//
//--------------------------------PUBLIQUES---AREA-----------
//
void RfInit(void) {
#ifdef LSMAKER_BASE
Canal = 0; // De moment...
// Preparo els ports del SP1
_TRISF1 = 0; // El chip select, de sortida
_TRISF0 = 0; // El de l'eeprom també, i tots dos a 1
_LATF0 = 1;
_LATF1 = 1;
// Inicialitzo variables.
Inici = Fi = Quants = Promis = IniciU = FiU = QuantsU = 0;
// Inicialitzo el transceptor
RadioInit();
// Activo Interrupcio INT0
IFS0bits.INT0IF = 0; // Esborro el flag
INTCON2bits.INT0EP = 1; // Programo interrupció per flanc de baixada.
IEC0bits.INT0IE = 1; // Activo l'entrada d'interrupció.
#else
// Canal = canal;
Canal = 0; // De moment...
// Preparo els ports del SP1
_TRISB10 = 0; // El chip select, de sortida
_LATB10 = 1;
// EL bit RB12 no pot ser analògic
AD1PCFGbits.PCFG12 = 1;
// Inicialitzo variables.
Inici = Fi = Quants = Promis = IniciU = FiU = QuantsU = 0;
// Inicialitzo el transceptor
RadioInit();
// Activo Interrupcio INT0
IFS0bits.INT0IF = 0; // Esborro el flag
INTCON2bits.INT0EP = 1; // Programo interrupció per flanc de baixada.
IEC0bits.INT0IE = 1; // Activo l'entrada d'interrupció.
#endif
}
/*
* function for initialise the Radio
*/
void Radio_init(void) {
// Initialise the Radio
if (RIE_Response == RIE_Success)
RIE_Response = RadioInit(DR_38_4kbps_Dev20kHz);
// Set the Frequency to operate at 915 MHz
if (RIE_Response == RIE_Success)
RIE_Response = RadioSetFrequency(915000000);
}
void VoiceFunction()
{
if(TotalDrop == 3)
{
Play_Drop_Start();
VoiceDelayNum = 50; //100ms
}
if((RateDisplayFlag == 3) &&(TotalDrop>0))
{
Play_Drop_Stop();
RadioInit(); //cc1101 ³õʼ»¯
}
// if(BatteyLevel == 0)
// {
// Play_LowBattery();
// }
}
/*******************************************************************************
main
Software entry point
Purpose of this software is to listen & inject Z-Wave packet
Is essential a bidirectional Serial to Z-Wave bridge
Can be used to either be part of a home automation system (my case),
or create havoc. USE RESPONSIBLY.
Requires a CC1110DK
Compiled with Keil c51 v952
*******************************************************************************/
void main(void)
{
unsigned char Idx = 0; /* General For Loop Counter */
CLKCON = 0x00; /* Select the High speed crystal oscillator */
while((CLKCON & OSC) != 0)
{
/* Wait for change to take effect */
}
/* Configure Pins */
P0SEL = (PX_5_PERIPHERAL | PX_4_PERIPHERAL | PX_3_PERIPHERAL | PX_2_PERIPHERAL); /* Schematics of the mini devkit user guide p25 shows the serial port uses: P0_3 as Tx, P0_2 as Rx */
P1DIR = (PX_1_OUT | PX_0_OUT); /* Schematics of the mini devkit user guide p25 show Green LED uses P1_0 and the Red LED P1_1 */
UART0Init(BAUD_115200); /* Configures UART0 */
InfoBanner();
RadioInit(); /* Configure the TI chip Radio */
/* UART RX Test */
//UARTRxByteCount = 5; //wait for 5 bytes
//UART0Rx();
//for(Idx = 0; Idx < UARTRxByteCount ; Idx++)
//{
// UARTTxMessageBuild(UARTRxBytes[Idx] + 1); /* Print the next char for a laugth */
//}
//UART0Tx();
/* Dummy Data to test Radio Tx */
RadioTxMessageBuild(0x01);
RadioTxMessageBuild(0x23);
RadioTxMessageBuild(0x45);
RadioTxMessageBuild(0x67);
RadioTxMessageBuild(0x89);
/*
RadioTxMessageBuild(0xAB);
RadioTxMessageBuild(0xCD);
RadioTxMessageBuild(0xEF);
RadioTxMessageBuild(0x01);
RadioTxMessageBuild(0x23);
RadioTxMessageBuild(0x45);
RadioTxMessageBuild(0x67);
RadioTxMessageBuild(0x89);
RadioTxMessageBuild(0xAB);
RadioTxMessageBuild(0xCD);
RadioTxMessageBuild(0xEF);
RadioTxMessageBuild(0x01);
RadioTxMessageBuild(0x23);
RadioTxMessageBuild(0x45);
RadioTxMessageBuild(0x67);
RadioTxMessageBuild(0x89);
*/
while(1) /* Forever Loop */
{
MARCSTATECurrent = MARCSTATE;
/* LED Controls */
PinLEDGreen = (MARCSTATECurrent == RX) ? 1 : 0 ; /* When radio receives, Green LED should be lit */
PinLEDRed = (MARCSTATECurrent == TX) ? 1 : 0 ; /* When radio trasmits, Red LED should be lit */
switch(MARCSTATECurrent)
{
case IDLE:
if(RadioRxBytesCount > 0)
{
/* Print the number of radio bytes received */
UARTTxMessageBuild('R');
UARTTxMessageBuild('x');
UARTTxMessageBuild('B');
UARTTxMessageBuild(' ');
UARTTxMessageBuild('=');
UARTTxMessageBuild(' ');
UART0Tx();
UtilU8ToHumanDec(RadioRxBytesCount);
UARTTxMessageBuild('\r');
UARTTxMessageBuild('\n');
UART0Tx();
/* Print the received radio bytes */
UARTTxMessageBuild('R');
UARTTxMessageBuild('x');
UARTTxMessageBuild('D');
UARTTxMessageBuild(' ');
UARTTxMessageBuild('=');
UARTTxMessageBuild(' ');
UART0Tx();
for(Idx = 0; Idx < RadioRxBytesCount; Idx++)
{
UtilU8ToHumanHex(RadioRxBytes[Idx]);
}
RadioRxBytesCount = 0; /* Reset Radio Data IN counter */
UARTTxMessageBuild('\r');
UARTTxMessageBuild('\n');
UART0Tx();
}
RadioTxBytesCountOut = 0; /* Reset Radio Data OUT counter */
/* Always go back to Rx Mode by Default, unless master switch is pushed */
if(PinSwitchMaster == 0)
{
PKTLEN = RadioTxBytesCountIn;
RFST = STX; /* Enter Radio TX state by issuing an SRX strobe command */
}
else
{
PKTLEN = 25;
RFST = SRX; /* Enter Radio RX state by issuing an SRX strobe command */
}
break;
case RX:
if(RFTXRXIF != 0)
{
RFTXRXIF = 0; /* Specs say to clear f*g BEFORE reading (p188) */
RadioRxBytes[RadioRxBytesCount] = ~RFD;
RadioRxBytesCount++;
}
break;
case RX_OVERFLOW:
RFST = SIDLE; /* Return to Idle state to continue */
break;
case TX:
/* Print Radio State Info */
UARTTxMessageBuild('S');
UARTTxMessageBuild('t');
UARTTxMessageBuild('M');
UARTTxMessageBuild(' ');
UARTTxMessageBuild('=');
UARTTxMessageBuild(' ');
UART0Tx();
UtilU8ToHumanHex(MARCSTATECurrent);
UARTTxMessageBuild('\r');
UARTTxMessageBuild('\n');
UART0Tx();
while(RadioTxBytesCountOut < RadioTxBytesCountIn)
{
if(RFTXRXIF != 0)
{
RFD = ~RadioTxBytes[RadioTxBytesCountOut];
RFTXRXIF = 0;
RadioTxBytesCountOut++;
}
}
//RadioTxBytesCountIn = 0; /* Reset the Radio TX Data IN index */
RFST = SIDLE; /* Return to Idle state to continue */
break;
case TX_UNDERFLOW:
UARTTxMessageBuild('S');
UARTTxMessageBuild('t');
UARTTxMessageBuild('M');
UARTTxMessageBuild(' ');
UARTTxMessageBuild('=');
UARTTxMessageBuild(' ');
UART0Tx();
UtilU8ToHumanHex(MARCSTATECurrent);
UARTTxMessageBuild('\r');
UARTTxMessageBuild('\n');
UART0Tx();
RFST = SIDLE; /* Return to Idle state to continue */
break;
default:
/* Push both buttons at the same time to leave a locked unknown current state without a reset */
if((PinSwitchMaster == 0) && (PinSwitchSlave == 0))
{
/* Print Radio State Info */
UARTTxMessageBuild('S');
UARTTxMessageBuild('t');
UARTTxMessageBuild('M');
UARTTxMessageBuild(' ');
UARTTxMessageBuild('=');
UARTTxMessageBuild(' ');
UART0Tx();
UtilU8ToHumanHex(MARCSTATECurrent);
UARTTxMessageBuild('\r');
UARTTxMessageBuild('\n');
UART0Tx();
RFST = SIDLE; /* Return to Idle state to continue */
}
break;
}
MARCSTATEPrevious = MARCSTATECurrent;
}
}
