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Integration of TRD unpacking, with empty implementations for unpacker, monitor container and parameter container.
Integration of TRD unpacking, with empty implementations for unpacker, monitor container and parameter container.
CbmTrdParManager.cxx 19.04 KiB
/* Copyright (C) 2008-2020 GSI Helmholtzzentrum fuer Schwerionenforschung, Darmstadt
SPDX-License-Identifier: GPL-3.0-only
Authors: Florian Uhlig [committer], Alexandru Bercuci, Pascal Raisig */
/**
* \file CbmTrdParManager.cxx
* \author Florian Uhlig <f.uhlig@gsi.de>
* \date 06/06/2008
*/
#include "CbmTrdParManager.h"
#include "CbmTrdGeoHandler.h" // for CbmTrdGeoHandler
#include "CbmTrdPads.h" // for fst1_pad_type, fst1_sect_count
#include "CbmTrdParAsic.h" // for CbmTrdParAsic, CbmTrdParAsic::kCriId...
#include "CbmTrdParFasp.h" // for CbmTrdParFasp
#include "CbmTrdParModDigi.h" // for CbmTrdParModDigi
#include "CbmTrdParModGain.h" // for CbmTrdParModGain
#include "CbmTrdParModGas.h" // for CbmTrdParModGas
#include "CbmTrdParSet.h" // for CbmTrdParSet
#include "CbmTrdParSetAsic.h" // for CbmTrdParSetAsic
#include "CbmTrdParSetDigi.h" // for CbmTrdParSetDigi
#include "CbmTrdParSetGain.h" // for CbmTrdParSetGain
#include "CbmTrdParSetGas.h" // for CbmTrdParSetGas
#include "CbmTrdParSpadic.h" // for CbmTrdParSpadic
#include <FairParAsciiFileIo.h> // for FairParAsciiFileIo
#include <FairParRootFileIo.h> // for FairParRootFileIo
#include <FairRunAna.h> // for FairRunAna
#include <FairRuntimeDb.h> // for FairRuntimeDb
#include <FairTask.h> // for FairTask, InitStatus, kSUCCESS
#include <TArrayD.h> // for TArrayD
#include <TFile.h> // for TFile
#include <TGeoManager.h> // for TGeoManager, gGeoManager
#include <TGeoNode.h> // for TGeoNode
#include <TList.h> // for TList
#include <TObjArray.h> // for TObjArray
#include <TObject.h> // for TObject
#include <TRandom.h> // for TRandom, gRandom
#include <memory>
#include <vector> // for vector
#include <stdio.h> // for printf
#include <stdlib.h> // for getenv
CbmTrdParManager::CbmTrdParManager(Bool_t fasp)
: FairTask("TrdParManager")
, fMaxSectors(0)
, fFASP(fasp)
// fModuleMap(),
, fAsicPar(nullptr)
, fDigiPar(nullptr)
, fGasPar(nullptr)
, fGainPar(nullptr)
, fGeoHandler(new CbmTrdGeoHandler())
, fGeometryTag("")
, fHardwareSetup()
{
// Get the maximum number of sectors. All arrays will have this number of entries.
fMaxSectors = fst1_sect_count;
}
CbmTrdParManager::~CbmTrdParManager() {}
void CbmTrdParManager::SetParContainers()
{
FairRuntimeDb* rtdb = FairRunAna::Instance()->GetRuntimeDb();
fAsicPar = (CbmTrdParSetAsic*) (rtdb->getContainer("CbmTrdParSetAsic"));
fDigiPar = (CbmTrdParSetDigi*) (rtdb->getContainer("CbmTrdParSetDigi")); fGasPar = (CbmTrdParSetGas*) (rtdb->getContainer("CbmTrdParSetGas"));
fGainPar = (CbmTrdParSetGain*) (rtdb->getContainer("CbmTrdParSetGain"));
}
InitStatus CbmTrdParManager::Init()
{
// The geometry structure is treelike with cave as
// the top node. For the TRD there are keeping volume
// trd_vXXy_1 which is only container for the different layers.
// The trd layer is again only a container for all volumes of this layer.
// Loop over all nodes below the top node (cave). If one of
// the nodes contains a string trd it must be TRD detector.
// Now loop over the layers and
// then over all modules of the layer to extract in the end
// all active regions (gas) of the complete TRD. For each
// of the gas volumes get the information about size and
// position from the geomanager and the sizes of the sectors
// and pads from the definitions in CbmTrdPads. This info
// is then stored in a CbmTrdModuleSim object for each of the
// TRD modules.
TGeoNode* topNode = gGeoManager->GetTopNode();
TObjArray* nodes = topNode->GetNodes();
for (Int_t iNode = 0; iNode < nodes->GetEntriesFast(); iNode++) {
TGeoNode* node = static_cast<TGeoNode*>(nodes->At(iNode));
if (!TString(node->GetName()).Contains("trd")) continue; // trd_vXXy top node, e.g. trd_v13a, trd_v14b
TGeoNode* station = node;
fGeometryTag = station->GetName();
fHardwareSetup.SelectComponentIdMap(fGeometryTag);
TObjArray* layers = station->GetNodes();
for (Int_t iLayer = 0; iLayer < layers->GetEntriesFast(); iLayer++) {
TGeoNode* layer = static_cast<TGeoNode*>(layers->At(iLayer));
if (!TString(layer->GetName()).Contains("layer")) continue; // only layers
TObjArray* modules = layer->GetNodes();
for (Int_t iModule = 0; iModule < modules->GetEntriesFast(); iModule++) {
TGeoNode* module = static_cast<TGeoNode*>(modules->At(iModule));
TObjArray* parts = module->GetNodes();
for (Int_t iPart = 0; iPart < parts->GetEntriesFast(); iPart++) {
TGeoNode* part = static_cast<TGeoNode*>(parts->At(iPart));
if (!TString(part->GetName()).BeginsWith("gas_")) continue; // only active gas volume
// Put together the full path to the interesting volume, which
// is needed to navigate with the geomanager to this volume.
// Extract the geometry information (size, global position)
// from this volume.
TString path = TString("/") + topNode->GetName() + "/" + station->GetName() + "/" + layer->GetName() + "/"
+ module->GetName() + "/" + part->GetName();
CreateModuleParameters(path);
}
}
}
}
return kSUCCESS;
}
void CbmTrdParManager::Finish()
{
FairRuntimeDb* rtdb = FairRunAna::Instance()->GetRuntimeDb();
// fDigiPar = (CbmTrdParSetDigi*) (rtdb->getContainer("CbmTrdParSetDigi"));
// fDigiPar->print();
fAsicPar = (CbmTrdParSetAsic*) (rtdb->getContainer("CbmTrdParSetAsic"));
fAsicPar->Print();
}
void CbmTrdParManager::Exec(Option_t*) {}
void CbmTrdParManager::CreateModuleParameters(const TString& path)
{
/**
* Create TRD module parameters. Add triangular support (Alex Bercuci/21.11.2017)
*/
Int_t moduleAddress = fGeoHandler->GetModuleAddress(path);
Int_t orientation = fGeoHandler->GetModuleOrientation(path);
Double_t sizeX = fGeoHandler->GetSizeX(path);
Double_t sizeY = fGeoHandler->GetSizeY(path);
Double_t sizeZ = fGeoHandler->GetSizeZ(path);
Double_t x = fGeoHandler->GetX(path);
Double_t y = fGeoHandler->GetY(path);
Double_t z = fGeoHandler->GetZ(path);
TArrayD sectorSizeX(fMaxSectors);
TArrayD sectorSizeY(fMaxSectors);
TArrayD padSizeX(fMaxSectors);
TArrayD padSizeY(fMaxSectors);
Int_t moduleType = fGeoHandler->GetModuleType(path);
printf("\nCbmTrdParManager::CreateModuleParameters(%s) type[%d]\n", path.Data(), moduleType);
for (Int_t i = 0; i < fst1_sect_count; i++) {
sectorSizeX.AddAt(fst1_pad_type[moduleType - 1][i][0], i);
sectorSizeY.AddAt(fst1_pad_type[moduleType - 1][i][1], i);
padSizeX.AddAt(fst1_pad_type[moduleType - 1][i][2], i);
padSizeY.AddAt(fst1_pad_type[moduleType - 1][i][3], i);
printf(" sec[%d] dx[%5.2f] dy[%5.2f] px[%5.2f] py[%5.2f]\n", i, sectorSizeX[i], sectorSizeY[i], padSizeX[i],
padSizeY[i]);
}
// Orientation of the detector layers
// Odd layers (1,3,5..) have resolution in x-direction (isRotated == 0) - vertical pads
// Even layers (2,4,6..) have resolution in y-direction (isRotated == 1) - horizontal pads
// Int_t isRotated = fGeoHandler->GetModuleOrientation(path);
// if( (isRotated%2) == 1 ) { // flip pads for even layers
// Double_t copybuf;
// for (Int_t i = 0; i < fMaxSectors; i++) {
// copybuf = padSizeX.At(i);
// padSizeX.AddAt(padSizeY.At(i), i);
// padSizeY.AddAt(copybuf, i);
// copybuf = sectorSizeX.At(i);
// sectorSizeX.AddAt(sectorSizeY.At(i), i);
// sectorSizeY.AddAt(copybuf, i);
// }
// }
// Create new digi par for this module.
CbmTrdParModDigi* digi = new CbmTrdParModDigi(x, y, z, sizeX, sizeY, sizeZ, fMaxSectors, orientation, sectorSizeX,
sectorSizeY, padSizeX, padSizeY);
if (moduleType >= 9) { // for the Bucharest inner detector special anode wire geometry
digi->SetAnodeWireToPadPlaneDistance(0.4);
digi->SetAnodeWireOffset(0.);
digi->SetAnodeWireSpacing(0.3);
}
digi->SetModuleId(moduleAddress);
digi->Print();
fDigiPar->addParam(digi);
// Create new asic par for this module
CbmTrdParSetAsic* asics(nullptr);
// if(moduleType>=9 && fFASP){ // I do not think this check is required, actually I think it creates a bug in parameter creation
if (moduleType >= 9) {
asics = new CbmTrdParSetAsic("TrdParModFasp", Form("Fasp set for Module %d", moduleAddress) /*, GetContext()*/);
asics->SetAsicType(moduleType);
Double_t par[6];
par[1] = 14;
par[4] = 4.181e-6;
Int_t iasic(0), ncol(digi->GetNofColumns()), asicAddress, chAddress; CbmTrdParFasp* asic(nullptr);
for (Int_t r(0); r < digi->GetNofRows(); r++) {
for (Int_t c(0); c < ncol; c++) {
if (c % 8 == 0) {
if (asic) asics->SetAsicPar(asicAddress, asic);
asicAddress = moduleAddress * 1000 + iasic;
asic = new CbmTrdParFasp(asicAddress);
iasic++;
}
for (Int_t ipair(0); ipair < 2; ipair++) {
par[0] = gRandom->Gaus(300, 4);
par[2] = gRandom->Gaus(600, 40);
par[3] = gRandom->Gaus(2580, 10);
chAddress = 2 * (r * ncol + c) + ipair;
par[5] = ipair;
asic->SetChannelAddress(chAddress);
Int_t chIdFasp = asic->QueryChannel(chAddress);
asic->SetCalibParameters(chIdFasp, par);
}
}
}
if (asic) asics->SetAsicPar(asicAddress, asic);
}
else { // Here only rectangular modules should enter. Hence, we have spadics in use.
asics = new CbmTrdParSetAsic("TrdParModSpadic", Form("Spadic set for Module %d", moduleAddress));
asics->SetAsicType(moduleType);
CbmTrdParSpadic* asic(nullptr);
// To write the channelAddresses to the parameter files we first of all need to now the number of columns, rows and channels. The numbering of the channels starts at the bottom left and goes along the short side (column) of the pads row by row, for a not rotated module. The rotation is also taken care about in the following code.
Int_t nModuleColumns(digi->GetNofColumns());
Int_t nModuleRows(digi->GetNofRows());
Int_t nModuleChannels(nModuleColumns * nModuleRows);
Int_t nAsicsAlongColumns(-1);
std::vector<Int_t> chAddressesVec;
for (Int_t iAsic = 0; iAsic < CbmTrdParSpadic::GetNasicsOnModule(moduleType); iAsic++) {
asic = new CbmTrdParSpadic(
1000 * moduleAddress
+ iAsic); // nTh-asic + module address define asicAddress counting for asic starts at bottom left and goes left to right row by row
Int_t nAsicChannels(asic->GetNchannels());
// Figure out the number of asics per column, this is required since one spadic is connected to two rows
nAsicsAlongColumns = nModuleColumns < nModuleRows ? nModuleRows / 2 : nModuleColumns / (nAsicChannels / 2);
// Get the asic-row (= rows/2) for the given asic
Int_t nThAsicRow(iAsic / nAsicsAlongColumns);
Int_t nThAsicColumn(iAsic % nAsicsAlongColumns);
chAddressesVec.clear();
chAddressesVec.resize(nAsicChannels);
Int_t iAsicChannel = 0; // This is the nth asic channel as it is written to the raw messages
for (auto channelAddress : chAddressesVec) {
// Now apply the asic specific mapping
channelAddress = asic->GetAsicChAddress(iAsicChannel); // returns the channeladdress in the scope of one asic
// Get the channel addressed to the top or bottom row of the single asic
if ((channelAddress / (nAsicChannels / 2)) > 0) {
// if the address corresponds to the second 16 channels 16..31 it goes into the next row
channelAddress -= (nAsicChannels / 2);
// since we have only 16 channels per row we have to subtract 16 from channels 16..31
channelAddress += nModuleColumns;
}
// move channel address to the correct column according to the asic column position
channelAddress += nThAsicColumn * nAsicChannels / 2; // one asic is split over two rows
// move channel address to the correct row according to the asic row position
channelAddress += nThAsicRow * nModuleColumns * 2; // one asic is split over two rows
// if the module is rotated 180 or 270 degrees, the channel number counting has to be rotated as well, since the X-Y placing in CbmTrdParModDigi expect it in this way.
if (orientation == 2) {
channelAddress *= (-1);
channelAddress += (nModuleChannels - 1);
}
chAddressesVec.at(iAsicChannel) = channelAddress;
iAsicChannel++;
}
asic->SetChannelAddresses(chAddressesVec);
// Get the according hardware component Id for the real asic placed at the according position in the experiment
asic->SetComponentId(fHardwareSetup.GetComponentId(asic->GetAddress()));
asics->SetAsicPar(asic->GetAddress(), asic);
}
}
asics->Print();
fAsicPar->AddParameters(asics);
// Create new gas par for this module
CbmTrdParModGas* gas(nullptr);
if (moduleType >= 9) {
gas = new CbmTrdParModGas(Form("Module/%d/Ua/%d/Ud/%d/Gas/Xe", moduleAddress, 1900, 500));
gas->SetDetType(1);
gas->SetPidType(1);
}
else
gas = new CbmTrdParModGas(Form("Module/%d/Ua/%d/Ud/%d/Gas/Xe", moduleAddress, 1600, 500));
gas->Print();
fGasPar->addParam(gas);
// Create new gain par for this module
CbmTrdParModGain* gain(nullptr);
if (moduleType == 9) gain = new CbmTrdParModGain();
else
gain = new CbmTrdParModGain();
gain->SetModuleId(moduleAddress);
gain->Print();
fGainPar->addParam(gain);
}
// ---- CreateParFilesFromGeometry ------------------------------------------------
bool CbmTrdParManager::CreateParFilesFromGeometry(bool createRootFileOutput, TString outDir)
{
// This function creates the trd parameter files based on a given geometry file, which has to be passed in a macro to the FairRunAna instance. Such a geometry file is produced by FairRunSim bases on the trd geometry input.
if (!createRootFileOutput) return CreateParFilesFromGeometry(outDir);
FairRunAna* run = FairRunAna::Instance();
FairRuntimeDb* rtdb = run->GetRuntimeDb();
SetParContainers();
TString inputDirectory = run->GetGeoFile()->GetName();
inputDirectory.Resize((inputDirectory.Last('/') + 1));
TString geoName = run->GetGeoFile()->GetName();
geoName.ReplaceAll(inputDirectory.Data(), "");
geoName.ReplaceAll("geofile_", "");
geoName.ReplaceAll(".root", "");
if (outDir.IsNull()) { outDir = Form("%s/../src/parameters/trd", getenv("CBM_ROOT")); }
TList* containerList = rtdb->getListOfContainers();
TString currentPar = "";
CbmTrdParSet* currentContainer = nullptr;
FairParRootFileIo parOut;
parOut.open(Form("%s/%s.par.root", outDir.Data(), geoName.Data()), "RECREATE"); rtdb->setOutput(&parOut);
for (auto iContainerIt : *containerList) {
currentPar = iContainerIt->GetName();
if (!currentPar.Contains("CbmTrd")) continue; // make sure that we only edit Trd container
currentContainer = (CbmTrdParSet*) iContainerIt;
currentContainer->setChanged();
currentContainer->setInputVersion(0, 1);
}
rtdb->saveOutput();
rtdb->closeOutput();
return true; // check if rtdb->writeContainers() could be used to run a bool check and return that bool instead of saveOutput void
}
// ---- private - CreateParFilesFromGeometry --------------------------------------
bool CbmTrdParManager::CreateParFilesFromGeometry(TString outDir)
{
// This function creates the trd parameter files based on a given geometry file, which has to be passed in a macro to the FairRunAna instance. Such a geometry file is produced by FairRunSim bases on the trd geometry input.
FairRunAna* run = FairRunAna::Instance();
FairRuntimeDb* rtdb = run->GetRuntimeDb();
SetParContainers();
TString inputDirectory = run->GetGeoFile()->GetName();
inputDirectory.Resize((inputDirectory.Last('/') + 1));
TString geoName = run->GetGeoFile()->GetName();
geoName.ReplaceAll(inputDirectory.Data(), "");
geoName.ReplaceAll("geofile_", "");
geoName.ReplaceAll(".root", "");
if (outDir.IsNull()) { outDir = Form("%s/../src/parameters/trd", getenv("CBM_ROOT")); }
TList* containerList = rtdb->getListOfContainers();
TString currentPar = "";
TString currentFile = "";
CbmTrdParSet* currentContainer = nullptr;
for (auto iContainerIt : *containerList) {
currentPar = iContainerIt->GetName();
if (!currentPar.Contains("CbmTrd")) continue; // make sure that we only edit Trd container
currentContainer = (CbmTrdParSet*) iContainerIt;
currentPar.ReplaceAll("CbmTrdParSet", "");
currentPar.ToLower();
currentFile.Form("%s/%s.%s.par", outDir.Data(), geoName.Data(), currentPar.Data());
FairParAsciiFileIo parOut;
parOut.open(currentFile, "out");
rtdb->setOutput(&parOut);
currentContainer->setChanged();
currentContainer->setInputVersion(0, 1);
rtdb->saveOutput();
rtdb->closeOutput();
}
return true; // check if rtdb->writeContainers() could be used to run a bool check and return that bool instead of saveOutput void
}
// ---- GetParSetList ----
void CbmTrdParManager::GetParSetList(std::vector<std::shared_ptr<CbmTrdParSet>>* parSetList)
{
// std::vector<CbmTrdParSet*> parSetList;
std::shared_ptr<CbmTrdParSet> parSet = nullptr;
for (Int_t iParSetType = (Int_t) ECbmTrdParSets::kBegin; iParSetType <= (Int_t) ECbmTrdParSets::kEnd; iParSetType++) {
switch (iParSetType) {
case (Int_t) ECbmTrdParSets::kCbmTrdParSetAsic: parSet = std::make_shared<CbmTrdParSetAsic>(); break;
case (Int_t) ECbmTrdParSets::kCbmTrdParSetDigi: parSet = std::make_shared<CbmTrdParSetDigi>(); break;
case (Int_t) ECbmTrdParSets::kCbmTrdParSetGain: parSet = std::make_shared<CbmTrdParSetGain>(); break;
case (Int_t) ECbmTrdParSets::kCbmTrdParSetGas: parSet = std::make_shared<CbmTrdParSetGas>(); break;
} parSetList->emplace_back(parSet);
}
}
// ---- GetParFileExtensions ----
void CbmTrdParManager::GetParFileExtensions(std::vector<std::string>* vec)
{
for (Int_t iParSetType = (Int_t) ECbmTrdParSets::kBegin; iParSetType <= (Int_t) ECbmTrdParSets::kEnd; iParSetType++) {
switch (iParSetType) {
case (Int_t) ECbmTrdParSets::kCbmTrdParSetAsic: vec->emplace_back("asic"); break;
case (Int_t) ECbmTrdParSets::kCbmTrdParSetDigi: vec->emplace_back("digi"); break;
case (Int_t) ECbmTrdParSets::kCbmTrdParSetGain: vec->emplace_back("gas"); break;
case (Int_t) ECbmTrdParSets::kCbmTrdParSetGas: vec->emplace_back("gain"); break;
}
}
}
// void CbmTrdParManager::FillDigiPar()
// {
// printf("CbmTrdParManager::FillDigiPar()\n");
// // Int_t nofModules = fModuleMap.size();
// // fDigiPar->SetNrOfModules(nofModules);
// // fDigiPar->SetMaxSectors(fMaxSectors);
// //
// // TArrayI moduleId(nofModules);
// // Int_t iModule = 0;
// // std::map<Int_t, CbmTrdModuleSim*>::iterator it;
// // for (it = fModuleMap.begin() ; it != fModuleMap.end(); it++) {
// // moduleId.AddAt(it->second->GetModuleAddress(), iModule);
// // iModule++;
// // }
// //
// // fDigiPar->SetModuleIdArray(moduleId);
// // fDigiPar->SetModuleMap(fModuleMap);
// }
ClassImp(CbmTrdParManager)