void FlyportTask()
{
vTaskDelay(100);
UARTWrite(1,"Welcome to GROVE NEST example!\r\n");
// GROVE board
void *board = new(GroveNest);
void *tempAn = new(An_Temp);
// Attach devices
attachToBoard(board, tempAn, AN1);
float anVal = 0.0;
char mess[50];
char msg[50];
// Connection to Network
#if defined (FLYPORT_WF)
WFConnect(WF_DEFAULT);
while (WFStatus != CONNECTED);
#endif
#if defined (FLYPORTETH)
while(!MACLinked);
#endif
UARTWrite(1,"Flyport connected... hello world!\r\n");
vTaskDelay(200);
while(1)
{
postSensorValue("temperature", (double)(get(tempAn)), "1377515972748279ff7a4b8ee4b27ba6f6db0412227ba");
vTaskDelay(6000);
}
}
void FlyportTask()
{
void *board = new(Board,GROVE1);
void *rgb1 = new(Rgb,2);
void *rgb2 = new(Rgb,2);
void *rgb3 = new(Rgb,2);
attachSensorToBoard(board,rgb1,PORT1);
attachSensorToBoard(board,rgb2,PORT2);
attachSensorToBoard(board,rgb3,PORT3);
set(rgb1,OFF);
set(rgb2,OFF);
set(rgb3,OFF);
WFConnect(WF_DEFAULT);
while (WFStatus != CONNECTED);
UARTWrite(1,"Flyport connected.\r\n");
while(1)
{
switch(status)
{
case SLEEPER:
if(prevstatus!=(int)status)
{
prevstatus = status;
UARTWrite(1,"Mood:: Sleeper!\r\n");
set(rgb1,OFF);
set(rgb2,OFF);
set(rgb3,OFF);
}
break;
case SLACKER:
if(prevstatus!=(int)status)
{
prevstatus = status;
UARTWrite(1,"Mood:: Slacker!\r\n");
}
slackerLeds(rgb1, rgb2, rgb3);
vTaskDelay(1);
break;
case ROCKER:
if(prevstatus!=(int)status)
{
prevstatus = status;
UARTWrite(1,"Mood:: Rocker!\r\n");
}
rockerLeds(rgb1, rgb2, rgb3);
vTaskDelay(5);
break;
case HACKER:
if(prevstatus!=(int)status)
{
prevstatus = status;
UARTWrite(1,"Mood:: Hacker!\r\n");
}
hackerLeds(rgb1, rgb2, rgb3);
vTaskDelay(10);
break;
}
}
}
//void opt_handle_time()
void optimization()
{
UARTWrite(1,"Optimization Mode Enabled");
opt_trig=0;
on_flag=0;
off_flag=0;
if(profile.OnType==MOTION) //intializing motion triggered interrupt
{
//IOInit(PIR_PORT,inup);
IOInit(PIR_PORT, EXT_INT2);
INTInit(2, external_interrupt_function, 0);
INTEnable(2);
}
alarmflag_opt = 0;
while(1)
{
if(on_flag==1)
{
on_flag=0;
opt_trig=0;
sprintf(input,"\nLast Wifi Status : %d\n\n",WFStatus);
UARTWrite(1,input);
UARTWrite(1,"Wi-Fi transceiver activation...\r\n");
WFOn();
while (WFStatus == TURNED_OFF);
UARTWrite(1,"Wi-Fi On\r\n");
//to check if Custom profile exists then load it or otherwise load the default profile after turning on wif
if(NETCustomExist())
{
WFConnect(WF_CUSTOM);
}
else
{
WFConnect(WF_DEFAULT);
}
while (WFStatus != CONNECTED);
tcp_socket_handle();//to reset tcp socket
}
if(off_flag==1)
{
off_flag=0;
opt_trig=0;
if(profile.AppEnable)
{publish_handle();}//to publish any data present before going to sleep
sprintf(input,"\nLast Wifi Status : %d\n\n",WFStatus);
UARTWrite(1,input);
if(profile.OptLevel==LVL_WIFI)
{
UARTWrite(1,"Turning Wifi OFF.. \r\n");
WFHibernate();
}
else if(profile.OptLevel==LVL_MICROCONTROLLER)
{
UARTWrite(1,"Turning Wifi OFF and Putting Flyport to SLEEP.. \r\n");
WFSleep();
}
}
// Check RTCC alarm flag
//Added alarmflag_opt in rttc.c file and clock.h
if(alarmflag_opt == 1)
{
opt_trig++;
alarmflag_opt = 0;
vTaskDelay(1);
//UARTWrite(1, "OPT Rtcc ALARM!!!\r\n\n\n");
if(WFStatus==TURNED_OFF)
{
if(profile.OnType==TIME)
{
if(opt_trig>=profile.OffTime)
{
on_flag=1;
}
}
}
else
{
if(opt_trig>=profile.OnTime)
{
off_flag=1;
}
}
}
}
}
void FlyportTask()
{
vTaskDelay(100);
UARTWrite(1,"LHINGS on GROVE NEST example!\r\n");
// Action & Status vars.
char mEventMsg[] = "PIR_Picus: Someone is moving here!";
BOOL LedStatus = FALSE;
int mCont = 0;
// GROVE board
void *board = new(GroveNest);
// GROVE devices
// Digital Input/outputs
void *button = new(Dig_io, IN); // Button/PIR sensor
attachToBoard(board, button, DIG1);
void *led = new(Dig_io, OUT); // Led
attachToBoard(board, led, DIG2);
// Connection to Network
#if defined (FLYPORT)
WFConnect(WF_DEFAULT);
while (WFStatus != CONNECTED);
#endif
#if defined (FLYPORTETH)
while(!MACLinked);
#endif
UARTWrite(1,"Flyport connected!\r\n");
vTaskDelay(200);
//Turn on/off onboard leds
IOPut(D4Out, on);
IOPut(D5Out, off);
// ** INITIALIZE LHINGS **
// Init. Lhings engine
if(!LhingsBegin(LHINGS_DEVNAME, LHINGS_DEVUUID, LHINGS_USERNAME, LHINGS_APIKEY))
UARTWrite(1,"ERROR: Lhings access vars. out of range\r\n");
// Initialize Led status
set(led, OFF);
LedStatus = FALSE;
// Set ** LHINGS STATUS vars. **
// Set the Value of the Status vars. defined above in Lhings_StatusList[]
LhingsStatusWrite("Led status", "off");
while(1)
{
// ** Lhings LOOP **
LhingsLoop();
// Check pressure of button / motion detected by PIR sensor
if((get(button) != 0) && (mCont==0))
{
// Event detected: Publish it in Lhings with a Payload message
LhingsEventWrite_withPayload("motion", mEventMsg, strlen(mEventMsg), EVT_PAYLOAD);
UARTWrite(1, "DIG1 motion detected!\r\n");
vTaskDelay(20);
// Initialize detection delay counter for PIR sensor
mCont = 0x0025;
if(LedStatus){
set(led, OFF);
LedStatus = FALSE;
// Set ** LHINGS STATUS vars. **
// Set the Value of the Status vars. defined above in Lhings_StatusList[]
LhingsStatusWrite("Led status", "off");
}
else{
set(led, ON);
LedStatus = TRUE;
// Set ** LHINGS STATUS vars. **
// Set the Value of the Status vars. defined above in Lhings_StatusList[]
LhingsStatusWrite("Led status", "on");
}
}
// Process PIR sensor delay
if(mCont != 0){
vTaskDelay(5);
mCont--;
}
// Check ** LHINGS ACTION ** reception of "switch" action
if(LhingsActionAvailable("switch")){
UARTWrite(1,"Action received: switch\r\n");
if(LedStatus){
set(led, OFF);
LedStatus = FALSE;
// Set ** LHINGS STATUS vars. **
// Set the Value of the Status vars. defined above in Lhings_StatusList[]
LhingsStatusWrite("Led status", "off");
}
else{
set(led, ON);
LedStatus = TRUE;
// Set ** LHINGS STATUS vars. **
// Set the Value of the Status vars. defined above in Lhings_StatusList[]
LhingsStatusWrite("Led status", "on");
}
}
}
}
