// Implementation of the CalibCalPulse1Reader class. #define UINT unsigned int #define BYTE unsigned char #include #include extern "C" { #include "CRC.h" //Struct per il passaggio di dati da e verso la chiamata fortran extern struct { int IEV2; int calped[4][11][96]; int calgood[4][11][96]; int calthr[4][11][6]; int calrms[4][11][96]; int calbase[4][11][6]; int calvar[4][11][6]; int calpuls[4][11][96]; } calib_; //external declaration of the Fortran function void calpulse_(short[], long int*, int*); } #include #include "stdio.h" #include "ReaderAlgorithms.h" #include "event/CalibCalPulse1Event.h" using namespace pamela; using namespace pamela::techmodel; static log4cpp::Category& cat = log4cpp::Category::getInstance("pamela.techmodel.CalibCalPulse1Reader"); /** * Constructor. */ CalibCalPulse1Reader::CalibCalPulse1Reader(void): TechmodelAlgorithm(PacketType::CalibCalPulse1, "TechmodelCalibCalPulse1Reader") { cat << log4cpp::Priority::DEBUG << "Constructor " << "\n " << log4cpp::CategoryStream::ENDLINE; calibCalPulse1 = new CalibCalPulse1Event(); } /** * Get a string with the version info of the algorithm. */ std::string CalibCalPulse1Reader::GetVersionInfo(void) const { return "$Header: /home/cvsmanager/yoda/techmodel/CalibCalPulse1Reader.cpp,v 1.1.1.1 2004/07/06 12:20:23 kusanagi Exp $\n"; } /** * Initialize the algorithm with a special run. This will initialize the * event reader routines for all packet types. */ void CalibCalPulse1Reader::Init(PamelaRun *run) { SetInputStream(run); run->WriteSubPacket(this, &calibCalPulse1, calibCalPulse1->Class()); } /** * Unpack the CalibCalPulse1 event from an input file. */ void CalibCalPulse1Reader::RunEvent(int EventNumber, long int length) { char packetData[length-2]; char CRCevent[2]; UINT16 calculatedCRC = 0; //calculated CRC UINT16 readCRC = 0; //read CRC long int dataLength; int ERROR; dataLength = length - 2; InputFile->read(packetData, sizeof(packetData)); InputFile->read(CRCevent, sizeof(CRCevent)); calculatedCRC = CM_Compute_CRC16(0, (BYTE*)packetData, dataLength); readCRC = ((UINT16)(CRCevent[0]<<8)&0xFF00) + ((UINT16)(CRCevent[1])&0x00FF); if (calculatedCRC == readCRC) { calpulse_((short*)packetData, &dataLength, &ERROR); //Store the unpacked data calibCalPulse1->IEV2 = calib_.IEV2; //--------have to invert array because of FORTRAN <-> C different management of the indexes int tempCalped[96][11][4]; int tempCalgood[96][11][4]; int tempCalthr[6][11][4]; int tempCalrms[96][11][4]; int tempCalbase[6][11][4]; int tempCalvar[6][11][4]; int tempCalpuls[96][11][4]; memcpy(tempCalped, calib_.calped, sizeof(tempCalped)); memcpy(tempCalgood, calib_.calgood, sizeof(tempCalgood)); memcpy(tempCalthr, calib_.calthr, sizeof(tempCalthr)); memcpy(tempCalrms, calib_.calrms, sizeof(tempCalrms)); memcpy(tempCalbase, calib_.calbase, sizeof(tempCalbase)); memcpy(tempCalvar, calib_.calvar, sizeof(tempCalvar)); memcpy(tempCalpuls, calib_.calpuls, sizeof(tempCalpuls)); for (int i = 0; i < 4; i++){ for (int j = 0; j <11; j++){ for (int z = 0; z < 96; z++){ calibCalPulse1->calped[i][j][z] = tempCalped[z][j][i]; calibCalPulse1->calgood[i][j][z] = tempCalgood[z][j][i]; calibCalPulse1->calrms[i][j][z] = tempCalrms[z][j][i]; calibCalPulse1->calpuls[i][j][z] = tempCalpuls[z][j][i]; } } } for (int i = 0; i < 4; i++){ for (int j = 0; j <11; j++){ for (int z = 0; z < 6; z++){ calibCalPulse1->calthr[i][j][z] = tempCalthr[z][j][i]; calibCalPulse1->calbase[i][j][z] = tempCalbase[z][j][i]; calibCalPulse1->calvar[i][j][z] = tempCalvar[z][j][i]; } } } //----------------------------------------------------------------------------------------- cat << log4cpp::Priority::ERROR << "Fortran77 function calpulse error code = " << ERROR << "\n " << log4cpp::CategoryStream::ENDLINE; } else { cat << log4cpp::Priority::ERROR << "The test of calculated CRC with one wrote on file FAILED!!" << "\n " << log4cpp::CategoryStream::ENDLINE; } free(packetData); }