int main(int argc, char *argv[])
{
int thr_id1, thr_id2;
atomic_set(0,&flag);
setup();
pass_criteria = THRESHOLD;
rt_init("l:h", parse_args, argc, argv); /* we need the buffered print system */
printf("-------------------------------\n");
printf("pthread_kill Latency\n");
printf("-------------------------------\n\n");
printf("Iterations: %d\n", ITERATIONS);
debug(DBG_DEBUG, "Main creating threads\n");
fflush(stdout);
thr_id1 = create_fifo_thread(signal_receiving_thread, (void*)0, PRIO);
thr_id2 = create_fifo_thread(signal_sending_thread, (void*)(intptr_t)thr_id1, PRIO-1);
// thr_id2 = create_other_thread(signal_sending_thread, (void*)(intptr_t)thr_id1);
debug(DBG_DEBUG, "Main joining threads debug\n");
join_thread(thr_id1);
join_thread(thr_id2);
buffer_print();
return fail;
}
int
main()
{
#ifdef USE_DYNAMO
dynamorio_app_init();
dynamorio_app_start();
#endif
INIT();
print("calling via IAT-style call\n");
import_me1(57);
print("calling in a thread\n");
join_thread(create_thread((fptr)import_me1));
print("calling in a thread that dies\n");
join_thread(create_thread((fptr)import_me_die));
print("case 5455 regression passed\n");
print("all done\n");
#ifdef USE_DYNAMO
dynamorio_app_stop();
dynamorio_app_exit();
#endif
return 0;
}
int main(void)
{
parent_ready = create_cond_var();
int i;
thread_t threads[NUM_PARENT_THREADS];
for (i = 0; i < NUM_PARENT_THREADS; ++i)
threads[i] = create_thread(parent_func, NULL);
/* We setup and start at once to avoid process memory changing much between
* the two.
*/
dr_app_setup_and_start();
wait_cond_var(parent_ready);
thread_sleep(50);
dr_app_stop_and_cleanup();
parent_exit = true;
for (i = 0; i < NUM_PARENT_THREADS; ++i)
join_thread(threads[i]);
destroy_cond_var(parent_ready);
print("all done\n");
return 0;
}
void x11c_clear(X11Common* x11Common)
{
x11Common->stopped = 1;
join_thread(&x11Common->processEventThreadId, NULL, NULL);
PTHREAD_MUTEX_LOCK(&x11Common->eventMutex) /* don't allow events to be processed */
kic_free_keyboard_connect(&x11Common->keyboardConnect);
pic_free_progress_bar_connect(&x11Common->progressBarConnect);
mic_free_mouse_connect(&x11Common->mouseConnect);
if (x11Common->createdWindowInfo)
{
x11c_close_window(&x11Common->windowInfo);
x11Common->createdWindowInfo = 0;
}
SAFE_FREE(&x11Common->windowName);
x11Common->osd = NULL;
PTHREAD_MUTEX_UNLOCK(&x11Common->eventMutex)
destroy_mutex(&x11Common->eventMutex);
memset(x11Common, 0, sizeof(x11Common));
}
void init_data(t_shared shared)
{
int k;
int i;
t_data data[7];
pthread_t philosophe[7];
i = 0;
while (i < 7)
{
data[i].i = i;
data[i].shared = &shared;
data[i].life = MAX_LIFE;
data[i].etat = 0;
data[i].prior = 0;
data[i].shared->pos = 7;
if ((k = pthread_create(&philosophe[i], NULL, thread_1, &data[i])) != 0)
{
ft_putstr("Thread creation error \n");
exit(1);
}
i++;
}
init_time(data);
join_thread(philosophe);
}
int
rumpuser_thread_join(void *p)
{
join_thread(p);
return 0;
}
void simple_test(func_args* args)
{
THREAD_TYPE serverThread;
func_args svrArgs;
char *svrArgv[NUMARGS];
char argc0s[32];
char argc1s[32];
char argc2s[32];
func_args cliArgs;
char *cliArgv[NUMARGS];
char argc0c[32];
char argc1c[32];
char argc2c[32];
svrArgv[0] = argc0s;
svrArgv[1] = argc1s;
svrArgv[2] = argc2s;
cliArgv[0] = argc0c;
cliArgv[1] = argc1c;
cliArgv[2] = argc2c;
svrArgs.argc = 1;
svrArgs.argv = svrArgv;
svrArgs.return_code = 0;
cliArgs.argc = 1;
cliArgs.argv = cliArgv;
cliArgs.return_code = 0;
strcpy(svrArgs.argv[0], "SimpleServer");
#if !defined(USE_WINDOWS_API) && !defined(CYASSL_SNIFFER)
svrArgs.argc = NUMARGS;
strcpy(svrArgs.argv[1], "-p");
strcpy(svrArgs.argv[2], "0");
#endif
/* Set the last arg later, when it is known. */
args->return_code = 0;
svrArgs.signal = args->signal;
start_thread(server_test, &svrArgs, &serverThread);
wait_tcp_ready(&svrArgs);
/* Setting the actual port number. */
strcpy(cliArgs.argv[0], "SimpleClient");
#ifndef USE_WINDOWS_API
cliArgs.argc = NUMARGS;
strcpy(cliArgs.argv[1], "-p");
snprintf(cliArgs.argv[2], sizeof(argc2c), "%d", svrArgs.signal->port);
#endif
client_test(&cliArgs);
if (cliArgs.return_code != 0) {
args->return_code = cliArgs.return_code;
return;
}
join_thread(serverThread);
if (svrArgs.return_code != 0) args->return_code = svrArgs.return_code;
}
static void term_sockdev ( void* arg )
{
UNREFERENCED( arg );
if (!init_done) init_sockdev();
SIGNAL_SOCKDEV_THREAD();
join_thread ( sysblk.socktid, NULL );
detach_thread ( sysblk.socktid );
}
int main(int argc, char *argv[])
{
int worker, interrupter;
setup();
rt_init("h",parse_args,argc,argv);
interrupter = create_fifo_thread(thread_interrupter, NULL, 80);
sleep(1);
worker = create_fifo_thread(thread_worker, NULL, 10);
join_thread(worker);
flag = 1;
join_thread(interrupter);
return 0;
}
ReplayAudioIngest::~ReplayAudioIngest( ) {
stop = true;
join_thread( );
/* clean up per-channel buffers */
for (channel_entry &e : channel_map) {
delete [] e.current_frame;
delete [] e.last_frame;
delete e.fifo;
}
}
void main_move()
{
PCZ_TITLE("std::move operation: threads");
std::function<void(int, int)> fun = &print_add;
std::thread thread(fun, 1, 1);
#if METHOD_NR == 1
join_thread(std::move(thread));
#elif METHOD_NR == 2
join_thread(thread);
#elif METHOD_NR == 3
std::thread thread2 (std::move(thread));
// std::thread thread2 (thread); // error: use of deleted function ‘std::thread::thread(std::thread&)’
PCZ_DEBUG("thread.joinable() = %d", thread.joinable()); // -> 0
PCZ_DEBUG("thread2.joinable() = %d", thread2.joinable()); // -> 1
thread_joiner(std::move(thread2));
#endif
PCZ_TITLE("std::move operation: vector");
// move a vector
std::vector<int> v = { 1, 2, 3, 4, 5, 6, 7, 8, 9, 10 };
PCZ_DEBUG("vector.size() = %d, pointer to data = %x", v.size(), v.data());
std::vector<int> v2 = std::move(v);
PCZ_DEBUG("vector_2.size() = %d, vector.size() = %d, pointer_2 = %x, pointer_1 = %x", v2.size(), v.size(), v2.data(), v.data());
PCZ_TITLE("std::move operation: return by value");
simple_object s = return_simple_object(); // here s is not a new instance, but is the same as in the function
PCZ_DEBUG("simple_object is moved to this variable - pointer = %x", &s);
}
static void test_CyaSSL_read_write(void)
{
#ifdef HAVE_IO_TESTS_DEPENDENCIES
/* The unit testing for read and write shall happen simutaneously, since
* one can't do anything with one without the other. (Except for a failure
* test case.) This function will call all the others that will set up,
* execute, and report their test findings.
*
* Set up the success case first. This function will become the template
* for the other tests. This should eventually be renamed
*
* The success case isn't interesting, how can this fail?
* - Do not give the client context a CA certificate. The connect should
* fail. Do not need server for this?
* - Using NULL for the ssl object on server. Do not need client for this.
* - Using NULL for the ssl object on client. Do not need server for this.
* - Good ssl objects for client and server. Client write() without server
* read().
* - Good ssl objects for client and server. Server write() without client
* read().
* - Forgetting the password callback?
*/
tcp_ready ready;
func_args client_args;
func_args server_args;
THREAD_TYPE serverThread;
#ifdef CYASSL_TIRTOS
fdOpenSession(Task_self());
#endif
StartTCP();
InitTcpReady(&ready);
server_args.signal = &ready;
client_args.signal = &ready;
start_thread(test_server_nofail, &server_args, &serverThread);
wait_tcp_ready(&server_args);
test_client_nofail(&client_args);
join_thread(serverThread);
AssertTrue(client_args.return_code);
AssertTrue(server_args.return_code);
FreeTcpReady(&ready);
#ifdef CYASSL_TIRTOS
fdOpenSession(Task_self());
#endif
#endif
}
static int test_CyaSSL_read_write(void)
{
/* The unit testing for read and write shall happen simutaneously, since
* one can't do anything with one without the other. (Except for a failure
* test case.) This function will call all the others that will set up,
* execute, and report their test findings.
*
* Set up the success case first. This function will become the template
* for the other tests. This should eventually be renamed
*
* The success case isn't interesting, how can this fail?
* - Do not give the client context a CA certificate. The connect should
* fail. Do not need server for this?
* - Using NULL for the ssl object on server. Do not need client for this.
* - Using NULL for the ssl object on client. Do not need server for this.
* - Good ssl objects for client and server. Client write() without server
* read().
* - Good ssl objects for client and server. Server write() without client
* read().
* - Forgetting the password callback?
*/
int test_result = TEST_SUCCESS;
tcp_ready ready;
func_args client_args;
func_args server_args;
THREAD_TYPE serverThread;
StartTCP();
InitTcpReady(&ready);
server_args.signal = &ready;
start_thread(test_server_nofail, &server_args, &serverThread);
wait_tcp_ready(&server_args);
test_client_nofail(&client_args);
join_thread(serverThread);
if (client_args.return_code != TEST_SUCCESS)
{
printf(resultFmt, "client failure");
test_result = TEST_FAIL;
}
if (server_args.return_code != TEST_SUCCESS)
{
printf(resultFmt, "server failure");
test_result = TEST_FAIL;
}
FreeTcpReady(&ready);
return test_result;
};
static void execute_test_case(int svr_argc, char** svr_argv,
int cli_argc, char** cli_argv)
{
func_args cliArgs = {cli_argc, cli_argv, 0, NULL};
func_args svrArgs = {svr_argc, svr_argv, 0, NULL};
tcp_ready ready;
THREAD_TYPE serverThread;
char commandLine[MAX_COMMAND_SZ];
int i;
static int tests = 1;
commandLine[0] = '\0';
for (i = 0; i < svr_argc; i++) {
strcat(commandLine, svr_argv[i]);
strcat(commandLine, " ");
}
printf("trying server command line[%d]: %s\n", tests, commandLine);
commandLine[0] = '\0';
for (i = 0; i < cli_argc; i++) {
strcat(commandLine, cli_argv[i]);
strcat(commandLine, " ");
}
printf("trying client command line[%d]: %s\n", tests++, commandLine);
InitTcpReady(&ready);
/* start server */
svrArgs.signal = &ready;
start_thread(server_test, &svrArgs, &serverThread);
wait_tcp_ready(&svrArgs);
/* start client */
client_test(&cliArgs);
/* verify results */
if (cliArgs.return_code != 0) {
printf("client_test failed\n");
exit(EXIT_FAILURE);
}
join_thread(serverThread);
if (svrArgs.return_code != 0) {
printf("server_test failed\n");
exit(EXIT_FAILURE);
}
FreeTcpReady(&ready);
}
int main(int argc, char** argv)
{
if (2 > argc) {
printf ("Syntax: %s [conf_file_path]\n", argv[0]);
return 1;
}
if( access( argv[1], F_OK ) == -1 ) {
log_err("Specify correct path");
return 1;
}
if (populate_blacklist(get_filename_from_path(argv[1])) == -1) {
log_err("Failed to read %s", get_filename_from_path(argv[1]));
return 1;
}
if (pthread_mutex_init(&lock, NULL) || pthread_mutex_init(&udev_lock, NULL)) {
log_err("\n mutex init failed\n");
return 1;
}
create_thread(&config_file_watcher, watcher, argv[1]);
create_thread(&udev_sniffer_thread, do_udev_sniff, NULL);
/* Meat */
serve("Echo");
/* End Meat*/
thread_run = 0;
join_thread(config_file_watcher);
join_thread(udev_sniffer_thread);
pthread_mutex_destroy(&lock);
return 0;
}
void nn_servicelease_free (struct nn_servicelease *sl)
{
if (sl->keepgoing != -1)
{
os_mutexLock (&sl->lock);
sl->keepgoing = 0;
os_condSignal (&sl->cond);
os_mutexUnlock (&sl->lock);
join_thread (sl->ts, (void **) 0);
}
os_condDestroy (&sl->cond);
os_mutexDestroy (&sl->lock);
os_free (sl->av_ary);
os_free (sl);
}
void hac_free_http_access(HTTPAccess** access)
{
if (*access == NULL)
{
return;
}
(*access)->stopped = 1;
join_thread(&(*access)->httpThreadId, NULL, NULL);
har_free_resources(&(*access)->resources);
destroy_mutex(&(*access)->playerStateMutex);
SAFE_FREE(access);
}
THREAD_FUNC_RETURN_TYPE
parent_func(void *arg)
{
signal_cond_var(parent_ready);
while (!parent_exit) {
int i;
thread_t threads[NUM_CHILD_THREADS];
for (i = 0; i < NUM_CHILD_THREADS; ++i) {
print(".");
threads[i] = create_thread(child_func, NULL);
}
for (i = 0; i < NUM_CHILD_THREADS; ++i)
join_thread(threads[i]);
}
return THREAD_FUNC_RETURN_ZERO;
}
int main()
{
int i;
pthread_t child[NUM_CHILDREN];
Shared *shared = make_shared();
child[0] = make_thread(producer_entry, shared);
child[1] = make_thread(consumer_entry, shared);
for (i=0; i<NUM_CHILDREN; i++) {
join_thread(child[i]);
}
return 0;
}
int main ()
{
int i;
pthread_t child[NUM_CHILDREN];
Shared *shared = make_shared (100000000);
for (i=0; i<NUM_CHILDREN; i++) {
child[i] = make_thread (entry, shared);
}
for (i=0; i<NUM_CHILDREN; i++) {
join_thread (child[i]);
}
check_array (shared);
return 0;
}
/**
* \brief Waits for an Async object to finish up (joins all the threads
* in the thread pool) and DESTROYS the Async object (frees its
* memory and resources).
*
* This function will wait forever or until a signal is received and all
* the tasks in the queue have been processed.
*/
static void async_wait(async_p async)
{
if (!async) return;
/* wake threads (just in case) by sending `async->count`
* number of wakeups
*/
if (async->pipe.out)
write(async->pipe.out, async, async->count);
/* join threads */
for (int i = 0; i < async->count; i++) {
join_thread(async->threads[i]);
}
/* perform any pending tasks */
perform_tasks(async);
/* release queue memory and resources */
async_destroy(async);
}
int main()
{
TEST_THREAD_DATA threads_data[NUMBER_OF_TEST_THREADS];
THR_HANDLE thread_handle[NUMBER_OF_TEST_THREADS];
unsigned i;
int found_error = 0;
srand( (unsigned)time( NULL ) );
memset( threads_data, 0, sizeof(threads_data) );
for ( i = 0; i < NUMBER_OF_TEST_THREADS; i++ )
{
threads_data[i].index = i;
threads_data[i].sleep_interval_millis = get_random_value( MAX_THREAD_SLEEP_MILLIS );
thread_handle[i] = launch_thread( &threads_data[i] );
if ( !thread_handle[i] )
{
fprintf( stderr, "failed to launch worker thread, error code is %d\n", LAST_ERROR() );
return EXIT_FAILURE;
}
}
for ( i = 0; i < NUMBER_OF_TEST_THREADS; i++ )
if ( join_thread( thread_handle[i] ) != 0 )
{
fprintf( stderr, "failed to join thread %d, error code is %d\n", i, LAST_ERROR() );
return EXIT_FAILURE;
}
for ( i = 0; i < NUMBER_OF_TEST_THREADS; i++ )
{
if( threads_data[i].error_occured )
{
fprintf( stderr, "error occured at thread %d: %s\n", i, threads_data[i].error_message );
found_error = 1;
}
}
if ( found_error )
return EXIT_FAILURE;
// printf( "test ended successfully\n");
return EXIT_SUCCESS;
}
int CTCI_Close( DEVBLK* pDEVBLK )
{
/* DEVBLK* pDEVBLK2; */
PCTCBLK pCTCBLK = (PCTCBLK)pDEVBLK->dev_data;
// Close the device file (if not already closed)
if( pCTCBLK->fd >= 0 )
{
// PROGRAMMING NOTE: there's currently no way to interrupt
// the "CTCI_ReadThread"s TUNTAP_Read of the adapter. Thus
// we must simply wait for CTCI_ReadThread to eventually
// notice that we're doing a close (via our setting of the
// fCloseInProgress flag). Its TUNTAP_Read will eventually
// timeout after a few seconds (currently 5, which is dif-
// ferent than the CTC_READ_TIMEOUT_SECS timeout value the
// CTCI_Read function uses) and will then do the close of
// the adapter for us (TUNTAP_Close) so we don't have to.
// All we need to do is ask it to exit (via our setting of
// the fCloseInProgress flag) and then wait for it to exit
// (which, as stated, could take up to a max of 5 seconds).
// All of this is simply because it's poor form to close a
// device from one thread while another thread is reading
// from it. Attempting to do so could trip a race condition
// wherein the internal i/o buffers used to process the
// read request could have been freed (by the close call)
// by the time the read request eventually gets serviced.
TID tid = pCTCBLK->tid;
pCTCBLK->fCloseInProgress = 1; // (ask read thread to exit)
signal_thread( tid, SIGUSR2 ); // (for non-Win32 platforms)
//FIXME signal_thread not working for non-MSVC platforms
#if defined(_MSVC_)
join_thread( tid, NULL ); // (wait for thread to end)
#endif
detach_thread( tid ); // (wait for thread to end)
}
pDEVBLK->fd = -1; // indicate we're now closed
return 0;
}
int free_iothread(iothread_t* iothr)
{
int err;
if (iothr->thread) {
requeststop_iothread(iothr);
(void) join_thread(iothr->thread);
cancelall_iolist(&iothr->iolist);
err = delete_thread(&iothr->thread);
(void) PROCESS_testerrortimer(&s_iothread_errtimer, &err);
if (err) goto ONERR;
}
return 0;
ONERR:
TRACEEXITFREE_ERRLOG(err);
return err;
}
static void test_CyaSSL_client_server(callback_functions* client_callbacks,
callback_functions* server_callbacks)
{
#ifdef HAVE_IO_TESTS_DEPENDENCIES
tcp_ready ready;
func_args client_args;
func_args server_args;
THREAD_TYPE serverThread;
StartTCP();
client_args.callbacks = client_callbacks;
server_args.callbacks = server_callbacks;
#ifdef CYASSL_TIRTOS
fdOpenSession(Task_self());
#endif
/* RUN Server side */
InitTcpReady(&ready);
server_args.signal = &ready;
client_args.signal = &ready;
start_thread(run_cyassl_server, &server_args, &serverThread);
wait_tcp_ready(&server_args);
/* RUN Client side */
run_cyassl_client(&client_args);
join_thread(serverThread);
FreeTcpReady(&ready);
#ifdef CYASSL_TIRTOS
fdCloseSession(Task_self());
#endif
#else
(void)client_callbacks;
(void)server_callbacks;
#endif
}
static void ddc_close(void* data)
{
DVDecodeStreamConnect* connect = (DVDecodeStreamConnect*)data;
if (data == NULL)
{
return;
}
if (connect->useWorkerThread)
{
connect->stopped = 1;
/* wake up threads - this is to avoid valgrind saying the mutx is
still in use when pthread_mutex_destroy is called below */
PTHREAD_MUTEX_LOCK(&connect->workerMutex);
pthread_cond_broadcast(&connect->frameIsReadyCond);
pthread_cond_broadcast(&connect->workerIsBusyCond);
PTHREAD_MUTEX_UNLOCK(&connect->workerMutex);
join_thread(&connect->workerThreadId, NULL, NULL);
}
free_dv_decoder(&connect->decoder);
free_dv_decoder_resources();
SAFE_FREE(&connect->dvData);
if (connect->useWorkerThread)
{
destroy_cond_var(&connect->workerIsBusyCond);
destroy_cond_var(&connect->frameIsReadyCond);
destroy_mutex(&connect->workerMutex);
}
SAFE_FREE(&connect);
}
static void logger_term(void *arg)
{
char *lmsbuf = NULL; /* xxx */
int lmsnum = -1; /* xxx */
int lmscnt = -1; /* xxx */
char* term_msg = MSG(HHC02103, "I");
UNREFERENCED(arg);
log_wakeup(NULL);
usleep(1000);
/* Flush all pending logger o/p before redirecting?? */
fflush(stdout);
if(logger_active)
{
/* Redirect all output to stderr */
dup2(STDERR_FILENO, STDOUT_FILENO);
/* Tell logger thread we want it to exit */
logger_active = 0;
log_wakeup(NULL);
usleep(1000);
if ( logger_tid != 0 && !sysblk.shutdown )
{
sleep(2);
/* Logger is now terminating */
obtain_lock(&logger_lock);
/* Wait for the logger to terminate */
join_thread( logger_tid, NULL );
detach_thread( logger_tid );
release_lock(&logger_lock);
}
if ( fwrite("\n",1,1,stderr) ) {
perror(QLINE "fwrite failure/HHC02102 ");
}
/* Read and display any msgs still remaining in the system log */
lmsnum = log_line(-1);
while((lmscnt = log_read(&lmsbuf, &lmsnum, LOG_BLOCK)))
{
char *p = NULL;
char *strtok_str = NULL;
lmsbuf[lmscnt-1] = '\0';
p = strtok_r( lmsbuf, "\n", &strtok_str );
while ( (p = strtok_r(NULL, "\n", &strtok_str ) ) != NULL )
{
char* pLeft = p;
int nLeft = (int)strlen(p);
#if defined( OPTION_MSGCLR )
/* Remove "<pnl,..." color string if it exists */
if (1
&& nLeft > 5
&& strncasecmp( pLeft, "<pnl", 4 ) == 0
&& (pLeft = memchr( pLeft+4, '>', nLeft-4 )) != NULL
)
{
pLeft++;
nLeft -= (int)(pLeft - p);
}
#endif // defined( OPTION_MSGCLR )
if (nLeft)
{
if ( fwrite(pLeft,nLeft,1,stderr) ) {
perror(QLINE "fwrite failure/HHC02102 ");
}
if ( fwrite("\n",1,1,stderr) ) {
perror(QLINE "fwrite failure/HHC02102 ");
}
}
}
}
if ( fwrite( term_msg, strlen(term_msg), 1, stderr ) ) {
perror(QLINE "fwrite failure/HHC02102 ");
}
fflush(stderr);
}
}
int main(int argc, char** argv)
{
size_t _i = 0, _j = 0;
size_t _read_len = 0;
char *_file_in = NULL, *_file_out = NULL, *_file_k = NULL;
int _op = 0;
FILE *_f_in = stdin, *_f_out = stdout, *_f_k = NULL;
do_block _b[OAES_THREADS];
fprintf( stderr, "\n"
"*******************************************************************************\n"
"* OpenAES %-10s *\n"
"* Copyright (c) 2013, Nabil S. Al Ramli, www.nalramli.com *\n"
"*******************************************************************************\n\n",
OAES_VERSION );
// pad the key
for( _j = 0; _j < 32; _j++ )
_key_data[_j] = _j + 1;
if( argc < 2 )
{
usage( argv[0] );
return EXIT_FAILURE;
}
if( 0 == strcmp( argv[1], "gen-key" ) )
{
OAES_CTX *_oaes = NULL;
uint8_t _buf[16384];
size_t _buf_len = sizeof(_buf);
OAES_RET _rc = OAES_RET_SUCCESS;
_i++;
_i++; // key_length
_i++; // key_file
if( _i >= argc )
{
fprintf( stderr, "Error: No value specified for '%s'.\n",
argv[1] );
usage( argv[0] );
return EXIT_FAILURE;
}
_key_data_len = atoi( argv[_i - 1] );
_file_k = argv[_i];
_oaes = oaes_alloc();
if( NULL == _oaes )
{
fprintf(stderr, "Error: Failed to initialize OAES.\n");
return OAES_RET_MEM;
}
switch( _key_data_len )
{
case 128:
_rc = oaes_key_gen_128(_oaes);
break;
case 192:
_rc = oaes_key_gen_192(_oaes);
break;
case 256:
_rc = oaes_key_gen_256(_oaes);
break;
default:
fprintf( stderr, "Error: Invalid value [%s] specified for '%s'.\n",
argv[_i - 1], argv[_i - 2] );
oaes_free(&_oaes);
return EXIT_FAILURE;
}
if( OAES_RET_SUCCESS != _rc )
{
fprintf( stderr, "Error: Failed to generate OAES %lu bit key.\n",
_key_data_len );
oaes_free(&_oaes);
return EXIT_FAILURE;
}
if( OAES_RET_SUCCESS != oaes_key_export(_oaes, _buf, &_buf_len) )
{
fprintf( stderr, "Error: Failed to retrieve key length %lu.\n",
_key_data_len );
oaes_free(&_oaes);
return EXIT_FAILURE;
}
oaes_free(&_oaes);
if( 0 == access(_file_k, 00) )
{
fprintf(stderr,
"Error: '%s' already exists.\n", _file_k);
return EXIT_FAILURE;
}
_f_k = fopen(_file_k, "wb");
if( NULL == _f_k )
{
fprintf(stderr,
"Error: Failed to open '%s' for writing.\n", _file_k);
return EXIT_FAILURE;
}
fwrite(_buf, sizeof(uint8_t), _buf_len, _f_k);
fclose(_f_k);
return EXIT_SUCCESS;
}
else if( 0 == strcmp( argv[1], "base64-enc" ) )
{
_op = 0;
_read_len = OAES_BASE64_LEN_ENC;
}
else if( 0 == strcmp( argv[1], "base64-dec" ) )
{
_op = 1;
_read_len = OAES_BASE64_LEN_DEC;
}
else if( 0 == strcmp( argv[1], "aes-enc" ) )
{
_op = 2;
_read_len = OAES_AES_LEN_ENC;
}
else if( 0 == strcmp( argv[1], "aes-dec" ) )
{
_op = 3;
_read_len = OAES_AES_LEN_DEC;
}
else
{
fprintf(stderr, "Error: Unknown command '%s'.", argv[1]);
usage( argv[0] );
return EXIT_FAILURE;
}
for( _i = 2; _i < argc; _i++ )
{
int _found = 0;
if( 0 == strcmp( argv[_i], "--ecb" ) )
{
_found = 1;
_is_ecb = 1;
}
if( 0 == strcmp( argv[_i], "--key" ) )
{
uint8_t *_buf = NULL;
size_t _buf_len = 0;
_found = 1;
_i++; // base64_encoded_key_data
if( _i >= argc )
{
fprintf(stderr, "Error: No value specified for '%s'.\n",
argv[_i - 1]);
usage( argv[0] );
return EXIT_FAILURE;
}
if( oaes_base64_decode(argv[_i], strlen(argv[_i]), NULL, &_buf_len) )
{
fprintf(stderr, "Error: Invalid value for '%s'.\n",
argv[_i - 1]);
usage( argv[0] );
return EXIT_FAILURE;
}
_buf = (uint8_t *) calloc(_buf_len, sizeof(uint8_t));
if( NULL == _buf )
{
fprintf(stderr, "Error: Failed to allocate memory.\n");
return EXIT_FAILURE;
}
if( oaes_base64_decode(argv[_i], strlen(argv[_i]), _buf, &_buf_len) )
{
free(_buf);
fprintf(stderr, "Error: Invalid value for '%s'.\n",
argv[_i - 1]);
usage( argv[0] );
return EXIT_FAILURE;
}
_key_data_len = _buf_len;
if( 16 >= _key_data_len )
_key_data_len = 16;
else if( 24 >= _key_data_len )
_key_data_len = 24;
else
_key_data_len = 32;
memcpy(_key_data, _buf, __min(32, _buf_len));
for( _j = 0; _j < _buf_len; _j++ )
{
_key_data[_j % 32] ^= _buf[_j];
}
free(_buf);
}
if( 0 == strcmp( argv[_i], "--key-file" ) )
{
OAES_CTX *_ctx = NULL;
uint8_t _buf[16384];
size_t _read = 0;
_found = 1;
_i++; // key_file
if( _i >= argc )
{
fprintf(stderr, "Error: No value specified for '%s'.\n",
argv[_i - 1]);
usage( argv[0] );
return EXIT_FAILURE;
}
_file_k = argv[_i];
_ctx = oaes_alloc();
if( NULL == _ctx )
{
fprintf(stderr, "Error: Failed to initialize OAES.\n");
return OAES_RET_MEM;
}
_f_k = fopen(_file_k, "rb");
if( NULL == _f_k )
{
fprintf(stderr,
"Error: Failed to open '%s' for reading.\n", _file_k);
oaes_free(&_ctx);
return EXIT_FAILURE;
}
_read = fread(_buf, sizeof(uint8_t), sizeof(_buf), _f_k);
fclose(_f_k);
if( OAES_RET_SUCCESS != oaes_key_import(_ctx, _buf, _read) )
{
fprintf(stderr,
"Error: Failed to import '%s'.\n", _file_k);
oaes_free(&_ctx);
return EXIT_FAILURE;
}
_key_data_len = sizeof(_key_data);
if( OAES_RET_SUCCESS != oaes_key_export_data(_ctx, _key_data, &_key_data_len) )
{
fprintf(stderr,
"Error: Failed to export '%s' data.\n", _file_k);
oaes_free(&_ctx);
return EXIT_FAILURE;
}
oaes_free(&_ctx);
}
if( 0 == strcmp( argv[_i], "--in" ) )
{
_found = 1;
_i++; // path_in
if( _i >= argc )
{
fprintf(stderr, "Error: No value specified for '%s'.\n",
argv[_i - 1]);
usage( argv[0] );
return EXIT_FAILURE;
}
_file_in = argv[_i];
}
if( 0 == strcmp( argv[_i], "--out" ) )
{
_found = 1;
_i++; // path_out
if( _i >= argc )
{
fprintf(stderr, "Error: No value specified for '%s'.\n",
argv[_i - 1]);
usage( argv[0] );
return EXIT_FAILURE;
}
_file_out = argv[_i];
}
if( 0 == _found )
{
fprintf(stderr, "Error: Invalid option '%s'.\n", argv[_i]);
usage( argv[0] );
return EXIT_FAILURE;
}
}
switch(_op)
{
case 0:
case 1:
break;
case 2:
case 3:
if( 0 == _key_data_len )
{
char _key_data_ent[8193] = "";
uint8_t *_buf = NULL;
size_t _buf_len = 0;
fprintf(stderr, "Enter base64-encoded key: ");
scanf("%8192s", _key_data_ent);
if( oaes_base64_decode(
_key_data_ent, strlen(_key_data_ent), NULL, &_buf_len ) )
{
fprintf(stderr, "Error: Invalid value for '%s'.\n",
argv[_i - 1]);
usage( argv[0] );
return EXIT_FAILURE;
}
_buf = (uint8_t *) calloc(_buf_len, sizeof(uint8_t));
if( NULL == _buf )
{
fprintf(stderr, "Error: Failed to allocate memory.\n");
return EXIT_FAILURE;
}
if( oaes_base64_decode(
_key_data_ent, strlen(_key_data_ent), _buf, &_buf_len ) )
{
free(_buf);
fprintf(stderr, "Error: Invalid value for '%s'.\n",
argv[_i - 1]);
usage( argv[0] );
return EXIT_FAILURE;
}
_key_data_len = _buf_len;
if( 16 >= _key_data_len )
_key_data_len = 16;
else if( 24 >= _key_data_len )
_key_data_len = 24;
else
_key_data_len = 32;
memcpy(_key_data, _buf, __min(32, _buf_len));
for( _j = 0; _j < _buf_len; _j++ )
{
_key_data[_j % 32] ^= _buf[_j];
}
free(_buf);
}
break;
default:
break;
}
if( _file_in )
{
_f_in = fopen(_file_in, "rb");
if( NULL == _f_in )
{
fprintf(stderr,
"Error: Failed to open '%s' for reading.\n", _file_in);
return EXIT_FAILURE;
}
}
else
{
if( setmode(fileno(stdin), 0x8000) < 0 )
fprintf(stderr,"Error: Failed in setmode().\n");
_f_in = stdin;
}
if( _file_out )
{
if( 0 == access(_file_out, 00) )
{
fprintf(stderr,
"Error: '%s' already exists.\n", _file_out);
return EXIT_FAILURE;
}
_f_out = fopen(_file_out, "wb");
if( NULL == _f_out )
{
fprintf(stderr,
"Error: Failed to open '%s' for writing.\n", _file_out);
if( _file_in )
fclose(_f_in);
return EXIT_FAILURE;
}
}
else
{
if( setmode(fileno(stdout), 0x8000) < 0 )
fprintf(stderr, "Error: Failed in setmode().\n");
_f_out = stdout;
}
_i = 0;
while( _b[_i].in_len =
fread(_b[_i].in, sizeof(uint8_t), _read_len, _f_in) )
{
switch(_op)
{
case 0:
_b[_i].id = start_thread(_do_base64_encode, &(_b[_i]));
if( NULL == _b[_i].id )
fprintf(stderr, "Error: Failed to start encryption.\n");
break;
case 1:
_b[_i].id = start_thread(_do_base64_decode, &(_b[_i]));
if( NULL == _b[_i].id )
fprintf(stderr, "Error: Failed to start decryption.\n");
break;
case 2:
_b[_i].id = start_thread(_do_aes_encrypt, &(_b[_i]));
if( NULL == _b[_i].id )
fprintf(stderr, "Error: Failed to start encryption.\n");
break;
case 3:
_b[_i].id = start_thread(_do_aes_decrypt, &(_b[_i]));
if( NULL == _b[_i].id )
fprintf(stderr, "Error: Failed to start decryption.\n");
break;
default:
break;
}
if( OAES_THREADS == _i + 1 )
{
for( _j = 0; _j < OAES_THREADS; _j++ )
{
if( _b[_j].id )
{
join_thread(_b[_j].id);
_b[_j].id = 0;
if( _b[_j].out )
{
fwrite(_b[_j].out, sizeof(uint8_t), _b[_j].out_len, _f_out);
free(_b[_j].out);
_b[_j].out = NULL;
}
}
}
}
_i = (_i + 1) % OAES_THREADS;
}
for( _j = 0; _j < _i; _j++ )
{
if( _b[_j].id )
{
join_thread(_b[_j].id);
_b[_j].id = 0;
if( _b[_j].out )
{
fwrite(_b[_j].out, sizeof(uint8_t), _b[_j].out_len, _f_out);
free(_b[_j].out);
_b[_j].out = NULL;
}
}
}
if( _file_in )
fclose(_f_in);
if( _file_out )
fclose(_f_out);
fprintf(stderr, "done.\n");
return (EXIT_SUCCESS);
}
int main(int argc, char *argv[])
{
int per_id;
setup();
pass_criteria = PASS_US;
rt_init("d:l:ht:i:", parse_args, argc, argv);
printf("-------------------------------\n");
printf("Scheduling Latency\n");
printf("-------------------------------\n\n");
if (load_ms*NS_PER_MS >= period-OVERHEAD) {
printf("ERROR: load must be < period - %d us\n", OVERHEAD/NS_PER_US);
exit(1);
}
if (iterations == 0)
iterations = DEFAULT_ITERATIONS;
if (iterations < MIN_ITERATIONS) {
printf("Too few iterations (%d), use min iteration instead (%d)\n",
iterations, MIN_ITERATIONS);
iterations = MIN_ITERATIONS;
}
printf("Running %d iterations with a period of %llu ms\n", iterations,
period/NS_PER_MS);
printf("Periodic load duration: %d ms\n", load_ms);
printf("Expected running time: %d s\n",
(int)(iterations*((float)period / NS_PER_SEC)));
if (stats_container_init(&dat, iterations))
exit(1);
if (stats_container_init(&hist, HIST_BUCKETS)) {
stats_container_free(&dat);
exit(1);
}
/* use the highest value for the quantiles */
if (stats_quantiles_init(&quantiles, (int)log10(iterations))) {
stats_container_free(&hist);
stats_container_free(&dat);
exit(1);
}
/* wait one quarter second to execute */
start = rt_gettime() + 250 * NS_PER_MS;
per_id = create_fifo_thread(periodic_thread, (void*)0, PRIO);
join_thread(per_id);
join_threads();
printf("\nCriteria: latencies < %d us\n", (int)pass_criteria);
printf("Result: %s\n", ret ? "FAIL" : "PASS");
stats_container_free(&dat);
stats_container_free(&hist);
stats_quantiles_free(&quantiles);
return ret;
}
static int execute_test_case(int svr_argc, char** svr_argv,
int cli_argc, char** cli_argv,
int addNoVerify, int addNonBlocking)
{
#ifdef WOLFSSL_TIRTOS
func_args cliArgs = {0};
func_args svrArgs = {0};
cliArgs.argc = cli_argc;
cliArgs.argv = cli_argv;
svrArgs.argc = svr_argc;
svrArgs.argv = svr_argv;
#else
func_args cliArgs = {cli_argc, cli_argv, 0, NULL, NULL};
func_args svrArgs = {svr_argc, svr_argv, 0, NULL, NULL};
#endif
tcp_ready ready;
THREAD_TYPE serverThread;
char commandLine[MAX_COMMAND_SZ];
char cipherSuite[MAX_SUITE_SZ+1];
int i;
size_t added = 0;
static int tests = 1;
commandLine[0] = '\0';
for (i = 0; i < svr_argc; i++) {
added += strlen(svr_argv[i]) + 2;
if (added >= MAX_COMMAND_SZ) {
printf("server command line too long\n");
break;
}
strcat(commandLine, svr_argv[i]);
strcat(commandLine, flagSep);
}
if (IsValidCipherSuite(commandLine, cipherSuite) == 0) {
#ifdef DEBUG_SUITE_TESTS
printf("cipher suite %s not supported in build\n", cipherSuite);
#endif
return NOT_BUILT_IN;
}
#ifndef WOLFSSL_ALLOW_SSLV3
if (IsSslVersion(commandLine) == 1) {
#ifdef DEBUG_SUITE_TESTS
printf("protocol version on line %s is too old\n", commandLine);
#endif
return VERSION_TOO_OLD;
}
#endif
#ifdef NO_OLD_TLS
if (IsOldTlsVersion(commandLine) == 1) {
#ifdef DEBUG_SUITE_TESTS
printf("protocol version on line %s is too old\n", commandLine);
#endif
return VERSION_TOO_OLD;
}
#endif
if (addNoVerify) {
printf("repeating test with client cert request off\n");
added += 4; /* -d plus space plus terminator */
if (added >= MAX_COMMAND_SZ || svr_argc >= MAX_ARGS)
printf("server command line too long\n");
else {
svr_argv[svr_argc++] = noVerifyFlag;
svrArgs.argc = svr_argc;
strcat(commandLine, noVerifyFlag);
strcat(commandLine, flagSep);
}
}
if (addNonBlocking) {
printf("repeating test with non blocking on\n");
added += 4; /* -N plus terminator */
if (added >= MAX_COMMAND_SZ || svr_argc >= MAX_ARGS)
printf("server command line too long\n");
else {
svr_argv[svr_argc++] = nonblockFlag;
svrArgs.argc = svr_argc;
strcat(commandLine, nonblockFlag);
strcat(commandLine, flagSep);
}
}
#if !defined(USE_WINDOWS_API) && !defined(WOLFSSL_TIRTOS)
/* add port 0 */
if (svr_argc + 2 > MAX_ARGS)
printf("cannot add the magic port number flag to server\n");
else
{
svr_argv[svr_argc++] = portFlag;
svr_argv[svr_argc++] = svrPort;
svrArgs.argc = svr_argc;
}
#endif
printf("trying server command line[%d]: %s\n", tests, commandLine);
commandLine[0] = '\0';
added = 0;
for (i = 0; i < cli_argc; i++) {
added += strlen(cli_argv[i]) + 2;
if (added >= MAX_COMMAND_SZ) {
printf("client command line too long\n");
break;
}
strcat(commandLine, cli_argv[i]);
strcat(commandLine, flagSep);
}
if (addNonBlocking) {
added += 4; /* -N plus space plus terminator */
if (added >= MAX_COMMAND_SZ)
printf("client command line too long\n");
else {
cli_argv[cli_argc++] = nonblockFlag;
strcat(commandLine, nonblockFlag);
strcat(commandLine, flagSep);
cliArgs.argc = cli_argc;
}
}
printf("trying client command line[%d]: %s\n", tests++, commandLine);
InitTcpReady(&ready);
#ifdef WOLFSSL_TIRTOS
fdOpenSession(Task_self());
#endif
/* start server */
svrArgs.signal = &ready;
start_thread(server_test, &svrArgs, &serverThread);
wait_tcp_ready(&svrArgs);
#if !defined(USE_WINDOWS_API) && !defined(WOLFSSL_TIRTOS)
if (ready.port != 0)
{
if (cli_argc + 2 > MAX_ARGS)
printf("cannot add the magic port number flag to client\n");
else {
char portNumber[8];
snprintf(portNumber, sizeof(portNumber), "%d", ready.port);
cli_argv[cli_argc++] = portFlag;
cli_argv[cli_argc++] = portNumber;
cliArgs.argc = cli_argc;
}
}
#endif
/* start client */
client_test(&cliArgs);
/* verify results */
if (cliArgs.return_code != 0) {
printf("client_test failed\n");
exit(EXIT_FAILURE);
}
join_thread(serverThread);
if (svrArgs.return_code != 0) {
printf("server_test failed\n");
exit(EXIT_FAILURE);
}
#ifdef WOLFSSL_TIRTOS
fdCloseSession(Task_self());
#endif
FreeTcpReady(&ready);
return 0;
}