// now need the reading functionality
static HRESULT ReadAAFFile(aafWChar * pFileName)
{
IAAFFile * pFile = NULL;
// printing file open time
clock_t start = clock();
clock_t finish;
double duration;
check(AAFFileOpenExistingRead ( pFileName, 0, &pFile));
finish = clock();
duration = ((double) (finish - start) / CLOCKS_PER_SEC);
pFile->Close();
pFile->Release();
pFile=NULL;
#if 0
printf("Open time = %f seconds\n", duration);
#endif
cleanup:
if (pFile) {
pFile->Close();
pFile->Release();
}
return AAFRESULT_SUCCESS;
}
extern int main(int argc, char *argv[])
{
if (argc < 2)
{
printUsage(argv[0]);
return 1;
}
aafWChar Filename[FILENAME_MAX];
size_t status = mbstowcs(Filename, argv[1], sizeof(Filename));
if (status == (size_t)-1) {
fprintf(stderr, "mbstowcs failed for \"%s\"\n", argv[1]);
return 1;
}
IAAFFile *pFile = NULL;
int mode = 0;
HRESULT res_open;
// Perform the simplest possible use of the AAF SDK to open an
// existing AAF file. This is enough to cause a memory leak in
// AAF SDK v1.1.2 and up to at least CVS snapshot 2008-05-12.
res_open = AAFFileOpenExistingRead(Filename, mode, &pFile);
if (AAFRESULT_FAILED(res_open))
{
aafCharacter buf[100] = L"";
AAFResultToText(res_open, buf, sizeof(buf));
fprintf(stderr, "AAFFileOpenExistingRead() failed, result=0x%08x %ls\n", res_open, buf);
return 1;
}
pFile->Close();
pFile->Release();
return 0;
}
static HRESULT ReadAAFFile(const aafWChar * pFileName, testType_t testType)
{
IAAFFile * pFile = NULL;
IAAFHeader * pHeader = NULL;
IAAFDictionary* pDictionary = NULL;
IAAFEssenceAccess* pEssenceAccess = NULL;
IAAFEssenceMultiAccess* pMultiEssence = NULL;
IAAFEssenceFormat *fmtTemplate = NULL;
IEnumAAFMobs* pMobIter = NULL;
IAAFMob* pMob = NULL;
IAAFMasterMob* pMasterMob = NULL;
IAAFEssenceFormat* pFormat = NULL;
aafNumSlots_t numMobs, numSlots;
aafSearchCrit_t criteria;
aafRational_t readSampleRate;
aafMobID_t mobID;
aafWChar namebuf[1204];
unsigned char AAFDataBuf[4096];
aafUInt32 AAFBytesRead, samplesRead;
FILE* pWavFile = NULL;
unsigned char WAVDataBuf[4096], *dataPtr;
size_t WAVBytesRead;
aafUInt32 dataOffset, dataLen;
aafUInt16 bitsPerSample, numCh;
check(AAFFileOpenExistingRead ( pFileName, 0, &pFile));
check(pFile->GetHeader(&pHeader));
// Get the AAF Dictionary so that we can create valid AAF objects.
check(pHeader->GetDictionary(&pDictionary));
// Here we check on the number of mobs in the file.
// Get the number of master mobs in the file (should be one)
check(pHeader->CountMobs(kAAFMasterMob, &numMobs));
// ** causes leak
if (1 == numMobs )
{
printf("Found %d Master Mobs\n", numMobs);
criteria.searchTag = kAAFByMobKind;
criteria.tags.mobKind = kAAFMasterMob;
check(pHeader->GetMobs(&criteria, &pMobIter));
while(AAFRESULT_SUCCESS == pMobIter->NextOne(&pMob))
{
char mobIDstr[256];
char mobName[256];
check(pMob->GetMobID (&mobID));
check(pMob->GetName (namebuf, sizeof(namebuf)));
convert(mobName, sizeof(mobName), namebuf);
MobIDtoString(mobID, mobIDstr);
printf(" MasterMob Name = '%s'\n", mobName);
printf(" (mobID %s)\n", mobIDstr);
// Make sure we have two slots
check(pMob->CountSlots(&numSlots));
if (2 == numSlots)
{
// The essence data is in SlotID 1
// Get a Master Mob interface
check(pMob->QueryInterface(IID_IAAFMasterMob, (void **)&pMasterMob));
// Open the Essence Data
check(pMasterMob->OpenEssence( 1, // SlotID 1
NULL, // mediaCriteria (Don't care)
kAAFMediaOpenReadOnly, // Open mode
kAAFCompressionDisable,// Compress disabled
&pEssenceAccess));
// Open and read the Wave file (for comparison)
pWavFile = fopen("Laser.wav", "r");
if (pWavFile)
{
// read in the essence data
WAVBytesRead = fread(WAVDataBuf, sizeof(unsigned char), sizeof(WAVDataBuf), pWavFile);
fclose(pWavFile);
pWavFile = NULL;
check(loadWAVEHeader(WAVDataBuf,
&bitsPerSample,
&numCh,
&readSampleRate,
&dataOffset,
&dataLen));
dataPtr = WAVDataBuf + dataOffset;
aafUInt32 sampleBits;
aafInt32 bytesRead;
check(pEssenceAccess->GetEmptyFileFormat (&fmtTemplate));
check(fmtTemplate->AddFormatSpecifier (kAAFAudioSampleBits, 0, NULL));
check(pEssenceAccess->GetFileFormat (fmtTemplate, &pFormat));
fmtTemplate->Release();
fmtTemplate = NULL;
check(pFormat->GetFormatSpecifier (kAAFAudioSampleBits, sizeof(sampleBits),
(aafDataBuffer_t)&sampleBits, &bytesRead));
pFormat->Release();
pFormat = NULL;
if(sampleBits != bitsPerSample)
{
printf("***Wrong sample size read ( was %d , should be %d)\n",
sampleBits, bitsPerSample);
}
// Read the Data from the AAF file
if(testType == testStandardCalls)
{
check(pEssenceAccess->ReadSamples( dataLen, //!!! Hardcoded // Number of Samples
sizeof(AAFDataBuf), // Maximum buffer size
AAFDataBuf, // Buffer for the data
&samplesRead, // Actual number of samples read
&AAFBytesRead)); // Actual number of bytes read
}
else if(testType == testMultiCalls)
{
aafmMultiXfer_t xfer;
aafmMultiResult_t result;
check(pEssenceAccess->QueryInterface(IID_IAAFEssenceMultiAccess, (void **)&pMultiEssence));
xfer.numSamples = dataLen; //!!! Hardcoded // Number of Samples
xfer.buflen = sizeof(AAFDataBuf);
xfer.buffer = AAFDataBuf;
result.bytesXfered = 0;
check(pMultiEssence->ReadMultiSamples(1, &xfer, &result));
samplesRead = result.samplesXfered;
AAFBytesRead = result.bytesXfered;
pMultiEssence->Release();
pMultiEssence = NULL;
}
// Now compare the data read from the AAF file to the actual WAV file
if (dataLen != AAFBytesRead)
{
printf("***Wrong number of bytes read (was %u , should be %zu)\n",
AAFBytesRead, WAVBytesRead);
}
if (memcmp( dataPtr, AAFDataBuf, dataLen) != 0)
{
printf("*** Data Read is different than the data in the WAV file ***\n");
}
}
else
{
printf("***Failed to open Wave file Laser.wav for comparison\n");
}
}
else
{
printf("***Wrong number of slots in the Master Mob (was %d should be %d)\n",
numSlots, 2);
}
if (pMasterMob)
{
pMasterMob->Release();
pMasterMob = NULL;
}
pMob->Release();
pMob = NULL;
if (pEssenceAccess)
{
pEssenceAccess->Release();
pEssenceAccess = NULL;
}
} // while pMobIter->NextOne
pMobIter->Release();
pMobIter = NULL;
}
else
{
printf("***Wrong number of Master mobs in the file (was %d should be %d)\n",
numMobs, 1);
}
printf("--------\n");
cleanup:
// Cleanup and return
if (pWavFile)
fclose(pWavFile);
if (pMultiEssence)
pMultiEssence->Release();
pMultiEssence=NULL;
if(fmtTemplate)
{
fmtTemplate->Release();
fmtTemplate = NULL;
}
if (pEssenceAccess)
{
pEssenceAccess->Release();
pEssenceAccess = NULL;
}
if (pDictionary)
pDictionary->Release();
pDictionary=NULL;
if (pHeader)
pHeader->Release();
pHeader=NULL;
if (pMobIter)
pMobIter->Release();
pMobIter=NULL;
if (pFormat)
pFormat->Release();
pFormat=NULL;
if (pFile)
{
pFile->Close();
pFile->Release();
pFile=NULL;
}
return moduleErrorTmp;
}
static void ReadAAFFile(aafWChar * pFileName)
{
HRESULT hr = S_OK;
IAAFFile * pFile = NULL;
hr = AAFFileOpenExistingRead (pFileName, AAF_FILE_MODE_LAZY_LOADING, &pFile);
if (SUCCEEDED(hr))
{
IAAFHeader * pHeader = NULL;
hr = pFile->GetHeader(&pHeader);
check(hr); // display error message
if (SUCCEEDED(hr))
{
IAAFIdentification * pIdent = NULL;
hr = pHeader->GetLastIdentification(&pIdent);
check(hr); // display error message
if (SUCCEEDED(hr))
{
printIdentification(pIdent);
pIdent->Release();
pIdent = NULL;
// count Mobs
aafNumSlots_t n;
hr = pHeader->CountMobs(kAAFAllMob, &n);
check(hr);
printf("\nNumber of Mobs = %d\n", n);
// Header::Version, Header::ObjectModelVersion
aafVersionType_t version = {0};
check(pHeader->GetFileRevision (&version) );
printf("\nHeader::Version = %d.%d\n", version.major, version.minor);
aafFileRev_t fileVersion = kAAFRev1;
check(pFile->GetRevision (&fileVersion) );
printf("\nHeader::ObjectModelVersion = %d", fileVersion);
if (fileVersion == kAAFRev1)
printf(" (recognized as kAAFRev1)\n");
else if (fileVersion == kAAFRev2)
printf(" (recognized as kAAFRev2)\n");
else
printf("\n");
// Show datadefs, with version
IEnumAAFDataDefsSP pEnumDataDef;
IAAFDictionarySP pDictionary;
check(pHeader->GetDictionary(&pDictionary));
check(pDictionary->GetDataDefs(&pEnumDataDef));
IAAFDataDef* pDataDef;
printf("\nDatadefs = ");
while (SUCCEEDED(pEnumDataDef->NextOne(&pDataDef)))
{
IAAFDefObjectSP pDefObject;
check(pDataDef->QueryInterface(IID_IAAFDefObject, (void**)&pDefObject));
pDataDef->Release();
pDataDef = NULL;
aafUID_t id = {0};
check(pDefObject->GetAUID(&id));
aafWChar wchName[500];
char chName[1000];
check( pDefObject->GetName(wchName, sizeof (wchName)) );
convert(chName, sizeof(chName), wchName);
if (memcmp( &id, &kAAFDataDef_LegacyPicture, sizeof(id)) == 0)
printf("\"%s\" (recognized as legacy Picture)\n", chName);
else if (memcmp( &id, &kAAFDataDef_Picture, sizeof(id)) == 0)
printf("\"%s\" (recognized as Picture)\n", chName);
else if (memcmp( &id, &kAAFDataDef_LegacySound, sizeof(id)) == 0)
printf("\"%s\" (recognized as legacy Sound)\n", chName);
else if (memcmp( &id, &kAAFDataDef_Sound, sizeof(id)) == 0)
printf("\"%s\" (recognized as Sound)\n", chName);
else if (memcmp( &id, &kAAFDataDef_LegacyTimecode, sizeof(id)) == 0)
printf("\"%s\" (recognized as legacy Timecode)\n", chName);
else if (memcmp( &id, &kAAFDataDef_Timecode, sizeof(id)) == 0)
printf("\"%s\" (recognized as Timecode)\n", chName);
else if (memcmp( &id, &kAAFDataDef_PictureWithMatte, sizeof(id)) == 0)
printf("\"%s\" (recognized as PictureWithMatte)\n", chName);
else if (memcmp( &id, &kAAFDataDef_Edgecode, sizeof(id)) == 0)
printf("\"%s\" (recognized as Edgecode)\n", chName);
else if (memcmp( &id, &kAAFDataDef_Auxiliary, sizeof(id)) == 0)
printf("\"%s\" (recognized as Auxiliary)\n", chName);
else if (memcmp( &id, &kAAFDataDef_DescriptiveMetadata, sizeof(id)) == 0)
printf("\"%s\" (recognized as DescriptiveMetadata)\n", chName);
else if (memcmp( &id, &kAAFDataDef_Matte, sizeof(id)) == 0)
printf("\"%s\" (recognized as Matte)\n", chName);
else
printf("\"%s\"\n", chName);
printf(" ");
}
// Check if file contains TypeDefs known to cause a v1.0 reader to assert.
// Known instances of this are UInt32Set and AUIDSet added to the v1.1 SDK.
// Cannot use Dictionary::LookupTypeDef to check for them, because this
// has the side effect of registering the typedef we are checking for
// from the built-in model. Instead, iterate through typedefs (in file)
// and check for the known instances.
printf("\nTypes incompatible with SDK v1.0.x =");
IEnumAAFTypeDefsSP pEnumTypeDef;
check(pDictionary->GetTypeDefs(&pEnumTypeDef));
IAAFTypeDef* pTypeDef;
bool foundToxic = false;
while (SUCCEEDED(pEnumTypeDef->NextOne(&pTypeDef)))
{
IAAFMetaDefinitionSP pMetaDef;
check(pTypeDef->QueryInterface(IID_IAAFMetaDefinition, (void**)&pMetaDef));
pTypeDef->Release();
pTypeDef = NULL;
aafUID_t typeUID;
check(pMetaDef->GetAUID(&typeUID));
aafWChar wchName[500];
char chName[1000];
check( pMetaDef->GetName(wchName, sizeof (wchName)) );
convert(chName, sizeof(chName), wchName);
if ((memcmp( &typeUID, &kAAFTypeID_AUIDSet, sizeof(typeUID)) == 0)
|| (memcmp( &typeUID, &kAAFTypeID_UInt32Set, sizeof(typeUID)) == 0))
{
printf(" %s", chName);
foundToxic = true;
}
}
if (!foundToxic)
printf(" (none)");
printf("\n\n");
}
pHeader->Release();
pHeader = NULL;
}
hr = pFile->Close();
check(hr);
pFile->Release();
pFile = NULL;
// Get file kind.
// Since AAF SDK v1.0.2, the file kind actually identifies the implementation
// of the file kind, from which the file kind is inferred.
aafUID_t fileKind = {0};
aafBool isAAFFile = kAAFFalse;
check(AAFFileIsAAFFile(pFileName, &fileKind, &isAAFFile));
if (isAAFFile)
{
if (memcmp( &fileKind, &kAAFFileKind_AafM512Binary, sizeof(fileKind)) == 0)
printf("Filekind = 512-byte SS (reading with Microsoft)\n");
else if (memcmp( &fileKind, &kAAFFileKind_AafS512Binary, sizeof(fileKind)) == 0)
printf("Filekind = 512-byte SS (reading with Schemasoft)\n");
else if (memcmp( &fileKind, &kAAFFileKind_AafG512Binary, sizeof(fileKind)) == 0)
printf("Filekind = 512-byte SS (reading with GSF)\n");
else if (memcmp( &fileKind, &kAAFFileKind_Aaf512Binary, sizeof(fileKind)) == 0)
printf("Filekind = 512-byte SS (reading with default implementation)\n");
else if (memcmp( &fileKind, &kAAFFileKind_AafM4KBinary, sizeof(fileKind)) == 0)
printf("Filekind = 4096-byte SS (reading with Microsoft)\n");
else if (memcmp( &fileKind, &kAAFFileKind_AafS4KBinary, sizeof(fileKind)) == 0)
printf("Filekind = 4096-byte SS (reading with Schemasoft)\n");
else if (memcmp( &fileKind, &kAAFFileKind_AafG4KBinary, sizeof(fileKind)) == 0)
printf("Filekind = 4096-byte SS (reading with GSF)\n");
else if (memcmp( &fileKind, &kAAFFileKind_Aaf4KBinary, sizeof(fileKind)) == 0)
printf("Filekind = 4096-byte SS (reading with default implementation)\n");
else
printf("Filekind = Recognized by SDK but unknown to AAFInfo\n");
}
}
else
{
fprintf(stderr, "Error : Failed to open file (result = %0x).\n", hr);
exit(1);
}
}
int main(int argc, char *argv[])
{
if (argc != 4 ||
(strcmp(argv[1], "-xml") != 0 && strcmp(argv[1], "-ss") != 0))
{
Usage(argc, argv);
exit(1);
}
aafCharacter *inFileName = new aafCharacter[strlen(argv[2]) + 1];
aafCharacter *outFileName = new aafCharacter[strlen(argv[3]) + 1];
size_t status = mbstowcs(inFileName, argv[2], strlen(argv[2]));
if (status == (size_t)-1)
{
fprintf(stderr, "\nError: Failed to convert filename '%s' to a wide string.", argv[2]);
exit(1);
}
status = mbstowcs(outFileName, argv[3], strlen(argv[3]));
if (status == (size_t)-1)
{
fprintf(stderr, "\nError: Failed to convert filename '%s' to a wide string.", argv[3]);
exit(1);
}
inFileName[strlen(argv[2])] = 0;
outFileName[strlen(argv[3])] = 0;
// remove the output file if it already exists
remove(argv[3]);
CAAFInitialize aafInit;
IAAFFile* inFile = 0;
IAAFFile* outFile = 0;
check(AAFFileOpenExistingRead(inFileName, 0, &inFile));
aafProductVersion_t v;
v.major = 0;
v.minor = 1;
v.tertiary = 0;
v.patchLevel = 0;
v.type = kAAFVersionUnknown;
const aafUID_t productUID =
{0x97e04c67, 0xdbe6, 0x4d11, {0xbc, 0xd7, 0x3a, 0x90, 0x42, 0x53, 0xa2, 0xef}};
aafProductIdentification_t productInfo;
aafWChar companyName[] = L"AMW Association";
aafWChar productName[] = L"aaffmtconv";
productInfo.companyName = companyName;
productInfo.productName = productName;
productInfo.productVersion = &v;
productInfo.productVersionString = 0;
productInfo.productID = productUID;
productInfo.platform = 0;
// create output file based on choice of stored format
if (strcmp(argv[1], "-xml") == 0)
{
check(AAFFileOpenNewModifyEx(outFileName, &kAAFFileKind_AafXmlText, 0, &productInfo, &outFile));
}
else
{
check(AAFFileOpenNewModify(outFileName, 0, &productInfo, &outFile));
}
// save copy using the selected stored format
check(inFile->SaveCopyAs(outFile));
check(outFile->Close());
check(inFile->Close());
outFile->Release();
outFile = 0;
inFile->Release();
inFile = 0;
delete [] inFileName;
delete [] outFileName;
return 0;
}
extern int main(int argc, char *argv[])
{
const char *filename_cstr = "test.aaf";
#ifndef _MSC_VER
setlocale (LC_ALL, "en_US.UTF-8");
#endif
if (argc >= 2)
{
filename_cstr = argv[1];
}
// convert C str to wide string
aafWChar filename[FILENAME_MAX];
size_t status = mbstowcs(filename, filename_cstr, sizeof(filename));
if (status == (size_t)-1) {
fprintf(stderr, "mbstowcs failed for \"%s\"\n", filename_cstr);
return 1;
}
remove(filename_cstr);
IAAFFile *pFile = NULL;
int mode = 0;
aafProductIdentification_t productID;
aafProductVersion_t TestVersion = {1, 1, 0, 0, kAAFVersionUnknown};
productID.companyName = (aafCharacter*)L"HSC";
productID.productName = (aafCharacter*)L"String Tester";
productID.productVersion = &TestVersion;
productID.productVersionString = NULL;
productID.productID = TestProductID;
productID.platform = (aafCharacter*)L"Linux";
// Create new AAF file
check(AAFFileOpenNewModify(filename, mode, &productID, &pFile));
// Create a simple Mob
IAAFClassDef *classDef = NULL;
IAAFMob *pMob = NULL;
IAAFHeader *pHeader = NULL;
IAAFDictionary *pDictionary = NULL;
check(pFile->GetHeader(&pHeader));
check(pHeader->GetDictionary(&pDictionary));
check(pDictionary->LookupClassDef(AUID_AAFMasterMob, &classDef));
check(classDef->CreateInstance(IID_IAAFMob, (IUnknown **)&pMob));
classDef->Release();
check(pMob->SetMobID(TEST_MobID));
// UTF-8 for codepoint U+1D11E (musical G Clef): 0xf0,0x9d,0x84,0x9e
// UTF-8 for codepoint U+1D122 (musical F Clef): 0xf0,0x9d,0x84,0xa2
// http://unicode.org/charts/PDF/U1D100.pdf
// http://en.wikipedia.org/wiki/UTF-8
aafCharacter *mobname;
const unsigned char inputStr[] = { 0xf0,0x9d,0x84,0x9e, // U+1D11E
0xf0,0x9d,0x84,0xa2, // U+1D122
0x4d, 0x6f, 0x62, // 'M' 'o' 'b'
0x0 };
// Convert UTF-8 inputStr to native wchar_t representation (UTF-32 Unix, UTF-16 Windows)
int wlen = 0, n;
#ifndef _MSC_VER
int ret;
char *p = (char *)inputStr;
while ((ret = mblen(p, 4)) > 0)
{ ++wlen; p+=ret; }
mobname = new aafCharacter[wlen+1];
n = mbstowcs(mobname, (const char *)inputStr, wlen+1);
if (n == -1)
{
fprintf (stderr, "mbstowcs returned -1. Invalid multibyte string\n");
exit(1);
}
#else
// Under Windows we must use MultiByteToWideChar() to get correct UTF-8 conversion to UTF-16
// since mbstowcs() is broken for UTF-8.
wlen = MultiByteToWideChar (CP_UTF8, MB_ERR_INVALID_CHARS, (LPCSTR)inputStr, -1, NULL, 0);
if (wlen == 0)
{
fprintf (stderr, "MultiByteToWideChar returned 0. Invalid multibyte string\n");
exit(1);
}
mobname = new aafCharacter[wlen];
n = MultiByteToWideChar (CP_UTF8, MB_ERR_INVALID_CHARS, (LPCSTR)inputStr, -1, mobname, wlen);
if (n == 0)
{
fprintf (stderr, "MultiByteToWideChar returned 0. Invalid multibyte string\n");
exit(1);
}
#endif
// SetName() calls OMSimpleProperty::set() which does a memcpy of the mobname string
// to an OMByte* variable 'bits()' at OMProperty.cpp:399
// Found by setting an rwatch on mobname address.
check(pMob->SetName(mobname));
aafUInt32 size_before = 0;
check(pMob->GetNameBufLen(&size_before));
check(pHeader->AddMob(pMob));
pMob->Release();
pHeader->Release();
pDictionary->Release();
// All the work of storing to disk happens during Save()
// The bits() variable is next read in OMType::contract() at OMType.cpp:137
// which is called by ImplAAFTypeDefCharacter::externalize() at ImplAAFTypeDefCharacter.cpp:307
// which is called by ImplAAFTypeDefString::externalize() at ImplAAFTypeDefString.cpp:584
// which is called by OMSSStoredObject::save() at OMSSStoredObject.cpp:382
check(pFile->Save());
check(pFile->Close());
pFile->Release();
// OMCharacterStringProperty<CharacterType>::stringLength() at OMVariableSizePropertyT.h:80
// calculates string length of AAF string properties
// Read AAF file back in
check(AAFFileOpenExistingRead(filename, mode, &pFile));
// Get the Mob
check(pFile->GetHeader(&pHeader));
check(pHeader->LookupMob(TEST_MobID, &pMob));
aafUInt32 size_after = 0;
check(pMob->GetNameBufLen(&size_after));
aafCharacter *mobname_after = new aafCharacter[size_after];
check(pMob->GetName(mobname_after, size_after));
// Compare Mob name before storing to disk with Mob name read back from disk
int test_result = 0;
if (size_before != size_after) {
printf("size_before=%d != size_after=%d\n", size_before, size_after);
test_result = 1;
}
else {
if (memcmp(mobname, mobname_after, size_before) != 0) {
printf("wchar_t* mobname and wchar_t* mobname_after differ:\n");
printf(" %s\n", hexDump(mobname, size_before));
printf(" %s\n", hexDump(mobname_after, size_after));
test_result = 1;
}
}
// Check if the multibyte (UTF-8) versions of mobname and mobname_after match.
char *outputStr;
#ifndef _MSC_VER
wlen = wcslen(mobname_after)*sizeof(aafCharacter) + 1;
outputStr = new char [wlen];
n = wcstombs (outputStr, mobname_after, wlen);
if (n == -1)
{
fprintf(stderr, "Could not convert mobname_after to multibyte str\n");
exit(1);
}
#else
wlen = WideCharToMultiByte(CP_UTF8, 0, mobname_after, -1, NULL, 0, NULL, NULL);
if (wlen == 0)
{
fprintf (stderr, "Failed to convert mobname_after to multibyte string\n");
exit(1);
}
outputStr = new char[wlen];
wlen = WideCharToMultiByte(CP_UTF8, 0, mobname_after, -1, outputStr, wlen, NULL, NULL);
#endif
if (strlen((char *)inputStr) != strlen(outputStr))
{
fprintf(stderr, "UTF-8 version of string: input length(%d) != output length(%d)\n", (int)strlen((char *)inputStr), (int)strlen(outputStr));
test_result = 1;
}
if (strcmp((char *)inputStr, outputStr) != 0)
{
fprintf(stderr, "UTF-8 version of string: input and output strings differ\n");
printf(" %s\n", hexDump(inputStr, strlen((char *)inputStr)));
printf(" %s\n", hexDump(outputStr, strlen(outputStr)));
test_result = 1;
}
pMob->Release();
pHeader->Release();
check(pFile->Close());
pFile->Release();
delete [] mobname;
delete [] mobname_after;
return test_result;
}
