fsal_status_t FSAL_uint64_to_cookie(fsal_handle_t *handle,
fsal_op_context_t *p_context,
uint64_t *data,
fsal_cookie_t *cookie)
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
if (fsal_functions.fsal_uint64_to_cookie)
{
rc = fsal_functions.fsal_uint64_to_cookie(handle,
data,
cookie);
}
else
{
memset(cookie, 0, sizeof(fsal_cookie_t));
memcpy(cookie, data, sizeof(uint64_t));
ReturnCode(ERR_FSAL_NO_ERROR, 0);
}
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
int main(int argc, char **argv)
{
timer_init();
((void) argc);
total = 0;
rank = atoi(argv[0]);
open_noc_connectors();
getwork();
start = timer_get();
friendly_numbers();
end = timer_get();
syncNumbers();
total = timer_diff(start, end);
data_send(outfd, &total, sizeof(uint64_t));
/* Close channels. */
mppa_close(infd);
mppa_close(outfd);
mppa_exit(0);
return (0);
}
fsal_status_t FSAL_getattrs_descriptor(fsal_file_t * p_file_descriptor, /* IN */
fsal_handle_t * p_filehandle, /* IN */
fsal_op_context_t * p_context, /* IN */
fsal_attrib_list_t * p_object_attributes /* IN/OUT */ )
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
if(fsal_functions.fsal_getattrs_descriptor != NULL && p_file_descriptor != NULL)
{
LogFullDebug(COMPONENT_FSAL,
"FSAL_getattrs_descriptor calling fsal_getattrs_descriptor");
rc = fsal_functions.fsal_getattrs_descriptor(p_file_descriptor, p_filehandle, p_context, p_object_attributes);
}
else
{
LogFullDebug(COMPONENT_FSAL,
"FSAL_getattrs_descriptor calling fsal_getattrs");
rc = fsal_functions.fsal_getattrs(p_filehandle, p_context, p_object_attributes);
}
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
fsal_status_t FSAL_share_op( fsal_file_t * p_file_descriptor, /* IN */
fsal_handle_t * p_filehandle, /* IN */
fsal_op_context_t * p_context, /* IN */
void * p_owner, /* IN (opaque to FSAL) */
fsal_share_param_t request_share) /* IN */
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
if(fsal_functions.fsal_share_op != NULL)
rc = fsal_functions.fsal_share_op(p_file_descriptor,
p_filehandle,
p_context,
p_owner,
request_share);
else
Return(ERR_FSAL_NOTSUPP, 0, INDEX_FSAL_share_op);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
fsal_status_t FSAL_readdir(fsal_dir_t * p_dir_descriptor, /* IN */
fsal_op_context_t * p_context, /* IN */
fsal_cookie_t start_position, /* IN */
fsal_attrib_mask_t get_attr_mask, /* IN */
fsal_mdsize_t buffersize, /* IN */
fsal_dirent_t * p_pdirent, /* OUT */
fsal_cookie_t * p_end_position, /* OUT */
fsal_count_t * p_nb_entries, /* OUT */
fsal_boolean_t * p_end_of_dir /* OUT */ )
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_readdir(p_dir_descriptor, p_context, start_position, get_attr_mask,
buffersize, p_pdirent, p_end_position, p_nb_entries,
p_end_of_dir);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
/*
* Initializes the timer.
*/
void timer_init(void)
{
uint64_t start, end;
start = timer_get();
end = timer_get();
timer_error = (end - start);
}
void task_schedule(GameState *state, task_t *tasks, uint8_t num_tasks) {
uint8_t i;
timer_tick_t now;
task_t *next_task;
GameMode initial_mode = state->mode;
timer_init();
now = timer_get();
/* Start by scheduling the first task. */
next_task = tasks;
while (state->mode == initial_mode) {
timer_tick_t sleep_min;
/* Wait until the next task is ready to run. */
timer_wait_until (next_task->reschedule);
/* Schedule the task. */
next_task->func (state);
/* Update the reschedule time. */
next_task->reschedule += next_task->period;
sleep_min = ~0;
now = timer_get ();
/* Search array of tasks. Schedule the first task (highest priority)
that needs to run otherwise wait until first task ready. */
for (i = 0; i < num_tasks; i++) {
task_t * task = tasks + i;
timer_tick_t overrun;
overrun = now - task->reschedule;
if (overrun < TASK_OVERRUN_MAX) {
/* Have found a task that can run immediately. */
next_task = task;
break;
}
else {
timer_tick_t sleep;
sleep = -overrun;
if (sleep < sleep_min)
{
sleep_min = sleep;
next_task = task;
}
}
}
}
}
/*
* Runs benchmark.
*/
int main(int argc, char **argv)
{
int i; /* Loop index. */
double *mask; /* Mask. */
uint64_t end; /* End time. */
uint64_t start; /* Start time. */
unsigned char *img; /* Image. */
readargs(argc, argv);
timer_init();
srandnum(seed);
/* Benchmark initialization. */
if (verbose)
printf("initializing...\n");
start = timer_get();
img = smalloc(p->imgsize*p->imgsize*sizeof(char));
for (i = 0; i < p->imgsize*p->imgsize; i++)
img[i] = randnum() & 0xff;
mask = smalloc(p->masksize*p->masksize*sizeof(double));
generate_mask(mask);
end = timer_get();
if (verbose)
printf(" time spent: %f\n", timer_diff(start, end)*MICROSEC);
/* Apply filter. */
if (verbose)
printf("applying filter...\n");
start = timer_get();
gauss_filter(img, p->imgsize, mask, p->masksize);
end = timer_get();
total = timer_diff(start, end);
/* Print timing statistics. */
printf("timing statistics:\n");
printf(" master: %f\n", master*MICROSEC);
for (i = 0; i < nclusters; i++)
printf(" slave %d: %f\n", i, slave[i]*MICROSEC);
printf(" communication: %f\n", communication*MICROSEC);
printf(" total time: %f\n", total*MICROSEC);
/* House keeping. */
free(mask);
free(img);
return (0);
}
fsal_status_t FSAL_InitClientContext(fsal_op_context_t * p_context)
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_initclientcontext(p_context);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
void pulse_control_init(void)
// Initialize servo pulse control.
{
// Initialize the pulse time values.
pulse_flag = 0;
pulse_duration = 0;
overflow_count = 0;
// Initialize the pulse time.
pulse_time = timer_get();
// Set timer/counter2 control register A.
TCCR2A = (0<<COM2A1) | (0<<COM2A0) | // Disconnect OC2A.
(0<<COM2B1) | (0<<COM2B0) | // Disconnect OC2B.
(0<<WGM21) | (0<<WGM20); // Mode 0 - normal operation.
// Configure PCINT3 to interrupt on change.
PCMSK0 = (1<<PCINT3);
PCMSK1 = 0;
PCMSK2 = 0;
PCICR = (0<<PCIE2) |
(0<<PCIE1) |
(1<<PCIE0);
// Configure PB0/PCINT3 as an input.
DDRB &= ~(1<<DDB3);
PORTB &= ~(1<<PB3);
}
virtual void TearDown() {
SC_closePort(fdin);
Shakespeare::log(Shakespeare::NOTICE, PROCESS, ">>>>>>>>>>>>>>>>>>>>>> END TEST <<<<<<<<<<<<<<<<<<<<<<");
// start timer from call
timer_t wait_timer = timer_get();
timer_start(&wait_timer,2,0);
while (!timer_complete(&wait_timer)) { /* pause */ }
}
fsal_status_t FSAL_closedir(fsal_dir_t * p_dir_descriptor, /* IN */
fsal_op_context_t * p_context /* IN */ )
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_closedir(p_dir_descriptor, p_context);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
void busy_wait(unsigned int ds)
{
timer_enable(0);
timer_set_reload(0);
timer_set_counter(get_system_frequency()/10*ds);
timer_enable(1);
while(timer_get());
}
fsal_status_t FSAL_link_access(fsal_op_context_t * p_context, /* IN */
fsal_attrib_list_t * pattr) /* IN */
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_link_access(p_context, pattr);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
/*
* Runs benchmark.
*/
int main(int argc, char **argv)
{
int i; /* Loop index. */
int *a; /* Array to be sorted. */
uint64_t end; /* End time. */
uint64_t start; /* Start time. */
readargs(argc, argv);
timer_init();
srandnum(seed);
/* Benchmark initialization. */
if (verbose)
printf("initializing...\n");
start = timer_get();
a = smalloc(p->n*sizeof(int));
for (i = 0; i < p->n; i++)
a[i] = randnum() & 0xfffff;
end = timer_get();
if (verbose)
printf(" time spent: %f\n", timer_diff(start, end)*MICROSEC);
/* Cluster data. */
if (verbose)
printf("sorting...\n");
start = timer_get();
bucketsort(a, p->n);
end = timer_get();
total = timer_diff(start, end);
/* Print timing statistics. */
printf("timing statistics:\n");
printf(" master: %f\n", master*MICROSEC);
for (i = 0; i < nclusters; i++)
printf(" slave %d: %f\n", i, slave[i]*MICROSEC);
printf(" communication: %f\n", communication*MICROSEC);
printf(" total time: %f\n", total*MICROSEC);
/* House keeping. */
free(a);
return (0);
}
fsal_status_t FSAL_test_access(fsal_op_context_t * p_context, /* IN */
fsal_accessflags_t access_type, /* IN */
fsal_attrib_list_t * p_object_attributes /* IN */ )
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_test_access(p_context, access_type, p_object_attributes);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
fsal_status_t FSAL_RemoveXAttrById(fsal_handle_t * p_objecthandle, /* IN */
fsal_op_context_t * p_context, /* IN */
unsigned int xattr_id) /* IN */
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_removexattrbyid(p_objecthandle, p_context, xattr_id);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
fsal_status_t FSAL_close_by_fileid(fsal_file_t * file_descriptor /* IN */ ,
fsal_op_context_t * p_context, /* IN */
fsal_u64_t fileid)
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_close_by_fileid(file_descriptor, p_context, fileid);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
fsal_status_t FSAL_getattrs(fsal_handle_t * p_filehandle, /* IN */
fsal_op_context_t * p_context, /* IN */
fsal_attrib_list_t * p_object_attributes /* IN/OUT */ )
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_getattrs(p_filehandle, p_context, p_object_attributes);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
int timer_get_seconds()
{
if (!Timer_inited) {
Int3();
return 0;
}
return (timer_get() / 1000);
}
int timer_get_microseconds()
{
if (!Timer_inited) {
Int3(); // Make sure you call timer_init before anything that uses timer functions!
return 0;
}
return timer_get() * 1000;
}
fsal_status_t FSAL_dynamic_fsinfo(fsal_handle_t * p_filehandle, /* IN */
fsal_op_context_t * p_context, /* IN */
fsal_dynamicfsinfo_t * p_dynamicinfo /* OUT */ )
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_dynamic_fsinfo(p_filehandle, p_context, p_dynamicinfo);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
fsal_status_t FSAL_RemoveXAttrByName(fsal_handle_t * p_objecthandle, /* IN */
fsal_op_context_t * p_context, /* IN */
const fsal_name_t * xattr_name) /* IN */
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_removexattrbyname(p_objecthandle, p_context, xattr_name);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
void cpu_get_timer(QEMUFile *f, CPUTimer *s)
{
qemu_get_be32s(f, &s->frequency);
qemu_get_be32s(f, &s->disabled);
qemu_get_be64s(f, &s->disabled_mask);
qemu_get_sbe64s(f, &s->clock_offset);
timer_get(f, s->qtimer);
}
/**
* @function: timer_restart
* @param: timer_callback_t, timer event callback function.
* @brief: Restarts the timer instance for the given callback function.
*/
void timer_restart (timer_callback_t callback)
{
struct timer_t * timer = timer_get (callback);
if (timer == NULL)
return;
timer->start = clock_time ();
}
/*
* Runs benchmark.
*/
int main(int argc, char **argv)
{
int i; /* Loop index. */
int *map; /* Map of clusters. */
uint64_t end; /* End time. */
uint64_t start; /* Start time. */
vector_t *data; /* Data points. */
readargs(argc, argv);
printf("CAPBench - KM kernel\n");
printf(" # of threads: %d \n", nthreads);
timer_init();
srandnum(seed);
omp_set_num_threads(nthreads);
/* Benchmark initialization. */
start = timer_get();
data = smalloc(p->npoints*sizeof(vector_t));
for (i = 0; i < p->npoints; i++)
{
data[i] = vector_create(p->dimension);
vector_random(data[i]);
}
end = timer_get();
/* Cluster data. */
printf("Entering in KM ROI - Clustering data...\n");
start = timer_get();
m5_reset_stats(0,0);
map = kmeans(data, p->npoints, p->ncentroids, p->mindistance);
end = timer_get();
m5_dump_stats(0,0);
printf("KM total time: %f\n", timer_diff(start, end)*MICROSEC);
/* House keeping. */
free(map);
for (i = 0; i < p->npoints; i++)
vector_destroy(data[i]);
free(data);
return (0);
}
//zwraca czas w ms jaki czas up³yn¹³ od wartoœci podanej jako argument (argument czas timera)
//Mierzy czas do 1 minuty!! potem siê przewija licznik!!
uint16_t timer_time_elapsed(uint16_t time_stamp){
uint16_t current_timer=timer_get();
if( current_timer >= time_stamp){
return (current_timer-time_stamp);
}
else{
return (current_timer+(0xFFFF-time_stamp));
}
};
fsal_status_t FSAL_commit( fsal_file_t * p_file_descriptor,
fsal_op_context_t * p_context, /* IN */
fsal_off_t offset,
fsal_size_t length )
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_commit(p_file_descriptor, p_context, offset, length );
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
fsal_status_t FSAL_rcp(fsal_handle_t * filehandle, /* IN */
fsal_op_context_t * p_context, /* IN */
fsal_path_t * p_local_path, /* IN */
fsal_rcpflag_t transfer_opt /* IN */ )
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_rcp(filehandle, p_context, p_local_path, transfer_opt);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
fsal_status_t FSAL_setattr_access(fsal_op_context_t * p_context, /* IN */
fsal_attrib_list_t * candidate_attributes, /* IN */
fsal_attrib_list_t * object_attributes /* IN */ )
{
fsal_status_t rc;
msectimer_t timer_start, timer_end;
timer_start = timer_get();
rc = fsal_functions.fsal_setattr_access(p_context, candidate_attributes,
object_attributes);
timer_end = timer_get();
p_context->latency += timer_end - timer_start;
p_context->count++;
return rc;
}
