void encode(NCompress::NLzma::CEncoder *encoderSpec,
CMyComPtr<ISequentialInStream> inStream,
CMyComPtr<ISequentialOutStream> outStream,
lzma_option encoder_options,
UInt64 fileSize)
{
set_encoder_properties(encoderSpec, encoder_options);
encoderSpec->WriteCoderProperties(outStream);
for (int i = 0; i < 8; i++)
{
Byte b = Byte(fileSize >> (8 * i));
if (outStream->Write(&b, sizeof(b), 0) != S_OK)
throw Exception("Write error while encoding");
}
HRESULT result = encoderSpec->Code(inStream, outStream, 0, 0, 0);
if (result == E_OUTOFMEMORY)
throw Exception("Cannot allocate memory");
else if (result != S_OK) {
char buffer[33];
snprintf(buffer, 33, "%d", (unsigned int)result);
throw Exception(string("Encoder error: ") + buffer);
}
}
STDMETHODIMP COutVolumeStream::Write(const void *data, UInt32 size, UInt32 *processedSize)
{
if(processedSize != NULL)
*processedSize = 0;
while(size > 0)
{
if (!_volumeStream)
{
RINOK(VolumeCallback->GetVolumeSize(_volIndex, &_volSize));
RINOK(VolumeCallback->GetVolumeStream(_volIndex, &_volumeStream));
_volIndex++;
_curPos = 0;
RINOK(_archive.Create(_volumeStream, true));
RINOK(_archive.SkeepPrefixArchiveHeader());
_crc.Init();
continue;
}
UInt64 pureSize = COutArchive::GetVolPureSize(_volSize, _file.Name.Length());
UInt32 curSize = (UInt32)MyMin(UInt64(size), pureSize - _curPos);
_crc.Update(data, curSize);
UInt32 realProcessed;
RINOK(_volumeStream->Write(data, curSize, &realProcessed))
data = (void *)((Byte *)data + realProcessed);
size -= realProcessed;
if(processedSize != NULL)
*processedSize += realProcessed;
_curPos += realProcessed;
if (realProcessed != curSize && realProcessed == 0)
return E_FAIL;
if (_curPos == pureSize)
{
RINOK(Flush());
}
}
return S_OK;
}
STDMETHODIMP CFolderOutStream2::Write(const void *data, UInt32 size, UInt32 *processedSize)
{
if (processedSize != NULL)
*processedSize = 0;
while (size != 0)
{
if (_fileIsOpen)
{
UInt32 cur = size < _rem ? size : (UInt32)_rem;
RINOK(_crcStream->Write(data, cur, &cur));
if (cur == 0)
break;
data = (const Byte *)data + cur;
size -= cur;
_rem -= cur;
if (processedSize != NULL)
*processedSize += cur;
if (_rem == 0)
{
RINOK(CloseFileAndSetResult());
RINOK(ProcessEmptyFiles());
continue;
}
}
else
{
RINOK(ProcessEmptyFiles());
if (_currentIndex == _extractStatuses->Size())
{
// we don't support partial extracting
return E_FAIL;
}
OpenFile();
}
}
return S_OK;
}
int main2(int n, const char *args[])
{
#ifdef _WIN32
g_IsNT = IsItWindowsNT();
#endif
fprintf(stderr, "\nLZMA " MY_VERSION_COPYRIGHT_DATE "\n");
if (n == 1)
{
PrintHelp();
return 0;
}
bool unsupportedTypes = (sizeof(Byte) != 1 || sizeof(UInt32) < 4 || sizeof(UInt64) < 4);
if (unsupportedTypes)
{
fprintf(stderr, "Unsupported base types. Edit Common/Types.h and recompile");
return 1;
}
UStringVector commandStrings;
WriteArgumentsToStringList(n, args, commandStrings);
CParser parser(kNumSwitches);
try
{
parser.ParseStrings(kSwitchForms, commandStrings);
}
catch(...)
{
IncorrectCommand();
}
if(parser[NKey::kHelp1].ThereIs || parser[NKey::kHelp2].ThereIs)
{
PrintHelp();
return 0;
}
const UStringVector &nonSwitchStrings = parser.NonSwitchStrings;
int paramIndex = 0;
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &command = nonSwitchStrings[paramIndex++];
bool dictionaryIsDefined = false;
UInt32 dictionary = (UInt32)-1;
if(parser[NKey::kDictionary].ThereIs)
{
UInt32 dicLog;
if (!GetNumber(parser[NKey::kDictionary].PostStrings[0], dicLog))
IncorrectCommand();
dictionary = 1 << dicLog;
dictionaryIsDefined = true;
}
UString mf = L"BT4";
if (parser[NKey::kMatchFinder].ThereIs)
mf = parser[NKey::kMatchFinder].PostStrings[0];
UInt32 numThreads = (UInt32)-1;
#ifdef COMPRESS_MF_MT
if (parser[NKey::kMultiThread].ThereIs)
{
UInt32 numCPUs = NWindows::NSystem::GetNumberOfProcessors();
const UString &s = parser[NKey::kMultiThread].PostStrings[0];
if (s.IsEmpty())
numThreads = numCPUs;
else
if (!GetNumber(s, numThreads))
IncorrectCommand();
}
#endif
if (command.CompareNoCase(L"b") == 0)
{
const UInt32 kNumDefaultItereations = 1;
UInt32 numIterations = kNumDefaultItereations;
{
if (paramIndex < nonSwitchStrings.Size())
if (!GetNumber(nonSwitchStrings[paramIndex++], numIterations))
numIterations = kNumDefaultItereations;
}
return LzmaBenchCon(stderr, numIterations, numThreads, dictionary);
}
if (numThreads == (UInt32)-1)
numThreads = 1;
bool encodeMode = false;
if (command.CompareNoCase(L"e") == 0)
encodeMode = true;
else if (command.CompareNoCase(L"d") == 0)
encodeMode = false;
else
IncorrectCommand();
bool stdInMode = parser[NKey::kStdIn].ThereIs;
bool stdOutMode = parser[NKey::kStdOut].ThereIs;
CMyComPtr<ISequentialInStream> inStream;
CInFileStream *inStreamSpec = 0;
if (stdInMode)
{
inStream = new CStdInFileStream;
MY_SET_BINARY_MODE(stdin);
}
else
{
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &inputName = nonSwitchStrings[paramIndex++];
inStreamSpec = new CInFileStream;
inStream = inStreamSpec;
if (!inStreamSpec->Open(GetSystemString(inputName)))
{
fprintf(stderr, "\nError: can not open input file %s\n",
(const char *)GetOemString(inputName));
return 1;
}
}
CMyComPtr<ISequentialOutStream> outStream;
COutFileStream *outStreamSpec = NULL;
if (stdOutMode)
{
outStream = new CStdOutFileStream;
MY_SET_BINARY_MODE(stdout);
}
else
{
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &outputName = nonSwitchStrings[paramIndex++];
outStreamSpec = new COutFileStream;
outStream = outStreamSpec;
if (!outStreamSpec->Create(GetSystemString(outputName), true))
{
fprintf(stderr, "\nError: can not open output file %s\n",
(const char *)GetOemString(outputName));
return 1;
}
}
if (parser[NKey::kFilter86].ThereIs)
{
// -f86 switch is for x86 filtered mode: BCJ + LZMA.
if (parser[NKey::kEOS].ThereIs || stdInMode)
throw "Can not use stdin in this mode";
UInt64 fileSize;
inStreamSpec->File.GetLength(fileSize);
if (fileSize > 0xF0000000)
throw "File is too big";
UInt32 inSize = (UInt32)fileSize;
Byte *inBuffer = 0;
if (inSize != 0)
{
inBuffer = (Byte *)MyAlloc((size_t)inSize);
if (inBuffer == 0)
throw kCantAllocate;
}
UInt32 processedSize;
if (ReadStream(inStream, inBuffer, (UInt32)inSize, &processedSize) != S_OK)
throw "Can not read";
if ((UInt32)inSize != processedSize)
throw "Read size error";
Byte *outBuffer = 0;
size_t outSizeProcessed;
if (encodeMode)
{
// we allocate 105% of original size for output buffer
size_t outSize = (size_t)fileSize / 20 * 21 + (1 << 16);
if (outSize != 0)
{
outBuffer = (Byte *)MyAlloc((size_t)outSize);
if (outBuffer == 0)
throw kCantAllocate;
}
if (!dictionaryIsDefined)
dictionary = 1 << 23;
int res = LzmaRamEncode(inBuffer, inSize, outBuffer, outSize, &outSizeProcessed,
dictionary, parser[NKey::kFilter86].PostCharIndex == 0 ? SZ_FILTER_YES : SZ_FILTER_AUTO);
if (res != 0)
{
fprintf(stderr, "\nEncoder error = %d\n", (int)res);
return 1;
}
}
else
{
size_t outSize;
if (LzmaRamGetUncompressedSize(inBuffer, inSize, &outSize) != 0)
throw "data error";
if (outSize != 0)
{
outBuffer = (Byte *)MyAlloc(outSize);
if (outBuffer == 0)
throw kCantAllocate;
}
int res = LzmaRamDecompress(inBuffer, inSize, outBuffer, outSize, &outSizeProcessed, malloc, free);
if (res != 0)
throw "LzmaDecoder error";
}
if (WriteStream(outStream, outBuffer, (UInt32)outSizeProcessed, &processedSize) != S_OK)
throw kWriteError;
MyFree(outBuffer);
MyFree(inBuffer);
return 0;
}
UInt64 fileSize;
if (encodeMode)
{
NCompress::NLZMA::CEncoder *encoderSpec = new NCompress::NLZMA::CEncoder;
CMyComPtr<ICompressCoder> encoder = encoderSpec;
if (!dictionaryIsDefined)
dictionary = 1 << 23;
UInt32 posStateBits = 2;
UInt32 litContextBits = 3; // for normal files
// UInt32 litContextBits = 0; // for 32-bit data
UInt32 litPosBits = 0;
// UInt32 litPosBits = 2; // for 32-bit data
UInt32 algorithm = 1;
UInt32 numFastBytes = 128;
UInt32 matchFinderCycles = 16 + numFastBytes / 2;
bool matchFinderCyclesDefined = false;
bool eos = parser[NKey::kEOS].ThereIs || stdInMode;
if(parser[NKey::kMode].ThereIs)
if (!GetNumber(parser[NKey::kMode].PostStrings[0], algorithm))
IncorrectCommand();
if(parser[NKey::kFastBytes].ThereIs)
if (!GetNumber(parser[NKey::kFastBytes].PostStrings[0], numFastBytes))
IncorrectCommand();
matchFinderCyclesDefined = parser[NKey::kMatchFinderCycles].ThereIs;
if (matchFinderCyclesDefined)
if (!GetNumber(parser[NKey::kMatchFinderCycles].PostStrings[0], matchFinderCycles))
IncorrectCommand();
if(parser[NKey::kLitContext].ThereIs)
if (!GetNumber(parser[NKey::kLitContext].PostStrings[0], litContextBits))
IncorrectCommand();
if(parser[NKey::kLitPos].ThereIs)
if (!GetNumber(parser[NKey::kLitPos].PostStrings[0], litPosBits))
IncorrectCommand();
if(parser[NKey::kPosBits].ThereIs)
if (!GetNumber(parser[NKey::kPosBits].PostStrings[0], posStateBits))
IncorrectCommand();
PROPID propIDs[] =
{
NCoderPropID::kDictionarySize,
NCoderPropID::kPosStateBits,
NCoderPropID::kLitContextBits,
NCoderPropID::kLitPosBits,
NCoderPropID::kAlgorithm,
NCoderPropID::kNumFastBytes,
NCoderPropID::kMatchFinder,
NCoderPropID::kEndMarker,
NCoderPropID::kNumThreads,
NCoderPropID::kMatchFinderCycles,
};
const int kNumPropsMax = sizeof(propIDs) / sizeof(propIDs[0]);
PROPVARIANT properties[kNumPropsMax];
for (int p = 0; p < 6; p++)
properties[p].vt = VT_UI4;
properties[0].ulVal = (UInt32)dictionary;
properties[1].ulVal = (UInt32)posStateBits;
properties[2].ulVal = (UInt32)litContextBits;
properties[3].ulVal = (UInt32)litPosBits;
properties[4].ulVal = (UInt32)algorithm;
properties[5].ulVal = (UInt32)numFastBytes;
properties[6].vt = VT_BSTR;
properties[6].bstrVal = (BSTR)(const wchar_t *)mf;
properties[7].vt = VT_BOOL;
properties[7].boolVal = eos ? VARIANT_TRUE : VARIANT_FALSE;
properties[8].vt = VT_UI4;
properties[8].ulVal = (UInt32)numThreads;
// it must be last in property list
properties[9].vt = VT_UI4;
properties[9].ulVal = (UInt32)matchFinderCycles;
int numProps = kNumPropsMax;
if (!matchFinderCyclesDefined)
numProps--;
if (encoderSpec->SetCoderProperties(propIDs, properties, numProps) != S_OK)
IncorrectCommand();
encoderSpec->WriteCoderProperties(outStream);
if (eos || stdInMode)
fileSize = (UInt64)(Int64)-1;
else
inStreamSpec->File.GetLength(fileSize);
for (int i = 0; i < 8; i++)
{
Byte b = Byte(fileSize >> (8 * i));
if (outStream->Write(&b, 1, 0) != S_OK)
{
fprintf(stderr, kWriteError);
return 1;
}
}
HRESULT result = encoder->Code(inStream, outStream, 0, 0, 0);
if (result == E_OUTOFMEMORY)
{
fprintf(stderr, "\nError: Can not allocate memory\n");
return 1;
}
else if (result != S_OK)
{
fprintf(stderr, "\nEncoder error = %X\n", (unsigned int)result);
return 1;
}
}
else
{
unsigned char *LZMAEncodeData ( unsigned char *fromData, long fromSize, long &toSize, CProgressInfo7Zip *progress )
{
bool eos = false;
CMyComPtr<ISequentialInStream> inStream;
CInDataStream *inStreamSpec = new CInDataStream;
inStream = inStreamSpec;
inStreamSpec->LoadData ( fromData, fromSize );
CMyComPtr<ISequentialOutStream> outStream;
COutDataStream *outStreamSpec = new COutDataStream;
outStream = outStreamSpec;
outStreamSpec->Create ( toSize );
NCompress::NLZMA::CEncoder *encoderSpec = new NCompress::NLZMA::CEncoder;
CMyComPtr<ICompressCoder> encoder = encoderSpec;
UInt32 dictionary = 1 << 21;
UInt32 posStateBits = 2;
UInt32 litContextBits = 3; // for normal files
// UInt32 litContextBits = 0; // for 32-bit data
UInt32 litPosBits = 0;
// UInt32 litPosBits = 2; // for 32-bit data
UInt32 algorithm = 2;
UInt32 numFastBytes = 128;
UInt32 matchFinderCycles = 16 + numFastBytes / 2;
bool matchFinderCyclesDefined = false;
//bool eos = parser[NKey::kEOS].ThereIs || stdInMode;
PROPID propIDs[] =
{
NCoderPropID::kDictionarySize,
NCoderPropID::kPosStateBits,
NCoderPropID::kLitContextBits,
NCoderPropID::kLitPosBits,
NCoderPropID::kAlgorithm,
NCoderPropID::kNumFastBytes,
NCoderPropID::kMatchFinder,
NCoderPropID::kEndMarker,
NCoderPropID::kMatchFinderCycles
};
const int kNumPropsMax = sizeof(propIDs) / sizeof(propIDs[0]);
UString mf = L"BT4";
PROPVARIANT properties[kNumPropsMax];
for (int p = 0; p < 6; p++)
properties[p].vt = VT_UI4;
properties[0].ulVal = UInt32(dictionary);
properties[1].ulVal = UInt32(posStateBits);
properties[2].ulVal = UInt32(litContextBits);
properties[3].ulVal = UInt32(litPosBits);
properties[4].ulVal = UInt32(algorithm);
properties[5].ulVal = UInt32(numFastBytes);
properties[8].vt = VT_UI4;
properties[8].ulVal = UInt32(matchFinderCycles);
properties[6].vt = VT_BSTR;
properties[6].bstrVal = (BSTR)(const wchar_t *)mf;
properties[7].vt = VT_BOOL;
properties[7].boolVal = eos ? VARIANT_TRUE : VARIANT_FALSE;
int numProps = kNumPropsMax;
if (!matchFinderCyclesDefined)
numProps--;
if ( encoderSpec->SetCoderProperties(propIDs, properties, numProps) != S_OK )
return NULL;
encoderSpec->WriteCoderProperties(outStream);
UInt64 fileSize = 0;
inStreamSpec->GetSize ( &fileSize );
for (int i = 0; i < 8; i++)
{
Byte b = Byte(fileSize >> (8 * i));
if (outStream->Write(&b, 1, 0) != S_OK)
return NULL;
}
// CProgressInfo *progressInfoSpec = new CProgressInfo;
//CMyComPtr<ICompressProgressInfo> progressInfo = progress;
if ( progress )
{
progress->ApprovedStart = 1 << 21;
progress->SetMax ( fileSize );
progress->SetIn ( true );
}
HRESULT result = encoder->Code(inStream, outStream, 0, 0, progress );
// delete progressInfo;
if (result == E_OUTOFMEMORY)
return NULL;
else if (result != S_OK)
return NULL;
toSize = outStreamSpec->GetCurrentSize();
return outStreamSpec->GetData ();
}
// This is Write function
HRESULT CFolderOutStream::Write2(const void *data, UInt32 size, UInt32 *processedSize, bool isOK)
{
COM_TRY_BEGIN
UInt32 realProcessed = 0;
if (processedSize != NULL)
*processedSize = 0;
while (size != 0)
{
if (m_FileIsOpen)
{
UInt32 numBytesToWrite = MyMin(m_RemainFileSize, size);
HRESULT res = S_OK;
if (numBytesToWrite > 0)
{
if (!isOK)
m_IsOk = false;
if (m_RealOutStream)
{
UInt32 processedSizeLocal = 0;
res = m_RealOutStream->Write((const Byte *)data, numBytesToWrite, &processedSizeLocal);
numBytesToWrite = processedSizeLocal;
}
if (TempBufMode && TempBuf)
memcpy(TempBuf + (m_PosInFolder - m_BufStartFolderOffset), data, numBytesToWrite);
}
realProcessed += numBytesToWrite;
if (processedSize != NULL)
*processedSize = realProcessed;
data = (const void *)((const Byte *)data + numBytesToWrite);
size -= numBytesToWrite;
m_RemainFileSize -= numBytesToWrite;
m_PosInFolder += numBytesToWrite;
if (res != S_OK)
return res;
if (m_RemainFileSize == 0)
{
RINOK(CloseFile());
while (NumIdenticalFiles)
{
HRESULT result = OpenFile();
m_FileIsOpen = true;
m_CurrentIndex++;
if (result == S_OK && m_RealOutStream && TempBuf)
result = WriteStream(m_RealOutStream, TempBuf, (size_t)(m_PosInFolder - m_BufStartFolderOffset));
if (!TempBuf && TempBufMode && m_RealOutStream)
{
RINOK(CloseFileWithResOp(NExtract::NOperationResult::kUnSupportedMethod));
}
else
{
RINOK(CloseFile());
}
RINOK(result);
}
TempBufMode = false;
}
if (realProcessed > 0)
break; // with this break this function works as Write-Part
}
else
{
if (m_CurrentIndex >= m_ExtractStatuses->Size())
return E_FAIL;
const CMvItem &mvItem = m_Database->Items[m_StartIndex + m_CurrentIndex];
const CItem &item = m_Database->Volumes[mvItem.VolumeIndex].Items[mvItem.ItemIndex];
m_RemainFileSize = item.Size;
UInt32 fileOffset = item.Offset;
if (fileOffset < m_PosInFolder)
return E_FAIL;
if (fileOffset > m_PosInFolder)
{
UInt32 numBytesToWrite = MyMin(fileOffset - (UInt32)m_PosInFolder, size);
realProcessed += numBytesToWrite;
if (processedSize != NULL)
*processedSize = realProcessed;
data = (const void *)((const Byte *)data + numBytesToWrite);
size -= numBytesToWrite;
m_PosInFolder += numBytesToWrite;
}
if (fileOffset == m_PosInFolder)
{
RINOK(OpenFile());
m_FileIsOpen = true;
m_CurrentIndex++;
m_IsOk = true;
}
}
}
return WriteEmptyFiles();
COM_TRY_END
}
int main2(int numArgs, const char *args[])
{
NT_CHECK
PrintMessage("\nLZMA " MY_VERSION_COPYRIGHT_DATE "\n");
if (numArgs == 1)
{
PrintHelp();
return 0;
}
bool unsupportedTypes = (sizeof(Byte) != 1 || sizeof(UInt32) < 4 || sizeof(UInt64) < 4);
if (unsupportedTypes)
{
PrintMessage("Unsupported base types. Edit Common/Types.h and recompile");
return 1;
}
UStringVector commandStrings;
WriteArgumentsToStringList(numArgs, args, commandStrings);
CParser parser(kNumSwitches);
try
{
parser.ParseStrings(kSwitchForms, commandStrings);
}
catch(...)
{
IncorrectCommand();
}
if (parser[NKey::kHelp1].ThereIs || parser[NKey::kHelp2].ThereIs)
{
PrintHelp();
return 0;
}
const UStringVector &nonSwitchStrings = parser.NonSwitchStrings;
int paramIndex = 0;
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &command = nonSwitchStrings[paramIndex++];
CObjectVector<CProperty> props;
bool dictDefined = false;
UInt32 dict = (UInt32)(Int32)-1;
if (parser[NKey::kDict].ThereIs)
{
UInt32 dicLog;
const UString &s = parser[NKey::kDict].PostStrings[0];
if (!GetNumber(s, dicLog))
IncorrectCommand();
dict = 1 << dicLog;
dictDefined = true;
CProperty prop;
prop.Name = L"d";
prop.Value = s;
props.Add(prop);
}
if (parser[NKey::kLevel].ThereIs)
{
UInt32 level = 5;
const UString &s = parser[NKey::kLevel].PostStrings[0];
if (!GetNumber(s, level))
IncorrectCommand();
CProperty prop;
prop.Name = L"x";
prop.Value = s;
props.Add(prop);
}
UString mf = L"BT4";
if (parser[NKey::kMatchFinder].ThereIs)
mf = parser[NKey::kMatchFinder].PostStrings[0];
UInt32 numThreads = (UInt32)(Int32)-1;
#ifndef _7ZIP_ST
if (parser[NKey::kMultiThread].ThereIs)
{
UInt32 numCPUs = NWindows::NSystem::GetNumberOfProcessors();
const UString &s = parser[NKey::kMultiThread].PostStrings[0];
if (s.IsEmpty())
numThreads = numCPUs;
else
if (!GetNumber(s, numThreads))
IncorrectCommand();
CProperty prop;
prop.Name = L"mt";
prop.Value = s;
props.Add(prop);
}
#endif
if (parser[NKey::kMethod].ThereIs)
{
UString s = parser[NKey::kMethod].PostStrings[0];
if (s.IsEmpty() || s[0] != '=')
IncorrectCommand();
CProperty prop;
prop.Name = L"m";
prop.Value = s.Mid(1);
props.Add(prop);
}
if (command.CompareNoCase(L"b") == 0)
{
const UInt32 kNumDefaultItereations = 1;
UInt32 numIterations = kNumDefaultItereations;
{
if (paramIndex < nonSwitchStrings.Size())
if (!GetNumber(nonSwitchStrings[paramIndex++], numIterations))
numIterations = kNumDefaultItereations;
}
HRESULT res = BenchCon(props, numIterations, stderr);
if (res != S_OK)
{
if (res != E_ABORT)
{
PrintMessage("Benchmark Error");
return 1;
}
}
return 0;
}
if (numThreads == (UInt32)(Int32)-1)
numThreads = 1;
bool encodeMode = false;
if (command.CompareNoCase(L"e") == 0)
encodeMode = true;
else if (command.CompareNoCase(L"d") == 0)
encodeMode = false;
else
IncorrectCommand();
bool stdInMode = parser[NKey::kStdIn].ThereIs;
bool stdOutMode = parser[NKey::kStdOut].ThereIs;
CMyComPtr<ISequentialInStream> inStream;
CInFileStream *inStreamSpec = 0;
if (stdInMode)
{
inStream = new CStdInFileStream;
MY_SET_BINARY_MODE(stdin);
}
else
{
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &inputName = nonSwitchStrings[paramIndex++];
inStreamSpec = new CInFileStream;
inStream = inStreamSpec;
if (!inStreamSpec->Open(us2fs(inputName)))
{
fprintf(stderr, "\nError: can not open input file %s\n",
(const char *)GetOemString(inputName));
return 1;
}
}
CMyComPtr<ISequentialOutStream> outStream;
COutFileStream *outStreamSpec = NULL;
if (stdOutMode)
{
outStream = new CStdOutFileStream;
MY_SET_BINARY_MODE(stdout);
}
else
{
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &outputName = nonSwitchStrings[paramIndex++];
outStreamSpec = new COutFileStream;
outStream = outStreamSpec;
if (!outStreamSpec->Create(us2fs(outputName), true))
{
fprintf(stderr, "\nError: can not open output file %s\n",
(const char *)GetOemString(outputName));
return 1;
}
}
if (parser[NKey::kFilter86].ThereIs)
{
// -f86 switch is for x86 filtered mode: BCJ + LZMA.
if (parser[NKey::kEOS].ThereIs || stdInMode)
throw "Can not use stdin in this mode";
UInt64 fileSize;
inStreamSpec->File.GetLength(fileSize);
if (fileSize > 0xF0000000)
throw "File is too big";
size_t inSize = (size_t)fileSize;
Byte *inBuffer = 0;
if (inSize != 0)
{
inBuffer = (Byte *)MyAlloc((size_t)inSize);
if (inBuffer == 0)
throw kCantAllocate;
}
if (ReadStream_FAIL(inStream, inBuffer, inSize) != S_OK)
throw "Can not read";
Byte *outBuffer = 0;
size_t outSize;
if (encodeMode)
{
// we allocate 105% of original size for output buffer
outSize = (size_t)fileSize / 20 * 21 + (1 << 16);
if (outSize != 0)
{
outBuffer = (Byte *)MyAlloc((size_t)outSize);
if (outBuffer == 0)
throw kCantAllocate;
}
if (!dictDefined)
dict = 1 << 23;
int res = Lzma86_Encode(outBuffer, &outSize, inBuffer, inSize,
5, dict, parser[NKey::kFilter86].PostCharIndex == 0 ? SZ_FILTER_YES : SZ_FILTER_AUTO);
if (res != 0)
{
fprintf(stderr, "\nEncoder error = %d\n", (int)res);
return 1;
}
}
else
{
UInt64 outSize64;
if (Lzma86_GetUnpackSize(inBuffer, inSize, &outSize64) != 0)
throw "data error";
outSize = (size_t)outSize64;
if (outSize != outSize64)
throw "too big";
if (outSize != 0)
{
outBuffer = (Byte *)MyAlloc(outSize);
if (outBuffer == 0)
throw kCantAllocate;
}
int res = Lzma86_Decode(outBuffer, &outSize, inBuffer, &inSize);
if (inSize != (size_t)fileSize)
throw "incorrect processed size";
if (res != 0)
throw "LzmaDecoder error";
}
if (WriteStream(outStream, outBuffer, outSize) != S_OK)
throw kWriteError;
MyFree(outBuffer);
MyFree(inBuffer);
return 0;
}
UInt64 fileSize;
if (encodeMode)
{
NCompress::NLzma::CEncoder *encoderSpec = new NCompress::NLzma::CEncoder;
CMyComPtr<ICompressCoder> encoder = encoderSpec;
if (!dictDefined)
dict = 1 << 23;
UInt32 pb = 2;
UInt32 lc = 3; // = 0; for 32-bit data
UInt32 lp = 0; // = 2; for 32-bit data
UInt32 algo = 1;
UInt32 fb = 128;
UInt32 mc = 16 + fb / 2;
bool mcDefined = false;
bool eos = parser[NKey::kEOS].ThereIs || stdInMode;
ParseUInt32(parser, NKey::kAlgo, algo);
ParseUInt32(parser, NKey::kFb, fb);
ParseUInt32(parser, NKey::kLc, lc);
ParseUInt32(parser, NKey::kLp, lp);
ParseUInt32(parser, NKey::kPb, pb);
mcDefined = parser[NKey::kMc].ThereIs;
if (mcDefined)
if (!GetNumber(parser[NKey::kMc].PostStrings[0], mc))
IncorrectCommand();
const PROPID propIDs[] =
{
NCoderPropID::kDictionarySize,
NCoderPropID::kPosStateBits,
NCoderPropID::kLitContextBits,
NCoderPropID::kLitPosBits,
NCoderPropID::kAlgorithm,
NCoderPropID::kNumFastBytes,
NCoderPropID::kMatchFinder,
NCoderPropID::kEndMarker,
NCoderPropID::kNumThreads,
NCoderPropID::kMatchFinderCycles,
};
const int kNumPropsMax = sizeof(propIDs) / sizeof(propIDs[0]);
PROPVARIANT props[kNumPropsMax];
for (int p = 0; p < 6; p++)
props[p].vt = VT_UI4;
props[0].ulVal = (UInt32)dict;
props[1].ulVal = (UInt32)pb;
props[2].ulVal = (UInt32)lc;
props[3].ulVal = (UInt32)lp;
props[4].ulVal = (UInt32)algo;
props[5].ulVal = (UInt32)fb;
props[6].vt = VT_BSTR;
props[6].bstrVal = const_cast<BSTR>((const wchar_t *)mf);
props[7].vt = VT_BOOL;
props[7].boolVal = eos ? VARIANT_TRUE : VARIANT_FALSE;
props[8].vt = VT_UI4;
props[8].ulVal = (UInt32)numThreads;
// it must be last in property list
props[9].vt = VT_UI4;
props[9].ulVal = (UInt32)mc;
int numProps = kNumPropsMax;
if (!mcDefined)
numProps--;
if (encoderSpec->SetCoderProperties(propIDs, props, numProps) != S_OK)
IncorrectCommand();
encoderSpec->WriteCoderProperties(outStream);
if (eos || stdInMode)
fileSize = (UInt64)(Int64)-1;
else
inStreamSpec->File.GetLength(fileSize);
for (int i = 0; i < 8; i++)
{
Byte b = Byte(fileSize >> (8 * i));
if (outStream->Write(&b, 1, 0) != S_OK)
{
PrintMessage(kWriteError);
return 1;
}
}
HRESULT result = encoder->Code(inStream, outStream, 0, 0, 0);
if (result == E_OUTOFMEMORY)
{
PrintMessage("\nError: Can not allocate memory\n");
return 1;
}
else if (result != S_OK)
{
fprintf(stderr, "\nEncoder error = %X\n", (unsigned int)result);
return 1;
}
}
else
{
// This is WritePart function
HRESULT CChmFolderOutStream::Write2(const void *data, UInt32 size, UInt32 *processedSize, bool isOK)
{
UInt32 realProcessed = 0;
if (processedSize != NULL)
*processedSize = 0;
while(size != 0)
{
if (m_FileIsOpen)
{
UInt32 numBytesToWrite = (UInt32)MyMin(m_RemainFileSize, (UInt64)(size));
HRESULT res = S_OK;
if (numBytesToWrite > 0)
{
if (!isOK)
m_IsOk = false;
if (m_RealOutStream)
{
UInt32 processedSizeLocal = 0;
res = m_RealOutStream->Write((const Byte *)data, numBytesToWrite, &processedSizeLocal);
numBytesToWrite = processedSizeLocal;
}
}
realProcessed += numBytesToWrite;
if (processedSize != NULL)
*processedSize = realProcessed;
data = (const void *)((const Byte *)data + numBytesToWrite);
size -= numBytesToWrite;
m_RemainFileSize -= numBytesToWrite;
m_PosInSection += numBytesToWrite;
m_PosInFolder += numBytesToWrite;
if (res != S_OK)
return res;
if (m_RemainFileSize == 0)
{
m_RealOutStream.Release();
RINOK(m_ExtractCallback->SetOperationResult(
m_IsOk ?
NExtract::NOperationResult::kOK:
NExtract::NOperationResult::kDataError));
m_FileIsOpen = false;
}
if (realProcessed > 0)
break; // with this break this function works as write part
}
else
{
if (m_CurrentIndex >= m_NumFiles)
return E_FAIL;
int fullIndex = m_StartIndex + m_CurrentIndex;
m_RemainFileSize = m_Database->GetFileSize(fullIndex);
UInt64 fileOffset = m_Database->GetFileOffset(fullIndex);
if (fileOffset < m_PosInSection)
return E_FAIL;
if (fileOffset > m_PosInSection)
{
UInt32 numBytesToWrite = (UInt32)MyMin(fileOffset - m_PosInSection, UInt64(size));
realProcessed += numBytesToWrite;
if (processedSize != NULL)
*processedSize = realProcessed;
data = (const void *)((const Byte *)data + numBytesToWrite);
size -= numBytesToWrite;
m_PosInSection += numBytesToWrite;
m_PosInFolder += numBytesToWrite;
}
if (fileOffset == m_PosInSection)
{
RINOK(OpenFile());
m_FileIsOpen = true;
m_CurrentIndex++;
m_IsOk = true;
}
}
}
return WriteEmptyFiles();
}
int main2(int n, const char *args[])
{
fprintf(stderr, "\nLZMA 4.27 Copyright (c) 1999-2005 Igor Pavlov 2005-08-07\n");
if (n == 1)
{
PrintHelp();
return 0;
}
if (sizeof(Byte) != 1 || sizeof(UInt32) < 4 || sizeof(UInt64) < 4)
{
fprintf(stderr, "Unsupported base types. Edit Common/Types.h and recompile");
return 1;
}
UStringVector commandStrings;
WriteArgumentsToStringList(n, args, commandStrings);
CParser parser(kNumSwitches);
try
{
parser.ParseStrings(kSwitchForms, commandStrings);
}
catch(...)
{
IncorrectCommand();
}
if(parser[NKey::kHelp1].ThereIs || parser[NKey::kHelp2].ThereIs)
{
PrintHelp();
return 0;
}
const UStringVector &nonSwitchStrings = parser.NonSwitchStrings;
int paramIndex = 0;
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &command = nonSwitchStrings[paramIndex++];
bool dictionaryIsDefined = false;
UInt32 dictionary = 1 << 21;
if(parser[NKey::kDictionary].ThereIs)
{
UInt32 dicLog;
if (!GetNumber(parser[NKey::kDictionary].PostStrings[0], dicLog))
IncorrectCommand();
dictionary = 1 << dicLog;
dictionaryIsDefined = true;
}
UString mf = L"BT4";
if (parser[NKey::kMatchFinder].ThereIs)
mf = parser[NKey::kMatchFinder].PostStrings[0];
if (command.CompareNoCase(L"b") == 0)
{
const UInt32 kNumDefaultItereations = 10;
UInt32 numIterations = kNumDefaultItereations;
{
if (paramIndex < nonSwitchStrings.Size())
if (!GetNumber(nonSwitchStrings[paramIndex++], numIterations))
numIterations = kNumDefaultItereations;
}
return LzmaBenchmark(stderr, numIterations, dictionary,
mf.CompareNoCase(L"BT4") == 0);
}
bool encodeMode = false;
if (command.CompareNoCase(L"e") == 0)
encodeMode = true;
else if (command.CompareNoCase(L"d") == 0)
encodeMode = false;
else
IncorrectCommand();
bool stdInMode = parser[NKey::kStdIn].ThereIs;
bool stdOutMode = parser[NKey::kStdOut].ThereIs;
CMyComPtr<ISequentialInStream> inStream;
CInFileStream *inStreamSpec = 0;
if (stdInMode)
{
inStream = new CStdInFileStream;
MY_SET_BINARY_MODE(stdin);
}
else
{
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &inputName = nonSwitchStrings[paramIndex++];
inStreamSpec = new CInFileStream;
inStream = inStreamSpec;
if (!inStreamSpec->Open(GetSystemString(inputName)))
{
fprintf(stderr, "\nError: can not open input file %s\n",
(const char *)GetOemString(inputName));
return 1;
}
}
CMyComPtr<ISequentialOutStream> outStream;
if (stdOutMode)
{
outStream = new CStdOutFileStream;
MY_SET_BINARY_MODE(stdout);
}
else
{
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &outputName = nonSwitchStrings[paramIndex++];
COutFileStream *outStreamSpec = new COutFileStream;
outStream = outStreamSpec;
if (!outStreamSpec->Create(GetSystemString(outputName), true))
{
fprintf(stderr, "\nError: can not open output file %s\n",
(const char *)GetOemString(outputName));
return 1;
}
}
if (parser[NKey::kFilter86].ThereIs)
{
// -f86 switch is for x86 filtered mode: BCJ + LZMA.
if (parser[NKey::kEOS].ThereIs || stdInMode)
throw "Can not use stdin in this mode";
UInt64 fileSize;
inStreamSpec->File.GetLength(fileSize);
if (fileSize > 0xF0000000)
throw "File is too big";
UInt32 inSize = (UInt32)fileSize;
Byte *inBuffer = 0;
if (inSize != 0)
{
inBuffer = (Byte *)MyAlloc((size_t)inSize);
if (inBuffer == 0)
throw kCantAllocate;
}
UInt32 processedSize;
if (inStream->Read(inBuffer, (UInt32)inSize, &processedSize) != S_OK)
throw "Can not read";
if ((UInt32)inSize != processedSize)
throw "Read size error";
Byte *outBuffer = 0;
size_t outSizeProcessed;
if (encodeMode)
{
// we allocate 105% of original size for output buffer
size_t outSize = (size_t)fileSize / 20 * 21 + (1 << 16);
if (outSize != 0)
{
outBuffer = (Byte *)MyAlloc((size_t)outSize);
if (outBuffer == 0)
throw kCantAllocate;
}
if (!dictionaryIsDefined)
dictionary = 1 << 23;
int res = LzmaRamEncode(inBuffer, inSize, outBuffer, outSize, &outSizeProcessed,
dictionary, SZ_FILTER_AUTO);
if (res != 0)
{
fprintf(stderr, "\nEncoder error = %d\n", (int)res);
return 1;
}
}
else
{
size_t outSize;
if (LzmaRamGetUncompressedSize(inBuffer, inSize, &outSize) != 0)
throw "data error";
if (outSize != 0)
{
outBuffer = (Byte *)MyAlloc(outSize);
if (outBuffer == 0)
throw kCantAllocate;
}
int res = LzmaRamDecompress(inBuffer, inSize, outBuffer, outSize, &outSizeProcessed, malloc, free);
if (res != 0)
throw "LzmaDecoder error";
}
if (outStream->Write(outBuffer, (UInt32)outSizeProcessed, &processedSize) != S_OK)
throw "Can not write";
MyFree(outBuffer);
MyFree(inBuffer);
return 0;
}
UInt64 fileSize;
if (encodeMode)
{
NCompress::NLZMA::CEncoder *encoderSpec =
new NCompress::NLZMA::CEncoder;
CMyComPtr<ICompressCoder> encoder = encoderSpec;
if (!dictionaryIsDefined)
dictionary = 1 << 23;
UInt32 posStateBits = 2;
UInt32 litContextBits = 3; // for normal files
// UInt32 litContextBits = 0; // for 32-bit data
UInt32 litPosBits = 0;
// UInt32 litPosBits = 2; // for 32-bit data
UInt32 algorithm = 2;
UInt32 numFastBytes = 128;
bool eos = parser[NKey::kEOS].ThereIs || stdInMode;
if(parser[NKey::kMode].ThereIs)
if (!GetNumber(parser[NKey::kMode].PostStrings[0], algorithm))
IncorrectCommand();
if(parser[NKey::kFastBytes].ThereIs)
if (!GetNumber(parser[NKey::kFastBytes].PostStrings[0], numFastBytes))
IncorrectCommand();
if(parser[NKey::kLitContext].ThereIs)
if (!GetNumber(parser[NKey::kLitContext].PostStrings[0], litContextBits))
IncorrectCommand();
if(parser[NKey::kLitPos].ThereIs)
if (!GetNumber(parser[NKey::kLitPos].PostStrings[0], litPosBits))
IncorrectCommand();
if(parser[NKey::kPosBits].ThereIs)
if (!GetNumber(parser[NKey::kPosBits].PostStrings[0], posStateBits))
IncorrectCommand();
PROPID propIDs[] =
{
NCoderPropID::kDictionarySize,
NCoderPropID::kPosStateBits,
NCoderPropID::kLitContextBits,
NCoderPropID::kLitPosBits,
NCoderPropID::kAlgorithm,
NCoderPropID::kNumFastBytes,
NCoderPropID::kMatchFinder,
NCoderPropID::kEndMarker
};
const int kNumProps = sizeof(propIDs) / sizeof(propIDs[0]);
/*
NWindows::NCOM::CPropVariant properties[kNumProps];
properties[0] = UInt32(dictionary);
properties[1] = UInt32(posStateBits);
properties[2] = UInt32(litContextBits);
properties[3] = UInt32(litPosBits);
properties[4] = UInt32(algorithm);
properties[5] = UInt32(numFastBytes);
properties[6] = mf;
properties[7] = eos;
*/
PROPVARIANT properties[kNumProps];
for (int p = 0; p < 6; p++)
properties[p].vt = VT_UI4;
properties[0].ulVal = UInt32(dictionary);
properties[1].ulVal = UInt32(posStateBits);
properties[2].ulVal = UInt32(litContextBits);
properties[3].ulVal = UInt32(litPosBits);
properties[4].ulVal = UInt32(algorithm);
properties[5].ulVal = UInt32(numFastBytes);
properties[6].vt = VT_BSTR;
properties[6].bstrVal = (BSTR)(const wchar_t *)mf;
properties[7].vt = VT_BOOL;
properties[7].boolVal = eos ? VARIANT_TRUE : VARIANT_FALSE;
if (encoderSpec->SetCoderProperties(propIDs, properties, kNumProps) != S_OK)
IncorrectCommand();
encoderSpec->WriteCoderProperties(outStream);
if (eos || stdInMode)
fileSize = (UInt64)(Int64)-1;
else
inStreamSpec->File.GetLength(fileSize);
for (int i = 0; i < 8; i++)
{
Byte b = Byte(fileSize >> (8 * i));
if (outStream->Write(&b, sizeof(b), 0) != S_OK)
{
fprintf(stderr, "Write error");
return 1;
}
}
HRESULT result = encoder->Code(inStream, outStream, 0, 0, 0);
if (result == E_OUTOFMEMORY)
{
fprintf(stderr, "\nError: Can not allocate memory\n");
return 1;
}
else if (result != S_OK)
{
fprintf(stderr, "\nEncoder error = %X\n", (unsigned int)result);
return 1;
}
}
else
{
int main2(int n, const char *args[])
{
if (strcmp(args[n - 1], "-notitle") == 0)
n--;
else {
fprintf(stderr,
"\nt5lzma 1.00 Copyright (C) 2004 H.Kawai\n"
" --- based : LZMA 4.03 Copyright (c) 1999-2004 Igor Pavlov 2004-06-18\n"
);
}
if (n == 1)
{
PrintHelp();
return 0;
}
if (sizeof(Byte) != 1 || sizeof(UInt32) < 4 || sizeof(UInt64) < 4)
{
fprintf(stderr, "Unsupported base types. Edit Common/Types.h and recompile");
return 1;
}
UStringVector commandStrings;
WriteArgumentsToStringList(n, args, commandStrings);
CParser parser(kNumSwitches);
try
{
parser.ParseStrings(kSwitchForms, commandStrings);
}
catch(...)
{
IncorrectCommand();
}
if(parser[NKey::kHelp1].ThereIs || parser[NKey::kHelp2].ThereIs)
{
PrintHelp();
return 0;
}
const UStringVector &nonSwitchStrings = parser.NonSwitchStrings;
int paramIndex = 0;
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &command = nonSwitchStrings[paramIndex++];
if (command.CompareNoCase(L"b") == 0)
{
UInt32 dictionary = 1 << 21;
if(parser[NKey::kDictionary].ThereIs)
{
UInt32 dicLog;
if (!GetNumber(parser[NKey::kDictionary].PostStrings[0], dicLog))
IncorrectCommand();
dictionary = 1 << dicLog;
}
const UInt32 kNumDefaultItereations = 10;
UInt32 numIterations = kNumDefaultItereations;
{
if (paramIndex < nonSwitchStrings.Size())
if (!GetNumber(nonSwitchStrings[paramIndex++], numIterations))
numIterations = kNumDefaultItereations;
}
return LzmaBenchmark(numIterations, dictionary);
}
bool encodeMode;
if (command.CompareNoCase(L"e") == 0)
encodeMode = true;
else if (command.CompareNoCase(L"d") == 0)
encodeMode = false;
else
IncorrectCommand();
bool stdInMode = parser[NKey::kStdIn].ThereIs;
bool stdOutMode = parser[NKey::kStdOut].ThereIs;
CMyComPtr<ISequentialInStream> inStream;
CInFileStream *inStreamSpec = 0;
if (stdInMode)
{
inStream = new CStdInFileStream;
MY_SET_BINARY_MODE(stdin);
}
else
{
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &inputName = nonSwitchStrings[paramIndex++];
inStreamSpec = new CInFileStream;
inStream = inStreamSpec;
if (!inStreamSpec->Open(GetSystemString(inputName)))
{
fprintf(stderr, "\nError: can not open input file %s\n",
(const char *)GetOemString(inputName));
return 1;
}
}
CMyComPtr<ISequentialOutStream> outStream;
if (stdOutMode)
{
outStream = new CStdOutFileStream;
MY_SET_BINARY_MODE(stdout);
}
else
{
if (paramIndex >= nonSwitchStrings.Size())
IncorrectCommand();
const UString &outputName = nonSwitchStrings[paramIndex++];
COutFileStream *outStreamSpec = new COutFileStream;
outStream = outStreamSpec;
if (!outStreamSpec->Open(GetSystemString(outputName)))
{
fprintf(stderr, "\nError: can not open output file %s\n",
(const char *)GetOemString(outputName));
return 1;
}
}
UInt64 fileSize;
if (encodeMode)
{
NCompress::NLZMA::CEncoder *encoderSpec =
new NCompress::NLZMA::CEncoder;
CMyComPtr<ICompressCoder> encoder = encoderSpec;
UInt32 dictionary = 1 << 23;
UInt32 posStateBits = 0;
// UInt32 posStateBits = 2;
// UInt32 litContextBits = 3; // for normal files
UInt32 litContextBits = 0; // for 32-bit data
UInt32 litPosBits = 0;
// UInt32 litPosBits = 2; // for 32-bit data
UInt32 algorithm = 2;
UInt32 numFastBytes = 128;
UString mf = L"BT4";
bool eos = parser[NKey::kEOS].ThereIs || stdInMode;
if(parser[NKey::kMode].ThereIs)
if (!GetNumber(parser[NKey::kMode].PostStrings[0], algorithm))
IncorrectCommand();
if(parser[NKey::kDictionary].ThereIs)
{
UInt32 dicLog;
if (!GetNumber(parser[NKey::kDictionary].PostStrings[0], dicLog))
IncorrectCommand();
dictionary = 1 << dicLog;
}
if(parser[NKey::kFastBytes].ThereIs)
if (!GetNumber(parser[NKey::kFastBytes].PostStrings[0], numFastBytes))
IncorrectCommand();
if(parser[NKey::kLitContext].ThereIs)
if (!GetNumber(parser[NKey::kLitContext].PostStrings[0], litContextBits))
IncorrectCommand();
if(parser[NKey::kLitPos].ThereIs)
if (!GetNumber(parser[NKey::kLitPos].PostStrings[0], litPosBits))
IncorrectCommand();
if(parser[NKey::kPosBits].ThereIs)
if (!GetNumber(parser[NKey::kPosBits].PostStrings[0], posStateBits))
IncorrectCommand();
if (parser[NKey::kMatchFinder].ThereIs)
mf = parser[NKey::kMatchFinder].PostStrings[0];
PROPID propIDs[] =
{
NCoderPropID::kDictionarySize,
NCoderPropID::kPosStateBits,
NCoderPropID::kLitContextBits,
NCoderPropID::kLitPosBits,
NCoderPropID::kAlgorithm,
NCoderPropID::kNumFastBytes,
NCoderPropID::kMatchFinder,
NCoderPropID::kEndMarker
};
const int kNumProps = sizeof(propIDs) / sizeof(propIDs[0]);
/*
NWindows::NCOM::CPropVariant properties[kNumProps];
properties[0] = UInt32(dictionary);
properties[1] = UInt32(posStateBits);
properties[2] = UInt32(litContextBits);
properties[3] = UInt32(litPosBits);
properties[4] = UInt32(algorithm);
properties[5] = UInt32(numFastBytes);
properties[6] = mf;
properties[7] = eos;
*/
PROPVARIANT properties[kNumProps];
for (int p = 0; p < 6; p++)
properties[p].vt = VT_UI4;
properties[0].ulVal = UInt32(dictionary);
properties[1].ulVal = UInt32(posStateBits);
properties[2].ulVal = UInt32(litContextBits);
properties[3].ulVal = UInt32(litPosBits);
properties[4].ulVal = UInt32(algorithm);
properties[5].ulVal = UInt32(numFastBytes);
properties[6].vt = VT_BSTR;
properties[6].bstrVal = (BSTR)(const wchar_t *)mf;
properties[7].vt = VT_BOOL;
properties[7].boolVal = eos ? VARIANT_TRUE : VARIANT_FALSE;
if (encoderSpec->SetCoderProperties(propIDs, properties, kNumProps) != S_OK)
IncorrectCommand();
encoderSpec->WriteCoderProperties(outStream);
if (eos || stdInMode)
fileSize = (UInt64)(Int64)-1;
else
inStreamSpec->File.GetLength(fileSize);
for (int i = 0; i < 8; i++)
{
Byte b = Byte(fileSize >> (8 * i));
if (outStream->Write(&b, sizeof(b), 0) != S_OK)
{
fprintf(stderr, "Write error");
return 1;
}
}
HRESULT result = encoder->Code(inStream, outStream, 0, 0, 0);
if (result == E_OUTOFMEMORY)
{
fprintf(stderr, "\nError: Can not allocate memory\n");
return 1;
}
else if (result != S_OK)
{
fprintf(stderr, "\nEncoder error = %X\n", result);
return 1;
}
}
else
{
// This is Write function
HRESULT CCabFolderOutStream::Write2(const void *data, UInt32 size, UInt32 *processedSize, bool isOK)
{
UInt32 realProcessed = 0;
if (processedSize != NULL)
*processedSize = 0;
while(size != 0)
{
if (m_FileIsOpen)
{
UInt32 numBytesToWrite = (UInt32)MyMin(m_RemainFileSize, (UInt64)(size));
HRESULT res = S_OK;
if (numBytesToWrite > 0)
{
if (!isOK)
m_IsOk = false;
if (m_RealOutStream)
{
UInt32 processedSizeLocal = 0;
res = m_RealOutStream->Write((const Byte *)data, numBytesToWrite, &processedSizeLocal);
numBytesToWrite = processedSizeLocal;
}
}
realProcessed += numBytesToWrite;
if (processedSize != NULL)
*processedSize = realProcessed;
data = (const void *)((const Byte *)data + numBytesToWrite);
size -= numBytesToWrite;
m_RemainFileSize -= numBytesToWrite;
m_PosInFolder += numBytesToWrite;
if (res != S_OK)
return res;
if (m_RemainFileSize == 0)
{
m_RealOutStream.Release();
RINOK(m_ExtractCallback->SetOperationResult(
m_IsOk ?
NArchive::NExtract::NOperationResult::kOK:
NArchive::NExtract::NOperationResult::kDataError));
m_FileIsOpen = false;
}
if (realProcessed > 0)
break; // with this break this function works as Write-Part
}
else
{
if (m_CurrentIndex >= m_ExtractStatuses->Size())
return E_FAIL;
const CMvItem &mvItem = m_Database->Items[m_StartIndex + m_CurrentIndex];
const CItem &item = m_Database->Volumes[mvItem.VolumeIndex].Items[mvItem.ItemIndex];
m_RemainFileSize = item.Size;
UInt32 fileOffset = item.Offset;
if (fileOffset < m_PosInFolder)
return E_FAIL;
if (fileOffset > m_PosInFolder)
{
UInt32 numBytesToWrite = (UInt32)MyMin((UInt64)fileOffset - m_PosInFolder, UInt64(size));
realProcessed += numBytesToWrite;
if (processedSize != NULL)
*processedSize = realProcessed;
data = (const void *)((const Byte *)data + numBytesToWrite);
size -= numBytesToWrite;
m_PosInFolder += numBytesToWrite;
}
if (fileOffset == m_PosInFolder)
{
RINOK(OpenFile());
m_FileIsOpen = true;
m_CurrentIndex++;
m_IsOk = true;
}
}
}
return WriteEmptyFiles();
}