void envoi_CAN(int ID)
{
switch(ID)
{
case CAN_MSG_EEPROM_CONFIG_ACK_SID:
chinookpack_pack_uint8(&pk,EEPROM_REQUEST);
Set_Timeout();
send_CAN_msg(&can_msg_EEPROM_ACK,canBuffer, 2);
while(!is_CAN_msg_send(&can_msg_EEPROM_ACK) && !can_time_out);
Reset_Timeout();
// If you need to clear the packer buffer
chinookpack_fbuffer_clear(&buf);
break;
case CAN_MSG_GEAR_SID :
chinookpack_pack_uint8(&pk,gear);
Set_Timeout();
send_CAN_msg(&can_msg_GEAR,canBuffer, 2);
while(!is_CAN_msg_send(&can_msg_GEAR) && !can_time_out);
Reset_Timeout();
// If you need to clear the packer buffer
chinookpack_fbuffer_clear(&buf);
break;
case CAN_MSG_TURBINE_DIRECTION_SID :
chinookpack_pack_float(&pk,Position_mat);
Set_Timeout();
send_CAN_msg(&can_msg_POSITION_MAT,canBuffer, 5);
while(!is_CAN_msg_send(&can_msg_POSITION_MAT) && !can_time_out);
Reset_Timeout();
// If you need to clear the paker buffer
chinookpack_fbuffer_clear(&buf);
break;
default:
break;
}
}
struct RxReturn RxPacket(void)
{
struct RxReturn respuesta;
byte bCount, bLength, bChecksum;
byte Rx_time_out = 0;
Sentit_Dades_Rx();
init_A1_timer();
for(bCount = 0; bCount < 4; bCount++)
{
Reset_Timeout();
Byte_Recibido=false; //No_se_ha_recibido_Byte();
while (!Byte_Recibido)
{
Rx_time_out=TimeOut(5000); // tiempo en decenas de microsegundos
if (Rx_time_out)break;
}
if (Rx_time_out)break; //sale del for si ha habido Timeout
respuesta.StatusPacket[bCount] = DatoLeido_UART;
}
bLength = bCount;
bChecksum=0;
if (!Rx_time_out)
{
if(bLength>3) //podem fer checking
{
if(respuesta.StatusPacket[0]!=0xff || respuesta.StatusPacket[0]!=0xff)
{
//WRONG HEADER
//netejar buffer
}
if(respuesta.StatusPacket[3]!=bLength-4)
{
//WRONG LENGTH
//NETEJAR BUFFER
}
for(bCount = 2; bCount<bLength; bCount++) bChecksum += respuesta.StatusPacket[bCount];
if(bChecksum!=0xff)
{
//WRONG CHECKSUM
//NETEJAR BUFFER
}
}
}
return respuesta;
}
int main(void)
{
/*Disable watchdog*/
RCONbits.SWDTEN = 0;
set_clk();
DataStructInit(&sSensorValues);
NotusInitIOs();
NotusInitPeripherals();
NotusInitDevices();
/*CAN bus initialization*/
/*Encoder & decoder*/
chinookpack_fbuffer_init(&buf,bTxCanBuffer,8);
chinookpack_packer_init(&pk,&buf,chinookpack_fbuffer_write);
chinookpack_unpacked_init(&unpacker);
/*Msg*/
/*configuration du message pour la direction de l'eolienne */
config_CAN_filter(0, CAN_MSG_TURBINE_DIRECTION_SID , STANDARD_ID);
receive_CAN_msg(0, 3, fct_can_turbine_direction);
/*configuration du message pour le gear */
config_CAN_filter(1, CAN_MSG_GEAR_SID , STANDARD_ID);
receive_CAN_msg(1, 3, fct_can_gear);
/*configuration du message pour l'eeprom ack */
config_CAN_filter(2, CAN_MSG_EEPROM_CONFIG_ACK_SID , STANDARD_ID);
receive_CAN_msg(2, 3, fct_can_eeprom_answer);
/*configuration du message pour l'eeprom ack */
config_CAN_filter(3, CAN_MSG_PITCH_ACK_CONFIG , STANDARD_ID);
receive_CAN_msg(3, 3, fct_can_pitch_eeprom);
/*configuration du message pour le pitch */
config_CAN_filter(4, CAN_MSG_MANUAL_PITCH_SID , STANDARD_ID);
receive_CAN_msg(4, 3, fct_can_pitch);
config_CAN_Tx_msg(&sCanMsgTurbineRPM,CAN_MSG_TURBINE_RPM_SENSOR_SID,STANDARD_ID,3);
config_CAN_Tx_msg(&sCanMsgWheelRPM,CAN_MSG_WHEEL_RPM_SID,STANDARD_ID,3);
config_CAN_Tx_msg(&sCanMsgWindSpeed,CAN_MSG_WIND_SPEED_SID,STANDARD_ID,3);
config_CAN_Tx_msg(&sCanMsgWindDirection,CAN_MSG_WIND_DIRECTION_SID,STANDARD_ID,3);
config_CAN_Tx_msg(&sCanMsgTrust,CAN_MSG_TRUST_SID,STANDARD_ID,3);
config_CAN_Tx_msg(&sCanMsgAccelerometer,CAN_MSG_ACCELERATION_SID,STANDARD_ID,3);
config_CAN_Tx_msg(&sCanMsgEepromConfigSend,CAN_MSG_EEPROM_CONFIG_SEND_SID,STANDARD_ID,3);
config_CAN_Tx_msg(&sCanMsgEepromPitchSend,CAN_MSG_PITCH_CONFIG_SEND,STANDARD_ID,3);
/*UART command decoder initialization*/
UartSetRXLineEvt(UART_1,uartReceiveLineEvt);
skadi_init(&skadi, skadiCommandTable,sizeof(skadiCommandTable)/sizeof(SkadiCommand));
while(TRUE)
{
/*Get sensors data*/
GetTrust(&sSensorValues);
GetWindDirection(&sSensorValues);
GetWindSpeed(&sSensorValues);
GetTurbineRPM(&sSensorValues);
GetWheelRPM(&sSensorValues);
Get3V3Sensing(&sSensorValues);
Get5V0Sensing(&sSensorValues);
//GetsAccelerometer0(&sSensorValues);
/*Uart command processing*/
if(uartline_rcv_new){
skadi_process_command(&skadi,uartline_rcv);
uartline_rcv_new=0;
}
if(print)
{
LED_STAT2^=1;
/*Send CAN messages*/
/*Initial message to set turbine direction and gear*/
if(ubEepromAnswerReceive == 0x55)
{
ubEepromGearInit = ReadGearEeprom();
fEepromTurbineDirectionInit = ReadTurbineDirEeprom();
chinookpack_pack_uint8(&pk,ubEepromGearInit);
chinookpack_pack_float(&pk,fEepromTurbineDirectionInit);
Set_Timeout();
send_CAN_msg(&sCanMsgEepromConfigSend,bTxCanBuffer, 7);
while(!is_CAN_msg_send(&sCanMsgEepromConfigSend) && !sSystemFlags.CanTimeout);
Reset_Timeout();
chinookpack_fbuffer_clear(&buf);
}
/*Initial message to set pitch position*/
if(ubPitchEepromAnswerReceive == 0x55)
{
fEepromPitchInit = ReadPitchEeprom();
chinookpack_pack_float(&pk,fEepromPitchInit);
Set_Timeout();
send_CAN_msg(&sCanMsgEepromPitchSend,bTxCanBuffer, 5);
while(!is_CAN_msg_send(&sCanMsgEepromPitchSend) && !sSystemFlags.CanTimeout);
Reset_Timeout();
chinookpack_fbuffer_clear(&buf);
}
chinookpack_pack_float(&pk,sSensorValues.fTurbineRPM);
Set_Timeout();
send_CAN_msg(&sCanMsgTurbineRPM,bTxCanBuffer, 5);
while(!is_CAN_msg_send(&sCanMsgTurbineRPM) && !sSystemFlags.CanTimeout);
Reset_Timeout();
chinookpack_fbuffer_clear(&buf);
/*
chinookpack_pack_float(&pk,sSensorValues.sAccelerometer0.fGx);
Set_Timeout();
send_CAN_msg(&sCanMsgAccelerometer,bTxCanBuffer, 5);
while(!is_CAN_msg_send(&sCanMsgAccelerometer) && !sSystemFlags.CanTimeout);
Reset_Timeout();
chinookpack_fbuffer_clear(&buf);
*/
/*EEPROM gear and turbine position*/
if(ubEepromAnswerReceiveMem != ubGearCanReceive)
{
ubEepromAnswerReceiveMem = ubGearCanReceive;
WriteGearEeprom(ubGearCanReceive);
WriteTurbineDirEeprom(fTubineDirectionReceive);
}
/*EEPROM pitch position*/
if(fLastCanPitchPercent != fCanPitchPercent)
{
fLastCanPitchPercent = fCanPitchPercent;
WritePitchEeprom(fLastCanPitchPercent);
}
chinookpack_pack_float(&pk,sSensorValues.fWheelRPM);
Set_Timeout();
send_CAN_msg(&sCanMsgWheelRPM,bTxCanBuffer, 5);
while(!is_CAN_msg_send(&sCanMsgWheelRPM) && !sSystemFlags.CanTimeout);
Reset_Timeout();
chinookpack_fbuffer_clear(&buf);
chinookpack_pack_float(&pk,sSensorValues.fWindSpeed);
Set_Timeout();
send_CAN_msg(&sCanMsgWindSpeed,bTxCanBuffer, 5);
while(!is_CAN_msg_send(&sCanMsgWindSpeed) && !sSystemFlags.CanTimeout);
Reset_Timeout();
chinookpack_fbuffer_clear(&buf);
chinookpack_pack_float(&pk,sSensorValues.fWindDir);
Set_Timeout();
send_CAN_msg(&sCanMsgWindDirection,bTxCanBuffer, 5);
while(!is_CAN_msg_send(&sCanMsgWindDirection) && !sSystemFlags.CanTimeout);
Reset_Timeout();
chinookpack_fbuffer_clear(&buf);
chinookpack_pack_float(&pk,sSensorValues.fTrust);
Set_Timeout();
send_CAN_msg(&sCanMsgTrust,bTxCanBuffer, 5);
while(!is_CAN_msg_send(&sCanMsgTrust) && !sSystemFlags.CanTimeout);
Reset_Timeout();
chinookpack_fbuffer_clear(&buf);
print = 0;
}
/*Error processing*/
if(sSystemFlags.CanError)
{
LED_STAT0 = 1;
}
}
return 0;
}
int main(void) {
fujin_init_board();
// CAN PREPARATION
#if ENABLE_CAN == TRUE
chinookpack_fbuffer_init(&buf,bTxCanBuffer,8);
chinookpack_packer_init(&pk,&buf,chinookpack_fbuffer_write);
chinookpack_unpacked_init(&unpacker);
config_CAN_Tx_msg(&can_msg_current, CAN_MSG_CURRENT_MONITOR_SID , STANDARD_ID, 3);
config_CAN_Tx_msg(&can_msg_voltage, CAN_MSG_VOLTAGE_MONITOR_SID , STANDARD_ID, 3);
config_CAN_Tx_msg(&can_msg_clock, CAN_MSG_TIME_SID , STANDARD_ID, 3);
//config_CAN_Tx_msg(&can_msg_pitch, CAN_MSG_PITCH_AUTO_SID , STANDARD_ID, 3);
config_CAN_Tx_msg(&can_msg_gear, CAN_MSG_GEAR_FUJIN_SID , STANDARD_ID, 3);
setup_can_rx();
#endif
// Read Clock for timestamps
#if ENABLE_RTC == TRUE
// init the rtc
#endif
// TODO: Read Eeprom Parameters
// and and set settings
// Skadi
skadi_init(&fujin.skadi, testCommandTable,sizeof(testCommandTable)/sizeof(SkadiCommand));
UartSetRXLineEvt(UART_1,uartReceiveLineEvt);
UartSetRXLineEvt(UART_2,xbeeReceiveLineEvt);
while(1){
// 1. Read Current and SHUT DOWN RELAY if overloading
#if ENABLE_VMON == TRUE && ENABLE_I2C == TRUE
fujin.chinook.power.v = ltc4151_read_voltage(&(fujin.ltc4151_state));
fujin.chinook.power.i = ltc4151_read_current(&(fujin.ltc4151_state));
#endif
// 2. Read Clock for timestamps
#if ENABLE_RTC == TRUE
// At some interval read rtc and send time on can
#endif
// 2. Read Clock for timestamps
#if ENABLE_RTC == TRUE
// At some interval read rtc and send time on can
#endif
// 4. UART Processing
#if ENABLE_UART == TRUE
// 4.1 XBEE Processing
#if ENABLE_XBEE == TRUE
if(xbeeline_rcv_new){
skadi_process_command(&fujin.skadi,xbeeline_rcv);
xbeeline_rcv_new=0;
}
#endif
// 4.2 USB-Serial Processing
#if ENABLE_USBSERIAL == TRUE
if(uartline_rcv_new){
skadi_process_command(&fujin.skadi,uartline_rcv);
uartline_rcv_new=0;
}
#endif
#endif
if(print)
{
#if ENABLE_XBEE == TRUE && ENABLE_UART == TRUE
sprintf(ubDataLoggingBuffer,"%u %.2f %.2f %.2f %.2f %.2f\n\r"
,fujin.loggin.ubGear
,fujin.loggin.fWindSpeed
,fujin.loggin.fTurbineRPM
,fujin.loggin.fWheelRPM
,fujin.loggin.fTrust
,fujin.loggin.fPitch);
UartTxFrame(UART_1, ubDataLoggingBuffer, strlen(ubDataLoggingBuffer));
#endif
// 3. CAN Processing
#if ENABLE_CAN == TRUE
chinookpack_pack_float(&pk,fujin.chinook.power.i);
Set_Timeout();
send_CAN_msg(&can_msg_current, bTxCanBuffer, 5);
while(!is_CAN_msg_send(&can_msg_current) && !CanTimeout); // test si le message est envoyé
Reset_Timeout();
chinookpack_fbuffer_clear(&buf);
chinookpack_pack_float(&pk,fujin.chinook.power.v);
Set_Timeout();
send_CAN_msg(&can_msg_voltage, bTxCanBuffer, 5);
while(!is_CAN_msg_send(&can_msg_voltage) && !CanTimeout); // test si le message est envoyé
Reset_Timeout();
chinookpack_fbuffer_clear(&buf);
#endif
print = 0;
}
}
// Should never go there
return 0;
}
int main(){
int memo_bit_0[4]={0, 0, 0, 0}, memo_bit_1[4]={0, 0, 0, 0}; //Utilisé pour détecter les fronts (up/down) des boutons
unsigned int memo_cran_levier=0; //Mémorise dans quel cran se trouve le levier
/* Paramète d'affichage de l'ADC du pitch variable */
float BUFF[16]={0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0}; // initialise 16 BUFFER
float OFFSET[16]={0.005f,0,0.005f,0,0.005f,0,0.005f,0,0.005f,0,0.005f,0,0.005f,0,0.005f,0}; // ajout d'un offset pour un réglage précis
int BUFF_val[16]={1,1,0,0,0,0,0,0,0,0,0,0,0,0,0,0}; // 1 = affichage du buffer
float Pot_Pitch_Volt=0; //valeur en volt du potentiomètre pour les pitchs variables
unsigned int *Levier_num_cran=0; //numéro du cran dans lequel se trouve le levier pour le pitch variable
Setup(); //Initialisation PIC, UART,...
/* initialisation de l'encodeur et can*/
initialisation_CAN();
initialisation_message_Tx_CAN();
chinookpack_fbuffer_init(&buf, dataArray, 8); //initialisation des buffer
chinookpack_packer_init(&pk, &buf, chinookpack_fbuffer_write); //initialisation du pack pour le message
Init_Timer3(TIMER3_FREQ); //CAN timeout timer
while(1)
{
Analyse_ADC(BUFF, OFFSET, BUFF_val); //Analyse les entrées analogiques
Pot_Pitch_Volt = BUFF[0]; //recopie de la valeur du potentiomètre
if(variation_pitch(Pot_Pitch_Volt, &Levier_num_cran)){ //Envoie du message commande des pitchs variables seulement s'il y a eu un changement de cran sur le levier
chinookpack_pack_uint8(&pk, Levier_num_cran);
Set_Timeout();
send_CAN_msg(&can_msg_manual_pitch, dataArray, 2); // envoie du message Can_manual_pitch
while(is_CAN_msg_send(&can_msg_manual_pitch) != TRUE && !can_time_out); // test si le message est envoyé
Reset_Timeout();
}
chinookpack_fbuffer_clear(&buf);
/*détecte si un bouton change et envoie des messages can seulement s'il y a changement sur un bouton*/
if((!BP1 && !memo_bit_1[0]) || (!BP2 && !memo_bit_1[1]) || (!BP3 && !memo_bit_1[2]) ||(!BP4 && !memo_bit_1[3])){
if(!BP1) {memo_bit_0[0]=0;memo_bit_1[0]=1;Led1=1;Nop();} // mémorise le bouton 1 comme étant à l'état haut
if(!BP2) {memo_bit_0[1]=0;memo_bit_1[1]=1;Led2=1;Nop();} // mémorise le bouton 2 comme étant à l'état haut
if(!BP3) {memo_bit_0[2]=0;memo_bit_1[2]=1;Led3=1;Nop();} // mémorise le bouton 3 comme étant à l'état haut
if(!BP4) {memo_bit_0[3]=0;memo_bit_1[3]=1;Led4=1;Nop();} // mémorise le bouton 4 comme étant à l'état haut
chinookpack_pack_uint8(&pk,(memo_bit_0[3]<<3)|(memo_bit_0[2]<<2)|(memo_bit_0[1]<<1)|(memo_bit_0[0])); //concatène les quatre boutons
Set_Timeout();
send_CAN_msg(&can_msg_button_cmd, dataArray, 2); // Envoie du message CAN des boutons
while(is_CAN_msg_send(&can_msg_button_cmd) != TRUE && !can_time_out); // test si le message est envoyé
Reset_Timeout();
}
else if((BP1 && !memo_bit_0[0]) || (BP2 && !memo_bit_0[1]) || (BP3 && !memo_bit_0[2]) ||(BP4 && !memo_bit_0[3])){
if(BP1) {memo_bit_0[0]=1;memo_bit_1[0]=0;Led1=0;Nop();} // mémorise le bouton 1 comme étant à l'état bas
if(BP2) {memo_bit_0[1]=1;memo_bit_1[1]=0;Led2=0;Nop();} // mémorise le bouton 2 comme étant à l'état bas
if(BP3) {memo_bit_0[2]=1;memo_bit_1[2]=0;Led3=0;Nop();} // mémorise le bouton 3 comme étant à l'état bas
if(BP4) {memo_bit_0[3]=1;memo_bit_1[3]=0;Led4=0;Nop();} // mémorise le bouton 4 comme étant à l'état bas
chinookpack_pack_uint8(&pk,(memo_bit_0[3]<<3)|(memo_bit_0[2]<<2)|(memo_bit_0[1]<<1)|(memo_bit_0[0])); //concatène les quatre boutons
Set_Timeout();
send_CAN_msg(&can_msg_button_cmd, dataArray, 2); // Envoie du message CAN des boutons
while(is_CAN_msg_send(&can_msg_button_cmd) != TRUE && !can_time_out); // test si le message est envoyé
Reset_Timeout();
}
chinookpack_fbuffer_clear(&buf); // vide le buffer pour le pack de l'encodeur message can
}//while
}