/* This is an entry point for the application.
All application specific initialization is performed here. */
int main(void)
{
int ret = 0;
/* Initializes console on UART0 */
ret = wmstdio_init(UART0_ID, 0);
if (ret == -WM_FAIL) {
wmprintf("Failed to initialize console on uart0\r\n");
return -1;
}
wmprintf(" LED demo application started\r\n");
wmprintf(" This application demonstrates the"
" use of blinking led\r\n");
gpio_led = (board_led_2()).gpio;
wmprintf(" LED Pin : %d\r\n", gpio_led);
configure_gpios();
while (1) {
gpio_led_on();
os_thread_sleep(os_msec_to_ticks(1000));
gpio_led_off();
os_thread_sleep(os_msec_to_ticks(1000));
}
return 0;
}
/* Write data from SSP master after every 100msec */
static void ssp_master_write(os_thread_arg_t data)
{
int len, i, j;
wmprintf("SSP Writer Application Started\r\n");
i = 0;
while (1) {
i++;
/* Write random number of random bytes */
len = rand() % BUF_LEN;
for (j = 0; j < len; j++)
write_data[j] = rand();
/* Write data on SSP bus */
len = ssp_drv_write(ssp, write_data, NULL, len, 0);
wmprintf("Write iteration %d: data_len = %d\n\r", i, len);
for (j = 0; j < len ; j++) {
if ((j % 16) == 0)
wmprintf("\n\r");
wmprintf("%02x ", write_data[j]);
}
if (len)
wmprintf("\n\r\n\r");
os_thread_sleep(os_msec_to_ticks(100));
}
}
void
mc_usb_fin()
{
usb_exit++;
os_thread_sleep(os_msec_to_ticks(USB_READ_TIMEOUT)); /* wait for the thread to termiante */
/* no API to deactivate USB! at least the thread has to be stopped... */
}
int
mc_usb_init()
{
if (usb_device_system_init(USB_CDC) != WM_SUCCESS) {
int i;
wmprintf("usb_stdio_init failed\r\n");
for (i = 0; i < MC_MAX_LED_PINS; i++)
GPIO_WritePinOutput(mc_conf.led_pins[i], GPIO_IO_HIGH);
GPIO_WritePinOutput(mc_conf.led_pins[0], GPIO_IO_LOW); /* red */
os_thread_sleep(5000);
return -1;
}
os_thread_sleep(1000);
mc_thread_create(usb_thread_main, NULL, -1); /* create a thread for USB input */
return 0;
}
int
mc_usb_write(void *buf, size_t n)
{
unsigned long t, d;
uint8_t *p;
int ret = -1;
if (n > USB_BUF_SIZE)
goto bail;
if (!USBActive())
goto bail;
t = os_ticks_get();
d = t < usb_last_tick ? ~0UL - usb_last_tick + t : t - usb_last_tick;
if (d >= USB_TIMEOUT_TICKS) {
usb_buf_ptr = 0;
usb_last_tick = os_ticks_get();
}
if (usb_buf_ptr + n > USB_BUF_SIZE) {
usb_buf_ptr = 0;
if (d < USB_TIMEOUT_TICKS)
os_thread_sleep(USB_TIMEOUT_TICKS);
usb_last_tick = os_ticks_get();
}
p = &usb_buf[usb_buf_ptr];
memcpy(p, buf, n);
if (usb_drv_write(p, n) != (int)n)
goto bail;
usb_buf_ptr += n;
ret = 0;
bail:
return ret;
}
/***********************************************************//**
Removes a secondary index entry if possible. */
UNIV_INLINE
void
row_purge_remove_sec_if_poss(
/*=========================*/
purge_node_t* node, /*!< in: row purge node */
dict_index_t* index, /*!< in: index */
dtuple_t* entry) /*!< in: index entry */
{
ibool success;
ulint n_tries = 0;
/* fputs("Purge: Removing secondary record\n", stderr); */
if (row_purge_remove_sec_if_poss_leaf(node, index, entry)) {
return;
}
retry:
success = row_purge_remove_sec_if_poss_tree(node, index, entry);
/* The delete operation may fail if we have little
file space left: TODO: easiest to crash the database
and restart with more file space */
if (!success && n_tries < BTR_CUR_RETRY_DELETE_N_TIMES) {
n_tries++;
os_thread_sleep(BTR_CUR_RETRY_SLEEP_TIME);
goto retry;
}
ut_a(success);
}
/***********************************************************//**
Removes a clustered index record if it has not been modified after the delete
marking. */
static
void
row_purge_remove_clust_if_poss(
/*===========================*/
purge_node_t* node) /*!< in: row purge node */
{
ibool success;
ulint n_tries = 0;
/* fputs("Purge: Removing clustered record\n", stderr); */
success = row_purge_remove_clust_if_poss_low(node, BTR_MODIFY_LEAF);
if (success) {
return;
}
retry:
success = row_purge_remove_clust_if_poss_low(node, BTR_MODIFY_TREE);
/* The delete operation may fail if we have little
file space left: TODO: easiest to crash the database
and restart with more file space */
if (!success && n_tries < BTR_CUR_RETRY_DELETE_N_TIMES) {
n_tries++;
os_thread_sleep(BTR_CUR_RETRY_SLEEP_TIME);
goto retry;
}
ut_a(success);
}
/*******************************************************************//**
Rollback a transaction used in MySQL.
@return error code or DB_SUCCESS */
UNIV_INTERN
int
trx_general_rollback_for_mysql(
/*===========================*/
trx_t* trx, /*!< in: transaction handle */
trx_savept_t* savept) /*!< in: pointer to savepoint undo number, if
partial rollback requested, or NULL for
complete rollback */
{
mem_heap_t* heap;
que_thr_t* thr;
roll_node_t* roll_node;
/* Tell Innobase server that there might be work for
utility threads: */
srv_active_wake_master_thread();
trx_start_if_not_started(trx);
heap = mem_heap_create(512);
roll_node = roll_node_create(heap);
if (savept) {
roll_node->partial = TRUE;
roll_node->savept = *savept;
}
trx->error_state = DB_SUCCESS;
thr = pars_complete_graph_for_exec(roll_node, trx, heap);
ut_a(thr == que_fork_start_command(que_node_get_parent(thr)));
que_run_threads(thr);
mutex_enter(&kernel_mutex);
while (trx->que_state != TRX_QUE_RUNNING) {
mutex_exit(&kernel_mutex);
os_thread_sleep(100000);
mutex_enter(&kernel_mutex);
}
mutex_exit(&kernel_mutex);
mem_heap_free(heap);
ut_a(trx->error_state == DB_SUCCESS);
/* Tell Innobase server that there might be work for
utility threads: */
srv_active_wake_master_thread();
return((int) trx->error_state);
}
static void dhcp_cli(int argc, char **argv)
{
void *intrfc_handle = NULL;
int wait_for_sec = WAIT_FOR_UAP_START;
if (argc >= 3 && string_equal(argv[2], "start")) {
if (!strncmp(argv[1], "mlan0", 5))
intrfc_handle = net_get_mlan_handle();
else if (!strncmp(argv[1], "uap0", 4)) {
while(wait_for_sec) {
wait_for_sec--;
if (!is_uap_started()) {
if (wait_for_sec == 0) {
dhcp_e("unable"
" to start DHCP server. Retry"
" after uAP is started");
return;
}
} else
break;
os_thread_sleep(os_msec_to_ticks(1000));
}
intrfc_handle = net_get_uap_handle();
}
if (dhcp_server_start(intrfc_handle))
dhcp_e("unable to "
"start DHCP server");
} else if (argc >= 3 && string_equal(argv[2], "stop"))
dhcp_server_stop();
else {
wmprintf("Usage: %s %s\r\n", DHCPS_COMMAND, DHCPS_HELP);
wmprintf("Error: invalid argument\r\n");
}
}
void check_ultrasonic_sensor(void)
{
while(1) {
ultrasonic_sensor_input_scan(&event_ultrasonic_sensor);
os_thread_sleep(1000);
}
}
/**********************************************************//**
Returns system time.
Upon successful completion, the value 0 is returned; otherwise the
value -1 is returned and the global variable errno is set to indicate the
error.
@return 0 on success, -1 otherwise */
UNIV_INTERN
int
ut_usectime(
/*========*/
ulint* sec, /*!< out: seconds since the Epoch */
ulint* ms) /*!< out: microseconds since the Epoch+*sec */
{
struct timeval tv;
int ret;
int errno_gettimeofday;
int i;
for (i = 0; i < 10; i++) {
ret = ut_gettimeofday(&tv, NULL);
if (ret == -1) {
errno_gettimeofday = errno;
ut_print_timestamp(stderr);
fprintf(stderr, " InnoDB: gettimeofday(): %s\n",
strerror(errno_gettimeofday));
os_thread_sleep(100000); /* 0.1 sec */
errno = errno_gettimeofday;
} else {
break;
}
}
if (ret != -1) {
*sec = (ulint) tv.tv_sec;
*ms = (ulint) tv.tv_usec;
}
return(ret);
}
static int
i2c_write_bytes(wm_i2c *i2c, int reg, uint8_t *data, int datasize)
{
int retry = 60;
int i;
do {
if (reg >= 0) {
if (!i2c_write_byte(i2c, reg))
return false;
}
for (i = 0; i < datasize; i++)
if (!i2c_write_byte(i2c, data[i]))
return false;
if (!(i2c->reg->RAW_INTR_STAT.WORDVAL & 0x40 /* TX ABRT */))
break;
os_thread_sleep(os_msec_to_ticks(10));
#if I2C_VERBOSE > 1
mc_log_debug("I2C: xmit aborted [%d]: cause = 0x%x.\n", retry, i2c_get_abort_cause(i2c));
#endif
i2c_clear_abort(i2c);
} while (--retry >= 0);
#if I2C_VERBOSE
if (retry < 0)
mc_log_debug("I2C: xmit aborted!\n");
#endif
return (retry >= 0);
}
static void __write_to_lcd(mdev_t *dev, const char *line1, const char *line2)
{
mdev_t *i2c_dev;
int temp;
memset(lcd_buff, 0, sizeof(lcd_buff));
os_thread_sleep(os_msec_to_ticks(35));
i2c_dev = i2c_drv_open(dev->private_data,
I2C_SLAVEADR(I2C_LCD_ADDR >> 1));
if (i2c_dev == NULL) {
lcd_d("I2C driver init is required before open");
return;
}
lcd_buff[0] = LCD_CMD_CONFIG_MODE;
/* Set DDRAM Address to line 1
* Bits: 1 AC6 AC5 AC4 AC3 AC2 AC1 AC0
* AC6-0: The address to be written to:
* 00H: line 1
* 40H: line 2
*/
lcd_buff[1] = 0x80;
lcd_buff[2] = 0x06; /* Entry mode as mentioned above */
os_thread_sleep(os_msec_to_ticks(35));
temp = os_enter_critical_section();
i2c_drv_write(i2c_dev, (uint8_t *) lcd_buff, 2);
os_exit_critical_section(temp);
/* Write data */
lcd_buff[0] = LCD_CMD_DATA_MODE;
if (line1)
write_line1(lcd_buff, line1);
if (line2)
write_line2(lcd_buff, line2);
os_thread_sleep(os_msec_to_ticks(35));
temp = os_enter_critical_section();
i2c_drv_write(i2c_dev, (uint8_t *) lcd_buff, end_of_line2(lcd_buff));
os_exit_critical_section(temp);
i2c_drv_close(i2c_dev);
}
void
buf_read_ibuf_merge_pages(
/*======================*/
ibool sync, /* in: TRUE if the caller wants this function
to wait for the highest address page to get
read in, before this function returns */
ulint* space_ids, /* in: array of space ids */
ib_longlong* space_versions,/* in: the spaces must have this version
number (timestamp), otherwise we discard the
read; we use this to cancel reads if
DISCARD + IMPORT may have changed the
tablespace size */
ulint* page_nos, /* in: array of page numbers to read, with the
highest page number the last in the array */
ulint n_stored) /* in: number of page numbers in the array */
{
ulint err;
ulint i;
ut_ad(!ibuf_inside());
#ifdef UNIV_IBUF_DEBUG
ut_a(n_stored < UNIV_PAGE_SIZE);
#endif
while (buf_pool->n_pend_reads
> buf_pool->curr_size / BUF_READ_AHEAD_PEND_LIMIT) {
os_thread_sleep(500000);
}
for (i = 0; i < n_stored; i++) {
buf_read_page_low(&err,
(i + 1 == n_stored) && sync,
BUF_READ_ANY_PAGE,
space_ids[i], space_versions[i],
page_nos[i]);
if (err == DB_TABLESPACE_DELETED) {
/* We have deleted or are deleting the single-table
tablespace: remove the entries for that page */
ibuf_merge_or_delete_for_page(NULL, space_ids[i],
page_nos[i], FALSE);
}
}
os_aio_simulated_wake_handler_threads();
/* Flush pages from the end of the LRU list if necessary */
buf_flush_free_margin();
#ifdef UNIV_DEBUG
if (buf_debug_prints) {
fprintf(stderr,
"Ibuf merge read-ahead space %lu pages %lu\n",
(ulong) space_ids[0], (ulong) n_stored);
}
#endif /* UNIV_DEBUG */
}
void
ut_dbg_stop_thread(
/*===============*/
const char* file,
ulint line)
{
fprintf(stderr, "InnoDB: Thread %lu stopped in file %s line %lu\n",
os_thread_pf(os_thread_get_curr_id()), file, line);
os_thread_sleep(1000000000);
}
/* This is the main event handler for this project. The application framework
* calls this function in response to the various events in the system.
*/
int common_event_handler(int event, void *data)
{
int ret;
static bool is_cloud_started;
switch (event) {
case AF_EVT_WLAN_INIT_DONE:
ret = psm_cli_init();
if (ret != WM_SUCCESS)
wmprintf("Error: psm_cli_init failed\r\n");
int i = (int) data;
if (i == APP_NETWORK_NOT_PROVISIONED) {
wmprintf("\r\nPlease provision the device "
"and then reboot it:\r\n\r\n");
wmprintf("psm-set network ssid <ssid>\r\n");
wmprintf("psm-set network security <security_type>"
"\r\n");
wmprintf(" where: security_type: 0 if open,"
" 3 if wpa, 4 if wpa2\r\n");
wmprintf("psm-set network passphrase <passphrase>"
" [valid only for WPA and WPA2 security]\r\n");
wmprintf("psm-set network configured 1\r\n");
wmprintf("pm-reboot\r\n\r\n");
} else
app_sta_start();
break;
case AF_EVT_NORMAL_CONNECTED:
set_device_time();
if (!is_cloud_started) {
configure_gpios();
os_thread_sleep(2000);
ret = os_thread_create(
/* thread handle */
&app_thread,
/* thread name */
"evrythng_demo_thread",
/* entry function */
evrythng_task,
/* argument */
0,
/* stack */
&app_stack,
/* priority - medium low */
OS_PRIO_3);
is_cloud_started = true;
}
break;
default:
break;
}
return 0;
}
void miio_app_test_thread(void* arg)
{
/*if(STATE_OK == sell_ready()){
LOG_INFO("==================\r\n");
LOG_INFO(" OK. Sell ready. \r\n");
LOG_INFO("==================\r\n");
}*/
while (1) {
os_thread_sleep(os_msec_to_ticks(500));
}
}
/*************************************************************//**
Stop a thread after assertion failure. */
UNIV_INTERN
void
ut_dbg_stop_thread(
/*===============*/
const char* file,
ulint line)
{
#ifndef UNIV_HOTBACKUP
fprintf(stderr, "InnoDB: Thread %lu stopped in file %s line %lu\n",
os_thread_pf(os_thread_get_curr_id()), file, line);
os_thread_sleep(1000000000);
#endif /* !UNIV_HOTBACKUP */
}
int report_ap_info_change_event()
{
#define JS_BUF_LEN (128)
char *js_buf = malloc(JS_BUF_LEN);
if(!js_buf) {
LOG_ERROR("no enough mem to report event\r\n");
//clear flags
clear_ap_info_change_flag();
return -1;
}
int n = snprintf_safe(js_buf,JS_BUF_LEN,"{\"method\":\"event.router_changed\",\"params\":");
if(ap_info_change == ANY_ONE) {
n += snprintf_safe(js_buf+n,JS_BUF_LEN - n,"\"ssid or passwd changed\"}");
} else {
n += snprintf_safe(js_buf+n,JS_BUF_LEN-n,"\"");
if(is_ssid_changed()) {
n += snprintf_safe(js_buf+n,JS_BUF_LEN -n,"ssid changed ");
}
if(is_passwd_changed()) {
n += snprintf_safe(js_buf+n,JS_BUF_LEN-n,"passwd changed");
}
n += snprintf_safe(js_buf+n,JS_BUF_LEN-n,"\"}");
}
LOG_DEBUG("report :len is %d %s \r\n",n,js_buf);
//clear flags
clear_ap_info_change_flag();
report_success = false;
int retry_count = 3;
while(!report_success && retry_count > 0) {
ot_api_method(js_buf,n,report_ack, NULL);
retry_count --;
//it's diffcult to query ot status, so just wait
os_thread_sleep(3000);
}
free(js_buf);
return 0;
}
void miio_app_thread(void* arg)
{
static bool has_sync_time = false;
g_mum = mum_create();
//*****************************button init*******************************/
os_timer_create(&g_reset_prov_timer, "reset-prov-timer", os_msec_to_ticks(4000), reset_prov, NULL,
OS_TIMER_ONE_SHOT, OS_TIMER_NO_ACTIVATE);
button_frame_work_init();
register_button_callback(0, button_1_press_handle);
if (WM_SUCCESS != os_semaphore_create(&btn_pressed_sem, "btn_pressed_sem")) {
LOG_ERROR("btn_pressed_sem creation failed\r\n");
}
else if (WM_SUCCESS != os_semaphore_get(&btn_pressed_sem, OS_WAIT_FOREVER)) {
LOG_ERROR("first get btn_pressed_sem failed.\r\n");
}
//******************************button init end*******************************************/
local_timer_init();//add by [email protected]
miio_led_on();
LOG_INFO("miio_app_thread while loop start.\r\n");
#ifdef MIIO_COMMANDS_DEBUG
while(!ot_api_is_online())api_os_tick_sleep(100);
uart_wifi_debug_init();
#endif
while (1) {
if (WM_SUCCESS == os_semaphore_get(&btn_pressed_sem, OS_NO_WAIT)) {
mum_set_property(g_mum,"button_pressed","\"wifi_rst\"");
}
if(has_sync_time)//only after sync time, we start check timer
check_schedule_and_set_timer();
else if(otn_is_online())
has_sync_time = true;
os_thread_sleep(os_msec_to_ticks(PERIOD_CHECK_BUTTON));
}
local_timer_deinit();//add by [email protected]
//*****************************button deinit*******************************/
mum_destroy(&g_mum);
os_timer_delete(&g_reset_prov_timer);
os_semaphore_delete(&btn_pressed_sem);
//******************************button deinit end*******************************************/
}
bool CO2_dataRecieve(void)
{
uint8_t data[9];
int i, len, sz;
/* transmit command data */
os_mutex_get(&co2uart_mutex, OS_WAIT_FOREVER);
uart_drv_write(uart2_dev, cmd_get_sensor, 9); //sizeof(cmd_get_sensor));
os_mutex_put(&co2uart_mutex);
os_thread_sleep(10); /* delay of 10 milisecs */
/* begin reveiceing data */
for(i = 0; i < 9; i++) {
len = 0;
while(len++ < 100) { /* Ready each byte until it is received, timeout 100msec*/
sz = uart_drv_read(uart2_dev, &data[i], 1);
if (sz == 1) {
/* If a bute is read then store and move to next */
break;
} else
os_thread_sleep(1); /* delay of 1 milisecs */
}
}
if((i != 9) || (1 + (0xFF ^ (uint8_t)(data[1] + data[2] + data[3]
+ data[4] + data[5] + data[6] + data[7]))) != data[8]) {
wmprintf("Received Data Checksum Error\r\n");
return false;
}
CO2PPM = (int)data[2] * 256 + (int)data[3];
temperature = (int)data[4] - 40;
wmprintf("Tempr: %d, CORPPM: %d\r\n", temperature, CO2PPM);
return true;
}
static int
i2c_wait_tx_fifo(wm_i2c *i2c)
{
int tcnt;
uint32_t toticks = os_msec_to_ticks(10);
/* sending the stop sequence by emptying the TX FIFO */
for (tcnt = 10; !(i2c->reg->STATUS.WORDVAL & 0x04 /* TFE */) && --tcnt >= 0;)
os_thread_sleep(toticks);
#if I2C_VERBOSE
if (tcnt < 0)
mc_log_debug("I2C: TX FIFO can't be empty! STATUS = 0x%x\n", i2c->reg->STATUS.WORDVAL);
#endif
return tcnt >= 0;
}
/** Synchronous wait for an master command to be finished...
* The calling thread blocks (sleeps)
*/
TMasterCmdResult TMasterCmd_WaitFor( TMasterCmdReq * me )
{
/* Zur Zeit einfach polling...*/
/* Wenn kein Scheduling stattfindet, dann nicht mehr warten */
while( !me->isResultValid && TSchedule_IsScheduling() )
{
#ifdef YASDI_NO_THREADS
TSchedule_MainExecute();
#endif
os_thread_sleep( YASDI_SCHEDULER_DELAY_TIME );
}
return me->Result;
}
static void
usb_thread_main(void *args)
{
uint8_t c;
uint8_t buf[MAX_MSG_LEN], *bp = buf, *bend = buf + sizeof(buf);
uint8_t crnl[2] = {'\r', '\n'}; /* usb can't transfer data in the .ro section?? */
uint8_t bs[3] = {'\b', ' ', '\b'};
#define CTRL(c) (c - 'A' + 1)
#define ISPRINT(c) ((c) >= 0x20 && (c) < 0x7f)
while (!usb_exit) {
int ret = usb2Read(&c, 1, USB_READ_TIMEOUT, USB_ENDPOINT);
if (ret <= 0) {
if (ret != CONIO_TIMEOUT)
os_thread_sleep(os_msec_to_ticks(1000));
continue;
}
if (c == '\n' || c == '\r') {
if (bp < bend)
*bp = '\0';
else
*(bp - 1) = '\0';
usb_drv_write(crnl, 2);
mc_event_thread_call(usb_callback, buf, 0);
bp = buf;
}
else if (c == '\b' || c == '\x7f') {
if (bp > buf) {
--bp;
usb_drv_write(bs, 3);
}
}
else if (c == CTRL('U')) {
while (bp > buf) {
--bp;
usb_drv_write(bs, 3);
}
}
else {
if (bp < bend) {
*bp = c;
usb_drv_write(bp, 1);
bp++;
}
}
}
}
/*****************************************************************//**
Advises the os to give up remainder of the thread's time slice. */
UNIV_INTERN
void
os_thread_yield(void)
/*=================*/
{
#if defined(__WIN__)
SwitchToThread();
#elif (defined(HAVE_SCHED_YIELD) && defined(HAVE_SCHED_H))
sched_yield();
#elif defined(HAVE_PTHREAD_YIELD_ZERO_ARG)
pthread_yield();
#elif defined(HAVE_PTHREAD_YIELD_ONE_ARG)
pthread_yield(0);
#else
os_thread_sleep(0);
#endif
}
/**
* All application specific initializations are performed here.
*/
int main(void)
{
int i = 0;
/* Initialize wmstdio console */
wmstdio_init(UART0_ID, 0);
wmprintf("SSP Display Application Started\r\n");
display_init();
while (1) {
change_display_data(colors[i++ % no_colors]);
display_update(frame_buf);
os_thread_sleep(2000);
}
return 0;
}
static void report_reset_event()
{
#define JS_BUF_LEN (64)
char *js_buf = malloc(JS_BUF_LEN);
if(!js_buf) {
return;
}
int n = snprintf_safe(js_buf,JS_BUF_LEN,"{\"method\":\"event.dev_is_reset\",\"params\":\"\"}");
LOG_DEBUG("report :len is %d %s \r\n",n,js_buf);
ot_api_method(js_buf,n, NULL, NULL);
//make sure the report is send out before reboot, but do not assure reach the server
os_thread_sleep(100);
free(js_buf);
}
/*******************************************************************
Removes a secondary index entry from the index if found. Tries first
optimistic, then pessimistic descent down the tree. */
static
ulint
row_undo_ins_remove_sec(
/*====================*/
/* out: DB_SUCCESS or DB_OUT_OF_FILE_SPACE */
dict_index_t* index, /* in: index */
dtuple_t* entry, /* in: index entry to insert */
que_thr_t* thr) /* in: query thread */
{
ulint err;
ulint n_tries = 0;
/* Try first optimistic descent to the B-tree */
err = row_undo_ins_remove_sec_low(BTR_MODIFY_LEAF, index, entry, thr);
if (err == DB_SUCCESS) {
return(err);
}
/* Try then pessimistic descent to the B-tree */
retry:
err = row_undo_ins_remove_sec_low(BTR_MODIFY_TREE, index, entry, thr);
/* The delete operation may fail if we have little
file space left: TODO: easiest to crash the database
and restart with more file space */
if (err != DB_SUCCESS && n_tries < BTR_CUR_RETRY_DELETE_N_TIMES) {
n_tries++;
os_thread_sleep(BTR_CUR_RETRY_SLEEP_TIME);
goto retry;
}
return(err);
}
/* Function to read Integer portion of gas value */
float getGasSensorData(void)
{
int avgdata=0;
if (adc_dev == NULL)
return -1;
adc_dev = adc_drv_open(ADC0_ID, GASSEN_ADCCH);
#ifdef ADC_DMA
adc_drv_get_samples(adc_dev, buffer, samples);
for (i=0;i<samples;++i) {
avgdata+=buffer[i];
}
avgdata/=samples;
#else
for (i=0;i<ITERATIONS;++i) {
avgdata += adc_drv_result(adc_dev);
os_thread_sleep(5);
}
avgdata/=ITERATIONS;
#endif
adc_drv_close(adc_dev);
/* Convert ADC Value to the milivolts, Ref: io_demo/adc sample app */
result = ((float)avgdata / BIT_RESOLUTION_FACTOR)
* VMAX_IN_mV
* ((float)1/(float)(config.adcGainSel != 0 ?
config.adcGainSel : 0.5));
dbg("ADC val=%d, milivolts %d.%d\r\n",
avgdata,
wm_int_part_of(result),
wm_frac_part_of(result, 2));
return result;
}
/***************************************************************
Removes a secondary index entry if possible. */
UNIV_INLINE
void
row_purge_remove_sec_if_poss(
/*=========================*/
purge_node_t* node, /* in: row purge node */
que_thr_t* thr, /* in: query thread */
dict_index_t* index, /* in: index */
dtuple_t* entry) /* in: index entry */
{
ibool success;
ulint n_tries = 0;
/* printf("Purge: Removing secondary record\n"); */
success = row_purge_remove_sec_if_poss_low(node, thr, index, entry,
BTR_MODIFY_LEAF);
if (success) {
return;
}
retry:
success = row_purge_remove_sec_if_poss_low(node, thr, index, entry,
BTR_MODIFY_TREE);
/* The delete operation may fail if we have little
file space left: TODO: easiest to crash the database
and restart with more file space */
if (!success && n_tries < BTR_CUR_RETRY_DELETE_N_TIMES) {
n_tries++;
os_thread_sleep(BTR_CUR_RETRY_SLEEP_TIME);
goto retry;
}
ut_a(success);
}