LIST
C
C In this example, all keys know by default by SGV are shown.
C The commented value is the default.
C ========== General steerings : ============
C Max # of events
C
C MAXEV 1000
C Max # of events to list
C
C MAXPR 1
C Unit to list events on
C
C LUNPR 6
C Starting seed for detector simulation random number generator.
C On VMS, setting ISEED to 0 yields new seeds
C each run (the seed will be calculated from the
C wall-clock
C
C DSEED 123345678
C Starting seed for Lund evet generator random number generator.
C Same comment. Note that other generators might or might not
C care about this value...
C
C GSEED 19780503
C Save random-number generator seeds on file ( to be able to
C restart after a crash. Only the most current set will be saved)
C
C SEED_BACKUP TRUE
C Frequency of seed-backups. Don't put it much less than this default:
C I/O take time !!!
C
C BACKUP_FREQ 100
C Should the analysing code do initialisation ? (normally not, but if
C You saved simulated events on a file and are reading them back, it
C should.
C
C NEED_ANA_INI FALSE
C Skip the event and continue with next on errors (TRUE) or stop
C execution ?
C
C SKIP TRUE
C Should histograms read in be updated (1) or reset (0) ?
C
C UPDF 1
C Use column-wise ntuples ?
C
C CWN FALSE
C Use any HBOOK external file at all ?
C
C USE_HBOOK TRUE
C I/O generated and simulated events :
C RZ : output to RZ file
C FZUT : output to FZ file
C FZIN : input from FZ file
C NO : No I/O (normally what You want)
C (if 'FZIN' is selected NEED_ANA_INI is set to TRUE)
C
C IOMODE 'NO '
C========= Event generator steering ======
C CMS energy (GeV)
C
C CMS_ENE 92.0
C JETSET steering arrays :
C
C MSTU
C MSTJ
C PARU
C PARJ
C PMAS
C MDME
C PYTHIA steering arrays :
C
C MSTP
C PARP
C MSTI
C PARI
C more PYTHIA steering
C MSEL
C MSUB
C CKIN
C KFIN
C (Note that KFIN is declared as KFIN(2,-40:40), PMAS as PMAS(4,500),
C and MDME as MDME(2,2000), so You must do
C some algebra to find the corresponding number when in a 1-dim
C array)
C Average interaction point
C
C MEAN_VERTEX 0.0 0.0 0.0
C Beam-spot size
C
C VERTEX_SPREAD 0.015 0.0010 1.000
C Simulate interaction point ? (by default it will be a 0,0,0)
C
C PRIMARY_VERTEX_SIM FALSE
C The following is example of how to set up a PYTHIA
C run. Refere to the PYTHIA documentation for all the
C possible settings and their defaults!
C Higgs mass
PMAS 25=150.0
C W mass
PMAS 24=80.22
C W width (500+compressed code)
PMAS 524=2.0
C Z mass
PMAS 23=91.1870
PARJ 123=91.1870
C Z width (500+compressed code)
PMAS 523=2.49
PARJ 124=2.49
C top mass
PMAS 6=176.
C The following MDME-settings are correct in PYTHIA5. See below
C for the corresponding settings for PYTHIA6
C============================Select gamma decay channels
C Quarks : d,u,s,c,b,t
MDME 144 = 1
145 = 1
146 = 1
147 = 1
148 = 1
149 = 0
C Leptons : e,mu,tau
152 = 0
153 = 0
154 = 0
C==========================Select Z0 decay channels
C Quarks : d,u,s,c,b,t
156 = 1
157 = 1
158 = 1
159 = 1
160 = 1
161 = 0
C Leptons : e,nue,mu,numu,tau,nutau
164 = 0
165 = 0
166 = 0
167 = 0
168 = 0
169 = 0
C===== ==================Select W decay channels
C Quarks : du,dc,su,sc,bu,bc
172 = 1
173 = 1
176 = 1
177 = 1
180 = 1
181 = 1
C Leptons : enue,munumu,taunutau
188 = 1
189 = 1
190 = 1
C =====================================
C Sea structure of e (0: no sea, 1: e contains g,q,...)
C MSTP 11 = 1
C 12 = 1
C Gamma gamma -> ff . Use MDME for gamma to select which f is allowed
C MSUB 58 = 1
C ff -> ff elastic QFD ( ie. bhabha)
C MSUB 10 = 1
C ff -> f'f' (t-channel in general)
C MSUB 12 = 1
C If the hadronic structure of the e is activated,
C the following might also occur
C ff -> ff elastic QCD
C MSUB 11 = 1
C ff -> gg
C MSUB 13 = 1
C fg -> fg
C MSUB 28 = 1
C fgamma -> fg
C MSUB 33 = 1
C gg -> ff
C MSUB 53 = 1
C ggamma -> ff
C MSUB 54 = 1
C gg -> gg
C MSUB 68 = 1
C mass cut
C CKIN 1 = 10.
C Pt cut
C CKIN 3 = 5.0
C 5 = 5.0
C Set cut-offs for Z/gamma mass to 3 GeV.
CKIN 41 = 3.
42 = -1.
43 = 3.
44 = -1.
C ff-->Z/gamma Use MDME for gamma and Z to select which
C final fermions will be produced
MSUB 1=1
C Z0Z0. idem
C MSUB 22=1
C WW. idem
C MSUB 25=1
C ISR on
MSTP 11 = 1
C FSR on
71 = 1
C Fragmentation on
111 = 1
C Use gamma/Z-interference
43 = 3
C========= Detector simulation steering ======
C Generate hits or track parameters at perigee
C
C VDHITS FALSE
C If hits to be generated : In how many layers (not counting the beam-pipe)
C
C VDLAYS 1
C Make full set of track parameters with Error matrix, or just
C 3-momentum and production vertex ? If You write the event
C to a file, putting MTKR to FALSE might be interesting: The size
C of the file is much reduced. The parameters can the be reconstructed
C by the analysing code. If You're not writing events out, putting
C MTKR = false is just a waste of CPU-cycles (the same thing will be
C done both in the simulation and the analysis)
C
C MTKR TRUE
C Number of detectors (MAX=3)
C
C NDETS 1
C Generate showers in calorimeters also for charged
C particles (else only for neutrals).
C
C CHSHOW TRUE
C Generate brems and photon conversions in the detector
C material
C GENBC FALSE
C Minimum electron momentum to generate brems.
C PMINBR 0.3
C Minimum photon momentum to generate pair-production.
C PMINPA 0.0
C Minimum fraction of pt after to pt before the brems for the
C original electron to be kept for the tracking
C PTLOSLIM 0.9
C Send particles with these codes to analysis
C By default, all particles with non-zero lifetime
C are sent and need not be specified here.
C Use the LUND partcle codes.
C SAVE_PARTICLES
C Print the geometry of the dectector after loading.
C PRDET FALSE
C Print the geometry of the dectector after loading, in a
C way usefull for displaying the detector with SHOWDET.KUMAC
C (if true, will also set PRDET to TRUE)
C PLDET FALSE
C========= Analysis steering ======
C Make Event ntuple ? (no-op with the default ZAUSER)
C
C MEVNT FALSE
C Make Jet ntuple ? (no-op with the default ZAUSER)
C
C MJETNT FALSE
C How to analyse the VD hits ? (no-op with the default ZAUSER)
C
C VDMET 1
C Minimum number of jets to accept the event.
C
C MINJET 0
C Make primary vertex by adding tracks until the Xi^2 of the vertex
C gets bad (DOWNUP TRUE) or by by removing tracks until it gets good
C (DOWNUP = FALSE)
C
C DOWNUP FALSE
C Limiting probability for two showers in the calorimeter to be
C separated.
C If the separartion of the two showers is such that the
C probability >= SHOW_SEP_LIM that two independent meassuerments
C of the SAME shower would give that same observed separartion (or
C less), the showers are merged. Hence, big SHOW_SEP_LIM -> many
C showers merged, and v.v. In particular: SHOW_SEP_LIM=0. means
C no showers are merged, and the cluster-information will essentially
C be a copy of the calorimeter information in ZATRS.
C NB. This parameter only takes effect if ZAUSHO is called as in
C the example ZAUSER!
C
C SHOW_SEP_LIM 0.9995
C Lowest distance between shower start-point and track extrapolation
C to the calorimeter at which the shower will not be attached
C to the track (in cm).
C NB. This parameter only takes effect if ZAUSHO is called as in
C the example ZAUSER!
C
C MIN_SEP_CLU_TRK 5.0