void rfSendData(void)
{
uint8 pTxData[20];
uint8 ret;
// Keep Receiver off when not needed to save power
basicRfReceiveOff();
//sprintf(pTxData,"distince:%u CM.", uWaveDistance());
printf("goto while...\r\n");
// Main loop
while (TRUE) {
printf("in while...\r\n");
dht11_update(pTxData);
printf("get data ok...\r\n");
ret = basicRfSendPacket(RECV_ADDR, pTxData, sizeof pTxData);
if (ret == SUCCESS) {
printf("send msg ok!!!\r\n");
hal_led_on(1);
halMcuWaitMs(100);
hal_led_off(1);
halMcuWaitMs(900);
} else {
printf("send msg error!!!\r\n");
hal_led_on(1);
halMcuWaitMs(1000);
hal_led_off(1);
}
}
}
void rfSendData(void)
{
uint8 pTxData[20] ={'l','i','y','a','n','f','e','n','g','v','5','8','7','a','b',0};
uint8 ret;
uint8 recvCnt=0;
uint8 ch=0;
// Keep Receiver off when not needed to save power
basicRfReceiveOff();
// Main loop
while (TRUE) {
recvCnt=0;
ret = basicRfSendPacket(0xffff, pTxData, sizeof pTxData); //广播地址
if (ret == SUCCESS) {
printf("send msg ok\r\n");
hal_led_on(1);
halMcuWaitMs(100);
hal_led_off(1);
halMcuWaitMs(900);
} else {
printf("send msg error\r\n");
hal_led_on(1);
halMcuWaitMs(1000);
hal_led_off(1);
}
}
}
__interrupt void T1_ISR(void)
{
++counter;
if(counter>myrate){
counter=0;
dht11_update();
sprintf(pTsxData,"shidu:%utmp%u℃\r\n", gdat1, gdat2);
//printf("sensor data.....");
//printf(pTsxData);
//printf("\r\n");
ret = basicRfSendPacket(0xffff, pTsxData, sizeof pTsxData);
ledflashcounter=8;
hal_led_on(1);
/*if (ret == SUCCESS) {
printf("send msg ok\r\n");
} else {
printf("send msg error\r\n");
}*/
}
if(ledflashcounter>0)
{
--ledflashcounter;
if(ledflashcounter==0)
{
hal_led_off(1);
}
}
T1IF=0;
}
void hal_cpu_enable_irqs_and_sleep(void){
hal_led_off();
__enable_irq();
__asm__("wfe"); // go to sleep if event flag isn't set. if set, just clear it. IRQs set event flag
// note: hal_uart_needed_during_sleep can be used to disable peripheral clock if it's not needed for a timer
hal_led_on();
}
extern eOresult_t eo_theEMSdgn_checkEthLinksStatus_quickly(EOTheEMSdiagnostics_t* p, uint8_t *link1_isup, uint8_t *link2_isup)
{
// uint8_t PHYaddr = 0x1;
// uint8_t REGaddr = 0x1;
// uint16_t status_link;
char str[50];
// #define LINK_IS_UP 0x00000004
uint8_t linkst_mask, links_num;
static uint8_t link_st[2] = {0};
uint8_t state2notify = 0;
if((NULL == p) || (NULL == link1_isup) || (NULL == link2_isup))
{
return(eores_NOK_nullpointer);
}
hal_eth_check_links(&linkst_mask, &links_num);
if((linkst_mask & 0x01) == 0x01)
{
*link1_isup = 1;
if(link_st[0] == 0)
{
snprintf(str, sizeof(str)-1, "Link 0 down --> up (mask=%d)", linkst_mask);
hal_trace_puts(str);
link_st[0] = 1;
state2notify = 1;
}
}
else
{
hal_led_on(hal_led1);
if(link_st[0] == 1)
{
snprintf(str, sizeof(str)-1, "Link 0 up --> down (mask=%d)", linkst_mask);
hal_trace_puts(str);
link_st[0] = 0;
state2notify = 1;
}
}
if((linkst_mask & 0x02) == 0x02)
{
*link2_isup = 1;
if(link_st[1] == 0)
{
snprintf(str, sizeof(str)-1, "Link 1 down --> up (mask=%d)", linkst_mask);
hal_trace_puts(str);
link_st[1] = 1;
state2notify = 1;
}
}
else
{
hal_led_on(hal_led2);
if(link_st[1] == 1)
{
snprintf(str, sizeof(str)-1, "Link 1 up --> down (mask=%d)", linkst_mask);
hal_trace_puts(str);
link_st[1] = 0;
state2notify = 1;
}
}
if(state2notify)
{
eo_dgn_emsperiph.eth_dev.linksmask = linkst_mask;
eo_theEMSdgn_Signalerror(&s_thedgn, eodgn_nvidbdoor_emsperiph , 0);
snprintf(str, sizeof(str)-1, "Signal error %d ", linkst_mask);
hal_trace_puts(str);
}
// snprintf(str, sizeof(str)-1, "LINKs mask %d ", linkst_mask);
// hal_trace_puts(str);
// *link1_isup = 0;
// *link2_isup = 0;
//
// status_link = hal_eth_smi_read(PHYaddr, REGaddr);
// if(EO_COMMON_CHECK_FLAG(status_link, LINK_IS_UP))
// {
// *link1_isup = 1;
// snprintf(str, sizeof(str)-1, "LINK 1 is up!! %d", status_link);
// hal_trace_puts(str);
// }
//
// PHYaddr = 0x2;
// status_link = hal_eth_smi_read(PHYaddr, REGaddr);
// if(EO_COMMON_CHECK_FLAG(status_link, LINK_IS_UP))
// {
// *link2_isup = 1;
// snprintf(str, sizeof(str)-1, "LINK 2 is up!! %d", status_link);
// hal_trace_puts(str);
// }
return(eores_OK);
}
