/** Read 4-byte page.
*
* @param page Page number
*/
void SL018::readPage(byte page)
{
data[0] = 2;
data[1] = CMD_READ4;
data[2] = page;
transmitData();
}
/** Read 16-byte block.
*
* @param block Block number
*/
void SL018::readBlock(byte block)
{
data[0] = 2;
data[1] = CMD_READ16;
data[2] = block;
transmitData();
}
DeviceManager::DeviceError DevicePluginConrad::executeAction(Device *device, const Action &action)
{
QList<int> rawData;
QByteArray binCode;
int repetitions = 10;
if (action.actionTypeId() == upActionTypeId) {
binCode = "10101000";
} else if (action.actionTypeId() == downActionTypeId) {
binCode = "10100000";
} else if (action.actionTypeId() == syncActionTypeId) {
binCode = "10100000";
repetitions = 20;
} else {
return DeviceManager::DeviceErrorActionTypeNotFound;
}
// append ID
binCode.append("100101010110011000000001");
//QByteArray remoteId = "100101010110011000000001";
// QByteArray motionDetectorId = "100100100101101101101010";
//QByteArray wallSwitchId = "000001001101000010110110";
// QByteArray randomID = "100010101010111010101010";
// =======================================
//create rawData timings list
int delay = 650;
// sync signal
rawData.append(1);
rawData.append(10);
// add the code
foreach (QChar c, binCode) {
if(c == '0'){
rawData.append(1);
rawData.append(2);
}
if(c == '1'){
rawData.append(2);
rawData.append(1);
}
}
// =======================================
// send data to driver
if(transmitData(delay, rawData, repetitions)){
qCDebug(dcRF433) << "transmitted successfully" << pluginName() << device->name() << action.actionTypeId();
return DeviceManager::DeviceErrorNoError;
}else{
qCWarning(dcRF433) << "could not transmitt" << pluginName() << device->name() << action.actionTypeId();
return DeviceManager::DeviceErrorHardwareNotAvailable;
}
}
void transmitString(const char * pString)
{
int index = 0;
while(pString[index])
{
transmitData(pString[index++]);
}
}
/** Write master key (key A).
*
* @param sector Sector number
* @param key Key value (6 bytes)
*/
void SL018::writeKey(byte sector, byte key[6])
{
data[0] = 8;
data[1] = CMD_WRITE_KEY;
data[2] = sector;
memcpy(data + 3, key, 6);
transmitData();
}
/** Turns on/off the RF field.
*
* @param level 0 is off, anything else is on
*/
void SM130::setAntennaPower(byte level)
{
antennaPower = level;
data[0] = 2;
data[1] = CMD_ANTENNA_POWER;
data[2] = antennaPower;
transmitData();
}
/** Authenticate with transport key (0xFFFFFFFFFFFF).
*
* @param block Block number
*/
void SM130::authenticate(byte block)
{
data[0] = 3;
data[1] = CMD_AUTHENTICATE;
data[2] = block;
data[3] = 0xff;
transmitData();
}
/** Authenticate with transport key (0xFFFFFFFFFFFF).
*
* @param sector Sector number
*/
void SL018::authenticate(byte sector)
{
data[0] = 9;
data[1] = CMD_LOGIN;
data[2] = sector;
data[3] = 0xAA;
memset(data + 4, 0xFF, 6);
transmitData();
}
/** Write 16-byte block.
*
* The block will be padded with zeroes if the message is shorter
* than 15 characters.
*
* @param block Block number
* @param message Null-terminated string of up to 15 characters
*/
void SM130::writeBlock(byte block, const char* message)
{
data[0] = 18;
data[1] = CMD_WRITE16;
data[2] = block;
strncpy((char*)data + 3, message, 15);
data[18] = 0;
transmitData();
}
/** Write 4-byte page.
*
* This command is used for Mifare Ultralight tags which have 4 byte pages.
*
* @param page Page number
* @param message Null-terminated string of up to 3 characters
*/
void SL018::writePage(byte page, const char* message)
{
data[0] = 6;
data[1] = CMD_WRITE4;
data[2] = page;
strncpy((char*)data + 3, message, 3);
data[6] = 0;
transmitData();
}
/** Authenticate with specified key A or key B.
*
* @param block Block number
* @param keyType Which key to use: 0xAA for key A or 0xBB for key B
* @param key Key value (6 bytes)
*/
void SM130::authenticate(byte block, byte keyType, byte key[6])
{
data[0] = 9;
data[1] = CMD_AUTHENTICATE;
data[2] = block;
data[3] = keyType;
memcpy(data + 4, key, 6);
transmitData();
}
/** Write 4-byte block.
*
* This command is used for Mifare Ultralight tags which have 4 byte blocks.
*
* @param block Block number
* @param message Null-terminated string of up to 3 characters
*/
void SM130::writeFourByteBlock(byte block, const char* message)
{
data[0] = 6;
data[1] = CMD_WRITE4;
data[2] = block;
strncpy((char*)data + 3, message, 3);
data[6] = 0;
transmitData();
}
DeviceManager::DeviceError DevicePluginUnitec::executeAction(Device *device, const Action &action)
{
QList<int> rawData;
QByteArray binCode;
if (action.actionTypeId() != powerActionTypeId) {
return DeviceManager::DeviceErrorActionTypeNotFound;
}
// Bin codes for buttons
if (device->paramValue("Channel").toString() == "A" && action.param("power").value().toBool() == true) {
binCode.append("111011000100111010111111");
} else if (device->paramValue("Channel").toString() == "A" && action.param("power").value().toBool() == false) {
binCode.append("111001100110100001011111");
} else if (device->paramValue("Channel").toString() == "B" && action.param("power").value().toBool() == true) {
binCode.append("111011000100111010111011");
} else if (device->paramValue("Channel").toString() == "B" && action.param("power").value().toBool() == false) {
binCode.append("111000111001100111101011");
} else if (device->paramValue("Channel").toString() == "C" && action.param("power").value().toBool() == true) {
binCode.append("111000000011011111000011");
} else if (device->paramValue("Channel").toString() == "C" && action.param("power").value().toBool() == false) {
binCode.append("111001100110100001010011");
} else if (device->paramValue("Channel").toString() == "D" && action.param("power").value().toBool() == true) {
binCode.append("111001100110100001011101");
} else if (device->paramValue("Channel").toString() == "D" && action.param("power").value().toBool() == false) {
binCode.append("111000000011011111001101");
}
// =======================================
//create rawData timings list
int delay = 500;
// add sync code
rawData.append(6);
rawData.append(14);
// add the code
foreach (QChar c, binCode) {
if(c == '0'){
rawData.append(2);
rawData.append(1);
}else{
rawData.append(1);
rawData.append(2);
}
}
// =======================================
// send data to hardware resource
if(transmitData(delay, rawData)){
qCDebug(dcUnitec) << "transmitted" << pluginName() << device->name() << "power: " << action.param("power").value().toBool();
return DeviceManager::DeviceErrorNoError;
}else{
qCWarning(dcUnitec) << "could not transmitt" << pluginName() << device->name() << "power: " << action.param("power").value().toBool();
return DeviceManager::DeviceErrorHardwareNotAvailable;
}
}
/** Authenticate with specified key A or key B.
*
* @param sector Sector number
* @param keyType Which key to use: 0xAA for key A or 0xBB for key B
* @param key Key value (6 bytes)
*/
void SL018::authenticate(byte sector, byte keyType, byte key[6])
{
data[0] = 9;
data[1] = CMD_LOGIN;
data[2] = sector;
data[3] = keyType;
memcpy(data + 4, key, 6);
transmitData();
}
/** Write 16-byte block.
*
* The block will be padded with zeroes if the message is shorter
* than 15 characters.
*
* @param block Block number
* @param message string of 16 characters (binary safe)
*/
void SL018::writeBlock(byte block, const char* message)
{
data[0] = 18;
data[1] = CMD_WRITE16;
data[2] = block;
//strncpy((char*)data + 3, message, 15); // not binary safe
memcpy( (char*)data + 3, message, 16 );
data[18] = 0;
transmitData();
}
//send some data on an fd, for a special slot and connection_id
eData sendData(tSlot* slot, unsigned char* data, int len)
{
// only poll connection if we are not awaiting an answer
slot->pollConnection = false;
//send data_last and data
if (len < 127) {
unsigned char *d = (unsigned char*) malloc(len + 5);
memcpy(d + 5, data, len);
d[0] = slot->slot;
d[1] = slot->connection_id;
d[2] = T_DATA_LAST;
d[3] = len + 1;
d[4] = slot->connection_id;
len += 5;
transmitData(slot, d, len);
}
else if (len > 126 && len < 255) {
unsigned char *d = (unsigned char*) malloc(len + 6);
memcpy(d + 6, data, len);
d[0] = slot->slot;
d[1] = slot->connection_id;
d[2] = T_DATA_LAST;
d[3] = 0x81;
d[4] = len + 1;
d[5] = slot->connection_id;
len += 6;
transmitData(slot, d, len);
}
else if (len > 254) {
unsigned char *d = (unsigned char*) malloc(len + 7);
memcpy(d + 7, data, len);
d[0] = slot->slot;
d[1] = slot->connection_id;
d[2] = T_DATA_LAST;
d[3] = 0x82;
d[4] = len >> 8;
d[5] = len + 1;
d[6] = slot->connection_id;
len += 7;
transmitData(slot, d, len);
}
/**
* This function is called when a packet is received by the radio. It will
* process the packet.
*/
inline void processData(uint32_t len) {
uint8_t i, packet_len;
for(i=0; i<len; i++) {
//finds the end of the packet
if(data_temp[i] != ']')
continue;
//then terminates the string, ignore everything afterwards
data_temp[i+1] = '\0';
//Check validity of string
// 1) is the first position in array a number
//printf("%d\r\n", data_temp[0]);
if((int)data_temp[0] <= 48 || (int)data_temp[0] > 57) {
//printf("Error1\r\n");
break;
}
// 2) is the second position in array a letter
// < 'a' or > 'z' then break
//printf("%d\r\n", data_temp[1]);
if((int)data_temp[1] < 97 || (int)data_temp[1] > 122) {
//printf("Error2\r\n");
break;
}
#ifdef GATEWAY
printf("rx: %s|%d\r\n",data_temp, RFM69_lastRssi());
#endif
//Reduce the repeat value
data_temp[0] = data_temp[0] - 1;
//Now add , and end line and let string functions do the rest
data_temp[i] = ',';
data_temp[i+1] = '\0';
if(strstr(data_temp, NODE_ID) != 0)
break;
strcat(data_temp, NODE_ID); // Add ID
strcat(data_temp, "]"); // Add ending
packet_len = strlen(data_temp);
mrtDelay(random_output); // Random delay to try and avoid packet collision
rx_packets++;
transmitData(packet_len);
break;
}
}
int HacDeviceManager::searchDevices()
{
int retry = 3;
bool found = false;
while (retry --) {
QByteArray data(8, 0);
data[0] = 0x00;
data[1] = 0x03;
data[2] = 0x00;
data[3] = 0x00;
data[4] = 0x00;
data[5] = 32;
crc.crc_16bit=0xffff;
calccrc(data[0]);
calccrc(data[1]);
calccrc(data[2]);
calccrc(data[3]);
calccrc(data[4]);
calccrc(data[5]);
data[6] = crc.crc_8bit[0];
data[7] = crc.crc_8bit[1];
transmitData(data);
data = receiveData();
qDebug() << data.toHex();
if (data.at(0)== 0x00 && data.at(1) == 0x03 &&data.at(2)== 32
&& data.at(3) == 0x0E && data.at(4) == 0xAA && data.at(5) == 0x11 && data.at(6) == 0xA0) {
found = true;
break;
}
}
if (found) {
d_devices.append(new HacSwitchDevice(this, this));
#ifdef HAC_SWITCH_TEST
for (int i = 0; i < 18; i++) {
HacSwitchDevice *swtDev = qobject_cast<HacSwitchDevice *>(d_devices.at(0));
swtDev->switchControl(i, true);
HacHelp::MSleep(100);
}
for (int i = 0; i < 18; i++) {
HacSwitchDevice *swtDev = qobject_cast<HacSwitchDevice *>(d_devices.at(0));
swtDev->switchControl(i, false);
HacHelp::MSleep(100);
}
#endif
}
}
int main(void)
{
#ifdef ZOMBIE_MODE
LPC_SYSCON->BODCTRL = 0x11; //Should be set to Level 1 (Assertion 2.3V, De-assertion 2.4V) reset
#endif
#if defined(GATEWAY) || defined(DEBUG)
// Initialise the UART0 block for printf output
uart0Init(115200);
#endif
// Configure the multi-rate timer for 1ms ticks
mrtInit(__SYSTEM_CLOCK/1000);
/* Enable AHB clock to the Switch Matrix , UART0 , GPIO , IOCON, MRT , ACMP */
LPC_SYSCON->SYSAHBCLKCTRL |= (1 << 7) | (1 << 14) /*| (1 << 6)*//* | (1 << 18)*/
| (1 << 10) | (1 << 19);
// Configure the switch matrix (setup pins for UART0 and SPI)
configurePins();
#ifdef DEBUG
mrtDelay(100);
printf("Node Booted\r\n");
mrtDelay(100);
#endif
RFM69_init();
#ifdef ZOMBIE_MODE
//This is to allow the setup to recover from the initial boot and
// avoid a loop
RFM69_setMode(RFM69_MODE_SLEEP);
init_sleep();
sleepMicro(20000);
#endif
#ifdef DEBUG
printf("Node initialized, version %s\r\n",GIT_VER);
#endif
//Seed random number generator, we can use our 'unique' ID
random_output = NODE_ID[0] + NODE_ID[1] + NODE_ID[2];
while(1) {
/*
#ifdef ZOMBIE_MODE
adc_result = acmpVccEstimate();
// Before transmitting if the input V is too low we could sleep again
if (adc_result < 3100 || adc_result > 10000) {
sleepRadio();
}
#endif
*/
incrementPacketCount();
//Clear buffer
data_temp[0] = '\0';
uint8_t n;
//Create the packet
int int_temp;
#ifdef ZOMBIE_MODE
//This is to allow the setup to recover from the initial boot and
// avoid a loop
RFM69_setMode(RFM69_MODE_SLEEP);
init_sleep();
sleepMicro(10000);
#endif
int_temp = RFM69_readTemp(); // Read transmitter temperature
rx_rssi = RFM69_lastRssi();
// read the rssi threshold before re-sampling noise floor which will change it
rssi_threshold = RFM69_lastRssiThreshold();
floor_rssi = RFM69_sampleRssi();
#ifdef ZOMBIE_MODE
//This is to allow the setup to recover from the initial boot and
// avoid a loop
RFM69_setMode(RFM69_MODE_SLEEP);
init_sleep();
sleepMicro(10000);
#endif
#ifdef ZOMBIE_MODE
adc_result = acmpVccEstimate();
//sleepMicro(20000);
#endif
#ifdef DEBUG
printf("ADC: %d\r\n", adc_result);
#endif
#ifdef ZOMBIE_MODE
//This is to allow the setup to recover from the initial boot and
// avoid a loop
RFM69_setMode(RFM69_MODE_SLEEP);
init_sleep();
sleepMicro(10000);
#endif
if(data_count == 97) {
n = sprintf(data_temp, "%d%cL%s[%s]", NUM_REPEATS, data_count, LOCATION_STRING, NODE_ID);
}
else {
#ifdef DEBUG
//n = sprintf(data_temp, "%d%cT%dR%d,%dC%dX%d,%dV%d[%s]", NUM_REPEATS, data_count, int_temp, rx_rssi, floor_rssi, rx_packets, rx_restarts, rssi_threshold, adc_result, NODE_ID);
n = sprintf(data_temp, "%d%cT%dV%d[%s]", NUM_REPEATS, data_count, int_temp, adc_result, NODE_ID);
#elif defined(ZOMBIE_MODE)
n = sprintf(data_temp, "%d%cT%dV%d[%s]", NUM_REPEATS, data_count, int_temp, adc_result, NODE_ID);
#else
n = sprintf(data_temp, "%d%cT%dR%d[%s]", NUM_REPEATS, data_count, int_temp, rx_rssi, NODE_ID);
#endif
}
transmitData(n);
#ifdef ZOMBIE_MODE
sleepRadio();
#else
awaitData(TX_GAP);
#endif
}
}
int32_t main(void)
{
#ifndef PIC32_STARTER_KIT
/*The JTAG is on by default on POR. A PIC32 Starter Kit uses the JTAG, but
for other debug tool use, like ICD 3 and Real ICE, the JTAG should be off
to free up the JTAG I/O */
DDPCONbits.JTAGEN = 0;
#endif
/*Refer to the C32 peripheral library documentation for more
information on the SYTEMConfig function.
This function sets the PB divider, the Flash Wait States, and the DRM
/wait states to the optimum value. It also enables the cacheability for
the K0 segment. It could has side effects of possibly alter the pre-fetch
buffer and cache. It sets the RAM wait states to 0. Other than
the SYS_FREQ, this takes these parameters. The top 3 may be '|'ed
together:
SYS_CFG_WAIT_STATES (configures flash wait states from system clock)
SYS_CFG_PB_BUS (configures the PB bus from the system clock)
SYS_CFG_PCACHE (configures the pCache if used)
SYS_CFG_ALL (configures the flash wait states, PB bus, and pCache)*/
/* TODO Add user clock/system configuration code if appropriate. */
SYSTEMConfig(SYS_FREQ, SYS_CFG_ALL);
/* Initialize I/O and Peripherals for application */
InitApp();
/*Configure Multivector Interrupt Mode. Using Single Vector Mode
is expensive from a timing perspective, so most applications
should probably not use a Single Vector Mode*/
// Configure UART2 RX Interrupt
INTEnable(INT_SOURCE_UART_RX(UART2), INT_ENABLED);
INTSetVectorPriority(INT_VECTOR_UART(UART2), INT_PRIORITY_LEVEL_2);
INTSetVectorSubPriority(INT_VECTOR_UART(UART2), INT_SUB_PRIORITY_LEVEL_0);
// configure for multi-vectored mode
INTConfigureSystem(INT_SYSTEM_CONFIG_MULT_VECTOR);
// enable interrupts
INTEnableInterrupts();
/* TODO <INSERT USER APPLICATION CODE HERE> */
//Open UART2
OpenUART2(UART_EN, UART_BRGH_FOUR|UART_RX_ENABLE | UART_TX_ENABLE, 21);
//Open SPI 1 channel
PORTBbits.RB11 = 1;
OpenSPI1( SPI_MODE8_ON | MASTER_ENABLE_ON | SEC_PRESCAL_1_1 | PRI_PRESCAL_1_1 | FRAME_ENABLE_OFF | CLK_POL_ACTIVE_HIGH | ENABLE_SDO_PIN , SPI_ENABLE );
SPI1BRG=39;
initRadio();
setTXAddress("UNIT2");
setRXAddress(0,"UNIT1");
char temp;
char text[6];
text[0]='H';
text[1]='e';
text[2]='l';
text[3]='l';
text[4]='o';
text[5]='!';
while(1)
{
setTransmitter();
PORTBbits.RB11 = 0;
DelayMs(20);
transmitData(&text[0],6);
printf("Hello world! \r\n");
PORTBbits.RB11 = 1;
DelayMs(20);
}
}
DeviceManager::DeviceError DevicePluginIntertechno::executeAction(Device *device, const Action &action)
{
QList<int> rawData;
QByteArray binCode;
QString familyCode = device->paramValue("familyCode").toString();
// =======================================
// generate bin from family code
if(familyCode == "A"){
binCode.append("00000000");
}else if(familyCode == "B"){
binCode.append("01000000");
}else if(familyCode == "C"){
binCode.append("00010000");
}else if(familyCode == "D"){
binCode.append("01010000");
}else if(familyCode == "E"){
binCode.append("00000100");
}else if(familyCode == "F"){
binCode.append("01000100");
}else if(familyCode == "G"){
binCode.append("01000000");
}else if(familyCode == "H"){
binCode.append("01010100");
}else if(familyCode == "I"){
binCode.append("00000001");
}else if(familyCode == "J"){
binCode.append("01000001");
}else if(familyCode == "K"){
binCode.append("00010001");
}else if(familyCode == "L"){
binCode.append("01010001");
}else if(familyCode == "M"){
binCode.append("00000101");
}else if(familyCode == "N"){
binCode.append("01000101");
}else if(familyCode == "O"){
binCode.append("00010101");
}else if(familyCode == "P"){
binCode.append("01010101");
}else{
return DeviceManager::DeviceErrorNoError;
}
QString buttonCode = device->paramValue("buttonCode").toString();
// =======================================
// generate bin from button code
if(familyCode == "1"){
binCode.append("00000000");
}else if(familyCode == "2"){
binCode.append("01000000");
}else if(familyCode == "3"){
binCode.append("00010000");
}else if(familyCode == "4"){
binCode.append("01010000");
}else if(familyCode == "5"){
binCode.append("00000100");
}else if(familyCode == "6"){
binCode.append("01000100");
}else if(familyCode == "7"){
binCode.append("01000000");
}else if(familyCode == "8"){
binCode.append("01010100");
}else if(familyCode == "9"){
binCode.append("00000001");
}else if(familyCode == "10"){
binCode.append("01000001");
}else if(familyCode == "11"){
binCode.append("00010001");
}else if(familyCode == "12"){
binCode.append("01010001");
}else if(familyCode == "13"){
binCode.append("00000101");
}else if(familyCode == "14"){
binCode.append("01000101");
}else if(familyCode == "15"){
binCode.append("00010101");
}else if(familyCode == "16"){
binCode.append("01010101");
}else{
return DeviceManager::DeviceErrorNoError;
}
// =======================================
// add fix nibble (0F)
binCode.append("0001");
// =======================================
// add power nibble
if(action.param("power").value().toBool()){
binCode.append("0101");
}else{
binCode.append("0100");
}
//qDebug() << "bin code:" << binCode;
// =======================================
//create rawData timings list
int delay = 350;
// sync signal
rawData.append(1);
rawData.append(31);
// add the code
foreach (QChar c, binCode) {
if(c == '0'){
rawData.append(1);
rawData.append(3);
}else{
rawData.append(3);
rawData.append(1);
}
}
// =======================================
// send data to hardware resource
if(transmitData(delay, rawData)){
qDebug() << "transmitted" << pluginName() << device->name() << "power: " << action.param("power").value().toBool();
return DeviceManager::DeviceErrorNoError;
}else{
qWarning() << "ERROR: could not transmitt" << pluginName() << device->name() << "power: " << action.param("power").value().toBool();
return DeviceManager::DeviceErrorHardwareNotAvailable;
}
}
int main(void)
{
// Initialise the GPIO block
gpioInit();
#ifdef GPS
// Initialise the UART0 block for printf output
uart0Init(9600);
#else
// Initialise the UART0 block for printf output
uart0Init(115200);
#endif
// Configure the multi-rate timer for 1ms ticks
mrtInit(__SYSTEM_CLOCK/1000);
// Configure the switch matrix (setup pins for UART0 and SPI)
configurePins();
//Seed random number generator, we can use our 'unique' ID
random_output = NODE_ID[0] + NODE_ID[1] + NODE_ID[2];
//printf("random: %d\r\n", random_output);
RFM69_init();
#ifdef GPS
int navmode = 9;
setupGPS();
#endif
#ifdef DEBUG
printf("Node initialized, version %s\r\n",GIT_VER);
#endif
while(1) {
#ifdef GPS
mrtDelay(5000);
navmode = gps_check_nav();
if (navmode != 6){
setupGPS();
}
mrtDelay(500);
gps_get_position();
mrtDelay(500);
gps_check_lock();
mrtDelay(500);
//printf("Data: %d,%d,%d,%d,%d,%d\r\n", lat, lon, alt, navmode, lock, sats);
//printf("Errors: %d,%d\r\n", GPSerror, serialBuffer_write);
#endif
incrementPacketCount();
//Clear buffer
data_temp[0] = '\0';
uint8_t n;
//Create the packet
int int_temp = RFM69_readTemp(); // Read transmitter temperature
rx_rssi = RFM69_lastRssi();
floor_rssi = RFM69_sampleRssi();
#ifdef GPS
n = sprintf(data_temp, "%d%cL%d,%d,%dT%dR%d[%s]", NUM_REPEATS, data_count, lat, lon, alt, int_temp, rx_rssi, NODE_ID);
#else
if(data_count == 97) {
n = sprintf(data_temp, "%d%cL%s[%s]", NUM_REPEATS, data_count, LOCATION_STRING, NODE_ID);
} else {
n = sprintf(data_temp, "%d%cT%dR%d,%dC%d[%s]", NUM_REPEATS, data_count, int_temp, rx_rssi, floor_rssi, rx_packets, NODE_ID);
}
#endif
transmitData(n);
awaitData(TX_GAP);
}
}
DeviceManager::DeviceError DevicePluginElro::executeAction(Device *device, const Action &action)
{
if (action.actionTypeId() != powerActionTypeId)
return DeviceManager::DeviceErrorActionTypeNotFound;
QList<int> rawData;
QByteArray binCode;
// create the bincode
// channels
if (device->paramValue(chan1ParamTypeId).toBool()) {
binCode.append("00");
} else {
binCode.append("01");
}
if (device->paramValue(chan2ParamTypeId).toBool()) {
binCode.append("00");
} else {
binCode.append("01");
}
if (device->paramValue(chan3ParamTypeId).toBool()) {
binCode.append("00");
}else{
binCode.append("01");
}
if(device->paramValue(chan4ParamTypeId).toBool()){
binCode.append("00");
} else {
binCode.append("01");
}
if (device->paramValue(chan5ParamTypeId).toBool()) {
binCode.append("00");
} else {
binCode.append("01");
}
// Buttons
if (device->paramValue(aParamTypeId).toBool()) {
binCode.append("00");
} else {
binCode.append("01");
}
if (device->paramValue(bParamTypeId).toBool()) {
binCode.append("00");
} else {
binCode.append("01");
}
if (device->paramValue(cParamTypeId).toBool()) {
binCode.append("00");
} else {
binCode.append("01");
}
if (device->paramValue(dParamTypeId).toBool()) {
binCode.append("00");
} else {
binCode.append("01");
}
if (device->paramValue(eParamTypeId).toBool()) {
binCode.append("00");
} else {
binCode.append("01");
}
// Power
if (action.param(powerParamTypeId).value().toBool()) {
binCode.append("0001");
} else {
binCode.append("0100");
}
//create rawData timings list
int delay = 350;
// sync signal
rawData.append(1);
rawData.append(31);
// add the code
foreach (QChar c, binCode) {
if (c == '0') {
rawData.append(1);
rawData.append(3);
} else {
rawData.append(3);
rawData.append(1);
}
}
// send data to hardware resource
if (transmitData(delay, rawData)) {
qCDebug(dcElro) << "Transmitted" << pluginName() << device->name() << "power: " << action.param(powerParamTypeId).value().toBool();
return DeviceManager::DeviceErrorNoError;
} else {
qCWarning(dcElro) << "Could not transmitt" << pluginName() << device->name() << "power: " << action.param(powerParamTypeId).value().toBool();
return DeviceManager::DeviceErrorHardwareNotAvailable;
}
}
void main (void)
{
addr_t lAddr;
bspIState_t intState;
char *Flash_Addr; // Initialize radio address location
Flash_Addr = (char *)0x10F0;
WDTCTL = WDTPW + WDTHOLD; // Stop WDT
// delay loop to ensure proper startup before SimpliciTI increases DCO
// This is typically tailored to the power supply used, and in this case
// is overkill for safety due to wide distribution.
__delay_cycles(65000);
if( CALBC1_8MHZ == 0xFF && CALDCO_8MHZ == 0xFF )// Do not run if cal values
{
P1DIR |= 0x03;
BSP_TURN_ON_LED1();
BSP_TURN_OFF_LED2();
while(1)
{
__delay_cycles(65000);
BSP_TOGGLE_LED2();
BSP_TOGGLE_LED1();
}
}
BSP_Init();
if( Flash_Addr[0] == 0xFF &&
Flash_Addr[1] == 0xFF &&
Flash_Addr[2] == 0xFF &&
Flash_Addr[3] == 0xFF )
{
createRandomAddress(); // Create Random device address at
} // initial startup if missing
lAddr.addr[0]=Flash_Addr[0];
lAddr.addr[1]=Flash_Addr[1];
lAddr.addr[2]=Flash_Addr[2];
lAddr.addr[3]=Flash_Addr[3];
//SMPL_Init();
SMPL_Ioctl(IOCTL_OBJ_ADDR, IOCTL_ACT_SET, &lAddr);
MCU_Init();
//Transmit splash screen and network init notification
TXString( (char*)splash, sizeof splash);
TXString( "\r\nInitializing Network....", 26 );
SMPL_Init(sCB);
// network initialized
TXString( "Done\r\n", 6);
// main work loop
while(1)
{
// Wait for the Join semaphore to be set by the receipt of a Join frame from a
// device that supports and End Device.
if (sJoinSem && (sNumCurrentPeers < NUM_CONNECTIONS))
{
// listen for a new connection
SMPL_LinkListen(&sLID[sNumCurrentPeers]);
sNumCurrentPeers++;
BSP_ENTER_CRITICAL_SECTION(intState);
if (sJoinSem)
{
sJoinSem--;
}
BSP_EXIT_CRITICAL_SECTION(intState);
}
// if it is time to measure our own temperature...
if(sSelfMeasureSem)
{
// TXString("\r\n...", 5);
BSP_TOGGLE_LED1();
sSelfMeasureSem = 0;
}
// Have we received a frame on one of the ED connections?
// No critical section -- it doesn't really matter much if we miss a poll
if (sPeerFrameSem)
{
uint8_t msg[MESSAGE_LENGTH], len, i;
// process all frames waiting
for (i=0; i<sNumCurrentPeers; ++i)
{
if (SMPL_Receive(sLID[i], msg, &len) == SMPL_SUCCESS)
{
ioctlRadioSiginfo_t sigInfo;
sigInfo.lid = sLID[i];
SMPL_Ioctl(IOCTL_OBJ_RADIO, IOCTL_ACT_RADIO_SIGINFO, (void *)&sigInfo);
transmitData( i, (signed char)sigInfo.sigInfo.rssi, (char*)msg );
BSP_TURN_ON_LED2(); // Toggle LED2 when received packet
BSP_ENTER_CRITICAL_SECTION(intState);
sPeerFrameSem--;
BSP_EXIT_CRITICAL_SECTION(intState);
__delay_cycles(10000);
BSP_TURN_OFF_LED2();
}
}
}
}
}
void readSerialData() {
uint8_t len;
uint8_t data;
uint8_t fifoSize = 0;
static uint8_t plus = 0;
static uint8_t pos = 0;
uint8_t rfBeeMode;
int i;
// insert any plusses from last round
for (i = pos; i < plus; i++) { //be careful, i should start from pos, -changed by Icing
serialData[i] = '+';
}
len = serial_available() + plus + pos;
if (len > BUFFLEN) {
len = BUFFLEN; //only process at most BUFFLEN chars
}
// check how much space we have in the TX fifo
fifoSize = txFifoFree(); // the fifoSize should be the number of bytes in TX FIFO
if (fifoSize <= 0) {
serial_flush();
//ccx_strobe(CCx_SFTX);
plus = 0;
pos = 0;
return;
}
if (len > fifoSize) {
len = fifoSize; // don't overflow the TX fifo
}
for (i = plus + pos; i < len; i++) {
data = serial_read();
serialData[i] = data; //serialData is our global serial buffer
if (data == '+') {
plus++;
} else {
plus = 0;
}
if (plus == 3) {
len = i - 2; // do not send the last 2 plusses
plus = 0;
serialMode = SERIALCMDMODE;
ccx_strobe(CCx_SIDLE);
printf("ok, starting cmd mode\r\n");
break; // jump out of the loop, but still send the remaining chars in the buffer
}
}
if (plus > 0) {
// save any trailing plusses for the next round
len -= plus;
}
// check if we have more input than the transmitThreshold, if we have just switched to commandmode send the current buffer anyway.
if ((serialMode != SERIALCMDMODE)
&& (len < config_get(CONFIG_TX_THRESHOLD))) {
pos = len; // keep the current bytes in the buffer and wait till next round.
return;
}
if (len > 0) {
rfBeeMode = config_get(CONFIG_RFBEE_MODE);
//only when TRANSMIT_MODE or TRANSCEIVE,transmit the buffer data,otherwise ignore
if ((rfBeeMode == TRANSMIT_MODE) || (rfBeeMode == TRANSCEIVE_MODE)) {
tx_packet.len = len + PAYLOAD_OFFSET;
transmitData(&tx_packet);
//transmitData(serialData, len, config_get(CONFIG_MY_ADDR), config_get(CONFIG_DEST_ADDR));
}
pos = 0; // serial databuffer is free again.
}
}
void transmitDigit(unsigned char val)
{
val &= 0xF;
val += (val < 10) ? '0' : 'A' - 10;
transmitData(val);
}
DeviceManager::DeviceError DevicePluginLeynew::executeAction(Device *device, const Action &action)
{
if (device->deviceClassId() != rfControllerDeviceClassId) {
return DeviceManager::DeviceErrorDeviceClassNotFound;
}
QList<int> rawData;
QByteArray binCode;
// TODO: find out how the id will be calculated to bin code or make it discoverable
// =======================================
// bincode depending on the id
if (device->paramValue("id") == "0115"){
binCode.append("001101000001");
} else if (device->paramValue("id") == "0014") {
binCode.append("110000010101");
} else if (device->paramValue("id") == "0008") {
binCode.append("111101010101");
} else {
qCWarning(dcLeynew) << "Could not get id of device: invalid parameter" << device->paramValue("id");
return DeviceManager::DeviceErrorInvalidParameter;
}
int repetitions = 12;
// =======================================
// bincode depending on the action
if (action.actionTypeId() == brightnessUpActionTypeId) {
binCode.append("000000000011");
repetitions = 8;
} else if (action.actionTypeId() == brightnessDownActionTypeId) {
binCode.append("000000001100");
repetitions = 8;
} else if (action.actionTypeId() == powerActionTypeId) {
binCode.append("000011000000");
} else if (action.actionTypeId() == redActionTypeId) {
binCode.append("000000001111");
} else if (action.actionTypeId() == greenActionTypeId) {
binCode.append("000000110011");
} else if (action.actionTypeId() == blueActionTypeId) {
binCode.append("000011000011");
} else if (action.actionTypeId() == whiteActionTypeId) {
binCode.append("000000111100");
} else if (action.actionTypeId() == orangeActionTypeId) {
binCode.append("000011001100");
} else if (action.actionTypeId() == yellowActionTypeId) {
binCode.append("000011110000");
} else if (action.actionTypeId() == cyanActionTypeId) {
binCode.append("001100000011");
} else if (action.actionTypeId() == purpleActionTypeId) {
binCode.append("110000000011");
} else if (action.actionTypeId() == playPauseActionTypeId) {
binCode.append("000000110000");
} else if (action.actionTypeId() == speedUpActionTypeId) {
binCode.append("001100110000");
repetitions = 8;
} else if (action.actionTypeId() == speedDownActionTypeId) {
binCode.append("110000000000");
repetitions = 8;
} else if (action.actionTypeId() == autoActionTypeId) {
binCode.append("001100001100");
} else if (action.actionTypeId() == flashActionTypeId) {
binCode.append("110011000000");
} else if (action.actionTypeId() == jump3ActionTypeId) {
binCode.append("111100001100");
} else if (action.actionTypeId() == jump7ActionTypeId) {
binCode.append("001111000000");
} else if (action.actionTypeId() == fade3ActionTypeId) {
binCode.append("110000110000");
} else if (action.actionTypeId() == fade7ActionTypeId) {
binCode.append("001100000000");
} else {
return DeviceManager::DeviceErrorActionTypeNotFound;
}
// =======================================
//create rawData timings list
int delay = 50;
// sync signal (starting with ON)
rawData.append(3);
rawData.append(90);
// add the code
foreach (QChar c, binCode) {
if(c == '0'){
// _
// | |_ _
rawData.append(3);
rawData.append(9);
}else{
// _ _
// | |_
rawData.append(9);
rawData.append(3);
}
}
// =======================================
// send data to hardware resource
if(transmitData(delay, rawData, repetitions)){
qCDebug(dcLeynew) << "Transmitted" << pluginName() << device->name() << action.id();
return DeviceManager::DeviceErrorNoError;
}else{
qCWarning(dcLeynew) << "Could not transmitt" << pluginName() << device->name() << action.id();
return DeviceManager::DeviceErrorHardwareNotAvailable;
}
}
int main(void)
{
init_lcd();
writecommand(0x01);
updateScreen();
DDRD |= (1 << PD2);//output for green LED
DDRD |= (1 << PD3);//output for red LED
//button pullup resistors:
PORTB |= (1 << PB3) | (1 << PB4);
//rotary encoder initializations:
initialize_rotary();
sei();
PORTC |= (1 << PC4) | (1 << PC5);//i2c pullup resistors
//enable line
PORTC |= (1 << PC3);
DDRC |= (1 << PC3); //set as output
//DS1631
ds1631_init();
ds1631_conv();
unsigned char temp[2];
//serial communication
init_serial();
while (1) {
PORTC &= ~(1 << PC3);//set enable to 0
ds1631_temp(temp);
int tempCelsius = temp[0];
//convert from celsius to fahrenheit:
if(temp[1] == 0){
tempF = (tempCelsius*9)/5 + 32;
}
else{
tempF = tempCelsius * 10 + 5;
tempF = (tempF*9)/5 + 320;
tempF /= 10;
}
if(oldTempF != tempF){//if temperature changes, update + transmit data
//update temp
updateTop();
char temp[5];
snprintf(temp, 5, "%d", tempF);
transmitData(temp, &tempF);
}
oldTempF = tempF;//update old temp
if((PINB & (1 << PB3)) == 0){//if high button is pressed
buttonState = 1;//high
}
if((PINB & (1 << PB4)) == 0){//if low button is pressed
buttonState = 0;//low
}
if(bufferValidFlag == 1){//valid data received
//convert to int stored inside remoteVal
int hundreds = (receivedDataBuffer[1]-0x30)*100;
int tens = (receivedDataBuffer[2]-0x30)*10;
int ones = receivedDataBuffer[3]-0x30;
remoteVal = hundreds + tens + ones;
if(receivedDataBuffer[0] == '-'){
remoteVal = 0 - remoteVal;
}
updateTop();
bufferValidFlag = 0;//reset
}
if(change == 1){
updateScreen();
change = 0;//reset
}
updateLED();
}
return 0; /* never reached */
}
/** Send 1-byte command.
*
* @param cmd Command
*/
void SM130::sendCommand(byte cmd)
{
data[0] = 1;
data[1] = cmd;
transmitData();
}
int main(void)
{
#if defined(GATEWAY) || defined(DEBUG) || defined(GPS)
// Initialise the UART0 block for printf output
uart0Init(115200);
#endif
// Configure the multi-rate timer for 1ms ticks
mrtInit(__SYSTEM_CLOCK/1000);
/* Enable AHB clock to the Switch Matrix , UART0 , GPIO , IOCON, MRT , ACMP */
LPC_SYSCON->SYSAHBCLKCTRL |= (1 << 7) | (1 << 14) /*| (1 << 6)*//* | (1 << 18)*/
| (1 << 10) | (1 << 19);
// Configure the switch matrix (setup pins for UART0 and SPI)
configurePins();
LPC_GPIO_PORT->DIR0 |= (1 << GSM_PWR);
RFM69_init();
#if defined(GATEWAY) || defined(DEBUG) || defined(GPS)
mrtDelay(100);
printf("Node Booted\r\n");
mrtDelay(100);
#endif
uart1Init(115200);
GSM_On();
//GSM_AT();
#if defined(GATEWAY) || defined(DEBUG) || defined(GPS)
printf("Node initialized, version %s\r\n",GIT_VER);
#endif
//Seed random number generator, we can use our 'unique' ID
random_output = NODE_ID[0] + NODE_ID[1] + NODE_ID[2];
mrtDelay(5000);
GSM_AT();
mrtDelay(5000);
GSM_upload();
while(1) {
GSM_AT();
incrementPacketCount();
//Clear buffer
data_temp[0] = '\0';
uint8_t n;
//Create the packet
int int_temp;
int_temp = RFM69_readTemp(); // Read transmitter temperature
rx_rssi = RFM69_lastRssi();
// read the rssi threshold before re-sampling noise floor which will change it
rssi_threshold = RFM69_lastRssiThreshold();
floor_rssi = RFM69_sampleRssi();
if(data_count == 97) {
n = sprintf(data_temp, "%d%cL%s[%s]", NUM_REPEATS, data_count, LOCATION_STRING, NODE_ID);
}
else {
#ifdef DEBUG
n = sprintf(data_temp, "%d%cT%dR%d,%dC%dX%d,%dV%d[%s]", NUM_REPEATS, data_count, int_temp, rx_rssi, floor_rssi, rx_packets, rx_restarts, rssi_threshold, adc_result, NODE_ID);
#else
n = sprintf(data_temp, "%d%cT%dR%dX%d[%s]", NUM_REPEATS, data_count, int_temp, rx_rssi, rx_packets, NODE_ID);
#endif
}
transmitData(n);
GSM_upload();
awaitData(TX_GAP);
}
}
