static int usb_eth_driver_register(void)
{
list_insert_after(&usb_eth_driver.list_node,
&generic_usb_drivers);
list_insert_after(&net_poller.list_node, &net_pollers);
return 0;
}
static int board_setup(void)
{
sysinfo_install_flags();
Exynos5420Gpio *lid_switch = new_exynos5420_gpio_input(GPIO_X, 3, 4);
Exynos5420Gpio *ec_in_rw = new_exynos5420_gpio_input(GPIO_X, 2, 3);
flag_replace(FLAG_LIDSW, &lid_switch->ops);
flag_install(FLAG_ECINRW, &ec_in_rw->ops);
// The power switch is active low and needs to be inverted.
Exynos5420Gpio *power_switch_l =
new_exynos5420_gpio_input(GPIO_X, 1, 2);
flag_replace(FLAG_PWRSW, new_gpio_not(&power_switch_l->ops));
Exynos5UsiI2c *i2c9 = new_exynos5_usi_i2c(0x12e10000, 400000);
tpm_set_ops(&new_slb9635_i2c(&i2c9->ops, 0x20)->base.ops);
Exynos5Spi *spi1 = new_exynos5_spi(0x12d30000);
Exynos5Spi *spi2 = new_exynos5_spi(0x12d40000);
CrosEcSpiBus *cros_ec_spi_bus = new_cros_ec_spi_bus(&spi2->ops);
cros_ec_set_bus(&cros_ec_spi_bus->ops);
flash_set_ops(&new_spi_flash(&spi1->ops, 0x400000)->ops);
Exynos5I2s *i2s0 = new_exynos5_i2s_multi(0x03830000, 16, 2, 256);
I2sSource *i2s_source = new_i2s_source(&i2s0->ops, 48000, 2, 16000);
sound_set_ops(&new_sound_route(&i2s_source->ops)->ops);
DwmciHost *emmc = new_dwmci_host(0x12200000, 100000000, 8, 0,
DWMCI_SET_SAMPLE_CLK(1) |
DWMCI_SET_DRV_CLK(3) |
DWMCI_SET_DIV_RATIO(3));
DwmciHost *sd_card = new_dwmci_host(0x12220000, 100000000, 4, 1,
DWMCI_SET_SAMPLE_CLK(1) |
DWMCI_SET_DRV_CLK(2) |
DWMCI_SET_DIV_RATIO(3));
list_insert_after(&emmc->mmc.ctrlr.list_node,
&fixed_block_dev_controllers);
list_insert_after(&sd_card->mmc.ctrlr.list_node,
&removable_block_dev_controllers);
power_set_ops(&exynos_power_ops);
UsbHostController *usb_drd0 = new_usb_hc(XHCI, 0x12000000);
UsbHostController *usb_drd1 = new_usb_hc(XHCI, 0x12400000);
set_usb_init_callback(usb_drd0, exynos5420_usbss_phy_tune);
/* DRD1 port has no SuperSpeed lines anyway */
list_insert_after(&usb_drd0->list_node, &usb_host_controllers);
list_insert_after(&usb_drd1->list_node, &usb_host_controllers);
return 0;
}
int main()
{
struct list_t *root;
size_t s;
int a=43,b=63,c=99,d=70,e=25,f=17,g=57,h=69,i=111,j=120,k=70,l=73,m=75;
/* char z[100]="test"; */
/* z = "test"; */
root = list_init();
root = list_remove_rear(root);
root = list_remove_any(root,&k);
root = list_remove_front(root);
list_insert_rear(root, &a);
list_insert_rear(root, &b);
root = list_insert_after(root,&c,3);
list_insert_rear(root, &d);
root = list_insert_front(root, &e);
root = list_insert_front(root, &f);
list_insert_rear(root, &g);
root = list_remove_front(root);
list_insert_rear(root, &h);
root = list_insert_after(root,&i,5);
root = list_insert_after(root,&j,120);
root = list_remove_any(root,&k);
root = list_remove_front(root);
list_insert_rear(root, &l);
root = list_remove_any(root,&l);
list_insert_rear(root, &m);
root = list_remove_rear(root);
root = list_remove_rear(root);
root = list_remove_rear(root);
root = list_remove_rear(root);
root = list_remove_rear(root);
root = list_remove_rear(root);
root = list_remove_rear(root);
s = list_size(root);
printf( "%d\n", (int)s);
printf( "%d\n", search(root, &g) );
list_destroy(root);
return 0;
}
static int board_setup(void)
{
sysinfo_install_flags(NULL);
fill_board_descriptor();
fit_set_compat(bdescriptor.compat_string);
install_phys_presence_flag();
console_add_input_driver(&dakota_input_driver);
power_set_ops(new_ipq40xx_power_ops());
SpiController *spi = new_spi(0, 0);
flash_set_ops(&new_spi_flash(&spi->ops)->ops);
QcomMmcHost *mmc = new_qcom_mmc_host(1, MSM_SDC1_BASE, 8);
if (!mmc)
return -1;
list_insert_after(&mmc->mmc.ctrlr.list_node,
&fixed_block_dev_controllers);
UsbHostController *usb_host1 = new_usb_hc(XHCI, 0x8A00000);
list_insert_after(&usb_host1->list_node, &usb_host_controllers);
#if (!CONFIG_MOCK_TPM)
Ipq40xxI2c *i2c = new_ipq40xx_i2c(BLSP_QUP_ID_2);
tpm_set_ops(&new_slb9635_i2c(&i2c->ops, 0x20)->base.ops);
#endif
DisplayOps *ww_ring_ops = new_ww_ring_display
(&new_ipq40xx_i2c (BLSP_QUP_ID_3)->ops, 0x32);
display_set_ops(ww_ring_ops);
display_init();
write32(ADSS_AUDIO_TXB_CBCR_REG, 0); /* Disable ADSS clock branch */
ipq_snoc_pnoc_init();
list_insert_after(&ipq_enet_fixup.list_node, &device_tree_fixups);
return 0;
}
void list_append(List* self, ADT p_data)
{
RealList* l_reallist = (RealList*)self;
l_reallist->current = l_reallist->tail;
list_insert_after(self, p_data);
}
/**
* Sort a linked list in an order defined by the sort handler
*
* @param list Linked list
* @param sh Sort handler
* @param arg Handler argument
*/
void list_sort(struct list *list, list_sort_h *sh, void *arg)
{
struct le *le;
bool sort;
if (!list || !sh)
return;
retry:
le = list->head;
sort = false;
while (le && le->next) {
if (sh(le, le->next, arg)) {
le = le->next;
}
else {
struct le *tle = le->next;
list_unlink(le);
list_insert_after(list, tle, le, le->data);
sort = true;
}
}
if (sort) {
goto retry;
}
}
// Must be called with monitor held
static void schedule_next_instance(alarm_t *alarm, bool force_reschedule) {
// If the alarm is currently set and it's at the start of the list,
// we'll need to re-schedule since we've adjusted the earliest deadline.
bool needs_reschedule = (!list_is_empty(alarms) && list_front(alarms) == alarm);
if (alarm->callback)
list_remove(alarms, alarm);
// Calculate the next deadline for this alarm
period_ms_t just_now = now();
period_ms_t ms_into_period = alarm->is_periodic ? ((just_now - alarm->created) % alarm->period) : 0;
alarm->deadline = just_now + (alarm->period - ms_into_period);
// Add it into the timer list sorted by deadline (earliest deadline first).
if (list_is_empty(alarms) || ((alarm_t *)list_front(alarms))->deadline >= alarm->deadline)
list_prepend(alarms, alarm);
else
for (list_node_t *node = list_begin(alarms); node != list_end(alarms); node = list_next(node)) {
list_node_t *next = list_next(node);
if (next == list_end(alarms) || ((alarm_t *)list_node(next))->deadline >= alarm->deadline) {
list_insert_after(alarms, node, alarm);
break;
}
}
// If the new alarm has the earliest deadline, we need to re-evaluate our schedule.
if (force_reschedule || needs_reschedule || (!list_is_empty(alarms) && list_front(alarms) == alarm))
reschedule_root_alarm();
}
// Runs in exclusion with alarm_cancel and timer_callback.
void alarm_set(alarm_t *alarm, period_ms_t deadline, alarm_callback_t cb, void *data) {
assert(alarms != NULL);
assert(alarm != NULL);
assert(cb != NULL);
pthread_mutex_lock(&monitor);
// If the alarm is currently set and it's at the start of the list,
// we'll need to re-schedule since we've adjusted the earliest deadline.
bool needs_reschedule = (!list_is_empty(alarms) && list_front(alarms) == alarm);
if (alarm->callback)
list_remove(alarms, alarm);
alarm->deadline = now() + deadline;
alarm->callback = cb;
alarm->data = data;
// Add it into the timer list sorted by deadline (earliest deadline first).
if (list_is_empty(alarms))
list_prepend(alarms, alarm);
else
for (list_node_t *node = list_begin(alarms); node != list_end(alarms); node = list_next(node)) {
list_node_t *next = list_next(node);
if (next == list_end(alarms) || ((alarm_t *)list_node(next))->deadline >= alarm->deadline) {
list_insert_after(alarms, node, alarm);
break;
}
}
// If the new alarm has the earliest deadline, we need to re-evaluate our schedule.
if (needs_reschedule || (!list_is_empty(alarms) && list_front(alarms) == alarm))
reschedule();
pthread_mutex_unlock(&monitor);
}
err_t list_insert_sorted(list_t* list, list_item_t* item, int (*compare)(const void*, const void*))
{
if(item == NULL) return E_NULL_POINTER;
if(compare == NULL) return E_NULL_POINTER;
if(list->head == NULL){
list->head = item;
list->tail = item;
return E_NO_ERROR;
}
list_item_t* cur = list->head;
int cmp = 0;
while(cur){
cmp = compare(item->data, cur->data);
if(cmp > 0){
if(cur->next){
cur = cur->next;
}else{
list_insert_after(list, cur, item);
break;
}
}else{
list_insert_before(list, cur, item);
break;
}
}
return E_NO_ERROR;
}
int check_list()
{
LIST *list, *listreturn;
char *dataptr;
size_t counter;
int travreturn;
list = list_init();
if(!list)
return 1;
/* test if list is functional without anything in it (expect NULL return) */
listreturn = list_mvprev(list);
if(listreturn)
return 2;
/* play with some data */
for(counter = 0; datas[counter]; counter ++)
{
dataptr = list_insert_after(list, datas[counter], strlen(datas[counter]) + 1);
if(strcmp(dataptr, datas[counter]))
{
fprintf(stderr, "got %s, expecting %s\n", dataptr, datas[counter]);
return 3;
}
}
for(counter = 0; datas[counter]; counter ++)
{
dataptr = list_insert_before(list, datas[counter], strlen(datas[counter]) + 1);
if(strcmp(dataptr, datas[counter]))
{
fprintf(stderr, "got %s, expecting %s\n", dataptr, datas[counter]);
return 4;
}
}
/* test traversal */
travreturn = list_traverse(list, (void *)NULL, &list_traverse_print, 0);
if(travreturn != LIST_EXTENT)
return 5;
/* The defaults for list traversal are to not change the current
element of the list. Thus, list_curr should return the last
inserted piece of data which is at datas[counter - 1] */
dataptr = (char *)list_curr(list);
if(strcmp(dataptr, datas[counter - 1]))
{
fprintf(stderr, "get %s, expecting %s\n", dataptr, datas[counter - 1]);
return 6;
}
list_free(list, LIST_DEALLOC);
return 0;
}
/**
* list_insert()
* Insert data into a list at the head (if *prev is NULL) or after *prev
* @list -- Pointer to list to operate on
* @prev -- Pointer to node to insert after
* @data -- Data to insert in the new node
* @len -- Length of the data to insert
* @return -- pointer to the newly created node
*/
list_node *list_insert(linked_list *list, list_node *prev, void *data, size_t len)
{
if(prev == NULL)
return list_insert_head(list, data, len);
else
return list_insert_after(prev, data, len);
}
static void
trim_map_segment_remove(trim_map_t *tm, trim_seg_t *ts, uint64_t start,
uint64_t end)
{
trim_seg_t *nts;
boolean_t left_over, right_over;
ASSERT(MUTEX_HELD(&tm->tm_lock));
left_over = (ts->ts_start < start);
right_over = (ts->ts_end > end);
TRIM_MAP_SDEC(tm, end - start);
if (left_over && right_over) {
nts = kmem_alloc(sizeof (*nts), KM_SLEEP);
nts->ts_start = end;
nts->ts_end = ts->ts_end;
nts->ts_txg = ts->ts_txg;
nts->ts_time = ts->ts_time;
ts->ts_end = start;
avl_insert_here(&tm->tm_queued_frees, nts, ts, AVL_AFTER);
list_insert_after(&tm->tm_head, ts, nts);
TRIM_MAP_QINC(tm);
} else if (left_over) {
ts->ts_end = start;
} else if (right_over) {
ts->ts_start = end;
} else {
avl_remove(&tm->tm_queued_frees, ts);
list_remove(&tm->tm_head, ts);
TRIM_MAP_QDEC(tm);
kmem_free(ts, sizeof (*ts));
}
}
void pool_add_block(pool_t* pool, block_t* block, int block_size)
{
LOG("add block->index = %d , size = %d\n", block->debug_index, block_size);
block->mem_size = block_size;
block->cur_pos = ((char*)block) + sizeof(block_t);
list_insert_after((list_t*)&(pool->blocks), (list_t*)block);
}
Ipq806xSound *new_ipq806x_sound(GpioOps *gpio, unsigned int frame_rate,
unsigned int channels, unsigned int bitwidth, uint16_t volume)
{
Ipq806xSound *sound = xzalloc(sizeof(*sound));
CleanupFunc *cleanup = xzalloc(sizeof(*cleanup));
assert(gpio != NULL);
sound->ops.start = &ipq806x_sound_start;
sound->ops.stop = &ipq806x_sound_stop;
sound->ops.play = &ipq806x_sound_play;
sound->ops.set_volume = &ipq806x_set_volume;
sound->gpio = gpio;
sound->ctrl_regs = (void *)(IPQ806X_LPAIF_BASE +
LPAIF_MI2S_CTL_OFFSET(LPAIF_I2S_PORT_MI2S));
sound->dma_regs = (void *)(IPQ806X_LPAIF_BASE +
LPAIF_DMA_ADDR(LPAIF_DMA_RD_CH_MI2S, 0x00));
sound->lcc_mi2s_regs = (void *)(IPQ806X_LCC_BASE + LCC_MI2S_NS_REG);
sound->buffer = (void *)(IPQ806X_LPM_BASE);
sound->buffer_length = LPM_SIZE;
sound->frame_rate = frame_rate;
sound->channels = channels;
sound->bitwidth = bitwidth;
sound->volume = volume;
cleanup->cleanup = &ipq806x_sound_shutdown;
cleanup->types = CleanupOnHandoff | CleanupOnLegacy;
cleanup->data = sound;
list_insert_after(&cleanup->list_node, &cleanup_funcs);
return sound;
}
int main()
{
List *list = list_create();
if (!list)
std::cout << "List creation error\n";
list_insert(list, 1);
list_insert(list, 2);
list_insert(list, 3);
if (list_item_data(list_first(list)) != 3)
std::cout << "list_insert error\n";
list_insert_after(list, list_first(list), 4);
if (list_item_data(list_item_next(list_first(list))) != 4)
std::cout << "list_insert_after error\n";
list_erase(list, list_first(list));
if (list_item_data(list_first(list)) != 4)
std::cout << "list_erase error\n";
std::cout << "List: ";
for (ListItem *item = list_first(list) ; item ; item = list_item_next(item))
{
std::cout << list_item_data(item) << " ";
}
std::cout << "\n";
list_delete(list);
}
void list_move_after(list_node * list, list_node * node)
{
MESSAGE_DEBUG("list:%p node:%p\n", list, node);
// list_delete (node);
list_insert_after (list, node);
// list_dump(list);
}
static void list_sorted_insert(struct tcb_list *list, struct tcb_node *node)
{
struct tcb_node *find;
if(node->tcb->prio > 0)
{
for(find = list->head; find != NULL; find = find->next)
{
if(find->tcb->prio < node->tcb->prio)
{
break;
}
}
list_insert_before(list, find, node);
}
else
{
for(find = list->tail; find != NULL; find = find->prev)
{
if(find->tcb->prio >= node->tcb->prio)
{
break;
}
}
list_insert_after(list, find, node);
}
}
list_item_t* list_insert_after_new(list_t* list, list_item_t* ref, void* data)
{
list_item_t* item = list_alloc_item(data);
list_insert_after(list, ref, item);
return item;
}
void display_set_ops(DisplayOps *ops)
{
die_if(display_ops, "%s: Display ops already set.\n", __func__);
display_ops = ops;
/* Call stop() when exiting depthcharge. */
list_insert_after(&display_cleanup_func.list_node, &cleanup_funcs);
}
/**
* Inserts a node to a sorted list
*/
void sorted_list_insert(sorted_list_t* list, list_node_t* node)
{
if (list_empty(&list->list)) {
list_push_front(&list->list, node);
return;
}
list_node_t* other_node = list_front(&list->list);
while (other_node != NULL) {
int cmp_result = list->compare_func(node, other_node);
if (cmp_result == 0) {
list_insert_after(&list->list, other_node, node);
return;
}
if (cmp_result < 0) {
if (other_node->prev == NULL) {
list_insert_before(&list->list, other_node, node);
return;
}
cmp_result = list->compare_func(node, other_node->prev);
if (cmp_result > 0) {
list_insert_before(&list->list, other_node, node);
return;
}
other_node = other_node->prev;
continue;
}
if (cmp_result > 0) {
if (other_node->next == NULL) {
list_insert_after(&list->list, other_node, node);
return;
}
cmp_result = list->compare_func(node, other_node->next);
if (cmp_result < 0) {
list_insert_after(&list->list, other_node, node);
return;
}
other_node = other_node->next;
continue;
}
}
}
static int i2ctpm_init(I2cTpm *tpm)
{
if (tpm->chip_ops.init(&tpm->chip_ops))
return -1;
list_insert_after(&tpm->cleanup.list_node, &cleanup_funcs);
tpm->initialized = 1;
return 0;
}
void insert(char *args, List *list, Node *node, int direction)
{
int n;
if (get_one_arg(args, &n))
{
if (direction == id_after)
list_insert_after(list, node, n);
else
list_insert_before(list, node, n);
}
}
static int board_setup(void)
{
sysinfo_install_flags(NULL);
flash_set_ops(&new_mem_mapped_flash(0xffe00000, 0x200000)->ops);
AhciCtrlr *ahci = new_ahci_ctrlr(PCI_DEV(0, 17, 0));
list_insert_after(&ahci->ctrlr.list_node, &fixed_block_dev_controllers);
return 0;
}
static int dc_usb_install_on_demand_input(void)
{
static OnDemandInput dev =
{
&usb_input_init,
1
};
list_insert_after(&dev.list_node, &on_demand_input_devices);
return 0;
}
static int board_setup(void)
{
ImgSpi *spfi;
MtdDevCtrlr *mtd;
SpiGptCtrlr *virtual_dev;
UsbHostController *usb_host;
ImgGpio *img_gpio;
ImgI2c *img_i2c;
struct board_conf *conf = pick_board_config();
flag_install(FLAG_DEVSW, new_gpio_low());
flag_install(FLAG_LIDSW, new_gpio_high());
flag_install(FLAG_PHYS_PRESENCE, new_gpio_high());
flag_install(FLAG_RECSW, new_gpio_high());
flag_install(FLAG_PWRSW, new_gpio_low());
flag_install(FLAG_WPSW, new_gpio_low());
usb_host = new_usb_hc(DWC2, 0xB8120000);
list_insert_after(&usb_host->list_node, &usb_host_controllers);
img_gpio = new_imgtec_gpio_output(NOR_CS_GPIO);
spfi = new_imgtec_spi(SPIM_INTERFACE, NOR_CS, &(img_gpio->ops));
flash_set_ops(&new_spi_flash(&spfi->ops)->ops);
img_gpio = new_imgtec_gpio_output(conf->nand_cs_gpio);
spfi = new_imgtec_spi(SPIM_INTERFACE, NAND_CS, &(img_gpio->ops));
mtd = new_spi_nand(&spfi->ops);
virtual_dev = new_spi_gpt("RW_GPT", new_mtd_stream(mtd),
"spi@18101000/flash@1");
list_insert_after(&virtual_dev->block_ctrlr.list_node,
&fixed_block_dev_controllers);
img_i2c = new_imgtec_i2c(conf->i2c_interface, 100000, 33333333);
tpm_set_ops(&new_slb9635_i2c(&(img_i2c->ops), 0x20)->base.ops);
fit_set_compat(conf->compatible);
list_insert_after(&urara_dt_fixup.list_node, &device_tree_fixups);
return 0;
}
static int board_setup(void)
{
bcm_qspi *qspi = new_bcm_qspi(BCM_QSPI_BASE, SPI_MODE_3, 50000000);
flash_set_ops(&new_spi_flash(&qspi->ops)->ops);
MtdDevCtrlr *mtd = new_bcm_nand((void *)BCM_NAND_BASE,
(void *)BCM_NAND_IDM_BASE,
4 /* ONFI timing mode */);
SpiGptCtrlr *virtual_dev = new_spi_gpt("RW_GPT",
new_mtd_stream(mtd),
"nand");
list_insert_after(&virtual_dev->block_ctrlr.list_node,
&fixed_block_dev_controllers);
UsbHostController *usb_host20 = new_usb_hc(EHCI, 0x18048000);
UsbHostController *usb_host11 = new_usb_hc(OHCI, 0x18048800);
list_insert_after(&usb_host20->list_node, &usb_host_controllers);
list_insert_after(&usb_host11->list_node, &usb_host_controllers);
return 0;
}
void list_insert(List* self, int p_index, ADT p_src)
{
RealList* l_reallist = (RealList*)self;
if ( p_index<=0 || p_index>l_reallist->length )
{
list_append(self, p_src);
return ;
}
if ( list_locate(self, p_index) ) list_insert_after(self, p_src);
else list_append(self, p_src);
}
/**
* Start a timer
*
* @param tmr Timer to start
* @param delay Timer delay in [ms]
* @param th Timeout handler
* @param arg Handler argument
*/
void tmr_start(struct tmr *tmr, uint64_t delay, tmr_h *th, void *arg)
{
struct list *tmrl = tmrl_get();
struct le *le;
if (!tmr)
return;
if (tmr->th) {
list_unlink(&tmr->le);
}
tmr->th = th;
tmr->arg = arg;
if (!th)
return;
tmr->jfs = delay + tmr_jiffies();
if (delay == 0) {
le = list_apply(tmrl, true, inspos_handler_0, &tmr->jfs);
if (le) {
list_insert_before(tmrl, le, &tmr->le, tmr);
}
else {
list_append(tmrl, &tmr->le, tmr);
}
}
else {
le = list_apply(tmrl, false, inspos_handler, &tmr->jfs);
if (le) {
list_insert_after(tmrl, le, &tmr->le, tmr);
}
else {
list_prepend(tmrl, &tmr->le, tmr);
}
}
#ifdef HAVE_ACTSCHED
/* TODO: this is a hack. when a new timer is started we must reset
the main sleeping timer in actsched.cpp */
{
extern void actsched_restart_timer(void);
actsched_restart_timer();
}
#endif
}
/**
* Add candidate pair to list, sorted by pair priority (highest is first)
*/
static void list_add_sorted(struct list *list, struct candpair *cp)
{
struct le *le;
/* find our slot */
for (le = list_tail(list); le; le = le->prev) {
struct candpair *cp0 = le->data;
if (cp->pprio < cp0->pprio) {
list_insert_after(list, le, &cp->le, cp);
return;
}
}
list_prepend(list, &cp->le, cp);
}
// Inicializacao com buffer pre-alocado
void rst_init_ptr(rst_buffer_t *ptr, u_int64_t id1, u_int64_t id2)
{
int fd;
char fname[30];
char hostname[MAXHOSTNAMELEN+1];
if ( ptr == NULL ) {
fprintf(stderr, "[rastro] error inicializing - invalid pointer\n");
return;
}
#ifdef THREADED
if (!rst_key_initialized) {
pthread_key_create(&rst_key, rst_destroy_buffer);
rst_key_initialized = 1;
}
#endif
if(!list_init){
list_initialize(&list, list_copy, list_cmp, list_destroy);
list_init=true;
}
RST_SET_PTR(ptr);
ptr->rst_buffer_size = 100000;
ptr->rst_buffer = malloc(ptr->rst_buffer_size);
RST_RESET(ptr);
sprintf(fname, "rastro-%"PRIu64"-%"PRIu64".rst",/* dirname,*/ id1, id2);
fd = open(fname, O_WRONLY | O_CREAT | O_TRUNC, 0666);
if (fd == -1) {
fprintf(stderr, "[rastro] cannot open file %s: %s\n",
fname, strerror(errno));
return;
}
list_insert_after(&list, NULL, (void *)ptr );
RST_SET_FD(ptr, fd);
// this will force first event to register sync time
RST_SET_T0(ptr, 0);
gethostname(hostname, sizeof(hostname));
XCAT(rst_event_,LETRA_UINT64,LETRA_STRING,_ptr)(ptr, RST_EVENT_INIT, id1, id2, hostname);
}