__assert_func (const char *file, int line, const char *func,
const char *failedexpr)
{
trace_printf ("assertion \"%s\" failed: file \"%s\", line %d%s%s\n",
failedexpr, file, line, func ? ", function: " : "",
func ? func : "");
abort ();
/* NOTREACHED */
}
void DataTerminal::fail()
{
mByteCount = 0;
mState = STATE_WAITING;
GPIO_ResetBits(GPIOB, GPIO_Pin_14|GPIO_Pin_15);
FLASH_Lock();
trace_printf("Resetting\n");
writeCmd(NACK);
}
int main(void)
{
/* USER CODE BEGIN 1 */
trace_printf("Hello\n");
/* USER CODE END 1 */
/* MCU Configuration----------------------------------------------------------*/
/* Reset of all peripherals, Initializes the Flash interface and the Systick. */
HAL_Init();
/* Configure the system clock */
SystemClock_Config();
/* Initialize all configured peripherals */
MX_GPIO_Init();
/* USER CODE BEGIN 2 */
BSP_PB_Init(BUTTON_KEY,BUTTON_MODE_EXTI); // initialize on board switch
BSP_LED_Init(LED5); // initialize on baord LED 4 and LED 5
BSP_LED_Init(LED4);
/* Check if the system has resumed from WWDG reset */
if(__HAL_RCC_GET_FLAG(RCC_FLAG_IWDGRST) != RESET)
{
/* WWDGRST flag set: Turn LED1 on */
BSP_LED_On(LED5);
/* Clear reset flags */
__HAL_RCC_CLEAR_RESET_FLAGS();
}
else
{
/* WWDGRST flag is not set: Turn LED1 off */
BSP_LED_Off(LED5);
}
/* Initialize and start IWDG */
BSP_IWDG_Init(2000);
/* USER CODE END 2 */
/* Infinite loop */
/* USER CODE BEGIN WHILE */
while (1)
{
/* USER CODE END WHILE */
/* USER CODE BEGIN 3 */
BSP_LED_Toggle(LED4);
HAL_Delay(1850);
/* Refresh the IWDG reload count value */
HAL_IWDG_Refresh(&hiwdg_bsp);
}
/* USER CODE END 3 */
}
//
// print timer list
//
void sb_timer_timer_list_print() {
char la_info[50];
char la_to[40];
Timer_TLE_Type *lp_tle;
Timer_TLE_Type *lp_tle_prev;
lp_tle = gp_timer_head;
lp_tle_prev = NULL;
if (lp_tle != NULL)
trace_printf("TIMER timer list\n");
while (lp_tle != NULL) {
sb_timer_to_fmt(la_to, lp_tle->iv_to);
switch (lp_tle->iv_kind) {
case TIMER_TLE_KIND_CB:
sprintf(la_info, "cb=%p", SB_CB_TO_PTR(lp_tle->iv_cb));
break;
case TIMER_TLE_KIND_COMPQ:
sprintf(la_info, "q=%p", pfp(lp_tle->ip_comp_q));
break;
default:
strcpy(la_info, "?");
SB_util_abort("invalid iv_kind"); // sw fault
break;
}
trace_printf("tle id=%d, addr=%p, p=%p, n=%p, %s, stid=%d, ttid=%d, mgr=%p, to=%s, toval=%d, p1=%d(0x%x), p2=%ld(0x%lx)\n",
lp_tle->iv_tleid,
pfp(lp_tle),
pfp(lp_tle->ip_prev),
pfp(lp_tle->ip_next),
la_info,
lp_tle->iv_stid,
lp_tle->iv_ttid,
pfp(lp_tle->ip_mgr),
la_to,
lp_tle->iv_toval,
lp_tle->iv_parm1,
lp_tle->iv_parm1,
lp_tle->iv_parm2,
lp_tle->iv_parm2);
SB_util_assert_peq(lp_tle->ip_prev, lp_tle_prev);
lp_tle_prev = lp_tle;
lp_tle = lp_tle->ip_next;
}
}
struct MFNWorkunitRobustElement MFNWorkunitRobust::GetNextWorkunit(uint32_t ClientId) {
trace_printf("MFNWorkunitRobust::GetNextWorkunit(%u)\n", ClientId);
struct MFNWorkunitRobustElement Workunit;
this->workunitMutexBoost.lock();
// Check to see if we need to make more workunits.
if ((this->ActualWorkunitsCreated != this->NumberOfWorkunitsTotal) &&
(this->pendingWorkunits.size() < MFN_WORKUNIT_MIN_PENDING_WUS)) {
this->CreateMorePendingWorkunits(MFN_WORKUNIT_WU_REFILL_SIZE);
}
// Check to see if there are valid workunits left.
if (this->pendingWorkunits.size() == 0) {
// If not, return a unit with isValid = 0.
if (this->DebugOutput) {
printf("pendingWorkunits.size() == 0; returning.\n");
}
memset(&Workunit, 0, sizeof(MFNWorkunitRobustElement));
Workunit.Flags = WORKUNIT_TERMINATE;
this->workunitMutexBoost.unlock();
if (this->DebugOutput) {
PrintRobustWorkunit(Workunit);
}
return Workunit;
}
// We still have workunits left.
// Get the next waiting workunit from the main queue.
Workunit = this->pendingWorkunits.front();
this->pendingWorkunits.pop_front();
if (this->DebugOutput) {
printf("Popped WU ID %lu\n", Workunit.WorkUnitID);
}
// Set some variables we can make use of.
Workunit.IsAssigned = 1;
Workunit.WorkunitRequestedTimestamp = this->WorkunitTimer.getElapsedTime();
Workunit.ClientId = ClientId;
// Add the workunit to the in-flight queue.
this->assignedWorkunits.push_back(Workunit);
if (this->DebugOutput) {
printf("In flight WUs: %lu\n", this->assignedWorkunits.size());
}
this->workunitMutexBoost.unlock();
this->WriteSaveState(0);
if (this->DebugOutput) {
PrintRobustWorkunit(Workunit);
}
return Workunit;
}
//
// Purpose: return an ms error
//
short ms_err_rtn(short pv_fserr) {
if (pv_fserr != XZFIL_ERR_OK) {
SB_UTRACE_API_ADD2(SB_UTRACE_API_OP_MS_EXIT, pv_fserr);
if (gv_ms_trace_errors)
trace_printf("setting ms ret=%d\n", pv_fserr);
if (gv_ms_assert_error)
SB_util_assert_ieq(pv_fserr, XZFIL_ERR_OK); // sw fault
}
return pv_fserr;
}
void simpleTest(void) {
uint8_t summ = 0;
uint8_t i;
for (i = 0; i < 14; i++) {
s_testingSequence[i] = i;
summ += s_testingSequence[i];
}
s_testingSequence[14] = summ;
trace_printf("summ [%x]\n\r", summ);
USART_HandleTypeDef usart;
USART2_Init(&usart, 9600);
HELP_dumpUsartProps(&usart);
while (1) {
HAL_StatusTypeDef status = HAL_USART_Transmit(&usart, s_testingSequence, 15, 0xFF);
trace_printf("tr [%d]\n\r", status);
System_delayMsDummy(100);
}
}
void deleteFile(char *filename) {
int status = remove(filename);
if (status == 0)
trace_printf("%s file deleted successfully.", filename);
else {
err_printf("Unable to delete the file");
perror("Error");
}
}
static void IpcTask (void * pvParameters)
{
unsigned int msg, *local_vq_buf;
int ret;
struct virtqueue_buf virtq_buf;
virtqueue_init();
nvic_enable_irq(MAILBOX_IRQ);
enable_mailbox_irq();
for (;;) {
xQueueReceive(MboxQueue, &msg, portMAX_DELAY);
trace_printf("msg from mailbox : ");
trace_value(msg);
switch(msg) {
case RP_MBOX_ECHO_REQUEST :
mailbox_send(M3_TO_HOST_MBX, RP_MBOX_ECHO_REPLY);
break;
case HOST_TO_M3_VRING :
ret = virtqueue_get_avail_buf(&virtqueue_list[msg], &virtq_buf);
/* make a local copy of the buffer */
local_vq_buf = pvPortMalloc(RP_MSG_BUF_SIZE);
memcpy(local_vq_buf, virtq_buf.buf_ptr, RP_MSG_BUF_SIZE);
virtqueue_add_used_buf(&virtqueue_list[msg], virtq_buf.head);
/* dispatch to the service queue */
rpmsg_dispatch_msg(local_vq_buf);
break;
case M3_TO_HOST_VRING :
trace_printf("kick on vq0, dropping it \n");
xSemaphoreGive(InitDoneSemaphore);
break;
}
}
vTaskDelete(NULL);
}
void MFNHashTypePlainCUDA_DupMD5::launchKernel() {
trace_printf("MFNHashTypePlainCUDA_DupMD5::launchKernel()\n");
// Copy the per-step data to the device.
MFNHashTypePlainCUDA_DupMD5_CopyValueToConstant("deviceNumberStepsToRunPlainDupMD5",
&this->perStep, sizeof(uint32_t));
MFNHashTypePlainCUDA_DupMD5_LaunchKernel(this->passwordLength, this->GPUBlocks, this->GPUThreads);
}
void CHHashFileVSalted::ImportHashListFromRemoteSystem(std::string & remoteData) {
trace_printf("CHHashFileVSalted::ImportHashListFromRemoteSystem()\n");
std::string hashBuffer;
CHHashImplementation *HashFunction = NULL;
this->HashFileMutex.lock();
this->HashesProtobuf.Clear();
this->HashesProtobuf.ParseFromString(remoteData);
// If the salt is to be hashed, set up the class to do it.
if (this->saltPrehashAlgorithm == CH_HASHFILE_MD5_ASCII) {
HashFunction = new CHHashImplementationMD5();
}
//Unpack the CHHashFileVSalted general member variables other than Hashes.
this->HashLengthBytes = this->HashesProtobuf.hash_length_bytes();
this->MaxSaltLengthBytes = this->HashesProtobuf.salt_length_bytes();
//Then unpack individual HashSalted structs.
this->TotalHashes = this->HashesProtobuf.salted_hash_value_size();
for(int i=0;i<this->TotalHashes;i++)
{
CHHashFileVSalted::HashSalted hashSalted;
this->SaltedHashProtobuf.Clear();
this->SaltedHashProtobuf = this->HashesProtobuf.salted_hash_value(i);
hashBuffer = std::string(this->SaltedHashProtobuf.hash());
hashSalted.hash = std::vector<uint8_t>(hashBuffer.begin(), hashBuffer.end());
hashBuffer = std::string(this->SaltedHashProtobuf.salt());
hashSalted.saltLength = hashBuffer.length();
hashSalted.salt = std::vector<uint8_t>(hashBuffer.begin(), hashBuffer.end());
// Hash the salt if needed.
if (this->saltPrehashAlgorithm == CH_HASHFILE_MD5_ASCII) {
hashSalted.salt = HashFunction->
hashDataAsciiVector(hashSalted.salt);
}
hashSalted.password = std::vector<uint8_t>();
hashSalted.passwordFound = 0;
hashSalted.passwordOutputToFile = 0;
hashSalted.passwordPrinted = 0;
this->Hashes.push_back(hashSalted);
}
this->HashesProtobuf.Clear();
this->SaltedHashProtobuf.Clear();
this->clearCaches();
if (HashFunction) {
delete HashFunction;
}
this->TotalHashesRemaining = this->TotalHashes;
this->HashFileMutex.unlock();
}
void MFNHashTypeSaltedCUDA_IPBWL::copyConstantDataToDevice() {
trace_printf("MFNHashTypeSaltedCUDA_IPBWL::copyConstantDataToDevice()\n");
cudaError_t err;
uint8_t localPasswordLength = (uint8_t) this->passwordLength;
uint64_t localNumberHashes = (uint64_t) this->activeHashesProcessed.size();
uint64_t localNumberThreads = this->GPUBlocks * this->GPUThreads;
// Begin copying constant data to the device.
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_CONSTANT_BITMAP_A,
&this->sharedBitmap8kb_a[0], 8192);
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_DEVICE_PASSWORD_LENGTH,
&localPasswordLength, sizeof(uint8_t));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_NUMBER_OF_HASHES,
&localNumberHashes, sizeof(uint64_t));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_GLOBAL_HASHLIST_ADDRESS,
&this->DeviceHashlistAddress, sizeof(uint8_t *));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_GLOBAL_BITMAP_A,
&this->DeviceBitmap128mb_a_Address, sizeof(uint8_t *));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_GLOBAL_BITMAP_B,
&this->DeviceBitmap128mb_b_Address, sizeof(uint8_t *));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_GLOBAL_BITMAP_C,
&this->DeviceBitmap128mb_c_Address, sizeof(uint8_t *));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_GLOBAL_BITMAP_D,
&this->DeviceBitmap128mb_d_Address, sizeof(uint8_t *));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_GLOBAL_BITMAP_256KB_A,
&this->DeviceBitmap256kb_Address, sizeof(uint8_t *));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_GLOBAL_FOUND_PASSWORDS,
&this->DeviceFoundPasswordsAddress, sizeof(uint8_t *));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_GLOBAL_FOUND_PASSWORD_FLAGS,
&this->DeviceSuccessAddress, sizeof(uint8_t *));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_DEVICE_NUMBER_THREADS,
&localNumberThreads, sizeof(uint64_t));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_DEVICE_WORDLIST_DATA,
&this->DeviceWordlistBlocks, sizeof(uint32_t *));
MFNHashTypeSaltedCUDA_IPBWL_CopyValueToConstantById(MFN_CUDA_DEVICE_WORDLIST_LENGTHS,
&this->DeviceWordlistLengths, sizeof(uint8_t *));
this->copySaltConstantsToDevice();
err = cudaGetLastError();
if (err != cudaSuccess) {
printf("Thread %d, dev %d: CUDA error %d: %s. Exiting.\n",
this->threadId, this->gpuDeviceId, err, cudaGetErrorString( err));
exit(1);
}
}
int main(void)
{
/* USER CODE BEGIN 1 */
uint32_t test;
/* USER CODE END 1 */
/* MCU Configuration----------------------------------------------------------*/
/* Reset of all peripherals, Initializes the Flash interface and the Systick. */
HAL_Init();
/* Configure the system clock */
SystemClock_Config();
/* Initialize all configured peripherals */
MX_GPIO_Init();
/* USER CODE BEGIN 2 */
BSP_UART_Init(115200);
/* Initialize on board LED4 */
BSP_LED_Init(LED4);
trace_printf("Hello\n");
/* Configure MPU region */
MPU_Config();
/* Try to access memory region 1 */
uprintf("Trying to read memory from region 1\n\r");
test = (*(unsigned int *)0x08000010);
uprintf("some value at location 0x08000010: %08x \n\r",test );
uprintf("Read successful!!!\n\r");
/* Try to access memory region 2 */
uprintf("Trying to read memory from region 2\n\r");
uprintf("Memory management fault occur: LED4 will Glow");
test = (*(unsigned int *)0x20002001);
uprintf("some value at location 0x20002001: %08x \n\r",test );
/* USER CODE END 2 */
/* Infinite loop */
/* USER CODE BEGIN WHILE */
while (1)
{
/* USER CODE END WHILE */
/* USER CODE BEGIN 3 */
}
/* USER CODE END 3 */
}
void DataTerminal::flushPage()
{
#ifdef DRY_RUN
trace_printf("Mock write for flash page at %.8x\n", mWriteAddress);
mWriteAddress += FLASH_PAGE_SIZE;
#else
trace_printf("Writing Flash page at %.8x\n", mWriteAddress);
FLASH_ErasePage(mWriteAddress);
FLASH_WaitForLastOperation(FLASH_ER_PRG_TIMEOUT);
char *p = mCurrPage;
for ( size_t i = 0; i < FLASH_PAGE_SIZE; i += 4, p += 4) {
FLASH_ProgramWord(mWriteAddress + i, *(uint32_t*)p);
FLASH_WaitForLastOperation(FLASH_ER_PRG_TIMEOUT);
}
trace_printf("Wrote Flash page at %.8x\n", mWriteAddress);
mWriteAddress += FLASH_PAGE_SIZE;
memset(mCurrPage, 0, sizeof mCurrPage);
#endif
}
void trace_value(unsigned int register_value)
{
int i,reg;
char hexa_char;
char string[10] = "0x00000000";
reg = register_value;
for ( i=9 ; i>1 ; i--) {
hexa_char = (char)(reg & ASCII_MASK);
if (hexa_char < 10)
string[i] = hexa_char + 48 ;
else
string[i] = hexa_char + 55;
reg = reg >> 4 ;
}
trace_printf(string);
trace_printf("\n");
}
MFNWorkunitWordlist::MFNWorkunitWordlist() {
trace_printf("MFNWorkunitWordlist::MFNWorkunitWordlist()\n");
this->networkPort = MFN_WORKUNIT_DEFAULT_NETWORK_PORT;
this->NetworkServer = NULL;
this->wordlistBlocks.passwordsArePadded = 0;
memset(this->wordlistBlocks.passwordsCurrentlyLoaded, 0, sizeof(this->wordlistBlocks.passwordsCurrentlyLoaded));
memset(this->wordlistBlocks.lastExportedTime, 0, sizeof(this->wordlistBlocks.lastExportedTime));
this->totalQueuedWords = 0;
this->lastWorkunitIDAssigned = 0;
this->StartNetwork();
}
int main(void)
{
/* USER CODE BEGIN 1 */
trace_printf("Hello\n");
/* USER CODE END 1 */
/* MCU Configuration----------------------------------------------------------*/
/* Reset of all peripherals, Initializes the Flash interface and the Systick. */
HAL_Init();
/* Configure the system clock */
SystemClock_Config();
/* Initialize all configured peripherals */
MX_GPIO_Init();
/* USER CODE BEGIN 2 */
BSP_UART_Init(9600);
BSP_VCP_Init();
vgetche(BLOCKING); // Dummy read to get the VCP Connected
/* display string */
vuprintf("AT\n\r");
HAL_Delay(500);
if(BSP_GSM_ConnectTest()==1)
{
/* display string */
vuprintf("Connecting... \n\r");
HAL_Delay(500);
vuprintf("Successful! \n\r");
HAL_Delay(500);
}
else
{
vuprintf("Fail \n\r");
while(1);
}
/* USER CODE END 2 */
/* Infinite loop */
/* USER CODE BEGIN WHILE */
while (1)
{
/* USER CODE END WHILE */
/* USER CODE BEGIN 3 */
}
/* USER CODE END 3 */
}
static void show_code(void *eip)
{
unsigned long code_prologue = code_bytes * 43 / 64;
unsigned char *code;
unsigned int i;
if (!eip)
return;
code = eip - code_prologue;
trace_printf("Code: ");
for (i = 0; i < code_bytes; i++) {
if (code+i == eip)
trace_printf("<%02x> ", code[i]);
else
trace_printf("%02x ", code[i]);
}
trace_printf("\n");
}
void MFNHashTypePlainOpenCL::setupDevice() {
trace_printf("CHHashTypeVPlainCUDA::setupDevice()\n");
char buildOptions[1024];
cl_int errorCode;
// Set the OpenCL platform & device
trace_printf("Thread %d setting OpenCL platform/device to %d, %d\n",
this->threadId, this->openCLPlatformId, this->gpuDeviceId);
this->OpenCL->selectPlatformById(this->openCLPlatformId);
this->OpenCL->selectDeviceById(this->gpuDeviceId);
/**
* Handle generating the kernels. This involves building with the specified
* password length, vector width, and BFI_INT status.
*/
if (MultiforcerGlobalClassFactory.getCommandlinedataClass()->GetUseBfiInt()) {
// BFI_INT patching - pass BITALIGN to kernel
sprintf(buildOptions, "-D PASSWORD_LENGTH=%d -D VECTOR_WIDTH=%d -D BITALIGN=1",
this->passwordLength, this->VectorWidth);
} else {
// No BFI_INT patching.
sprintf(buildOptions, "-D PASSWORD_LENGTH=%d -D VECTOR_WIDTH=%d",
this->passwordLength, this->VectorWidth);
}
this->OpenCL->buildProgramFromManySourcesConcat(this->getHashFileNames(), buildOptions);
// If the BFI_INT patching is being used, patch the generated binary.
if (MultiforcerGlobalClassFactory.getCommandlinedataClass()->GetUseBfiInt()) {
this->OpenCL->doAMDBFIPatch();
}
this->HashProgram = this->OpenCL->getProgram();
this->HashKernel = clCreateKernel (this->HashProgram, this->getHashKernelName().c_str(), &errorCode);
if (errorCode != CL_SUCCESS) {
printf("Error: %s\n", print_cl_errstring(errorCode));
exit(1);
}
}
void *shmServerConstructor(void *arg) {
//Create the key file for shm and sem keyfiles
deleteFile(SHMKEYPATH);
deleteFile(SEMKEYPATH);
createEmptyFile(SHMKEYPATH);
createEmptyFile(SEMKEYPATH);
//initiator first
shmServerInitiator();
//Create Clients' Check status
shmServer.gsThreadID = pthread_create(&shmServer.gsThread, NULL,
shmServerClientCheck, NULL);
trace_printf("Thread shmServerClientCheck successfully");
pthread_join(shmServer.gsThread, NULL);
trace_printf("Join threads Done");
shmServerDestructor();
return (void *) NULL;
}
static void show_registers(gregset_t gregs)
{
unsigned long eax, ebx, ecx, edx;
unsigned long esi, edi, ebp, esp;
eax = gregs[REG_EAX];
ebx = gregs[REG_EBX];
ecx = gregs[REG_ECX];
edx = gregs[REG_EDX];
esi = gregs[REG_ESI];
edi = gregs[REG_EDI];
ebp = gregs[REG_EBP];
esp = gregs[REG_ESP];
trace_printf("Registers:\n");
trace_printf(" eax: %08lx ebx: %08lx ecx: %08lx edx: %08lx\n",
eax, ebx, ecx, edx);
trace_printf(" esi: %08lx edi: %08lx ebp: %08lx esp: %08lx\n",
esi, edi, ebp, esp);
}
std::vector<std::string> MFNHashTypePlainOpenCL_MD5::getHashFileNames() {
trace_printf("MFNHashTypePlainOpenCL_MD5::getHashFileNames()\n");
std::vector<std::string> returnHashFilenames;
std::string hashFilename;
#if !RELEASE_KERNEL
hashFilename = "./src/MFN_OpenCL_device/MFNHashTypePlainOpenCL_MD5.cl";
returnHashFilenames.push_back(hashFilename);
#endif
return returnHashFilenames;
}
int execv_git_cmd(const char **argv) {
const char **nargv = prepare_git_cmd(argv);
trace_argv_printf(nargv, "trace: exec:");
/* execvp() can only ever return if it fails */
execvp("git", (char **)nargv);
trace_printf("trace: exec failed: %s\n", strerror(errno));
free(nargv);
return -1;
}
int MFNWorkunitRobust::CreateWorkunits(uint64_t NumberOfPasswords, uint8_t BitsPerUnit, uint8_t PasswordLength) {
trace_printf("MFNWorkunitRobust::CreateWorkunits(%lu, %u, %u)\n", NumberOfPasswords, BitsPerUnit, PasswordLength);
uint64_t NumberOfWorkunits = 0;
this->workunitMutexBoost.lock();
this->ClearAllInternalState();
this->WorkunitBits = BitsPerUnit;
this->CurrentPasswordLength = PasswordLength;
this->NumberPasswordsTotal = NumberOfPasswords;
// Calculate how many elements are needed per workunit
this->ElementsPerWorkunit = pow(2.0, (int)BitsPerUnit);
if (this->DebugOutput) {
printf("Elements per unit: %llu\n", this->ElementsPerWorkunit);
}
// If the number of workunits fits perfectly, no need for an extra "end" unit.
if ((NumberOfPasswords % this->ElementsPerWorkunit) == 0) {
NumberOfWorkunits = (NumberOfPasswords / this->ElementsPerWorkunit);
} else {
NumberOfWorkunits = (NumberOfPasswords / this->ElementsPerWorkunit) + 1;
}
this->NumberOfWorkunitsTotal = NumberOfWorkunits;
if (this->DebugOutput) {
printf("Total number of workunits: %llu\n", NumberOfWorkunits);
}
// Create the initial batch of workunits
this->CreateMorePendingWorkunits(MFN_WORKUNIT_WU_REFILL_SIZE);
// At this point, we should be done with creating the workunits.
// Do some final cleanup and go.
this->NumberOfWorkunitsCompleted = 0;
this->WorkunitClassInitialized = 1;
// Start the execution timer
this->WorkunitTimer.start();
this->LastStateSaveTime = 0;
this->workunitMutexBoost.unlock();
this->WriteSaveState(1);
return 1;
}
static inline void trace_push(struct vm_object *loader, const char *class_name)
{
assert(trace_classloader_level >= 0);
if (opt_trace_classloader) {
trace_printf("classloader: %p %*s%s\n", loader,
trace_classloader_level, "", class_name);
trace_flush();
}
++trace_classloader_level;
}
int main()
{
trace_start("127.0.0.1", 8889, "/home/share/Log/TraceWorkerDebug.cpp");
CFTPManager ftpManager;
trace_printf("NULL");
ftpManager.login2Server("10.17.128.105:21");
trace_printf("NULL");
ftpManager.inputUserName("huangyuan1");
trace_printf("NULL");
ftpManager.inputPassWord("7ujMko0admin");
trace_printf("NULL");
//ftpManager.Put("/Log/Makefile", "Makefile");
for (int i=0; i<5; ++i)
{
ftpManager.WriteData("/Log/WriteTest.txt", "12345\n", 7);
}
trace_printf("NULL");
ftpManager.quitServer();
return 0;
}
void MFNHashTypePlainCUDA::copyStartPointsToDevice() {
trace_printf("MFNHashTypePlainCUDA::copyStartPointsToDevice()\n");
cudaMemcpy(this->DeviceStartPointAddress,
this->HostStartPointAddress,
this->TotalKernelWidth * this->passwordLength,
cudaMemcpyHostToDevice);
cudaMemcpy(this->DeviceStartPasswords32Address,
&this->HostStartPasswords32[0],
this->TotalKernelWidth * this->passwordLengthWords,
cudaMemcpyHostToDevice);
}
std::vector<std::string> MFNHashTypePlainOpenCL_MD5::getHashFileNames() {
trace_printf("MFNHashTypePlainOpenCL_MD5::getHashFileNames()\n");
std::vector<std::string> returnHashFilenames;
std::string hashFilename;
hashFilename = "./inc/MFN_OpenCL_device/MFN_OpenCL_incrementors.h";
returnHashFilenames.push_back(hashFilename);
hashFilename = "./src/MFN_OpenCL_device/MFNHashTypePlainOpenCL_MD5.cl";
returnHashFilenames.push_back(hashFilename);
return returnHashFilenames;
}
MFNWorkunitRobust::~MFNWorkunitRobust() {
trace_printf("MFNWorkunitRobust::~MFNWorkunitRobust()\n");
// If the workunit is complete, delete the resume file.
if (this->NumberOfWorkunitsCompleted == this->NumberOfWorkunitsTotal) {
if (this->UseResumeFile) {
if (this->DebugOutput) {
printf("Deleting file %s\n", this->ResumeFilename.c_str());
}
unlink(this->ResumeFilename.c_str());
}
}
}
static int merge_changes(struct notes_merge_options *o,
struct notes_merge_pair *changes, int *num_changes,
struct notes_tree *t)
{
int i, conflicts = 0;
trace_printf("\tmerge_changes(num_changes = %i)\n", *num_changes);
for (i = 0; i < *num_changes; i++) {
struct notes_merge_pair *p = changes + i;
trace_printf("\t\t%.7s: %.7s -> %.7s/%.7s\n",
sha1_to_hex(p->obj), sha1_to_hex(p->base),
sha1_to_hex(p->local), sha1_to_hex(p->remote));
if (!hashcmp(p->base, p->remote)) {
/* no remote change; nothing to do */
trace_printf("\t\t\tskipping (no remote change)\n");
} else if (!hashcmp(p->local, p->remote)) {
/* same change in local and remote; nothing to do */
trace_printf("\t\t\tskipping (local == remote)\n");
} else if (!hashcmp(p->local, uninitialized) ||
!hashcmp(p->local, p->base)) {
/* no local change; adopt remote change */
trace_printf("\t\t\tno local change, adopted remote\n");
if (add_note(t, p->obj, p->remote,
combine_notes_overwrite))
die("BUG: combine_notes_overwrite failed");
} else {
/* need file-level merge between local and remote */
trace_printf("\t\t\tneed content-level merge\n");
conflicts += merge_one_change(o, p, t);
}
}
return conflicts;
}
