void EncryptionModeLRW::DecryptSectorsCurrentThread (byte *data, uint64 sectorIndex, uint64 sectorCount, size_t sectorSize) const
{
if_debug (ValidateState ());
if_debug (ValidateParameters (data, sectorCount, sectorSize));
DecryptBuffer (data,
sectorCount * sectorSize,
SectorToBlockIndex (sectorIndex));
}
int LogBookData::SaveData(void)
{
FILE *fp;
_TCHAR path[_MAX_PATH];
_stprintf(path,_T("%s\\config\\%s.lbk"),FalconDataDirectory,Pilot.Callsign);
if((fp = _tfopen(path,_T("wb"))) == NULL)
{
MonoPrint(_T("Couldn't save logbook"));
return FALSE;
}
EncryptBuffer(0x58,(uchar*)&Pilot,sizeof(LB_PILOT));
fwrite(&Pilot, sizeof(LB_PILOT), 1, fp);
fclose(fp);
DecryptBuffer(0x58,(uchar*)&Pilot,sizeof(LB_PILOT));
if(gCommsMgr)
{
sprintf(path,"%s\\config\\%s.plc",FalconDataDirectory,Pilot.Callsign);
gCommsMgr->SetStatsFile(path);
}
#if _USE_REGISTRY_
DWORD size;
HKEY theKey;
long retval;
retval = RegOpenKeyEx(HKEY_LOCAL_MACHINE, FALCON_REGISTRY_KEY,
0, KEY_ALL_ACCESS, &theKey);
size = _NAME_LEN_;
if(retval == ERROR_SUCCESS)
retval = RegSetValueEx (theKey, "PilotName", 0, REG_BINARY, (LPBYTE)Name(), size);
size = _CALLSIGN_LEN_;
if(retval == ERROR_SUCCESS)
retval = RegSetValueEx (theKey, "PilotCallsign", 0, REG_BINARY, (LPBYTE)Callsign(), size);
RegCloseKey(theKey);
#endif
if(this == &LogBook)
{
FalconLocalSession->SetPlayerName(NameWRank());
FalconLocalSession->SetPlayerCallsign(Callsign());
FalconLocalSession->SetAceFactor(AceFactor());
FalconLocalSession->SetInitAceFactor(LogBook.AceFactor());
FalconLocalSession->SetVoiceID(static_cast<uchar>(Voice()));
}
return TRUE;
}
/** Loads settings from the configuration file */
void FTaskBrowserSettings::LoadSettings()
{
GConfig->GetString( TEXT( "TaskBrowser" ), TEXT( "ServerName" ), ServerName, GEditorUserSettingsIni );
GConfig->GetInt( TEXT( "TaskBrowser" ), TEXT( "ServerPort" ), ServerPort, GEditorUserSettingsIni );
GConfig->GetString( TEXT( "TaskBrowser" ), TEXT( "UserName" ), UserName, GEditorUserSettingsIni );
// Load encrypted password from disk
FString EncryptedPasswordBlob = GConfig->GetStr( TEXT( "TaskBrowser" ), TEXT( "Password" ), GEditorUserSettingsIni );
Password = TEXT( "" );
const uint32 MaxEncryptedPasswordSize = 2048;
uint8 EncryptedPasswordBuffer[ MaxEncryptedPasswordSize ];
if( FString::ToBlob( EncryptedPasswordBlob, EncryptedPasswordBuffer, MaxEncryptedPasswordSize ) )
{
const uint32 MaxDecryptedPasswordSize = 2048;
uint8 DecryptedPasswordBuffer[ MaxDecryptedPasswordSize ];
const uint32 ExpectedEncryptedPasswordSize = EncryptedPasswordBlob.Len() / 3;
uint32 DecryptedPasswordSize = MaxDecryptedPasswordSize;
if( DecryptBuffer(
EncryptedPasswordBuffer,
ExpectedEncryptedPasswordSize,
DecryptedPasswordBuffer,
DecryptedPasswordSize ) )
{
FString DecryptedPassword = ( const TCHAR* )DecryptedPasswordBuffer;
// Store password
Password = DecryptedPassword;
}
}
GConfig->GetString( TEXT( "TaskBrowser" ), TEXT( "ProjectName" ), ProjectName, GEditorUserSettingsIni );
GConfig->GetBool( TEXT( "TaskBrowser" ), TEXT( "AutoConnectAtStartup" ), bAutoConnectAtStartup, GEditorUserSettingsIni );
GConfig->GetBool( TEXT( "TaskBrowser" ), TEXT( "UseSingleSignOn" ), bUseSingleSignOn, GEditorUserSettingsIni );
GConfig->GetString( TEXT( "TaskBrowser" ), TEXT( "DBFilterName" ), DBFilterName, GEditorUserSettingsIni );
GConfig->GetBool( TEXT( "TaskBrowser" ), TEXT( "FilterOnlyOpen" ), bFilterOnlyOpen, GEditorUserSettingsIni );
GConfig->GetBool( TEXT( "TaskBrowser" ), TEXT( "FilterAssignedToMe" ), bFilterAssignedToMe, GEditorUserSettingsIni );
GConfig->GetBool( TEXT( "TaskBrowser" ), TEXT( "FilterCreatedByMe" ), bFilterCreatedByMe, GEditorUserSettingsIni );
GConfig->GetBool( TEXT( "TaskBrowser" ), TEXT( "FilterCurrentMap" ), bFilterCurrentMap, GEditorUserSettingsIni );
GConfig->GetInt( TEXT( "TaskBrowser" ), TEXT( "TaskListSortColumn" ), TaskListSortColumn, GEditorUserSettingsIni );
GConfig->GetBool( TEXT( "TaskBrowser" ), TEXT( "TaskListSortAscending" ), bTaskListSortAscending, GEditorUserSettingsIni );
}
/*----------------------------------------------------------------------
| AP4_CbcStreamCipher::ProcessBuffer
+---------------------------------------------------------------------*/
AP4_Result
AP4_CbcStreamCipher::ProcessBuffer(const AP4_UI08* in,
AP4_Size in_size,
AP4_UI08* out,
AP4_Size* out_size,
bool is_last_buffer)
{
// check the parameters
if (out_size == NULL) return AP4_ERROR_INVALID_PARAMETERS;
// check the state
if (m_BlockCipher == NULL || m_Eos) {
*out_size = 0;
return AP4_ERROR_INVALID_STATE;
}
if (is_last_buffer) m_Eos = true;
if (m_BlockCipher->GetDirection() == AP4_BlockCipher::ENCRYPT) {
return EncryptBuffer(in, in_size, out, out_size, is_last_buffer);
} else {
return DecryptBuffer(in, in_size, out, out_size, is_last_buffer);
}
}
void EncryptionModeXTS::DecryptSectorsCurrentThread (byte *data, uint64 sectorIndex, uint64 sectorCount, size_t sectorSize) const
{
DecryptBuffer (data, sectorCount * sectorSize, sectorIndex * sectorSize / ENCRYPTION_DATA_UNIT_SIZE);
}
void EncryptionModeXTS::Decrypt (byte *data, uint64 length) const
{
DecryptBuffer (data, length, 0);
}
int ReadVolumeHeader (BOOL bBoot, char *header, Password *password, PCRYPTO_INFO *retInfo, CRYPTO_INFO *retHeaderCryptoInfo)
{
#ifdef TC_WINDOWS_BOOT_SINGLE_CIPHER_MODE
char dk[32 * 2]; // 2 * 256-bit key
char masterKey[32 * 2];
#else
char dk[32 * 2 * 3]; // 6 * 256-bit key
char masterKey[32 * 2 * 3];
#endif
PCRYPTO_INFO cryptoInfo;
int status;
if (retHeaderCryptoInfo != NULL)
cryptoInfo = retHeaderCryptoInfo;
else
cryptoInfo = *retInfo = crypto_open ();
// PKCS5 PRF
derive_key_ripemd160 (password->Text, (int) password->Length, header + HEADER_SALT_OFFSET,
PKCS5_SALT_SIZE, bBoot ? 1000 : 2000, dk, sizeof (dk));
// Mode of operation
cryptoInfo->mode = FIRST_MODE_OF_OPERATION_ID;
// Test all available encryption algorithms
for (cryptoInfo->ea = EAGetFirst (); cryptoInfo->ea != 0; cryptoInfo->ea = EAGetNext (cryptoInfo->ea))
{
status = EAInit (cryptoInfo->ea, dk, cryptoInfo->ks);
if (status == ERR_CIPHER_INIT_FAILURE)
goto err;
// Secondary key schedule
EAInit (cryptoInfo->ea, dk + EAGetKeySize (cryptoInfo->ea), cryptoInfo->ks2);
// Try to decrypt header
DecryptBuffer (header + HEADER_ENCRYPTED_DATA_OFFSET, HEADER_ENCRYPTED_DATA_SIZE, cryptoInfo);
// Check magic 'TRUE' and CRC-32 of header fields and master keydata
if (GetHeaderField32 (header, TC_HEADER_OFFSET_MAGIC) != 0x54525545
|| (GetHeaderField16 (header, TC_HEADER_OFFSET_VERSION) >= 4 && GetHeaderField32 (header, TC_HEADER_OFFSET_HEADER_CRC) != GetCrc32 (header + TC_HEADER_OFFSET_MAGIC, TC_HEADER_OFFSET_HEADER_CRC - TC_HEADER_OFFSET_MAGIC))
|| GetHeaderField32 (header, TC_HEADER_OFFSET_KEY_AREA_CRC) != GetCrc32 (header + HEADER_MASTER_KEYDATA_OFFSET, MASTER_KEYDATA_SIZE))
{
EncryptBuffer (header + HEADER_ENCRYPTED_DATA_OFFSET, HEADER_ENCRYPTED_DATA_SIZE, cryptoInfo);
continue;
}
// Header decrypted
status = 0;
// Hidden volume status
cryptoInfo->VolumeSize = GetHeaderField64 (header, TC_HEADER_OFFSET_HIDDEN_VOLUME_SIZE);
cryptoInfo->hiddenVolume = (cryptoInfo->VolumeSize.LowPart != 0 || cryptoInfo->VolumeSize.HighPart != 0);
// Volume size
cryptoInfo->VolumeSize = GetHeaderField64 (header, TC_HEADER_OFFSET_VOLUME_SIZE);
// Encrypted area size and length
cryptoInfo->EncryptedAreaStart = GetHeaderField64 (header, TC_HEADER_OFFSET_ENCRYPTED_AREA_START);
cryptoInfo->EncryptedAreaLength = GetHeaderField64 (header, TC_HEADER_OFFSET_ENCRYPTED_AREA_LENGTH);
// Flags
cryptoInfo->HeaderFlags = GetHeaderField32 (header, TC_HEADER_OFFSET_FLAGS);
memcpy (masterKey, header + HEADER_MASTER_KEYDATA_OFFSET, sizeof (masterKey));
EncryptBuffer (header + HEADER_ENCRYPTED_DATA_OFFSET, HEADER_ENCRYPTED_DATA_SIZE, cryptoInfo);
if (retHeaderCryptoInfo)
goto ret;
// Init the encryption algorithm with the decrypted master key
status = EAInit (cryptoInfo->ea, masterKey, cryptoInfo->ks);
if (status == ERR_CIPHER_INIT_FAILURE)
goto err;
// The secondary master key (if cascade, multiple concatenated)
EAInit (cryptoInfo->ea, masterKey + EAGetKeySize (cryptoInfo->ea), cryptoInfo->ks2);
goto ret;
}
status = ERR_PASSWORD_WRONG;
err:
if (cryptoInfo != retHeaderCryptoInfo)
{
crypto_close(cryptoInfo);
*retInfo = NULL;
}
ret:
burn (dk, sizeof(dk));
burn (masterKey, sizeof(masterKey));
return status;
}
int ReadVolumeHeader (BOOL bBoot, char *encryptedHeader, Password *password, PCRYPTO_INFO *retInfo, CRYPTO_INFO *retHeaderCryptoInfo)
{
char header[TC_VOLUME_HEADER_EFFECTIVE_SIZE];
KEY_INFO keyInfo;
PCRYPTO_INFO cryptoInfo;
char dk[MASTER_KEYDATA_SIZE];
int enqPkcs5Prf, pkcs5_prf;
uint16 headerVersion;
int status = ERR_PARAMETER_INCORRECT;
int primaryKeyOffset;
TC_EVENT keyDerivationCompletedEvent;
TC_EVENT noOutstandingWorkItemEvent;
KeyDerivationWorkItem *keyDerivationWorkItems;
KeyDerivationWorkItem *item;
int pkcs5PrfCount = LAST_PRF_ID - FIRST_PRF_ID + 1;
size_t encryptionThreadCount = GetEncryptionThreadCount();
size_t queuedWorkItems = 0;
LONG outstandingWorkItemCount = 0;
int i;
if (retHeaderCryptoInfo != NULL)
{
cryptoInfo = retHeaderCryptoInfo;
}
else
{
cryptoInfo = *retInfo = crypto_open ();
if (cryptoInfo == NULL)
return ERR_OUTOFMEMORY;
}
if (encryptionThreadCount > 1)
{
keyDerivationWorkItems = TCalloc (sizeof (KeyDerivationWorkItem) * pkcs5PrfCount);
if (!keyDerivationWorkItems)
return ERR_OUTOFMEMORY;
for (i = 0; i < pkcs5PrfCount; ++i)
keyDerivationWorkItems[i].Free = TRUE;
#ifdef DEVICE_DRIVER
KeInitializeEvent (&keyDerivationCompletedEvent, SynchronizationEvent, FALSE);
KeInitializeEvent (&noOutstandingWorkItemEvent, SynchronizationEvent, TRUE);
#else
keyDerivationCompletedEvent = CreateEvent (NULL, FALSE, FALSE, NULL);
if (!keyDerivationCompletedEvent)
{
TCfree (keyDerivationWorkItems);
return ERR_OUTOFMEMORY;
}
noOutstandingWorkItemEvent = CreateEvent (NULL, FALSE, TRUE, NULL);
if (!noOutstandingWorkItemEvent)
{
CloseHandle (keyDerivationCompletedEvent);
TCfree (keyDerivationWorkItems);
return ERR_OUTOFMEMORY;
}
#endif
}
#ifndef DEVICE_DRIVER
VirtualLock (&keyInfo, sizeof (keyInfo));
VirtualLock (&dk, sizeof (dk));
#endif
crypto_loadkey (&keyInfo, password->Text, (int) password->Length);
// PKCS5 is used to derive the primary header key(s) and secondary header key(s) (XTS mode) from the password
memcpy (keyInfo.salt, encryptedHeader + HEADER_SALT_OFFSET, PKCS5_SALT_SIZE);
// Test all available PKCS5 PRFs
for (enqPkcs5Prf = FIRST_PRF_ID; enqPkcs5Prf <= LAST_PRF_ID || queuedWorkItems > 0; ++enqPkcs5Prf)
{
BOOL lrw64InitDone = FALSE; // Deprecated/legacy
BOOL lrw128InitDone = FALSE; // Deprecated/legacy
if (encryptionThreadCount > 1)
{
// Enqueue key derivation on thread pool
if (queuedWorkItems < encryptionThreadCount && enqPkcs5Prf <= LAST_PRF_ID)
{
for (i = 0; i < pkcs5PrfCount; ++i)
{
item = &keyDerivationWorkItems[i];
if (item->Free)
{
item->Free = FALSE;
item->KeyReady = FALSE;
item->Pkcs5Prf = enqPkcs5Prf;
EncryptionThreadPoolBeginKeyDerivation (&keyDerivationCompletedEvent, &noOutstandingWorkItemEvent,
&item->KeyReady, &outstandingWorkItemCount, enqPkcs5Prf, keyInfo.userKey,
keyInfo.keyLength, keyInfo.salt, get_pkcs5_iteration_count (enqPkcs5Prf, bBoot), item->DerivedKey);
++queuedWorkItems;
break;
}
}
if (enqPkcs5Prf < LAST_PRF_ID)
continue;
}
else
--enqPkcs5Prf;
// Wait for completion of a key derivation
while (queuedWorkItems > 0)
{
for (i = 0; i < pkcs5PrfCount; ++i)
{
item = &keyDerivationWorkItems[i];
if (!item->Free && InterlockedExchangeAdd (&item->KeyReady, 0) == TRUE)
{
pkcs5_prf = item->Pkcs5Prf;
keyInfo.noIterations = get_pkcs5_iteration_count (pkcs5_prf, bBoot);
memcpy (dk, item->DerivedKey, sizeof (dk));
item->Free = TRUE;
--queuedWorkItems;
goto KeyReady;
}
}
if (queuedWorkItems > 0)
TC_WAIT_EVENT (keyDerivationCompletedEvent);
}
continue;
KeyReady: ;
}
else
{
pkcs5_prf = enqPkcs5Prf;
keyInfo.noIterations = get_pkcs5_iteration_count (enqPkcs5Prf, bBoot);
switch (pkcs5_prf)
{
case RIPEMD160:
derive_key_ripemd160 (keyInfo.userKey, keyInfo.keyLength, keyInfo.salt,
PKCS5_SALT_SIZE, keyInfo.noIterations, dk, GetMaxPkcs5OutSize());
break;
case SHA512:
derive_key_sha512 (keyInfo.userKey, keyInfo.keyLength, keyInfo.salt,
PKCS5_SALT_SIZE, keyInfo.noIterations, dk, GetMaxPkcs5OutSize());
break;
case SHA1:
// Deprecated/legacy
derive_key_sha1 (keyInfo.userKey, keyInfo.keyLength, keyInfo.salt,
PKCS5_SALT_SIZE, keyInfo.noIterations, dk, GetMaxPkcs5OutSize());
break;
case WHIRLPOOL:
derive_key_whirlpool (keyInfo.userKey, keyInfo.keyLength, keyInfo.salt,
PKCS5_SALT_SIZE, keyInfo.noIterations, dk, GetMaxPkcs5OutSize());
break;
default:
// Unknown/wrong ID
TC_THROW_FATAL_EXCEPTION;
}
}
// Test all available modes of operation
for (cryptoInfo->mode = FIRST_MODE_OF_OPERATION_ID;
cryptoInfo->mode <= LAST_MODE_OF_OPERATION;
cryptoInfo->mode++)
{
switch (cryptoInfo->mode)
{
case LRW:
case CBC:
case INNER_CBC:
case OUTER_CBC:
// For LRW (deprecated/legacy), copy the tweak key
// For CBC (deprecated/legacy), copy the IV/whitening seed
memcpy (cryptoInfo->k2, dk, LEGACY_VOL_IV_SIZE);
primaryKeyOffset = LEGACY_VOL_IV_SIZE;
break;
default:
primaryKeyOffset = 0;
}
// Test all available encryption algorithms
for (cryptoInfo->ea = EAGetFirst ();
cryptoInfo->ea != 0;
cryptoInfo->ea = EAGetNext (cryptoInfo->ea))
{
int blockSize;
if (!EAIsModeSupported (cryptoInfo->ea, cryptoInfo->mode))
continue; // This encryption algorithm has never been available with this mode of operation
blockSize = CipherGetBlockSize (EAGetFirstCipher (cryptoInfo->ea));
status = EAInit (cryptoInfo->ea, dk + primaryKeyOffset, cryptoInfo->ks);
if (status == ERR_CIPHER_INIT_FAILURE)
goto err;
// Init objects related to the mode of operation
if (cryptoInfo->mode == XTS)
{
// Copy the secondary key (if cascade, multiple concatenated)
memcpy (cryptoInfo->k2, dk + EAGetKeySize (cryptoInfo->ea), EAGetKeySize (cryptoInfo->ea));
// Secondary key schedule
if (!EAInitMode (cryptoInfo))
{
status = ERR_MODE_INIT_FAILED;
goto err;
}
}
else if (cryptoInfo->mode == LRW
&& (blockSize == 8 && !lrw64InitDone || blockSize == 16 && !lrw128InitDone))
{
// Deprecated/legacy
if (!EAInitMode (cryptoInfo))
{
status = ERR_MODE_INIT_FAILED;
goto err;
}
if (blockSize == 8)
lrw64InitDone = TRUE;
else if (blockSize == 16)
lrw128InitDone = TRUE;
}
// Copy the header for decryption
memcpy (header, encryptedHeader, sizeof (header));
// Try to decrypt header
DecryptBuffer (header + HEADER_ENCRYPTED_DATA_OFFSET, HEADER_ENCRYPTED_DATA_SIZE, cryptoInfo);
// Magic 'TRUE'
if (GetHeaderField32 (header, TC_HEADER_OFFSET_MAGIC) != 0x54525545)
continue;
// Header version
headerVersion = GetHeaderField16 (header, TC_HEADER_OFFSET_VERSION);
if (headerVersion > VOLUME_HEADER_VERSION)
{
status = ERR_NEW_VERSION_REQUIRED;
goto err;
}
// Check CRC of the header fields
if (!ReadVolumeHeaderRecoveryMode
&& headerVersion >= 4
&& GetHeaderField32 (header, TC_HEADER_OFFSET_HEADER_CRC) != GetCrc32 (header + TC_HEADER_OFFSET_MAGIC, TC_HEADER_OFFSET_HEADER_CRC - TC_HEADER_OFFSET_MAGIC))
continue;
// Required program version
cryptoInfo->RequiredProgramVersion = GetHeaderField16 (header, TC_HEADER_OFFSET_REQUIRED_VERSION);
cryptoInfo->LegacyVolume = cryptoInfo->RequiredProgramVersion < 0x600;
// Check CRC of the key set
if (!ReadVolumeHeaderRecoveryMode
&& GetHeaderField32 (header, TC_HEADER_OFFSET_KEY_AREA_CRC) != GetCrc32 (header + HEADER_MASTER_KEYDATA_OFFSET, MASTER_KEYDATA_SIZE))
continue;
// Now we have the correct password, cipher, hash algorithm, and volume type
// Check the version required to handle this volume
if (cryptoInfo->RequiredProgramVersion > VERSION_NUM)
{
status = ERR_NEW_VERSION_REQUIRED;
goto err;
}
// Header version
cryptoInfo->HeaderVersion = headerVersion;
// Volume creation time (legacy)
cryptoInfo->volume_creation_time = GetHeaderField64 (header, TC_HEADER_OFFSET_VOLUME_CREATION_TIME).Value;
// Header creation time (legacy)
cryptoInfo->header_creation_time = GetHeaderField64 (header, TC_HEADER_OFFSET_MODIFICATION_TIME).Value;
// Hidden volume size (if any)
cryptoInfo->hiddenVolumeSize = GetHeaderField64 (header, TC_HEADER_OFFSET_HIDDEN_VOLUME_SIZE).Value;
// Hidden volume status
cryptoInfo->hiddenVolume = (cryptoInfo->hiddenVolumeSize != 0);
// Volume size
cryptoInfo->VolumeSize = GetHeaderField64 (header, TC_HEADER_OFFSET_VOLUME_SIZE);
// Encrypted area size and length
cryptoInfo->EncryptedAreaStart = GetHeaderField64 (header, TC_HEADER_OFFSET_ENCRYPTED_AREA_START);
cryptoInfo->EncryptedAreaLength = GetHeaderField64 (header, TC_HEADER_OFFSET_ENCRYPTED_AREA_LENGTH);
// Flags
cryptoInfo->HeaderFlags = GetHeaderField32 (header, TC_HEADER_OFFSET_FLAGS);
// Sector size
if (headerVersion >= 5)
cryptoInfo->SectorSize = GetHeaderField32 (header, TC_HEADER_OFFSET_SECTOR_SIZE);
else
cryptoInfo->SectorSize = TC_SECTOR_SIZE_LEGACY;
if (cryptoInfo->SectorSize < TC_MIN_VOLUME_SECTOR_SIZE
|| cryptoInfo->SectorSize > TC_MAX_VOLUME_SECTOR_SIZE
|| cryptoInfo->SectorSize % ENCRYPTION_DATA_UNIT_SIZE != 0)
{
status = ERR_PARAMETER_INCORRECT;
goto err;
}
// Preserve scheduled header keys if requested
if (retHeaderCryptoInfo)
{
if (retInfo == NULL)
{
cryptoInfo->pkcs5 = pkcs5_prf;
cryptoInfo->noIterations = keyInfo.noIterations;
goto ret;
}
cryptoInfo = *retInfo = crypto_open ();
if (cryptoInfo == NULL)
{
status = ERR_OUTOFMEMORY;
goto err;
}
memcpy (cryptoInfo, retHeaderCryptoInfo, sizeof (*cryptoInfo));
}
// Master key data
memcpy (keyInfo.master_keydata, header + HEADER_MASTER_KEYDATA_OFFSET, MASTER_KEYDATA_SIZE);
memcpy (cryptoInfo->master_keydata, keyInfo.master_keydata, MASTER_KEYDATA_SIZE);
// PKCS #5
memcpy (cryptoInfo->salt, keyInfo.salt, PKCS5_SALT_SIZE);
cryptoInfo->pkcs5 = pkcs5_prf;
cryptoInfo->noIterations = keyInfo.noIterations;
// Init the cipher with the decrypted master key
status = EAInit (cryptoInfo->ea, keyInfo.master_keydata + primaryKeyOffset, cryptoInfo->ks);
if (status == ERR_CIPHER_INIT_FAILURE)
goto err;
switch (cryptoInfo->mode)
{
case LRW:
case CBC:
case INNER_CBC:
case OUTER_CBC:
// For LRW (deprecated/legacy), the tweak key
// For CBC (deprecated/legacy), the IV/whitening seed
memcpy (cryptoInfo->k2, keyInfo.master_keydata, LEGACY_VOL_IV_SIZE);
break;
default:
// The secondary master key (if cascade, multiple concatenated)
memcpy (cryptoInfo->k2, keyInfo.master_keydata + EAGetKeySize (cryptoInfo->ea), EAGetKeySize (cryptoInfo->ea));
}
if (!EAInitMode (cryptoInfo))
{
status = ERR_MODE_INIT_FAILED;
goto err;
}
status = ERR_SUCCESS;
goto ret;
}
}
}
status = ERR_PASSWORD_WRONG;
err:
if (cryptoInfo != retHeaderCryptoInfo)
{
crypto_close(cryptoInfo);
*retInfo = NULL;
}
ret:
burn (&keyInfo, sizeof (keyInfo));
burn (dk, sizeof(dk));
#ifndef DEVICE_DRIVER
VirtualUnlock (&keyInfo, sizeof (keyInfo));
VirtualUnlock (&dk, sizeof (dk));
#endif
if (encryptionThreadCount > 1)
{
TC_WAIT_EVENT (noOutstandingWorkItemEvent);
burn (keyDerivationWorkItems, sizeof (KeyDerivationWorkItem) * pkcs5PrfCount);
TCfree (keyDerivationWorkItems);
#ifndef DEVICE_DRIVER
CloseHandle (keyDerivationCompletedEvent);
CloseHandle (noOutstandingWorkItemEvent);
#endif
}
return status;
}
///
/// Note: if there are Keyfiles, these must be applied already to the password!
/// int __declspec(dllexport) __stdcall CheckVolumeHeaderPassword (BOOL bBoot, char *encryptedHeader, Password *password)
int __declspec(dllexport) __cdecl CheckVolumeHeaderPassword (BOOL bBoot, char *encryptedHeader, Password *password)
{
char header[TC_VOLUME_HEADER_EFFECTIVE_SIZE];
KEY_INFO keyInfo;
PCRYPTO_INFO cryptoInfo;
char dk[MASTER_KEYDATA_SIZE];
int enqPkcs5Prf, pkcs5_prf;
uint16 headerVersion;
int status = ERR_PARAMETER_INCORRECT;
int primaryKeyOffset;
TC_EVENT keyDerivationCompletedEvent;
TC_EVENT noOutstandingWorkItemEvent;
KeyDerivationWorkItem *keyDerivationWorkItems;
KeyDerivationWorkItem *item;
int pkcs5PrfCount = LAST_PRF_ID - FIRST_PRF_ID + 1;
size_t encryptionThreadCount = GetEncryptionThreadCount();
size_t queuedWorkItems = 0;
LONG outstandingWorkItemCount = 0;
int i;
cryptoInfo = crypto_open();
if (cryptoInfo == NULL)
return ERR_OUTOFMEMORY;
if (encryptionThreadCount > 1)
{
keyDerivationWorkItems = TCalloc (sizeof (KeyDerivationWorkItem) * pkcs5PrfCount);
if (!keyDerivationWorkItems)
return ERR_OUTOFMEMORY;
for (i = 0; i < pkcs5PrfCount; ++i)
keyDerivationWorkItems[i].Free = TRUE;
keyDerivationCompletedEvent = CreateEvent (NULL, FALSE, FALSE, NULL);
if (!keyDerivationCompletedEvent)
{
TCfree (keyDerivationWorkItems);
return ERR_OUTOFMEMORY;
}
noOutstandingWorkItemEvent = CreateEvent (NULL, FALSE, TRUE, NULL);
if (!noOutstandingWorkItemEvent)
{
CloseHandle (keyDerivationCompletedEvent);
TCfree (keyDerivationWorkItems);
return ERR_OUTOFMEMORY;
}
}
VirtualLock (&keyInfo, sizeof (keyInfo));
VirtualLock (&dk, sizeof (dk));
crypto_loadkey (&keyInfo, password->Text, (int) password->Length);
// PKCS5 is used to derive the primary header key(s) and secondary header key(s) (XTS mode) from the password
memcpy (keyInfo.salt, encryptedHeader + HEADER_SALT_OFFSET, PKCS5_SALT_SIZE);
// Test all available PKCS5 PRFs
for (enqPkcs5Prf = FIRST_PRF_ID; enqPkcs5Prf <= LAST_PRF_ID || queuedWorkItems > 0; ++enqPkcs5Prf)
{
BOOL lrw64InitDone = FALSE; // Deprecated/legacy
BOOL lrw128InitDone = FALSE; // Deprecated/legacy
if (encryptionThreadCount > 1)
{
// Enqueue key derivation on thread pool
if (queuedWorkItems < encryptionThreadCount && enqPkcs5Prf <= LAST_PRF_ID)
{
for (i = 0; i < pkcs5PrfCount; ++i)
{
item = &keyDerivationWorkItems[i];
if (item->Free)
{
item->Free = FALSE;
item->KeyReady = FALSE;
item->Pkcs5Prf = enqPkcs5Prf;
EncryptionThreadPoolBeginKeyDerivation (&keyDerivationCompletedEvent, &noOutstandingWorkItemEvent,
&item->KeyReady, &outstandingWorkItemCount, enqPkcs5Prf, keyInfo.userKey,
keyInfo.keyLength, keyInfo.salt, get_pkcs5_iteration_count (enqPkcs5Prf, bBoot), item->DerivedKey);
++queuedWorkItems;
break;
}
}
if (enqPkcs5Prf < LAST_PRF_ID)
continue;
}
else
--enqPkcs5Prf;
// Wait for completion of a key derivation
while (queuedWorkItems > 0)
{
for (i = 0; i < pkcs5PrfCount; ++i)
{
item = &keyDerivationWorkItems[i];
if (!item->Free && InterlockedExchangeAdd (&item->KeyReady, 0) == TRUE)
{
pkcs5_prf = item->Pkcs5Prf;
keyInfo.noIterations = get_pkcs5_iteration_count (pkcs5_prf, bBoot);
memcpy (dk, item->DerivedKey, sizeof (dk));
item->Free = TRUE;
--queuedWorkItems;
goto KeyReady;
}
}
if (queuedWorkItems > 0)
TC_WAIT_EVENT (keyDerivationCompletedEvent);
}
continue;
KeyReady: ;
}
else
{
pkcs5_prf = enqPkcs5Prf;
keyInfo.noIterations = get_pkcs5_iteration_count (enqPkcs5Prf, bBoot);
switch (pkcs5_prf)
{
case RIPEMD160:
derive_key_ripemd160 (keyInfo.userKey, keyInfo.keyLength, keyInfo.salt,
PKCS5_SALT_SIZE, keyInfo.noIterations, dk, GetMaxPkcs5OutSize());
break;
case SHA512:
derive_key_sha512 (keyInfo.userKey, keyInfo.keyLength, keyInfo.salt,
PKCS5_SALT_SIZE, keyInfo.noIterations, dk, GetMaxPkcs5OutSize());
break;
case SHA1:
// Deprecated/legacy
derive_key_sha1 (keyInfo.userKey, keyInfo.keyLength, keyInfo.salt,
PKCS5_SALT_SIZE, keyInfo.noIterations, dk, GetMaxPkcs5OutSize());
break;
case WHIRLPOOL:
derive_key_whirlpool (keyInfo.userKey, keyInfo.keyLength, keyInfo.salt,
PKCS5_SALT_SIZE, keyInfo.noIterations, dk, GetMaxPkcs5OutSize());
break;
default:
// Unknown/wrong ID
TC_THROW_FATAL_EXCEPTION;
}
}
// Test all available modes of operation
for (cryptoInfo->mode = FIRST_MODE_OF_OPERATION_ID;
cryptoInfo->mode <= LAST_MODE_OF_OPERATION;
cryptoInfo->mode++)
{
switch (cryptoInfo->mode)
{
case LRW:
case CBC:
case INNER_CBC:
case OUTER_CBC:
// For LRW (deprecated/legacy), copy the tweak key
// For CBC (deprecated/legacy), copy the IV/whitening seed
memcpy (cryptoInfo->k2, dk, LEGACY_VOL_IV_SIZE);
primaryKeyOffset = LEGACY_VOL_IV_SIZE;
break;
default:
primaryKeyOffset = 0;
}
// Test all available encryption algorithms
for (cryptoInfo->ea = EAGetFirst ();
cryptoInfo->ea != 0;
cryptoInfo->ea = EAGetNext (cryptoInfo->ea))
{
int blockSize;
if (!EAIsModeSupported (cryptoInfo->ea, cryptoInfo->mode))
continue; // This encryption algorithm has never been available with this mode of operation
blockSize = CipherGetBlockSize (EAGetFirstCipher (cryptoInfo->ea));
status = EAInit (cryptoInfo->ea, dk + primaryKeyOffset, cryptoInfo->ks);
if (status == ERR_CIPHER_INIT_FAILURE)
goto err;
// Init objects related to the mode of operation
if (cryptoInfo->mode == XTS)
{
// Copy the secondary key (if cascade, multiple concatenated)
memcpy (cryptoInfo->k2, dk + EAGetKeySize (cryptoInfo->ea), EAGetKeySize (cryptoInfo->ea));
// Secondary key schedule
if (!EAInitMode (cryptoInfo))
{
status = ERR_MODE_INIT_FAILED;
goto err;
}
}
else if (cryptoInfo->mode == LRW
&& (blockSize == 8 && !lrw64InitDone || blockSize == 16 && !lrw128InitDone))
{
// Deprecated/legacy
if (!EAInitMode (cryptoInfo))
{
status = ERR_MODE_INIT_FAILED;
goto err;
}
if (blockSize == 8)
lrw64InitDone = TRUE;
else if (blockSize == 16)
lrw128InitDone = TRUE;
}
// Copy the header for decryption
memcpy (header, encryptedHeader, sizeof (header));
// Try to decrypt header
DecryptBuffer (header + HEADER_ENCRYPTED_DATA_OFFSET, HEADER_ENCRYPTED_DATA_SIZE, cryptoInfo);
// Magic 'TRUE'
if (GetHeaderField32 (header, TC_HEADER_OFFSET_MAGIC) == 0x54525545){
status = ERR_SUCCESS;
goto ret;
}
}
}
}
status = ERR_PASSWORD_WRONG;
err:
ret:
burn (&keyInfo, sizeof (keyInfo));
burn (dk, sizeof(dk));
VirtualUnlock (&keyInfo, sizeof (keyInfo));
VirtualUnlock (&dk, sizeof (dk));
if (encryptionThreadCount > 1)
{
// TC_WAIT_EVENT (noOutstandingWorkItemEvent);
burn (keyDerivationWorkItems, sizeof (KeyDerivationWorkItem) * pkcs5PrfCount);
TCfree (keyDerivationWorkItems);
CloseHandle (keyDerivationCompletedEvent);
CloseHandle (noOutstandingWorkItemEvent);
}
return status;
}
int ReadVolumeHeader (BOOL bBoot, char *header, Password *password, int pim, PCRYPTO_INFO *retInfo, CRYPTO_INFO *retHeaderCryptoInfo)
{
#ifdef TC_WINDOWS_BOOT_SINGLE_CIPHER_MODE
char dk[32 * 2]; // 2 * 256-bit key
#else
char dk[32 * 2 * 3]; // 6 * 256-bit key
#endif
PCRYPTO_INFO cryptoInfo;
int status = ERR_SUCCESS;
uint32 iterations = pim;
iterations <<= 16;
iterations |= bBoot;
if (retHeaderCryptoInfo != NULL)
cryptoInfo = retHeaderCryptoInfo;
else
cryptoInfo = *retInfo = crypto_open ();
// PKCS5 PRF
#ifdef TC_WINDOWS_BOOT_SHA2
derive_key_sha256 (password->Text, (int) password->Length, header + HEADER_SALT_OFFSET,
PKCS5_SALT_SIZE, iterations, dk, sizeof (dk));
#else
derive_key_ripemd160 (password->Text, (int) password->Length, header + HEADER_SALT_OFFSET,
PKCS5_SALT_SIZE, iterations, dk, sizeof (dk));
#endif
// Mode of operation
cryptoInfo->mode = FIRST_MODE_OF_OPERATION_ID;
#ifdef TC_WINDOWS_BOOT_SINGLE_CIPHER_MODE
cryptoInfo->ea = 1;
#else
// Test all available encryption algorithms
for (cryptoInfo->ea = EAGetFirst (); cryptoInfo->ea != 0; cryptoInfo->ea = EAGetNext (cryptoInfo->ea))
#endif
{
#ifdef TC_WINDOWS_BOOT_SINGLE_CIPHER_MODE
#if defined (TC_WINDOWS_BOOT_SERPENT)
serpent_set_key (dk, cryptoInfo->ks);
#elif defined (TC_WINDOWS_BOOT_TWOFISH)
twofish_set_key ((TwofishInstance *) cryptoInfo->ks, (const u4byte *) dk);
#elif defined (TC_WINDOWS_BOOT_CAMELLIA)
camellia_set_key (dk, cryptoInfo->ks);
#else
status = EAInit (dk, cryptoInfo->ks);
if (status == ERR_CIPHER_INIT_FAILURE)
goto err;
#endif
#else
status = EAInit (cryptoInfo->ea, dk, cryptoInfo->ks);
if (status == ERR_CIPHER_INIT_FAILURE)
goto err;
#endif
// Secondary key schedule
#ifdef TC_WINDOWS_BOOT_SINGLE_CIPHER_MODE
#if defined (TC_WINDOWS_BOOT_SERPENT)
serpent_set_key (dk + 32, cryptoInfo->ks2);
#elif defined (TC_WINDOWS_BOOT_TWOFISH)
twofish_set_key ((TwofishInstance *)cryptoInfo->ks2, (const u4byte *) (dk + 32));
#elif defined (TC_WINDOWS_BOOT_CAMELLIA)
camellia_set_key (dk + 32, cryptoInfo->ks2);
#else
EAInit (dk + 32, cryptoInfo->ks2);
#endif
#else
EAInit (cryptoInfo->ea, dk + EAGetKeySize (cryptoInfo->ea), cryptoInfo->ks2);
#endif
// Try to decrypt header
DecryptBuffer (header + HEADER_ENCRYPTED_DATA_OFFSET, HEADER_ENCRYPTED_DATA_SIZE, cryptoInfo);
// Check magic 'VERA' and CRC-32 of header fields and master keydata
if (GetHeaderField32 (header, TC_HEADER_OFFSET_MAGIC) != 0x56455241
|| (GetHeaderField16 (header, TC_HEADER_OFFSET_VERSION) >= 4 && GetHeaderField32 (header, TC_HEADER_OFFSET_HEADER_CRC) != GetCrc32 (header + TC_HEADER_OFFSET_MAGIC, TC_HEADER_OFFSET_HEADER_CRC - TC_HEADER_OFFSET_MAGIC))
|| GetHeaderField32 (header, TC_HEADER_OFFSET_KEY_AREA_CRC) != GetCrc32 (header + HEADER_MASTER_KEYDATA_OFFSET, MASTER_KEYDATA_SIZE))
{
EncryptBuffer (header + HEADER_ENCRYPTED_DATA_OFFSET, HEADER_ENCRYPTED_DATA_SIZE, cryptoInfo);
#ifdef TC_WINDOWS_BOOT_SINGLE_CIPHER_MODE
status = ERR_PASSWORD_WRONG;
goto err;
#else
continue;
#endif
}
// Header decrypted
status = 0;
// Hidden volume status
cryptoInfo->VolumeSize = GetHeaderField64 (header, TC_HEADER_OFFSET_HIDDEN_VOLUME_SIZE);
cryptoInfo->hiddenVolume = (cryptoInfo->VolumeSize.LowPart != 0 || cryptoInfo->VolumeSize.HighPart != 0);
// Volume size
cryptoInfo->VolumeSize = GetHeaderField64 (header, TC_HEADER_OFFSET_VOLUME_SIZE);
// Encrypted area size and length
cryptoInfo->EncryptedAreaStart = GetHeaderField64 (header, TC_HEADER_OFFSET_ENCRYPTED_AREA_START);
cryptoInfo->EncryptedAreaLength = GetHeaderField64 (header, TC_HEADER_OFFSET_ENCRYPTED_AREA_LENGTH);
// Flags
cryptoInfo->HeaderFlags = GetHeaderField32 (header, TC_HEADER_OFFSET_FLAGS);
#ifdef TC_WINDOWS_BOOT_SHA2
cryptoInfo->pkcs5 = SHA256;
#else
cryptoInfo->pkcs5 = RIPEMD160;
#endif
memcpy (dk, header + HEADER_MASTER_KEYDATA_OFFSET, sizeof (dk));
EncryptBuffer (header + HEADER_ENCRYPTED_DATA_OFFSET, HEADER_ENCRYPTED_DATA_SIZE, cryptoInfo);
if (retHeaderCryptoInfo)
goto ret;
// Init the encryption algorithm with the decrypted master key
#ifdef TC_WINDOWS_BOOT_SINGLE_CIPHER_MODE
#if defined (TC_WINDOWS_BOOT_SERPENT)
serpent_set_key (dk, cryptoInfo->ks);
#elif defined (TC_WINDOWS_BOOT_TWOFISH)
twofish_set_key ((TwofishInstance *) cryptoInfo->ks, (const u4byte *) dk);
#elif defined (TC_WINDOWS_BOOT_CAMELLIA)
camellia_set_key (dk, cryptoInfo->ks);
#else
status = EAInit (dk, cryptoInfo->ks);
if (status == ERR_CIPHER_INIT_FAILURE)
goto err;
#endif
#else
status = EAInit (cryptoInfo->ea, dk, cryptoInfo->ks);
if (status == ERR_CIPHER_INIT_FAILURE)
goto err;
#endif
// The secondary master key (if cascade, multiple concatenated)
#ifdef TC_WINDOWS_BOOT_SINGLE_CIPHER_MODE
#if defined (TC_WINDOWS_BOOT_SERPENT)
serpent_set_key (dk + 32, cryptoInfo->ks2);
#elif defined (TC_WINDOWS_BOOT_TWOFISH)
twofish_set_key ((TwofishInstance *)cryptoInfo->ks2, (const u4byte *) (dk + 32));
#elif defined (TC_WINDOWS_BOOT_CAMELLIA)
camellia_set_key (dk + 32, cryptoInfo->ks2);
#else
EAInit (dk + 32, cryptoInfo->ks2);
#endif
#else
EAInit (cryptoInfo->ea, dk + EAGetKeySize (cryptoInfo->ea), cryptoInfo->ks2);
#endif
goto ret;
}
status = ERR_PASSWORD_WRONG;
err:
if (cryptoInfo != retHeaderCryptoInfo)
{
crypto_close(cryptoInfo);
*retInfo = NULL;
}
ret:
burn (dk, sizeof(dk));
return status;
}
u32 SdPadgen()
{
u32 result;
SdInfo *info = (SdInfo*)0x20316000;
u8 movable_seed[0x120] = {0};
// Load console 0x34 keyY from movable.sed if present on SD card
if (DebugFileOpen("/movable.sed")) {
if (!DebugFileRead(&movable_seed, 0x120, 0)) {
FileClose();
return 1;
}
FileClose();
if (memcmp(movable_seed, "SEED", 4) != 0) {
Debug("movable.sed is too corrupt!");
return 1;
}
setup_aeskey(0x34, AES_BIG_INPUT|AES_NORMAL_INPUT, &movable_seed[0x110]);
use_aeskey(0x34);
}
if (!DebugFileOpen("/SDinfo.bin"))
return 1;
if (!DebugFileRead(info, 4, 0)) {
FileClose();
return 1;
}
if (!info->n_entries || info->n_entries > MAX_ENTRIES) {
Debug("Too many/few entries!");
return 1;
}
Debug("Number of entries: %i", info->n_entries);
if (!DebugFileRead(info->entries, info->n_entries * sizeof(SdInfoEntry), 4)) {
FileClose();
return 1;
}
FileClose();
for(u32 i = 0; i < info->n_entries; i++) {
Debug ("Creating pad number: %i. Size (MB): %i", i+1, info->entries[i].size_mb);
PadInfo padInfo = {.keyslot = 0x34, .setKeyY = 0, .size_mb = info->entries[i].size_mb};
memcpy(padInfo.CTR, info->entries[i].CTR, 16);
memcpy(padInfo.filename, info->entries[i].filename, 180);
result = CreatePad(&padInfo);
if (!result)
Debug("Done!");
else
return 1;
}
return 0;
}
static u8* FindNandCtr()
{
static const char* versions[] = {"4.x", "5.x", "6.x", "7.x", "8.x", "9.x"};
static const u8* version_ctrs[] = {
(u8*)0x080D7CAC,
(u8*)0x080D858C,
(u8*)0x080D748C,
(u8*)0x080D740C,
(u8*)0x080D74CC,
(u8*)0x080D794C
};
static const u32 version_ctrs_len = sizeof(version_ctrs) / sizeof(u32);
for (u32 i = 0; i < version_ctrs_len; i++) {
if (*(u32*)version_ctrs[i] == 0x5C980) {
Debug("System version %s", versions[i]);
return (u8*)(version_ctrs[i] + 0x30);
}
}
// If value not in previous list start memory scanning (test range)
for (u8* c = (u8*)0x080D8FFF; c > (u8*)0x08000000; c--) {
if (*(u32*)c == 0x5C980 && *(u32*)(c + 1) == 0x800005C9) {
Debug("CTR Start 0x%08X", c + 0x30);
return c + 0x30;
}
}
return NULL;
}
u32 DumpPartition(char* filename, u32 offset, u32 size, u32 keyslot) {
DecryptBufferInfo info;
u8* buffer = BUFFER_ADDRESS;
u8* ctrStart = FindNandCtr();
u32 result = 0;
Debug("Dumping System NAND Partition. Size (MB): %u", size / (1024 * 1024));
Debug("Filename: %s", filename);
if (ctrStart == NULL)
return 1;
info.keyslot = keyslot;
info.setKeyY = 0;
info.size = SECTORS_PER_READ * NAND_SECTOR_SIZE;
info.buffer = buffer;
for (u32 i = 0; i < 16; i++) {
info.CTR[i] = *(ctrStart + (0xF - i)); // The CTR is stored backwards in memory.
}
add_ctr(info.CTR, offset / 0x10);
if (!DebugFileCreate(filename, true))
return 1;
u32 n_sectors = size / NAND_SECTOR_SIZE;
u32 start_sector = offset / NAND_SECTOR_SIZE;
for (u32 i = 0; i < n_sectors; i += SECTORS_PER_READ) {
ShowProgress(i, n_sectors);
sdmmc_nand_readsectors(start_sector + i, SECTORS_PER_READ, buffer);
DecryptBuffer(&info);
if (!DebugFileWrite(buffer, NAND_SECTOR_SIZE * SECTORS_PER_READ, i * NAND_SECTOR_SIZE)) {
result = 1;
break;
}
}
ShowProgress(0, 0);
FileClose();
return result;
}
void EncryptionModeLRW::Decrypt (byte *data, uint64 length) const
{
if_debug (ValidateState ());
DecryptBuffer (data, length, 1);
}
int LogBookData::LoadData (_TCHAR *callsign)
{
DWORD size;
FILE *fp;
size_t success = 0;
_TCHAR path[_MAX_PATH];
ShiAssert(callsign);
_stprintf(path,_T("%s\\config\\%s.lbk"),FalconDataDirectory,callsign);
fp = _tfopen(path,_T("rb"));
if(!fp)
{
MonoPrint(_T("Couldn't open %s's logbook.\n"),callsign);
Initialize();
return FALSE;
}
fseek(fp,0,SEEK_END);
size = ftell(fp);
fseek(fp,0,SEEK_SET);
if(size != sizeof(LB_PILOT))
{
MonoPrint(_T("%s's logbook is old file format.\n"),callsign);
fclose(fp);
Initialize();
return FALSE;
}
success = fread(&Pilot, sizeof(LB_PILOT), 1, fp);
fclose(fp);
if(success != 1)
{
MonoPrint(_T("Failed to read %s's logbook.\n"),callsign);
Initialize();
return BAD_READ;
}
DecryptBuffer(0x58,(uchar*)&Pilot,sizeof(LB_PILOT));
if(Pilot.CheckSum) // Somebody changed the data... init
{
MonoPrint("Failed checksum");
Initialize();
return(FALSE);
}
if(gCommsMgr)
{
sprintf(path,"%s\\config\\%s.plc",FalconDataDirectory,callsign);
gCommsMgr->SetStatsFile(path);
}
if(this == &LogBook)
{
FalconLocalSession->SetPlayerName(NameWRank());
FalconLocalSession->SetPlayerCallsign(Callsign());
FalconLocalSession->SetAceFactor(AceFactor());
FalconLocalSession->SetInitAceFactor(AceFactor());
FalconLocalSession->SetVoiceID(static_cast<uchar>(Voice()));
PlayerOptions.LoadOptions ();
LoadAllRules(Callsign());
LogState |= LB_LOADED_ONCE;
}
return TRUE;
}
