mbQuoteNames )
{
OUStringBuffer aBuffer( aName );
StringHelper::enclose( aBuffer, OOX_DUMP_STRQUOTE );
aName = aBuffer.makeStringAndClear();
}
return aName;
}
OUString ConstList::implGetNameDbl( const Config& /*rCfg*/, double /*fValue*/ ) const
{
return OUString();
}
void ConstList::implIncludeList( const NameListBase& rList )
{
if ( const ConstList* pConstList = dynamic_cast < const ConstList* >( &rList ) )
{
maDefName = pConstList->maDefName;
mbQuoteNames = pConstList->mbQuoteNames;
}
}
MultiList::MultiList( const SharedConfigData& rCfgData ) :
ConstList( rCfgData ),
mbIgnoreEmpty( true )
{
}
void MultiList::setNamesFromVec( sal_Int64 nStartKey, const OUStringVector& rNames )
{
sal_Int64 nKey = nStartKey;
for (auto const & name : rNames)
{
if ( !mbIgnoreEmpty || !name.isEmpty() )
insertRawName( nKey, name);
++nKey;
}
}
void MultiList::implProcessConfigItemStr(
TextInputStream& rStrm, const OUString& rKey, const OUString& rData )
{
if ( rKey == "ignore-empty" )
mbIgnoreEmpty = StringHelper::convertStringToBool( rData );
else
ConstList::implProcessConfigItemStr( rStrm, rKey, rData );
}
void MultiList::implSetName( sal_Int64 nKey, const OUString& rName )
{
OUStringVector aNames;
StringHelper::convertStringToStringList( aNames, rName, false );
setNamesFromVec( nKey, aNames );
}
FlagsList::FlagsList( const SharedConfigData& rCfgData ) :
NameListBase( rCfgData ),
mnIgnore( 0 )
{
}
void FlagsList::implProcessConfigItemStr(
TextInputStream& rStrm, const OUString& rKey, const OUString& rData )
{
if ( rKey == "ignore" )
{
sal_Int64 nIgnore;
if ( StringHelper::convertStringToInt( nIgnore, rData ) )
setIgnoreFlags( nIgnore );
}
else
{
NameListBase::implProcessConfigItemStr( rStrm, rKey, rData );
}
}
void FlagsList::implSetName( sal_Int64 nKey, const OUString& rName )
{
if ( (nKey != 0 ) && ((nKey & (nKey - 1 )) == 0 ) ) // only a single bit set?
insertRawName( nKey, rName );
}
OUString FlagsList::implGetName( const Config& /*rCfg*/, sal_Int64 nKey ) const
{
sal_Int64 nFound = mnIgnore;
OUStringBuffer aName;
// add known flags
for ( const_iterator aIt = begin(), aEnd = end(); aIt != aEnd; ++aIt )
{
sal_Int64 nMask = aIt->first;
setFlag( nFound, nMask );
if ( !getFlag( mnIgnore, nMask ) )
{
const OUString& rFlagName = aIt->second;
bool bOnOff = rFlagName.startsWith(":" );
bool bFlag = getFlag( nKey, nMask );
if ( bOnOff )
{
StringHelper::appendToken( aName, rFlagName.subView( 1 ) );
aName.appendAscii( bFlag ? ":on" : ":off" );
}
else
{
bool bNegated = rFlagName.startsWith("!" );
sal_Int32 nBothSep = bNegated ? rFlagName.indexOf( '!' , 1 ) : -1 ;
if ( bFlag )
{
if ( !bNegated )
StringHelper::appendToken( aName, rFlagName );
else if ( nBothSep > 0 )
StringHelper::appendToken( aName, rFlagName.subView( nBothSep + 1 ) );
}
else if ( bNegated )
{
if ( nBothSep > 0 )
StringHelper::appendToken( aName, rFlagName.subView( 1 , nBothSep - 1 ) );
else
StringHelper::appendToken( aName, rFlagName.subView( 1 ) );
}
}
}
}
// add unknown flags
setFlag( nKey, nFound, false );
if ( nKey != 0 )
{
OUStringBuffer aUnknown( OUString::Concat(OOX_DUMP_UNKNOWN) + OUStringChar(OOX_DUMP_ITEMSEP) );
StringHelper::appendShortHex( aUnknown, nKey );
StringHelper::enclose( aUnknown, '(' , ')' );
StringHelper::appendToken( aName, aUnknown );
}
return aName.makeStringAndClear();
}
OUString FlagsList::implGetNameDbl( const Config& /*rCfg*/, double /*fValue*/ ) const
{
return OUString();
}
void FlagsList::implIncludeList( const NameListBase& rList )
{
if ( const FlagsList* pFlagsList = dynamic_cast < const FlagsList* >( &rList ) )
mnIgnore = pFlagsList->mnIgnore;
}
bool CombiList::ExtItemFormatKey::operator <( const ExtItemFormatKey& rRight ) const
{
return (mnKey < rRight.mnKey) || ((mnKey == rRight.mnKey) && (maFilter < rRight.maFilter));
}
CombiList::CombiList( const SharedConfigData& rCfgData ) :
FlagsList( rCfgData )
{
}
void CombiList::implSetName( sal_Int64 nKey, const OUString& rName )
{
if ( (nKey & (nKey - 1 )) != 0 ) // more than a single bit set?
{
::std::set< ExtItemFormatKey > aItemKeys;
ExtItemFormat aItemFmt;
OUStringVector aRemain = aItemFmt.parse( rName );
for (auto const & elemRemain : aRemain)
{
OUStringPair aPair = StringHelper::convertStringToPair(elemRemain);
if ( aPair.first == "noshift" )
{
aItemFmt.mbShiftValue = StringHelper::convertStringToBool( aPair.second );
}
else if ( aPair.first == "filter" )
{
OUStringPair aFilter = StringHelper::convertStringToPair( aPair.second, '~' );
ExtItemFormatKey aKey( nKey );
if ( !aFilter.first.isEmpty() && StringHelper::convertStringToInt( aKey.maFilter.first, aFilter.first ) &&
!aFilter.second.isEmpty() && StringHelper::convertStringToInt( aKey.maFilter.second, aFilter.second ) )
{
if ( aKey.maFilter.first == 0 )
aKey.maFilter.second = 0 ;
aItemKeys.insert( aKey );
}
}
}
if ( aItemKeys.empty() )
aItemKeys.insert( ExtItemFormatKey( nKey ) );
for (auto const & itemKey : aItemKeys)
maFmtMap[itemKey] = aItemFmt;
}
else
{
FlagsList::implSetName( nKey, rName );
}
}
OUString CombiList::implGetName( const Config& rCfg, sal_Int64 nKey ) const
{
sal_Int64 nFound = 0 ;
OUStringBuffer aName;
// add known flag fields
for (auto const & fmt : maFmtMap)
{
const ExtItemFormatKey& rMapKey = fmt.first;
sal_Int64 nMask = rMapKey.mnKey;
if ( (nMask != 0 ) && ((nKey & rMapKey.maFilter.first) == rMapKey.maFilter.second) )
{
const ExtItemFormat& rItemFmt = fmt.second;
sal_uInt64 nUFlags = static_cast < sal_uInt64 >( nKey );
sal_uInt64 nUMask = static_cast < sal_uInt64 >( nMask );
if ( rItemFmt.mbShiftValue )
while ( (nUMask & 1 ) == 0 ) { nUFlags >>= 1 ; nUMask >>= 1 ; }
sal_uInt64 nUValue = nUFlags & nUMask;
sal_Int64 nSValue = static_cast < sal_Int64 >( nUValue );
if ( getFlag< sal_uInt64 >( nUValue, (nUMask + 1 ) >> 1 ) )
setFlag( nSValue, static_cast < sal_Int64 >( ~nUMask ) );
OUStringBuffer aItem( rItemFmt.maItemName );
OUStringBuffer aValue;
switch ( rItemFmt.meDataType )
{
case DATATYPE_INT8: StringHelper::appendValue( aValue, static_cast < sal_Int8 >( nSValue ), rItemFmt.meFmtType ); break ;
case DATATYPE_UINT8: StringHelper::appendValue( aValue, static_cast < sal_uInt8 >( nUValue ), rItemFmt.meFmtType ); break ;
case DATATYPE_INT16: StringHelper::appendValue( aValue, static_cast < sal_Int16 >( nSValue ), rItemFmt.meFmtType ); break ;
case DATATYPE_UINT16: StringHelper::appendValue( aValue, static_cast < sal_uInt16 >( nUValue ), rItemFmt.meFmtType ); break ;
case DATATYPE_INT32: StringHelper::appendValue( aValue, static_cast < sal_Int32 >( nSValue ), rItemFmt.meFmtType ); break ;
case DATATYPE_UINT32: StringHelper::appendValue( aValue, static_cast < sal_uInt32 >( nUValue ), rItemFmt.meFmtType ); break ;
case DATATYPE_INT64: StringHelper::appendValue( aValue, nSValue, rItemFmt.meFmtType ); break ;
case DATATYPE_UINT64: StringHelper::appendValue( aValue, nUValue, rItemFmt.meFmtType ); break ;
case DATATYPE_FLOAT: StringHelper::appendValue( aValue, static_cast < float >( nSValue ), rItemFmt.meFmtType ); break ;
case DATATYPE_DOUBLE: StringHelper::appendValue( aValue, static_cast < double >( nSValue ), rItemFmt.meFmtType ); break ;
default :;
}
StringHelper::appendToken( aItem, aValue, OOX_DUMP_ITEMSEP );
if ( !rItemFmt.maListName.isEmpty() )
{
OUString aValueName = rCfg.getName( rItemFmt.maListName, static_cast < sal_Int64 >( nUValue ) );
StringHelper::appendToken( aItem, aValueName, OOX_DUMP_ITEMSEP );
}
StringHelper::enclose( aItem, '(' , ')' );
StringHelper::appendToken( aName, aItem );
setFlag( nFound, nMask );
}
}
setFlag( nKey, nFound, false );
StringHelper::appendToken( aName, FlagsList::implGetName( rCfg, nKey ) );
return aName.makeStringAndClear();
}
void CombiList::implIncludeList( const NameListBase& rList )
{
if ( const CombiList* pCombiList = dynamic_cast < const CombiList* >( &rList ) )
maFmtMap = pCombiList->maFmtMap;
FlagsList::implIncludeList( rList );
}
UnitConverter::UnitConverter( const SharedConfigData& rCfgData ) :
NameListBase( rCfgData ),
mfFactor( 1 .0 )
{
}
void UnitConverter::implSetName( sal_Int64 /*nKey*/, const OUString& /*rName*/ )
{
// nothing to do
}
OUString UnitConverter::implGetName( const Config& rCfg, sal_Int64 nKey ) const
{
return implGetNameDbl( rCfg, static_cast < double >( nKey ) );
}
OUString UnitConverter::implGetNameDbl( const Config& /*rCfg*/, double fValue ) const
{
OUStringBuffer aValue;
StringHelper::appendDec( aValue, mfFactor * fValue );
aValue.append( maUnitName );
return aValue.makeStringAndClear();
}
void UnitConverter::implIncludeList( const NameListBase& /*rList*/ )
{
}
const NameListRef & NameListWrapper::getNameList( const Config& rCfg ) const
{
if (!mxList)
mxList = rCfg.getNameList( maName );
return mxList;
}
SharedConfigData::SharedConfigData( const OUString& rFileName,
const Reference< XComponentContext >& rxContext, StorageRef xRootStrg,
OUString aSysFileName ) :
mxContext( rxContext ),
mxRootStrg(std::move( xRootStrg )),
maSysFileName(std::move( aSysFileName )),
mbLoaded( false )
{
OUString aFileUrl = InputOutputHelper::convertFileNameToUrl( rFileName );
if ( !aFileUrl.isEmpty() )
{
sal_Int32 nNamePos = InputOutputHelper::getFileNamePos( aFileUrl );
maConfigPath = aFileUrl.copy( 0 , nNamePos );
mbLoaded = readConfigFile( aFileUrl );
}
}
SharedConfigData::~SharedConfigData()
{
}
const OUString* SharedConfigData::getOption( const OUString& rKey ) const
{
ConfigDataMap::const_iterator aIt = maConfigData.find( rKey );
return (aIt == maConfigData.end()) ? nullptr : &aIt->second;
}
void SharedConfigData::setNameList( const OUString& rListName, const NameListRef& rxList )
{
if ( !rListName.isEmpty() )
maNameLists[ rListName ] = rxList;
}
void SharedConfigData::eraseNameList( const OUString& rListName )
{
maNameLists.erase( rListName );
}
NameListRef SharedConfigData::getNameList( const OUString& rListName ) const
{
NameListRef xList;
NameListMap::const_iterator aIt = maNameLists.find( rListName );
if ( aIt != maNameLists.end() )
xList = aIt->second;
return xList;
}
bool SharedConfigData::implIsValid() const
{
return mbLoaded && mxContext.is() && mxRootStrg && !maSysFileName.isEmpty();
}
void SharedConfigData::implProcessConfigItemStr(
TextInputStream& rStrm, const OUString& rKey, const OUString& rData )
{
if ( rKey == "include-config-file" )
readConfigFile( maConfigPath + rData );
else if ( rKey == "constlist" )
readNameList< ConstList >( rStrm, rData );
else if ( rKey == "multilist" )
readNameList< MultiList >( rStrm, rData );
else if ( rKey == "flagslist" )
readNameList< FlagsList >( rStrm, rData );
else if ( rKey == "combilist" )
readNameList< CombiList >( rStrm, rData );
else if ( rKey == "shortlist" )
createShortList( rData );
else if ( rKey == "unitconverter" )
createUnitConverter( rData );
else
maConfigData[ rKey ] = rData;
}
bool SharedConfigData::readConfigFile( const OUString& rFileUrl )
{
bool bLoaded = maConfigFiles.count( rFileUrl ) > 0 ;
if ( !bLoaded )
{
Reference< XInputStream > xInStrm = InputOutputHelper::openInputStream( mxContext, rFileUrl );
TextInputStream aTxtStrm( mxContext, xInStrm, RTL_TEXTENCODING_UTF8 );
if ( !aTxtStrm.isEof() )
{
maConfigFiles.insert( rFileUrl );
readConfigBlockContents( aTxtStrm );
bLoaded = true ;
}
}
return bLoaded;
}
void SharedConfigData::createShortList( std::u16string_view rData )
{
OUStringVector aDataVec;
StringHelper::convertStringToStringList( aDataVec, rData, false );
if ( aDataVec.size() < 3 )
return ;
sal_Int64 nStartKey;
if ( StringHelper::convertStringToInt( nStartKey, aDataVec[ 1 ] ) )
{
std::shared_ptr< MultiList > xList = createNameList< MultiList >( aDataVec[ 0 ] );
if ( xList )
{
aDataVec.erase( aDataVec.begin(), aDataVec.begin() + 2 );
xList->setNamesFromVec( nStartKey, aDataVec );
}
}
}
void SharedConfigData::createUnitConverter( std::u16string_view rData )
{
OUStringVector aDataVec;
StringHelper::convertStringToStringList( aDataVec, rData, false );
if ( aDataVec.size() < 2 )
return ;
OUString aFactor = aDataVec[ 1 ];
bool bRecip = aFactor.startsWith("/" );
if ( bRecip )
aFactor = aFactor.copy( 1 );
double fFactor;
if ( StringHelper::convertStringToDouble( fFactor, aFactor ) && (fFactor != 0 .0 ) )
{
std::shared_ptr< UnitConverter > xList = createNameList< UnitConverter >( aDataVec[ 0 ] );
if ( xList )
{
xList->setFactor( bRecip ? (1 .0 / fFactor) : fFactor );
if ( aDataVec.size() >= 3 )
xList->setUnitName( aDataVec[ 2 ] );
}
}
}
Config::Config( const char * pcEnvVar, const FilterBase& rFilter )
{
construct( pcEnvVar, rFilter );
}
Config::Config( const char * pcEnvVar, const Reference< XComponentContext >& rxContext, const StorageRef& rxRootStrg, const OUString& rSysFileName )
{
construct( pcEnvVar, rxContext, rxRootStrg, rSysFileName );
}
Config::~Config()
{
}
void Config::construct( const char * pcEnvVar, const FilterBase& rFilter )
{
if ( !rFilter.getFileUrl().isEmpty() )
construct( pcEnvVar, rFilter.getComponentContext(), rFilter.getStorage(), rFilter.getFileUrl() );
}
void Config::construct( const char * pcEnvVar, const Reference< XComponentContext >& rxContext, const StorageRef& rxRootStrg, const OUString& rSysFileName )
{
if ( pcEnvVar && rxRootStrg && !rSysFileName.isEmpty() )
if ( const char * pcFileName = ::getenv( pcEnvVar ) )
mxCfgData = std::make_shared<SharedConfigData>( OUString::createFromAscii( pcFileName ), rxContext, rxRootStrg, rSysFileName );
}
const OUString& Config::getStringOption( const String& rKey, const OUString& rDefault ) const
{
const OUString* pData = implGetOption( rKey );
return pData ? *pData : rDefault;
}
bool Config::getBoolOption( const String& rKey, bool bDefault ) const
{
const OUString* pData = implGetOption( rKey );
return pData ? StringHelper::convertStringToBool( *pData ) : bDefault;
}
bool Config::isDumperEnabled() const
{
return getBoolOption( "enable-dumper" , false );
}
bool Config::isImportEnabled() const
{
return getBoolOption( "enable-import" , true );
}
void Config::eraseNameList( const String& rListName )
{
mxCfgData->eraseNameList( rListName );
}
NameListRef Config::getNameList( const String& rListName ) const
{
return mxCfgData->getNameList( rListName );
}
bool Config::implIsValid() const
{
return isValid( mxCfgData );
}
const OUString* Config::implGetOption( const OUString& rKey ) const
{
return mxCfgData->getOption( rKey );
}
Output::Output( const Reference< XComponentContext >& rxContext, const OUString& rFileName ) :
mxStrm( InputOutputHelper::openTextOutputStream( rxContext, rFileName, RTL_TEXTENCODING_UTF8 ) ),
mnCol( 0 ),
mnItemLevel( 0 ),
mnMultiLevel( 0 ),
mnItemIdx( 0 ),
mnLastItem( 0 )
{
if ( mxStrm.is() )
mxStrm->writeString( OUString( OOX_DUMP_BOM ) );
}
void Output::newLine()
{
if ( maLine.getLength() > 0 )
{
mxStrm->writeString( maIndent );
maLine.append( '\n' );
mxStrm->writeString( maLine.makeStringAndClear() );
mnCol = 0 ;
mnLastItem = 0 ;
}
}
void Output::emptyLine( size_t nCount )
{
for ( size_t nIdx = 0 ; nIdx < nCount; ++nIdx )
mxStrm->writeString( OUString('\n' ) );
}
void Output::incIndent()
{
OUStringBuffer aBuffer( maIndent );
StringHelper::appendChar( aBuffer, ' ' , OOX_DUMP_INDENT );
maIndent = aBuffer.makeStringAndClear();
}
void Output::decIndent()
{
if ( maIndent.getLength() >= OOX_DUMP_INDENT )
maIndent = maIndent.copy( OOX_DUMP_INDENT );
}
void Output::startTable( sal_Int32 nW1 )
{
startTable( 1 , &nW1 );
}
void Output::startTable( sal_Int32 nW1, sal_Int32 nW2 )
{
sal_Int32 pnColWidths[ 2 ];
pnColWidths[ 0 ] = nW1;
pnColWidths[ 1 ] = nW2;
startTable( 2 , pnColWidths );
}
void Output::startTable( sal_Int32 nW1, sal_Int32 nW2, sal_Int32 nW3, sal_Int32 nW4 )
{
sal_Int32 pnColWidths[ 4 ];
pnColWidths[ 0 ] = nW1;
pnColWidths[ 1 ] = nW2;
pnColWidths[ 2 ] = nW3;
pnColWidths[ 3 ] = nW4;
startTable( 4 , pnColWidths );
}
void Output::startTable( size_t nColCount, const sal_Int32* pnColWidths )
{
maColPos.clear();
maColPos.push_back( 0 );
sal_Int32 nColPos = 0 ;
for ( size_t nCol = 0 ; nCol < nColCount; ++nCol )
{
nColPos = nColPos + pnColWidths[ nCol ];
maColPos.push_back( nColPos );
}
}
void Output::tab()
{
tab( mnCol + 1 );
}
void Output::tab( size_t nCol )
{
mnCol = nCol;
if ( mnCol < maColPos.size() )
{
sal_Int32 nColPos = maColPos[ mnCol ];
if ( maLine.getLength() >= nColPos )
maLine.setLength( ::std::max< sal_Int32 >( nColPos - 1 , 0 ) );
StringHelper::appendChar( maLine, ' ' , nColPos - maLine.getLength() );
}
else
{
StringHelper::appendChar( maLine, ' ' , 2 );
}
}
void Output::endTable()
{
maColPos.clear();
}
void Output::resetItemIndex( sal_Int64 nIdx )
{
mnItemIdx = nIdx;
}
void Output::startItem( const String& rItemName )
{
if ( mnItemLevel == 0 )
{
if ( (mnMultiLevel > 0 ) && (maLine.getLength() > 0 ) )
tab();
if ( rItemName.has() )
{
writeItemName( rItemName );
writeChar( OOX_DUMP_ITEMSEP );
}
}
++mnItemLevel;
mnLastItem = maLine.getLength();
}
void Output::contItem()
{
if ( mnItemLevel > 0 )
{
if ( (maLine.getLength() == 0 ) || (maLine[ maLine.getLength() - 1 ] != OOX_DUMP_ITEMSEP) )
writeChar( OOX_DUMP_ITEMSEP );
mnLastItem = maLine.getLength();
}
}
void Output::endItem()
{
if ( mnItemLevel > 0 )
{
maLastItem = maLine.copy( mnLastItem ).makeStringAndClear();
if ( maLastItem.isEmpty() && mnLastItem > 0 && maLine[ mnLastItem - 1 ] == OOX_DUMP_ITEMSEP )
maLine.setLength( mnLastItem - 1 );
--mnItemLevel;
}
if ( mnItemLevel == 0 )
{
if ( mnMultiLevel == 0 )
newLine();
}
else
contItem();
}
void Output::startMultiItems()
{
++mnMultiLevel;
}
void Output::endMultiItems()
{
if ( mnMultiLevel > 0 )
--mnMultiLevel;
if ( mnMultiLevel == 0 )
newLine();
}
void Output::writeChar( sal_Unicode cChar, sal_Int32 nCount )
{
StringHelper::appendEncChar( maLine, cChar, nCount );
}
void Output::writeAscii( const char * pcStr )
{
if ( pcStr )
maLine.appendAscii( pcStr );
}
void Output::writeString( std::u16string_view rStr )
{
StringHelper::appendEncString( maLine, rStr );
}
void Output::writeArray( const sal_uInt8* pnData, std::size_t nSize, sal_Unicode cSep )
{
const sal_uInt8* pnEnd = pnData ? (pnData + nSize) : nullptr;
for ( const sal_uInt8* pnByte = pnData; pnByte < pnEnd; ++pnByte )
{
if ( pnByte > pnData )
writeChar( cSep );
writeHex( *pnByte, false );
}
}
void Output::writeBool( bool bData )
{
StringHelper::appendBool( maLine, bData );
}
void Output::writeDateTime( const util::DateTime& rDateTime )
{
writeDec( rDateTime.Year, 4 , '0' );
writeChar( '-' );
writeDec( rDateTime.Month, 2 , '0' );
writeChar( '-' );
writeDec( rDateTime.Day, 2 , '0' );
writeChar( 'T' );
writeDec( rDateTime.Hours, 2 , '0' );
writeChar( ':' );
writeDec( rDateTime.Minutes, 2 , '0' );
writeChar( ':' );
writeDec( rDateTime.Seconds, 2 , '0' );
}
bool Output::implIsValid() const
{
return mxStrm.is();
}
void Output::writeItemName( const String& rItemName )
{
if ( rItemName.has() && (rItemName[ 0 ] == '#' ) )
{
writeString( rItemName.subView( 1 ) );
StringHelper::appendIndex( maLine, mnItemIdx++ );
}
else
writeString( rItemName );
}
StorageIterator::StorageIterator( StorageRef xStrg ) :
mxStrg(std::move( xStrg ))
{
if ( mxStrg )
mxStrg->getElementNames( maNames );
maIt = maNames.begin();
}
StorageIterator::~StorageIterator()
{
}
StorageIterator& StorageIterator::operator ++()
{
if ( maIt != maNames.end() )
++maIt;
return *this ;
}
OUString StorageIterator::getName() const
{
OUString aName;
if ( maIt != maNames.end() )
aName = *maIt;
return aName;
}
bool StorageIterator::isStream() const
{
return isValid() && mxStrg->openInputStream( *maIt ).is();
}
bool StorageIterator::isStorage() const
{
if ( !isValid() )
return false ;
StorageRef xStrg = mxStrg->openSubStorage( *maIt, false );
return xStrg && xStrg->isStorage();
}
bool StorageIterator::implIsValid() const
{
return mxStrg && mxStrg->isStorage() && (maIt != maNames.end());
}
ObjectBase::~ObjectBase()
{
}
void ObjectBase::construct( const ConfigRef& rxConfig )
{
mxConfig = rxConfig;
}
void ObjectBase::construct( const ObjectBase& rParent )
{
*this = rParent;
}
void ObjectBase::dump()
{
if ( isValid() )
implDump();
}
bool ObjectBase::implIsValid() const
{
return isValid( mxConfig );
}
void ObjectBase::implDump()
{
}
void StorageObjectBase::construct( const ObjectBase& rParent, const StorageRef& rxStrg, const OUString& rSysPath )
{
ObjectBase::construct( rParent );
mxStrg = rxStrg;
maSysPath = rSysPath;
}
void StorageObjectBase::construct( const ObjectBase& rParent )
{
ObjectBase::construct( rParent );
if ( ObjectBase::implIsValid() )
{
mxStrg = cfg().getRootStorage();
maSysPath = cfg().getSysFileName();
}
}
bool StorageObjectBase::implIsValid() const
{
return mxStrg && !maSysPath.isEmpty() && ObjectBase::implIsValid();
}
void StorageObjectBase::implDump()
{
bool bIsStrg = mxStrg->isStorage();
bool bIsRoot = mxStrg->isRootStorage();
Reference< XInputStream > xBaseStrm;
if ( !bIsStrg )
xBaseStrm = mxStrg->openInputStream( OUString() );
OUString aSysOutPath = maSysPath;
if ( bIsRoot ) try
{
aSysOutPath += OOX_DUMP_DUMPEXT;
Reference<XSimpleFileAccess3> xFileAccess(SimpleFileAccess::create(getContext()));
xFileAccess->kill( aSysOutPath );
}
catch ( Exception& )
{
}
if ( bIsStrg )
{
extractStorage( mxStrg, OUString(), aSysOutPath );
}
else if ( xBaseStrm.is() )
{
BinaryInputStreamRef xInStrm( std::make_shared<BinaryXInputStream>( xBaseStrm, false ) );
xInStrm->seekToStart();
implDumpBaseStream( xInStrm, aSysOutPath );
}
}
void StorageObjectBase::implDumpStream( const Reference< XInputStream >&, const OUString&, const OUString&, const OUString& )
{
}
void StorageObjectBase::implDumpStorage( const StorageRef& rxStrg, const OUString& rStrgPath, const OUString& rSysPath )
{
extractStorage( rxStrg, rStrgPath, rSysPath );
}
void StorageObjectBase::implDumpBaseStream( const BinaryInputStreamRef&, const OUString& )
{
}
void StorageObjectBase::addPreferredStream( const String& rStrmName )
{
if ( rStrmName.has() )
maPreferred.emplace_back( rStrmName, false );
}
void StorageObjectBase::addPreferredStorage( const String& rStrgPath )
{
if ( rStrgPath.has() )
maPreferred.emplace_back( rStrgPath, true );
}
OUString StorageObjectBase::getSysFileName(
std::u16string_view rStrmName, std::u16string_view rSysOutPath )
{
// encode all characters < 0x20
OUStringBuffer aBuffer;
StringHelper::appendEncString( aBuffer, rStrmName, false );
// replace all characters reserved in file system
OUString aFileName = aBuffer.makeStringAndClear();
static const sal_Unicode spcReserved[] = { '/' , '\\' , ':' , '*' , '?' , '<' , '>' , '|' };
for (const sal_Unicode cChar : spcReserved)
aFileName = aFileName.replace(cChar, '_' );
// build full path
return OUString::Concat(rSysOutPath) + "/" + aFileName;
}
void StorageObjectBase::extractStream( StorageBase& rStrg, const OUString& rStrgPath, const OUString& rStrmName, const OUString& rSysFileName )
{
BinaryXInputStream aInStrm( rStrg.openInputStream( rStrmName ), true );
if ( !aInStrm.isEof() )
{
BinaryXOutputStream aOutStrm( InputOutputHelper::openOutputStream( getContext(), rSysFileName ), true );
if ( !aOutStrm.isEof() )
aInStrm.copyToStream( aOutStrm );
}
Reference< XInputStream > xDumpStrm = InputOutputHelper::openInputStream( getContext(), rSysFileName );
if ( xDumpStrm.is() )
implDumpStream( xDumpStrm, rStrgPath, rStrmName, rSysFileName );
}
void StorageObjectBase::extractStorage( const StorageRef& rxStrg, const OUString& rStrgPath, const OUString& rSysPath )
{
// create directory in file system
::osl::FileBase::RC eRes = ::osl::Directory::create( rSysPath );
if ( (eRes != ::osl::FileBase::E_None) && (eRes != ::osl::FileBase::E_EXIST) )
return ;
// process preferred storages and streams in root storage first
if ( rStrgPath.isEmpty() )
{
for (auto const & elemPreferred : maPreferred)
extractItem( rxStrg, rStrgPath, elemPreferred.maName, rSysPath, elemPreferred.mbStorage, !elemPreferred.mbStorage );
}
// process children of the storage
for ( StorageIterator aIt( rxStrg ); aIt.isValid(); ++aIt )
{
// skip processed preferred items
OUString aItemName = aIt.getName();
bool bFound = false ;
if ( rStrgPath.isEmpty() )
{
for (auto const & elemPreferred : maPreferred)
{
bFound = elemPreferred.maName == aItemName;
if (bFound)
break ;
}
}
if ( !bFound )
extractItem( rxStrg, rStrgPath, aItemName, rSysPath, aIt.isStorage(), aIt.isStream() );
}
}
void StorageObjectBase::extractItem( const StorageRef& rxStrg, const OUString& rStrgPath, const OUString& rItemName, std::u16string_view rSysPath, bool bIsStrg, bool bIsStrm )
{
OUString aSysFileName = getSysFileName( rItemName, rSysPath );
if ( bIsStrg )
{
OUStringBuffer aStrgPath( rStrgPath );
StringHelper::appendToken( aStrgPath, rItemName, '/' );
implDumpStorage( rxStrg->openSubStorage( rItemName, false ), aStrgPath.makeStringAndClear(), aSysFileName );
}
else if ( bIsStrm )
{
extractStream( *rxStrg, rStrgPath, rItemName, aSysFileName );
}
}
OutputObjectBase::~OutputObjectBase()
{
}
void OutputObjectBase::construct( const ObjectBase& rParent, const OUString& rSysFileName )
{
ObjectBase::construct( rParent );
if ( ObjectBase::implIsValid() )
{
maSysFileName = rSysFileName;
mxOut = std::make_shared<Output>( getContext(), rSysFileName + OOX_DUMP_DUMPEXT );
}
}
void OutputObjectBase::construct( const OutputObjectBase& rParent )
{
*this = rParent;
}
bool OutputObjectBase::implIsValid() const
{
return isValid( mxOut ) && ObjectBase::implIsValid();
}
void OutputObjectBase::writeEmptyItem( const String& rName )
{
ItemGuard aItem( mxOut, rName );
}
void OutputObjectBase::writeInfoItem( const String& rName, const String& rData )
{
ItemGuard aItem( mxOut, rName );
mxOut->writeString( rData );
}
void OutputObjectBase::writeCharItem( const String& rName, sal_Unicode cData )
{
ItemGuard aItem( mxOut, rName );
mxOut->writeChar( OOX_DUMP_STRQUOTE );
mxOut->writeChar( cData );
mxOut->writeChar( OOX_DUMP_STRQUOTE );
}
void OutputObjectBase::writeStringItem( const String& rName, std::u16string_view rData )
{
ItemGuard aItem( mxOut, rName );
mxOut->writeAscii( "(len=" );
mxOut->writeDec( sal_Int32(rData.size()) );
mxOut->writeAscii( ")," );
OUStringBuffer aValue( rData.substr( 0 , ::std::min( sal_Int32(rData.size()), OOX_DUMP_MAXSTRLEN ) ) );
StringHelper::enclose( aValue, OOX_DUMP_STRQUOTE );
mxOut->writeString( aValue.makeStringAndClear() );
if ( rData.size() > OOX_DUMP_MAXSTRLEN )
mxOut->writeAscii( ",cut" );
}
void OutputObjectBase::writeArrayItem( const String& rName, const sal_uInt8* pnData, std::size_t nSize, sal_Unicode cSep )
{
ItemGuard aItem( mxOut, rName );
mxOut->writeArray( pnData, nSize, cSep );
}
void OutputObjectBase::writeDateTimeItem( const String& rName, const util::DateTime& rDateTime )
{
ItemGuard aItem( mxOut, rName );
mxOut->writeDateTime( rDateTime );
}
void OutputObjectBase::writeGuidItem( const String& rName, const OUString& rGuid )
{
ItemGuard aItem( mxOut, rName );
mxOut->writeString( rGuid );
aItem.cont();
mxOut->writeString( cfg().getStringOption( rGuid, OUString() ) );
}
InputObjectBase::~InputObjectBase()
{
}
void InputObjectBase::construct( const ObjectBase& rParent, const BinaryInputStreamRef& rxStrm, const OUString& rSysFileName )
{
OutputObjectBase::construct( rParent, rSysFileName );
mxStrm = rxStrm;
}
void InputObjectBase::construct( const OutputObjectBase& rParent, const BinaryInputStreamRef& rxStrm )
{
OutputObjectBase::construct( rParent );
mxStrm = rxStrm;
}
void InputObjectBase::construct( const InputObjectBase& rParent )
{
*this = rParent;
}
bool InputObjectBase::implIsValid() const
{
return mxStrm && OutputObjectBase::implIsValid();
}
void InputObjectBase::skipBlock( sal_Int64 nBytes, bool bShowSize )
{
sal_Int64 nEndPos = ::std::min< sal_Int64 >( mxStrm->tell() + nBytes, mxStrm->size() );
if ( mxStrm->tell() < nEndPos )
{
if ( bShowSize )
writeDecItem( "skipped-data-size" , static_cast < sal_uInt64 >( nEndPos - mxStrm->tell() ) );
mxStrm->seek( nEndPos );
}
}
void InputObjectBase::dumpRawBinary( sal_Int64 nBytes, bool bShowOffset, bool bStream )
{
TableGuard aTabGuard( mxOut,
bShowOffset ? 12 : 0 ,
3 * OOX_DUMP_BYTESPERLINE / 2 + 1 ,
3 * OOX_DUMP_BYTESPERLINE / 2 + 1 ,
OOX_DUMP_BYTESPERLINE / 2 + 1 );
sal_Int64 nMaxShowSize = cfg().getIntOption< sal_Int64 >(
bStream ? "max-binary-stream-size" : "max-binary-data-size" , SAL_MAX_INT64 );
bool bSeekable = mxStrm->size() >= 0 ;
sal_Int64 nEndPos = bSeekable ? ::std::min< sal_Int64 >( mxStrm->tell() + nBytes, mxStrm->size() ) : 0 ;
sal_Int64 nDumpEnd = bSeekable ? ::std::min< sal_Int64 >( mxStrm->tell() + nMaxShowSize, nEndPos ) : nMaxShowSize;
sal_Int64 nPos = bSeekable ? mxStrm->tell() : 0 ;
bool bLoop = true ;
while ( bLoop && (nPos < nDumpEnd) )
{
mxOut->writeHex( static_cast < sal_uInt32 >( nPos ) );
mxOut->tab();
sal_uInt8 pnLineData[ OOX_DUMP_BYTESPERLINE ];
sal_Int32 nLineSize = bSeekable ? ::std::min( static_cast < sal_Int32 >( nDumpEnd - mxStrm->tell() ), OOX_DUMP_BYTESPERLINE ) : OOX_DUMP_BYTESPERLINE;
sal_Int32 nReadSize = mxStrm->readMemory( pnLineData, nLineSize );
bLoop = nReadSize == nLineSize;
nPos += nReadSize;
if ( nReadSize > 0 )
{
const sal_uInt8* pnByte = nullptr;
const sal_uInt8* pnEnd = nullptr;
for ( pnByte = pnLineData, pnEnd = pnLineData + nReadSize; pnByte != pnEnd; ++pnByte )
{
if ( (pnByte - pnLineData) == (OOX_DUMP_BYTESPERLINE / 2 ) ) mxOut->tab();
mxOut->writeHex( *pnByte, false );
mxOut->writeChar( ' ' );
}
aTabGuard.tab( 3 );
for ( pnByte = pnLineData, pnEnd = pnLineData + nReadSize; pnByte != pnEnd; ++pnByte )
{
if ( (pnByte - pnLineData) == (OOX_DUMP_BYTESPERLINE / 2 ) ) mxOut->tab();
mxOut->writeChar( static_cast < sal_Unicode >( (*pnByte < 0 x20) ? '.' : *pnByte ) );
}
mxOut->newLine();
}
}
// skip undumped data
if ( bSeekable )
skipBlock( nEndPos - mxStrm->tell() );
}
void InputObjectBase::dumpBinary( const String& rName, sal_Int64 nBytes, bool bShowOffset )
{
{
MultiItemsGuard aMultiGuard( mxOut );
writeEmptyItem( rName );
writeDecItem( "size" , nBytes );
}
IndentGuard aIndGuard( mxOut );
dumpRawBinary( nBytes, bShowOffset );
}
void InputObjectBase::dumpRemaining( sal_Int64 nBytes )
{
if ( nBytes > 0 )
{
if ( cfg().getBoolOption( "show-trailing-unknown" , true ) )
dumpBinary( "remaining-data" , nBytes, false );
else
skipBlock( nBytes );
}
}
void InputObjectBase::dumpRemainingTo( sal_Int64 nPos )
{
if ( mxStrm->isEof() || (mxStrm->tell() > nPos) )
writeInfoItem( "stream-state" , OOX_DUMP_ERR_STREAM );
else
dumpRemaining( nPos - mxStrm->tell() );
mxStrm->seek( nPos );
}
void InputObjectBase::dumpRemainingStream()
{
dumpRemainingTo( mxStrm->size() );
}
void InputObjectBase::dumpArray( const String& rName, sal_Int32 nBytes, sal_Unicode cSep )
{
sal_Int32 nDumpSize = getLimitedValue< sal_Int32, sal_Int64 >( mxStrm->size() - mxStrm->tell(), 0 , nBytes );
if ( nDumpSize > OOX_DUMP_MAXARRAY )
{
dumpBinary( rName, nBytes, false );
}
else if ( nDumpSize > 1 )
{
sal_uInt8 pnData[ OOX_DUMP_MAXARRAY ];
mxStrm->readMemory( pnData, nDumpSize );
writeArrayItem( rName, pnData, nDumpSize, cSep );
}
else if ( nDumpSize == 1 )
dumpHex< sal_uInt8 >( rName );
}
sal_Unicode InputObjectBase::dumpUnicode( const String& rName )
{
sal_uInt16 nChar = mxStrm->readuInt16();
sal_Unicode cChar = static_cast < sal_Unicode >( nChar );
writeCharItem( rName( "char" ), cChar );
return cChar;
}
OUString InputObjectBase::dumpCharArray( const String& rName, sal_Int32 nLen, rtl_TextEncoding eTextEnc, bool bHideTrailingNul )
{
sal_Int32 nDumpSize = getLimitedValue< sal_Int32, sal_Int64 >( mxStrm->size() - mxStrm->tell(), 0 , nLen );
OUString aString;
if ( nDumpSize > 0 )
{
::std::vector< char > aBuffer( static_cast < std::size_t >( nLen ) + 1 );
sal_Int32 nCharsRead = mxStrm->readMemory(aBuffer.data(), nLen);
aBuffer[ nCharsRead ] = 0 ;
aString = OStringToOUString(std::string_view(aBuffer.data()), eTextEnc);
}
if ( bHideTrailingNul )
aString = StringHelper::trimTrailingNul( aString );
writeStringItem( rName( "text" ), aString );
return aString;
}
OUString InputObjectBase::dumpUnicodeArray( const String& rName, sal_Int32 nLen, bool bHideTrailingNul )
{
OUStringBuffer aBuffer;
for ( sal_Int32 nIndex = 0 ; !mxStrm->isEof() && (nIndex < nLen); ++nIndex )
{
aBuffer.append( static_cast < sal_Unicode >( mxStrm->readuInt16() ) );
}
OUString aString = aBuffer.makeStringAndClear();
if ( bHideTrailingNul )
aString = StringHelper::trimTrailingNul( aString );
writeStringItem( rName( "text" ), aString );
return aString;
}
util::DateTime InputObjectBase::dumpFileTime( const String& rName )
{
util::DateTime aDateTime;
ItemGuard aItem( mxOut, rName( "file-time" ) );
sal_Int64 nFileTime = dumpDec< sal_Int64 >( EMPTY_STRING );
// file time is in 10^-7 seconds (100 nanoseconds), convert to nanoseconds
nFileTime *= 100 ;
// entire days
sal_Int64 nDays = nFileTime / sal_Int64( ::tools::Time::nanoSecPerDay );
// number of entire years
sal_Int64 nYears = (nDays - (nDays / (4 * 365 )) + (nDays / (100 * 365 )) - (nDays / (400 * 365 ))) / 365 ;
// remaining days in the year
sal_Int64 nDaysInYear = nDays - (nYears * 365 + nYears / 4 - nYears / 100 + nYears / 400 );
// the year (file dates start from 1601-01-01)
aDateTime.Year = static_cast < sal_uInt16 >( 1601 + nYears );
// leap year?
bool bLeap = ((aDateTime.Year % 4 == 0 ) && (aDateTime.Year % 100 != 0 )) || (aDateTime.Year % 400 == 0 );
// static arrays with number of days in month
static const sal_Int64 spnDaysInMonth[] = { 31 , 28 , 31 , 30 , 31 , 30 , 31 , 31 , 30 , 31 , 30 , 31 };
static const sal_Int64 spnDaysInMonthL[] = { 31 , 29 , 31 , 30 , 31 , 30 , 31 , 31 , 30 , 31 , 30 , 31 };
const sal_Int64* pnDaysInMonth = bLeap ? spnDaysInMonthL : spnDaysInMonth;
// the month
aDateTime.Month = 1 ;
while ( nDaysInYear >= *pnDaysInMonth )
{
nDaysInYear -= *pnDaysInMonth++;
++aDateTime.Month;
}
// the day
aDateTime.Day = static_cast < sal_uInt16 >( nDaysInYear + 1 );
// number of nanoseconds in the day
sal_Int64 nTimeInDay = nFileTime % sal_Int64( ::tools::Time::nanoSecPerDay );
// nanoseconds
aDateTime.NanoSeconds = static_cast < sal_uInt32 >( nTimeInDay % ::tools::Time::nanoSecPerSec );
nTimeInDay /= ::tools::Time::nanoSecPerSec;
// seconds
aDateTime.Seconds = static_cast < sal_uInt16 >( nTimeInDay % ::tools::Time::secondPerMinute );
nTimeInDay /= ::tools::Time::secondPerMinute;
// minutes
aDateTime.Minutes = static_cast < sal_uInt16 >( nTimeInDay % ::tools::Time::minutePerHour );
nTimeInDay /= ::tools::Time::minutePerHour;
// hours
aDateTime.Hours = static_cast < sal_uInt16 >( nTimeInDay );
writeDateTimeItem( EMPTY_STRING, aDateTime );
return aDateTime;
}
OUString InputObjectBase::dumpGuid( const String& rName )
{
OUStringBuffer aBuffer;
sal_uInt32 nData32;
sal_uInt16 nData16;
sal_uInt8 nData8;
nData32 = mxStrm->readuInt32();
StringHelper::appendHex( aBuffer, nData32, false );
aBuffer.append( '-' );
nData16 = mxStrm->readuInt16();
StringHelper::appendHex( aBuffer, nData16, false );
aBuffer.append( '-' );
nData16 = mxStrm->readuInt16();
StringHelper::appendHex( aBuffer, nData16, false );
aBuffer.append( '-' );
nData8 = mxStrm->readuChar();
StringHelper::appendHex( aBuffer, nData8, false );
nData8 = mxStrm->readuChar( );
StringHelper::appendHex( aBuffer, nData8, false );
aBuffer.append( '-' );
for ( int nIndex = 0 ; nIndex < 6 ; ++nIndex )
{
nData8 = mxStrm->readuChar( );
StringHelper::appendHex( aBuffer, nData8, false );
}
StringHelper::enclose( aBuffer, '{' , '}' );
OUString aGuid = aBuffer.makeStringAndClear();
writeGuidItem( rName( "guid" ), aGuid );
return aGuid;
}
void InputObjectBase::dumpItem( const ItemFormat& rItemFmt )
{
switch ( rItemFmt.meDataType )
{
case DATATYPE_VOID: break ;
case DATATYPE_INT8: dumpValue< sal_Int8 >( rItemFmt ); break ;
case DATATYPE_UINT8: dumpValue< sal_uInt8 >( rItemFmt ); break ;
case DATATYPE_INT16: dumpValue< sal_Int16 >( rItemFmt ); break ;
case DATATYPE_UINT16: dumpValue< sal_uInt16 >( rItemFmt ); break ;
case DATATYPE_INT32: dumpValue< sal_Int32 >( rItemFmt ); break ;
case DATATYPE_UINT32: dumpValue< sal_uInt32 >( rItemFmt ); break ;
case DATATYPE_INT64: dumpValue< sal_Int64 >( rItemFmt ); break ;
case DATATYPE_UINT64: dumpValue< sal_uInt64 >( rItemFmt ); break ;
case DATATYPE_FLOAT: dumpValue< float >( rItemFmt ); break ;
case DATATYPE_DOUBLE: dumpValue< double >( rItemFmt ); break ;
default :;
}
}
BinaryStreamObject::BinaryStreamObject( const ObjectBase& rParent, const BinaryInputStreamRef& rxStrm, const OUString& rSysFileName )
{
InputObjectBase::construct( rParent, rxStrm, rSysFileName );
}
void BinaryStreamObject::dumpBinaryStream( bool bShowOffset )
{
mxStrm->seekToStart();
dumpRawBinary( mxStrm->size(), bShowOffset, true );
mxOut->emptyLine();
}
void BinaryStreamObject::implDump()
{
dumpBinaryStream();
}
void TextStreamObjectBase::construct( const ObjectBase& rParent,
const BinaryInputStreamRef& rxStrm, rtl_TextEncoding eTextEnc, const OUString& rSysFileName )
{
InputObjectBase::construct( rParent, rxStrm, rSysFileName );
constructTextStrmObj( eTextEnc );
}
void TextStreamObjectBase::construct( const OutputObjectBase& rParent,
const BinaryInputStreamRef& rxStrm, rtl_TextEncoding eTextEnc )
{
InputObjectBase::construct( rParent, rxStrm );
constructTextStrmObj( eTextEnc );
}
bool TextStreamObjectBase::implIsValid() const
{
return InputObjectBase::implIsValid() && mxTextStrm;
}
void TextStreamObjectBase::implDump()
{
implDumpText( *mxTextStrm );
}
void TextStreamObjectBase::constructTextStrmObj( rtl_TextEncoding eTextEnc )
{
if ( mxStrm )
mxTextStrm = std::make_shared<TextInputStream>( getContext(), *mxStrm, eTextEnc );
}
TextLineStreamObject::TextLineStreamObject( const ObjectBase& rParent,
const BinaryInputStreamRef& rxStrm, rtl_TextEncoding eTextEnc, const OUString& rSysFileName )
{
TextStreamObjectBase::construct( rParent, rxStrm, eTextEnc, rSysFileName );
}
TextLineStreamObject::TextLineStreamObject( const OutputObjectBase& rParent,
const BinaryInputStreamRef& rxStrm, rtl_TextEncoding eTextEnc )
{
TextStreamObjectBase::construct( rParent, rxStrm, eTextEnc );
}
void TextLineStreamObject::implDumpText( TextInputStream& rTextStrm )
{
sal_uInt32 nLine = 0 ;
while ( !rTextStrm.isEof() )
{
OUString aLine = rTextStrm.readLine();
if ( !rTextStrm.isEof() || !aLine.isEmpty() )
implDumpLine( aLine, ++nLine );
}
}
void TextLineStreamObject::implDumpLine( std::u16string_view rLine, sal_uInt32 nLine )
{
TableGuard aTabGuard( mxOut, 8 );
mxOut->writeDec( nLine, 6 );
mxOut->tab();
mxOut->writeString( rLine );
mxOut->newLine();
}
XmlStreamObject::XmlStreamObject( const ObjectBase& rParent,
const BinaryInputStreamRef& rxStrm, const OUString& rSysFileName )
{
TextStreamObjectBase::construct( rParent, rxStrm, RTL_TEXTENCODING_UTF8, rSysFileName );
}
void XmlStreamObject::implDumpText( TextInputStream& rTextStrm )
{
/* Buffers a start element and the following element text. Needed to dump
matching start/end elements and the element text on the same line. */
OUStringBuffer aOldStartElem;
// special handling for VML
bool bIsVml = o3tl::equalsIgnoreAsciiCase(InputOutputHelper::getFileNameExtension( maSysFileName ), u"vml" );
while ( !rTextStrm.isEof() )
{
// get the next element and the following element text from text stream
OUString aElem = rTextStrm.readToChar( '>' , true ).trim();
OUString aText = rTextStrm.readToChar( '<' , false );
// remove multiple whitespace from element
sal_Int32 nPos = 0 ;
while ( nPos < aElem.getLength() )
{
while ( (nPos < aElem.getLength()) && (aElem[ nPos ] >= 32 ) ) ++nPos;
if ( nPos < aElem.getLength() )
aElem = aElem.subView( 0 , nPos ) + OUStringChar(' ' ) + o3tl::trim(aElem.subView( nPos ));
++nPos;
}
sal_Int32 nElemLen = aElem.getLength();
if ( (nElemLen >= 2 ) && (aElem[ 0 ] == '<' ) && (aElem[ nElemLen - 1 ] == '>' ) )
{
// determine type of the element
bool bSimpleElem = (aElem[ 1 ] == '!' ) || (aElem[ 1 ] == '?' ) || (aElem[ nElemLen - 2 ] == '/' ) ||
(bIsVml && (nElemLen == 4 ) && (aElem[ 1 ] == 'b' ) && (aElem[ 2 ] == 'r' ));
bool bStartElem = !bSimpleElem && (aElem[ 1 ] != '/' );
bool bEndElem = !bSimpleElem && !bStartElem;
/* Start element or simple element: flush old start element and
its text from previous iteration , and start a new indentation
level for the new element . Trim whitespace and line breaks from
the text of the old start element. */
if ( (bSimpleElem || bStartElem) && (aOldStartElem.getLength() > 0 ) )
{
mxOut->writeString( o3tl::trim(aOldStartElem.makeStringAndClear()) );
mxOut->newLine();
mxOut->incIndent();
}
/* Start element: remember it and its text, to be able to print the
matching end element on the same line in the next iteration. */
if ( bStartElem )
{
aOldStartElem.append( aElem + aText );
}
else
{
/* End element: if a start element has been remembered in the
previous iteration , write it out here untrimmed , to show
all whitespace in the element text , and without trailing
line break . Code below will add the end element right after
it. Otherwise, return to previous indentation level. */
if ( bEndElem )
{
if ( aOldStartElem.getLength() == 0 )
mxOut->decIndent();
else
mxOut->writeString( aOldStartElem.makeStringAndClear() );
}
/* Write the element. Write following element text in a new
line , but only , if it does not contain of white space
entirely. */
mxOut->writeString( aElem );
mxOut->newLine();
if ( !o3tl::trim(aText).empty() )
{
mxOut->writeString( aText );
mxOut->newLine();
}
}
}
}
}
void RecordObjectBase::construct( const ObjectBase& rParent,
const BinaryInputStreamRef& rxBaseStrm, const OUString& rSysFileName,
const BinaryInputStreamRef& rxRecStrm, const String& rRecNames, const String& rSimpleRecs )
{
InputObjectBase::construct( rParent, rxRecStrm, rSysFileName );
constructRecObjBase( rxBaseStrm, rRecNames, rSimpleRecs );
}
bool RecordObjectBase::implIsValid() const
{
return mxBaseStrm && InputObjectBase::implIsValid();
}
void RecordObjectBase::implDump()
{
NameListRef xRecNames = maRecNames.getNameList( cfg() );
ItemFormatMap aSimpleRecs( maSimpleRecs.getNameList( cfg() ) );
while ( implStartRecord( *mxBaseStrm, mnRecPos, mnRecId, mnRecSize ) )
{
// record header
mxOut->emptyLine();
writeHeader();
implWriteExtHeader();
IndentGuard aIndGuard( mxOut );
sal_Int64 nRecPos = mxStrm->tell();
// record body
if ( !mbBinaryOnly && cfg().hasName( xRecNames, mnRecId ) )
{
::std::map< sal_Int64, ItemFormat >::const_iterator aIt = aSimpleRecs.find( mnRecId );
if ( aIt != aSimpleRecs.end() )
dumpItem( aIt->second );
else
implDumpRecordBody();
}
// remaining undumped data
if ( !mxStrm->isEof() && (mxStrm->tell() == nRecPos) )
dumpRawBinary( mnRecSize, false );
else
dumpRemainingTo( nRecPos + mnRecSize );
}
}
void RecordObjectBase::implWriteExtHeader()
{
}
void RecordObjectBase::implDumpRecordBody()
{
}
void RecordObjectBase::constructRecObjBase( const BinaryInputStreamRef& rxBaseStrm, const String& rRecNames, const String& rSimpleRecs )
{
mxBaseStrm = rxBaseStrm;
maRecNames = rRecNames;
maSimpleRecs = rSimpleRecs;
mnRecPos = mnRecId = mnRecSize = 0 ;
mbBinaryOnly = false ;
if ( InputObjectBase::implIsValid() )
mbShowRecPos = cfg().getBoolOption( "show-record-position" , true );
}
void RecordObjectBase::writeHeader()
{
MultiItemsGuard aMultiGuard( mxOut );
writeEmptyItem( "REC" );
if ( mbShowRecPos && mxBaseStrm->isSeekable() )
writeShortHexItem( "pos" , mnRecPos, "CONV-DEC" );
writeShortHexItem( "size" , mnRecSize, "CONV-DEC" );
ItemGuard aItem( mxOut, "id" );
mxOut->writeShortHex( mnRecId );
addNameToItem( mnRecId, "CONV-DEC" );
addNameToItem( mnRecId, maRecNames );
}
void SequenceRecordObjectBase::construct( const ObjectBase& rParent,
const BinaryInputStreamRef& rxBaseStrm, const OUString& rSysFileName,
const String& rRecNames, const String& rSimpleRecs )
{
BinaryInputStreamRef xRecStrm( std::make_shared<SequenceInputStream>( *mxRecData ) );
RecordObjectBase::construct( rParent, rxBaseStrm, rSysFileName, xRecStrm, rRecNames, rSimpleRecs );
}
bool SequenceRecordObjectBase::implStartRecord( BinaryInputStream& rBaseStrm, sal_Int64& ornRecPos, sal_Int64& ornRecId, sal_Int64& ornRecSize )
{
bool bValid = true ;
if ( rBaseStrm.isSeekable() )
{
ornRecPos = rBaseStrm.tell();
// do not try to overread seekable streams, may cause assertions
bValid = ornRecPos < rBaseStrm.size();
}
// read the record header
if ( bValid )
bValid = implReadRecordHeader( rBaseStrm, ornRecId, ornRecSize ) && !rBaseStrm.isEof() && (0 <= ornRecSize) && (ornRecSize <= 0 x00100000);
// read record contents into data sequence
if ( bValid )
{
sal_Int32 nRecSize = static_cast < sal_Int32 >( ornRecSize );
mxRecData->realloc( nRecSize );
bValid = (nRecSize == 0 ) || (rBaseStrm.readData( *mxRecData, nRecSize ) == nRecSize);
mxStrm->seekToStart();
}
return bValid;
}
DumperBase::~DumperBase()
{
}
bool DumperBase::isImportEnabled() const
{
return !isValid() || cfg().isImportEnabled();
}
void DumperBase::construct( const ConfigRef& rxConfig )
{
if ( isValid( rxConfig ) && rxConfig->isDumperEnabled() )
ObjectBase::construct( rxConfig );
}
} // namespace oox
#endif
/* vim:set shiftwidth=4 softtabstop=4 expandtab: */
Messung V0.5 in Prozent C=95 H=93 G=93
¤ Dauer der Verarbeitung: 0.33 Sekunden
(vorverarbeitet am 2026-06-10)
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