int main (void) {
/*
* SPI-Modul initialisieren */
spi_init();
/*
* Funkmodul initialisieren */
rfm12_init();
rfm12_rx_on();
/*
* CAN-Bus initialisieren */
mcp2515_init();
/* Interrupts initialisieren */
interrupt_init();
/*
* Hauptprogramm */
while (1) {
if (rfm_new_data) {
rfm_new_data = 0;
cli();
struct rfm_message tmp_rfm_message;
if (rfm_copy_data(&tmp_rfm_message)) {
struct can_message tmp_can_message;
tmp_can_message.typ = tmp_rfm_message.typ;
tmp_can_message.rtr = tmp_rfm_message.rtr;
tmp_can_message.id = tmp_rfm_message.id;
tmp_can_message.length = tmp_rfm_message.length;
for (uint8_t i=0; i<8; i++) {
tmp_can_message.data[i] = tmp_rfm_message.data[i];
}
can_send_message(&tmp_can_message);
}
sei();
}
if (rfm_crc_error != rfm_crc_error_last) {
struct can_message tmp_can_message;
tmp_can_message.typ = Einzelmeldung;
tmp_can_message.id = Funkkoppler_CRC_Error;
tmp_can_message.length = Laenge_Einzelmeldung;
tmp_can_message.data[0] = rfm_crc_error;
can_send_message(&tmp_can_message);
rfm_crc_error_last = rfm_crc_error;
}
set_sleep_mode(SLEEP_MODE_STANDBY);
sleep_mode();
}
}
void send_write_response(void)
{
uint8_t passkey, write_data, ret_val, verify, req_by;
uint8_t* write_ptr;
passkey = write_arr[3];
write_ptr = write_arr[1];
write_data = write_arr[0];
req_by = read_arr[7]; // Used to coordinating with tasks on the OBC.
/* Execute the Write */
*write_ptr = write_data;
/* Verify the write worked correctly */
verify = *write_ptr;
if (verify != write_data)
ret_val = -1;
else
ret_val = 1;
send_arr[7] = (SELF_ID << 4)|req_by;
send_arr[6] = MT_COM;
send_arr[5] = ACK_WRITE;
send_arr[4] = CURRENT_MINUTE;
send_arr[3] = passkey;
send_arr[0] = ret_val;
can_send_message(&(send_arr[0]), CAN1_MB7);
write_response = 0;
return;
}
/**
* \brief send CAN message to instrument cluster
* \param msg - pointer to CAN message
*/
void ic_comm_send2Cluster(can_t* msg)
{
while(0 == can_send_message(CAN_CHIP1, msg))
{
_delay_us(10);
}
}
int main(void)
{
// Initialize MCP2515
can_init(BITRATE_125_KBPS);
// Load filters and masks
can_static_filter(can_filter);
// Create a test messsage
can_t msg;
msg.id = 0x123456;
msg.flags.rtr = 0;
msg.flags.extended = 1;
msg.length = 4;
msg.data[0] = 0xde;
msg.data[1] = 0xad;
msg.data[2] = 0xbe;
msg.data[3] = 0xef;
// Send the message
can_send_message(&msg);
while (1)
{
// Check if a new messag was received
if (can_check_message())
{
can_t msg;
// Try to read the message
if (can_get_message(&msg))
{
// If we received a message resend it with a different id
msg.id += 10;
// Send the new message
can_send_message(&msg);
}
}
}
return 0;
}
// It is assumed that send_arr[3-0] have already been filled before executing this function.
static void send_tc_can_msg(uint8_t packet_count)
{
send_arr[7] = (SELF_ID << 4)|OBC_PACKET_ROUTER_ID;
send_arr[6] = MT_COM;
send_arr[5] = SEND_TC;
send_arr[4] = packet_count;
can_send_message(&(send_arr[0]), CAN1_MB7);
return;
}
// Lets the OBC know that we have a TC packet ready.
void alert_obc_tcp_ready(void)
{
send_arr[7] = (SELF_ID << 4)|OBC_PACKET_ROUTER_ID;
send_arr[6] = MT_COM;
send_arr[5] = TC_PACKET_READY;
send_arr[4] = CURRENT_MINUTE;
can_send_message(&(send_arr[0]), CAN1_MB7);
return;
}
void send_ask_alive(void)
{
send_arr[7] = (SELF_ID << 4)|OBC_ID;
send_arr[6] = MT_COM;
send_arr[5] = ASK_OBC_ALIVE;
send_arr[4] = CURRENT_MINUTE;
can_send_message(&(send_arr[0]), CAN1_MB7);
ask_alive = 0;
return;
}
void send_housekeeping(void)
{
send_arr[7] = (SELF_ID << 4)|HK_TASK_ID;
send_arr[6] = MT_HK; // HK will likely require multiple message in the future.
send_arr[4] = CURRENT_MINUTE;
can_send_message(&(send_arr[0]), CAN1_MB6); //CAN1_MB6 is the HK reception MB.
send_hk = 0;
return;
}
// Let the OBC know that you are ready to receive TM packet.
static void start_tm_packet(void)
{
send_arr[7] = (SELF_ID << 4)|COMS_TASK_ID;
send_arr[6] = MT_COM;
send_arr[5] = OK_START_TM_PACKET;
send_arr[4] = CURRENT_MINUTE;
receiving_tmf = 1;
can_send_message(&(send_arr[0]), CAN1_MB7);
return;
}
void send_response(void)
{
send_arr[7] = (SELF_ID << 4)|OBC_ID;
send_arr[6] = MT_COM;
send_arr[5] = RESPONSE;
send_arr[4] = CURRENT_MINUTE;
can_send_message(&(send_arr[0]), CAN1_MB7); //CAN1_MB7 is the command reception MB.
send_now = 0;
return;
}
void exit_take_over(void)
{
TAKEOVER = 0;
exit_take_overf = 0;
send_arr[7] = (SELF_ID << 4)|OBC_ID;
send_arr[6] = MT_COM;
send_arr[5] = COMS_TAKEOVER_EXITED;
send_arr[4] = CURRENT_MINUTE;
can_send_message(&(send_arr[0]), CAN1_MB7);
return;
}
void resume_operations(void)
{
PAUSE = 0;
resume_operationsf = 0;
send_arr[7] = (SELF_ID << 4)|OBC_ID;
send_arr[6] = MT_COM;
send_arr[5] = OPERATIONS_RESUMED;
send_arr[4] = CURRENT_MINUTE;
can_send_message(&(send_arr[0]), CAN1_MB7);
return;
}
int main (int argc, const char * argv[])
{
double angle;
int num_tick;
can_init("/dev/ttyUSB4");
//can_send_message(&msg_poti_set_counterclockwise);
can_send_message(&msg_poti_save);
rtx_message("0x%X 0x%X 0x%X 0x%X 0x%X 0x%X 0x%X 0x%X 0x%X", message.id, message.content[0], message.content[1], message.content[2], message.content[3], message.content[4], message.content[5], message.content[6], message.content[7]);
while (0)
{
can_send_message(&msg_poti_pos_request);
can_read_message();
num_tick = int(message.content[4])+int(message.content[5])*256+int(message.content[6])*256*256 + int(message.content[7])*256*256*256;
angle = remainder((num_tick%AV_POTI_RESOLUTION)*360.0/AV_POTI_RESOLUTION,360.0);
rtx_message("angle: %f",angle);
}
// The destructors will take care of cleaning up the memory
return (0);
}
void send_coms_packet(void)
{
send_arr[7] = (SELF_ID << 4)|OBC_ID;
send_arr[6] = MT_DATA;
send_arr[5] = COMS_PACKET;
send_arr[4] = CURRENT_MINUTE;
send_arr[0] = trans_msg[0]; // ASCII character which was received.
can_send_message(&(send_arr[0]), CAN1_MB0); //CAN1_MB0 is the data reception MB.
msg_received = 0;
return;
}
void exit_low_power(void)
{
// Sam: Fill this in with what needs to be done to exit low power mode.
LOW_POWER_MODE = 0;
exit_low_powerf = 0;
send_arr[7] = (SELF_ID << 4)|OBC_ID;
send_arr[6] = MT_COM;
send_arr[5] = LOW_POWER_MODE_EXITED;
send_arr[4] = CURRENT_MINUTE;
can_send_message(&(send_arr[0]), CAN1_MB7);
return;
}
// Helper
static void send_tm_transaction_response(uint8_t req_by, uint8_t code)
{
send_arr[7] = (SELF_ID << 4)|req_by;
send_arr[6] = MT_COM;
send_arr[5] = TM_TRANSACTION_RESP;
send_arr[4] = CURRENT_MINUTE;
send_arr[3] = 0;
send_arr[2] = 0;
send_arr[1] = 0;
send_arr[0] = code;
can_send_message(&(send_arr[0]), CAN1_MB7);
return;
}
void sendResolverNMTMessage(void)
{
can_t NMTMsg;
NMTMsg.id = 0x00;
NMTMsg.flags.rtr = 0; // The sent message is NOT a remote-transmit-request frame
NMTMsg.flags.extended = 0; // Sends the message with standard ID
NMTMsg.length = 2; // Message length is 8 bytes
NMTMsg.data[0] = 0x01;
NMTMsg.data[1] = 0x00; //0x00 for all resolvers
can_send_message(&NMTMsg);
}
// event_readyf should be set when an event to report on has been placed in event_arr[]
void send_event(void)
{
send_arr[7] = (SELF_ID << 4)|OBC_PACKET_ROUTER_ID;
send_arr[6] = MT_COM;
send_arr[5] = SEND_EVENT;
send_arr[4] = CURRENT_MINUTE;
send_arr[3] = event_arr[3]; // 1=Normal, 2=low-sev error, 3=med-sev, 4=high-sev
send_arr[2] = event_arr[2]; // ReportID
send_arr[1] = event_arr[1];
send_arr[0] = event_arr[0];
can_send_message(&(send_arr[0]), CAN1_MB7);
return;
}
void status(char *msg)
{
cmsg.id = CAN_STATUS_ID;
if( msg != NULL )
{
cmsg.length = 8;
memcpy((void *)cmsg.data, msg, 8);
}
else
{
cmsg.length = 0;
}
can_send_message((const can_t *)&cmsg);
}
/**
* @brief Envia o estado do sistema via CAN
*
* @param estados é a variável que armazena os estados
*
*/
void sendSystemStatusCAN(estados_t estados)
{
// Cria e define o tamanho do pacote
can_t msg;
msg.id = MY_CAN_ID; // define o ID da mensagem
msg.flags.rtr = 0; // define como um data frame
msg.length = MY_CAN_MSG_LENGHT; // define o comprimento da mensagem
// Empacota os dados a serem enviados via can.
//msg.data[0] = estados;
msg.data[0] = 123;
// Envia o pacote
can_send_message(&msg);
}
void Speedo_CAN::process_incoming_messages(){
while(can_get_message(&message)!=0xff){ //0xff=no more frames available
#ifdef CAN_DEBUG /////////////// DEBUG //////////
Serial.print("*");
#endif
if(can_missed_count==999){
can_missed_count=0;
} else if(can_missed_count>1){
can_missed_count-=2;
} else if(can_missed_count>0){
can_missed_count-=1;
};
last_received=millis();
// Serial.println("New CAN Message found");
////////////////////////////////////////////////////////////////////////////////
/////////////////// Triumph Daytone 675 Tacho request //////////////////////////
////////////////////////////////////////////////////////////////////////////////
if(message.id==0x568){
message.length=2;
message.id=0x569;
message.data[0]=0x00;
message.data[1]=0x01;
can_send_message(&message);
}
////////////////////////////////////////////////////////////////////////////////
//////////////////// Triumph Daytone 675 RPM/Speed ////////////////////////////
////////////////////////////////////////////////////////////////////////////////
else if(message.id==0x530){ // Triumph Daytone 675 Tacho request
can_rpm=(message.data[1]<<6)|(message.data[0]>>2);
can_speed=round(pSensors->flatIt((int)(((message.data[3]<<8)|(message.data[2]))/10),&can_speed_counter,4,can_speed)); // IIR 4 Tabs
//can_speed=(((message.data[3]<<8)|(message.data[2]))/10); // raw
#ifdef CAN_DEBUG /////////////// DEBUG //////////
Serial.print("RPM:");
Serial.print(can_rpm);
Serial.print(" Speed:");
Serial.print(can_speed);
#endif
if(can_rpm>0){
high_prio_processing=false;
};
}
////////////////////////////////////////////////////////////////////////////////
///////////////////// Triumph Daytone 675 Temperatur ///////////////////////////
////////////////////////////////////////////////////////////////////////////////
else if(message.id==0x570){ // Triumph Daytone 675 Tacho request
void canix_frame_send_with_prio(const canix_frame *frame, uint8_t prio)
{
// Nachschauen, ob der TX Buffer des MCP frei ist:
if (can_any_sendable())
{
// Frame ueber CAN versenden ...
uint32_t extid;
extid = (frame->src & ADDR_MASK) |
((uint32_t)(frame->dst & ADDR_MASK) << 10) |
((uint32_t)(frame->proto & PROTO_MASK) << 20) |
((uint32_t)(prio) << 24);
can_send_message(extid, frame->data, frame->size);
}
// und jetzt noch lokal zustellen - auch wenn das Frame in die TX Queue
// gestellt wurde:
canix_deliver_frame(frame);
}
/********************************************* CAN FUNCTIONS ***********************************/
void Speedo_CAN::request(char mode,char PID){
byte can_first_byte=0x02; //frame im Datenstrom
//check valid msg
if(mode!=CAN_CURRENT_INFO && mode!=CAN_DTC){
return;
} else if(mode==CAN_DTC) {
can_first_byte=0x01;
can_dtc_errors_processed=0; //reset value since we are asing for a new one
can_dtc_nr=PID; // we reuse PID to save the number of the error code we are locking for, so we can ask for up to 255 error codes
can_dtc_value=0x00;
} else if(mode==CAN_CURRENT_INFO){
if(PID!=CAN_AIR_TEMP && PID!=CAN_WATER_TEMPERATURE && PID!=CAN_RPM && PID!=CAN_SPEED && PID!=CAN_MIL_STATUS){
return;
}
can_first_byte=0x02;
}
// BUILD MESSAGE
message.id = 0x07DF; // motor steuergerät .. TODO: Ist die fix?
message.rtr = 0;
message.length = 8;
message.data[0] = can_first_byte;
message.data[1] = mode; //mode 01==data, 03=dtc
message.data[2] = PID;
message.data[3] = 0x00; // fill up thus 8 byte are needed
message.data[4] = 0x00;
message.data[5] = 0x00;
message.data[6] = 0x00;
message.data[7] = 0x00;
// Nachricht verschicken
last_request=millis();
can_send_message(&message);
return;
};
void send_read_response(void)
{
uint8_t read_val, passkey, req_by;
uint8_t* read_ptr;
passkey = read_arr[3];
read_ptr = read_arr[0];
req_by = read_arr[7]; // Used to coordinating with tasks on the OBC.
/* Execute the read */
read_val = *read_ptr;
send_arr[7] = (SELF_ID << 4)|req_by;
send_arr[6] = MT_COM;
send_arr[5] = ACK_READ;
send_arr[4] = CURRENT_MINUTE;
send_arr[3] = passkey;
send_arr[0] = read_val;
can_send_message(&(send_arr[0]), CAN1_MB7);
read_response = 0;
return;
}
/**
* Generate CAN-Message
*
* \param cmd The ReKick command
* \param str A char array which holds the message.
* \param len The length of the message
*/
void can_put_cmd(uint8_t cmd, uint8_t* str, uint8_t len) {
tExtendedCAN message;
// 0x00, priority, sender, receiver
uint8_t id[4] = {0x00, PRIORITY_NORM, SENSORBOARD_ID, USB2CAN_ID};
generate_extCAN_ID(id, message.id);
message.header.rtr = 0;
// packet length is limited to 8 chars but one char
// is already used for the cmd.
if (len > 7)
len = 7;
message.data[0] = cmd;
memcpy(message.data+1, str, len);
message.header.length = len+1;
// send to buffer
can_send_message(&message);
return;
}
//send status message
void Can::send_status(){
CanMessage message;
message.id = aux_status_msg.id();
message.length = aux_status_msg.len();
can_send_message(&message);
}
int main () {
uart_init(38400);
// initialisation of the buttons and leds //
DDRE &= ~(0xF0); // buttons as input
PORTE |= 0xF0; // activate internal pull-ups
DDRA |= 0xFF; // leds as output
/** CAN TESTING HERE **/
can_init(BITRATE_1_MBPS);
sei();
// motor 1
can_filter_t filter0;
filter0.id = 9;
//filter0.mask = 0x7FF;
filter0.mask = 0;
filter0.flags.rtr = 0;
can_set_filter(0, &filter0);
PORTA ^= 0x02;
/*while(true) {
if (can_check_message()) {
can_t msg;
can_get_message(&msg);
PORTA ^= 0x01;
}
}*/
PORTA = 0x01;
_delay_ms(1000);
PORTA = 0x02;
int j = 0;
while(true) {
can_t frame;
frame.id = 0x42;
frame.flags.rtr = 0;
frame.length = 8;
for(int i = 0; i < 8; i++) {
frame.data[i] = 42;//j + i;
}
j++;
for (int k = 0; k < 8; k++) {
if (can_send_message(&frame)) {
PORTA &= ~0x0F;
PORTA ^= 0xF0;
}
else {
PORTA |= 0x0F;
}
}
//_delay_ms(1);
_delay_ms(1);
}
while(true) {
if (can_check_message()) {
PORTA ^= 0x03;
/*can_t msg;
can_get_message(&msg);*/
can_t message;
can_get_message(&message);
for (int i = 0; i < 8; i++) {
uart_debug("%d: %d\n\r", i, message.data[i]);
_delay_ms(5);
}
uart_debug("##########################\n\n\r");
}
if (PINE < 0xF0) {
can_t frame;
frame.id = 0x09;
frame.flags.rtr = 0;
frame.length = 2;
frame.data[0] = 0x2A;
frame.data[1] = 0x06;
if (can_send_message(&frame)) {
PORTA &= ~0xE0;
PORTA ^= 0x10;
}
else PORTA = 0xE0;
uart_debug(".\n\r");
_delay_ms(500);
}
}
/** ** ++++++++++ ** **/
return 0;
}
void shackbus_main(void)
{
if ( fifo_get_count(&can_outfifo) > 0 )
{
uint8_t cur_nr = fifo_read (&can_outfifo);
if ( can_send_message(&framestorage_data[cur_nr]) )
{
fifo_get (&can_outfifo);
framestorage_get(cur_nr);
}
}
// Check if a new messag was received
if (can_check_message())
{
can_t msg;
// Try to read the message
if (can_get_message(&msg))
{
shackbus_id_t shackbus_id;
shackbus_id2sb(&shackbus_id,&msg);
//prot=10 = Basis IO data[0]=10 = Ping
if (shackbus_id.prot == 10 && shackbus_id.dst == 8 && msg.data[0]==10)
{
shackbus_id.prio = 3;
shackbus_id.vlan = 4;
shackbus_id.dst = shackbus_id.src;
shackbus_id.src = 8;
shackbus_id.prot = 10;
msg.id = shackbus_sb2id(&shackbus_id);
msg.length = 2;
msg.data[0] = 11;
msg.data[1] = msg.data[1];
//Send the new message
can_send_message_fifo(&msg);
}
//prot=10 = Basis IO data[0]=04 = Jump2Bootloader
if (shackbus_id.prot == 10 && shackbus_id.dst == 8 && msg.data[0]==04)
{
cli();
wdt_enable(WDTO_15MS );
while (1);
}
/* prot=11 = PowerManagement data[0]=1 =on/off data[1]=channel data[2]=state */
/* channel 140 0x8c = DLE Dusche */
/* channel 141 0x8d = DLE E-Lab */
/* channel 142 0x8e = Optionsraeume */
/* channel 143 0x8f = Kueche */
if (shackbus_id.prot == 11 && shackbus_id.dst == 6 && msg.data[0]==1 \
&& msg.data[1] >= 140 && msg.data[1] <= 143)
{
shackbus_id.prio = 3;
shackbus_id.vlan = 4;
shackbus_id.dst = shackbus_id.src;
shackbus_id.src = 8;
shackbus_id.prot = 11;
msg.id = shackbus_sb2id(&shackbus_id);
msg.length = 3;
msg.data[0] = 1;
msg.data[1] = msg.data[1];
msg.data[2] = msg.data[2];
/* Send the message */
can_send_message_fifo(&msg);
if (msg.data[2]==1) enocean_state_set(msg.data[1],ENOCEAN_CHANNEL_SE_SA_SS);
if (msg.data[2]==0) enocean_state_set(msg.data[1],ENOCEAN_CHANNEL_SE_SA_CS);
}
/* prot=11 = PowerManagement data[0]=0 =on/off data[1]=channel data[2]=state */
/* channel 140 0x8c = DLE Dusche */
/* channel 141 0x8d = DLE E-Lab */
/* channel 142 0x8e = Optionsraeume */
/* channel 143 0x8f = Kueche */
if (shackbus_id.prot == 11 && shackbus_id.dst == 6 && msg.data[0]==0 \
&& msg.data[1] >= 140 && msg.data[1] <= 143)
{
shackbus_id.prio = 3;
shackbus_id.vlan = 4;
shackbus_id.dst = shackbus_id.src;
shackbus_id.src = 8;
shackbus_id.prot = 11;
msg.id = shackbus_sb2id(&shackbus_id);
msg.length = 3;
msg.data[0] = 0;
msg.data[1] = msg.data[1];
msg.data[2] = msg.data[2];
/* Send the message */
can_send_message_fifo(&msg);
void power_mgt_set_input_1(uint8_t _channel, uint8_t _state);
void power_mgt_set_wait_off(uint8_t _channel, uint16_t _value);
power_mgt_set_input_1(msg.data[1]-140, msg.data[2]);
power_mgt_set_wait_off(msg.data[1]-140, 20);
}
/* prot=13 = Hauptschalterstate length=1 data[0]=state */
/* 0 => OFF */
/* 1 => ON */
if (shackbus_id.prot == 13 && shackbus_id.dst == 255 && msg.length == 1)
{
shackbus_id.prio = 3;
shackbus_id.vlan = 4;
shackbus_id.dst = shackbus_id.src;
shackbus_id.src = 8;
shackbus_id.prot = 13;
msg.id = shackbus_sb2id(&shackbus_id);
msg.length = 3;
msg.data[1] = 2;
msg.data[2] = 3;
/* Send the message */
// can_send_message(&msg);
if (msg.data[0] > 1)
msg.data[0] = 0;
//power_mgt_set_input_1 (1, msg.data[0]);
power_mgt_set_wait_on (1, 4); //DLE Kueche
power_mgt_set_wait_off(1, 5);
power_mgt_set_input_1 (2, msg.data[0]);
power_mgt_set_wait_on (2, 2); //OR
power_mgt_set_wait_off(2, 4);
power_mgt_set_input_1 (3, msg.data[0]);
power_mgt_set_wait_on (3, 3); //Kueche
power_mgt_set_wait_off(3, 90 * 60); //Sekunden
}
}
}
if (shackbus_system_time_send_flag >= 60)
{
shackbus_system_time_send_flag = 0;
shackbus_id_t ka_id;
ka_id.prio = 1;
ka_id.vlan = 3;
ka_id.dst = 255;
ka_id.src = 8;
ka_id.prot = 2;
can_t ka;
memset(&ka,0,sizeof(can_t));
ka.id = shackbus_sb2id(&ka_id);
ka.length = 8;
ka.flags.extended = 1;
ka.flags.rtr = 0;
uint8_t sreg = SREG;
cli();
for (uint8_t i = 0;i<8;i++)
ka.data[i] = system_time.type8[i];
SREG = sreg;
can_send_message_fifo(&ka);
}
}
// ----------------------------------------------------------------------------
bool usbcan_decode_message(char *str, uint8_t length)
{
can_t msg;
uint8_t dlc_pos;
bool extended;
if (str[0] == 'R' || str[0] == 'T') {
extended = true;
dlc_pos = 9;
}
else {
extended = false;
dlc_pos = 4;
}
if (length < dlc_pos + 1)
return false;
// get the number of data-bytes for this message
msg.length = str[dlc_pos] - '0';
if (msg.length > 8)
return false; // too many data-bytes
if (str[0] == 'r' || str[0] == 'R') {
msg.flags.rtr = true;
if (length != (dlc_pos + 1))
return false;
}
else {
msg.flags.rtr = false;
if (length != (msg.length * 2 + dlc_pos + 1))
return false;
}
// read the messge-identifier
if (extended)
{
uint16_t id;
uint16_t id2;
id = hex_to_byte(&str[1]) << 8;
id |= hex_to_byte(&str[3]);
id2 = hex_to_byte(&str[5]) << 8;
id2 |= hex_to_byte(&str[7]);
msg.id = (uint32_t) id << 16 | id2;
}
else {
uint16_t id;
id = char_to_byte(&str[1]) << 8;
id |= hex_to_byte(&str[2]);
msg.id = id;
}
msg.flags.extended = extended;
// read data if the message is no rtr-frame
if (!msg.flags.rtr)
{
char *buf = str + dlc_pos + 1;
uint8_t i;
for (i=0; i < msg.length; i++)
{
msg.data[i] = hex_to_byte(buf);
buf += 2;
}
}
// finally try to send the message
if (can_send_message( &msg ))
return true;
else
return false;
}
void send_sensor_data(void)
{
uint8_t high, low, sensor_name, req_by;
sensor_name = data_req_arr[4];
req_by = data_req_arr[7] >> 4;
send_arr[3] = 0;
send_arr[2] = 0;
send_arr[1] = 0;
send_arr[0] = 0;
if(sensor_name == EPS_TEMP)
{
spi_retrieve_temp(&high, &low);
send_arr[1] = high; // SPI temperature sensor readings.
send_arr[0] = low;
}
if(sensor_name == PANELX_V)
{
send_arr[0] = pxv;
}
if(sensor_name == PANELX_I)
{
send_arr[0] = pxi;
}
if(sensor_name == PANELY_V)
{
send_arr[0] = pyv;
}
if(sensor_name == PANELY_I)
{
send_arr[0] = pyi;
}
//if(sensor_name == BATTM_V)
//{
//}
//if(sensor_name == BATT_V)
//{
//}
//if(sensor_name == BATT_I)
//{
//}
//if(sensor_name == BATT_TEMP)
//{
//}
//if(sensor_name == COMS_V)
//{
//}
//if(sensor_name == COMS_I)
//{
//}
//if(sensor_name == PAY_V)
//{
//}
//if(sensor_name == PAY_I)
//{
//}
//if(sensor_name == OBC_V)
//{
//}
//if(sensor_name == OBC_I)
//{
//}
send_arr[7] = (SELF_ID << 4)|req_by;
send_arr[6] = MT_DATA;
send_arr[5] = sensor_name;
send_arr[4] = CURRENT_MINUTE;
can_send_message(&(send_arr[0]), CAN1_MB0); //CAN1_MB0 is the data reception MB.
send_data = 0;
return;
}