Initial files

DBASE/standard.database

 0-99999
-g_ctp_parm_filename ="PARAM/general.param"
-g_decode_map_filename ="MAPS/hms.map"
+g_ctp_parm_filename ="DBASE/general.param"
+g_decode_map_filename ="MAPS/hmschambers.map"
 g_ctp_kinematics_filename ="DBASE/standard.kinematics"

DBASE/standard.kinematics

+1-99999
+gpbeam=999
+gtarg_num = 999
+htheta_lab = 999
+stheta_lab = 999
+hpcentral = 999
+spcentral = 999
+hpartmass = 0.00051099
+spartmass = 0.00051099

DEF-files/hdcana.def

+# See $ANALYZER/examples/output_example.def for examples
+#
+block H.dc.*
+#block H.scin.*
+
+TH1F hdc1x1_wm 'HDC 1X1 Wiremap' H.dc.1x1.tdchits 113 0.5 113.5
+TH1F hdc1y1_wm 'HDC 1Y1 Wiremap' H.dc.1y1.tdchits  52 0.5  52.5
+TH1F hdc1u1_wm 'HDC 1U1 Wiremap' H.dc.1u1.tdchits 107 0.5 107.5
+TH1F hdc1v1_wm 'HDC 1V1 Wiremap' H.dc.1v1.tdchits 107 0.5 107.5
+TH1F hdc1y2_wm 'HDC 1Y2 Wiremap' H.dc.1y2.tdchits  52 0.5  52.5
+TH1F hdc1x2_wm 'HDC 1X2 Wiremap' H.dc.1x2.tdchits 113 0.5 113.5
+
+TH1F hdc2x1_wm 'HDC 2X1 Wiremap' H.dc.2x1.tdchits 113 0.5 113.5
+TH1F hdc2y1_wm 'HDC 2Y1 Wiremap' H.dc.2y1.tdchits  52 0.5  52.5
+TH1F hdc2u1_wm 'HDC 2U1 Wiremap' H.dc.2u1.tdchits 107 0.5 107.5
+TH1F hdc2v1_wm 'HDC 2V1 Wiremap' H.dc.2v1.tdchits 107 0.5 107.5
+TH1F hdc2y2_wm 'HDC 2Y2 Wiremap' H.dc.2y2.tdchits  52 0.5  52.5
+TH1F hdc2x2_wm 'HDC 2X2 Wiremap' H.dc.2x2.tdchits 113 0.5 113.5
+
+TH1F hdc1x1_dd 'HDC 1X1 Drift Distance' H.dc.1x1.dist 300 -0.1 0.6
+TH1F hdc1y1_dd 'HDC 1Y1 Drift Distance' H.dc.1y1.dist 300 -0.1 0.6
+TH1F hdc1u1_dd 'HDC 1U1 Drift Distance' H.dc.1u1.dist 300 -0.1 0.6
+TH1F hdc1v1_dd 'HDC 1V1 Drift Distance' H.dc.1v1.dist 300 -0.1 0.6
+TH1F hdc1y2_dd 'HDC 1Y2 Drift Distance' H.dc.1y2.dist 300 -0.1 0.6
+TH1F hdc1x2_dd 'HDC 1X2 Drift Distance' H.dc.1x2.dist 300 -0.1 0.6
+
+TH1F hdc2x1_dd 'HDC 2X1 Drift Distance' H.dc.2x1.dist 300 -0.1 0.6
+TH1F hdc2y1_dd 'HDC 2Y1 Drift Distance' H.dc.2y1.dist 300 -0.1 0.6
+TH1F hdc2u1_dd 'HDC 2U1 Drift Distance' H.dc.2u1.dist 300 -0.1 0.6
+TH1F hdc2v1_dd 'HDC 2V1 Drift Distance' H.dc.2v1.dist 300 -0.1 0.6
+TH1F hdc2y2_dd 'HDC 2Y2 Drift Distance' H.dc.2y2.dist 300 -0.1 0.6
+TH1F hdc2x2_dd 'HDC 2X2 Drift Distance' H.dc.2x2.dist 300 -0.1 0.6

DEF-files/hdcana_cuts.def

+Block: RawDecode
+
+Pedestal_event 0
+RawDecode_master 1
+
+Block: Decode
+Decode_master 1
+
+Block: CoarseTracking
+CoarseTracking_master 1
+
+Block: CoarseReconstruct
+CourseReconstruct 0
+

MAPS/make_cratemap.pl

+#!/usr/bin/perl
+
+# Read a Hall C style MAP file and output a
+# Hall A style crate map DB file.
+#
+# 22.03.2012 (saw)
+# 11.04.2014 (saw) Perl cleanup
+
+%crates=();
+
+$crate = 0;
+$nsubadd = 0;
+$bsub = 0;
+$modtype = 0;
+$slot = 0;
+while(<>) {
+    chomp($line=$_);
+    if($line=~/^\s*ROC=\s*(\d*)/i) {
+	$i++;
+	$crate = $1;
+	if(not $crates{$crate}) {
+	    $slotlist={};
+	    $crates{$crate} = $slotlist;
+	}
+	$modtype = 0;
+	$slot = 0;
+    } elsif ($line=~/^\s*nsubadd=\s*(\d*)/i) {
+	$nsubadd = $1;
+	$modtype = 0;
+    } elsif ($line=~/^\s*bsub=\s*(\d*)/i) {
+	$bsub = $1;
+	$modtype = 0;
+    } elsif ($line=~/^\s*slot=\s*(\d*)/i) {
+	$slot = $1;
+	$modtype = 0;
+    } elsif ($line=~/^\s*(\d*)\s*,\s*(\d*)\s*,\s*(\d*)/) {
+	if($modtype == 0) {	# Slot not yet registered
+	    if($nsubadd == 96) {
+		$modtype = 1877;
+	    } elsif($nsubadd == 64) {
+		if($bsub == 16) {
+		    $modtype = 1875;
+		} elsif($bsub == 17) {
+		    $modtype = 1881;
+		}
+	    }
+	    if($modtype == 0) {
+		print "Unknown module Crate $crate, Slot $slot\n";
+	    }
+	    $crates{$crate}{$slot} = $modtype;
+	    # print "$crate $slot $modtype\n";
+	}
+    }
+}
+print "# Hall C Crate map\n";
+foreach $crate (sort {$a <=> $b} keys %crates) {
+    print "==== Crate $crate type fastbus\n";
+    print "# slot  model   clear   header  mask    nchan   ndata\n";
+    foreach $slot (sort {$a <=> $b} keys %{ $crates{$crate}}) {
+	$modtype = $crates{$crate}{$slot};
+	if($modtype == 1877) {
+	    $ndata = 256;
+	} else {
+	    $ndata = 64;
+	}
+	printf " %2d     %d    1       0x0     0x0    %3d      %d\n"
+	    ,$slot,$modtype,$nsubadd, $ndata;
+    }
+}
+
+

PARAM/hcana.param

@@ -2,6 +2,11 @@
 ; Parameters that were built into Fortran analyzer that we want
 ; to pass as parameters so that the resulting code can be more generic.
 ;
+; Scintillator parameters
+href_npaddles = 0
+href_nsperchan = 0.1
+href_offset = 0.0
+;
 
 hhodo_num_planes = 4
 hhodo_plane_names = "1x 1y 2x 2y"
@@ -29,7 +34,6 @@ hdc_plane_names = "1x1 1y1 1u1 1v1 1y2 1x2 2x1 2y1 2u1 2v1 2y2 2x2"
 
 # The following were defined in REPLAY.PARAM
 h_recon_coeff_filename =    'DATFILES/hms_recon_coeff.dat'  ;hms optics matrix
-s_recon_coeff_filename =    'DATFILES/sos_recon_coeff.dat'  ;SOs optics matrix
 
 # The following are set to zero to replicate historical ENGINE behavior
 # For new analyses they should be set to 1.  If not defined here,
@@ -42,44 +46,3 @@ hdc_fix_lr = 0
 # appears in a space point.  (Which means the correction accumulates)
 hdc_fix_propcorr = 0
 
-# SOS parameters
-shodo_num_planes = 4
-shodo_plane_names = "1x 1y 2x 2y"
-
-scal_num_layers = 4
-sdbg_init_cal=0
-# Exclusion band width for the calorimeter's fiducial volume.
-# (saw) Don't know what this should be.  Copied it from HMS.
-scal_fv_delta = 5.
-
-# Constants for the coordiante correction of the calorimeter energy depositions
-scal_a_cor = 400.
-scal_b_cor = 12000.
-scal_c_cor = -87.1628, -100.	# The positive side constants reproduce
-scal_d_cor =  1.65054,    3.	# correction in Engine to accuracy better 0.005.
-
-scal_layer_names = "1pr 2ta 3ta 4ta"
-
-# Names of planes so that parameter names can be constructed
-sdc_plane_names = "1u1 1u2 1x1 1x2 1v1 1v2 2u1 2u2 2x1 2x2 2v1 2v2"
-
-# The following were defined in REPLAY.PARAM
-
-# Fortran ENGINE only had this as a parameter for HMS.  Need it here
-# because same code used for both spectrometers
-sntracks_max_fp = 10
-
-# The following are set to zero to replicate historical ENGINE behavior
-# For new analyses they should be set to 1.  If not defined here,
-# hcana will default 1, the new and correct behaviour.
-
-# If 1, Let a hit have different L/R assignment for different space points
-# instead of L/R assignment from first sp it appears in.
-sdc_fix_lr = 0
-# If 1, don't do the the propagation along the wire each time the hit
-# appears in a space point.  (Which means the correction accumulates)
-sdc_fix_propcorr = 0
-
-# Total number of PMTs in Gas Cherenkov detector.
-scer_tot_pmts = 4
-

PARAM/hdc.param

+;---------------------------------------------------------------------
+; HMS_TRACKING
+; CTP parameter file containing all tracking parameters for the HMS
+;----------------------------------------------------------------------
+; sigma of wire chamber resolution for each plane
+      hdc_sigma = 0.020
+                  0.020
+                  0.020
+                  0.020
+                  0.020
+                  0.020
+                  0.020
+                  0.020
+                  0.020
+                  0.020
+                  0.020
+                  0.020
+  hdc_tdc_min_win = 2000,2000,2000,2000,2000,2000
+  		    2000,2000,2000,2000,2000,2000
+  hdc_tdc_max_win = 5500,5000,5500,5500,5000,5500
+                    5500,5000,5500,5500,5000,5500
+; hms drift chamber tdc's time per channel
+        hdc_tdc_time_per_channel = 0.10
+; hms zero time for drift chambers	!DECREASING this number moves the hdtime plots to LOWER time.
+   hdc_plane_time_zero = -213.0,-213.0,-213.0,-213.0,-213.0,-213.0
+  		        -213.0,-213.0,-213.0,-213.0,-213.0,-213.0
+
+; Dave Abbott's wire velocity correction
+hdc_wire_velocity = 12.0
+hdc_central_time = 7,9,3,4,6,5
+                   7,5,3,4,6,6
+
+

PARAM/hms.driftmap → PARAM/hdriftmap.param

+; Lookup table
+;number of bins in Meek's time to distance lookup table
+hdriftbins=138
+;number of 1st bin in Meek's table in ns
+hdrift1stbin=-24
+;bin size in ns of Meek's table
+hdriftbinsz=2
 hwc1x1fract=0.0000,0.0001,0.0001,0.0002,0.0003,0.0004,0.0004,0.0005
 0.0007,0.0008,0.0010,0.0012,0.0015,0.0020,0.0028,0.0041,0.0060,0.0086
 0.0121,0.0167,0.0230,0.0311,0.0412,0.0529,0.0658,0.0800,0.0951,0.1114

SCRIPTS/hms.C

+void replay_hms(Int_t RunNumber=0, Int_t MaxEvent=0) {
+
+  //
+  //
+ if(RunNumber == 0) {
+    cout << "Enter a Run Number (-1 to exit): ";
+    cin >> RunNumber;
+    if( RunNumber<=0 ) break;
+  }
+  if(MaxEvent == 0) {
+    cout << "\nNumber of Events to analyze: ";
+    cin >> MaxEvent;
+    if(MaxEvent == 0) {
+      cerr << "...Invalid entry\n";
+      exit;
+    }
+  }
+  
+    char* RunFileNamePattern="raw/test_%d.log.0";
+    const char* ROOTFileNamePattern = "ROOTfiles/hms1190_%d.root";
+    //
+  gHcParms->Define("gen_run_number", "Run Number", RunNumber);
+  gHcParms->AddString("g_ctp_database_filename", "DBASE/standard.database");
+  
+  gHcParms->Load(gHcParms->GetString("g_ctp_database_filename"), RunNumber);
+
+  // g_ctp_parm_filename and g_decode_map_filename should now be defined
+
+  gHcParms->Load(gHcParms->GetString("g_ctp_kinematics_filename"), RunNumber);
+  gHcParms->Load(gHcParms->GetString("g_ctp_parm_filename"));
+
+
+
+  // Generate db_cratemap to correspond to map file contents
+  char command[100];
+  sprintf(command,"MAPS/make_cratemap.pl < %s > MAPS/db_cratemap.dat",gHcParms->GetString("g_decode_map_filename"));
+  system(command);
+
+  // Load the Hall C style detector map
+  gHcDetectorMap=new THcDetectorMap();
+  gHcDetectorMap->Load(gHcParms->GetString("g_decode_map_filename"));
+  
+  // Set up the equipment to be analyzed.
+  
+  THaApparatus* HMS = new THcHallCSpectrometer("H","HMS");
+  gHaApps->Add( HMS );
+  
+  //  HMS->AddDetector( new THcHodoscope("hod", "Hodoscope" ));
+  //HMS->AddDetector( new THcShower("cal", "Shower" ));
+  //THcCherenkov* cherenkov = new THcCherenkov("cher", "Gas Cerenkov" );
+  // HMS->AddDetector( cherenkov );
+  HMS->AddDetector( new THcDC("dc", "Drift Chambers" ));
+  //THcAerogel* aerogel = new THcAerogel("aero", "Aerogel Cerenkov" );
+  //HMS->AddDetector( aerogel );
+  //
+  //THcScalerEvtHandler *hscaler = new THcScalerEvtHandler("HS","HC scaler event type 0");
+  //  hscaler->SetDebugFile("HScaler.txt");
+  //gHaEvtHandlers->Add (hscaler);
+  //
+   //
+
+
+  // Set up the analyzer - we use the standard one,
+  // but this could be an experiment-specific one as well.
+  // The Analyzer controls the reading of the data, executes
+  // tests/cuts, loops over Acpparatus's and PhysicsModules,
+  // and executes the output routines.
+  THcAnalyzer* analyzer = new THcAnalyzer;
+   
+
+  // A simple event class to be output to the resulting tree.
+  // Creating your own descendant of THaEvent is one way of
+  // defining and controlling the output.
+  THaEvent* event = new THaEvent;
+  
+  // Define the run(s) that we want to analyze.
+  // We just set up one, but this could be many.
+  char RunFileName[100];
+  sprintf(RunFileName,RunFileNamePattern,RunNumber);
+  THaRun* run = new THaRun(RunFileName);
+
+  // Eventually need to learn to skip over, or properly analyze
+  // the pedestal events
+  run->SetEventRange(1,MaxEvent);//  Physics Event number, does not
+                                // include scaler or control events
+  run->SetNscan(1);
+  run->SetDataRequired(0x7);
+  run->Print();
+
+  // Define the analysis parameters
+  analyzer->SetCountMode( 2 ); // 0 = counter is # of physics triggers
+			       //1 = counter is # of all decode reads 
+                               //2= counter is event number
+  analyzer->SetEvent( event );
+  analyzer->SetOutFile( ROOTFileName.Data() );
+  analyzer->SetOdefFile("Def-files/hdana.def");
+  analyzer->SetCutFile("Def-files/hdana_cuts.def");        // optional
+  
+  // File to record cuts accounting information
+  //  analyzer->SetSummaryFile("summary_example.log"); // optional
+  
+  analyzer->Process(run);     // start the actual analysis
+  analyzer->PrintReport("TEMPLATES/report.template",Form("REPORT_OUTPUT/replay_both_%05d.report",RunNumber)); 
+}

SCRIPTS/replay_hms.C

+void replay_hms(Int_t RunNumber=0, Int_t MaxEvent=0) {
+
+  //
+  //
+ if(RunNumber == 0) {
+    cout << "Enter a Run Number (-1 to exit): ";
+    cin >> RunNumber;
+    if( RunNumber<=0 ) break;
+  }
+  if(MaxEvent == 0) {
+    cout << "\nNumber of Events to analyze: ";
+    cin >> MaxEvent;
+    if(MaxEvent == 0) {
+      cerr << "...Invalid entry\n";
+      exit;
+    }
+  }
+  
+    char* RunFileNamePattern="raw/test_%d.dat";
+    const char* ROOTFileNamePattern = "ROOTfiles/hms1190_%d.root";
+    //
+  gHcParms->Define("gen_run_number", "Run Number", RunNumber);
+  gHcParms->AddString("g_ctp_database_filename", "DBASE/standard.database");
+  
+  gHcParms->Load(gHcParms->GetString("g_ctp_database_filename"), RunNumber);
+
+  // g_ctp_parm_filename and g_decode_map_filename should now be defined
+
+  gHcParms->Load(gHcParms->GetString("g_ctp_kinematics_filename"), RunNumber);
+  gHcParms->Load(gHcParms->GetString("g_ctp_parm_filename"));
+
+
+
+  // Generate db_cratemap to correspond to map file contents
+  //char command[100];
+  //  sprintf(command,"MAPS/make_cratemap.pl < %s > db_cratemap.dat",gHcParms->GetString("g_decode_map_filename"));
+  //system(command);
+  // for now used pre made crate map
+
+  // Load the Hall C style detector map
+  gHcDetectorMap=new THcDetectorMap();
+  gHcDetectorMap->Load(gHcParms->GetString("g_decode_map_filename"));
+  
+  // Set up the equipment to be analyzed.
+  
+  THaApparatus* HMS = new THcHallCSpectrometer("H","HMS");
+  gHaApps->Add( HMS );
+  
+  //  HMS->AddDetector( new THcHodoscope("hod", "Hodoscope" ));
+  //HMS->AddDetector( new THcShower("cal", "Shower" ));
+  //THcCherenkov* cherenkov = new THcCherenkov("cher", "Gas Cerenkov" );
+  // HMS->AddDetector( cherenkov );
+  HMS->AddDetector( new THcDC("dc", "Drift Chambers" ));
+  //THcAerogel* aerogel = new THcAerogel("aero", "Aerogel Cerenkov" );
+  //HMS->AddDetector( aerogel );
+  //
+  //THcScalerEvtHandler *hscaler = new THcScalerEvtHandler("HS","HC scaler event type 0");
+  //  hscaler->SetDebugFile("HScaler.txt");
+  //gHaEvtHandlers->Add (hscaler);
+  //
+   //
+
+
+  // Set up the analyzer - we use the standard one,
+  // but this could be an experiment-specific one as well.
+  // The Analyzer controls the reading of the data, executes
+  // tests/cuts, loops over Acpparatus's and PhysicsModules,
+  // and executes the output routines.
+  THcAnalyzer* analyzer = new THcAnalyzer;
+   
+
+  // A simple event class to be output to the resulting tree.
+  // Creating your own descendant of THaEvent is one way of
+  // defining and controlling the output.
+  THaEvent* event = new THaEvent;
+  
+  // Define the run(s) that we want to analyze.
+  // We just set up one, but this could be many.
+  char RunFileName[100];
+  sprintf(RunFileName,RunFileNamePattern,RunNumber);
+  THaRun* run = new THaRun(RunFileName);
+
+  // Eventually need to learn to skip over, or properly analyze
+  // the pedestal events
+  run->SetEventRange(1,MaxEvent);//  Physics Event number, does not
+                                // include scaler or control events
+  run->SetNscan(1);
+  run->SetDataRequired(0x7);
+  run->Print();
+
+  // Define the analysis parameters
+  TString ROOTFileName = Form(ROOTFileNamePattern,RunNumber);
+  analyzer->SetCountMode( 2 ); // 0 = counter is # of physics triggers
+			       //1 = counter is # of all decode reads 
+                               //2= counter is event number
+  analyzer->SetEvent( event );
+  analyzer->SetOutFile( ROOTFileName.Data() );
+  analyzer->SetOdefFile("DEF-files/hdcana.def");
+  analyzer->SetCutFile("DEF-files/hdcana_cuts.def");        // optional
+  
+  // File to record cuts accounting information
+  //  analyzer->SetSummaryFile("summary_example.log"); // optional
+  
+  analyzer->Process(run);     // start the actual analysis
+  // analyzer->PrintReport("TEMPLATES/dcana.template",Form("REPORT_OUTPUT/replay_hms_%05d.report",RunNumber)); 
+}

TEMPLATES/dcana.template

+           Standalone drift chamber analysis report template

db_cratemap.dat

+==== Crate 2 type vme
+# slot  model   clear   header          mask            nchan   ndata
+    4    1190     1     0x40000004      0xff00001f        128     4096
+    5    1190     1     0x40000005      0xff00001f        128     4096
+    7    1190     1     0x40000007      0xff00001f        128     4096
+    8    1190     1     0x40000008      0xff00001f        128     4096
+   10    1190     1     0x4000000a      0xff00001f        128     4096
+   13    1190     1     0x4000000d      0xff00001f        128     4096
+   14    1190     1     0x4000000e      0xff00001f        128     4096
+   16    1190     1     0x40000010      0xff00001f        128     4096
+   17    1190     1     0x40000011      0xff00001f        128     4096
+==== Crate 20 type vme
+# slot  model   clear   header          mask            nchan   ndata
+    6    1190     1     0x40000006      0xff00001f        128     4096
+    7    1190     1     0x40000007      0xff00001f        128     4096
+    8    1190     1     0x40000008      0xff00001f        128     4096
+    9    1190     1     0x40000009      0xff00001f        128     4096
+   10    1190     1     0x4000000a      0xff00001f        128     4096
+   11    1190     1     0x4000000b      0xff00001f        128     4096
+

db_run.dat

+# d2n run database
+
+--------[ 2015-01-01 01:00:00 ]
+
+# 2015 SHMS Drift Chamber test sin ESB
+ebeam      = 6.0
+