A list of things:

• References

1. Higgs Interference Effects in $\Pg\Pg \to \PZ\PZ$ and their Uncertainty;
   Author: G. Passarino;
   Published in JHEP 1208 (2012) 146
   DOI: 10.1007/JHEP08(2012)146
   e-Print: arXiv:1206.3824 [hep-ph]
2. The Higgs Boson Lineshape
   Author: S. Goria, G.Passarino and D.Rosco;
   Published in Nucl.Phys. B864 (2012) 530-579
   DOI: 10.1016/j.nuclphysb.2012.07.006
   e-Print: arXiv:1112.5517 [hep-ph]
3. Higgs Pseudo-Observables, Second Riemann Sheet and All That
   Author: G. Passarino, C. Sturm and S. Uccirati;
   Published in Nucl.Phys. B834 (2010) 77-115
   DOI: 10.1016/j.nuclphysb.2010.03.013
   e-Print: arXiv:1001.3360 [hep-ph]

• New I received urgent requests for heavy Higgs lineshape results
  (to reweight MCs and to allow for extension of searches above 600 GeV).

• You will find a Fortran 95 code for computing the SM Higgs complex pole
  a SUBROUTINE for the on-shell Higgs boson total width
  and a short description of the recipe for implementing the complex pole propagator
  download FORTRAN code for complex pole ,
  download version 1.1 ,
  Version 1.1 of the code includes an expanded solution for the complex pole that allows you to recover
  the ZWA in the limit of low Higgs masses
  download SUBROUTINE to call version 1.1 ,
  download FORTRAN code for on-shell total width ,
  download FORTRAN code for scaled decays ,
  download README ,

• Here you will find HTO results for 8 TeV
  download tables,
  lineshape at 600 GeV,
  lineshape at 900 GeV,
  

• Here you will find the full paper, including THU
  for the signal lineshape
  download,

• Here you will find my notes for the BSM Subgroup kickoff meeting, Monday, April 30, 2012
  download,

• Here you will find data for the lineshape THU at 8 TeV
  Legenda,
  OFFP Central values,
  OFFP value 1,
  OFFP value 2,
  BW Central values,
  
  

• Here you will find data for the interference at 8 TeV
  
  

  

  
  Last added: September 1 2012
  
  Summary of data, Numerics updated
  
  effective NNLO, legenda,
  effective NNLO at 400 GeV, Summary,
  effective NNLO at 420 GeV, Summary,
  effective NNLO at 425 GeV, Summary,
  effective NNLO at 440 GeV, Summary,
  effective NNLO at 450 GeV, Summary,
  effective NNLO at 460 GeV, Summary,
  effective NNLO at 475 GeV, Summary,
  effective NNLO at 480 GeV, Summary,
  effective NNLO at 500 GeV, Summary,
  effective NNLO at 520 GeV, Summary,
  effective NNLO at 525 GeV, Summary,
  effective NNLO at 540 GeV, Summary,
  effective NNLO at 550 GeV, Summary,
  effective NNLO at 560 GeV, Summary,
  effective NNLO at 575 GeV, Summary,
  effective NNLO at 580 GeV, Summary,
  effective NNLO at 600 GeV, Summary,
  effective NNLO at 650 GeV, Summary,
  effective NNLO at 700 GeV, Summary,
  effective NNLO at 750 GeV, Summary,
  effective NNLO at 800 GeV, Summary,
  effective NNLO at 850 GeV, Summary,
  effective NNLO at 900 GeV, Summary,
  effective NNLO at 950 GeV, Summary,
  effective NNLO at 1000 GeV, Summary,
  
  effective NNLO at 700 GeV and 8 TeV, Summary,
  effective NNLO at 700 GeV and 7 TeV, Summary,
  
  Paper
  
  
  • Paper on Interference, Last added: September 1 2012
    
    Summary of K factors
    Bins - K - sqrt(Kgg)
    K - factors at 400 GeV, Summary,
    K - factors at 420 GeV, Summary,
    K - factors at 425 GeV, Summary,
    K - factors at 440 GeV, Summary,
    K - factors at 450 GeV, Summary,
    K - factors at 460 GeV, Summary,
    K - factors at 475 GeV, Summary,
    K - factors at 480 GeV, Summary,
    K - factors at 500 GeV, Summary,
    K - factors at 520 GeV, Summary,
    K - factors at 525 GeV, Summary,
    K - factors at 540 GeV, Summary,
    K - factors at 550 GeV, Summary,
    K - factors at 560 GeV, Summary,
    K - factors at 575 GeV, Summary,
    K - factors at 580 GeV, Summary,
    K - factors at 600 GeV, Summary,
    K - factors at 650 GeV, Summary,
    K - factors at 700 GeV, Summary,
    K - factors at 750 GeV, Summary,
    K - factors at 800 GeV, Summary,
    K - factors at 850 GeV, Summary,
    K - factors at 900 GeV, Summary,
    K - factors at 950 GeV, Summary,
    K - factors at 1000 GeV, Summary,
    
    
    
    
    

    

    
    Last added: September 19 2012
    
    
    Wide scan:
    600 - 700 GeV stops at 1.8 TeV
    650 - 1000 GeV stops at 2 TeV
    
    Results produced on September 2012 with HTO. Legenda:
    
    Complex-Pole-Scheme (OFFP - scheme of arXiv:1112.5517)
    Lineshape - CPS including NLO EW and G_top and dynamical QCD scales
    +/- errors as described in Sect. 7 of arXiv:1112.5517
    they include THU but not QCD scales, nor PDF, nor alpha_s
    error minus = central - min(value_1,value_2)
    error plus = max(value_1,value_2) - central
    
    LS at 600 GeV, Central,
    LS at 600 GeV, value_1,
    LS at 600 GeV, value_2,
    
    LS at 650 GeV, Central,
    LS at 650 GeV, value_1,
    LS at 650 GeV, value_2,
    
    LS at 700 GeV, Central,
    LS at 700 GeV, value_1,
    LS at 700 GeV, value_2,
    
    LS at 750 GeV, Central,
    LS at 750 GeV, value_1,
    LS at 750 GeV, value_2,
    
    LS at 800 GeV, Central,
    LS at 800 GeV, value_1,
    LS at 800 GeV, value_2,
    
    LS at 850 GeV, Central,
    LS at 850 GeV, value_1,
    LS at 850 GeV, value_2,
    
    LS at 900 GeV, Central,
    LS at 900 GeV, value_1,
    LS at 900 GeV, value_2,
    
    LS at 950 GeV, Central,
    LS at 950 GeV, value_1,
    LS at 950 GeV, value_2,
    
    LS at 1000 GeV, Central,
    LS at 1000 GeV, value_1,
    LS at 1000 GeV, value_2,
    
    K factors for ZZ up to 2 TeV
    
    K factors for ZZ ,
    
    
    Interference factors
    
    In the following tables you will find I = Total/(Signal + Background) - 1 [%]
    estimated with HTO, where Total = Signal + Interference + Background for gg --> ZZ. Therefore, you can take
    (Signal + Background)_your and get Interference_your
    Format is
    bin[5 GeV] / I [%] / - Delta I [%] / + Delta I [%]
    
    effective NNLO at 600 GeV, Summary,
    effective NNLO at 650 GeV, Summary,
    effective NNLO at 700 GeV, Summary,
    effective NNLO at 750 GeV, Summary,
    effective NNLO at 800 GeV, Summary,
    effective NNLO at 850 GeV, Summary,
    effective NNLO at 900 GeV, Summary,
    effective NNLO at 950 GeV, Summary,
    effective NNLO at 1000 GeV, Summary,
    
    
    

    

    
    
    

    • Disclaimer There are plenty of indications that it is very difficult
      for an heavy Higgs boson to come out right within the SM.
      I should not be held responsible for the consequences.
    
    
    
    
    Last modified September 19, 2012