/**-----------------------------------------------------------------------------
* @brief Initialisation du watchdog Windows.
*
* param[in] Timeout_ms Duree du timeout watchdog en ms.
*/
void WDG_InitWWDG(uint16_t Timeout_ms){
RCC_ClocksTypeDef xRCC_Clocks;
uint32_t ulClock_kHz;
WWDG_DeInit();
// Initialisation des variables
WWDG_Reload = Timeout_ms;
WWDG_Cnt = Timeout_ms;
// Activation horloges
RCC_APB1PeriphResetCmd(RCC_APB1Periph_WWDG, DISABLE);
RCC_APB1PeriphClockCmd(RCC_APB1Periph_WWDG, ENABLE);
// Configuration interruption
WWDG_EnableIT();
#ifdef configLIBRARY_KERNEL_INTERRUPT_PRIORITY
NVIC_InitStructure.NVIC_IRQChannel = WWDG_IRQn;
NVIC_InitStructure.NVIC_IRQChannelPreemptionPriority = configLIBRARY_KERNEL_INTERRUPT_PRIORITY;
NVIC_InitStructure.NVIC_IRQChannelSubPriority = 0;
NVIC_InitStructure.NVIC_IRQChannelCmd = ENABLE;
NVIC_Init( &NVIC_InitStructure );
#else
NVIC_EnableIRQ(WWDG_IRQn);
#endif
// Configuration timeout
WWDG_SetPrescaler(WWDG_Prescaler_8);
WWDG_SetWindowValue(0x7F);
// Activation
WWDG_Enable(0x7F);
WDG_Refresh();
}
//-----------------------------------------------------------------------------
// FUNCTION: main
// SCOPE: Bootloader application system function
// DESCRIPTION: bootloader main function
// RETURNS: 0
//-----------------------------------------------------------------------------
int main(void)
{
volatile unsigned long loop_counter = 0; // counter of loop without received frame
Byte enableBootMode = 0; // 0: enter APP, 1: enter BOOT mode, 2: enter verify mode
DisableInterrupts;
//WDG_Disable(); //watchdog can be enable or disabled in kinetis_sysinit.c
INIT_CLOCKS_TO_MODULES; // init clock module
Boot_Button_Init(); // init SW1 button (PTC3 port) on FRDM_KL26 board
INIT_BOOT_LED;
//condition for entering boot:
if(((*(unsigned long*)(RELOCATED_VECTORS + 8)) == 0xffffffff) //1. no valid code in APP vector section,
|| Boot_StrCompare(( Byte*)APPOK_START_ADDRESS, str_app_ok, APPOK_LENGTH) == CHECK_FAIL //2."APP_OK" is wrong in address APPOK_START_ADDRESS.
|| ((GPIO_PDIR_REG(BOOT_PIN_ENABLE_GPIO_BASE) & (1 << BOOT_PIN_ENABLE_NUM)) == 0) //3. SW1 is pressed
|| (AppIDC == 0x0000000B)) //4. App request boot
{
enableBootMode = 1; // enable boot
BOOT_LED_ON;
AppIDC = 0;
}
else if (AppIDC == 0x0000000A) // App request verify
{
enableBootMode = 2; // enable verify mode
BOOT_LED_ON;
AppIDC = 0;
}
if(enableBootMode)
{
// if use external clock
#ifdef USE_EXTERNAL_CLOCK
Boot_Init_Clock( );
#endif
PIN_INIT_AS_UART; // set PTA1/UART0_RX and PTA2/UART0_TX pins as UART
UART_Initialization(); // init UART module
}
////////////////////////////////////////////////////////////////////////
//BOOT Model
////////////////////////////////////////////////////////////////////////
while(enableBootMode) // enter boot or verify mode, execute all command from GUI
{
volatile Byte frame_start_flag = 0; // if frame header is received. 1: receive $, start to receive frame; 0: no $ received
volatile Byte frame_length = 0xFF; // SCI received frame length, initialized as 0xFF
volatile Byte data_length = 0;
volatile Byte buff_index = 1; // receive buffer index for sci_buffer[]
volatile Byte data_checked = 0; // check frame end 0xAA 0x55. 1: correct frame ; 0: wrong frame
FLASH_Initialization();
sci_buffer[0] = UART_GetChar();
if( sci_buffer[0] == '$') //check frame header: whether it is '$'
{
loop_counter = 0;
frame_start_flag = 1;
}
if(frame_start_flag == 1)
{
sci_buffer[1] = UART_GetChar(); // sci_buffer[1] is the station number
UART_GetChar(); // sci_buffer[2] is reserved
sci_buffer[3] = UART_GetChar(); // sci_buffer[3] is the Data length
data_length = sci_buffer[3];
frame_length = 4 + sci_buffer[3] + 2; // frame_length = frame head + data + frame end
buff_index = 4;
while(data_length --)
sci_buffer[buff_index ++] = UART_GetChar();
sci_buffer[buff_index ++] = UART_GetChar(); // frame end. It should be 0xAA
sci_buffer[buff_index ++] = UART_GetChar(); // frame end. It should be 0x55
frame_start_flag = 0;
}
if((sci_buffer[frame_length-2] == 0xAA) && (sci_buffer[frame_length-1] == 0x55)) //Check if Frame end is correct
{
data_checked = 1; // Correct frame received.
}
// all the data in frame was correctly received (data_checked = 1) above, now perform frame analysis below.
// sci_buffer[] now is switched to tx buffer
if(data_checked == 1)
{
Byte i = 0;
Byte j = 0;
Byte s19length = 0;
Byte s19buffer[WR_BLOCK_BYTE]; //extract app file burning code from received frame, store them to s19buffer[]
WDG_Refresh();
switch(sci_buffer[4])
{
case 'I': // receive 'I' command, send version information to UART
i = 4;
while((sci_buffer[i] = Identifier[i-4]) !='\0') //assign chip part number info to sci_buffer[]
{
i++;
}
sci_buffer[3] = i - 4; // tx data length in one frame
Boot_Send(sci_buffer);
if(enableBootMode == 1) // if in boot mode
FLASH_EraseSector((LWord)APPOK_START_ADDRESS); //erase APP_OK
break;
case 'E': // receive 'E' command, erase sector, then send confirm frame to UART
Boot_ReadAddress();
if(!( FLASH_EraseSector(address.complete)))
{
sci_buffer[3] = 00;
Boot_Send(sci_buffer);
}
break;
case'W': // receive 'W' command, extract app burning code, program flash. then send confirm frame to UART
Boot_ReadAddress();
s19length = sci_buffer[8];
for(j=0,i=9;j<s19length;j++,i++) // extract the prepared writing data from sci_buff[] to S19buffer[]
{
s19buffer[j] = sci_buffer[i];
}
if(!(FLASH_ProgramSectionByLongs (address.complete, (LWord*)s19buffer, s19length/4)))
{
sci_buffer[3] = 00;
Boot_Send(sci_buffer);
break;
}
case'R': // receive 'R' command, read out the memory data, then send the data in frame to UART
Boot_ReadAddress();
s19length = sci_buffer[8];
for(i=0;i<s19length;i++)
{
sci_buffer[i + 4] = ((Byte*)(address.complete))[i];
}
sci_buffer[3] = s19length;
Boot_Send(sci_buffer);
break;
case'G': // receive 'G' command, go to app.
if(enableBootMode == 1)
FLASH_ProgramSectionByLongs ((LWord)APPOK_START_ADDRESS, (LWord*)str_app_ok, APPOK_LENGTH/4);
Boot_Cpu_SystemReset( );
// if we want to jump to user application, we need to deinitialize used modules and switch MCG back to FEI mode
break;
default :
break;
}// end switch(sci_buffer[4])
frame_start_flag = 0;
for (buff_index = 0; buff_index<FRAME_BUFF_LENGTH; buff_index++) // clear sci_buffer[]
sci_buffer[buff_index] = 0;
}// end if(data_checked == 1)
loop_counter ++;
if(loop_counter >= 10 && enableBootMode == 2) // 100 * timeout of UART_GetChar();
{
Boot_Cpu_SystemReset( );
}
}// end while(enableBootMode)
// deinitialization of used modules
UART_Deinitialization();
DEINIT_BOOT_LED;
DEINIT_CLOCKS_TO_MODULES;
// relocate vector table
SCB_VTOR = RELOCATED_VECTORS;
AppIDC = 0;
// Jump to user application
JumpToUserApplication(*((unsigned long*)RELOCATED_VECTORS), *((unsigned long*)(RELOCATED_VECTORS+4)));
return 0;
} // end main
//-----------------------------------------------------------------------------
// FUNCTION: main
// SCOPE: Bootloader application system function
// DESCRIPTION: bootloader main function
// RETURNS: 0
//-----------------------------------------------------------------------------
int main(void)
{
volatile unsigned long loop_counter = 0; // counter of loop without received frame
Byte enableBootMode = 0; // 0: enter APP, 1: enter BOOT mode, 2: enter verify mode
//Byte s19buffer[WR_BLOCK_BYTE] = {1}; //extract app file burning code from received frame, store them to s19buffer[]
DisableInterrupts;
INIT_CLOCKS_TO_MODULES; // init clock module
Boot_Button_Init(); // init SW3 button (PTC3 port) on FRDM_K22 board
INIT_BOOT_LED;
// condition for entering boot:
if(((*(unsigned long*)(RELOCATED_VECTORS + 8)) == 0xffffffff) //1. no valid code in APP vector section,
|| Boot_StrCompare(( Byte*)APPOK_START_ADDRESS, str_app_ok, APPOK_LENGTH) == CHECK_FAIL //2."APP_OK" is wrong in address APPOK_START_ADDRESS.
|| ((GPIO_PDIR_REG(BOOT_PIN_ENABLE_GPIO_BASE) & (1 << BOOT_PIN_ENABLE_NUM)) == 0) //3. SW1 is pressed
|| (AppIDC == 0x0000000B)) //4. App request boot
{
enableBootMode = 1; // enable boot
BOOT_LED_ON;
AppIDC = 0;
}
else if (AppIDC == 0x0000000A) // App request verify
{
enableBootMode = 2; // enable verify mode
BOOT_LED_ON;
AppIDC = 0;
}
if(enableBootMode)
{
// if use external clock
#ifdef USE_EXTERNAL_CLOCK
Boot_Init_Clock();
#endif
PIN_INIT_AS_UART; // set PTEA1/UART1_RX and PTE0/UART1_TX pins as UART
UART_Initialization(); // init UART module
}
////////////////////////////////////////////////////////////////////////
//BOOT Model
////////////////////////////////////////////////////////////////////////
while(enableBootMode) // enter boot or verify mode, execute all command from GUI
{
volatile Byte frame_start_flag = 0; // if frame header is received. 1: receive $, start to receive frame; 0: no $ received
volatile Byte frame_length = 0xFF; // SCI received frame length, initialized as 0xFF
volatile Byte data_length = 0;
volatile Byte buff_index = 1; // receive buffer index for sci_buffer[]
volatile Byte data_checked = 0; // check frame end 0xAA 0x55. 1: correct frame ; 0: wrong frame
WDG_Refresh();
FLASH_Initialization();
sci_buffer[0] = UART_GetChar();
if( sci_buffer[0] == '$') //check frame header: whether it is '$'
{
loop_counter = 0;
frame_start_flag = 1;
}
if(frame_start_flag == 1)
{
sci_buffer[1] = UART_GetChar(); // sci_buffer[1] is the station number
UART_GetChar(); // sci_buffer[2] is reserved
sci_buffer[3] = UART_GetChar(); // sci_buffer[3] is the Data length
data_length = sci_buffer[3];
frame_length = 4 + sci_buffer[3] + 2; // frame_length = frame head + data + frame end
buff_index = 4;
while(data_length --)
sci_buffer[buff_index ++] = UART_GetChar();
sci_buffer[buff_index ++] = UART_GetChar(); // frame end. It should be 0xAA
sci_buffer[buff_index ++] = UART_GetChar(); // frame end. It should be 0x55
frame_start_flag = 0;
}
if((sci_buffer[frame_length-2] == 0xAA) && (sci_buffer[frame_length-1] == 0x55)) //Check if Frame end is correct
{
data_checked = 1; // Correct frame received.
}
// all the data in frame was correctly received (data_checked = 1) above, now perform frame analysis below.
// sci_buffer[] now is switched to tx buffer
if(data_checked == 1)
{
Byte i = 0;
Byte j = 0;
Byte burn_data_length = 0;
Byte s19buffer[WR_BLOCK_BYTE]; //extract app file burning code from received frame, store them to s19buffer[]
//WDG_Refresh();
switch(sci_buffer[4])
{
case 'I': // receive 'I' command, send version information to UART
i = 4;
while((sci_buffer[i] = MCU_Identification.targ_name[i-4]) !='\0') //assign chip part number info to sci_buffer[]
{
i++;
}
sci_buffer[i++] = '#';
j = i;
while((sci_buffer[i] = MCU_Identification.Boot_version[i-j]) !='\0') //assign bootloader version info to sci_buffer[]
{
i++;
}
sci_buffer[i++] = '#';
sci_buffer[i++] = (MCU_Identification.wrblk & 0xFF00)>>8; //assign write block size
sci_buffer[i++] = MCU_Identification.wrblk & 0x00FF;
sci_buffer[i++] = (MCU_Identification.erblk & 0xFF00)>>8; //assign erase block size
sci_buffer[i++] = MCU_Identification.erblk & 0x00FF;
sci_buffer[i++] = MCU_Identification.addr_limit.Bytes.hl; //assign MCU Flash end address
sci_buffer[i++] = MCU_Identification.addr_limit.Bytes.lh;
sci_buffer[i++] = MCU_Identification.addr_limit.Bytes.ll;
sci_buffer[i++] = MCU_Identification.dontcare_addrl.Bytes.hl; //assign bootloader dont care memory start adddress
sci_buffer[i++] = MCU_Identification.dontcare_addrl.Bytes.lh;
sci_buffer[i++] = MCU_Identification.dontcare_addrl.Bytes.ll;
sci_buffer[i++] = MCU_Identification.dontcare_addrh.Bytes.hl; //assign bootloader dont care memory end adddress
sci_buffer[i++] = MCU_Identification.dontcare_addrh.Bytes.lh;
sci_buffer[i++] = MCU_Identification.dontcare_addrh.Bytes.ll;
sci_buffer[i++] = MCU_Identification.relocated_vectors.Bytes.hl; //assign bootloader start adddress
sci_buffer[i++] = MCU_Identification.relocated_vectors.Bytes.lh;
sci_buffer[i++] = MCU_Identification.relocated_vectors.Bytes.ll;
sci_buffer[i++] = MCU_Identification.targ_core; // target is M4 core
sci_buffer[3] = i - 4; // tx data length in one frame
Boot_Send(sci_buffer);
if(enableBootMode == 1) // if in boot mode
FLASH_EraseSector((LWord)APPOK_START_ADDRESS); //erase APP_OK
WDG_Refresh();
break;
case 'E': // receive 'E' command, erase sector, then send confirm frame to UART
Boot_ReadAddress();
if(!( FLASH_EraseSector(address.complete)))
{
sci_buffer[3] = 00;
Boot_Send(sci_buffer);
}
WDG_Refresh();
break;
case'W': // receive 'W' command, extract app burning code, program flash. then send confirm frame to UART
Boot_ReadAddress();
burn_data_length = sci_buffer[8];
for(j=0,i=9;j<burn_data_length;j++,i++) // extract the prepared writing data from sci_buff[] to S19buffer[]
{
s19buffer[j] = sci_buffer[i];
}
if(!(FLASH_ProgramSectionByLongs (address.complete, (LWord*)s19buffer, burn_data_length/4)))
{
sci_buffer[3] = 00;
Boot_Send(sci_buffer);
}
WDG_Refresh();
break;
case'R': // receive 'R' command, read out the memory data, then send the data in frame to UART
Boot_ReadAddress();
burn_data_length = sci_buffer[8];
for(i=0;i<burn_data_length;i++)
{
sci_buffer[i + 4] = ((Byte*)(address.complete))[i];
}
sci_buffer[3] = burn_data_length;
Boot_Send(sci_buffer);
WDG_Refresh();
break;
case'G': // receive 'G' command, go to app.
if(enableBootMode == 1)
FLASH_ProgramSectionByLongs ((LWord)APPOK_START_ADDRESS, (LWord*)str_app_ok, APPOK_LENGTH/4);
//BOOT_LED_OFF;
NVIC_SystemReset();
break;
default :
break;
}// end switch(sci_buffer[4])
frame_start_flag = 0;
for (buff_index = 0; buff_index<FRAME_BUFF_LENGTH; buff_index++) // clear sci_buffer[]
sci_buffer[buff_index] = 0;
}// end if(data_checked == 1)
loop_counter ++;
if(loop_counter >= 10 && enableBootMode == 2) // 100 * timeout of UART_GetChar();
{
NVIC_SystemReset();
}
}// end while(enableBootMode)
/**-----------------------------------------------------------------------------
* @brief Desactivation du watchdog.
*
*/
void WDG_Disable(){
WWDG_DeInit();
WDG_Refresh();
}
/*------------------------------------------------------------------------------------------------*/
int main(void)
{
Bool_e NouveauMode;
Horodatage_s Time = {
.Heure = 0,
.Minute = 0,
.Seconde = 0,
};
// ------------------------------------------------------------------------
// --- INIT DU SYSTEME
// --- Initialisations uC, Peripheriques, Fonctions et Interfaces
BSP_Init(); // Init carte
SysTick_Config(SystemCoreClock / 1000); // Init Tick 1ms
HAL_Console_Init(115200);
RTC_StartInit(TRUE); // Start Init RTC
I2C1_Init(100 * 1000); // 100kHz
ADC1_Init();
_CONSOLE(0, "\n");
_CONSOLE(LogId, "--- START - ALJ%s ---\n", VERSION_SW);
//AM23xx_Test();
REGLAGE_RTC();
//----------------------------------
// FONCTIONNALITES
MemoireFAT_Init((Diskio_drvTypeDef*) &SdCard_SPI_Driver);
#if USE_TEMP_HYGRO
TempHygro_Init(TEMPERATURE_PERIODE_ACQUISITION_ms);
#endif
Delay_ms(50);
// Hygrometre_Init();
ConfIni_Init();
Arrosage_Init(USE_CONF_INI_FILE);
Chauffage_Init(USE_CONF_INI_FILE);
Ventilation_Init(USE_CONF_INI_FILE);
Logs_Init();
PC_Init();
Terminal_Init();
Terminal_Cmd_Init();
//_CONSOLE(LogId, "MODE_FCT_SERVEUR\n");
ModeFct = MODE_FCT_SERVEUR;
//MemoireFAT_PrintFileList("httpserver");
Ethernet_Init(USE_CONF_INI_FILE);
if (RTC_BkpRegister_Read(0) != 0)
{
_CONSOLE(LogId, "MODE_FCT_USB\n");
ModeFct = MODE_FCT_USB;
//USB_Init((Diskio_drvTypeDef*) &SdCard_SPI_Driver);
RTC_BkpRegister_Write(0, 0);
}
// Lancement des timers
TSW_Start(&TmrAffichTempHygro, 3000);
//Mode_Test();
WDG_InitWWDG(10000);
while (RTC_Main() != RTC_ETAPE_READY);
TSW_Start(&Tmr_RTC, 10000);
RTC_Lire(&StartTime);
RTC_Lire(&Time);
//--------------------------------------------------------------------------------
_CONSOLE(LogId, "--------------------------\n");
_CONSOLE(LogId, "StartupTime=%dms\n", TSW_GetTimestamp_ms());
_CONSOLE(LogId, "--------------------------\n\n");
while(1)
{
WDG_Refresh();
// if (PC_Read((uint8_t*) BufferIn, NULL) == TRUE)
// {
// Terminal_Parser(BufferIn, BufferOut, 1024);
// if (strlen(BufferOut) > 0)
// PC_Write(BufferOut, strlen(BufferOut));
// }
// Choix du mode de fonctionnement
// WKUP = ACTIF -> USB - WKUP = INACTIF -> WebServer
//if (GPIO_Get(PORT_WKUP) == Etat_ACTIF)
//{
// RTC_BkpRegister_Write(0, 1);
// while (GPIO_Get(PORT_WKUP) == Etat_ACTIF)
// TSW_Delay(100);
// GOTO(0);
//}
//----------------------------------
// PROCESSUS
LifeBit_Main();
MemoireFAT_Main();
#if USE_TEMP_HYGRO
TempHygro_Thread();
#endif
if (Mode != MODE_DEMARRAGE)
{
Arrosage_Management();
Chauffage_Management();
Ventilation_Management();
Hygrometrie_Management();
}
if (ModeFct == MODE_FCT_SERVEUR)
{
Ethernet_Management();
}
Logs_Management();
//----------------------------------
// LECTURE TEMPERATURE
if ((TempHygro_IsValide() == FALSE)
&& (Mode != MODE_DEMARRAGE))
{
Mode = MODE_DEFAUT;
}
else
{
Temperature = TempHygro_GetTemperature();
Hygrometrie = TempHygro_GetHygrometrie();
}
//----------------------------------
// RTC
if (TSW_IsFinished(&Tmr_RTC))
{
RTC_Lire(&Time);
TSW_ReStart(&Tmr_RTC);
//_CONSOLE(LogId, "RTC = %d-%02d-%02d %02d:%02d:%02d;%08d;",
// Time.Annee, Time.Mois, Time.Jour,
// Time.Heure, Time.Minute, Time.Seconde,
// TSW_GetTimestamp_ms());
}
//----------------------------------
// AFFICHAGE TEMPERATURE
/* if (TSW_IsRunning(&TmrAffichTempHygro) == FALSE)
{
_CONSOLE(LogId, "TempHygro = ");
if (TempHygro_IsValide() == FALSE)
_CONSOLE(LogId, "Non valide\n");
else
{
_CONSOLE(LogId, "%.01f %c\t%.01f %c\n",
Temperature, '°',
Hygrometrie, '%');
}
TSW_Start(&TmrAffichTempHygro, 2500);
}
*/
//----------------------------------
// GESTION DES MODES
NouveauMode = FALSE;
if (LastMode != Mode)
{
LastMode = Mode;
NouveauMode = TRUE;
}
switch (Mode)
{
//--------------------------------------------------------------
case MODE_DEMARRAGE :
if (NouveauMode)
{
_CONSOLE(LogId, "----- MODE_DEMARRAGE -----\n");
Logs_Data();
}
if (Mode_Demarrage() == Status_Fini)
{
Mode = MODE_SURVEILLANCE;
}
break;
//--------------------------------------------------------------
case MODE_SURVEILLANCE :
if (NouveauMode)
{
_CONSOLE(LogId, "----- MODE_SURVEILLANCE -----\n");
Logs_Data();
GPIO_Set(PORT_IHM_LED1, Etat_ACTIF);
GPIO_Set(PORT_IHM_LED2, Etat_INACTIF);
GPIO_Set(PORT_IHM_LED3, Etat_INACTIF);
EtatVentillation = Etat_INACTIF;
EtatChauffage = Etat_INACTIF;
TSW_Start(&Tmr_ATTENTE, 1000 * 30); // On reste au moins 30sec en mode attente
}
if (TSW_IsRunning(&Tmr_ATTENTE) == TRUE)
{
break;
}
// Pas de chauffage dessuite après l'extraction
if ((TSW_IsRunning(&Tmr_EXT) == FALSE)
&& (Temperature < Chauffage_Get()->Cfg_SeuilStart_DegC))
{
Mode = MODE_CHAUFFAGE;
}
// Pas d'extraction dessuite après le chauffage
if ((TSW_IsRunning(&Tmr_CH) == FALSE)
&& (Temperature >= Ventilation_Get()->Cfg_SeuilStart_DegC))
{
Mode = MODE_VENTILLATION;
}
break;
//--------------------------------------------------------------
case MODE_CHAUFFAGE :
if (NouveauMode)
{
_CONSOLE(LogId, "----- MODE_CHAUFFAGE -----\n");
Logs_Data();
GPIO_Set(PORT_IHM_LED1, Etat_INACTIF);
GPIO_Set(PORT_IHM_LED2, Etat_ACTIF);
GPIO_Set(PORT_IHM_LED3, Etat_INACTIF);
if (Ventilation_Get()->Cfg_ActiverPendantChauffage)
EtatVentillation = Etat_ACTIF;
else
EtatVentillation = Etat_INACTIF;
EtatChauffage = Etat_ACTIF;
}
// Attente franchissement seuil
if (Temperature >= Chauffage_Get()->Cfg_SeuilStop_DegC)
{
EtatChauffage = Etat_INACTIF;
TSW_Start(&Tmr_CH, 1000 * Chauffage_Get()->Cfg_TempoApresCh_s);
Mode = MODE_SURVEILLANCE;
}
break;
//--------------------------------------------------------------
case MODE_VENTILLATION :
if (NouveauMode)
{
_CONSOLE(LogId, "----- MODE_VENTILLATION -----\n");
Logs_Data();
GPIO_Set(PORT_IHM_LED1, Etat_ACTIF);
GPIO_Set(PORT_IHM_LED2, Etat_ACTIF);
GPIO_Set(PORT_IHM_LED3, Etat_INACTIF);
EtatChauffage = Etat_INACTIF;
EtatVentillation = Etat_ACTIF;
}
if (Temperature < Ventilation_Get()->Cfg_SeuilStop_DegC)
{
EtatVentillation = Etat_INACTIF;
TSW_Start(&Tmr_EXT, 1000 * Ventilation_Get()->Cfg_TempoApresEXT_s);
Mode = MODE_SURVEILLANCE;
}
break;
//--------------------------------------------------------------
case MODE_DEFAUT :
if (NouveauMode)
{
_CONSOLE(LogId, "----- MODE_DEFAUT -----\n");
Logs_Data();
GPIO_Set(PORT_IHM_LED1, Etat_INACTIF);
GPIO_Set(PORT_IHM_LED2, Etat_INACTIF);
GPIO_Set(PORT_IHM_LED3, Etat_ACTIF);
EtatVentillation = Etat_INACTIF;
EtatChauffage = Etat_INACTIF;
//Arrosage_Stop();
TSW_Start(&Tmr_DEFAULT, 60 * 1000);
TSW_Start(&Tmr_DEFAULT_Max, 600 * 1000);
}
if (TempHygro_IsValide() == TRUE)
{
Mode = MODE_VENTILLATION;
break;
}
if ((TSW_IsRunning(&Tmr_DEFAULT) == FALSE)
&& (REBOOT_ON_DEFAULT_MODE == TRUE)
&& (Arrosage_IsActive() == FALSE))
{
if ((Telnet_GetNbActiveConnection() == 0)
|| (TSW_IsRunning(&Tmr_DEFAULT_Max) == FALSE))
{
_CONSOLE(LogId, "REBOOT...\n");
MemoireFAT_DeInit();
TSW_Delay(5000);
GOTO(0);
Mode = MODE_DEMARRAGE;
}
}
break;
}
//----------------------------------
// MAJ DES SORTIES
if (GPIO_Get(PORT_RELAIS_V_EXT) != EtatVentillation)
{
_CONSOLE(LogId, "Ventillation = %d\n", EtatVentillation);
GPIO_Set(PORT_RELAIS_V_EXT, EtatVentillation);
Logs_Data();
}
if (GPIO_Get(PORT_RELAIS_CH) != EtatChauffage)
{
_CONSOLE(LogId, "Chauffage = %d\n", EtatChauffage);
GPIO_Set(PORT_RELAIS_CH, EtatChauffage);
Logs_Data();
}
}
return 0;
}
/*------------------------------------------------------------------------------------------------*/
extern void SdCard_SPI_timerproc (void);
void ApplicationTickHook (void) {
static uint8_t ucTick_10ms=0;
static uint8_t ucTick_100ms=0;
/* Gestion du Tick Timer Software */
TSW_Refresh();
/* Tick 10ms */
ucTick_10ms++;
if (ucTick_10ms >= 10){
ucTick_10ms = 0;
ADC1_Tick();
SdCard_SPI_timerproc();
}
/* Tick 100ms */
ucTick_100ms++;
if (ucTick_100ms >= 10){
ucTick_100ms = 0;
}
}
/*------------------------------------------------------------------------------------------------*/
void Delay(uint32_t nCount)
{
/* Capture the current local time */
uint32_t timingdelay = TSW_GetTimestamp_ms() + nCount;
/* wait until the desired delay finish */
while(timingdelay > TSW_GetTimestamp_ms())
{
}
}