SectorLogicReadOut.cxx

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/*
  Copyright (C) 2002-2021 CERN for the benefit of the ATLAS collaboration
*/
 
#include "TrigT1RPChardware/SectorLogicReadOut.h"
 
#include <cstring>
#include <fstream>
#include <iomanip>
#include <iostream>
#include <stdexcept>
 
#include "MuonCablingTools/BaseObject.h"
 
using namespace std;
 
//----------------------------------------------------------------------------//
SectorLogicReadOut::SectorLogicReadOut() : BaseObject(Hardware, "SectorLogicReadOut") { initialize(); }  // end-of-SectorLogicReadOut
//----------------------------------------------------------------------------//
SectorLogicReadOut::SectorLogicReadOut(const SectorLogicReadOut &SLROOrig) : BaseObject(Hardware, "SectorLogicReadOut") {
    //
    // copy constructor
    //
    m_Header = SLROOrig.m_Header;
    m_Footer = SLROOrig.m_Footer;
    m_numberOfWordsInFrag = SLROOrig.m_numberOfWordsInFrag;
    m_numberOfWordsInBody = SLROOrig.m_numberOfWordsInBody;
    m_numberOfWordsInCounters = SLROOrig.m_numberOfWordsInCounters;
    m_numberOfWordsInSLHits = SLROOrig.m_numberOfWordsInSLHits;
    m_counter32ok = SLROOrig.m_counter32ok;
    m_hitok = SLROOrig.m_hitok;
    for (ubit16 i = 0; i < s_numberOfDataCounters; i++) { m_counter16[i] = SLROOrig.m_counter16[i]; }
    for (ubit16 i = 0; i < s_numberOfDecodedCounters; i++) { m_counter32[i] = SLROOrig.m_counter32[i]; }
    for (int i = 0; i < s_nLinks; ++i) {
        for (int j = 0; j < s_nGates; ++j) { m_hit[i][j] = SLROOrig.m_hit[i][j]; }
    }
    //
    // Copy Dynamic structure
    //
    SLROData *q = 0;
    SLROData *r = 0;
    SLROData *p = SLROOrig.m_Body;
    ubit16 cnter = 0;
    while (p) {
        q = new SLROData;
        q->hit = p->hit;
        q->next = 0;
        if (!cnter) {
            m_Body = q;
            //  if(cnter==(nGates*nLinks)) m_BodyCounter = q;
        } else
            r->next = q;
        cnter++;
        r = q;
        p = p->next;
    }  // end-of-while
    m_BodyLast = r;
}  // end-of-SectorLogicReadOut
//----------------------------------------------------------------------------//
SectorLogicReadOut::~SectorLogicReadOut() {
    //
    // delete the SLROData dynamic structure used to describe Body part
    // of the event fragment.
    //
    deleteSLBody();
}
//----------------------------------------------------------------------------//
void SectorLogicReadOut::deleteSLBody() {
    SLROData *p{nullptr}, *q{nullptr};
    p = m_Body;
    while (p) {
        q = p;
        p = p->next;
        delete q;
    }  // end-of-while
    m_Body = 0;
    m_BodyLast = 0;
    m_BodyCurr = 0;
    m_BodyCounter = 0;
    m_numberOfWordsInBody = 0;
}  // end-of-deleteSLBody
//----------------------------------------------------------------------------//
void SectorLogicReadOut::initialize() {
    // initialize check flags
    //
    m_numberOfWordsInCounters = s_numberOfDataCounters;
    for (int i = 0; i < s_nLinks; ++i) {
        for (int j = 0; j < s_nGates; ++j) { m_hit[i][j] = 0; }
    }
 
}  // end-of-initialize
//----------------------------------------------------------------------------//
void SectorLogicReadOut::reset() {
    //
    // reset the data structure to host a new fragment;
    // first delete the dinamyc structure...
    deleteSLBody();
    // then initialize the data members.
    initialize();
}  // end-of-SectorLogicReadOut::reset()
//----------------------------------------------------------------------------//
void SectorLogicReadOut::writeRecord(ubit16 thisRecord, bool last) {
    if (m_numberOfWordsInFrag == 0) {
        m_Header = thisRecord;
    } else if (m_numberOfWordsInFrag && !last) {
        makeNewHit(thisRecord);
    } else {
        m_Footer = thisRecord;
    }
    m_numberOfWordsInFrag++;
}  // end-of-void SectorLogicReadOut
//----------------------------------------------------------------------------//
void SectorLogicReadOut::makeNewHit(ubit16 newHit) {
    SLROData *p;
    p = new SLROData;
    p->hit = newHit;
    p->next = 0;
    if (!m_Body) {
        m_Body = p;
    } else {
        m_BodyLast->next = p;
    }  // end-of-if
    m_BodyLast = p;
    if (!m_numberOfWordsInBody) topSLBody();
    m_numberOfWordsInBody++;
    if (m_numberOfWordsInBody > m_numberOfWordsInCounters) m_numberOfWordsInSLHits = (m_numberOfWordsInBody - m_numberOfWordsInCounters);
}  // end-of-SectorLogicReadOut::makeNewHit
//----------------------------------------------------------------------------//
ubit16 SectorLogicReadOut::readSLHitCurrent() {
    if (m_BodyCurr) {
        ubit16 hit = m_BodyCurr->hit;
        m_BodyCurr = m_BodyCurr->next;
        return hit;
    } else {
        return 0xefac;
    }
}  // end-of-SectorLogicReadOut::readSLHitCurrent
//----------------------------------------------------------------------------//
ubit16 SectorLogicReadOut::readSLCounterCurrent() {
    if (!m_BodyCounter) {
        SLROData *temp = m_Body;
        for (ubit16 i = 0; i < numberOfHitWords(); i++) {
            if (temp->next) temp = temp->next;
        }
        if (temp) m_BodyCounter = temp;
        m_BodyCurr = m_BodyCounter;
    }
    //
    if (m_BodyCurr) {
        ubit16 hit = m_BodyCurr->hit;
        m_BodyCurr = m_BodyCurr->next;
        return hit;
    } else {
        return 0xcafe;
    }
}  // end-of-SectorLogicReadOut::readSLCounterCurrent
//----------------------------------------------------------------------------//
void SectorLogicReadOut::doCounter32() {
    topSLBodyCounters();
    for (ubit16 i = 0; i < m_numberOfWordsInCounters; i++) { m_counter16[i] = readSLCounterCurrent() & 0x1fff; }
    //
    ubit16 j = 0;
    for (ubit16 i = 0; i < s_numberOfDecodedCounters; i++) {
        m_counter32[i] = (m_counter16[j] | (m_counter16[j + 1] << 13) | (m_counter16[j + 2] << 26));
        j += 3;
    }
}  // end-of-SectorLogicReadOut::doCounter32()
//----------------------------------------------------------------------------//
RODword SectorLogicReadOut::getCounter32(ubit16 index) {
    if (!m_counter32ok) {
        doCounter32();
        m_counter32ok = true;
    }
    if (index < s_numberOfDecodedCounters) {
        return m_counter32[index];
    } else {
        throw std::out_of_range("SectorLogicReadout::getCounter32: index=" + std::to_string(index) + " is larger than " +
                                std::to_string(s_numberOfDecodedCounters));
    }
}
//----------------------------------------------------------------------------//
float SectorLogicReadOut::padTriggerRate(ubit16 padAddress) {
    if (!m_counter32ok) doCounter32();
    //
    // units are kHz
    //
    static const float convertToTriggerRate = 160314.74 / 4.0;  // units are kHz
    if (padAddress < ((s_numberOfDecodedCounters - 3) / 2)) {
        return convertToTriggerRate * (float(m_counter32[padAddress * 2 + 1]) / float(m_counter32[padAddress * 2 + 0]));
    } else {
        throw std::out_of_range("SectorLogicReadout::padTrigger: input padAddress=" + std::to_string(padAddress) + " is not possible");
    }
}
//----------------------------------------------------------------------------//
void SectorLogicReadOut::doHit() {
    topSLBody();
    for (ubit16 j = 0; j < s_nGates; j++) {
        for (ubit16 i = 0; i < s_nLinks; i++) { m_hit[i][j] = readSLHitCurrent(); }  // end-of-for(ubit16 i
    }                                                                                // end-of-for(ubit16 j
}  // end-of-SectorLogicReadOut::doHit()
//----------------------------------------------------------------------------//
ubit16 SectorLogicReadOut::cmadd(ubit16 indexLink, ubit16 indexGate) {
    if (!m_hitok) doHit();
    if (indexLink < s_nLinks && indexGate < s_nGates) {
        return (m_hit[indexLink][indexGate]) & 0x3;
    } else {
        throw std::out_of_range("SectorLogicReadout::cmid: indexLink or indexGate out of range");
    }
}  // end-of-SectorLogicReadOut::cmid(ubit16 indexLink, ubit16 indexGate)
//----------------------------------------------------------------------------//
ubit16 SectorLogicReadOut::ptid(ubit16 indexLink, ubit16 indexGate) {
    if (!m_hitok) doHit();
    if (indexLink < s_nLinks && indexGate < s_nGates) {
        return (m_hit[indexLink][indexGate] >> 2) & 0x7;
    } else {
        throw std::out_of_range("SectorLogicReadout::ptid: indexLink or indexGate out of range");
    }
}  // end-of-SectorLogicReadOut::ptid(ubit16 indexLink, ubit16 indexGate)
//----------------------------------------------------------------------------//
ubit16 SectorLogicReadOut::opl(ubit16 indexLink, ubit16 indexGate) {
    if (!m_hitok) doHit();
    if (indexLink < s_nLinks && indexGate < s_nGates) {
        return (m_hit[indexLink][indexGate] >> 5) & 0x1;
    } else {
        throw std::out_of_range("SectorLogicReadout::opl: indexLink or indexGate out of range");
    }
}  // end-of-SectorLogicReadOut::opl(ubit16 indexLink, ubit16 indexGate)
//----------------------------------------------------------------------------//
ubit16 SectorLogicReadOut::ovphi(ubit16 indexLink, ubit16 indexGate) {
    if (!m_hitok) doHit();
    if (indexLink < s_nLinks && indexGate < s_nGates) {
        return (m_hit[indexLink][indexGate] >> 6) & 0x1;
    } else {
        throw std::out_of_range("SectorLogicReadout::ovphi: indexLink or indexGate out of range");
    }
}  // end-of-SectorLogicReadOut::ovphi(ubit16 indexLink, ubit16 indexGate)
//----------------------------------------------------------------------------//
ubit16 SectorLogicReadOut::oveta(ubit16 indexLink, ubit16 indexGate) {
    if (!m_hitok) doHit();
    if (indexLink < s_nLinks && indexGate < s_nGates) {
        return (m_hit[indexLink][indexGate] >> 7) & 0x1;
    } else {
        throw std::out_of_range("SectorLogicReadout::oveta: indexLink or indexGate out of range");
    }
}  // end-of-SectorLogicReadOut::oveta(ubit16 indexLink, ubit16 indexGate)
//----------------------------------------------------------------------------//
ubit16 SectorLogicReadOut::res(ubit16 indexLink, ubit16 indexGate) {
    if (!m_hitok) doHit();
    if (indexLink < s_nLinks && indexGate < s_nGates) {
        return (m_hit[indexLink][indexGate] >> 8) & 0x1;
    } else {
        throw std::out_of_range("SectorLogicReadout::res : indexLink or indexGate out of range");
    }
}  // end-of-SectorLogicReadOut::res(ubit16 indexLink, ubit16 indexGate)
//----------------------------------------------------------------------------//
ubit16 SectorLogicReadOut::bcid(ubit16 indexLink, ubit16 indexGate) {
    if (!m_hitok) doHit();
    if (indexLink < s_nLinks && indexGate < s_nGates) {
        return (m_hit[indexLink][indexGate] >> 9) & 0x7;
    } else {
        throw std::out_of_range("SectorLogicReadout::bcid: indexLink or indexGate out of range");
    }
}  // end-of-SectorLogicReadOut::bcid(ubit16 indexLink, ubit16 indexGate)
//----------------------------------------------------------------------------//
void SectorLogicReadOut::display(std::ostream &stream) {
    stream << " **** Sector Logic ReadOut Fragment ****" << std::endl;
    stream << " SectorLogic: number of Hits    :" << m_numberOfWordsInSLHits << std::endl;
    stream << " SectorLogic: number of Counters:" << m_numberOfWordsInCounters << std::endl;
    stream << " SectorLogic: Header " << std::hex << m_Header << std::dec << std::endl;
    for (ubit16 i = 0; i < m_numberOfWordsInSLHits; i++) {
        stream << " SectorLogic: hit       " << (i + 1) << "  ==> " << std::hex << readSLHitCurrent() << std::dec << std::endl;
    }
    stream << " SectorLogic: Footer " << std::hex << m_Footer << std::dec << std::endl;
    for (ubit16 i = 0; i < m_numberOfWordsInCounters; i++) {
        stream << " SectorLogic: counter   " << (i + 1) << "  ==> " << std::hex << readSLCounterCurrent() << std::dec << std::endl;
    }
    for (int i = 0; i < s_numberOfDecodedCounters; i++) {
        stream << " SectorLogic: Counter32 " << (i + 1) << "  ==> "
               << " = " << std::hex << getCounter32(i) << std::dec << std::endl;
    }
    stream << " SectorLogic: Pad 0 trigger rate: " << padTriggerRate(0) << " kHz" << std::endl;
    stream << " SectorLogic: Pad 1 trigger rate: " << padTriggerRate(1) << " kHz" << std::endl;
}  // end-of-void SectorLogicReadOut::display
//----------------------------------------------------------------------------//
bool SectorLogicReadOut::checkFragment() {
    return (m_numberOfWordsInBody == (s_nGates * s_nLinks + s_numberOfDataCounters));
}  // end-of-void SectorLogicReadOut::checkFragment()