bool ApplyEnsemblePatch(const CString old_file,
const CString patch_file,
const CString new_file)
{
BYTE* old_buffer = NULL ;
BYTE* patch_buffer = NULL;
DWORD dwOld;
DWORD dwPatch;
if (!ReadFileToBuffer(old_file, old_buffer, &dwOld))
return false;
if (!ReadFileToBuffer(patch_file, patch_buffer, &dwPatch))
return false;
courgette::SourceStream old_stream;
courgette::SourceStream patch_stream;
old_stream.Init(old_buffer, dwOld);
patch_stream.Init(patch_buffer, dwPatch);
courgette::SinkStream new_stream;
courgette::Status status =
courgette::ApplyEnsemblePatch(&old_stream, &patch_stream, &new_stream);
if (status != courgette::C_OK)
return false;
return WriteBufferToFile(new_file, reinterpret_cast<const BYTE*>(new_stream.Buffer()),
new_stream.Length());
}
static void test_sparse_files_8(void)
{
Log(LOG_LEVEL_VERBOSE,
"Special Case: File ending with few (DEV_BSIZE-1) zeroes,"
" at block size barrier; so the last bytes written are a hole and are seek()ed,"
" but the output file can't be sparse since the hole isn't block-sized");
char *buf = xmalloc(TESTFILE_SIZE + DEV_BSIZE - 1);
FillBufferWithGarbage(buf, TESTFILE_SIZE);
memset(&buf[TESTFILE_SIZE], 0, DEV_BSIZE - 1);
WriteBufferToFile(srcfile, buf, TESTFILE_SIZE + DEV_BSIZE - 1);
/* ACTUAL TEST */
bool ret = CopyRegularFileDisk(srcfile, dstfile);
assert_true(ret);
if (SPARSE_SUPPORT_OK)
{
bool is_sparse = FileIsSparse(dstfile);
assert_false(is_sparse);
}
bool data_ok = CompareFileToBuffer(dstfile, buf, TESTFILE_SIZE + DEV_BSIZE - 1);
assert_true(data_ok);
free(buf);
test_has_run[8] = true;
success [8] = true;
}
static void test_sparse_files_1(void)
{
Log(LOG_LEVEL_VERBOSE,
"No zeros in the file, the output file must be non-sparse");
char *buf = xmalloc(TESTFILE_SIZE);
FillBufferWithGarbage(buf, TESTFILE_SIZE);
WriteBufferToFile(srcfile, buf, TESTFILE_SIZE);
/* ACTUAL TEST */
bool ret = CopyRegularFileDisk(srcfile, dstfile);
assert_true(ret);
if (SPARSE_SUPPORT_OK)
{
bool is_sparse = FileIsSparse(dstfile);
assert_false(is_sparse);
}
bool data_ok = CompareFileToBuffer(dstfile, buf, TESTFILE_SIZE);
assert_true(data_ok);
free(buf);
test_has_run[1] = true;
success [1] = true;
}
static void test_sparse_files_7(void)
{
Log(LOG_LEVEL_VERBOSE,
"File ending with many zeroes, the output file must be sparse");
char *buf = xmalloc(TESTFILE_SIZE);
FillBufferWithGarbage(buf, TESTFILE_SIZE);
memset(&buf[TESTFILE_SIZE - LONG_REGION], 0, LONG_REGION);
WriteBufferToFile(srcfile, buf, TESTFILE_SIZE);
/* ACTUAL TEST */
bool ret = CopyRegularFileDisk(srcfile, dstfile);
assert_true(ret);
if (SPARSE_SUPPORT_OK)
{
bool is_sparse = FileIsSparse(dstfile);
assert_true(is_sparse);
}
bool data_ok = CompareFileToBuffer(dstfile, buf, TESTFILE_SIZE);
assert_true(data_ok);
free(buf);
test_has_run[7] = true;
success [7] = true;
}
///---------------------------------------------------------------------------------
///
///---------------------------------------------------------------------------------
void SaveFileJob::Run()
{
bool* success = new bool( WriteBufferToFile( m_filePath, m_buffer, m_bufferSize ) );
SetCallbackArg( (void*)success );
}
//-----------------------------------------------------------------------------
// Models are already converted in a pre-pass.
//-----------------------------------------------------------------------------
bool CreateTargetFile_Model( const char *pSourceName, const char *pTargetName, bool bWriteToZip )
{
// model component should be present
CUtlBuffer targetBuffer;
if ( !scriptlib->ReadFileToBuffer( pTargetName, targetBuffer ) )
{
return false;
}
// no conversion to write, but possibly zipped
bool bSuccess = WriteBufferToFile( pTargetName, targetBuffer, bWriteToZip, WRITE_TO_DISK_NEVER );
return bSuccess;
}
void FetchIntegrationFromWeb()
{
const int MAX_SIZE = 2 * 1024 * 1024;
char* buffer = new char[ MAX_SIZE ];
if( buffer != nullptr )
{
DWORD nBytesRead = 0;
if( DoBlockingHttpGet( "bin/RA_Integration.dll", buffer, MAX_SIZE, &nBytesRead ) )
WriteBufferToFile( "RA_Integration.dll", buffer, nBytesRead );
delete[] ( buffer );
buffer = nullptr;
}
}
bool CreateSceneImageFile( char const *pchModPath, bool bWriteToZip, bool bLittleEndian, bool bQuiet, DiskWriteMode_t eWriteModeForConversions )
{
CUtlBuffer targetBuffer;
const char *pFilename = bLittleEndian ? "scenes/scenes.image" : "scenes/scenes.360.image";
CDefaultStatus statusHelper;
bool bSuccess = g_pSceneImage->CreateSceneImageFile( targetBuffer, pchModPath, bLittleEndian, bQuiet, &statusHelper );
if ( bSuccess )
{
bSuccess = WriteBufferToFile( pFilename, targetBuffer, bWriteToZip, eWriteModeForConversions );
}
return bSuccess;
}
//-----------------------------------------------------------------------------
// Purpose: Generate .360 compiled caption files
//-----------------------------------------------------------------------------
bool CreateTargetFile_CCDAT( const char *pSourceName, const char *pTargetName, bool bWriteToZip )
{
CUtlBuffer targetBuffer;
bool bOk = false;
if ( !scriptlib->ReadFileToBuffer( pSourceName, targetBuffer ) )
{
return false;
}
if ( SwapClosecaptionFile( targetBuffer.Base() ) )
{
bOk = WriteBufferToFile( pTargetName, targetBuffer, bWriteToZip, g_WriteModeForConversions );
}
return bOk;
}
// main function to do the spkg decrypt/unpackage
int do_spp_decrypt(char* pInPath, char* pOutPath, char* pKeyName)
{
u8* pMySpp = NULL;
u64 dec_size = 0;
u64 hdr_len = 0;
uint32_t dwBytesRead = 0;
sce_header_t* pSceHdr = NULL;
int retval = -1;
// validate input params
if ( (pInPath == NULL) || (pOutPath == NULL) )
goto exit;
// read the spp file into a buffer (alloc a new buffer)
if ( ReadFileToBuffer(pInPath,(uint8_t**)&pMySpp, 0x00, &dwBytesRead, TRUE) != STATUS_SUCCESS ) {
printf("failed to read in file:%s, exiting...\n", pInPath);
goto exit;
}
/// Unpackage the "PKG" types ///
if ( decrypt_spp(pMySpp, &dec_size, pKeyName) != STATUS_SUCCESS ) {
printf("\n!!ERROR!! FAILED to decrypt SPP file:%s\n\n", pInPath);
goto exit;
}
// setup the SCE header
pSceHdr = (sce_header_t*)pMySpp;//SIZE_SPKG_HDR
wbe64((u8*)&hdr_len, pSceHdr->header_len);
// write the decrypted file to disk
if ( WriteBufferToFile(pOutPath, (pMySpp+hdr_len), (uint32_t)dec_size, FALSE, 0, NULL) != STATUS_SUCCESS ) {
printf("failed to write to file:%s, exiting...\n", pOutPath);
goto exit;
}
// status success
retval = STATUS_SUCCESS;
exit:
// free the alloc'd memory
if (pMySpp != NULL)
free(pMySpp);
return retval;
}
//-----------------------------------------------------------------------------
// Purpose: Generate .360 compiled reslist files
// Reslist files are processed for the unique consumption of Queued Loading.
//-----------------------------------------------------------------------------
bool CreateTargetFile_RESLST( const char *pSourceName, const char *pTargetName, bool bWriteToZip )
{
bool bOK = false;
// parse reslist
CUtlRBTree< CUtlString, int > rbTree( 0, 0, ReslistLessFunc );
if ( !LoadReslist( pSourceName, &rbTree ) )
{
return false;
}
CUtlBuffer targetBuffer( 0, 0, CUtlBuffer::TEXT_BUFFER );
for ( int iIndex = rbTree.FirstInorder(); iIndex != rbTree.InvalidIndex(); iIndex = rbTree.NextInorder( iIndex ) )
{
targetBuffer.PutChar( '\"' );
targetBuffer.PutString( rbTree[iIndex].String() );
targetBuffer.PutChar( '\"' );
targetBuffer.PutString( "\n" );
}
bOK = WriteBufferToFile( pTargetName, targetBuffer, bWriteToZip, g_WriteModeForConversions );
return bOK;
}
void Serpent::WriteToFile(CFileIO &fIO)
{
fIO.WriteBinary(&RateofFire,1);
fIO.WriteBinary(&bStartDirection,1);
WriteBufferToFile(fIO);
}
//-----------------------------------------------------------------------------
// Rebuilds all of a MDL's components.
//-----------------------------------------------------------------------------
static bool GenerateModelFiles( const char *pMdlFilename )
{
CUtlBuffer tempBuffer;
int fileSize;
int paddedSize;
int swappedSize;
// .mdl
CUtlBuffer mdlBuffer;
if ( !scriptlib->ReadFileToBuffer( pMdlFilename, mdlBuffer ) )
{
return false;
}
if ( !Studio_ConvertStudioHdrToNewVersion( (studiohdr_t *)mdlBuffer.Base() ))
{
Msg("%s needs to be recompiled\n", pMdlFilename );
}
// .vtx
char szVtxFilename[MAX_PATH];
V_StripExtension( pMdlFilename, szVtxFilename, sizeof( szVtxFilename ) );
V_strncat( szVtxFilename, ".dx90.vtx", sizeof( szVtxFilename ) );
CUtlBuffer vtxBuffer;
bool bHasVtx = ReadFileToBuffer( szVtxFilename, vtxBuffer, false, true );
// .vvd
char szVvdFilename[MAX_PATH];
V_StripExtension( pMdlFilename, szVvdFilename, sizeof( szVvdFilename ) );
V_strncat( szVvdFilename, ".vvd", sizeof( szVvdFilename ) );
CUtlBuffer vvdBuffer;
bool bHasVvd = ReadFileToBuffer( szVvdFilename, vvdBuffer, false, true );
if ( bHasVtx != bHasVvd )
{
// paired resources, either mandates the other
return false;
}
// a .mdl file that has .vtx/.vvd gets re-processed to cull lod data
if ( bHasVtx && bHasVvd )
{
// cull lod if needed
IMdlStripInfo *pStripInfo = NULL;
bool bResult = mdllib->StripModelBuffers( mdlBuffer, vvdBuffer, vtxBuffer, &pStripInfo );
if ( !bResult )
{
return false;
}
if ( pStripInfo )
{
// .vsi
CUtlBuffer vsiBuffer;
pStripInfo->Serialize( vsiBuffer );
pStripInfo->DeleteThis();
// save strip info for later processing
char szVsiFilename[MAX_PATH];
V_StripExtension( pMdlFilename, szVsiFilename, sizeof( szVsiFilename ) );
V_strncat( szVsiFilename, ".vsi", sizeof( szVsiFilename ) );
WriteBufferToFile( szVsiFilename, vsiBuffer, false, WRITE_TO_DISK_ALWAYS );
}
}
// .ani processing may further update .mdl buffer
char szAniFilename[MAX_PATH];
V_StripExtension( pMdlFilename, szAniFilename, sizeof( szAniFilename ) );
V_strncat( szAniFilename, ".ani", sizeof( szAniFilename ) );
CUtlBuffer aniBuffer;
bool bHasAni = ReadFileToBuffer( szAniFilename, aniBuffer, false, true );
if ( bHasAni )
{
// Some vestigal .ani files exist in the tree, only process valid .ani
if ( ((studiohdr_t*)mdlBuffer.Base())->numanimblocks != 0 )
{
// .ani processing modifies .mdl buffer
fileSize = aniBuffer.TellPut();
paddedSize = fileSize + BYTESWAP_ALIGNMENT_PADDING;
aniBuffer.EnsureCapacity( paddedSize );
tempBuffer.EnsureCapacity( paddedSize );
V_StripExtension( pMdlFilename, szAniFilename, sizeof( szAniFilename ) );
V_strncat( szAniFilename, ".360.ani", sizeof( szAniFilename ) );
swappedSize = StudioByteSwap::ByteswapStudioFile( szAniFilename, tempBuffer.Base(), aniBuffer.PeekGet(), fileSize, (studiohdr_t*)mdlBuffer.Base(), CompressFunc );
if ( swappedSize > 0 )
{
// .ani buffer is replaced with swapped data
aniBuffer.Purge();
aniBuffer.Put( tempBuffer.Base(), swappedSize );
WriteBufferToFile( szAniFilename, aniBuffer, false, WRITE_TO_DISK_ALWAYS );
}
else
{
return false;
}
}
}
// .phy
char szPhyFilename[MAX_PATH];
V_StripExtension( pMdlFilename, szPhyFilename, sizeof( szPhyFilename ) );
V_strncat( szPhyFilename, ".phy", sizeof( szPhyFilename ) );
CUtlBuffer phyBuffer;
bool bHasPhy = ReadFileToBuffer( szPhyFilename, phyBuffer, false, true );
if ( bHasPhy )
{
fileSize = phyBuffer.TellPut();
paddedSize = fileSize + BYTESWAP_ALIGNMENT_PADDING;
phyBuffer.EnsureCapacity( paddedSize );
tempBuffer.EnsureCapacity( paddedSize );
V_StripExtension( pMdlFilename, szPhyFilename, sizeof( szPhyFilename ) );
V_strncat( szPhyFilename, ".360.phy", sizeof( szPhyFilename ) );
swappedSize = StudioByteSwap::ByteswapStudioFile( szPhyFilename, tempBuffer.Base(), phyBuffer.PeekGet(), fileSize, (studiohdr_t*)mdlBuffer.Base(), CompressFunc );
if ( swappedSize > 0 )
{
// .phy buffer is replaced with swapped data
phyBuffer.Purge();
phyBuffer.Put( tempBuffer.Base(), swappedSize );
WriteBufferToFile( szPhyFilename, phyBuffer, false, WRITE_TO_DISK_ALWAYS );
}
else
{
return false;
}
}
if ( bHasVtx )
{
fileSize = vtxBuffer.TellPut();
paddedSize = fileSize + BYTESWAP_ALIGNMENT_PADDING;
vtxBuffer.EnsureCapacity( paddedSize );
tempBuffer.EnsureCapacity( paddedSize );
V_StripExtension( pMdlFilename, szVtxFilename, sizeof( szVtxFilename ) );
V_strncat( szVtxFilename, ".dx90.360.vtx", sizeof( szVtxFilename ) );
swappedSize = StudioByteSwap::ByteswapStudioFile( szVtxFilename, tempBuffer.Base(), vtxBuffer.PeekGet(), fileSize, (studiohdr_t*)mdlBuffer.Base(), CompressFunc );
if ( swappedSize > 0 )
{
// .vtx buffer is replaced with swapped data
vtxBuffer.Purge();
vtxBuffer.Put( tempBuffer.Base(), swappedSize );
WriteBufferToFile( szVtxFilename, vtxBuffer, false, WRITE_TO_DISK_ALWAYS );
}
else
{
return false;
}
}
if ( bHasVvd )
{
fileSize = vvdBuffer.TellPut();
paddedSize = fileSize + BYTESWAP_ALIGNMENT_PADDING;
vvdBuffer.EnsureCapacity( paddedSize );
tempBuffer.EnsureCapacity( paddedSize );
V_StripExtension( pMdlFilename, szVvdFilename, sizeof( szVvdFilename ) );
V_strncat( szVvdFilename, ".360.vvd", sizeof( szVvdFilename ) );
swappedSize = StudioByteSwap::ByteswapStudioFile( szVvdFilename, tempBuffer.Base(), vvdBuffer.PeekGet(), fileSize, (studiohdr_t*)mdlBuffer.Base(), CompressFunc );
if ( swappedSize > 0 )
{
// .vvd buffer is replaced with swapped data
vvdBuffer.Purge();
vvdBuffer.Put( tempBuffer.Base(), swappedSize );
WriteBufferToFile( szVvdFilename, vvdBuffer, false, WRITE_TO_DISK_ALWAYS );
}
else
{
return false;
}
}
// swap and write final .mdl
fileSize = mdlBuffer.TellPut();
paddedSize = fileSize + BYTESWAP_ALIGNMENT_PADDING;
mdlBuffer.EnsureCapacity( paddedSize );
tempBuffer.EnsureCapacity( paddedSize );
char szMdlFilename[MAX_PATH];
V_StripExtension( pMdlFilename, szMdlFilename, sizeof( szMdlFilename ) );
V_strncat( szMdlFilename, ".360.mdl", sizeof( szMdlFilename ) );
swappedSize = StudioByteSwap::ByteswapStudioFile( szMdlFilename, tempBuffer.Base(), mdlBuffer.PeekGet(), fileSize, NULL, CompressFunc );
if ( swappedSize > 0 )
{
// .mdl buffer is replaced with swapped data
mdlBuffer.Purge();
mdlBuffer.Put( tempBuffer.Base(), swappedSize );
WriteBufferToFile( szMdlFilename, mdlBuffer, false, WRITE_TO_DISK_ALWAYS );
}
else
{
return false;
}
return true;
}
//-----------------------------------------------------------------------------
// The DX Support file is a very fat expensive KV file, causes a run-time startup slowdown.
// Becauase it normally lives in the game\bin directory, it can't be in the zip or preloaded.
// Thus, it gets reprocessed into just the trivial 360 portion and placed into the platform.zip
// Yes, it's evil.
//-----------------------------------------------------------------------------
bool ProcessDXSupportConfig( bool bWriteToZip )
{
if ( !g_bIsPlatformZip )
{
// only relevant when building platform zip, otherwise no-op
return false;
}
const char *pConfigName = "dxsupport.cfg";
char szTempPath[MAX_PATH];
char szSourcePath[MAX_PATH];
V_ComposeFileName( g_szModPath, "../bin", szTempPath, sizeof( szTempPath ) );
V_ComposeFileName( szTempPath, pConfigName, szSourcePath, sizeof( szSourcePath ) );
CUtlBuffer sourceBuf( 0, 0, CUtlBuffer::TEXT_BUFFER );
if ( !g_pFullFileSystem->ReadFile( szSourcePath, NULL, sourceBuf ) )
{
Msg( "Error! Couldn't open file '%s'!\n", pConfigName );
return false;
}
KeyValues *pKV = new KeyValues( "" );
if ( !pKV->LoadFromBuffer( "dxsupport.cfg", sourceBuf ) )
{
Msg( "Error! Couldn't parse config file '%s'!\n", pConfigName );
pKV->deleteThis();
return false;
}
// only care about the xbox specific dxlevel 98 block
KeyValues *pXboxSubKey = NULL;
for ( KeyValues *pSubKey = pKV->GetFirstSubKey(); pSubKey != NULL && pXboxSubKey == NULL; pSubKey = pSubKey->GetNextKey() )
{
// descend each sub block
for ( KeyValues *pKey = pSubKey->GetFirstSubKey(); pKey != NULL && pXboxSubKey == NULL; pKey = pKey->GetNextKey() )
{
if ( !V_stricmp( pKey->GetName(), "name" ) && pKey->GetInt( (const char *)NULL ) == 98 )
{
pXboxSubKey = pSubKey;
}
}
}
if ( !pXboxSubKey )
{
Msg( "Error! Couldn't find expected dxlevel 98 in config file '%s'!\n", pConfigName );
pKV->deleteThis();
return false;
}
CUtlBuffer kvBuffer( 0, 0, CUtlBuffer::TEXT_BUFFER );
kvBuffer.Printf( "\"dxsupport\"\n" );
kvBuffer.Printf( "{\n" );
kvBuffer.Printf( "\t\"0\"\n" );
kvBuffer.Printf( "\t{\n" );
for ( KeyValues *pKey = pXboxSubKey->GetFirstSubKey(); pKey != NULL; pKey = pKey->GetNextKey() )
{
kvBuffer.Printf( "\t\t\"%s\" \"%s\"\n", pKey->GetName(), pKey->GetString( (const char *)NULL ) );
}
kvBuffer.Printf( "\t}\n" );
kvBuffer.Printf( "}\n" );
CUtlBuffer targetBuf( 0, 0, CUtlBuffer::TEXT_BUFFER | CUtlBuffer::CONTAINS_CRLF );
kvBuffer.ConvertCRLF( targetBuf );
// only appears in zip file
bool bSuccess = WriteBufferToFile( pConfigName, targetBuf, bWriteToZip, WRITE_TO_DISK_NEVER );
pKV->deleteThis();
return bSuccess;
}
// main function to do the pkg decrypt/unpackage
int do_spp_encrypt(char* pInPath, char* pOutPath, char* pType, char* pKeyName)
{
u8* pMySpp = NULL;
u8* pMyContent = NULL;
sce_header_t sce_hdr = {0};
SPP_META_HDR meta_hdr = {0};
u64 content_size_original = 0;
u32 dwBytesRead = 0;
u64 spp_size = 0;
struct keylist* pMyKeyList = NULL;
struct key MyKey = {0};
int retval = -1;
// validate input params
if ( (pInPath == NULL) || (pOutPath == NULL) || (pType == NULL) )
goto exit;
// read in the 'input' (unencrypted) spp file (alloc a buffer)
if ( ReadFileToBuffer(pInPath, (uint8_t**)&pMyContent, 0x00, &dwBytesRead, TRUE) != STATUS_SUCCESS) {
printf("failed to read in file:%s, exiting...\n", pInPath);
goto exit;
}
// assign the read-in size
content_size_original = (u32)dwBytesRead;
// build the SCE & META headers
if ( build_spp_sce_hdr(&sce_hdr, content_size_original) != STATUS_SUCCESS )
goto exit;
///////////////// KEYS LOADING //////////////////////////////////////////
//
// If we are OVERRIDING the default key from the 'keys' file, then
// attempt to find it, first from the new 'keys' file, and if not,
// manually by the exact 'keyname' specified
if ( b_DefaultKeyListOverride == TRUE )
{
if ( load_singlekey_by_name(pKeyName, &pMyKeyList) != STATUS_SUCCESS )
{
// failed to find the 'override' key in 'KEYS' file,
// so try 'old-style' keys
printf("Error: Failed to find override SPP key(%s) in new \"KEYS\" file, trying old style keys...\n", pKeyName);
if ( key_get_old(KEY_SPP, pKeyName, &MyKey) == STATUS_SUCCESS )
{
if ( load_keylist_from_key(&pMyKeyList, &MyKey) != STATUS_SUCCESS )
{
printf("Error: Unexpected failure loading single 'keylist' from 'key' structure....exiting....\n");
goto exit;
}
}
else {
printf("key_get() for SPP key failed");
goto exit;
}
}
} // end if (KeyListOverride....)
else
{
// try to get keys via the new 'keys' format first, if not,
// failover to the old keys style
if ( key_get_new(sce_hdr.key_revision, sce_hdr.header_type, &MyKey) != STATUS_SUCCESS )
{
printf("Failed to find SPP key in new \"KEYS\" file, exiting!\n");
goto exit;
}
}
//
////////////////////////////////////////////////////////////////////////////////
// build the 'metadata' headers
if ( build_spp_meta_hdr(&meta_hdr, content_size_original) != STATUS_SUCCESS )
goto exit;
// build the SPP file
spp_size = build_spp(&sce_hdr, &meta_hdr, &pMySpp, pMyContent, content_size_original);
if (spp_size == 0)
goto exit;
// hash/sha1 the pkg data
if ( hash_spp(pMySpp, content_size_original) != STATUS_SUCCESS )
goto exit;
// ECDSA sign the pkg
if ( sign_spp(pMySpp) != STATUS_SUCCESS )
goto exit;
// encrypt the data
if ( sce_encrypt_data_pkgtool(pMySpp) != STATUS_SUCCESS )
goto exit;
// encrypt the hdrs
if (sce_encrypt_header_pkgtool(pMySpp, &MyKey) != STATUS_SUCCESS )
goto exit;
// write out the final .pkg file
if (WriteBufferToFile(pOutPath, pMySpp, (uint32_t)spp_size, FALSE, 0, NULL) != STATUS_SUCCESS) {
printf("failed to write to file:%s, exiting...\n", pOutPath);
goto exit;
}
// status success
retval = STATUS_SUCCESS;
exit:
// free the alloc'd memory
if (pMyContent != NULL)
free(pMyContent);
// free the alloc'd memory
if (pMySpp != NULL)
free(pMySpp);
// return the status
return retval;
}