C------------------------------------------------------------------------------
C                 STEERING FILE FOR ACERMC (3.0) - BASIC SETTINGS
C------------------------------------------------------------------------------

C==== TURN ON FFKEY STEERING FILE (DEBUG)
LIST 

C==== CMS/ACSET(1)
C Specify the centre-of-mass energy in GeV 

CMS 14000.0
C====

C==== ACER
C Use AcerMC code
C ACER=0 - no
C ACER=1 - yes
C ACER=2 - yes & store events to file; see the manual for details
C ACER=3 - yes & read events from file; see the manual for details

ACER 2

C====

C==== PROCESS/IACSET ARRAY
C Specify the process to generate. The available AcerMC processes are:
C
C  1)  g + g  ->  t t~ b b~ (MG)    
C  2)  q + q~ ->  t t~ b b~ (MG)    
C  3)  q + q~ ->  (W->) l nu_l b b~ (MG)
C  4)  q + q~ ->  (W->) l nu_l t t~ (MG)
C  5)  g + g  ->  (Z0->) l l~ b b~ (MG) 
C  6)  q + q~ ->  (Z0->) l l~ b b~ (MG) 
C  7)  g + g  ->  (Z0->) f f~ t t~ (MG) 
C  8)  q + q~ ->  (Z0->) f f~ t t~ (MG) 
C  9)  g + g  ->  (Z0/W/gamma->)t t~ b b~ (MG)    
C 10)  q + q  ->  (Z0/W/gamma->)t t~ b b~ (MG)    
C 11)  g + g  ->  t t~ off-shell (MG)    
C 12)  q + q~ ->  t t~ off-shell (MG)    
C 13)  g + g  ->  (W W b b~ ->) ~ 2f_1 2f_2 b b~ (MG)     80   
C 14)  q + q~ ->  (W W b b~ ->) ~ 2f_1 2f_2 b b~ (MG) 
C 15)  g + g  ->  t t~ t t~ (MG)    
C 16)  q + q~ ->  t t~ t t~ (MG)    
C 17)  q + b(g) ->  q' t(~) b -> q' b(~) f_1 f_2 (b) (MG)         85+86
C 18)  b + b(g) ->  (Z0/gamma->) l l~ b  (MG)         81+82
C 19)  q + q~ ->  t b~ ->  f f b b~ (s-chan) (MG)
C 20)  g + b(g)  ->  (W W b b~ ->) ~ 2f_1 2f_2 b b~ (MG)  80 + 89  
C 21)  q + q~ -> (Z'/Z0/gamma) ->  t t~ off-shell (MG)    
C
C 'Control processes'
C
C 91)  q + q~   ->  (Z0/gamma->) l l~ (MG)
C 92)  g + g    ->  t t~ (MG)    
C 93)  q + q~   ->  t t~ (MG)    
C 94)  q + q~   ->  (W->) l nu_l (MG)    
C 95)  g + g    ->  b b~ W W (MG)
C 96)  b + b    ->  (Z0/gamma->) l l~ (MG)      81
C 97)  g + b(~) ->  (Z0/gamma->) l l~ b (MG)    82
C 98)  q + b(~) ->  q' t(~) (MG)                83
C 99)  q + g    ->  q' t(~) b (MG)              84
C 100)  q + b(~) ->  q' t(~) -> q' b(~) f_1 f_2  (MG)                85
C 101)  q + g    ->  q' t(~) b -> q' b(~) f_1 f_2 b (MG)             86
C 102)  q + b(~)    ->  q' t(~) b -> q' b(~) W (MG)              
C 103)  q + b(g) ->  q' t(~) b  (MG)            83+84
C 104) g + b -> t l nu_l (W-chan) (MG)         87
C 105) g + b ->  (t W ->) b 2f_1 2f_2 (W-chan) (MG)    89
C 106) g + g -> t l nu_l b~ (W-chan) (MG)      88
C 107) g + g  ->  (t W b  ->)  2f_1 2f_2 b b~ (MG)  90  

C
C In case ACER=0 the native Pythia/Herwig conventions should be used 
C e.g. for Herwig PROCESS 1453 1355 3000

PROCESS 105
C====

 C==== HAD
C Control of hadronization/fragmentation/ISR/FSR switches:
C HAD=0 - switch off radiation in initial and final state, multinteraction and
C        hadronization
C HAD=1 - switch off radiation in final state and hadronization
C HAD=2 - switch off hadronization
C HAD=3 - full treatment 
C HAD=4 - switch off radiation in initial state, multiinteraction and hadronization 
C HAD=5 - switch off radiation in initial state and multiinteraction

HAD 0
C====

C==== PDF-SET/ACSET(7)
C Choose a PDF set according to LHAPDF naming scheme
C PDFSET=19070 represents the CTEQ5L parametrised set
C PDFSET=10042 represents the CTEQ6L parametrised set
PDFSET 10042
C====

C==== RSEED
C Choose the random seed for random generator initialisation

RSEED 550011

C====

C==== TAUOLA
C Tau decays handled by TAUOLA library
C TAUOLA=0 - use internal PYTHIA/HERWIG mechanisms for Tau decays
C TAUOLA=1 - use the TAUOLA library  for Tau decays

TAUOLA 0
C====

C==== PHOTOS
C QED FSR handled by PHOTOS library
C PHOTOS=0 - use internal PYTHIA/HERWIG mechanisms for FSR photon radiation
C PHOTOS=1 - use the PHOTOS routines for FSR photon radiation

PHOTOS 0
C====

C==== NEVENT/ACSET(51)
C Specify the number of events to generate

NEVENT 5000

C====

C ------------------------------------------------------------------------------
END