Exemple #1
0
void _clear_act_list( )
{
	list_entry *node = __action.flink;
	list_entry *del = NULL;

	list_entry *head = &__action;

	for ( ;
		node != &__action;		
	)
	{
		_dact *act = contain_record(node, _dact, list);
		if ( ACT_STOPPED == act->status )
		{
			if ( WaitForSingleObject(act->h_thread, 0) == WAIT_OBJECT_0 )
			{
				del = node;
				node = node->flink;

				_remove_entry_list(del); 

				CloseHandle(act->h_thread);
				free(del);
			
				continue;
			}
		}
		node = node->flink;
	}

}
Exemple #2
0
void FreeList(list_entry* head){
	list_entry* entry;
	entry = head->next;
	while(entry != head){
		EEListItem *item = contain_record(entry, EEListItem, list);
		remove(entry);
		(*item->finalizer)((void*)item->value);
		_tsfree(item);
		entry = head->next;
	}
}
Exemple #3
0
void RemoveVarFromTable(EEVarTable* table, const _tsstr name){
	TSStr* str;
	list_entry *list, *entry;
	EEVar* var;
	str = StrCreate();
	StrAppendS(str, name);
	list = &table->table[table->hash(str)];
	StrDestroy(str);
	for_each(list, entry){
		if( !_tsstrcmp(contain_record(entry, EEVar, vlist)->name, name) ) break;
	}
	if( entry != list ){
		remove(entry);
		var = contain_record(entry, EEVar, vlist);
		/*we need to free the space owned by this entry and its value*/
		FreeEEObject(var->value.type, (void*)var->value.value);

		_tsfree(var);/*finally, free the var object;*/
	}
}
Exemple #4
0
static int dc_mount_parts()
{
	dc_header  *header  = pv(0x5000); /* free memory location */
	dc_key     *hdr_key = pv(0x5000 + sizeof(dc_header));
	list_entry *entry;
	prt_inf    *prt;
	int         n_mount;

	/* mount partitions on all disks */
	n_mount = 0;
	entry   = prt_head.flink;

	while ( (entry != &prt_head) && (n_mount < MAX_MOUNT) )
	{
		prt   = contain_record(entry, prt_inf, entry_glb);
		entry = entry->flink;

		do
		{
			/* read volume header */
			if (dc_partition_io(prt, header, DC_AREA_SECTORS, 0, 1) == 0) {					
				break;
			}

			if (dc_decrypt_header(hdr_key, header, &bd_dat->password) == 0) {
				break;
			}

			if (header->flags & VF_REENCRYPT) {
				prt->o_key.key_d = malloc(PKCS_DERIVE_MAX);
				autocpy(prt->o_key.key_d, header->key_2, PKCS_DERIVE_MAX);
			}

			prt->d_key.key_d = malloc(PKCS_DERIVE_MAX);
			autocpy(prt->d_key.key_d, header->key_1, PKCS_DERIVE_MAX);

			prt->flags     = header->flags;
			prt->tmp_size  = header->tmp_size / SECTOR_SIZE;
			prt->stor_off  = header->stor_off / SECTOR_SIZE;
			prt->disk_id   = header->disk_id; 
			prt->d_key.alg = header->alg_1;
			prt->o_key.alg = header->alg_2;
			prt->mnt_ok   = 1; n_mount++;
		} while (0);
	}

	/* prevent leaks */
	zeroauto(header,  sizeof(dc_header));
	zeroauto(hdr_key, sizeof(dc_key));

	return n_mount;
}
Exemple #5
0
void EERun( EEProgram* program){
	EEInst* end;
	g_context->program = program;
	g_context->currentFunc = &program->global;
	g_context->ip = program->entry;
	g_context->callstack->function = &program->global;
	g_context->callstack->retAddr = null;
	end = contain_record(&program->global.ilist, EEInst, list);

	while(g_context->ip != end){
		(g_context->ip->func)(g_context->ip->regv, g_context->ip->regc);
	}
}
Exemple #6
0
EEVar* FindVarInTable(EEVarTable* table, const _tsstr name)
/**
	Retrieve a EEVar object from the specified in hash table EEVarTable object with name specified.
	If any can be found, return the EEVar pointer
	else return NULL
*/
{
	TSStr* str;
	EEVar* result = NULL;
	list_entry *list,*entry;
	str = StrCreate();
	StrAppendS(str, name);
	list = &table->table[table->hash(str)];
	StrDestroy(str);
	for_each(list, entry){
		if(! _tsstrcmp(contain_record(entry, EEVar, vlist)->name, name)){
			result = contain_record(entry, EEVar, vlist);
			break;
		}
	}
	return result;
}
Exemple #7
0
void DeleteVarList(list_entry* head){
	list_entry* entry;
	entry = head->next;
	while(entry != head){
		EEVar* var = contain_record(entry, EEVar, vlist);
		remove(entry);
		entry = entry->next;
		/*we need to free the space owned by this entry and its value*/
		FreeEEObject(var->value.type, var->value.value);

		_tsfree(var);/*finally, free the var object;*/
	}
	init_list(head);
}
Exemple #8
0
_list_key_files *_first_keyfile(int key_list)
{
	list_entry      *head = _KEYFILES_HEAD_(key_list);
	_list_key_files *keyfile;

	if ( _is_list_empty(head) == FALSE )
	{
		keyfile = contain_record(head->flink, _list_key_files, next);
	} else 
	{
		keyfile = NULL;
	}
	return keyfile;
}
Exemple #9
0
void ResetVarTable(EEVarTable* table){
	int i = 0;
	for(; i < HASH_TABLE_SIZE; ++i){
		list_entry* entry;
		list_entry* head = &table->table[i];
		entry = head->next;
		while(entry != head){
			EEVar* var = contain_record(entry, EEVar, vlist);
			var->value.value = 0;
			var->value.type = 0;
			entry = entry->next;
		}
		init_list(head);
	}
}
Exemple #10
0
_list_key_files *_next_keyfile(
		_list_key_files	*keyfile,
		int				 key_list
	)
{
	_list_key_files *next;

	if ( keyfile->next.flink != _KEYFILES_HEAD_(key_list) )
	{
		next = contain_record( keyfile->next.flink, _list_key_files, next );
	} else 
	{
		next = NULL;
	}	
	return next;
}
Exemple #11
0
/* find first HDD contain active partition */
static hdd_inf *find_bootable_hdd() 
{
	list_entry *entry;
	prt_inf    *prt;

	entry = prt_head.flink;

	while (entry != &prt_head)
	{
		prt   = contain_record(entry, prt_inf, entry_glb);
		entry = entry->flink;

		if ( (prt->active != 0) && 
			 ( !(conf.options & OP_EXTERNAL) || (prt->hdd->dos_numb != boot_dsk) ) )
		{
			return prt->hdd;
		}
	}

	return NULL;
}
void _is_breaking_action( )
{
	list_entry *node;
	list_entry *sub;

	int count = 0;
	int k, flag;

	BOOL resume;

	wchar_t s_vol[MAX_PATH] = { 0 };

	for ( k = 0; k < 4; k++ )
	{
		if (k % 2 == 0)
		{
			memset(s_vol, 0, sizeof_w(s_vol)); // WTF?
			count = 0;
			resume = FALSE;
		}

		for ( node = __drives.flink;
					node != &__drives;
					node = node->flink 
					)
		{
			_dnode *root = contain_record(node, _dnode, list);
			
			for ( sub = root->root.vols.flink;
						sub != &root->root.vols;
						sub = sub->flink 
					)
			{
				_dnode *mnt = contain_record(sub, _dnode, list);
				switch (k)
				{
					case 0:
					case 1:  flag = F_FORMATTING; break;
					case 2:
					case 3:  flag = F_SYNC; break;
					default: flag = -1; break;
				}
				if (mnt->mnt.info.status.flags & flag)
				{
					if (k % 2 == 0)
					{
						if (s_vol[0] != L'\0') wcscat(s_vol, L", ");
						wcscat(s_vol, mnt->mnt.info.status.mnt_point);

						count++;

					} else {
						if (resume)
						{
							if (k == 1) _menu_format(mnt);
							if (k == 3) _menu_encrypt(mnt);
						}
					}
				}
			}
		}
		if ((k % 2 == 0) && count > 0)
		{
			if (__msg_q(
					__dlg,
					L"%s was suspended for volume%s %s.\n\n"
					L"Continue %s?", 
					k != 0 ? L"Encrypting/decrypting" : L"Formatting",
					count > 1 ? L"s" : STR_NULL, 
					s_vol,
					k != 0 ? L"encrypting" : L"formatting")
					) 
			{
				resume = TRUE;
			}
		}
	}
}
void 
_add_drive_node(
		_dnode    *exist_node,
		drive_inf *new_drv,
		vol_inf   *vol, 
		int        disk_number
	)
{
	wchar_t drvname[MAX_PATH];

	wchar_t fs[MAX_PATH]    = { 0 };
	wchar_t label[MAX_PATH] = { 0 };

	wchar_t path[MAX_PATH];

	list_entry *node;
	BOOL root_exists = FALSE;

	_dnode *root;
	_dnode *mnt;

	mnt = exist_node;
	if ( mnt == NULL )
	{
		mnt = malloc( sizeof(_dnode) );
		memset( mnt, 0, sizeof(_dnode) );
	}
	mnt->exists = TRUE;
	memcpy( &mnt->mnt.info, vol, sizeof(vol_inf) );

	_snwprintf( path, sizeof_w(path), L"%s\\", vol->status.mnt_point );
	GetVolumeInformation( path, label, sizeof_w(label), 0, 0, 0, fs, sizeof_w(fs) );

	wcscpy( mnt->mnt.label, label );
	wcscpy( mnt->mnt.fs, fs );

	if (! exist_node )
	{
		dc_get_hw_name(
			disk_number, vol->status.flags & F_CDROM, drvname, sizeof_w(drvname)
			);

		if (! ( vol->status.flags & F_CDROM ) )
		{
			for ( node  = __drives.flink;
				  node != &__drives;
				  node  = node->flink ) 
			{
				root = contain_record(node, _dnode, list);
				if ( root->root.dsk_num == disk_number )
				{
					root_exists = TRUE;
					break;
				}
			}
		}
		mnt->is_root = FALSE;
		memcpy( &mnt->root.info, new_drv, sizeof(drive_inf) );

		if (! root_exists )
		{
			root = malloc(sizeof(_dnode));	
			root->is_root = TRUE;

			memcpy(&root->mnt.info, vol, sizeof(vol_inf));
			memcpy(&root->root.info, new_drv, sizeof(drive_inf));

			wcscpy(root->root.dsk_name, drvname);
			root->root.dsk_num = disk_number;	

			_init_list_head(&root->root.vols);
			_insert_tail_list(&__drives, &root->list);

		} 
		_insert_tail_list(&root->root.vols, &mnt->list);

	} 		
	if ( vol->status.flags & F_SYNC && _create_act_thread(mnt, -1, -1) == NULL )
	{
		_create_act_thread(mnt, ACT_ENCRYPT, ACT_PAUSED);
	}
}
_dnode *_scan_vols_tree(
		vol_inf *vol,
		int     *count
	)
{
	list_entry *del;
	list_entry *node;
	list_entry *sub;	

	for ( node = __drives.flink;
		  node != &__drives
		  ;
		) 
	{
		_dnode *root = contain_record(node, _dnode, list);
		if ( count )
		{
			*count += 1;
		}
		for ( sub = root->root.vols.flink;
			  sub != &root->root.vols
			  ; 
			) 
		{
			_dnode *mnt = contain_record(sub, _dnode, list);
			if ( count ) 
			{
				*count += 1;
			}				
			if (! vol )
			{
				if (! mnt->exists )
				{
					del = sub;
					sub = sub->flink;

					_remove_entry_list(del);
					free(del);

					continue;
				}
			} else {
				if ( ( wcscmp(mnt->mnt.info.device, vol->device) == 0 ) && (! mnt->exists) ) 
				{
					return mnt;
				}
			}
			sub = sub->flink;
		}
		if (_is_list_empty(sub)) 
		{
			del = node;
			node = node->flink;

			_remove_entry_list(del);
			free(del);

			continue;
		}
		node = node->flink;
	}
	return NULL;

}
Exemple #15
0
_dact *_create_act_thread(
		_dnode *node,
		int     act_type,   // -1 - search
		int     act_status  //
	)
{
	list_entry *item;
	_dact      *act;

	DWORD resume;	
	BOOL  exist = FALSE;

	if ( !node )
	{
		return NULL;
	}
	_clear_act_list( );

	for ( 
		item = __action.flink;
		item != &__action; 
		item = item->flink 
		) 
	{
		act = contain_record(item, _dact, list);
		if ( !wcscmp(act->device, node->mnt.info.device) )
		{
			exist = TRUE;
			if ( act_type == -1 )
			{
				return act; 
			} else {
				break;
			}
		}
	}
	if ( act_type != -1 )
	{
		if ( !exist )
		{
			act = malloc(sizeof(_dact));
			memset(act, 0, sizeof(_dact));
		
			act->wp_mode = node->mnt.info.status.crypt.wp_mode;
			wcsncpy( act->device, node->mnt.info.device, MAX_PATH );
			
			_init_speed_stat( &act->speed );
		}
		act->h_thread = NULL;
		act->status   = act_status;					
		act->act      = act_type;	

		if ( act_status == ACT_RUNNING )
		{
			void *proc;
			switch (act_type) 
			{
				case ACT_REENCRYPT:
				case ACT_ENCRYPT:
				case ACT_DECRYPT:   proc = _thread_enc_dec_proc; break;
				case ACT_FORMAT:    proc = _thread_format_proc;  break;				
			}
			act->h_thread = CreateThread(
				NULL, 0, proc, pv(node), CREATE_SUSPENDED, NULL
				);

			SetThreadPriority(act->h_thread, THREAD_PRIORITY_LOWEST);
			resume = ResumeThread(act->h_thread);

			if ( !act->h_thread || resume == (DWORD)-1 )
			{
				free(act);
				
				__error_s( __dlg, L"Error create thread", -1 );
				return NULL;
			}
		}
		if ( !exist )
		{
			_insert_tail_list(&__action, &act->list);
		}
		return act;			
	}
 	return NULL;

}
Exemple #16
0
void boot_main()
{
	list_entry *entry;
	hdd_inf    *hdd;
	prt_inf    *prt, *active;
	char       *error;
	int         login, i;
	int         n_mount;

	active = NULL; error = NULL;
	login = 0; n_mount = 0;

	/* init crypto */
	dc_init_crypto(conf.options & OP_HW_CRYPTO);

	/* prepare MBR copy buffer */
	autocpy(conf.save_mbr + 432, p8(0x7C00) + 432, 80);

	if (dc_scan_partitions() == 0) {
		error = "partitions not found\n";
		goto error;
	}

	if (hdd = find_hdd(boot_dsk))
	{
		/* find active partition on boot disk */
		entry = hdd->part_head.flink;
		
		while (entry != &hdd->part_head)
		{
			prt   = contain_record(entry, prt_inf, entry_hdd);
			entry = entry->flink;

			if (prt->active != 0) {
				active = prt; break;
			}
		}
	}
retry_auth:;	
	if (conf.logon_type & LT_GET_PASS) 
	{
		login = dc_get_password();

		if ( (conf.options & OP_NOPASS_ERROR) && (login == 0) ) 
		{
			dc_password_error(active);

			if (conf.error_type & ET_RETRY) {
				goto retry_auth;
			} else {
				/* halt system */
				__halt();
			}
		}
	}

	/* add embedded keyfile to password buffer */
	if (conf.logon_type & LT_EMBED_KEY) 
	{
		sha512_ctx sha;
		u8         hash[SHA512_DIGEST_SIZE];

		sha512_init(&sha);
		sha512_hash(&sha, conf.emb_key, sizeof(conf.emb_key));
		sha512_done(&sha, hash);

		/* mix the keyfile hash and password */
		for (i = 0; i < (SHA512_DIGEST_SIZE / sizeof(u32)); i++) {
			p32(bd_dat->password.pass)[i] += p32(hash)[i];
		}
		bd_dat->password.size = max(bd_dat->password.size, SHA512_DIGEST_SIZE);

		/* prevent leaks */
		zeroauto(hash, sizeof(hash));
		zeroauto(&sha, sizeof(sha));
	}

	if (bd_dat->password.size != 0) 
	{
		if (n_mount = dc_mount_parts()) {
			/* hook BIOS interrupts */
			bios_hook_ints();
		} else {
			/* clean password buffer to prevent leaks */
			zeroauto(&bd_dat->password, sizeof(dc_pass));
		}
	}

	if ( (n_mount == 0) && (login != 0) ) 
	{
		dc_password_error(active);

		if (conf.error_type & ET_RETRY) {
			goto retry_auth;
		} else {
			/* halt system */
			__halt();
		}
	}
	
	switch (conf.boot_type)
	{
		case BT_MBR_BOOT: 			  
		  {
			  if (hdd == NULL) {
				  error = "boot disk not found\n";
				  goto error;
			  }
			  boot_from_mbr(hdd, n_mount);
		  }
	    break;
		case BT_MBR_FIRST: 
		  {
			  if ( (hdd = find_bootable_hdd()) == NULL ) {
				  error = "boot disk not found\n";
				  goto error;
			  }			 			  
			  boot_from_mbr(hdd, n_mount);
		  }
	    break;
		case BT_ACTIVE:
		  {
			  if (active == NULL) {
				  error = "active partition not found\n";
				  goto error;
			  } else {	  
				  boot_from_partition(active, n_mount);
			  }
		  }
	  	break;
		case BT_AP_PASSWORD:
		  {
			  /* find first partition with appropriate password */
			  entry = prt_head.flink;

			  while (entry != &prt_head)
			  {
				  prt   = contain_record(entry, prt_inf, entry_glb);
				  entry = entry->flink;

				  if ( (prt->extend == 0) && (prt->mnt_ok != 0) ) {
					  boot_from_partition(prt, n_mount);
				  }
			  }

			  error = "bootable partition not mounted\n";
			  goto error;
		  }
	    break;
		case BT_DISK_ID:
		  {
			  /* find partition by disk_id */
			  entry = prt_head.flink;

			  while (entry != &prt_head)
			  {
				  prt   = contain_record(entry, prt_inf, entry_glb);
				  entry = entry->flink;

				  if ( (prt->extend == 0) && (prt->mnt_ok != 0) &&
					   (prt->disk_id == conf.disk_id) ) 
				  {
					  boot_from_partition(prt, n_mount);
				  }
			  }
			  
			  error = "disk_id equal partition not found\n";
			  goto error;
		  }
		break;
	}

error:;
	if (error != NULL) {
		puts(error); 
	}	
	while (1);
}