; --------------------------------------------------------------------------- ; Copyright (c) 1998-2007, Brian Gladman, Worcester, UK. All rights reserved. ; ; LICENSE TERMS ; ; The free distribution and use of this software is allowed (with or without ; changes) provided that: ; ; 1. source code distributions include the above copyright notice, this ; list of conditions and the following disclaimer; ; ; 2. binary distributions include the above copyright notice, this list ; of conditions and the following disclaimer in their documentation; ; ; 3. the name of the copyright holder is not used to endorse products ; built using this software without specific written permission. ; ; DISCLAIMER ; ; This software is provided 'as is' with no explicit or implied warranties ; in respect of its properties, including, but not limited to, correctness ; and/or fitness for purpose. ; --------------------------------------------------------------------------- ; Issue 20/12/2007 ; ; This code requires either ASM_X86_V2 or ASM_X86_V2C to be set in aesopt.h ; and the same define to be set here as well. If AES_V2C is set this file ; requires the C files aeskey.c and aestab.c for support. ; An AES implementation for x86 processors using the YASM (or NASM) assembler. ; This is a full assembler implementation covering encryption, decryption and ; key scheduling. It uses 2k bytes of tables but its encryption and decryption ; performance is very close to that obtained using large tables. Key schedule ; expansion is slower for both encryption and decryption but this is likely to ; be offset by the much smaller load that this version places on the processor ; cache. I acknowledge the contribution made by Daniel Bernstein to aspects of ; the design of the AES round function used here. ; ; This code provides the standard AES block size (128 bits, 16 bytes) and the ; three standard AES key sizes (128, 192 and 256 bits). It has the same call ; interface as my C implementation. The ebx, esi, edi and ebp registers are ; preserved across calls but eax, ecx and edx and the artihmetic status flags ; are not. Although this is a full assembler implementation, it can be used ; in conjunction with my C code which provides faster key scheduling using ; large tables. In this case aeskey.c should be compiled with ASM_X86_V2C ; defined. It is also important that the defines below match those used in the ; C code. This code uses the VC++ register saving conentions; if it is used ; with another compiler, conventions for using and saving registers may need ; to be checked (and calling conventions). The YASM command line for the VC++ ; custom build step is: ; ; yasm -Xvc -f win32 -D -o "$(TargetDir)\$(InputName).obj" "$(InputPath)" ; ; For the cryptlib build this is (pcg): ; ; yasm -Xvc -f win32 -D ASM_X86_V2C -o aescrypt2.obj aes_x86_v2.asm ; ; where is ASM_X86_V2 or ASM_X86_V2C. The calling intefaces are: ; ; AES_RETURN aes_encrypt(const unsigned char in_blk[], ; unsigned char out_blk[], const aes_encrypt_ctx cx[1]); ; ; AES_RETURN aes_decrypt(const unsigned char in_blk[], ; unsigned char out_blk[], const aes_decrypt_ctx cx[1]); ; ; AES_RETURN aes_encrypt_key(const unsigned char key[], ; const aes_encrypt_ctx cx[1]); ; ; AES_RETURN aes_decrypt_key(const unsigned char key[], ; const aes_decrypt_ctx cx[1]); ; ; AES_RETURN aes_encrypt_key(const unsigned char key[], ; unsigned int len, const aes_decrypt_ctx cx[1]); ; ; AES_RETURN aes_decrypt_key(const unsigned char key[], ; unsigned int len, const aes_decrypt_ctx cx[1]); ; ; where is 128, 102 or 256. In the last two calls the length can be in ; either bits or bytes. ; The DLL interface must use the _stdcall convention in which the number ; of bytes of parameter space is added after an @ to the sutine's name. ; We must also remove our parameters from the stack before return (see ; the do_exit macro). Define DLL_EXPORT for the Dynamic Link Library version. ; ; Adapted for TrueCrypt: ; - All tables generated at run-time ; - Adapted for 16-bit environment ; CPU 386 USE16 SEGMENT _TEXT PUBLIC CLASS=CODE USE16 SEGMENT _DATA PUBLIC CLASS=DATA USE16 GROUP DGROUP _TEXT _DATA extern _aes_dec_tab ; Aestab.c extern _aes_enc_tab ; %define DLL_EXPORT ; The size of the code can be reduced by using functions for the encryption ; and decryption rounds in place of macro expansion %define REDUCE_CODE_SIZE ; Comment in/out the following lines to obtain the desired subroutines. These ; selections MUST match those in the C header file aes.h ; %define AES_128 ; define if AES with 128 bit keys is needed ; %define AES_192 ; define if AES with 192 bit keys is needed %define AES_256 ; define if AES with 256 bit keys is needed ; %define AES_VAR ; define if a variable key size is needed %define ENCRYPTION ; define if encryption is needed %define DECRYPTION ; define if decryption is needed ; %define AES_REV_DKS ; define if key decryption schedule is reversed %ifndef ASM_X86_V2C %define ENCRYPTION_KEY_SCHEDULE ; define if encryption key expansion is needed %define DECRYPTION_KEY_SCHEDULE ; define if decryption key expansion is needed %endif ; The encryption key schedule has the following in memory layout where N is the ; number of rounds (10, 12 or 14): ; ; lo: | input key (round 0) | ; each round is four 32-bit words ; | encryption round 1 | ; | encryption round 2 | ; .... ; | encryption round N-1 | ; hi: | encryption round N | ; ; The decryption key schedule is normally set up so that it has the same ; layout as above by actually reversing the order of the encryption key ; schedule in memory (this happens when AES_REV_DKS is set): ; ; lo: | decryption round 0 | = | encryption round N | ; | decryption round 1 | = INV_MIX_COL[ | encryption round N-1 | ] ; | decryption round 2 | = INV_MIX_COL[ | encryption round N-2 | ] ; .... .... ; | decryption round N-1 | = INV_MIX_COL[ | encryption round 1 | ] ; hi: | decryption round N | = | input key (round 0) | ; ; with rounds except the first and last modified using inv_mix_column() ; But if AES_REV_DKS is NOT set the order of keys is left as it is for ; encryption so that it has to be accessed in reverse when used for ; decryption (although the inverse mix column modifications are done) ; ; lo: | decryption round 0 | = | input key (round 0) | ; | decryption round 1 | = INV_MIX_COL[ | encryption round 1 | ] ; | decryption round 2 | = INV_MIX_COL[ | encryption round 2 | ] ; .... .... 
/*
 Copyright (c) 2013-2016 IDRIX. All rights reserved.

 Governed by the Apache License 2.0 the full text of which is
 contained in the file License.txt included in VeraCrypt binary and source
 code distribution packages.
*/

#include "System.h"
#include "Volume/EncryptionModeXTS.h"
#include "Main/GraphicUserInterface.h"
#include "Common/SecurityToken.h"
#include "WaitDialog.h"

namespace VeraCrypt
{
	DEFINE_EVENT_TYPE(wxEVT_COMMAND_WAITDIALOGTHREAD_COMPLETED)
	DEFINE_EVENT_TYPE(wxEVT_COMMAND_WAITDIALOG_ADMIN_PASSWORD)
	DEFINE_EVENT_TYPE(wxEVT_COMMAND_WAITDIALOG_PIN)
	DEFINE_EVENT_TYPE(wxEVT_COMMAND_WAITDIALOG_SHOW_MSG)

	wxThread::ExitCode WaitThread::Entry()
	{
		m_pRoutine->Execute();
		wxQueueEvent (m_pHandler, new wxCommandEvent( wxEVT_COMMAND_WAITDIALOGTHREAD_COMPLETED,0));
		return (wxThread::ExitCode)0; // success
	}

	void WaitDialog::ThrowException(Exception* ex)
	{
	#define VC_CONVERT_EXCEPTION(NAME) if (dynamic_cast<NAME*> (ex)) throw (NAME&) *ex;
		VC_CONVERT_EXCEPTION (PasswordIncorrect);
		VC_CONVERT_EXCEPTION (PasswordKeyfilesIncorrect);
		VC_CONVERT_EXCEPTION (PasswordOrKeyboardLayoutIncorrect);
		VC_CONVERT_EXCEPTION (PasswordOrMountOptionsIncorrect);
		VC_CONVERT_EXCEPTION (ProtectionPasswordIncorrect);
		VC_CONVERT_EXCEPTION (ProtectionPasswordKeyfilesIncorrect);
		VC_CONVERT_EXCEPTION (PasswordEmpty);
		VC_CONVERT_EXCEPTION (PasswordTooLong);
		VC_CONVERT_EXCEPTION (PasswordUTF8TooLong);
		VC_CONVERT_EXCEPTION (PasswordUTF8Invalid);
		VC_CONVERT_EXCEPTION (UnportablePassword);
		VC_CONVERT_EXCEPTION (ElevationFailed);
		VC_CONVERT_EXCEPTION (RootDeviceUnavailable);
		VC_CONVERT_EXCEPTION (DriveLetterUnavailable);
		VC_CONVERT_EXCEPTION (DriverError);
		VC_CONVERT_EXCEPTION (EncryptedSystemRequired);
		VC_CONVERT_EXCEPTION (HigherFuseVersionRequired);
		VC_CONVERT_EXCEPTION (KernelCryptoServiceTestFailed);
		VC_CONVERT_EXCEPTION (LoopDeviceSetupFailed);
		VC_CONVERT_EXCEPTION (MountPointRequired);
		VC_CONVERT_EXCEPTION (MountPointUnavailable);
		VC_CONVERT_EXCEPTION (NoDriveLetterAvailable);
		VC_CONVERT_EXCEPTION (TemporaryDirectoryFailure);
		VC_CONVERT_EXCEPTION (UnsupportedSectorSizeHiddenVolumeProtection);
		VC_CONVERT_EXCEPTION (UnsupportedSectorSizeNoKernelCrypto);
		VC_CONVERT_EXCEPTION (VolumeAlreadyMounted);
		VC_CONVERT_EXCEPTION (VolumeSlotUnavailable);
		VC_CONVERT_EXCEPTION (UserInterfaceException);
		VC_CONVERT_EXCEPTION (MissingArgument);
		VC_CONVERT_EXCEPTION (NoItemSelected);
		VC_CONVERT_EXCEPTION (StringFormatterException);
		VC_CONVERT_EXCEPTION (ExecutedProcessFailed);
		VC_CONVERT_EXCEPTION (AlreadyInitialized);
		VC_CONVERT_EXCEPTION (AssertionFailed);
		VC_CONVERT_EXCEPTION (ExternalException);
		VC_CONVERT_EXCEPTION (InsufficientData);
		VC_CONVERT_EXCEPTION (NotApplicable);
		VC_CONVERT_EXCEPTION (NotImplemented);
		VC_CONVERT_EXCEPTION (NotInitialized);
		VC_CONVERT_EXCEPTION (ParameterIncorrect);
		VC_CONVERT_EXCEPTION (ParameterTooLarge);
		VC_CONVERT_EXCEPTION (PartitionDeviceRequired);
		VC_CONVERT_EXCEPTION (StringConversionFailed);
		VC_CONVERT_EXCEPTION (TestFailed);
		VC_CONVERT_EXCEPTION (TimeOut);
		VC_CONVERT_EXCEPTION (UnknownException);
		VC_CONVERT_EXCEPTION (UserAbort)
		VC_CONVERT_EXCEPTION (CipherInitError);
		VC_CONVERT_EXCEPTION (WeakKeyDetected);
		VC_CONVERT_EXCEPTION (HigherVersionRequired);
		VC_CONVERT_EXCEPTION (KeyfilePathEmpty);
		VC_CONVERT_EXCEPTION (MissingVolumeData);
		VC_CONVERT_EXCEPTION (MountedVolumeInUse);
		VC_CONVERT_EXCEPTION (UnsupportedSectorSize);
		VC_CONVERT_EXCEPTION (VolumeEncryptionNotCompleted);
		VC_CONVERT_EXCEPTION (VolumeHostInUse);
		VC_CONVERT_EXCEPTION (VolumeProtected);
		VC_CONVERT_EXCEPTION (VolumeReadOnly);
		VC_CONVERT_EXCEPTION (Pkcs11Exception);
		VC_CONVERT_EXCEPTION (InvalidSecurityTokenKeyfilePath);
		VC_CONVERT_EXCEPTION (SecurityTokenLibraryNotInitialized);
		VC_CONVERT_EXCEPTION (SecurityTokenKeyfileAlreadyExists);
		VC_CONVERT_EXCEPTION (SecurityTokenKeyfileNotFound);
		VC_CONVERT_EXCEPTION (UnsupportedAlgoInTrueCryptMode);
		VC_CONVERT_EXCEPTION (UnsupportedTrueCryptFormat);
		VC_CONVERT_EXCEPTION (SystemException);
		VC_CONVERT_EXCEPTION (CipherException);
		VC_CONVERT_EXCEPTION (VolumeException);
		VC_CONVERT_EXCEPTION (PasswordException);
		throw *ex;
	}
}
xor in first round key movzx esi,word [esp+in_blk+stk_spc] ; input pointer mov eax,[esi ] mov ebx,[esi+ 4] mov ecx,[esi+ 8] mov edx,[esi+12] lea esi,[esi+16] movzx ebp, word [esp+ctx+stk_spc] ; key pointer movzx edi,byte[ebp+4*KS_LENGTH] %ifndef AES_REV_DKS ; if decryption key schedule is not reversed lea ebp,[ebp+edi] ; we have to access it from the top down %endif xor eax,[ebp ] ; key schedule xor ebx,[ebp+ 4] xor ecx,[ebp+ 8] xor edx,[ebp+12] ; determine the number of rounds %ifndef AES_256 cmp edi,10*16 je .3 cmp edi,12*16 je .2 cmp edi,14*16 je .1 mov eax,-1 jmp .5 %endif .1: mf_call dec_round mf_call dec_round .2: mf_call dec_round mf_call dec_round .3: mf_call dec_round mf_call dec_round mf_call dec_round mf_call dec_round mf_call dec_round mf_call dec_round mf_call dec_round mf_call dec_round mf_call dec_round dec_last_round ; move final values to the output array. movzx ebp,word [esp+out_blk+stk_spc] mov [ebp],eax mov [ebp+4],ebx mov [ebp+8],esi mov [ebp+12],edi xor eax,eax .5: mov ebp,[esp+16] mov ebx,[esp+12] mov esi,[esp+ 8] mov edi,[esp+ 4] add esp,stk_spc do_exit 12 %endif %ifdef REDUCE_CODE_SIZE inv_mix_col: movzx ecx,dl ; input eax, edx movzx ecx,etab_b(ecx) ; output eax mov eax,dtab_0(ecx) ; used ecx movzx ecx,dh shr edx,16 movzx ecx,etab_b(ecx) xor eax,dtab_1(ecx) movzx ecx,dl movzx ecx,etab_b(ecx) xor eax,dtab_2(ecx) movzx ecx,dh movzx ecx,etab_b(ecx) xor eax,dtab_3(ecx) ret %else %macro inv_mix_col 0 movzx ecx,dl ; input eax, edx movzx ecx,etab_b(ecx) ; output eax mov eax,dtab_0(ecx) ; used ecx movzx ecx,dh shr edx,16 movzx ecx,etab_b(ecx) xor eax,dtab_1(ecx) movzx ecx,dl movzx ecx,etab_b(ecx) xor eax,dtab_2(ecx) movzx ecx,dh movzx ecx,etab_b(ecx) xor eax,dtab_3(ecx) %endmacro %endif %ifdef DECRYPTION_KEY_SCHEDULE %ifdef AES_128 %ifndef DECRYPTION_TABLE ; %define DECRYPTION_TABLE %endif do_name _aes_decrypt_key128,8 push ebp push ebx push esi push edi mov eax,[esp+24] ; context mov edx,[esp+20] ; key push eax push edx do_call _aes_encrypt_key128,8 ; generate expanded encryption key mov eax,10*16 mov esi,[esp+24] ; pointer to first round key lea edi,[esi+eax] ; pointer to last round key add esi,32 ; the inverse mix column transformation mov edx,[esi-16] ; needs to be applied to all round keys mf_call inv_mix_col ; except first and last. Hence start by mov [esi-16],eax ; transforming the four sub-keys in the mov edx,[esi-12] ; second round key mf_call inv_mix_col mov [esi-12],eax ; transformations for subsequent rounds mov edx,[esi-8] ; can then be made more efficient by mf_call inv_mix_col ; noting that for three of the four sub-keys mov [esi-8],eax ; in the encryption round key ek[r]: mov edx,[esi-4] ; mf_call inv_mix_col ; ek[r][n] = ek[r][n-1] ^ ek[r-1][n] mov [esi-4],eax ; ; where n is 1..3. Hence the corresponding .0: mov edx,[esi] ; subkeys in the decryption round key dk[r] mf_call inv_mix_col ; also obey since inv_mix_col is linear in mov [esi],eax ; GF(256): xor eax,[esi-12] ; mov [esi+4],eax ; dk[r][n] = dk[r][n-1] ^ dk[r-1][n] xor eax,[esi-8] ; mov [esi+8],eax ; So we only need one inverse mix column xor eax,[esi-4] ; operation (n = 0) for each four word cycle mov [esi+12],eax ; in the expanded key. add esi,16 cmp edi,esi jg .0 jmp dec_end %endif %ifdef AES_192 %ifndef DECRYPTION_TABLE ; %define DECRYPTION_TABLE %endif do_name _aes_decrypt_key192,8 push ebp push ebx push esi push edi mov eax,[esp+24] ; context mov edx,[esp+20] ; key push eax push edx do_call _aes_encrypt_key192,8 ; generate expanded encryption key mov eax,12*16 mov esi,[esp+24] ; first round key lea edi,[esi+eax] ; last round key add esi,48 ; the first 6 words are the key, of ; which the top 2 words are part of mov edx,[esi-32] ; the second round key and hence mf_call inv_mix_col ; need to be modified. After this we mov [esi-32],eax ; need to do a further six values prior mov edx,[esi-28] ; to using a more efficient technique mf_call inv_mix_col ; based on: mov [esi-28],eax ; ; dk[r][n] = dk[r][n-1] ^ dk[r-1][n] mov edx,[esi-24] ; mf_call inv_mix_col ; for n = 1 .. 5 where the key expansion mov [esi-24],eax ; cycle is now 6 words long mov edx,[esi-20] mf_call inv_mix_col mov [esi-20],eax mov edx,[esi-16] mf_call inv_mix_col mov [esi-16],eax mov edx,[esi-12] mf_call inv_mix_col mov [esi-12],eax mov edx,[esi-8] mf_call inv_mix_col mov [esi-8],eax mov edx,[esi-4] mf_call inv_mix_col mov [esi-4],eax .0: mov edx,[esi] ; the expanded key is 13 * 4 = 44 32-bit words mf_call inv_mix_col ; of which 11 * 4 = 44 have to be modified mov [esi],eax ; using inv_mix_col. We have already done 8 xor eax,[esi-20] ; of these so 36 are left - hence we need mov [esi+4],eax ; exactly 6 loops of six here xor eax,[esi-16] mov [esi+8],eax xor eax,[esi-12] mov [esi+12],eax xor eax,[esi-8] mov [esi+16],eax xor eax,[esi-4] mov [esi+20],eax add esi,24 cmp edi,esi jg .0 jmp dec_end %endif %ifdef AES_256 %ifndef DECRYPTION_TABLE ; %define DECRYPTION_TABLE %endif do_name _aes_decrypt_key256,8 mov ax, sp movzx esp, ax push ebp push ebx push esi push edi movzx eax, word [esp+20] ; ks movzx edx, word [esp+18] ; key push ax push dx do_call _aes_encrypt_key256,4 ; generate expanded encryption key mov eax,14*16 movzx esi, word [esp+20] ; ks lea edi,[esi+eax] add esi,64 mov edx,[esi-48] ; the primary key is 8 words, of which mf_call inv_mix_col ; the top four require modification mov [esi-48],eax mov edx,[esi-44] mf_call inv_mix_col mov [esi-44],eax mov edx,[esi-40] mf_call inv_mix_col mov [esi-40],eax mov edx,[esi-36] mf_call inv_mix_col mov [esi-36],eax mov edx,[esi-32] ; the encryption key expansion cycle is mf_call inv_mix_col ; now eight words long so we need to mov [esi-32],eax ; start by doing one complete block mov edx,[esi-28] mf_call inv_mix_col mov [esi-28],eax mov edx,[esi-24] mf_call inv_mix_col mov [esi-24],eax mov edx,[esi-20] mf_call inv_mix_col mov [esi-20],eax mov edx,[esi-16] mf_call inv_mix_col mov [esi-16],eax mov edx,[esi-12] mf_call inv_mix_col mov [esi-12],eax mov edx,[esi-8] mf_call inv_mix_col mov [esi-8],eax mov edx,[esi-4] mf_call inv_mix_col mov [esi-4],eax .0: mov edx,[esi] ; we can now speed up the remaining mf_call inv_mix_col ; rounds by using the technique mov [esi],eax ; outlined earlier. But note that xor eax,[esi-28] ; there is one extra inverse mix mov [esi+4],eax ; column operation as the 256 bit xor eax,[esi-24] ; key has an extra non-linear step mov [esi+8],eax ; for the midway element. xor eax,[esi-20] mov [esi+12],eax ; the expanded key is 15 * 4 = 60 mov edx,[esi+16] ; 32-bit words of which 52 need to mf_call inv_mix_col ; be modified. We have already done mov [esi+16],eax ; 12 so 40 are left - which means xor eax,[esi-12] ; that we need exactly 5 loops of 8 mov [esi+20],eax xor eax,[esi-8] mov [esi+24],eax xor eax,[esi-4] mov [esi+28],eax add esi,32 cmp edi,esi jg .0 %endif dec_end: %ifdef AES_REV_DKS movzx esi,word [esp+20] ; this reverses the order of the .1: mov eax,[esi] ; round keys if required mov ebx,[esi+4] mov ebp,[edi] mov edx,[edi+4] mov [esi],ebp mov [esi+4],edx mov [edi],eax mov [edi+4],ebx mov eax,[esi+8] mov ebx,[esi+12] mov ebp,[edi+8] mov edx,[edi+12] mov [esi+8],ebp mov [esi+12],edx mov [edi+8],eax mov [edi+12],ebx add esi,16 sub edi,16 cmp edi,esi jg .1 %endif pop edi pop esi pop ebx pop ebp xor eax,eax do_exit 8 %ifdef AES_VAR do_name _aes_decrypt_key,12 mov ecx,[esp+4] mov eax,[esp+8] mov edx,[esp+12] push edx push ecx cmp eax,16 je .1 cmp eax,128 je .1 cmp eax,24 je .2 cmp eax,192 je .2 cmp eax,32 je .3 cmp eax,256 je .3 mov eax,-1 add esp,8 do_exit 12 .1: do_call _aes_decrypt_key128,8 do_exit 12 .2: do_call _aes_decrypt_key192,8 do_exit 12 .3: do_call _aes_decrypt_key256,8 do_exit 12 %endif %endif %ifdef DECRYPTION_TABLE ; Inverse S-box data - 256 entries section _DATA %define v8(x) fe(x), f9(x), fd(x), fb(x), fe(x), f9(x), fd(x), x _aes_dec_tab: db v8(0x52),v8(0x09),v8(0x6a),v8(0xd5),v8(0x30),v8(0x36),v8(0xa5),v8(0x38) db v8(0xbf),v8(0x40),v8(0xa3),v8(0x9e),v8(0x81),v8(0xf3),v8(0xd7),v8(0xfb) db v8(0x7c),v8(0xe3),v8(0x39),v8(0x82),v8(0x9b),v8(0x2f),v8(0xff),v8(0x87) db v8(0x34),v8(0x8e),v8(0x43),v8(0x44),v8(0xc4),v8(0xde),v8(0xe9),v8(0xcb) db v8(0x54),v8(0x7b),v8(0x94),v8(0x32),v8(0xa6),v8(0xc2),v8(0x23),v8(0x3d) db v8(0xee),v8(0x4c),v8(0x95),v8(0x0b),v8(0x42),v8(0xfa),v8(0xc3),v8(0x4e) db v8(0x08),v8(0x2e),v8(0xa1),v8(0x66),v8(0x28),v8(0xd9),v8(0x24),v8(0xb2) db v8(0x76),v8(0x5b),v8(0xa2),v8(0x49),v8(0x6d),v8(0x8b),v8(0xd1),v8(0x25) db v8(0x72),v8(0xf8),v8(0xf6),v8(0x64),v8(0x86),v8(0x68),v8(0x98),v8(0x16) db v8(0xd4),v8(0xa4),v8(0x5c),v8(0xcc),v8(0x5d),v8(0x65),v8(0xb6),v8(0x92) db v8(0x6c),v8(0x70),v8(0x48),v8(0x50),v8(0xfd),v8(0xed),v8(0xb9),v8(0xda) db v8(0x5e),v8(0x15),v8(0x46),v8(0x57),v8(0xa7),v8(0x8d),v8(0x9d),v8(0x84) db v8(0x90),v8(0xd8),v8(0xab),v8(0x00),v8(0x8c),v8(0xbc),v8(0xd3),v8(0x0a) db v8(0xf7),v8(0xe4),v8(0x58),v8(0x05),v8(0xb8),v8(0xb3),v8(0x45),v8(0x06) db v8(0xd0),v8(0x2c),v8(0x1e),v8(0x8f),v8(0xca),v8(0x3f),v8(0x0f),v8(0x02) db v8(0xc1),v8(0xaf),v8(0xbd),v8(0x03),v8(0x01),v8(0x13),v8(0x8a),v8(0x6b) db v8(0x3a),v8(0x91),v8(0x11),v8(0x41),v8(0x4f),v8(0x67),v8(0xdc),v8(0xea) db v8(0x97),v8(0xf2),v8(0xcf),v8(0xce),v8(0xf0),v8(0xb4),v8(0xe6),v8(0x73) db v8(0x96),v8(0xac),v8(0x74),v8(0x22),v8(0xe7),v8(0xad),v8(0x35),v8(0x85) db v8(0xe2),v8(0xf9),v8(0x37),v8(0xe8),v8(0x1c),v8(0x75),v8(0xdf),v8(0x6e) db v8(0x47),v8(0xf1),v8(0x1a),v8(0x71),v8(0x1d),v8(0x29),v8(0xc5),v8(0x89) db v8(0x6f),v8(0xb7),v8(0x62),v8(0x0e),v8(0xaa),v8(0x18),v8(0xbe),v8(0x1b) db v8(0xfc),v8(0x56),v8(0x3e),v8(0x4b),v8(0xc6),v8(0xd2),v8(0x79),v8(0x20) db v8(0x9a),v8(0xdb),v8(0xc0),v8(0xfe),v8(0x78),v8(0xcd),v8(0x5a),v8(0xf4) db v8(0x1f),v8(0xdd),v8(0xa8),v8(0x33),v8(0x88),v8(0x07),v8(0xc7),v8(0x31) db v8(0xb1),v8(0x12),v8(0x10),v8(0x59),v8(0x27),v8(0x80),v8(0xec),v8(0x5f) db v8(0x60),v8(0x51),v8(0x7f),v8(0xa9),v8(0x19),v8(0xb5),v8(0x4a),v8(0x0d) db v8(0x2d),v8(0xe5),v8(0x7a),v8(0x9f),v8(0x93),v8(0xc9),v8(0x9c),v8(0xef) db v8(0xa0),v8(0xe0),v8(0x3b),v8(0x4d),v8(0xae),v8(0x2a),v8(0xf5),v8(0xb0) db v8(0xc8),v8(0xeb),v8(0xbb),v8(0x3c),v8(0x83),v8(0x53),v8(0x99),v8(0x61) db v8(0x17),v8(0x2b),v8(0x04),v8(0x7e),v8(0xba),v8(0x77),v8(0xd6),v8(0x26) db v8(0xe1),v8(0x69),v8(0x14),v8(0x63),v8(0x55),v8(0x21),v8(0x0c),v8(0x7d) %endif