ARMV5::ARMV5(sc_module_name name, uint32_t addr, bool using_gdb, unsigned int gdb_port): sc_module(name)
{
this->core_id = 0;
cp15.c0_idcode = 0x41069265;
cp15.c0_cachetype = 0x1dd20d2;
cp15.c0_cachetype = 0x1d112152;
gdb = 0;
this->using_gdb = using_gdb;
this->gdb_port = gdb_port;
gdb_init = false;
using_prog = false;
bkptRemove(); // clear all break points
watchRemove(); // clear all watch points
rfInit(addr);
cpInit();
cacheInit();
delay = 0;
mmu_enable = false;
icache_enable = false;
dcache_enable = false;
vectorHi = false;
/* start to simulate */
SC_THREAD(run);
sensitive << clk.pos();
//dont_initialize();
SC_METHOD(shared_event_listener);
sensitive << ARMV5::shared_event;
SC_METHOD(irq_n_listener);
sensitive << irq_n.neg();
}
// -----------------------------------------------------------------------------
// Le programme principal
int
main (void) {
vLedInit();
vSerialInit (DEBUG_BAUDRATE / 100, SERIAL_DEFAULT + SERIAL_RW);
stdout = &xSerialPort;
printf_P (PSTR("\r\riDwaRF - Firmware v" __IDWARF_VERSION_STRING__ " Hub version\n\n"));
// initialise le firmware iDwaRF
printf_P(PSTR("Init... "));
rfInit(); // les interruptions sont validées...
vPrintOk();
// Enregistre les fonctions de traitement de l'utilisateur
printf_P(PSTR("Register Call Back functions... "));
rfRegisterCBSensorDataReceived (vSensorPacketReceived);
vPrintOk();
vPrintStatus();
vPrintBeaconTime();
vPrintHelp();
puts_P(PSTR("\nProcess All ..."));
for (;;) {
// la boucle principale gère les événements du réseau...
rfProcessAll();
// if the serial callback has set this flag, there is new data to be processed.
// done here to prevent overload in the callback function
if (usSerialHit()) {
vProcessRxData();
}
// show the saved data received with the last sensor packet
// OutStr takes some time - that's the reason why it is done here!
// ucData holds the data and ucDataLen is the amount of data stored in ucData.
if (ucDataLen > 0) {
uint8_t * pucData = ucData;
if ((ucFlags & HEX_FLAG) == 0) { // show data user friendly
if (ucDataLen >= 1) {
// Push Button state - 1 byte
printf_P (PSTR("Button %s"), (*pucData++ != 0 ? "ON " : "off"));
}
if (ucDataLen >= 2) {
uint8_t ucBatt;
// Battery voltage - 1 byte
ucBatt = *pucData++;
printf_P (PSTR(" Batt <0x%02X> %.2fV"), ucBatt, ADC_SCALE * (float) ucBatt / 256.0);
}
if (ucDataLen >= 4) {
int16_t iTemp;
// Temperature value - 2 bytes
iTemp = (*pucData++) << 8;
iTemp += *pucData++;
printf_P (PSTR(" Temp (0x%02X) %.1foC"), iTemp, (float)iTemp / 10.0);
}
if (ucDataLen >= 5) {
// Light Dependent Resistor value - 1 byte
printf_P (PSTR(" Ldr %d"), *pucData++);
}
}
while (pucData < (ucData + ucDataLen)) {
printf_P (PSTR("%02X "), *pucData++);
}
// show the payload size
printf_P (PSTR("> len=%d\n"), ucDataLen);
ucDataLen = 0; // reset. Otherwise this data is displayed non stop.
}
}
}
// -----------------------------------------------------------------------------
// the main entry for the user Software
int
main (void) {
bool xOldButton = false;
vLedInit();
vButInit();
prvvDebugInit();
vDbgPuts_P (PSTR("Testcode for the tutorial - hub style\r"));
// initialize the RF - Firmware
rfInit();
// register callback: function called, each time a sensor data packet is received
rfRegisterCBSensorDataReceived (cbSensorPacketReceived);
// the main loop
for (;;) {
if (xButGet(BUTTON) == BUTTON) {
if (xOldButton == false) {
// debug output
for (uint8_t n = 0; n < 10; n ++) {
vDbgPutDec (ucValid[n]);
vDbgPutc ('.');
}
vDbgPutc (' ');
// search for the next value sensor id
for (ucValue++; ucValue < 10; ucValue++) {
if (ucValid[ucValue])
break;
}
if (ucValue == 10) { // if overflow | no sensor ucValid, search again
for (ucValue = 0; ucValue < 10; ucValue++) {
if (ucValid[ucValue])
break;
}
}
if (ucValue == 10)
ucValue = 0; // no sensor ucValid - fallback to id 0
// debug output
vDbgPutDec (ucValue);
vDbgPutc (' ');
// mark all sensors as not ucValid for the next iteration
for (uint8_t n = 0; n < 10; n++) {
ucValid[n] = 0;
}
xOldButton = true;
}
}
else {
if (xOldButton == true)
xOldButton = false;
}
rfProcessAll();
}
}
void main( void )
{
u8 i, ucChar, *ucEeproms, ucBuffer[ 40 ];
sysInit();
socketInit();
rfInit();
print( COM3, "\rV2 RFID: 0x%X", socketGetID());
//mpl115a2Init( TX1, RX1, NONE, NONE );
//print( COM3, "\rPressure: %f", mpl115a2ReadkPa() );
//print( COM3, "\rTemp: %f", mpl115a2ReadTemp() );
//i2cConfig( &globalGasSensorDigipot, DIGIPOT_BASEADDRESS|3, TX1, RX1, I2CSPEEDFAST );
//digipotSetWiper( &globalGasSensorDigipot, 2, 0 );
//eepromOpen( 0x2F, TX1, RX1, NONE );
//eepromPutString( 0, "Test" );
pinConfig( MCO, OUT );
pinSet( MCO, HIGH );
gasSensorInit();
//print( COM3, "\rGas Sensor: %f", gasSensorRead() );
//gasSensorSetGain( 0,0 );
//print( COM3, "\rGas Sensor: %f", gasSensorRead() );
//gasSensorSetGain( 200,200 );
//print( COM3, "\rGas Sensor: %f", gasSensorRead() );
//eepromGetBuffer( 0, ucBuffer, len( "test" ) );
//print( COM3, "\rEeprom: ucBuffer );
//print( COM3, "\rEEPROM Direct Read: " );
/*for( i = 0; i < len( "test" ); i++ ){
ucChar = eepromGetChar( i );
if( isAlphaOrNumeric( ucChar ) ) {
print( COM3, "%c", ucChar );
} else{
print( COM3, "(%d)", ucChar );//ucBuffer, len( "humidity" ) );
} // else
} // for
*/
/*
// Test for LCD code
if( isStringSame( ucBuffer, "<shield lcd>" ) ){
print( COM3, "\rLCD Shield Detected" );
fileOpenResource( &fileFont, (u8*)PYGMY_orbitron18 );
fontLoad( &fileFont, &fontOrbitron18 );
fontSetAll( &fontOrbitron18 );
pinConfig( A0, PULLUP );
pinConfig( D3, PULLUP );
pinConfig( TA0, PULLUP );
pinConfig( DAC1, PULLUP );
pinConfig( DAC2, PULLUP );
pinConfig( TX2, PULLUP );
pinConfig( RX2, PULLUP );
drawMainMenu();
} else{
hih5030Init( A2, A3 );
} // else
*/
//taskNewSimple( "humidity", 1000, (void*)threadRFHumiditySave );
//gemInit();
//fileOpen( &pygmyFile, "picon128", READ );
//drawImage( 0,0, &pygmyFile, 0 );
/*ucBuffer = sysAllocate( 5 );
copyString( "Test", ucBuffer );
ucBuffer = sysReallocate( ucBuffer, 20 );
appendString( "ThisToo", ucBuffer );
print( COM3, "\rTest String: %s", ucBuffer );*/
//pinConfig( SHIELD_CENTER, PULLUP );
//pinInterrupt( gemClickMenu, SHIELD_CENTER, TRIGGER_RISING|TRIGGER_FALLING );
//drawRect( 0, 20, 127, 40, VISIBLE|BORDER|ROUNDED, 8);
//gemDrawMenu();
//drawWidget( &btnOK );
//gemInit();
//sysFree( ucBuffer );
//fileOpen( &pygmyFile, "jpeg", READ );
//drawJPEG( &pygmyFile, 0, 0 );
//drawPNG( &pygmyFile, 0, 0 );
/*mstatsTemp mstats();
print( COM3, "\rbytes_total: %d", bytes_total );
print( COM3, "\rchunks_used: %d", chunks_used );
print( COM3, "\rbytes_used: %d", bytes_used );
print( COM3, "\rchunks_free: %d", chunks_free );
print( COM3, "\rbytes_free: %d", bytes_free );*/
while(1){;}
}
