static void run_benchmark(coreid_t core, int requests)
{
errval_t err;
struct capref ramcap;
int i = -1;
int bits = MEM_BITS;
debug_printf("starting benchmark. allocating mem of size: %d\n", bits);
//debug_printf("starting benchmark. allocating mem of size: %d to %d\n",
// MINSIZEBITS, MINSIZEBITS+requests-1);
sleep_init();
do {
i++;
// bits = MINSIZEBITS+i;
trace_event(TRACE_SUBSYS_MEMTEST, TRACE_EVENT_MEMTEST_ALLOC, i);
err = ram_alloc(&ramcap, bits);
// milli_sleep(1);
/*
if ((i % 500 == 0) && (i > 0)) {
debug_printf("allocated %d caps\n", i);
}
*/
} while (err_is_ok(err)); // && (i < requests));
debug_printf("done benchmark. allocated %d caps (%lu bytes)\n",
i, i * (1UL << bits));
}
int main(void) {
// initialise MCU
avr_init();
// turn on the red status led ASAP to show boot process
avr_set_bit(PORTD, STATUS_LED);
// we're using the XBee module, connected to the UART
serial_init();
// turn off the red status led ASAP to show boot process has ended
avr_clear_bit(PORTD, STATUS_LED);
// prepare for using sleep_ms
sleep_init();
// the endless loop
while(TRUE) {
// show we're awake
avr_set_bit(PORTC, STATUS_LED); // visually
printf( "Awake for 1 second ...\n"); // remotely
_delay_ms(1000);
printf( "Going to sleep for 10 seconds...\n");
avr_clear_bit(PORTC, STATUS_LED);
sleep_ms(10000L);
}
return(0);
}
int main(void)
{
init();
nSensors = search_sensors();
sleep_init();
while (1) {
if (display_flag) {
convert_show();
display_flag = 0;
}
sleep_cpu();
sleep_disable();
}
}
void monitor_init(HMODULE module_handle)
{
// Sends crashes to the process rather than showing error popup boxes etc.
SetErrorMode(SEM_FAILCRITICALERRORS | SEM_NOALIGNMENTFAULTEXCEPT |
SEM_NOGPFAULTERRORBOX | SEM_NOOPENFILEERRORBOX);
config_t cfg;
config_read(&cfg);
// Required to be initialized before any logging starts.
mem_init();
// Initialize capstone without our custom allocator as it is
// not available yet.
hook_init(module_handle);
pipe_init(cfg.pipe_name);
native_init();
// Re-initialize capstone with our custom allocator which is now
// accessible after native_init().
hook_init2();
misc_init(module_handle, cfg.shutdown_mutex);
misc_set_hook_library(&monitor_hook);
diffing_init(cfg.hashes_path, cfg.diffing_enable);
log_init(cfg.logpipe);
ignore_init();
sleep_init(cfg.first_process, cfg.force_sleep_skip, cfg.startup_time);
unhook_init_detection(cfg.first_process);
hide_module_from_peb(module_handle);
symbol_init(module_handle);
// Should be the last as some of the other initialization routines extract
// the image size, EAT pointers, etc while the PE header is still intact.
destroy_pe_header(module_handle);
misc_set_monitor_options(cfg.track, cfg.mode);
}
int main(int argc, char **argv)
{
coreid_t *cores;
int core_count;
int c_idx;
uint8_t memory;
int payloadsz = 64;
int nocache = 0;
int read_incoming = 0;
int head_idx_wb = 1;
errval_t err;
sleep_init();
// Connect to SKB to get info
err = skb_client_connect();
assert(err_is_ok(err));
// Get information about available cores
get_cores_skb(&cores, &core_count);
printf("Net latency benchmark start\n");
printf("%%\"core\",\"memory\",\"payload\",\"nocache\",\"touch\",\"hiwb\","
"\"rtt\",\"time\"\n");
for (c_idx = 0; c_idx < core_count; c_idx++) {
for (memory = 0; memory < 16; memory += 4) {
for (payloadsz = 64; payloadsz < 1500; payloadsz *= 4) {
for (nocache = 0; nocache <= 1; nocache++) {
for (read_incoming = 0; read_incoming <= 1; read_incoming++) {
for (head_idx_wb = 0; head_idx_wb <= 1; head_idx_wb++) {
start_run(cores[c_idx], memory, payloadsz, nocache,
read_incoming, head_idx_wb);
}
}
}
}
}
}
printf("Net latency benchmark done\n");
return 0;
}
static void run_benchmark(coreid_t core, int requests)
{
errval_t err;
struct capref ramcap;
int i = -1;
int bits = MEM_BITS;
debug_printf("starting benchmark. allocating mem of size: %d\n", bits);
//debug_printf("starting benchmark. allocating mem of size: %d to %d\n",
// MINSIZEBITS, MINSIZEBITS+requests-1);
sleep_init();
// NOTE: because this is allocating and freeing, it should never stop.
// it should also never have to steal
do {
i++;
// bits = MINSIZEBITS+i;
trace_event(TRACE_SUBSYS_MEMTEST, TRACE_EVENT_MEMTEST_ALLOC, i);
err = ram_alloc(&ramcap, bits);
if (err_is_fail(err)) {
DEBUG_ERR(err, "ram_alloc failed");
}
milli_sleep(1);
err = ram_free(ramcap);
if (err_is_fail(err)) {
DEBUG_ERR(err, "ram_free failed");
}
if ((i % 500 == 0) && (i > 0)) {
debug_printf("allocated %d caps\n", i);
}
} while (err_is_ok(err)); // && (i < requests));
debug_printf("done benchmark. allocated %d caps (%lu bytes)\n",
i, i * (1UL << bits));
}
/**
****************************************************************************************
* @brief BLE main function.
*
* This function is called right after the booting process has completed.
****************************************************************************************
*/
int main(void)
{
int ble_sleep_st, usr_sleep_st;
// DC-DC
dc_dc_enable(QN_DC_DC_ENABLE);
// QN platform initialization
#if QN_NVDS_WRITE
plf_init(QN_POWER_MODE, __XTAL, QN_32K_RCO, nvds_tmp_buf, NVDS_TMP_BUF_SIZE);
#else
plf_init(QN_POWER_MODE, __XTAL, QN_32K_RCO, NULL, 0);
#endif
#if (defined(QN_9020_B1) && (!QN_PMU_VOLTAGE))
disable_patch_b1();
#endif
// System initialization, user configuration
SystemInit();
// Profiles register
#if (QN_WORK_MODE != WORK_MODE_HCI)
prf_register();
#endif
// BLE stack initialization
// Notes:
// 1. When the chip works on Network Processor Mode, UART flow control signal is used to implement sleep mode.
// UART 's flow control feature shall be enabled. Enable this feature in the uart.c file.
// 2. Controller mode does not support sleep mode.
// 3. So far client example project does not support sleep mode. It will be implemented later.
// Check to go normal work mode or test mode.
// If the input of test control pin is low level, the program will enter into test mode, otherwise the program will
// enter into work mode which is defined in the user configuration file.
#if (defined(QN_TEST_CTRL_PIN))
if(gpio_read_pin(QN_TEST_CTRL_PIN) == GPIO_HIGH)
{
#endif
// Work mode defined in the usr_config.h
ble_init((enum WORK_MODE)QN_WORK_MODE, QN_HCI_PORT, QN_HCI_RD, QN_HCI_WR, ble_heap, BLE_HEAP_SIZE, QN_BLE_SLEEP);
#if (defined(QN_TEST_CTRL_PIN))
}
else
{
// Test mode (controller mode)
ble_init((enum WORK_MODE)WORK_MODE_HCI, QN_HCI_PORT, QN_HCI_RD, QN_HCI_WR, ble_heap, BLE_HEAP_SIZE, false);
// In the test mode, the program moniter test control pin. If the input of test control ping changes to low level,
// it means work mode should be switched to the mode defined in the user configuration file.
gpio_set_interrupt(QN_TEST_CTRL_PIN, GPIO_INT_HIGH_LEVEL);
gpio_enable_interrupt(QN_TEST_CTRL_PIN);
}
#endif
set_max_sleep_duration(QN_BLE_MAX_SLEEP_DUR);
// If QN902x works on wireless SoC mode, initialize APP task
#if (QN_WORK_MODE == WORK_MODE_SOC)
app_init();
#endif
usr_init();
sleep_init();
wakeup_by_sleep_timer(__32K_TYPE);
GLOBAL_INT_START();
while(1)
{
ke_schedule();
// Checks for sleep have to be done with interrupt disabled
GLOBAL_INT_DISABLE_WITHOUT_TUNER();
// Check whether the chip can enters sleep mode
//
// Chip enter sleep condition:
// +--------+--------+--------+--------+--------+
// | USR | | | | |
// | BLE | ACTIVE | IDLE | SLEEP | DEEP |
// +--------+--------+--------+--------+--------+
// | ACTIVE | active | active | active | active |
// | IDLE | active | idle | idle | idle |
// | SLEEP | active | idle | sleep | deep |
// +--------+--------+--------+--------+--------+
// Obtain the status of the user program
usr_sleep_st = usr_sleep();
// If the user program can be sleep or deep sleep then check ble status
if(usr_sleep_st != PM_ACTIVE)
{
// Obtain the status of ble sleep mode
ble_sleep_st = ble_sleep(usr_sleep_st);
// Check if the processor clock can be gated
if(((ble_sleep_st == PM_IDLE) || (usr_sleep_st == PM_IDLE))
&& (ble_sleep_st != PM_ACTIVE))
{
// Debug
//led_set(5, LED_OFF);
//led_set(4, LED_ON); // led4 is on when enter into gating mode
enter_sleep(SLEEP_CPU_CLK_OFF,
WAKEUP_BY_ALL_IRQ_SOURCE,
NULL);
// Debug
//led_set(4, LED_OFF);
//led_set(5, LED_ON); // led5 is on when enter into active mode
}
// Check if the processor can be power down
else if((ble_sleep_st == PM_SLEEP) && (usr_sleep_st == PM_SLEEP))
{
// Debug
//led_set(5, LED_OFF);
//led_set(3, LED_ON); // led3 is on when enter into sleep mode
enter_sleep(SLEEP_NORMAL,
(WAKEUP_BY_OSC_EN | WAKEUP_BY_GPIO),
sleep_cb);
// Debug
//led_set(3, LED_OFF);
//led_set(5, LED_ON); // led5 is on when enter into active mode
}
// Check if the system can be deep sleep
else if((ble_sleep_st == PM_SLEEP) && (usr_sleep_st == PM_DEEP_SLEEP))
{
// Debug
//led_set(5, LED_OFF);
//led_set(2, LED_ON); // led2 is on when enter into deep sleep mode
enter_sleep(SLEEP_DEEP,
WAKEUP_BY_GPIO,
sleep_cb);
// Debug
//led_set(2, LED_OFF);
//led_set(5, LED_ON); // led5 is on when enter into active mode
}
}
// Checks for sleep have to be done with interrupt disabled
GLOBAL_INT_RESTORE_WITHOUT_TUNER();
}
}
int main (void)
{
SystemInit();
#if 0
if (0x00000004 & inp32(0x40000038)) {
outp32(0x40000038, 0x80000000);
}
else {
Led_flash();
while(1);
}
#endif
/* Initialize GPIO */
gpio_init(cb_gpio);
#if TEST_SLEEP_NORMAL == TRUE
// --------------------------------------------
// sleep wakeup
// --------------------------------------------
//set all pin to gpio
syscon_SetPMCR0(QN_SYSCON, 0x00000000);
syscon_SetPMCR1(QN_SYSCON, 0x00000000);
//set all gpio input
gpio_set_direction_field(GPIO_PIN_ALL, GPIO_INPUT);
gpio_write_pin_field(GPIO_PIN_ALL, (uint32_t)GPIO_HIGH);
// pin pull ( 00 : High-Z, 01 : Pull-down, 10 : Pull-up, 11 : Reserved )
syscon_SetPPCR0(QN_SYSCON, 0xAAAA5AAA); // SWD pull-down save 20uA
syscon_SetPPCR1(QN_SYSCON, 0x2AAAAAAA);
// power down BUCK needed
syscon_SetIvrefX32WithMask(QN_SYSCON, SYSCON_MASK_BUCK_BYPASS|SYSCON_MASK_BUCK_DPD, MASK_ENABLE);
// power down Flash
syscon_SetPGCR2WithMask(QN_SYSCON, SYSCON_MASK_FLASH_VCC_EN, MASK_DISABLE);
// enable dbg power down
syscon_SetPGCR2WithMask(QN_SYSCON, SYSCON_MASK_DBGPMUENABLE, MASK_ENABLE);
// dis sar adc buffer
syscon_SetPGCR1WithMask(QN_SYSCON, SYSCON_MASK_DIS_SAR_BUF, MASK_ENABLE);
Led_flash();
do {
delay(10);
} while (gpio_read_pin(GPIO_P14) == GPIO_HIGH);
sleep_init();
wakeup_by_sleep_timer(__32K_TYPE);
wakeup_by_gpio(GPIO_P15, GPIO_WKUP_BY_LOW);
do {
gpio_set_direction(GPIO_P01, GPIO_INPUT);
//enter_sleep(SLEEP_NORMAL, WAKEUP_BY_GPIO, Led_flash);
if (wakeup_from_sleeptimer) {
sleep_timer_set(32000);
wakeup_from_sleeptimer = 0;
#if QN_32K_RCO == TRUE
clock_32k_correction_enable(clock_32k_correction_cb);
#endif
}
#if QN_32K_RCO == TRUE
if (gpio_sleep_allowed() && !dev_get_bf())
#else
if (gpio_sleep_allowed())
#endif
enter_sleep(SLEEP_NORMAL, WAKEUP_BY_OSC_EN|WAKEUP_BY_GPIO, Led_flash);
} while(1);
#endif
#if TEST_SLEEP_DEEP == TRUE
// --------------------------------------------
// deep sleep wakeup
// --------------------------------------------
//set all pin to gpio
syscon_SetPMCR0(QN_SYSCON, 0x00000000);
syscon_SetPMCR1(QN_SYSCON, 0x00000000);
//set all gpio input
gpio_set_direction_field(GPIO_PIN_ALL, (uint32_t)GPIO_INPUT);
gpio_write_pin_field(GPIO_PIN_ALL, (uint32_t)GPIO_HIGH);
// pin pull ( 00 : High-Z, 01 : Pull-down, 10 : Pull-up, 11 : Reserved )
syscon_SetPPCR0(QN_SYSCON, 0xAAAA5AAA); // SWD pull-down save 20uA
syscon_SetPPCR1(QN_SYSCON, 0x2AAAAAAA);
// power down BUCK needed
syscon_SetIvrefX32WithMask(QN_SYSCON, SYSCON_MASK_BUCK_BYPASS|SYSCON_MASK_BUCK_DPD, MASK_ENABLE);
// power down Flash
syscon_SetPGCR2WithMask(QN_SYSCON, SYSCON_MASK_FLASH_VCC_EN, MASK_DISABLE);
// enable dbg power down
syscon_SetPGCR2WithMask(QN_SYSCON, SYSCON_MASK_DBGPMUENABLE, MASK_ENABLE);
// dis sar adc buffer
syscon_SetPGCR1WithMask(QN_SYSCON, SYSCON_MASK_DIS_SAR_BUF, MASK_ENABLE);
Led_flash();
do {
delay(10);
} while (gpio_read_pin(GPIO_P14) == GPIO_HIGH);
sleep_init();
do {
gpio_set_direction(GPIO_P01, GPIO_INPUT);
wakeup_by_gpio(GPIO_P15, GPIO_WKUP_BY_CHANGE);
enter_sleep(SLEEP_DEEP, WAKEUP_BY_GPIO, Led_flash);
} while(1);
#endif
#if TEST_SLEEP_CPU_CLK_OFF == TRUE
// --------------------------------------------
// clock gating
// --------------------------------------------
// Set timer 0 wakeup
timer_init(QN_TIMER0, NULL);
timer_config(QN_TIMER0, TIMER_PSCAL_DIV, TIMER_COUNT_MS(1000, TIMER_PSCAL_DIV));
timer_enable(QN_TIMER0, MASK_ENABLE);
sleep_init();
do {
enter_sleep(SLEEP_CPU_CLK_OFF, WAKEUP_BY_TIMER0, NULL);
Led_flash();
}
while(1);
#endif
}
