void kscrashsentry_uninstallMachHandler(void)
{
KSLOG_DEBUG("Uninstalling mach exception handler.");
if(!g_installed)
{
KSLOG_DEBUG("Mach exception handler was already uninstalled.");
return;
}
// NOTE: Do not deallocate the exception port. If a secondary crash occurs
// it will hang the process.
ksmachexc_i_restoreExceptionPorts();
thread_t thread_self = ksmach_thread_self();
if(g_primaryPThread != 0 && g_primaryMachThread != thread_self)
{
KSLOG_DEBUG("Cancelling primary exception thread.");
if(g_context->handlingCrash)
{
thread_terminate(g_primaryMachThread);
}
else
{
pthread_cancel(g_primaryPThread);
}
g_primaryMachThread = 0;
g_primaryPThread = 0;
}
if(g_secondaryPThread != 0 && g_secondaryMachThread != thread_self)
{
KSLOG_DEBUG("Cancelling secondary exception thread.");
if(g_context->handlingCrash)
{
thread_terminate(g_secondaryMachThread);
}
else
{
pthread_cancel(g_secondaryPThread);
}
g_secondaryMachThread = 0;
g_secondaryPThread = 0;
}
KSLOG_DEBUG("Mach exception handlers uninstalled.");
g_installed = 0;
}
/* virtual */ void IOWorkLoop::threadMain()
{
restartThread:
do {
if ( !runEventSources() )
goto exitThread;
IOInterruptState is = IOSimpleLockLockDisableInterrupt(workToDoLock);
if ( !ISSETP(&fFlags, kLoopTerminate) && !workToDo) {
assert_wait((void *) &workToDo, false);
IOSimpleLockUnlockEnableInterrupt(workToDoLock, is);
thread_continue_t cptr = NULL;
if (!reserved || !(kPreciousStack & reserved->options))
cptr = OSMemberFunctionCast(
thread_continue_t, this, &IOWorkLoop::threadMain);
thread_block_parameter(cptr, this);
goto restartThread;
/* NOTREACHED */
}
// At this point we either have work to do or we need
// to commit suicide. But no matter
// Clear the simple lock and retore the interrupt state
IOSimpleLockUnlockEnableInterrupt(workToDoLock, is);
} while(workToDo);
exitThread:
thread_t thread = workThread;
workThread = 0; // Say we don't have a loop and free ourselves
free();
thread_deallocate(thread);
(void) thread_terminate(thread);
}
error_t
setup_thread_target (void)
{
error_t err;
static task_t task;
static thread_t thread;
if (MACH_PORT_VALID (thread))
{
thread_terminate (thread);
mach_port_deallocate (mach_task_self (), thread);
}
if (MACH_PORT_VALID (task))
{
task_terminate (task);
mach_port_deallocate (mach_task_self (), task);
}
err = task_create (mach_task_self (), 0, &task);
if (err)
return err;
err = thread_create (task, &thread);
if (err)
return err;
return setup (thread, MACH_MSG_TYPE_COPY_SEND);
}
void profile_enable( bool enable )
{
bool was_enabled = ( _profile_enable > 0 );
bool is_enabled = enable;
if( is_enabled && !was_enabled )
{
_profile_enable = 1;
//Start output thread
_profile_io_thread = thread_create( _profile_io, "profile_io", THREAD_PRIORITY_BELOWNORMAL, 0 );
thread_start( _profile_io_thread, 0 );
while( !thread_is_running( _profile_io_thread ) )
thread_yield();
}
else if( !is_enabled && was_enabled )
{
//Stop output thread
thread_terminate( _profile_io_thread );
thread_destroy( _profile_io_thread );
while( thread_is_running( _profile_io_thread ) )
thread_yield();
_profile_enable = 0;
}
}
/* -----------------------------------------------------------------------------
L2TP Timer, at 500 ms. Replaces l2tp_slowtimo, which is deprecated.
----------------------------------------------------------------------------- */
static uint8_t l2tp_timer_thread_is_dying = 0; /* > 0 if dying */
static uint8_t l2tp_timer_thread_is_dead = 0; /* > 0 if dead */
static void l2tp_timer()
{
struct timespec ts = {0};
/* timeout of 500 ms */
ts.tv_nsec = 500 * 1000 * 1000;
ts.tv_sec = 0;
lck_mtx_lock(ppp_domain_mutex);
while (TRUE) {
if (l2tp_timer_thread_is_dying > 0) {
break;
}
l2tp_rfc_slowtimer();
msleep(&l2tp_timer_thread_is_dying, ppp_domain_mutex, PSOCK, "l2tp_timer_sleep", &ts);
}
l2tp_timer_thread_is_dead++;
wakeup(&l2tp_timer_thread_is_dead);
lck_mtx_unlock(ppp_domain_mutex);
thread_terminate(current_thread());
}
/*
* Thread 1 - Priority = 100
*/
static void
thread_1(void)
{
int error;
printf("thread_1: starting\n");
/*
* 2) Lock mutex B
*/
printf("thread_1: 2) lock B\n");
error = mutex_lock(&mtx_B);
if (error) printf("error=%d\n", error);
/*
* 3) Lock mutex A
*
* Switch to thread 1.
*/
printf("thread_1: 3) lock A\n");
error = mutex_lock(&mtx_A);
if (error) printf("error=%d\n", error);
printf("thread_1: exit\n");
thread_terminate(th_1);
}
/*
* Thread 2 - Priority = 101
*/
static void
thread_2(void)
{
int error;
printf("thread_2: starting\n");
/*
* 1) Lock mutex A
*/
printf("thread_2: 1) lock A\n");
error = mutex_lock(&mtx_A);
if (error) printf("error=%d\n", error);
/*
* Switch to thread 1
*/
thread_resume(th_1);
printf("thread_2: running\n");
/*
* 4) Lock mutex B
*
* Deadlock occurs here!
*/
printf("thread_2: 4) lock B\n");
error = mutex_lock(&mtx_B);
if (error) printf("error=%d\n", error);
if (error == EDEADLK)
printf("**** DEADLOCK!! ****\n");
printf("thread_2: exit\n");
thread_terminate(th_2);
}
/*
* The main routine create 10 copy of this thread. But, since the
* initial semaphore value is 3, only 3 threads can run at same time.
*/
static void
new_thread(void)
{
thread_t t;
t = thread_self();
printf("Start thread=%x\n", (u_int)t);
thread_yield();
/*
* Acquire semaphore
*/
sem_wait(&sem, 0);
/*
* Sleep 2000 ms
*/
printf("Running thread=%x\n", (u_int)t);
timer_sleep(2000, 0);
/*
* Release semaphore
*/
sem_post(&sem);
printf("End thread=%x\n", (u_int)t);
thread_terminate(t);
}
int
thread_cleanup(thread_t thread, unsigned int seconds)
{
int rc;
rc = thread_join(thread, seconds);
switch( rc )
{
case WAIT_OBJECT_0:
// Everything OK! Thread exited
#ifdef WIN32
CloseHandle( thread );
#endif
return 0;
break;
case WAIT_TIMEOUT:
// Damn! Should be closed by now... Force it!
#ifndef WIN32
pthread_detach( thread );
#endif
rc = thread_terminate( thread );
#ifdef WIN32
if( rc == 0 ) CloseHandle( thread );
#endif
return rc;
break;
default:
// WTF??? Something went really wrong.
fatal("Something went REALLY wrong while waiting for a thread to complete!\n");
}
return rc;
}
static void
read_thread(void)
{
int rc;
memset(read_buf, 0, BUF_SIZE);
syslog(LOG_INFO, "read_thread:\n read1...");
if ((rc = read(rd_fd, read_buf, RD1_SIZE)) < 0)
err(1, "read1 %d", RD1_SIZE);
else if (rc != RD1_SIZE)
errx(1, "read1 %d, expected %d", rc, RD1_SIZE);
syslog(LOG_INFO, "read1 ok\n read2...");
if ((rc = read(rd_fd, read_buf + RD1_SIZE, RD2_SIZE)) < 0)
err(1, "read2 %d", RD2_SIZE);
else if (rc != RD2_SIZE)
errx(1, "read2 %d, expected %d", rc, RD2_SIZE);
syslog(LOG_INFO, "read2 ok\n close...");
if (close(rd_fd) < 0)
err(1, "close(%d)", rd_fd);
syslog(LOG_INFO, "read close ok\n read thread_terminate\n");
thread_terminate(thread_self());
}
extern "C" void Start(Baton *baton) {
struct _pthread self;
$bzero(&self, sizeof(self));
const mach_header_xx *pthread(Library(baton, "/usr/lib/system/libsystem_pthread.dylib"));
if (pthread == NULL)
pthread = Library(baton, "/usr/lib/system/libsystem_c.dylib");
void (*$__pthread_set_self)(pthread_t);
cyset($__pthread_set_self, "___pthread_set_self", pthread);
self.tsd[0] = &self;
$__pthread_set_self(&self);
int (*$pthread_create)(pthread_t *, const pthread_attr_t *, void *(*)(void *), void *);
cyset($pthread_create, "_pthread_create", pthread);
pthread_t thread;
$pthread_create(&thread, NULL, &Routine, baton);
const mach_header_xx *kernel(Library(baton, "/usr/lib/system/libsystem_kernel.dylib"));
mach_port_t (*$mach_thread_self)();
cyset($mach_thread_self, "_mach_thread_self", kernel);
kern_return_t (*$thread_terminate)(thread_act_t);
cyset($thread_terminate, "_thread_terminate", kernel);
$thread_terminate($mach_thread_self());
}
void
gdb_pthread_kill(pthread_t pthread)
{
mach_port_t mthread;
kern_return_t kret;
int ret;
mthread = pthread_mach_thread_np(pthread);
kret = thread_suspend(mthread);
MACH_CHECK_ERROR(kret);
ret = pthread_cancel(pthread);
if (ret != 0)
{
/* in case a macro has re-defined this function: */
#undef strerror
warning("Unable to cancel thread: %s (%d)", strerror(errno), errno);
thread_terminate(mthread);
}
kret = thread_abort (mthread);
MACH_CHECK_ERROR (kret);
kret = thread_resume (mthread);
MACH_CHECK_ERROR (kret);
ret = pthread_join (pthread, NULL);
if (ret != 0)
{
warning ("Unable to join to canceled thread: %s (%d)", strerror (errno),
errno);
}
}
DECLARE_TEST( mutex, sync )
{
mutex_t* mutex;
object_t thread[32];
int ith;
mutex = mutex_allocate( "test" );
mutex_lock( mutex );
for( ith = 0; ith < 32; ++ith )
{
thread[ith] = thread_create( mutex_thread, "mutex_thread", THREAD_PRIORITY_NORMAL, 0 );
thread_start( thread[ith], mutex );
}
test_wait_for_threads_startup( thread, 32 );
for( ith = 0; ith < 32; ++ith )
{
thread_terminate( thread[ith] );
thread_destroy( thread[ith] );
}
mutex_unlock( mutex );
test_wait_for_threads_exit( thread, 32 );
mutex_deallocate( mutex );
EXPECT_EQ( thread_counter, 32 * 128 );
return 0;
}
void
attack(void)
{
object_t *objp = (object_t *)random();
object_t obj = (object_t)random();
char *name = (char *)random();
void *msg = (void *)random();
size_t size = (size_t)random();
task_t self = task_self();
void *addr = (void *)random();
int attr = random() & 7;
thread_t t = (thread_t)random();
thread_t *tp = (thread_t *)random();
object_create(NULL, NULL);
object_create(NULL, objp);
object_create(name, NULL);
object_create(name, objp);
object_destroy(0);
object_destroy(obj);
object_lookup(NULL, objp);
object_lookup(name, NULL);
object_lookup(name, objp);
msg_send(0, msg, size);
msg_send(obj, NULL, size);
msg_send(obj, msg, 0);
msg_send(0, msg, 0);
msg_send(0, NULL, size);
msg_send(obj, msg, size);
msg_receive(0, msg, size);
msg_receive(obj, NULL, size);
msg_receive(obj, msg, 0);
msg_receive(0, msg, 0);
msg_receive(0, NULL, size);
msg_receive(obj, msg, size);
msg_reply(0, msg, size);
msg_reply(obj, NULL, size);
msg_reply(obj, msg, 0);
msg_reply(0, msg, 0);
msg_reply(0, NULL, size);
msg_reply(obj, msg, size);
vm_allocate(self, addr, size, 1);
vm_allocate(self, &addr, size, 1);
vm_free(self, addr);
vm_attribute(self, addr, attr);
vm_map(self, addr, size, &addr);
thread_create(self, tp);
thread_suspend(t);
thread_terminate(t);
}
static void test_run( void )
{
unsigned int ig, gsize, ic, csize;
void* result = 0;
#if !BUILD_MONOLITHIC
object_t thread_event = 0;
#endif
log_infof( HASH_TEST, "Running test suite: %s", test_suite.application().short_name );
_test_failed = false;
#if !BUILD_MONOLITHIC
thread_event = thread_create( test_event_thread, "event_thread", THREAD_PRIORITY_NORMAL, 0 );
thread_start( thread_event, 0 );
while( !thread_is_running( thread_event ) )
thread_yield();
#endif
for( ig = 0, gsize = array_size( _test_groups ); ig < gsize; ++ig )
{
log_infof( HASH_TEST, "Running tests from group %s", _test_groups[ig]->name );
for( ic = 0, csize = array_size( _test_groups[ig]->cases ); ic < csize; ++ic )
{
log_infof( HASH_TEST, " Running %s tests", _test_groups[ig]->cases[ic]->name );
result = _test_groups[ig]->cases[ic]->fn();
if( result != 0 )
{
log_warn( HASH_TEST, WARNING_SUSPICIOUS, " FAILED" );
_test_failed = true;
}
else
{
log_info( HASH_TEST, " PASSED" );
}
#if BUILD_MONOLITHIC
if( _test_should_terminate )
{
_test_failed = true;
goto exit;
}
#endif
}
}
#if !BUILD_MONOLITHIC
thread_terminate( thread_event );
thread_destroy( thread_event );
while( thread_is_running( thread_event ) || thread_is_thread( thread_event ) )
thread_yield();
#else
exit:
#endif
log_infof( HASH_TEST, "Finished test suite: %s", test_suite.application().short_name );
}
inline void myExitThread(THREAD_T *thread)
{
THREAD_T thread_ptr = *thread;
*thread = NULL;
thread_deallocate(thread_ptr);
thread_terminate(thread_ptr);
}
int
main(int argc, char *argv[])
{
struct timerinfo info;
task_t task;
char stack[16];
u_long start, end;
int i, pri, error;
printf("Benchmark to create/terminate %d threads\n", NR_THREADS);
sys_info(INFO_TIMER, &info);
if (info.hz == 0)
panic("can not get timer tick rate");
thread_getpri(thread_self(), &pri);
thread_setpri(thread_self(), pri - 1);
task = task_self();
error = vm_allocate(task, (void **)&thread,
sizeof(thread_t) * NR_THREADS, 1);
if (error)
panic("vm_allocate is failed");
sys_time(&start);
/*
* Create threads
*/
for (i = 0; i < NR_THREADS; i++) {
if (thread_create(task, &thread[i]) != 0)
panic("thread_create is failed");
if (thread_load(thread[i], null_thread, &stack) != 0)
panic("thread_load is failed");
if (thread_resume(thread[i]) != 0)
panic("thread_resume is failed");
}
/*
* Teminate threads
*/
for (i = 0; i < NR_THREADS; i++)
thread_terminate(thread[i]);
sys_time(&end);
vm_free(task, thread);
printf("Complete. The score is %d msec (%d ticks).\n",
(int)((end - start) * 1000 / info.hz),
(int)(end - start));
return 0;
}
void printer_free(NumPrinter* p){
mutex_lock(printer_num);
if(p->thread != NULL){
thread_terminate(p->thread);
thread_free(p->thread);
}
mutex_unlock(printer_num);
free(p);
}
/**
* Native kernel thread wrapper function.
*
* This will forward to rtThreadMain and do termination upon return.
*
* @param pvArg Pointer to the argument package.
* @param Ignored Wait result, which we ignore.
*/
static void rtThreadNativeMain(void *pvArg, wait_result_t Ignored)
{
const thread_t Self = current_thread();
PRTTHREADINT pThread = (PRTTHREADINT)pvArg;
rtThreadMain(pThread, (RTNATIVETHREAD)Self, &pThread->szName[0]);
kern_return_t kr = thread_terminate(Self);
AssertFatalMsgFailed(("kr=%d\n", kr));
}
DECLARE_TEST( profile, thread )
{
object_t thread[32];
int ith;
int frame;
error_t err = error();
_test_profile_offset = 0;
atomic_store32( &_test_profile_output_counter, 0 );
profile_initialize( "test_profile", _test_profile_buffer, 30000/*_test_profile_buffer_size*/ );
profile_enable( true );
profile_set_output_wait( 1 );
log_info( HASH_TEST, "This test will intentionally run out of memory in profiling system" );
for( ith = 0; ith < 32; ++ith )
{
thread[ith] = thread_create( _profile_fail_thread, "profile_thread", THREAD_PRIORITY_NORMAL, 0 );
thread_start( thread[ith], 0 );
}
test_wait_for_threads_startup( thread, 32 );
for( frame = 0; frame < 1000; ++frame )
{
thread_sleep( 16 );
profile_end_frame( frame );
}
for( ith = 0; ith < 32; ++ith )
{
thread_terminate( thread[ith] );
thread_destroy( thread[ith] );
thread_yield();
}
test_wait_for_threads_exit( thread, 32 );
thread_sleep( 1000 );
profile_enable( false );
profile_shutdown();
err = error();
#if BUILD_ENABLE_PROFILE
EXPECT_GT( atomic_load32( &_test_profile_output_counter ), 0 );
//TODO: Implement parsing output results
#else
EXPECT_EQ( atomic_load32( &_test_profile_output_counter ), 0 );
#endif
EXPECT_EQ( err, ERROR_NONE );
return 0;
}
int main () {
// Define vars
kern_return_t res;
mach_port_t parent, child;
thread_state_t state_child;
struct i386_thread_state state_child_i386;
mach_msg_type_number_t state_cnt = THREAD_STATE_MAX;
parent = mach_task_self();
// Create thread
res = thread_create(parent, &child);
if (res != KERN_SUCCESS) {
printf("Error creating the thread: 0x%x, %s\n", res,
mach_error_string(res));
exit(1);
}
// Get thread state
res = thread_get_state(child, i386_THREAD_STATE, (thread_state_t)&state_child_i386, &state_cnt);
if (res != KERN_SUCCESS) {
printf("Error getting the state of the child: 0x%x, %s\n", res,
mach_error_string(res));
exit (1);
}
state_child_i386.uesp = (unsigned int) stack - 80;
state_child_i386.eip = (unsigned int) thread_core;
// Set thread state
res = thread_set_state(child, i386_THREAD_STATE, (thread_state_t)&state_child_i386, state_cnt);
if (res != KERN_SUCCESS) {
printf("Error setting the state of the child: 0x%x, %s\n", res,
mach_error_string(res));
exit(1);
}
// Resume thread
res = thread_resume(child);
if (res != KERN_SUCCESS) {
printf("Error resuming the child thread: 0x%x, %s\n", res,
mach_error_string(res));
exit(1);
}
sleep(20);
// Terminate thread
res = thread_terminate(child);
if (res != KERN_SUCCESS) {
printf("Error terminating the child thread: 0x%x, %s\n", res,
mach_error_string(res));
exit (1);
}
}
static void
osxfuse_thread_macfuse_mode(__unused void * parameter, __unused wait_result_t wait_result)
{
if (fuse_macfuse_mode) {
fuse_sysctl_macfuse_start();
} else {
fuse_sysctl_macfuse_stop();
}
lck_mtx_unlock(osxfuse_sysctl_lock);
thread_terminate(current_thread());
}
DECLARE_TEST( semaphore, threaded )
{
object_t thread[32];
int ith;
int failed_waits;
semaphore_test_t test;
semaphore_initialize( &test.read, 0 );
semaphore_initialize( &test.write, 0 );
test.loopcount = 128;
test.counter = 0;
for( ith = 0; ith < 32; ++ith )
{
thread[ith] = thread_create( semaphore_waiter, "semaphore_waiter", THREAD_PRIORITY_NORMAL, 0 );
thread_start( thread[ith], &test );
}
test_wait_for_threads_startup( thread, 32 );
failed_waits = 0;
for( ith = 0; ith < test.loopcount * 32; ++ith )
{
semaphore_post( &test.read );
thread_yield();
if( !semaphore_try_wait( &test.write, 200 ) )
{
failed_waits++;
EXPECT_TRUE( semaphore_wait( &test.write ) );
}
}
for( ith = 0; ith < 32; ++ith )
{
thread_terminate( thread[ith] );
thread_destroy( thread[ith] );
thread_yield();
}
test_wait_for_threads_exit( thread, 32 );
EXPECT_EQ( test.counter, test.loopcount * 32 );
EXPECT_EQ( failed_waits, 0 );
semaphore_destroy( &test.read );
semaphore_destroy( &test.write );
return 0;
}
void BrcmPatchRAM::uploadFirmwareThread(void *arg, wait_result_t wait)
{
DebugLog("sendFirmwareThread enter\n");
BrcmPatchRAM* me = static_cast<BrcmPatchRAM*>(arg);
me->resetDevice();
IOSleep(20);
me->uploadFirmware();
me->publishPersonality();
me->scheduleWork(kWorkFinished);
DebugLog("sendFirmwareThread termination\n");
thread_terminate(current_thread());
DebugLog("!!! sendFirmwareThread post-terminate !!! should not be here\n");
}
static void
cmd_kill(int argc, char **argv)
{
thread_t t;
char *ep;
if (argc < 2) {
puts("Usage: kill thread");
return;
}
t = (thread_t)strtoul(argv[1], &ep, 16);
printf("Kill thread id:%x\n", (u_int)t);
if (thread_terminate(t))
printf("Thread %x does not exist\n", (u_int)t);
}
/*
* processor_start_thread:
*
* First thread to execute on a started processor.
*
* Called at splsched.
*/
void
processor_start_thread(void *machine_param)
{
processor_t processor = current_processor();
thread_t self = current_thread();
slave_machine_init(machine_param);
/*
* If running the idle processor thread,
* reenter the idle loop, else terminate.
*/
if (self == processor->idle_thread)
thread_block((thread_continue_t)idle_thread);
thread_terminate(self);
/*NOTREACHED*/
}
static kern_return_t
thread_create_running_internal2(
register task_t task,
int flavor,
thread_state_t new_state,
mach_msg_type_number_t new_state_count,
thread_t *new_thread,
boolean_t from_user)
{
register kern_return_t result;
thread_t thread;
if (task == TASK_NULL || task == kernel_task)
return (KERN_INVALID_ARGUMENT);
result = thread_create_internal(task, -1, (thread_continue_t)thread_bootstrap_return, TH_OPTION_NONE, &thread);
if (result != KERN_SUCCESS)
return (result);
result = machine_thread_set_state(
thread, flavor, new_state, new_state_count);
if (result != KERN_SUCCESS) {
task_unlock(task);
lck_mtx_unlock(&tasks_threads_lock);
thread_terminate(thread);
thread_deallocate(thread);
return (result);
}
thread_mtx_lock(thread);
thread_start_internal(thread);
thread_mtx_unlock(thread);
if (from_user)
extmod_statistics_incr_thread_create(task);
task_unlock(task);
lck_mtx_unlock(&tasks_threads_lock);
*new_thread = thread;
return (result);
}
int main () {
kern_return_t res;
mach_port_t parent, child;
thread_state_t state_child;
struct i386_thread_state state_child_i386;
mach_msg_type_number_t state_Cnt = THREAD_STATE_MAX;
parent = mach_task_self();
res = thread_create(parent, &child);
if (res != KERN_SUCCESS) {
fprintf(stderr, "Error creating the thread: 0x%x, %s\n", res, mach_error_string(res));
exit(1);
}
res = thread_get_state (child, i386_THREAD_STATE, (thread_state_t)&state_child_i386, &state_Cnt);
if (res != KERN_SUCCESS) {
fprintf (stderr, "Error getting the state of the child: 0x%x, %s\n", res, mach_error_string(res));
exit (1);
}
state_child_i386.uesp = (unsigned int) stack - 80;
state_child_i386.eip = (unsigned int) thread_asshole;
res = thread_set_state (child, i386_THREAD_STATE,(thread_state_t)&state_child_i386, state_Cnt);
if (res != KERN_SUCCESS) {
fprintf (stderr, "Error setting the state of the child: 0x%x, %s\n", res, mach_error_string(res));
exit(1);
}
res = thread_resume (child);
if (res != KERN_SUCCESS) {
fprintf (stderr, "Error resuming the child thread: 0x%x, %s\n", res, mach_error_string(res));
exit(1);
}
sleep(30);
res = thread_terminate (child);
if (res != KERN_SUCCESS) {
fprintf (stderr, "Error terminating the child thread: 0x%x, %s\n", res, mach_error_string(res));
exit (1);
}
}
DECLARE_TEST( uuid, threaded )
{
object_t thread[32];
int ith, i, jth, j;
int num_threads = math_clamp( system_hardware_threads() + 1, 3, 32 );
for( ith = 0; ith < num_threads; ++ith )
{
thread[ith] = thread_create( uuid_thread_time, "uuid_thread", THREAD_PRIORITY_NORMAL, 0 );
thread_start( thread[ith], (void*)(uintptr_t)ith );
}
test_wait_for_threads_startup( thread, num_threads );
for( ith = 0; ith < num_threads; ++ith )
{
thread_terminate( thread[ith] );
thread_destroy( thread[ith] );
}
test_wait_for_threads_exit( thread, num_threads );
for( ith = 0; ith < num_threads; ++ith )
{
for( i = 0; i < 8192; ++i )
{
for( jth = ith + 1; jth < num_threads; ++jth )
{
for( j = 0; j < 8192; ++j )
{
EXPECT_FALSE( uuid_equal( uuid_thread_store[ith][i], uuid_thread_store[jth][j] ) );
}
}
for( j = i + 1; j < 8192; ++j )
{
EXPECT_FALSE( uuid_equal( uuid_thread_store[ith][i], uuid_thread_store[ith][j] ) );
}
}
}
return 0;
}
void iTCOWatchdog::free_common()
{
if (is_active) {
tcoWdDisableTimer();
is_active = false;
}
thread_terminate(thread.Thread);
IODelete(thread.Data, struct thread_data, 1);
if (WorkaroundBug) {
fPCIDevice->ioWrite32(ITCO_SMIEN, fPCIDevice->ioRead32(ITCO_SMIEN) | (ITCO_SMIEN_ENABLE+1));
clearStatus();
WorkaroundBug = false;
}
else if (SMIWereEnabled) {
fPCIDevice->ioWrite32(ITCO_SMIEN, fPCIDevice->ioRead32(ITCO_SMIEN) | ITCO_SMIEN_ENABLE);
clearStatus();
SMIWereEnabled = false;
}
}
