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vr1.1
Dependencies: FreescaleIAP mbed-rtos mbed
Fork of CDMS_RTOS_v1_1 by
PL.cpp
- Committer:
- cholletisaik777
- Date:
- 2015-07-17
- Revision:
- 16:7428828a5da2
- Parent:
- 15:2c8629da6ec9
File content as of revision 16:7428828a5da2:
#include "mbed.h" #include "PL.h" #include "all_funcs.h" #include "Flags.h" #include "pin_config.h" SPISlave pl_spi(PIN16, PIN17, PIN15, PIN14); // mosi, miso, sclk, ssel --> using SPI1 Serial sr(USBTX,USBRX); void FCTN_PL_RCV_SC_DATA() { sr.printf("in FCTN_PL_RCV_SC_DATA\r\n"); uint8_t scienceRawPacket[payloadBins]; for(int i=0; i<payloadBins; i++) { while(!pl_spi.receive()); // blocking statement --> waiting for data from Payload uint8_t v = pl_spi.read(); // Read byte from master scienceRawPacket[i] = v; } // serial feedback sr.printf("Packet recieved\r\r\n"); for(int i=0; i<payloadBins; i++) { sr.printf("%0x\t",scienceRawPacket[i]); scienceRawPacket[i] = 0; } sr.printf("\r\r\n"); } void FCTN_PL_SCIENCE() { all_flags|=PL_SCIENCE_STATUS; FCTN_PL_RCV_SC_DATA(); if(all_flags&IS_FIRST_TIME_SC_DATA == 0) //What happens to TIME_ELAPSED_LAST_SRP on reset? Should it be stored in Flash? { TIME_ELAPSED_LAST_SRP=SRP_INTER_VAL_COUNTER; SRP_INTER_VAL_COUNTER.reset(); } else { SRP_INTER_VAL_COUNTER.start(); all_flags&=(~IS_FIRST_TIME_SC_DATA); } if(all_flags&IS_PL_FRAME_SIZE_CORRECT == 1) //How to identify FRAME_SIZE or size of data that is received via SPI? { //FCTN_COM_COMP_SC_DATA(scienceRawPacket); //FCTN_WR_SD(const uint8_t *, uint64_t) //Store SD //FCTN_CDMS_WR_FLASH(); // all_flags|=PL_FRAME_SIZE_CORRECT; } if(all_flags&IS_PL_FRAME_SIZE_CORRECT == 0) { //FCTN_WR_SD(const uint8_t *, uint64_t) //FCTN_CDMS_WR_FLASH(); all_flags&=~(PL_FRAME_SIZE_CORRECT); } if(TIME_ELAPSED_LAST_SRP>4) { //FCTN_CDMS_WR_FLASH(); all_flags|= TIME_ELAPSED_LAST_SRP_INTERVAL_HIGH; } if(TIME_ELAPSED_LAST_SRP<2) { //FCTN_CDMS_WR_FLASH(); all_flags|= TIME_ELAPSED_LAST_SRP_INTERVAL_LOW; } all_flags&=~(PL_SCIENCE_STATUS); } void FCTN_PL_MAIN() { all_flags|=PL_MAIN_STATUS; all_flags&=~(PL_LOW_POWER); all_flags = all_flags|((all_flags&PL_STATE)<<2); //pl_prev_state = pl_state; if(all_flags&IS_PL_SCHEDULE == 1) //is pl_schedule == 1 { all_flags = (all_flags&(~PL_STATE))|pl_schedule_TC; } else { if((all_flags&PL_PREV_STATE) == PL_SCIENCE) { all_flags = (all_flags&(~PL_STATUS))|PL_HIBERNATE; } else { all_flags = (all_flags&(~PL_STATE))|((all_flags&PL_PREV_STATE)>>2); //pl_state = pl_prev_state; } } switch(all_flags&PL_STATE) { case PL_OFF: { if(all_flags&PL_PREV_STATE!=PL_OFF) { sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); } sr.printf("Power off SPEED\r\n"); all_flags = (all_flags&(~PL_STATUS))|PL_OFF; sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } case PL_STANDBY: { if(power_level<0) { all_flags = all_flags|PL_LOW_POWER; if(all_flags&PL_PREV_STATE!=PL_OFF) { sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); } sr.printf("Power off SPEED\r\n"); all_flags = (all_flags&(~PL_STATUS))|PL_OFF; sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } else { if(all_flags&PL_PREV_STATE!=PL_OFF) { sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); sr.printf("Power OFF SPEED PMTs\r\n"); if(all_flags&IS_I2C_ACK == 1) { all_flags = (all_flags&(~PL_STATUS))|PL_STANDBY; } else { all_flags = (all_flags&(~PL_STATUS))|PL_ERR_I2C; } sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } else { sr.printf("Power on SPPED DL\r\n"); sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); if(all_flags&IS_I2C_ACK == 1) { all_flags = (all_flags&(~PL_STATUS))|PL_STANDBY; } else { all_flags = (all_flags&(~PL_STATUS))|PL_ERR_I2C; } sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } } } case PL_HIBERNATE: { if(power_level<1) { all_flags = all_flags|PL_LOW_POWER; if(power_level<0) { if(all_flags&PL_PREV_STATE!=PL_OFF) { sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); } sr.printf("Power off SPEED\r\n"); all_flags = (all_flags&(~PL_STATUS))|PL_OFF; sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } else { if(all_flags&PL_PREV_STATE!=PL_OFF) { sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); sr.printf("Power OFF SPEED PMTs\r\n"); if(all_flags&IS_I2C_ACK == 1) { all_flags = (all_flags&(~PL_STATUS))|PL_STANDBY; } else { all_flags = (all_flags&(~PL_STATUS))|PL_ERR_I2C; } sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } else { sr.printf("Power on SPPED DL\r\n"); sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); if(all_flags&IS_I2C_ACK == 1) { all_flags = (all_flags&(~PL_STATUS))|PL_STANDBY; } else { all_flags = (all_flags&(~PL_STATUS))|PL_ERR_I2C; } sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } } } else if(power_level>1) { if(all_flags&PL_PREV_STATE==PL_OFF) { sr.printf("Power on SPEED DL\r\n"); } sr.printf("Power on Speed PMT with reduced Voltage\r\n"); sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); if(all_flags&IS_I2C_ACK == 1) { all_flags = (all_flags&(~PL_STATUS))|PL_HIBERNATE; } else { all_flags = (all_flags&(~PL_STATUS))|PL_ERR_I2C; } sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } } case PL_SCIENCE: { if(power_level<2) { if(power_level<1) { all_flags = all_flags|PL_LOW_POWER; if(power_level<0) { if(all_flags&PL_PREV_STATE!=PL_OFF) { sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); } sr.printf("Power off SPEED\r\n"); all_flags = (all_flags&(~PL_STATUS))|PL_OFF; sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } else { if(all_flags&PL_PREV_STATE!=PL_OFF) { sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); sr.printf("Power OFF SPEED PMTs\r\n"); if(all_flags&IS_I2C_ACK == 1) { all_flags = (all_flags&(~PL_STATUS))|PL_STANDBY; } else { all_flags = (all_flags&(~PL_STATUS))|PL_ERR_I2C; } sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } else { sr.printf("Power on SPPED DL\r\n"); sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); if(all_flags&IS_I2C_ACK == 1) { all_flags = (all_flags&(~PL_STATUS))|PL_STANDBY; } else { all_flags = (all_flags&(~PL_STATUS))|PL_ERR_I2C; } sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } } } else if(power_level>1) { if(all_flags&PL_PREV_STATE==PL_OFF) { sr.printf("Power on SPEED DL\r\n"); } sr.printf("Power on Speed PMT with reduced Voltage\r\n"); sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); if(all_flags&IS_I2C_ACK == 1) { all_flags = (all_flags&(~PL_STATUS))|PL_HIBERNATE; } else { all_flags = (all_flags&(~PL_STATUS))|PL_ERR_I2C; } sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } } else if(power_level>2) { if(all_flags&PL_PREV_STATE==PL_SCIENCE) { all_flags = (all_flags&(~PL_STATUS))|PL_SCIENCE; all_flags = all_flags&(~PL_MAIN_STATUS); } else if(all_flags&PL_PREV_STATE==PL_HIBERNATE) { sr.printf("Power on SPEED PMT with high voltage \r\n"); sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); if(all_flags&IS_I2C_ACK == 1) { sr.printf("Enable SRP_INTERVAL_COUNTER\r\n"); all_flags = (all_flags&(~PL_STATUS))|PL_SCIENCE; all_flags = all_flags&(~PL_MAIN_STATUS); } else { all_flags = (all_flags&(~PL_STATUS))|PL_ERR_I2C; sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } } else { if(all_flags&PL_PREV_STATE!=PL_OFF) { sr.printf("Power on SPEED DL\r\n"); } sr.printf("Power on Speed PMT with reduced Voltage\r\n"); sr.printf("Command SPEED DL to go to Standby State (I2C) \r\n"); if(all_flags&IS_I2C_ACK == 1) { all_flags = (all_flags&(~PL_STATUS))|PL_HIBERNATE; } else { all_flags = (all_flags&(~PL_STATUS))|PL_ERR_I2C; } sr.printf("Disable SRP_INTERVAL_COUNTER\r\n"); all_flags = all_flags&(~PL_MAIN_STATUS); } } } } }