18802 lines
644 KiB
Fortran
18802 lines
644 KiB
Fortran
C Last modification on July 24 2025 by M.S.
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C ==================================================================
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C ================= PROGRAM HDECAY: COMMENTS =======================
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C ==================================================================
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C
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C *****************
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C * VERSION 6.62 *
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C *****************
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C
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C
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C This program calculates the total decay widths and the branching
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C ratios of the C Standard Model Higgs boson (HSM) as well as those
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C of the neutral (HL= the light CP-even, HH= the heavy CP-even, HA=
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C the pseudoscalar) and the charged (HC) Higgs bosons of the Minimal
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C Supersymmetric extension of the Standard Model (MSSM) as well as a
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C general Two-Higgs-Doublet model (2HDM). It includes:
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C
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C - All the decay channels which are kinematically allowed and which
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C have branching ratios larger than 10**(-4).
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C
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C - All QCD corrections to the fermionic and gluonic decay modes.
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C Most of these corrections are mapped into running masses in a
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C consistent way with some freedom for including high order terms.
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C
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C - Below--threshold three--body decays with off--shell top quarks
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C or ONE off-shell gauge boson, as well as some decays with one
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C off-shell Higgs boson in the MSSM/2HDM.
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C
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C - Double off-shell decays: HSM,HL,HH --> W*W*,Z*Z* -->4 fermions,
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C which could be important for Higgs masses close to MW or MZ.
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C
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C - In the MSSM, the radiative corrections with full squark mixing and
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C uses the RG improved values of Higgs masses and couplings with the
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C main NLO corrections implemented (based on M.Carena, M. Quiros and
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C C.E.M. Wagner, Nucl. Phys. B461 (1996) 407, hep-ph/9508343).
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C
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C - In the MSSM, all the decays into CHARGINOS, NEUTRALINOS, SLEPTONS
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C and SQUARKS (with mixing in the stop and sbottom sectors).
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C
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C - Chargino, slepton and squark loops in the 2 photon decays and squark
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C loops in the gluonic decays (including QCD corrections).
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C
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C ===================================================================
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C This program has been written by A.Djouadi, J.Kalinowski, M.
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C Muehlleitner and M.Spira. For details on how to use the program see:
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C Comp. Phys. Commun. 108 (1998) 56, hep-ph/9704448 and arXiv:1801.09506.
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C
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C For any question, comment, suggestion or complaint, please contact us at:
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C Abdelhak.Djouadi@th.u-psud.fr
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C kalino@fuw.edu.pl
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C maggie@particle.uni-karlsruhe.de
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C Michael.Spira@psi.ch
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C
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C
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C ================ IT USES AS INPUT PARAMETERS:
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C
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C SLHAIN: =0: READ FROM hdecay.in
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C =1: READ SUSY LES HOUCHES ACCORD INPUT (slha.in)
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C
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C SLHAOUT: =0: WRITE BR TABLES
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C =1: WRITE SUSY LES HOUCHES ACCORD OUTPUT (slha.out)
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C
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C COUPVAR: =0: NO VARIATION OF HIGGS COUPLINGS
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C =1: VARIATION OF HIGGS COUPLINGS (ONLY FOR SM)
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C
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C HIGGS: =0: CALCULATE BRANCHING RATIOS OF SM HIGGS BOSON
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C =1: CALCULATE BRANCHING RATIOS OF MSSM h BOSON
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C =2: CALCULATE BRANCHING RATIOS OF MSSM H BOSON
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C =3: CALCULATE BRANCHING RATIOS OF MSSM A BOSON
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C =4: CALCULATE BRANCHING RATIOS OF MSSM H+ BOSON
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C =5: CALCULATE BRANCHING RATIOS OF ALL MSSM HIGGS BOSONS
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C
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C OMIT ELW =0: INCLUDE FULL ELECTROWEAK CORRECTIONS (SM)
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C =1: OMIT ALL ELECTROWEAK CORRECTIONS (SM)
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C
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C SM4: =0: CALCULATE USUAL BRANCHING RATIOS
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C =1: HIGGS WITH 4TH GENERATION (SETS HIGGS, FERMPHOB = 0)
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C
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C FERMPHOB: =0: CALCULATE USUAL BRANCHING RATIOS
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C =1: FERMIOPHOBIC HIGGS (SETS HIGGS = 0)
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C
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C 2HDM: =0: CALCULATE USUAL BRNCHING RATIOS
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C =1: 2HDM (SETS HIGGS = 5)
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C
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C MODEL: USE SPECIFIC SUBROUTINE FOR MSSM HIGSS MASSES AND COUPLINGS
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C =1: CARENA ET AL., NUCL. PHYS. B461 (1996) 407 (SUBHPOLE)
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C =2: CARENA ET AL., PHYS. LETT. B355 (1995) 209 (SUBH)
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C =3: HABER ET AL.
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C =10: hMSSM
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C
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C INPUT_SC: =0: USE DEFAULT INPUT VALUES MSBAR(2), MCBAR(3), MBBAR(MB),
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C ALPHA_S(MZ)
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C =1: USE MSBAR INPUT VALUES MSBAR(KAPPA*MH), MCBAR(KAPPA*MH),
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C MBBAR(KAPPA*MH), ALPHA_S(KAPPA*MH) AT SCALE KAPPA*M_H
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C (ONLY FOR SM)
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C
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C TGBET: TAN(BETA) FOR MSSM
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C MABEG: START VALUE OF M_A FOR MSSM AND M_H FOR SM
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C MAEND: END VALUE OF M_A FOR MSSM AND M_H FOR SM
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C NMA: NUMBER OF ITERATIONS FOR M_A
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C
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C MHL: LIGHT SCALAR HIGGS MASS FOR hMSSM (MODEL = 10)
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C
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C ALS(MZ): VALUE FOR ALPHA_S(M_Z)
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C MSBAR(2): MSBAR MASS OF STRANGE QUARK AT SCALE Q=2 GEV
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C MCBAR(3): CHARM MSBAR MASS AT SCALE Q=3 GEV
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C MBBAR(MB): BOTTOM MSBAR MASS AT SCALE Q=MBBAR
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C
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C KAPPA: SCALE FACTOR IN UNITS OF MH
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C
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C ALS(K*MH): MSBAR ALPHA_S AT SCALE Q=KAPPA*M_H
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C MS(KA*MH): MSBAR MASS OF STRANGE QUARK AT SCALE Q=KAPPA*M_H
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C MC(KA*MH): CHARM MSBAR MASS AT SCALE Q=KAPPA*M_H
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C MB(KA*MH): BOTTOM MSBAR MASS AT SCALE Q=KAPPA*M_H
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C
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C MT: TOP POLE MASS
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C MTAU: TAU MASS
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C MMUON: MUON MASS
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C ALPH: INVERSE QED COUPLING
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C GF: FERMI CONSTANT
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C GAMW: W WIDTH
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C GAMZ: Z WIDTH
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C MZ: Z MASS
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C MW: W MASS
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C VTB: CKM PARAMETER |V_TB|
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C VTS: CKM PARAMETER |V_TS|
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C VTD: CKM PARAMETER |V_TD|
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C VCB: CKM PARAMETER |V_CB|
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C VCS: CKM PARAMETER |V_CS|
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C VCD: CKM PARAMETER |V_CD|
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C VUB: CKM PARAMETER |V_UB|
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C VUS: CKM PARAMETER |V_US|
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C VUD: CKM PARAMETER |V_UD|
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C
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C GG_ELW: SCENARIO OF THE ELW. CORRECTIONS TO H -> GG (4TH GENERATION)
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C MTP: TOP' MASS (4TH GENERATION)
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C MBP: BOTTOM' MASS (4TH GENERATION)
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C MNUP: NU' MASS (4TH GENERATION)
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C MEP: E' MASS (4TH GENERATION)
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C
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C PARAM: 2HDM: = 1: INPUT AS ALPHA AND HIGGS MASSES
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C = 2: INPUT AS LAMBDAS
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C TYPE: TYPE OF 2HDM: 1 (type I), 2 (type II),
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C 3 (LEPTON-SPECIFIC), 4 (FLIPPED)
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C TGBET2HDM: TAN(BETA)
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C
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C ALPHA_H: MIXING ANGLE IN THE CP-EVEN NEUTRAL HIGGS SECTOR
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C MHL: MASS OF THE LIGHT CP-EVEN HIGGS BOSON
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C MHH: MASS OF THE HEAVY CP-EVEN HIGGS BOSON
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C MHA: MASS OF THE CP-ODD HIGGS BOSON
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C MH+-: MASS OF THE CHARGED HIGGS BOSONS
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C
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C LAMBDA1: LAMBDA_1
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C LAMBDA2: LAMBDA_2
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C LAMBDA3: LAMBDA_3
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C LAMBDA4: LAMBDA_4
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C LAMBDA5: LAMBDA_5
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C
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C GUT M1: = 0: M_1 DETERMINED FROM GUT RELATION, = 1: M_1 INPUT
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C SUSYSCALE: SCALE FOR SUSY BREAKING PARAMETERS
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C MU: SUSY HIGGS MASS PARAMETER
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C M1: GAUGINO MASS PARAMETER (IF GUT M1 = 1)
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C M2: GAUGINO MASS PARAMETER
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C MGLUINO: GLUINO POLE MASS
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C 1ST AND 2ND GENERATION:
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C MSL1: SUSY BREAKING MASS PARAMETERS OF LEFT HANDED SLEPTONS
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C MER1: SUSY BREAKING MASS PARAMETERS OF RIGHT HANDED SLEPTONS
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C MQL1: SUSY BREAKING MASS PARAMETERS OF LEFT HANDED SUPS
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C MUR1: SUSY BREAKING MASS PARAMETERS OF RIGHT HANDED SUPS
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C MDR1: SUSY BREAKING MASS PARAMETERS OF RIGHT HANDED SDOWNS
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C 3RD GENERATION:
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C MSL: SUSY BREAKING MASS PARAMETERS OF LEFT HANDED STAUS
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C MER: SUSY BREAKING MASS PARAMETERS OF RIGHT HANDED STAUS
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C MSQ: SUSY BREAKING MASS PARAMETERS OF LEFT HANDED STOPS
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C MUR: SUSY BREAKING MASS PARAMETERS OF RIGHT HANDED STOPS
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C MDR: SUSY BREAKING MASS PARAMETERS OF RIGHT HANDED SBOTTOMS
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C AL: STAU TRILINEAR SOFT BREAKING TERMS
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C AU: STOP TRILINEAR SOFT BREAKING TERMS
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C AD: SBOTTOM TRILINEAR SOFT BREAKING TERMS
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C
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C ON-SHELL: =0: INCLUDE OFF_SHELL DECAYS H,A --> T*T*, A --> Z*H,
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C H --> W*H+,Z*A, H+ --> W*A, W*H, T*B
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C =1: EXCLUDE THE OFF-SHELL DECAYS ABOVE
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C
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C ON-SH-WZ: =0: INCLUDE DOUBLE OFF-SHELL PAIR DECAYS PHI --> W*W*,Z*Z*
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C =1: INCLUDE DOUBLE OFF-SHELL PAIR DECAYS PHI --> W*W*,Z*Z*
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C BELOW THRESHOLD, BUT ON-SHELL PAIR DECAYS ABOVE
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C =-1: INCLUDE ONLY SINGLE OFF-SHELL DECAYS PHI --> W*W,Z*Z
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C BELOW THRESHOLD, BUT ON-SHELL PAIR DECAYS ABOVE
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C
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C IPOLE: =0 COMPUTES RUNNING HIGGS MASSES (FASTER)
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C =1 COMPUTES POLE HIGGS MASSES
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C
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C OFF-SUSY: =0: INCLUDE DECAYS (AND LOOPS) INTO SUPERSYMMETRIC PARTICLES
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C =1: EXCLUDE DECAYS (AND LOOPS) INTO SUPERSYMMETRIC PARTICLES
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C
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C INDIDEC: =0: PRINT OUT SUMS OF CHARGINO/NEUTRALINO/SFERMION DECAYS
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C =1: PRINT OUT INDIVIDUAL CHARGINO/NEUTRALINO/SFERMION DECAYS
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C
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C NF-GG: NUMBER OF LIGHT FLAVORS INCLUDED IN THE GLUONIC DECAYS
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C PHI --> GG* --> GQQ (3,4 OR 5)
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C
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C IGOLD: =0: EXCLUDE DECAYS INTO GRAVITINO + GAUGINO
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C =1: INCLUDE DECAYS INTO GRAVITINO + GAUGINO
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C
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C MPLANCK: PLANCK MASS FOR DECAYS INTO GRAVITINO + GAUGINO
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C MGOLD: GRAVITINO MASS FOR DECAYS INTO GRAVITINO + GAUGINO
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C
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C RESCALING OF COUPLINGS
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C ----------------------
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C
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C ELWK: = 0: Include elw. corrections only for SM part
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C = 1: Include elw. corrections in all rescalings of couplings
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C CW: RESCALING FACTOR OF HWW COUPLING
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C CZ: RESCALING FACTOR OF HZZ COUPLING
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C Ctau: RESCALING FACTOR OF HTAUTAU COUPLING
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C Cmu: RESCALING FACTOR OF HMUMU COUPLING
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C Ct: RESCALING FACTOR OF HTT COUPLING
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C Cb: RESCALING FACTOR OF HBB COUPLING
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C Cc: RESCALING FACTOR OF HCC COUPLING
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C Cs: RESCALING FACTOR OF HSS COUPLING
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C Cgaga: POINT-LIKE H-GAMMA-GAMMA COUPLING
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C Cgg: POINT-LIKE HGG COUPLING
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C CZga: POINT-LIKE H-Z-GAMMA COUPLING
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C
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C ********************* 4TH GENERATION *************************************
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C Ctp: RESCALING FACTOR OF HT'T' COUPLING
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C Cbp: RESCALING FACTOR OF HB'B' COUPLING
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C Cnup: RESCALING FACTOR OF HNU'NU' COUPLING
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C Cep: RESCALING FACTOR OF HE'E' COUPLING
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C
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C THE POINT-LIKE COUPLINGS ARE DEFINED IN TERMS OF THE LAGRANGIAN
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C
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C L = ( alpha_s/8/pi Cgg G^{a\mu\nu}G^a_{\mu\nu}
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C + alpha/8/pi Cgaga F^{\mu\nu}F_{\mu\nu}
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C + sqrt(alpha alpha_2)/4/pi CZga F^{\mu\nu}Z_{\mu\nu}) H/v
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C
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C WHERE G^{a\mu\nu}, F^{\mu\nu} AND Z^{\mu\nu} ARE THE FIELD STRENGTH
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C TENSORS OF THE GLUON, PHOTON AND Z BOSON FIELDS. THE COUPLINGS alpha
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C AND alpha_2 ARE THE ELECTROMAGNETIC (IN THE THOMPSON LIMIT) AND
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C ISPOSPIN COUPLINGS (g^2 = 4 pi alpha_2), RESPECTIVELY AND v IS THE
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C HIGGS VACUUM EXPECTATION VALUE.
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C
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C =======================================================================
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C ============== BEGINNING OF THE MAIN PROGRAM ==========================
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C =======================================================================
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C
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PROGRAM HDECAY
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IMPLICIT DOUBLE PRECISION (A-H,O-Z)
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COMMON/HMASS_HDEC/AMSM,AMA,AML,AMH,AMCH,AMAR
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COMMON/FLAGS_HDEC/INDIDEC
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COMMON/SLHA_vals_HDEC/islhai,islhao
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c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
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COMMON/DAVID/QSUSY1,QSUSY2,LOOP
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c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
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COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
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COMMON/SFER1ST_HDEC/AMQL1,AMUR1,AMDR1,AMEL1,AMER1
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common/marcelvos_hdec/scalmq,imarcelvos,ioutput
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common/feynhiggs0_hdec/ifeynhiggs,itheta
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common/feynhiggs_hdec/amsq0,amur0,amdr0,rmsq0,rmur0,rmdr0
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. ,stht0,ctht0,sthb0,cthb0
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DIMENSION GMN(4),XMN(4),GMC(2),GMST(2),GMSB(2),GMSL(2),
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. GMSU(2),GMSD(2),GMSE(2),GMSN(2),GMSN1(2)
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COMMON/SMASS_HDEC/GMN,XMN,GMC,GMST,GMSB,GMSL,GMSU,GMSD,GMSE,GMSN
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. ,GMSN1
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COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
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COMMON/BREAKSCALE_HDEC/SUSYSCALE
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ioutput = 0
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imarcelvos = 0
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ifeynhiggs = 0
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itheta = 0
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c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
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CALL READ_HDEC(TGBET,AMABEG,AMAEND,NMA)
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c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
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pi = 4*datan(1.d0)
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amsq0 = amsq
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amur0 = amur
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amdr0 = amdr
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rmsq0 = amsq
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rmur0 = amur
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rmdr0 = amdr
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au0 = au
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if(ifeynhiggs.ne.0)then
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qsusy1 = 1
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qsusy2 = 1
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loop = 2
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acc = 1.d-8
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c xt = au0
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c au = xt + amu/tgbet
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amar = amabeg
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amsm = amar
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ama = amar
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1357 continue
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call hdec(tgbet)
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amst1 = gmst(1)
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amst2 = gmst(2)
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del1 = dabs(rmsq0-amsq0)/amsq0
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del2 = dabs(rmur0-amur0)/amur0
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del3 = dabs(rmdr0-amdr0)/amdr0
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write(6,*)'M_soft: M_tL M_tR',
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. ' M_bR'
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write(6,*)' OS',rmsq0,rmur0,rmdr0
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write(6,*)'MSbar',amsq,amur,amdr
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write(6,*)
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if(del1.gt.acc.or.del2.gt.acc.or.del3.gt.acc.and.islhai.eq.0)then
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amsq = amsq * (1 - (rmsq0-amsq0)/2/amsq0)
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amur = amur * (1 - (rmur0-amur0)/2/amur0)
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amdr = amdr * (1 - (rmdr0-amdr0)/2/amdr0)
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goto 1357
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endif
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amql1 = amsq
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amur1 = amur
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amdr1 = amdr
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c--tree-level like mixing angle
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c qq = susyscale
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c rmt = runm_hdec(qq,6,0)
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c sw2=1.d0-amw**2/amz**2
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c tb = tgbet
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c ai3 = 0.5d0
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c eq = 2/3.d0
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c dl = (ai3-eq*sw2)*amz**2*(1-tb**2)/(1+tb**2)
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c dr = eq*sw2*amz**2*(1-tb**2)/(1+tb**2)
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c amsql2 = amsq**2 + dl
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c amsqr2 = amur**2 + dr
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c amlr = au - amu/tb
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c del = (amsql2-amsqr2)**2+4*rmt**2*amlr**2
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c amsq12 = rmt**2 + (amsql2+amsqr2-dsqrt(del))/2
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c amsq22 = rmt**2 + (amsql2+amsqr2+dsqrt(del))/2
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c am1x=dsqrt(amsq12)
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c am2x=dsqrt(amsq22)
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c if(amsql2.eq.amsqr2) then
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c thet = pi/4
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c else
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c thet=0.5d0*datan(2.d0*rmt*amlr / (amsql2-amsqr2) )
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c if(amsql2.gt.amsqr2) thet = thet + pi/2
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c endif
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c s2t0 = 2*dsin(thet)*dcos(thet)
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c st2 = 2*ctht0*stht0
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c write(6,*)'sin(theta) = ',stht0,'cos(theta) = ',ctht0
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c write(6,*)'sin(theta0) = ',dsin(thet),'cos(theta0) = ',dcos(thet)
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c write(6,*)'theta = ',thet/pi,'* pi'
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c write(6,*)
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call hdec(tgbet)
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endif
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c call hdec(tgbet)
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if(ifeynhiggs.ne.0.and.islhai.eq.0)then
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write(6,*)'M_soft: M_tL M_tR',
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. ' M_bR'
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write(6,*)' OS',rmsq0,rmur0,rmdr0
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write(6,*)'MSbar',amsq,amur,amdr
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write(6,*)
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write(6,*)'A_t, A_b, A_tau = ',au,ad,al
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write(6,*)
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endif
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close(51)
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close(52)
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close(53)
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close(54)
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c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
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c CALL READ_HDEC(TGBET,AMABEG,AMAEND,NMA)
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if(islhao.ne.1) then
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CALL HEAD_HDEC(TGBET,AMABEG)
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endif
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c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
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c write(6,*)'Loop, Factor_QCD, Factor_elw = ?'
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c read(5,*)LOOP,QSUSY1,QSUSY2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
DO 9999 II=1,NMA
|
|
IF(NMA.NE.1)THEN
|
|
AMAR = AMABEG + (AMAEND-AMABEG)/(NMA-1D0)*(II-1D0)
|
|
ELSE
|
|
AMAR = AMABEG
|
|
ENDIF
|
|
AMSM = AMAR
|
|
AMA = AMAR
|
|
CALL HDEC(TGBET)
|
|
CALL WRITE_HDEC(TGBET)
|
|
9999 CONTINUE
|
|
|
|
CALL CLOSE_HDEC
|
|
|
|
STOP
|
|
END
|
|
|
|
SUBROUTINE READ_HDEC(TGBET,AMABEG,AMAEND,NMA)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
PARAMETER(K=6,NI=87,NSA=85,NSB=86,NLA=88,NLB=89,NHA=90,NHB=91,
|
|
. NHC=92,NAA=93,NAB=94,NCA=95,NCB=96,NCC=50,NRA=97,NRB=98,
|
|
. NSUSYL=81,NSUSYA=82,NSUSYH=83,NSUSYC=84,NPAR=80,
|
|
. NSUSYLA=79,NSUSYLB=78,NSUSYLC=77,NSUSYLD=76,NSUSYLE=75,
|
|
. NSUSYLF=59,NSUSYHF=58,
|
|
. NSUSYHA=74,NSUSYHB=73,NSUSYHC=72,NSUSYHD=71,NSUSYHE=70,
|
|
. NSUSYAA=69,NSUSYAB=68,NSUSYAC=67,NSUSYAD=66,NSUSYAE=65,
|
|
. NSUSYCA=64,NSUSYCB=63,NSUSYCC=62,NSUSYCD=61,NSUSYCE=60,
|
|
. ninlha=22)
|
|
double precision minval(1:20),smval(1:30),massval(1:50),
|
|
. nmixval(4,4),umixval(2,2),vmixval(2,2),
|
|
. stopmixval(2,2),sbotmixval(2,2),staumixval(2,2),
|
|
. hmixval(1:10),gaugeval(1:3),msoftval(1:100),
|
|
. auval(3,3),adval(3,3),aeval(3,3),yuval(3,3),
|
|
. ydval(3,3),yeval(3,3),qvalue(1:20),extval(0:100),
|
|
. m_softval(1:100)
|
|
double precision slhaneut(1:4),slhaxneut(1:4),slhachar(1:2),
|
|
. slhaxchar(1:2),
|
|
. slhau(2,2),slhav(2,2),slhaz(4,4),
|
|
. slhast(2),slhasb(2),slhasu(2),slhasd(2),
|
|
. slhase(2),slhasl(2),slhasn(2),slhasnl(2),
|
|
. warning(1:10)
|
|
double precision vckmval(4)
|
|
integer imod(1:2)
|
|
integer check(1:22)
|
|
double precision mbmsbar,mbl,mbu
|
|
character spinfo1*100,spinfo2*100,modselval*100,mincom(1:20)*20,
|
|
. extcom(0:100)*20,softcom(1:100)*20,hmixcom(1:10)*20,
|
|
. m_softcom(1:100)*20
|
|
DIMENSION GMN(4),XMN(4),GMC(2),GMST(2),GMSB(2),GMSL(2),
|
|
. GMSU(2),GMSD(2),GMSE(2),GMSN(2),GMSN1(2)
|
|
DIMENSION HLBRSC(2,2),HLBRSN(4,4),HHBRSC(2,2),HHBRSN(4,4),
|
|
. HABRSC(2,2),HABRSN(4,4),HCBRSU(2,4),
|
|
. HHBRST(2,2),HHBRSB(2,2),HCBRSTB(2,2)
|
|
DIMENSION AC1(2,2),AC2(2,2),AC3(2,2),
|
|
. AN1(4,4),AN2(4,4),AN3(4,4),
|
|
. ACNL(2,4),ACNR(2,4)
|
|
DIMENSION GLTT(2,2),GLBB(2,2),GHTT(2,2),GHBB(2,2),GCTB(2,2),
|
|
. GLEE(2,2),GHEE(2,2),GCEN(2,2)
|
|
DIMENSION AGDL(4),AGDA(4),AGDH(4),AGDC(2)
|
|
c -------------- common block given by read_leshouches ------------ c
|
|
COMMON/SLHA_leshouches1_HDEC/spinfo1,spinfo2,modselval,mincom,
|
|
. extcom,softcom,hmixcom
|
|
COMMON/SLHA_leshouches2_HDEC/minval,extval,smval,massval,nmixval,
|
|
. umixval,vmixval,stopmixval,sbotmixval,
|
|
. staumixval,hmixval,gaugeval,msoftval,auval,
|
|
. adval,aeval,yuval,ydval,yeval,alphaval,
|
|
. qvalue,imod
|
|
COMMON/SLHA_leshouches3_HDEC/vckmval
|
|
COMMON/SD_scaleofewsb/scaleofewsb
|
|
c -------------- common blocks needed in HDECAY subroutines ---------- c
|
|
COMMON/SLHA_vals_HDEC/islhai,islhao
|
|
COMMON/SLHA_m1_HDEC/am1
|
|
COMMON/M1_HDEC/am10,igut
|
|
COMMON/SLHA_gaug_HDEC/slhaneut,slhaxneut,slhachar,slhau,slhav,
|
|
. slhaz,slhaxchar
|
|
COMMON/SLHA_sfer_HDEC/slhast,slhasb,slhasu,slhasd,slhase,slhasl,
|
|
. slhasn,slhasnl,slhacot,slhasit,slhacob,slhasib,
|
|
. slhacol,slhasil
|
|
COMMON/SLHA_hmass_HDEC/slhaml,slhamh,slhamc,slha_alpha
|
|
COMMON/SLHAVAL_HDEC/g1ew,g2ew
|
|
COMMON/SLHA_checkval_HDEC/check
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/STRANGE_HDEC/AMSB
|
|
COMMON/MSBAR_HDEC/AMCB,AMBB
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/CKMPAR_HDEC/VTB,VTS,VTD,VCB,VCS,VCD,VUB,VUS,VUD
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AML,AMH,AMCH,AMAR
|
|
COMMON/BREAKSCALE_HDEC/SUSYSCALE
|
|
COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
|
|
COMMON/BREAKGLU_HDEC/AMGLU
|
|
COMMON/SFER1ST_HDEC/AMQL1,AMUR1,AMDR1,AMEL1,AMER1
|
|
COMMON/GLUINO_HDEC/AMGLUINO,XMSB1,XMSB2,STHB,CTHB,
|
|
. XLBB(2,2),XHBB(2,2),XABB(2,2),
|
|
. XMST1,XMST2,STHT,CTHT,
|
|
. XLTT(2,2),XHTT(2,2),XATT(2,2)
|
|
COMMON/WZWDTH_HDEC/GAMC0,GAMT0,GAMT1,GAMW,GAMZ
|
|
COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,
|
|
. GHHH,GLLL,GHLL,GLHH,GHAA,GLAA,GLVV,GHVV,
|
|
. GLPM,GHPM,B,A
|
|
COMMON/ALS_HDEC/XLAMBDA,AMC0,AMB0,AMT0,N0
|
|
COMMON/FLAG_HDEC/IHIGGS,NNLO,IPOLE
|
|
COMMON/SM4_HDEC/AMTP,AMBP,AMNUP,AMEP,ISM4,IGGELW
|
|
COMMON/FERMIOPHOBIC_HDEC/IFERMPHOB
|
|
COMMON/MODEL_HDEC/IMODEL
|
|
COMMON/ONSHELL_HDEC/IONSH,IONWZ,IOFSUSY
|
|
COMMON/OLDFASH_HDEC/NFGG
|
|
COMMON/WIDTHSM_HDEC/SMBRB,SMBRL,SMBRM,SMBRS,SMBRC,SMBRT,SMBRG,
|
|
. SMBRGA,SMBRZGA,SMBRW,SMBRZ,SMWDTH
|
|
COMMON/WIDTHA_HDEC/ABRB,ABRL,ABRM,ABRS,ABRC,ABRT,ABRG,ABRGA,
|
|
. ABRZGA,ABRZ,AWDTH
|
|
COMMON/WIDTHHL_HDEC/HLBRB,HLBRL,HLBRM,HLBRS,HLBRC,HLBRT,HLBRG,
|
|
. HLBRGA,HLBRZGA,HLBRW,HLBRZ,HLBRA,HLBRAZ,HLBRHW,
|
|
. HLWDTH
|
|
COMMON/WIDTHHH_HDEC/HHBRB,HHBRL,HHBRM,HHBRS,HHBRC,HHBRT,HHBRG,
|
|
. HHBRGA,HHBRZGA,HHBRW,HHBRZ,HHBRH,HHBRA,HHBRAZ,
|
|
. HHBRHW,HHWDTH
|
|
COMMON/WIDTHHC_HDEC/HCBRB,HCBRL,HCBRM,HCBRBU,HCBRS,HCBRC,HCBRT,
|
|
. HCBRW,HCBRA,HCWDTH
|
|
COMMON/WISUSY_HDEC/HLBRSC,HLBRSN,HHBRSC,HHBRSN,HABRSC,HABRSN,
|
|
. HCBRSU,HLBRCHT,HHBRCHT,HABRCHT,HLBRNET,HHBRNET,
|
|
. HABRNET,HCBRCNT,HLBRSL,HHBRSL,HCBRSL,HABRSL,HABRST,
|
|
. HABRSB,HHBRSQ,HHBRST,HHBRSB,HHBRSQT,HCBRSQ,HCBRSTB,
|
|
. HCBRSQT,HLBRSQ,HLBRSQT
|
|
COMMON/WISFER_HDEC/BHLSLNL,BHLSLEL,BHLSLER,BHLSQUL,BHLSQUR,
|
|
. BHLSQDL,BHLSQDR,BHLST(2,2),BHLSB(2,2),BHLSTAU(2,2),
|
|
. BHHSLNL,BHHSLEL,BHHSLER,BHHSQUL,BHHSQUR,BHHSQDL,
|
|
. BHHSQDR,BHHST(2,2),BHHSB(2,2),BHHSTAU(2,2),
|
|
. BHASTAU,BHASB,BHAST,
|
|
. BHCSL00,BHCSL11,BHCSL21,BHCSQ,BHCSTB(2,2)
|
|
COMMON/SMASS_HDEC/GMN,XMN,GMC,GMST,GMSB,GMSL,GMSU,GMSD,GMSE,GMSN
|
|
. ,GMSN1
|
|
COMMON/GOLDST_HDEC/AXMPL,AXMGD,IGOLD
|
|
COMMON/WIGOLD_HDEC/HLBRGD,HABRGD,HHBRGD,HCBRGD
|
|
COMMON/FLAGS_HDEC/INDIDEC
|
|
COMMON/CPSM_HDEC/CPW,CPZ,CPTAU,CPMU,CPT,CPB,CPC,CPS,
|
|
. CPGAGA,CPGG,CPZGA,ICOUPELW
|
|
COMMON/CPSM4_HDEC/CPTP,CPBP,CPNUP,CPEP
|
|
c MMM changed 21/8/13
|
|
COMMON/THDM_HDEC/TGBET2HDM,ALPH2HDM,AMHL2HDM,AMHH2HDM,
|
|
. AMHA2HDM,AMHC2HDM,AM12SQ,A1LAM2HDM,A2LAM2HDM,A3LAM2HDM,
|
|
. A4LAM2HDM,A5LAM2HDM,ITYPE2HDM,I2HDM,IPARAM2HDM
|
|
COMMON/WIDTH_HC_ADD/hcbrcd,hcbrts,hcbrtd
|
|
COMMON/WIDTH_2HDM/hcbrwhh,hhbrchch,hlbrchch,abrhhaz,abrhawphm
|
|
c end MMM changed 21/8/13
|
|
COMMON/HMSSM_HDEC/AMHL10
|
|
COMMON/OMIT_ELW_HDEC/IOELW
|
|
c-- FeynHiggs
|
|
common/feynhiggs0_hdec/ifeynhiggs,itheta
|
|
common/marcelvos_hdec/scalmq,imarcelvos,ioutput
|
|
|
|
unlikely = -123456789D0
|
|
c unlikely = 0.D0
|
|
|
|
PI = 4*DATAN(1D0)
|
|
|
|
OPEN(NI,FILE='hdecay.in')
|
|
OPEN(NPAR,FILE='br.input')
|
|
|
|
read(ni,101)islhai
|
|
read(ni,101)islhao
|
|
READ(NI,101)ICOUPVAR
|
|
READ(NI,101)IHIGGS
|
|
READ(NI,101)IELW
|
|
READ(NI,101)ISM4
|
|
READ(NI,101)IFERMPHOB
|
|
c MMM changed 21/8/13
|
|
READ(NI,101)I2HDM
|
|
c end MMM changed 21/8/13
|
|
READ(NI,101)IMODEL
|
|
READ(NI,101)INPUT_SC
|
|
READ(NI,100)TGBET
|
|
READ(NI,100)AMABEG
|
|
READ(NI,100)AMAEND
|
|
READ(NI,101)NMA
|
|
c-------------------------- hMSSM ------------------
|
|
READ(NI,*)
|
|
READ(NI,100)AMHL10
|
|
READ(NI,*)
|
|
c---------------------------------------------------
|
|
READ(NI,100)ALSMZ
|
|
READ(NI,100)AMS
|
|
READ(NI,100)AMC
|
|
READ(NI,100)AMB
|
|
READ(NI,*)
|
|
READ(NI,100)SCALMQ
|
|
READ(NI,*)
|
|
READ(NI,100)ALSX
|
|
READ(NI,100)AMSX
|
|
READ(NI,100)AMCX
|
|
READ(NI,100)AMBX
|
|
READ(NI,*)
|
|
READ(NI,100)AMT
|
|
READ(NI,100)AMTAU
|
|
READ(NI,100)AMMUON
|
|
READ(NI,100)ALPH
|
|
READ(NI,100)GF
|
|
READ(NI,100)GAMW
|
|
READ(NI,100)GAMZ
|
|
READ(NI,100)AMZ
|
|
READ(NI,100)AMW
|
|
READ(NI,100)VTB
|
|
READ(NI,100)VTS
|
|
READ(NI,100)VTD
|
|
READ(NI,100)VCB
|
|
READ(NI,100)VCS
|
|
READ(NI,100)VCD
|
|
READ(NI,100)VUB
|
|
READ(NI,100)VUS
|
|
READ(NI,100)VUD
|
|
READ(NI,*)
|
|
READ(NI,*)
|
|
READ(NI,*)
|
|
READ(NI,*)
|
|
READ(NI,*)
|
|
READ(NI,101)IGGELW
|
|
READ(NI,100)AMTP
|
|
READ(NI,100)AMBP
|
|
READ(NI,100)AMNUP
|
|
READ(NI,100)AMEP
|
|
c MMM changed 21/8/13
|
|
READ(NI,*)
|
|
READ(NI,*)
|
|
READ(NI,*)
|
|
READ(NI,*)
|
|
READ(NI,101)IPARAM2HDM
|
|
READ(NI,101)ITYPE2HDM
|
|
READ(NI,*)
|
|
READ(NI,100)TGBET2HDM
|
|
READ(NI,100)AM12SQ
|
|
READ(NI,*)
|
|
READ(NI,100)ALPH2HDM
|
|
READ(NI,100)AMHL2HDM
|
|
READ(NI,100)AMHH2HDM
|
|
READ(NI,100)AMHA2HDM
|
|
READ(NI,100)AMHC2HDM
|
|
READ(NI,*)
|
|
READ(NI,100)A1LAM2HDM
|
|
READ(NI,100)A2LAM2HDM
|
|
READ(NI,100)A3LAM2HDM
|
|
READ(NI,100)A4LAM2HDM
|
|
READ(NI,100)A5LAM2HDM
|
|
c end MMM changed 2178/13
|
|
READ(NI,*)
|
|
READ(NI,101)IGUT
|
|
READ(NI,100)SUSYSCALE
|
|
READ(NI,100)AMU
|
|
READ(NI,100)AM10
|
|
READ(NI,100)AM2
|
|
READ(NI,100)AMGLUINO
|
|
READ(NI,100)AMEL1
|
|
READ(NI,100)AMER1
|
|
READ(NI,100)AMQL1
|
|
READ(NI,100)AMUR1
|
|
READ(NI,100)AMDR1
|
|
READ(NI,100)AMEL
|
|
READ(NI,100)AMER
|
|
READ(NI,100)AMSQ
|
|
READ(NI,100)AMUR
|
|
READ(NI,100)AMDR
|
|
READ(NI,100)AL
|
|
READ(NI,100)AU
|
|
READ(NI,100)AD
|
|
c READ(NI,101)NNLO
|
|
NNLO = 1
|
|
READ(NI,101)IONSH
|
|
READ(NI,101)IONWZ
|
|
READ(NI,101)IPOLE
|
|
READ(NI,101)IOFSUSY
|
|
READ(NI,101)INDIDEC
|
|
READ(NI,101)NFGG
|
|
READ(NI,101)IGOLD
|
|
READ(NI,100)AXMPL
|
|
READ(NI,100)AXMGD
|
|
READ(NI,*)
|
|
READ(NI,101)ICOUPELW
|
|
READ(NI,100)CPW
|
|
READ(NI,100)CPZ
|
|
READ(NI,100)CPTAU
|
|
READ(NI,100)CPMU
|
|
READ(NI,100)CPT
|
|
READ(NI,100)CPB
|
|
READ(NI,100)CPC
|
|
READ(NI,100)CPS
|
|
READ(NI,100)CPGAGA
|
|
READ(NI,100)CPGG
|
|
READ(NI,100)CPZGA
|
|
READ(NI,*)
|
|
READ(NI,100)CPTP
|
|
READ(NI,100)CPBP
|
|
READ(NI,100)CPNUP
|
|
READ(NI,100)CPEP
|
|
|
|
IF(IELW.NE.0) THEN
|
|
IF(IHIGGS.NE.0.OR.ISM4.NE.0.OR.IFERMPHOB.NE.0.OR.I2HDM.NE.0) THEN
|
|
print*,'omitting elw. corrections only for SM or SM with rescale
|
|
.d couplings. Putting OMIT ELW = 0...'
|
|
IELW = 0
|
|
INPUT_SC = 0
|
|
SCALMQ = 1.D0
|
|
ENDIF
|
|
ENDIF
|
|
IOELW = 1
|
|
IF(IELW.NE.0) IOELW = 0
|
|
IF(IELW.NE.0) print*,'No electroweak corrections...'
|
|
|
|
scals = amz
|
|
IF(INPUT_SC.NE.0)THEN
|
|
print*,'using quark MSbar masses at scale kappa*M_H and the SM...'
|
|
imarcelvos = 1
|
|
ihiggs = 0
|
|
ams = amsx
|
|
amc = amcx
|
|
amb = ambx
|
|
scmq = scalmq*amabeg
|
|
scals = scalmq*amabeg
|
|
ENDIF
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
if(ifeynhiggs.ne.0)then
|
|
if(islhai.eq.0)then
|
|
c xt0 = 2.8d3
|
|
xt0 = au
|
|
dum = xt0 + amu/tgbet
|
|
write(6,*)'interpreting AU as X_t and setting A_t=A_b=A_tau...'
|
|
write(6,*)'X_t = ',xt0
|
|
au = dum
|
|
ad = dum
|
|
al = dum
|
|
write(6,*)'A_t, A_b, A_tau = ',au,ad,al
|
|
endif
|
|
endif
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
c MMM changed 21/8/13
|
|
if(ihiggs.eq.0.and.i2hdm.eq.1) then
|
|
print*,'You have chosen ihiggs=0 and i2hdm=1. For i2hdm=1 the d
|
|
.efault value ihiggs=5 is set. If you want to calculate the SM bran
|
|
.ching ratios, you have to set ihiggs=0 and i2hdm=0.'
|
|
endif
|
|
|
|
if(i2hdm.ge.2) then
|
|
print*,'You have to set i2hdm = 0 (no 2HDM) or 1 (2HDM). The de
|
|
.fault value i2hdm=0 is set otherwise.'
|
|
i2hdm=0
|
|
endif
|
|
|
|
if(i2hdm.eq.1) then
|
|
iofsusy = 1
|
|
ihiggs = 5
|
|
tgbet = tgbet2hdm
|
|
islhai = 0
|
|
islhao = 0
|
|
ipole = 0
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
|
|
c--hMSSM?
|
|
if(imodel.eq.10) then
|
|
iofsusy = 1
|
|
endif
|
|
|
|
IF(ICOUPVAR.EQ.0)THEN
|
|
CPW = 1
|
|
CPZ = 1
|
|
CPTAU = 1
|
|
CPMU = 1
|
|
CPT = 1
|
|
CPB = 1
|
|
CPC = 1
|
|
CPS = 1
|
|
CPGAGA = 0
|
|
CPGG = 0
|
|
CPZGA = 0
|
|
CPTP = 1
|
|
CPBP = 1
|
|
CPNUP = 1
|
|
CPEP = 1
|
|
ENDIF
|
|
IF(ISM4.EQ.0)THEN
|
|
CPTP = 0
|
|
CPBP = 0
|
|
CPNUP = 0
|
|
CPEP = 0
|
|
ENDIF
|
|
|
|
scaleofewsb = SUSYSCALE
|
|
do i=1,20
|
|
qvalue(i) = SUSYSCALE
|
|
enddo
|
|
qvalue(2) = 0
|
|
|
|
cw2calc = amw**2/amz**2
|
|
sw2calc = 1-cw2calc
|
|
cwcalc = dsqrt(cw2calc)
|
|
swcalc = dsqrt(sw2calc)
|
|
vewsb = 1.D0/dsqrt(dsqrt(2.D0)*gf)
|
|
g2ew = 2*amw/vewsb
|
|
g1ew = g2ew*swcalc/cwcalc
|
|
|
|
c if(i2hdm.eq.1) then
|
|
c itest = 1
|
|
c CALL SUSYCP_HDEC(TGBET)
|
|
c itest = 0
|
|
c endif
|
|
|
|
c -- initialization of the check array --
|
|
do i1=1,22,1
|
|
check(i1) = 0
|
|
end do
|
|
|
|
if(islhai.eq.1) then
|
|
open(ninlha,file='slha.in')
|
|
call SLHA_read_leshouches_HDEC(ninlha)
|
|
|
|
c -- G_F --
|
|
if(smval(2).ne.0.D0) then
|
|
GF = smval(2)
|
|
endif
|
|
c -- the strong coupling constant alphas_MSbar at the scale MZ --
|
|
if(smval(3).ne.0.D0) then
|
|
alsmz = smval(3)
|
|
endif
|
|
alphasmzms = alsmz
|
|
c -- Z pole mass --
|
|
if(smval(4).ne.0.D0) then
|
|
AMZ = smval(4)
|
|
endif
|
|
c -- W pole mass --
|
|
if(massval(1).ne.0.D0) then
|
|
AMW = massval(1)
|
|
endif
|
|
c -- the MSbar couplings g1,g2 at the scale Q --
|
|
if(gaugeval(1).ne.0.D0) then
|
|
g1ew = gaugeval(1)
|
|
endif
|
|
if(gaugeval(2).ne.0.D0) then
|
|
g2ew = gaugeval(2)*(1-gaugeval(2)**2/96/pi**2*2)
|
|
endif
|
|
cw2calc = amw**2/amz**2
|
|
sw2calc = 1-cw2calc
|
|
cwcalc = dsqrt(cw2calc)
|
|
swcalc = dsqrt(sw2calc)
|
|
c -- in case the gauge couplings are not given at the scale Q --
|
|
if(gaugeval(1).eq.0.D0.or.gaugeval(2).eq.0.D0) then
|
|
c -- v at the scale Q --
|
|
if(smval(2).eq.0.D0.and.hmixval(3).ne.unlikely) then
|
|
vewsb = hmixval(3)
|
|
gf = 1/dsqrt(2.D0)/vewsb**2
|
|
else
|
|
vewsb = 1.D0/dsqrt(dsqrt(2.D0)*gf)
|
|
endif
|
|
g2ew = 2*amw/vewsb
|
|
g1ew = g2ew*swcalc/cwcalc
|
|
endif
|
|
c -- the scale Q at which the couplings are given --
|
|
if(extval(0).ne.unlikely.and.extval(0).ne.-1.D0) then
|
|
scaleofewsb = extval(0)
|
|
ewsbscale = scaleofewsb
|
|
else
|
|
qvalsum = 0.D0
|
|
isum = 0
|
|
do i=1,20,1
|
|
qvalsum = qvalsum + qvalue(i)
|
|
if(qvalue(i).ne.0.D0) then
|
|
isum = isum + 1
|
|
endif
|
|
end do
|
|
|
|
if(isum.ne.0) then
|
|
scaleofewsb = qvalsum/dble(isum)
|
|
else
|
|
warning(1) = 1.D0
|
|
endif
|
|
ewsbscale = scaleofewsb
|
|
endif
|
|
SUSYSCALE = scaleofewsb
|
|
|
|
c -- CKM mixing matrix --
|
|
|
|
if(vckmval(1).ne.unlikely) then
|
|
vus = vckmval(1)
|
|
vcb = vckmval(1)**2*vckmval(2)
|
|
vub = vckmval(1)**3*vckmval(2)*dsqrt(vckmval(3)**2+vckmval(4)**2)
|
|
rvub= vub/vcb
|
|
endif
|
|
|
|
c -- neutralino and chargino masses --
|
|
|
|
slhaneut(1) =dabs(massval(28))
|
|
slhaneut(2) =dabs(massval(29))
|
|
slhaneut(3) =dabs(massval(30))
|
|
slhaneut(4) =dabs(massval(31))
|
|
slhaxneut(1)=massval(28)
|
|
slhaxneut(2)=massval(29)
|
|
slhaxneut(3)=massval(30)
|
|
slhaxneut(4)=massval(31)
|
|
slhachar(1) =dabs(massval(32))
|
|
slhachar(2) =dabs(massval(33))
|
|
slhaxchar(1) =massval(32)
|
|
slhaxchar(2) =massval(33)
|
|
|
|
c -- the chargino and neutralino mixing matrix elements --
|
|
do i=1,2,1
|
|
do j=1,2,1
|
|
slhau(i,j)=umixval(i,j)
|
|
slhav(i,j)=vmixval(i,j)
|
|
end do
|
|
end do
|
|
do i=1,4,1
|
|
do j=1,4,1
|
|
slhaz(i,j)=nmixval(i,j)
|
|
end do
|
|
end do
|
|
|
|
c -- sfermion masses --
|
|
|
|
slhast(1) = massval(16)
|
|
slhast(2) = massval(17)
|
|
slhasb(1) = massval(14)
|
|
slhasb(2) = massval(15)
|
|
|
|
slhasu(1) = massval(8)
|
|
slhasu(2) = massval(9)
|
|
slhasd(1) = massval(10)
|
|
slhasd(2) = massval(11)
|
|
|
|
slhase(1) = massval(18)
|
|
slhase(2) = massval(19)
|
|
slhasl(1) = massval(24)
|
|
slhasl(2) = massval(25)
|
|
|
|
slhasnl(1) = massval(20)
|
|
slhasnl(2) = 1.D15
|
|
slhasn(1) = massval(26)
|
|
slhasn(2) = 1.D15
|
|
|
|
c -- the sfermion mixing angles --
|
|
|
|
slhacot=stopmixval(1,1)
|
|
slhasit=stopmixval(1,2)
|
|
|
|
slhacob=sbotmixval(1,1)
|
|
slhasib=sbotmixval(1,2)
|
|
|
|
slhacol=staumixval(1,1)
|
|
slhasil=staumixval(1,2)
|
|
|
|
c -- the gluino mass --
|
|
|
|
AMGLUINO = massval(27)
|
|
|
|
c -- the Higgs masses --
|
|
|
|
slhaml = massval(2)
|
|
slhamh = massval(3)
|
|
slhamc = massval(5)
|
|
|
|
if(massval(4).ne.0.D0) then
|
|
slhama = massval(4)
|
|
elseif(extval(26).ne.unlikely) then
|
|
slhama = extval(26)
|
|
elseif(extval(24).ne.unlikely) then
|
|
slhama = dsqrt(extval(24))
|
|
endif
|
|
|
|
amabeg = slhama
|
|
amaend = slhama
|
|
nma = 1
|
|
|
|
c -- the MSSM mixing angle alpha in the Higgs sector --
|
|
c -- Attention: It might be that alphaval is not the DRbar value at
|
|
c -- the scale Q.
|
|
slha_alpha = alphaval
|
|
|
|
c -- the fermion pole masses --
|
|
|
|
if(smval(6).ne.0.D0) then
|
|
AMT = smval(6)
|
|
endif
|
|
if(smval(7).ne.0.D0) then
|
|
AMTAU = smval(7)
|
|
endif
|
|
|
|
c -- the mass mb(mb)_MSbar --
|
|
if(smval(5).ne.0.D0) then
|
|
mbmsbar = smval(5)
|
|
else
|
|
mbmsbar = amb
|
|
endif
|
|
|
|
fmt = amt
|
|
fmtau = amtau
|
|
fms = ams
|
|
fmc = amc
|
|
c -- calculation of the mb pole mass from mb(mb)_MSbar --
|
|
c if(smval(5).ne.0.D0) then
|
|
c del = 1.d-10
|
|
c mbl = mbmsbar
|
|
c mbu = 2*mbmsbar
|
|
c fmb = (mbl+mbu)/2
|
|
c amsb = ams
|
|
c amc0=amc
|
|
c amt0=amt
|
|
c acc=1.d-10
|
|
c nloop=3
|
|
c11 amb=fmb
|
|
c amb0=amb
|
|
c xlambda=xitla_hdec(nloop,alsmz,acc,0,amz)
|
|
c n0=5
|
|
c call alsini_hdec(acc)
|
|
c xmb = runm_hdec(mbmsbar,5,1)
|
|
c if(xmb.eq.mbmsbar)then
|
|
c mbl = fmb
|
|
c mbu = fmb
|
|
c elseif(xmb.gt.mbmsbar)then
|
|
c mbu = fmb
|
|
c else
|
|
c mbl = fmb
|
|
c endif
|
|
c fmb = (mbl+mbu)/2
|
|
c if(dabs(xmb/mbmsbar-1).gt.del) goto 11
|
|
c endif
|
|
fmb = mbmsbar
|
|
amb = fmb
|
|
ambb = mbmsbar
|
|
|
|
c -- DRbar value of tanbeta at the scale Q --
|
|
|
|
if(hmixval(2).ne.unlikely) then
|
|
TGBET = hmixval(2)
|
|
endif
|
|
|
|
c -- If no DRbar value at the scale Q has been given for tanbeta --
|
|
|
|
if(hmixval(2).eq.unlikely) then
|
|
if(extval(25).ne.0.D0.and.extval(25).ne.unlikely) then
|
|
TGBET = extval(25)
|
|
elseif(minval(3).ne.0.D0.and.minval(3).ne.unlikely) then
|
|
TGBET = minval(3)
|
|
endif
|
|
endif
|
|
|
|
c -- The soft SUSY breaking parameters: DRbar values at the scale Q --
|
|
|
|
do i=1,100,1
|
|
m_softval(i) = unlikely
|
|
end do
|
|
|
|
do i=1,99,1
|
|
if(msoftval(i).ne.unlikely) then
|
|
m_softval(i) = msoftval(i)
|
|
m_softcom(i) = softcom(i)
|
|
elseif(extval(i).ne.unlikely) then
|
|
m_softval(i) = extval(i)
|
|
m_softcom(i) = extcom(i)
|
|
endif
|
|
end do
|
|
|
|
if(auval(3,3).ne.unlikely) then
|
|
AU=auval(3,3)
|
|
endif
|
|
if(adval(3,3).ne.unlikely) then
|
|
AD=adval(3,3)
|
|
endif
|
|
if(aeval(3,3).ne.unlikely) then
|
|
AL=aeval(3,3)
|
|
endif
|
|
|
|
c The mixing parameter mu in the MS_bar scheme
|
|
if(hmixval(1).ne.unlikely) then
|
|
amudrbar = hmixval(1)
|
|
else
|
|
amudrbar = extval(23)
|
|
endif
|
|
if(amudrbar.ne.unlikely)then
|
|
AMU = amudrbar*(1.D0+g1ew**2/16.D0/pi**2*3.D0/5.D0+
|
|
. g2ew**2/16.D0/pi**2*3.D0/4.D0)
|
|
endif
|
|
|
|
|
|
c The soft SUSY breaking parameters M1, M2 in the MS_bar scheme
|
|
am1msbar = m_softval(1)*(1.D0+g1ew**2/16.D0/pi**2*0.D0)
|
|
am2msbar = m_softval(2)*(1.D0+g2ew**2/16.D0/pi**2*2.D0)
|
|
|
|
if(am1msbar.ne.0.d0)am1 = am1msbar
|
|
if(am2msbar.ne.0.d0)AM2 = am2msbar
|
|
|
|
if(m_softval(31).ne.unlikely.and.m_softval(32).ne.unlikely) then
|
|
if(m_softval(31).ne.0.D0.and.m_softval(32).ne.0.D0) then
|
|
AMEL1 = (m_softval(31)+m_softval(32))/2.D0
|
|
elseif(m_softval(31).ne.0.D0) then
|
|
AMEL1 = m_softval(31)
|
|
elseif(m_softval(32).ne.0.D0) then
|
|
AMEL1 = m_softval(32)
|
|
else
|
|
AMEL1 = 0.D0
|
|
endif
|
|
elseif(m_softval(31).ne.unlikely) then
|
|
AMEL1 = m_softval(31)
|
|
elseif(m_softval(32).ne.unlikely) then
|
|
AMEL1 = m_softval(32)
|
|
endif
|
|
|
|
if(m_softval(34).ne.unlikely.and.m_softval(35).ne.unlikely) then
|
|
if(m_softval(34).ne.0.D0.and.m_softval(35).ne.0.D0) then
|
|
AMER1 = (m_softval(34)+m_softval(35))/2.D0
|
|
elseif(m_softval(34).ne.0.D0) then
|
|
AMER1 = m_softval(34)
|
|
elseif(m_softval(35).ne.0.D0) then
|
|
AMER1 = m_softval(35)
|
|
else
|
|
AMER1 = 0.D0
|
|
endif
|
|
elseif(m_softval(34).ne.unlikely) then
|
|
AMER1 = m_softval(34)
|
|
elseif(m_softval(35).ne.unlikely) then
|
|
AMER1 = m_softval(35)
|
|
endif
|
|
|
|
if(m_softval(41).ne.unlikely.and.m_softval(42).ne.unlikely) then
|
|
if(m_softval(41).ne.0.D0.and.m_softval(42).ne.0.D0) then
|
|
AMQL1 = (m_softval(41)+m_softval(42))/2.D0
|
|
elseif(m_softval(41).ne.0.D0) then
|
|
AMQL1 = m_softval(41)
|
|
elseif(m_softval(42).ne.0.D0) then
|
|
AMQL1 = m_softval(42)
|
|
else
|
|
AMQL1 = 0.D0
|
|
endif
|
|
elseif(m_softval(41).ne.unlikely) then
|
|
AMQL1 = m_softval(41)
|
|
elseif(m_softval(42).ne.unlikely) then
|
|
AMQL1 = m_softval(42)
|
|
endif
|
|
|
|
if(m_softval(44).ne.unlikely.and.m_softval(45).ne.unlikely) then
|
|
if(m_softval(44).ne.0.D0.and.m_softval(45).ne.0.D0) then
|
|
AMUR1 = (m_softval(44)+m_softval(45))/2.D0
|
|
elseif(m_softval(44).ne.0.D0) then
|
|
AMUR1 = m_softval(44)
|
|
elseif(m_softval(45).ne.0.D0) then
|
|
AMUR1 = m_softval(45)
|
|
else
|
|
AMUR1 = 0.D0
|
|
endif
|
|
elseif(m_softval(44).ne.unlikely) then
|
|
AMUR1 = m_softval(44)
|
|
elseif(m_softval(45).ne.unlikely) then
|
|
AMUR1 = m_softval(45)
|
|
endif
|
|
|
|
if(m_softval(47).ne.unlikely.and.m_softval(48).ne.unlikely) then
|
|
if(m_softval(47).ne.0.D0.and.m_softval(48).ne.0.D0) then
|
|
AMDR1 = (m_softval(47)+m_softval(48))/2.D0
|
|
elseif(m_softval(47).ne.0.D0) then
|
|
AMDR1 = m_softval(47)
|
|
elseif(m_softval(48).ne.0.D0) then
|
|
AMDR1 = m_softval(48)
|
|
else
|
|
AMDR1 = 0.D0
|
|
endif
|
|
elseif(m_softval(47).ne.unlikely) then
|
|
AMDR1 = m_softval(47)
|
|
elseif(m_softval(48).ne.unlikely) then
|
|
AMDR1 = m_softval(48)
|
|
endif
|
|
|
|
if(m_softval(33).ne.unlikely) then
|
|
AMEL = m_softval(33)
|
|
endif
|
|
if(m_softval(36).ne.unlikely) then
|
|
AMER = m_softval(36)
|
|
endif
|
|
if(m_softval(43).ne.unlikely) then
|
|
AMSQ = m_softval(43)
|
|
endif
|
|
if(m_softval(46).ne.unlikely) then
|
|
AMUR = m_softval(46)
|
|
endif
|
|
if(m_softval(49).ne.unlikely) then
|
|
AMDR = m_softval(49)
|
|
endif
|
|
|
|
if(scaleofewsb.eq.0.D0)then
|
|
scaleofewsb = (4*AMQL1+2*AMUR1+2*AMDR1+2*AMSQ+AMUR+AMDR)/12
|
|
ewsbscale = scaleofewsb
|
|
SUSYSCALE = scaleofewsb
|
|
endif
|
|
|
|
endif
|
|
|
|
if(islhai.ne.0)then
|
|
input_sc = 0
|
|
endif
|
|
|
|
c write(6,*)'susyscale = ',SUSYSCALE
|
|
|
|
IF(IMODEL.EQ.3)THEN
|
|
WRITE(6,*)'MU (UP TO THE SIGN) WILL BE IDENTIFIED WITH M_SQ...'
|
|
ENDIF
|
|
|
|
B = DATAN(TGBET)
|
|
AMGLU = AMGLUINO
|
|
|
|
C VUB=RVUB*VCB
|
|
ALPH=1.D0/ALPH
|
|
AMSB = AMS
|
|
AMCB = AMC
|
|
AMBB = AMB
|
|
|
|
AMC0=AMC
|
|
AMB0=AMB
|
|
AMT0=AMT
|
|
ACC=1.D-10
|
|
NLOOP=3
|
|
c NLOOP=2
|
|
if(input_sc.eq.0)then
|
|
XLAMBDA=XITLA_HDEC(NLOOP,ALSMZ,ACC,0,AMZ)
|
|
else
|
|
XLAMBDA=XITLA_HDEC(NLOOP,ALSX,ACC,1,SCALS)
|
|
c write(6,*)'alpha_s: ',alsx,scals
|
|
endif
|
|
N0=5
|
|
CALL ALSINI_HDEC(ACC)
|
|
C--DECOUPLING THE TOP QUARK FROM ALPHAS
|
|
AMT0=3.D8
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'Lambda = ',XLAMBDA
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
C--B AND C POLE MASSES
|
|
c XXB = AMBB
|
|
c XXC = AMCB
|
|
c ALP = ALPHAS_HDEC(AMBB,3)/PI
|
|
c write(6,*)'Mb = ',ambb,'+',ambb*4*ALP/3,'+',
|
|
c . ambb*ALP**2*(13.4434D0-1.0414D0*(4-(AMSB+AMC)/AMB)),'+',
|
|
c . ambb*ALP**3*(190.595D0-26.655D0*4+0.6527D0*4**2),'=',
|
|
c .ambb+ambb*4*ALP/3+
|
|
c . ambb*ALP**2*(13.4434D0-1.0414D0*(4-(AMSB+AMC)/AMB))+
|
|
c . ambb*ALP**3*(190.595D0-26.655D0*4+0.6527D0*4**2)
|
|
c DO I=1,10
|
|
c ALP = ALPHAS_HDEC(XXB,3)/PI
|
|
c XXB = AMBB * (1+4*ALP/3
|
|
c . +ALP**2*(13.4434D0-1.0414D0*(4-(AMSB+XXC)/XXB))
|
|
c . +ALP**3*(190.595D0-26.655D0*4+0.6527D0*4**2))
|
|
c XXC = XXB - 3.41D0
|
|
c AMB = XXB
|
|
c AMC = XXC
|
|
c CALL ALSINI_HDEC(ACC)
|
|
c ENDDO
|
|
c write(6,*)'Mb = ',ambb,'+',ambb*4*ALP/3,'+',
|
|
c . ambb*ALP**2*(13.4434D0-1.0414D0*(4-(AMSB+AMC)/AMB)),'+',
|
|
c . ambb*ALP**3*(190.595D0-26.655D0*4+0.6527D0*4**2),'=',
|
|
c .ambb+ambb*4*ALP/3+
|
|
c . ambb*ALP**2*(13.4434D0-1.0414D0*(4-(AMSB+AMC)/AMB))+
|
|
c . ambb*ALP**3*(190.595D0-26.655D0*4+0.6527D0*4**2)
|
|
c FAC = AMBB/RUNM_HDEC(AMBB,5,1)
|
|
c FF = 0.8D0
|
|
c FF = 1.D0
|
|
c AMB = AMB * FAC**FF
|
|
c AMC = AMB - 3.41D0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'Mb = ',amsb,amc,amb
|
|
if(imarcelvos.eq.0)then
|
|
c--standard input
|
|
del = 1.d-10
|
|
acc=1.d-10
|
|
ambl = ambb
|
|
ambu = 2*ambb
|
|
fmb = (ambl+ambu)/2
|
|
nloop=3
|
|
12 amb=fmb
|
|
amc = amb - 3.41d0
|
|
amb0=amb
|
|
amc0=amc
|
|
n0=5
|
|
call alsini_hdec(acc)
|
|
xmb = runm_hdec(ambb,5,1)
|
|
if(xmb.eq.ambb)then
|
|
ambl = fmb
|
|
ambu = fmb
|
|
elseif(xmb.gt.ambb)then
|
|
ambu = fmb
|
|
else
|
|
ambl = fmb
|
|
endif
|
|
fmb = (ambl+ambu)/2
|
|
if(dabs(xmb/ambb-1).gt.del) goto 12
|
|
amb = fmb
|
|
amc = amb - 3.41d0
|
|
amb0=amb
|
|
amc0=amc
|
|
n0=5
|
|
call alsini_hdec(acc)
|
|
c write(6,*)'Mb0 = ',ambb,amb,amc
|
|
c write(6,*)'Mb1 = ',ambb,amb0,amc0
|
|
c write(6,*)'Mb2 = ',runm_hdec(ambb,5,1),runm_hdec(2.d0,3,0),
|
|
c . runm_hdec(3.d0,4,0)
|
|
amh = amabeg
|
|
c write(6,*)'Mb = ',runm_hdec(ambb,5,1),runm_hdec(2.d0,3,0),
|
|
c . runm_hdec(3.d0,4,0)
|
|
c write(6,*)'Mb- = ',runm_hdec(amh/2,5,1),runm_hdec(amh/2,3,0),
|
|
c . runm_hdec(amh/2,4,0)
|
|
c write(6,*)'Mb0 = ',runm_hdec(amh,5,1),runm_hdec(amh,3,0),
|
|
c . runm_hdec(amh,4,0)
|
|
c write(6,*)'Mb+ = ',runm_hdec(amh*2,5,1),runm_hdec(amh*2,3,0),
|
|
c . runm_hdec(amh*2,4,0)
|
|
else
|
|
c--MSbar quark masses at scale M_H as input
|
|
amh = amabeg
|
|
delb = 1.d-15
|
|
delc = 1.d-15
|
|
dels = 1.d-15
|
|
acc=1.d-10
|
|
nloop=3
|
|
ambb0 = ambb
|
|
amcb0 = amcb
|
|
amsb0 = amsb
|
|
do i=1,5
|
|
c--m_b
|
|
ambl = ambb0
|
|
ambu = 10*ambb0
|
|
fmb = (ambl+ambu)/2
|
|
amb=fmb
|
|
amc = amb - 3.41d0
|
|
amb0=amb
|
|
amc0=amc
|
|
n0=5
|
|
call alsini_hdec(acc)
|
|
xmb0 = 10*ambb0
|
|
120 amb=fmb
|
|
amc = amb - 3.41d0
|
|
amb0=amb
|
|
amc0=amc
|
|
dum = dabs(xmb0/ambb0-1)
|
|
n0=5
|
|
call alsini_hdec(acc)
|
|
xmb = runm_hdec(scalmq*amh,5,1)
|
|
xmb0 = xmb
|
|
if(xmb.eq.ambb0)then
|
|
ambl = fmb
|
|
ambu = fmb
|
|
elseif(xmb.gt.ambb0)then
|
|
ambu = fmb
|
|
else
|
|
ambl = fmb
|
|
endif
|
|
fmb = (ambl+ambu)/2
|
|
dummy = dabs(xmb/ambb0-1)
|
|
if(dummy.gt.delb.and.dummy.ne.dum) goto 120
|
|
c if(dummy.gt.delb) goto 120
|
|
amb = fmb
|
|
amc = amb - 3.41d0
|
|
c write(6,*)'m_b = ',fmb
|
|
c--m_b(m_b)
|
|
ambl = ambb0
|
|
ambu = 10*ambb0
|
|
fmb = (ambl+ambu)/2
|
|
amb0=amb
|
|
amc0=amc
|
|
n0=5
|
|
call alsini_hdec(acc)
|
|
xmb0 = 10*ambb0
|
|
1201 amb0=amb
|
|
amc0=amc
|
|
dum = dabs(xmb0/ambb0-1)
|
|
n0=5
|
|
call alsini_hdec(acc)
|
|
xmb = runm_hdec(fmb,5,1)
|
|
xmb0 = xmb
|
|
if(xmb.eq.fmb)then
|
|
ambl = fmb
|
|
ambu = fmb
|
|
elseif(xmb.gt.fmb)then
|
|
ambl = fmb
|
|
else
|
|
ambu = fmb
|
|
endif
|
|
fmb = (ambl+ambu)/2
|
|
dummy = dabs(xmb/fmb-1)
|
|
c write(6,*)i,dummy
|
|
if(dummy.gt.delb.and.dummy.ne.dum) goto 1201
|
|
c if(dummy.gt.delb) goto 1201
|
|
ambb = fmb
|
|
c write(6,*)'m_b(m_b) = ',fmb
|
|
c--m_c
|
|
amcl = amcb
|
|
amcu = 10*amcb
|
|
fmc = (amcl+amcu)/2
|
|
amb0=amb
|
|
amc0=amc
|
|
n0=5
|
|
call alsini_hdec(acc)
|
|
xmc0 = 10*amcb0
|
|
121 amcb=fmc
|
|
amb0=amb
|
|
amc0=amc
|
|
dum = dabs(xmc0/amcb0-1)
|
|
n0=5
|
|
call alsini_hdec(acc)
|
|
xmc = runm_hdec(scalmq*amh,4,0)
|
|
xmc0 = xmc
|
|
if(xmc.eq.amcb0)then
|
|
amcl = fmc
|
|
amcu = fmc
|
|
elseif(xmc.gt.amcb0)then
|
|
amcu = fmc
|
|
else
|
|
amcl = fmc
|
|
endif
|
|
fmc = (amcl+amcu)/2
|
|
dummy = dabs(xmc/amcb0-1)
|
|
c write(6,*)i,dummy
|
|
if(dummy.gt.delc.and.dummy.ne.dum) goto 121
|
|
c if(dummy.gt.delc) goto 121
|
|
amcb = fmc
|
|
c write(6,*)'m_c(3) = ',fmc
|
|
c--m_s
|
|
amsl = amsb
|
|
amsu = 10*amsb
|
|
fms = (amsl+amsu)/2
|
|
amb0=amb
|
|
amc0=amc
|
|
n0=5
|
|
call alsini_hdec(acc)
|
|
xms0 = 10*amsb0
|
|
122 amsb=fms
|
|
ams=fms
|
|
amb0=amb
|
|
amc0=amc
|
|
dum = dabs(xms0/amsb0-1)
|
|
n0=5
|
|
call alsini_hdec(acc)
|
|
xms = runm_hdec(scalmq*amh,3,0)
|
|
xms0 = xms
|
|
if(xms.eq.amsb0)then
|
|
amsl = fms
|
|
amsu = fms
|
|
elseif(xms.gt.amsb0)then
|
|
amsu = fms
|
|
else
|
|
amsl = fms
|
|
endif
|
|
fms = (amsl+amsu)/2
|
|
dummy = dabs(xms/amsb0-1)
|
|
if(dummy.gt.dels.and.dummy.ne.dum) goto 122
|
|
c if(dummy.gt.dels) goto 122
|
|
amsb = fms
|
|
ams = fms
|
|
c write(6,*)'m_s(2) = ',fms
|
|
enddo
|
|
amc = amb - 3.41d0
|
|
amb0=amb
|
|
amc0=amc
|
|
n0=5
|
|
call alsini_hdec(acc)
|
|
c write(6,*)'Mb = ',ambb,amb,amc,amt
|
|
c write(6,*)'Mb = ',ambb,amb0,amc0,amt0
|
|
c write(6,*)'Mb = ',runm_hdec(ambb,5,1),runm_hdec(2.d0,3,0),
|
|
c . runm_hdec(3.d0,4,0)
|
|
c write(6,*)'Mb- = ',runm_hdec(amh/2,5,1),runm_hdec(amh/2,3,0),
|
|
c . runm_hdec(amh/2,4,0)
|
|
c write(6,*)'Mb0 = ',runm_hdec(amh,5,1),runm_hdec(amh,3,0),
|
|
c . runm_hdec(amh,4,0)
|
|
c write(6,*)'Mb+ = ',runm_hdec(amh*2,5,1),runm_hdec(amh*2,3,0),
|
|
c . runm_hdec(amh*2,4,0)
|
|
endif
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'alpha_s: ',DSQRT(4*PI*ALPHAS_HDEC(1.5D3,3))
|
|
c . ,DSQRT(4*PI*ALPHAS_HDEC(1.5D3,2))
|
|
c . ,DSQRT(4*PI*ALPHAS_HDEC(1.5D3,1))
|
|
c write(6,*)'yt: ',RUNM_HDEC(1.5D3,6,1)*DSQRT(2*DSQRT(2)*GF)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c QQ = 360.D0
|
|
c X3 = ALPHAS_HDEC(AMZ,3)
|
|
c Y3 = ALPHAS_HDEC(QQ,3)
|
|
c write(6,*)'alpha_s: ',QQ,Y3,X3
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c QQ = 1000.D0
|
|
c X3 = ALPHAS_HDEC(AMZ,3)
|
|
c Y3 = ALPHAS_HDEC(QQ,3)
|
|
c NLOOP=1
|
|
c XLAMBDA=XITLA_HDEC(NLOOP,ALSMZ,ACC,0,AMZ)
|
|
c CALL ALSINI_HDEC(ACC)
|
|
c X1 = ALPHAS_HDEC(AMZ,1)
|
|
c Y1 = ALPHAS_HDEC(QQ,1)
|
|
c NLOOP=2
|
|
c XLAMBDA=XITLA_HDEC(NLOOP,ALSMZ,ACC,0,AMZ)
|
|
c CALL ALSINI_HDEC(ACC)
|
|
c X2 = ALPHAS_HDEC(AMZ,2)
|
|
c Y2 = ALPHAS_HDEC(QQ,2)
|
|
c write(6,*)' LO: ',X1,Y1,Y1/Y3,Y3/Y1
|
|
c write(6,*)' NLO: ',X2,Y2,Y2/Y3,Y3/Y2
|
|
c write(6,*)'NNLO: ',AMZ,QQ,XLAMBDA,X3,Y3
|
|
c NLOOP=3
|
|
c XLAMBDA=XITLA_HDEC(NLOOP,ALSMZ,ACC,0,AMZ)
|
|
c CALL ALSINI_HDEC(ACC)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
C--INITIALIZE COEFFICIENTS FOR POLYLOGARITHMS
|
|
NBER = 18
|
|
CALL BERNINI_HDEC(NBER)
|
|
|
|
C--CHECK NFGG
|
|
IF(NFGG.GT.5.OR.NFGG.LT.3)THEN
|
|
WRITE(6,*)'NF-GG NOT VALID. TAKING THE DEFAULT NF-GG = 3....'
|
|
NFGG = 3
|
|
ENDIF
|
|
|
|
C--CHECK 4TH GENERATION
|
|
IF(ISM4.NE.0.AND.IHIGGS.NE.0)THEN
|
|
WRITE(6,*)'4TH GENERATION. TAKING DEFAULT HIGGS = 0....'
|
|
IHIGGS = 0
|
|
ENDIF
|
|
IF(ISM4.NE.0.AND.IFERMPHOB.NE.0)THEN
|
|
WRITE(6,*)'4TH GENERATION. TAKING DEFAULT FERMPHOB = 0....'
|
|
IFERMPHOB = 0
|
|
ENDIF
|
|
XXCP = 0
|
|
IF(CPW.NE.1.D0.OR.CPZ.NE.1.D0.OR.CPTAU.NE.1.D0.OR.CPMU.NE.1.D0
|
|
. .OR.CPT.NE.1.D0.OR.CPB.NE.1.D0.OR.CPC.NE.1.D0.OR.CPS.NE.1.D0)
|
|
. XXCP = 1
|
|
c IF(ISM4.NE.0)THEN
|
|
c CPW = 1
|
|
c CPZ = 1
|
|
c CPTAU = 1
|
|
c CPMU = 1
|
|
c CPT = 1
|
|
c CPB = 1
|
|
c CPC = 1
|
|
c CPS = 1
|
|
c ENDIF
|
|
c IF(ISM4.NE.0.AND.XXCP.NE.0)THEN
|
|
c WRITE(6,*)'4TH GENERATION. TAKING DEFAULT COUPINGS = 1....'
|
|
c ENDIF
|
|
|
|
C--CHECK FERMIOPHOBIC
|
|
IF(IFERMPHOB.NE.0.AND.IHIGGS.NE.0)THEN
|
|
WRITE(6,*)'FERMIOPHOBIC HIGGS. TAKING DEFAULT HIGGS = 0....'
|
|
IHIGGS = 0
|
|
ENDIF
|
|
|
|
100 FORMAT(10X,G30.20)
|
|
101 FORMAT(10X,I30)
|
|
|
|
C--WRITE THE INPUT PARAMTERS TO A DATA-FILE
|
|
|
|
WRITE(NPAR,8)'SLHAIN = ',ISLHAI
|
|
WRITE(NPAR,8)'SLHAOUT = ',ISLHAO
|
|
WRITE(NPAR,8)'COUPVAR = ',ICOUPVAR
|
|
WRITE(NPAR,8)'HIGGS = ',IHIGGS
|
|
WRITE(NPAR,8)'OMIT ELW = ',IELW
|
|
WRITE(NPAR,8)'SM4 = ',ISM4
|
|
WRITE(NPAR,8)'FERMPHOB = ',IFERMPHOB
|
|
c MMM changed 21/8/2013
|
|
WRITE(NPAR,8)'2HDM = ',I2HDM
|
|
c end MMM changed 21/8/2013
|
|
WRITE(NPAR,8)'MODEL = ',IMODEL
|
|
WRITE(NPAR,9)'TGBET = ',TGBET
|
|
WRITE(NPAR,9)'MABEG = ',AMABEG
|
|
WRITE(NPAR,9)'MAEND = ',AMAEND
|
|
WRITE(NPAR,7)'NMA = ',NMA
|
|
WRITE(NPAR,9)'ALS(MZ) = ',ALSMZ
|
|
WRITE(NPAR,9)'MSBAR(2) = ',AMS
|
|
WRITE(NPAR,9)'MCBAR(3) = ',AMCB
|
|
WRITE(NPAR,9)'MBBAR(MB)= ',AMBB
|
|
WRITE(NPAR,9)'MT = ',AMT
|
|
WRITE(NPAR,9)'MTAU = ',AMTAU
|
|
WRITE(NPAR,9)'MMUON = ',AMMUON
|
|
WRITE(NPAR,9)'ALPH = ',1.D0/ALPH
|
|
WRITE(NPAR,9)'GF = ',GF
|
|
WRITE(NPAR,9)'GAMW = ',GAMW
|
|
WRITE(NPAR,9)'GAMZ = ',GAMZ
|
|
WRITE(NPAR,9)'MZ = ',AMZ
|
|
WRITE(NPAR,9)'MW = ',AMW
|
|
WRITE(NPAR,9)'VTB = ',VTB
|
|
WRITE(NPAR,9)'VTS = ',VTS
|
|
WRITE(NPAR,9)'VTD = ',VTD
|
|
WRITE(NPAR,9)'VCB = ',VCB
|
|
WRITE(NPAR,9)'VCS = ',VCS
|
|
WRITE(NPAR,9)'VCD = ',VCD
|
|
WRITE(NPAR,9)'VUB = ',VUB
|
|
WRITE(NPAR,9)'VUS = ',VUS
|
|
WRITE(NPAR,9)'VUD = ',VUD
|
|
WRITE(NPAR,20)'********************* 4TH GENERATION **************
|
|
.************************'
|
|
WRITE(NPAR,*)' SCENARIO FOR ELW. CORRECTIONS TO H -> GG',
|
|
. ' (EVERYTHING IN GEV):'
|
|
WRITE(NPAR,*)' GG_ELW = 1: MTP = 500 MBP = 450 ',
|
|
. 'MNUP = 375 MEP = 450'
|
|
WRITE(NPAR,*)' GG_ELW = 2: MBP = MNUP = MEP = 600 ',
|
|
. 'MTP = MBP+50*(1+LOG(M_H/115)/5)'
|
|
WRITE(NPAR,*)
|
|
WRITE(NPAR,8)'GG_ELW = ',IGGELW
|
|
WRITE(NPAR,9)'MTP = ',AMTP
|
|
WRITE(NPAR,9)'MBP = ',AMBP
|
|
WRITE(NPAR,9)'MNUP = ',AMNUP
|
|
WRITE(NPAR,9)'MEP = ',AMEP
|
|
c MMM changed 21/8/2013
|
|
WRITE(NPAR,20)'************************** 2HDM *******************
|
|
.************************'
|
|
WRITE(NPAR,*)
|
|
. 'TYPE: 1 (I), 2 (II), 3 (Lepton-specific), 4 (flipped)'
|
|
WRITE(NPAR,8)'2HDM TYPE= ',ITYPE2HDM
|
|
WRITE(NPAR,9)'TANBETA = ',TGBET2HDM
|
|
WRITE(NPAR,9)'ALPHA_H = ',ALPH2HDM
|
|
WRITE(NPAR,9)'M_h = ',AMHL2HDM
|
|
WRITE(NPAR,9)'M_H = ',AMHH2HDM
|
|
WRITE(NPAR,9)'M_A = ',AMHA2HDM
|
|
WRITE(NPAR,9)'M_H+ = ',AMHC2HDM
|
|
WRITE(NPAR,9)'M_12^2 = ',AM12SQ
|
|
WRITE(NPAR,20)'***************************************************
|
|
.************************'
|
|
c end MMM changed 21/8/2013
|
|
WRITE(NPAR,9)'SUSYSCALE= ',SUSYSCALE
|
|
WRITE(NPAR,9)'MU = ',AMU
|
|
WRITE(NPAR,9)'M2 = ',AM2
|
|
WRITE(NPAR,9)'MGLUINO = ',AMGLUINO
|
|
WRITE(NPAR,9)'MSL1 = ',AMEL1
|
|
WRITE(NPAR,9)'MER1 = ',AMER1
|
|
WRITE(NPAR,9)'MQL1 = ',AMQL1
|
|
WRITE(NPAR,9)'MUR1 = ',AMUR1
|
|
WRITE(NPAR,9)'MDR1 = ',AMDR1
|
|
WRITE(NPAR,9)'MSL = ',AMEL
|
|
WRITE(NPAR,9)'MER = ',AMER
|
|
WRITE(NPAR,9)'MSQ = ',AMSQ
|
|
WRITE(NPAR,9)'MUR = ',AMUR
|
|
WRITE(NPAR,9)'MDR = ',AMDR
|
|
WRITE(NPAR,9)'AL = ',AL
|
|
WRITE(NPAR,9)'AU = ',AU
|
|
WRITE(NPAR,9)'AD = ',AD
|
|
c WRITE(NPAR,8)'NNLO (M) = ',NNLO
|
|
WRITE(NPAR,8)'ON-SHELL = ',IONSH
|
|
WRITE(NPAR,8)'ON-SH-WZ = ',IONWZ
|
|
WRITE(NPAR,8)'IPOLE = ',IPOLE
|
|
WRITE(NPAR,8)'OFF-SUSY = ',IOFSUSY
|
|
WRITE(NPAR,8)'INDIDEC = ',INDIDEC
|
|
WRITE(NPAR,8)'NF-GG = ',NFGG
|
|
WRITE(NPAR,8)'IGOLD = ',IGOLD
|
|
WRITE(NPAR,9)'MPLANCK = ',AXMPL
|
|
WRITE(NPAR,9)'MGOLD = ',AXMGD
|
|
WRITE(NPAR,20)'******************* VARIATION OF HIGGS COUPLINGS *
|
|
.************************'
|
|
WRITE(NPAR,8)'ELWK = ',ICOUPELW
|
|
WRITE(NPAR,9)'CW = ',CPW
|
|
WRITE(NPAR,9)'CZ = ',CPZ
|
|
WRITE(NPAR,9)'Ctau = ',CPTAU
|
|
WRITE(NPAR,9)'Cmu = ',CPMU
|
|
WRITE(NPAR,9)'Ct = ',CPT
|
|
WRITE(NPAR,9)'Cb = ',CPB
|
|
WRITE(NPAR,9)'Cc = ',CPC
|
|
WRITE(NPAR,9)'Cs = ',CPS
|
|
WRITE(NPAR,9)'Cgaga = ',CPGAGA
|
|
WRITE(NPAR,9)'Cgg = ',CPGG
|
|
WRITE(NPAR,9)'CZga = ',CPZGA
|
|
WRITE(NPAR,20)'********************* 4TH GENERATION **************
|
|
.************************'
|
|
WRITE(NPAR,9)'Ctp = ',CPTP
|
|
WRITE(NPAR,9)'Cbp = ',CPBP
|
|
WRITE(NPAR,9)'Cnup = ',CPNUP
|
|
WRITE(NPAR,9)'Cep = ',CPEP
|
|
|
|
C WRITE(NPAR,9)'LAMBDA_5 = ',XLAMBDA
|
|
|
|
CLOSE(NPAR)
|
|
|
|
7 FORMAT(A11,I7)
|
|
8 FORMAT(A11,I4)
|
|
9 FORMAT(A11,G15.8)
|
|
10 FORMAT(A26)
|
|
20 FORMAT(A74)
|
|
|
|
CLOSE(NI)
|
|
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE HEAD_HDEC(TGBET,AMABEG)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
PARAMETER(K=6,NI=87,NSA=85,NSB=86,NSC=57,NLA=88,NLB=89,NHA=90,
|
|
. NHB=91,NHC=92,NAA=93,NAB=94,NCA=95,NCB=96,NCC=50,NRA=97,
|
|
. NRB=98,
|
|
. NSUSYL=81,NSUSYA=82,NSUSYH=83,NSUSYC=84,NPAR=80,NTA=99,
|
|
. NSUSYLA=79,NSUSYLB=78,NSUSYLC=77,NSUSYLD=76,NSUSYLE=75,
|
|
. NSUSYLF=59,NSUSYHF=58,
|
|
. NSUSYHA=74,NSUSYHB=73,NSUSYHC=72,NSUSYHD=71,NSUSYHE=70,
|
|
. NSUSYAA=69,NSUSYAB=68,NSUSYAC=67,NSUSYAD=66,NSUSYAE=65,
|
|
. NSUSYCA=64,NSUSYCB=63,NSUSYCC=62,NSUSYCD=61,NSUSYCE=60)
|
|
PARAMETER(NAC=31,NLC=32)
|
|
DIMENSION GMN(4),XMN(4),GMC(2),GMST(2),GMSB(2),GMSL(2),
|
|
. GMSU(2),GMSD(2),GMSE(2),GMSN(2),GMSN1(2)
|
|
DIMENSION HLBRSC(2,2),HLBRSN(4,4),HHBRSC(2,2),HHBRSN(4,4),
|
|
. HABRSC(2,2),HABRSN(4,4),HCBRSU(2,4),
|
|
. HHBRST(2,2),HHBRSB(2,2),HCBRSTB(2,2)
|
|
DIMENSION AC1(2,2),AC2(2,2),AC3(2,2),
|
|
. AN1(4,4),AN2(4,4),AN3(4,4),
|
|
. ACNL(2,4),ACNR(2,4)
|
|
DIMENSION GLTT(2,2),GLBB(2,2),GHTT(2,2),GHBB(2,2),GCTB(2,2),
|
|
. GLEE(2,2),GHEE(2,2),GCEN(2,2)
|
|
DIMENSION AGDL(4),AGDA(4),AGDH(4),AGDC(2)
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/STRANGE_HDEC/AMSB
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/CKMPAR_HDEC/VTB,VTS,VTD,VCB,VCS,VCD,VUB,VUS,VUD
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AML,AMH,AMCH,AMAR
|
|
COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
|
|
COMMON/BREAKGLU_HDEC/AMGLU
|
|
COMMON/SFER1ST_HDEC/AMQL1,AMUR1,AMDR1,AMEL1,AMER1
|
|
COMMON/GLUINO_HDEC/AMGLUINO,XMSB1,XMSB2,STHB,CTHB,
|
|
. XLBB(2,2),XHBB(2,2),XABB(2,2),
|
|
. XMST1,XMST2,STHT,CTHT,
|
|
. XLTT(2,2),XHTT(2,2),XATT(2,2)
|
|
COMMON/WZWDTH_HDEC/GAMC0,GAMT0,GAMT1,GAMW,GAMZ
|
|
COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,
|
|
. GHHH,GLLL,GHLL,GLHH,GHAA,GLAA,GLVV,GHVV,
|
|
. GLPM,GHPM,B,A
|
|
COMMON/ALS_HDEC/XLAMBDA,AMC0,AMB0,AMT0,N0
|
|
COMMON/FLAG_HDEC/IHIGGS,NNLO,IPOLE
|
|
COMMON/MODEL_HDEC/IMODEL
|
|
COMMON/ONSHELL_HDEC/IONSH,IONWZ,IOFSUSY
|
|
COMMON/OLDFASH_HDEC/NFGG
|
|
COMMON/SM4_HDEC/AMTP,AMBP,AMNUP,AMEP,ISM4,IGGELW
|
|
COMMON/WIDTHSM_HDEC/SMBRB,SMBRL,SMBRM,SMBRS,SMBRC,SMBRT,SMBRG,
|
|
. SMBRGA,SMBRZGA,SMBRW,SMBRZ,SMWDTH
|
|
COMMON/WIDTHSM4_HDEC/SMBRNUP,SMBREP,SMBRBP,SMBRTP
|
|
COMMON/WIDTHA_HDEC/ABRB,ABRL,ABRM,ABRS,ABRC,ABRT,ABRG,ABRGA,
|
|
. ABRZGA,ABRZ,AWDTH
|
|
COMMON/WIDTHHL_HDEC/HLBRB,HLBRL,HLBRM,HLBRS,HLBRC,HLBRT,HLBRG,
|
|
. HLBRGA,HLBRZGA,HLBRW,HLBRZ,HLBRA,HLBRAZ,HLBRHW,
|
|
. HLWDTH
|
|
COMMON/WIDTHHH_HDEC/HHBRB,HHBRL,HHBRM,HHBRS,HHBRC,HHBRT,HHBRG,
|
|
. HHBRGA,HHBRZGA,HHBRW,HHBRZ,HHBRH,HHBRA,HHBRAZ,
|
|
. HHBRHW,HHWDTH
|
|
COMMON/WIDTHHC_HDEC/HCBRB,HCBRL,HCBRM,HCBRBU,HCBRS,HCBRC,HCBRT,
|
|
. HCBRW,HCBRA,HCWDTH
|
|
COMMON/WISUSY_HDEC/HLBRSC,HLBRSN,HHBRSC,HHBRSN,HABRSC,HABRSN,
|
|
. HCBRSU,HLBRCHT,HHBRCHT,HABRCHT,HLBRNET,HHBRNET,
|
|
. HABRNET,HCBRCNT,HLBRSL,HHBRSL,HCBRSL,HABRSL,HABRST,
|
|
. HABRSB,HHBRSQ,HHBRST,HHBRSB,HHBRSQT,HCBRSQ,HCBRSTB,
|
|
. HCBRSQT,HLBRSQ,HLBRSQT
|
|
COMMON/WISFER_HDEC/BHLSLNL,BHLSLEL,BHLSLER,BHLSQUL,BHLSQUR,
|
|
. BHLSQDL,BHLSQDR,BHLST(2,2),BHLSB(2,2),BHLSTAU(2,2),
|
|
. BHHSLNL,BHHSLEL,BHHSLER,BHHSQUL,BHHSQUR,BHHSQDL,
|
|
. BHHSQDR,BHHST(2,2),BHHSB(2,2),BHHSTAU(2,2),
|
|
. BHASTAU,BHASB,BHAST,
|
|
. BHCSL00,BHCSL11,BHCSL21,BHCSQ,BHCSTB(2,2)
|
|
COMMON/SMASS_HDEC/GMN,XMN,GMC,GMST,GMSB,GMSL,GMSU,GMSD,GMSE,GMSN
|
|
. ,GMSN1
|
|
COMMON/GOLDST_HDEC/AXMPL,AXMGD,IGOLD
|
|
COMMON/WIGOLD_HDEC/HLBRGD,HABRGD,HHBRGD,HCBRGD
|
|
COMMON/FLAGS_HDEC/INDIDEC
|
|
c MMM changed 21/8/13
|
|
COMMON/THDM_HDEC/TGBET2HDM,ALPH2HDM,AMHL2HDM,AMHH2HDM,
|
|
. AMHA2HDM,AMHC2HDM,AM12SQ,A1LAM2HDM,A2LAM2HDM,A3LAM2HDM,
|
|
. A4LAM2HDM,A5LAM2HDM,ITYPE2HDM,I2HDM,IPARAM2HDM
|
|
COMMON/THDM_TEST/itest
|
|
COMMON/WIDTH_HC_ADD/hcbrcd,hcbrts,hcbrtd
|
|
COMMON/WIDTH_2HDM/hcbrwhh,hhbrchch,hlbrchch,abrhhaz,abrhawphm
|
|
c end MMM changed 21/8/13
|
|
|
|
PI = 4*DATAN(1D0)
|
|
|
|
IF(IHIGGS.EQ.0) THEN
|
|
OPEN(NSA,FILE='br.sm1')
|
|
OPEN(NSB,FILE='br.sm2')
|
|
IF(ISM4.NE.0)THEN
|
|
OPEN(NSC,FILE='br.sm3')
|
|
ENDIF
|
|
ENDIF
|
|
IF(IHIGGS.NE.0) THEN
|
|
OPEN(NTA,FILE='br.top')
|
|
ENDIF
|
|
IF(IHIGGS.EQ.1.OR.IHIGGS.EQ.5) THEN
|
|
c MMM changed 21/8/2013
|
|
if(i2hdm.eq.0) then
|
|
OPEN(NLA,FILE='br.l1')
|
|
OPEN(NLB,FILE='br.l2')
|
|
elseif(i2hdm.eq.1) then
|
|
OPEN(NLA,FILE='br.l1_2HDM')
|
|
OPEN(NLB,FILE='br.l2_2HDM')
|
|
OPEN(NLC,FILE='br.l3_2HDM')
|
|
endif
|
|
c end MMM changed 21/8/2013
|
|
IF(IOFSUSY.EQ.0)THEN
|
|
OPEN(NSUSYL,FILE='br.ls')
|
|
IF(INDIDEC.NE.0)THEN
|
|
OPEN(NSUSYLA,FILE='br.ls1')
|
|
OPEN(NSUSYLB,FILE='br.ls2')
|
|
OPEN(NSUSYLC,FILE='br.ls3')
|
|
OPEN(NSUSYLD,FILE='br.ls4')
|
|
OPEN(NSUSYLE,FILE='br.ls5')
|
|
OPEN(NSUSYLF,FILE='br.ls6')
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
IF(IHIGGS.EQ.2.OR.IHIGGS.EQ.5) THEN
|
|
c MMM changed 21/8/2013
|
|
if(i2hdm.eq.0) then
|
|
OPEN(NHA,FILE='br.h1')
|
|
OPEN(NHB,FILE='br.h2')
|
|
OPEN(NHC,FILE='br.h3')
|
|
elseif(i2hdm.eq.1) then
|
|
OPEN(NHA,FILE='br.h1_2HDM')
|
|
OPEN(NHB,FILE='br.h2_2HDM')
|
|
OPEN(NHC,FILE='br.h3_2HDM')
|
|
endif
|
|
c end MMM changed 21/8/2013
|
|
IF(IOFSUSY.EQ.0)THEN
|
|
OPEN(NSUSYH,FILE='br.hs')
|
|
IF(INDIDEC.NE.0)THEN
|
|
OPEN(NSUSYHA,FILE='br.hs1')
|
|
OPEN(NSUSYHB,FILE='br.hs2')
|
|
OPEN(NSUSYHC,FILE='br.hs3')
|
|
OPEN(NSUSYHD,FILE='br.hs4')
|
|
OPEN(NSUSYHE,FILE='br.hs5')
|
|
OPEN(NSUSYHF,FILE='br.hs6')
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
IF(IHIGGS.EQ.3.OR.IHIGGS.EQ.5) THEN
|
|
c MMM changed 21/8/2013
|
|
if(i2hdm.eq.0) then
|
|
OPEN(NAA,FILE='br.a1')
|
|
OPEN(NAB,FILE='br.a2')
|
|
elseif(i2hdm.eq.1) then
|
|
OPEN(NAA,FILE='br.a1_2HDM')
|
|
OPEN(NAB,FILE='br.a2_2HDM')
|
|
OPEN(NAC,FILE='br.a3_2HDM')
|
|
endif
|
|
c end MMM changed 21/8/2013
|
|
IF(IOFSUSY.EQ.0)THEN
|
|
OPEN(NSUSYA,FILE='br.as')
|
|
IF(INDIDEC.NE.0)THEN
|
|
OPEN(NSUSYAA,FILE='br.as1')
|
|
OPEN(NSUSYAB,FILE='br.as2')
|
|
OPEN(NSUSYAC,FILE='br.as3')
|
|
OPEN(NSUSYAD,FILE='br.as4')
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
IF(IHIGGS.EQ.4.OR.IHIGGS.EQ.5) THEN
|
|
c MMM changed 21/8/2013
|
|
if(i2hdm.eq.0) then
|
|
OPEN(NCA,FILE='br.c1')
|
|
OPEN(NCB,FILE='br.c2')
|
|
OPEN(NCC,FILE='br.c3')
|
|
elseif(i2hdm.eq.1) then
|
|
OPEN(NCA,FILE='br.c1_2HDM')
|
|
OPEN(NCB,FILE='br.c2_2HDM')
|
|
OPEN(NCC,FILE='br.c3_2HDM')
|
|
endif
|
|
c end MMM changed 21/8/2013
|
|
IF(IOFSUSY.EQ.0)THEN
|
|
OPEN(NSUSYC,FILE='br.cs')
|
|
IF(INDIDEC.NE.0)THEN
|
|
OPEN(NSUSYCA,FILE='br.cs1')
|
|
OPEN(NSUSYCB,FILE='br.cs2')
|
|
OPEN(NSUSYCC,FILE='br.cs3')
|
|
OPEN(NSUSYCD,FILE='br.cs4')
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
|
|
C--SETUP THE HEADS OF THE TABLES IN THE DATA-FILES
|
|
|
|
IF(IHIGGS.EQ.0) THEN
|
|
WRITE(NSA,70)'MHSM ','BB ','TAU TAU','MU MU ','SS ','CC ','TT '
|
|
WRITE(NSA,69)
|
|
WRITE(NSA,*)
|
|
WRITE(NSB,70)'MHSM ','GG ','GAM GAM','Z GAM ','WW ','ZZ ','WIDTH'
|
|
WRITE(NSB,69)
|
|
WRITE(NSB,*)
|
|
IF(ISM4.NE.0)THEN
|
|
WRITE(NSC,70)'MHSM ','NUP NUP','EP EP','BP BP ','TP TP'
|
|
WRITE(NSC,69)
|
|
WRITE(NSC,*)
|
|
ENDIF
|
|
ENDIF
|
|
|
|
IF(IHIGGS.NE.0) THEN
|
|
WRITE(NTA,73)'MHC ','W+- B','H+- B','WIDTH'
|
|
WRITE(NTA,69)
|
|
WRITE(NTA,*)
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.1.OR.IHIGGS.EQ.5) THEN
|
|
WRITE(NLA,70)'MHL ','BB ','TAU TAU','MU MU ','SS ','CC ','TT '
|
|
WRITE(NLA,69)
|
|
WRITE(NLA,*)
|
|
c MMM changed 23/8/2013
|
|
if(i2hdm.eq.0) then
|
|
WRITE(NLB,70)'MHL ','GG ','GAM GAM','Z GAM ','WW ','ZZ ','WIDTH'
|
|
WRITE(NLB,69)
|
|
WRITE(NLB,*)
|
|
elseif(i2hdm.eq.1) then
|
|
WRITE(NLB,72)'MHL ','GG ','GAM GAM','Z GAM ','WW ','ZZ '
|
|
WRITE(NLB,69)
|
|
WRITE(NLB,*)
|
|
WRITE(NLC,72)'MHL ','AA ','Z A ','W+- H-+','H+ H- ','WIDTH '
|
|
WRITE(NLC,69)
|
|
WRITE(NLC,*)
|
|
endif
|
|
c end MMM changed 23/8/2013
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.2.OR.IHIGGS.EQ.5) THEN
|
|
WRITE(NHA,70)'MHH ','BB ','TAU TAU','MU MU ','SS ','CC ','TT '
|
|
WRITE(NHA,69)
|
|
WRITE(NHA,*)
|
|
WRITE(NHB,72)'MHH ','GG ','GAM GAM','Z GAM ','WW ','ZZ '
|
|
WRITE(NHB,69)
|
|
WRITE(NHB,*)
|
|
WRITE(NHC,70)'MHH ','hh ','AA ','Z A ','W+- H-+','H+ H- ','WIDTH
|
|
. '
|
|
WRITE(NHC,69)
|
|
WRITE(NHC,*)
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.3.OR.IHIGGS.EQ.5) THEN
|
|
WRITE(NAA,70)'MHA ','BB ','TAU TAU','MU MU ','SS ','CC ','TT '
|
|
WRITE(NAA,69)
|
|
WRITE(NAA,*)
|
|
c MMM changed 23/8/2013
|
|
if(i2hdm.eq.0) then
|
|
WRITE(NAB,72)'MHA ','GG ','GAM GAM','Z GAM ','Z HL ','WIDTH '
|
|
WRITE(NAB,69)
|
|
WRITE(NAB,*)
|
|
elseif(i2hdm.eq.1) then
|
|
WRITE(NAB,72)'MHA ','GG ','GAM GAM','Z GAM ','Z h ','Z H'
|
|
WRITE(NAB,69)
|
|
WRITE(NAB,*)
|
|
WRITE(NAC,73)'MHA ','W+- H-+','WIDTH '
|
|
WRITE(NAC,69)
|
|
WRITE(NAC,*)
|
|
endif
|
|
c end MMM changed 23/8/2013
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.4.OR.IHIGGS.EQ.5) THEN
|
|
WRITE(NCA,70)'MHC ','BC ','TAU NU ','MU NU ','SU ','CS ','TB '
|
|
WRITE(NCA,69)
|
|
WRITE(NCA,*)
|
|
WRITE(NCB,70)'MHC ','CD ','BU ','TS ','TD '
|
|
WRITE(NCB,69)
|
|
WRITE(NCB,*)
|
|
c MMM changed 23/8/2013
|
|
if(i2hdm.eq.0) then
|
|
WRITE(NCC,70)'MHC ','hW ','AW ','WIDTH '
|
|
elseif(i2hdm.eq.1) then
|
|
WRITE(NCC,70)'MHC ','hW ','HW ','AW ','WIDTH '
|
|
endif
|
|
c end MMM changed 23/8/2013
|
|
WRITE(NCC,69)
|
|
WRITE(NCC,*)
|
|
ENDIF
|
|
|
|
69 FORMAT(79('_'))
|
|
70 FORMAT(A9,6(1X,A10))
|
|
71 FORMAT(A9,4(1X,A10))
|
|
72 FORMAT(A9,5(1X,A10))
|
|
73 FORMAT(A9,3(1X,A10))
|
|
|
|
AMAR = AMABEG
|
|
AMSM = AMAR
|
|
AMA = AMAR
|
|
|
|
IF(IHIGGS.NE.0)THEN
|
|
C ******************************* SUSY OUTPUT
|
|
|
|
CALL GAUGINO_HDEC(AMU,AM2,B,A,GMC,GMN,XMN,AC1,AC2,AC3,
|
|
. AN1,AN2,AN3,ACNL,ACNR,AGDL,AGDA,AGDH,AGDC)
|
|
TSC = (AMSQ+AMUR+AMDR)/3
|
|
BSC = (AMSQ+AMUR+AMDR)/3
|
|
C--DECOUPLING THE TOP QUARK FROM ALPHAS
|
|
c AMT00 = AMT0
|
|
AMT0 = 3.D8
|
|
CALL SFERMION_HDEC(TSC,BSC,AMSQ,AMUR,AMDR,AMEL,AMER,AL,AU,AD,AMU,
|
|
. GMST,GMSB,GMSL,GMSU,GMSD,GMSE,GMSN,GMSN1,
|
|
. GLEE,GLTT,GLBB,GHEE,GHTT,GHBB,
|
|
. GAEE,GATT,GABB,GCEN,GCTB)
|
|
c AMT0 = AMT00
|
|
itest = 1
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
itest = 0
|
|
c write(6,*)'MZ,MW,SW2,alpha: ',AMZ,AMW,1-AMW**2/AMZ**2,A
|
|
c write(6,*)'tan(beta),Ab,mu: ',TGBET,AD,AMU
|
|
c write(6,*)'M_A, M_h, M_H, M_H+: ',AMA,AML,AMH,AMCH
|
|
c write(6,*)'Lambda_hhh/Lambda_SM: ',GLLL/AML**2*AMZ**2/3
|
|
c write(6,*)
|
|
c write(96,*)ama,aml,amh,amch
|
|
c write(97,*)glb,glt,glvv,ghb,ght,ghvv
|
|
c write(6,*)'M_A, M_h, M_H, sin(alpha): ',AMA,AML,AMH,DSIN(A)
|
|
|
|
IF(IOFSUSY.EQ.0)THEN
|
|
C--WRITE THE GAUGINO MASSES/ TB, MU AND M2 IN THE SUSY DATA-FILE
|
|
C--WRITE THE SFERMION MASSES/ SUSY MASSES AND COUPLINGS IN SUSY DATA-FILE
|
|
C
|
|
IF(IHIGGS.EQ.1.OR.IHIGGS.EQ.5) THEN
|
|
WRITE(NSUSYL,347) TGBET,AM2,AMU,AMSQ
|
|
WRITE(NSUSYL,348) GMC(1),GMC(2),GMN(1),GMN(2),GMN(3),GMN(4)
|
|
WRITE(NSUSYL,349) GMST(1),GMST(2),GMSU(1),GMSU(2)
|
|
WRITE(NSUSYL,350) GMSB(1),GMSB(2),GMSD(1),GMSD(2)
|
|
WRITE(NSUSYL,351)GMSL(1),GMSL(2),GMSN(1),GMSE(1),GMSE(2),GMSN1(1)
|
|
WRITE(NSUSYL,*)
|
|
WRITE(NSUSYL,*)' MHL CHARGINOS NEUTRALS '//
|
|
. 'SLEPTONS SQUARKS GRAVITINO+GAUGINO'
|
|
WRITE(NSUSYL,69)
|
|
WRITE(NSUSYL,*)
|
|
IF(INDIDEC.NE.0)THEN
|
|
WRITE(NSUSYLA,73)'MHL ','C1 C1 ','C2 C2 ','C1 C2 '
|
|
WRITE(NSUSYLA,69)
|
|
WRITE(NSUSYLA,*)
|
|
WRITE(NSUSYLB,71)'MHL ','N1 N1 ','N2 N2 ','N3 N3 ','N4 N4 '
|
|
WRITE(NSUSYLB,69)
|
|
WRITE(NSUSYLB,*)
|
|
WRITE(NSUSYLC,70)'MHL ','N1 N2 ','N1 N3 ','N1 N4 ','N2 N3 ',
|
|
. 'N2 N4 ','N3 N4 '
|
|
WRITE(NSUSYLC,69)
|
|
WRITE(NSUSYLC,*)
|
|
WRITE(NSUSYLD,*)' MHL SNL SNL SEL SEL '//
|
|
. 'SER SER STA1 STA1 STA1 STA2 STA2 STA2'
|
|
WRITE(NSUSYLD,69)
|
|
WRITE(NSUSYLD,*)
|
|
WRITE(NSUSYLE,*)' MHL SUL SUL SUR SUR '//
|
|
. 'SDL SDL SDR SDR'
|
|
WRITE(NSUSYLE,69)
|
|
WRITE(NSUSYLE,*)
|
|
WRITE(NSUSYLF,*)' MHL SB1 SB1 SB1 SB2 '//
|
|
. 'SB2 SB2 ST1 ST1 ST1 ST2 ST2 ST2'
|
|
WRITE(NSUSYLF,69)
|
|
WRITE(NSUSYLF,*)
|
|
ENDIF
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.2.OR.IHIGGS.EQ.5) THEN
|
|
WRITE(NSUSYH,347) TGBET,AM2,AMU,AMSQ
|
|
WRITE(NSUSYH,348) GMC(1),GMC(2),GMN(1),GMN(2),GMN(3),GMN(4)
|
|
WRITE(NSUSYH,349) GMST(1),GMST(2),GMSU(1),GMSU(2)
|
|
WRITE(NSUSYH,350) GMSB(1),GMSB(2),GMSD(1),GMSD(2)
|
|
WRITE(NSUSYH,351)GMSL(1),GMSL(2),GMSN(1),GMSE(1),GMSE(2),GMSN1(1)
|
|
WRITE(NSUSYH,*)
|
|
WRITE(NSUSYH,*)' MHH CHARGINOS NEUTRALS '//
|
|
. 'SLEPTONS SQUARKS GRAVITINO+GAUGINO'
|
|
WRITE(NSUSYH,69)
|
|
WRITE(NSUSYH,*)
|
|
IF(INDIDEC.NE.0)THEN
|
|
WRITE(NSUSYHA,73)'MHH ','C1 C1 ','C2 C2 ','C1 C2 '
|
|
WRITE(NSUSYHA,69)
|
|
WRITE(NSUSYHA,*)
|
|
WRITE(NSUSYHB,71)'MHH ','N1 N1 ','N2 N2 ','N3 N3 ','N4 N4 '
|
|
WRITE(NSUSYHB,69)
|
|
WRITE(NSUSYHB,*)
|
|
WRITE(NSUSYHC,70)'MHH ','N1 N2 ','N1 N3 ','N1 N4 ','N2 N3 ',
|
|
. 'N2 N4 ','N3 N4 '
|
|
WRITE(NSUSYHC,69)
|
|
WRITE(NSUSYHC,*)
|
|
WRITE(NSUSYHD,*)' MHH SNL SNL SEL SEL '//
|
|
. 'SER SER STA1 STA1 STA1 STA2 STA2 STA2'
|
|
WRITE(NSUSYHD,69)
|
|
WRITE(NSUSYHD,*)
|
|
WRITE(NSUSYHE,*)' MHH SUL SUL SUR SUR '//
|
|
. 'SDL SDL SDR SDR'
|
|
WRITE(NSUSYHE,69)
|
|
WRITE(NSUSYHE,*)
|
|
WRITE(NSUSYHF,*)' MHH SB1 SB1 SB1 SB2 '//
|
|
. 'SB2 SB2 ST1 ST1 ST1 ST2 ST2 ST2'
|
|
WRITE(NSUSYHF,69)
|
|
WRITE(NSUSYHF,*)
|
|
ENDIF
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.3.OR.IHIGGS.EQ.5) THEN
|
|
WRITE(NSUSYA,347) TGBET,AM2,AMU,AMSQ
|
|
WRITE(NSUSYA,348) GMC(1),GMC(2),GMN(1),GMN(2),GMN(3),GMN(4)
|
|
WRITE(NSUSYA,349) GMST(1),GMST(2),GMSU(1),GMSU(2)
|
|
WRITE(NSUSYA,350) GMSB(1),GMSB(2),GMSD(1),GMSD(2)
|
|
WRITE(NSUSYA,351)GMSL(1),GMSL(2),GMSN(1),GMSE(1),GMSE(2),GMSN1(1)
|
|
WRITE(NSUSYA,*)
|
|
WRITE(NSUSYA,*)' MHA CHARGINOS NEUTRALS '//
|
|
. 'SLEPTONS SQUARKS GRAVITINO+GAUGINO'
|
|
WRITE(NSUSYA,69)
|
|
WRITE(NSUSYA,*)
|
|
IF(INDIDEC.NE.0)THEN
|
|
WRITE(NSUSYAA,73)'MHA ','C1 C1 ','C2 C2 ','C1 C2 '
|
|
WRITE(NSUSYAA,69)
|
|
WRITE(NSUSYAA,*)
|
|
WRITE(NSUSYAB,71)'MHA ','N1 N1 ','N2 N2 ','N3 N3 ','N4 N4 '
|
|
WRITE(NSUSYAB,69)
|
|
WRITE(NSUSYAB,*)
|
|
WRITE(NSUSYAC,70)'MHA ','N1 N2 ','N1 N3 ','N1 N4 ','N2 N3 ',
|
|
. 'N2 N4 ','N3 N4 '
|
|
WRITE(NSUSYAC,69)
|
|
WRITE(NSUSYAC,*)
|
|
WRITE(NSUSYAD,*)
|
|
WRITE(NSUSYAD,*)' MHA STA1 STA2 SB1 SB2 ST1 ST2'
|
|
WRITE(NSUSYAD,69)
|
|
WRITE(NSUSYAD,*)
|
|
ENDIF
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.4.OR.IHIGGS.EQ.5) THEN
|
|
WRITE(NSUSYC,347) TGBET,AM2,AMU,AMSQ
|
|
WRITE(NSUSYC,348) GMC(1),GMC(2),GMN(1),GMN(2),GMN(3),GMN(4)
|
|
c write(6,*)GMN(1),GMN(2),GMN(3),GMN(4)
|
|
WRITE(NSUSYC,349) GMST(1),GMST(2),GMSU(1),GMSU(2)
|
|
WRITE(NSUSYC,350) GMSB(1),GMSB(2),GMSD(1),GMSD(2)
|
|
WRITE(NSUSYC,351)GMSL(1),GMSL(2),GMSN(1),GMSE(1),GMSE(2),GMSN1(1)
|
|
WRITE(NSUSYC,*)
|
|
WRITE(NSUSYC,*)' MHC CHARG/NEU SLEPTONS SQUARKS',
|
|
. ' GRAVITINO+GAUGINO'
|
|
WRITE(NSUSYC,69)
|
|
WRITE(NSUSYC,*)
|
|
IF(INDIDEC.NE.0)THEN
|
|
WRITE(NSUSYCA,70)'MHC ','C1 N1 ','C1 N2 ','C1 N3 ','C1 N4 '
|
|
WRITE(NSUSYCA,69)
|
|
WRITE(NSUSYCA,*)
|
|
WRITE(NSUSYCB,70)'MHC ','C2 N1 ','C2 N2 ','C2 N3 ','C2 N4 '
|
|
WRITE(NSUSYCB,69)
|
|
WRITE(NSUSYCB,*)
|
|
WRITE(NSUSYCC,*)' MHC SEL SNL STAU1 SNL STAU2 SNL'
|
|
WRITE(NSUSYCC,69)
|
|
WRITE(NSUSYCC,*)
|
|
WRITE(NSUSYCD,*)' MHC SUL SDL ST1 SB1 '//
|
|
. 'ST1 SB2 ST2 SB1 ST2 SB2'
|
|
WRITE(NSUSYCD,69)
|
|
WRITE(NSUSYCD,*)
|
|
ENDIF
|
|
ENDIF
|
|
|
|
347 FORMAT('TB=',G12.6,1X,'M2=',G12.6,1X,'MU=',G12.6,1X,
|
|
. 'MSQ=',G12.6)
|
|
348 FORMAT('C1=',F8.3,1X,'C2=',F8.3,1X,'N1=',F8.3,1X,'N2=',F8.3,1X,
|
|
. 'N3=',F8.3,1X,'N4=',F8.3)
|
|
349 FORMAT('MST1=',G12.6,1X,'MST2=',G12.6,1X,
|
|
. 'MSUL=',G12.6,1X,'MSUR=',G12.6)
|
|
350 FORMAT('MSB1=',G12.6,1X,'MSB2=',G12.6,1X,
|
|
. 'MSDL=',G12.6,1X,'MSDR=',G12.6)
|
|
351 FORMAT('TAU1=',F8.3,1X,'TAU2=',F8.3,1X,'NL=',F8.3,1X,
|
|
. 'EL=',F8.2,1X,'ER=',F8.2,1X,'NL1=',F8.2)
|
|
C
|
|
C
|
|
C **************************************************************
|
|
ENDIF
|
|
ENDIF
|
|
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE WRITE_HDEC(TGBET)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
PARAMETER(K=6,NI=87,NSA=85,NSB=86,NSC=57,NLA=88,NLB=89,NHA=90,
|
|
. NHB=91,NHC=92,NAA=93,NAB=94,NCA=95,NCB=96,NCC=50,NRA=97,
|
|
. NRB=98,
|
|
. NSUSYL=81,NSUSYA=82,NSUSYH=83,NSUSYC=84,NPAR=80,NTA=99,
|
|
. NSUSYLA=79,NSUSYLB=78,NSUSYLC=77,NSUSYLD=76,NSUSYLE=75,
|
|
. NSUSYLF=59,NSUSYHF=58,
|
|
. NSUSYHA=74,NSUSYHB=73,NSUSYHC=72,NSUSYHD=71,NSUSYHE=70,
|
|
. NSUSYAA=69,NSUSYAB=68,NSUSYAC=67,NSUSYAD=66,NSUSYAE=65,
|
|
. NSUSYCA=64,NSUSYCB=63,NSUSYCC=62,NSUSYCD=61,NSUSYCE=60)
|
|
c MMM changed 23/8/2013
|
|
PARAMETER (NAC=31,NLC=32)
|
|
c end MMM changed 23/8/2013
|
|
parameter (nout=44)
|
|
DIMENSION GMN(4),XMN(4),GMC(2),GMST(2),GMSB(2),GMSL(2),
|
|
. GMSU(2),GMSD(2),GMSE(2),GMSN(2),GMSN1(2)
|
|
DIMENSION HLBRSC(2,2),HLBRSN(4,4),HHBRSC(2,2),HHBRSN(4,4),
|
|
. HABRSC(2,2),HABRSN(4,4),HCBRSU(2,4),
|
|
. HHBRST(2,2),HHBRSB(2,2),HCBRSTB(2,2)
|
|
DIMENSION AC1(2,2),AC2(2,2),AC3(2,2),
|
|
. AN1(4,4),AN2(4,4),AN3(4,4),
|
|
. ACNL(2,4),ACNR(2,4)
|
|
DIMENSION GLTT(2,2),GLBB(2,2),GHTT(2,2),GHBB(2,2),GCTB(2,2),
|
|
. GLEE(2,2),GHEE(2,2),GCEN(2,2)
|
|
DIMENSION AGDL(4),AGDA(4),AGDH(4),AGDC(2)
|
|
dimension hlbrsn1(4,4),hhbrsn1(4,4),habrsn1(4,4)
|
|
double precision minval(1:20),smval(1:30),massval(1:50),
|
|
. nmixval(4,4),umixval(2,2),vmixval(2,2),
|
|
. stopmixval(2,2),sbotmixval(2,2),staumixval(2,2),
|
|
. hmixval(1:10),gaugeval(1:3),msoftval(1:100),
|
|
. auval(3,3),adval(3,3),aeval(3,3),yuval(3,3),
|
|
. ydval(3,3),yeval(3,3),qvalue(1:20),extval(0:100),
|
|
. m_softval(1:100)
|
|
double precision slhaneut(1:4),slhaxneut(1:4),slhachar(1:2),
|
|
. slhau(2,2),slhav(2,2),slhaz(4,4),slhaxchar(1:2),
|
|
. slhast(2),slhasb(2),slhasu(2),slhasd(2),
|
|
. slhase(2),slhasl(2),slhasn(2),slhasnl(2),
|
|
. warning(1:10)
|
|
double precision vckmval(4)
|
|
integer imod(1:2)
|
|
integer check(1:22)
|
|
double precision mbmsbar,mbl,mbu
|
|
character spinfo1*100,spinfo2*100,modselval*100,mincom(1:20)*20,
|
|
. extcom(0:100)*20,softcom(1:100)*20,hmixcom(1:10)*20,
|
|
. m_softcom(1:100)*20
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/STRANGE_HDEC/AMSB
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/CKMPAR_HDEC/VTB,VTS,VTD,VCB,VCS,VCD,VUB,VUS,VUD
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AML,AMH,AMCH,AMAR
|
|
COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
|
|
COMMON/BREAKGLU_HDEC/AMGLU
|
|
COMMON/SFER1ST_HDEC/AMQL1,AMUR1,AMDR1,AMEL1,AMER1
|
|
COMMON/GLUINO_HDEC/AMGLUINO,XMSB1,XMSB2,STHB,CTHB,
|
|
. XLBB(2,2),XHBB(2,2),XABB(2,2),
|
|
. XMST1,XMST2,STHT,CTHT,
|
|
. XLTT(2,2),XHTT(2,2),XATT(2,2)
|
|
COMMON/WZWDTH_HDEC/GAMC0,GAMT0,GAMT1,GAMW,GAMZ
|
|
COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,
|
|
. GHHH,GLLL,GHLL,GLHH,GHAA,GLAA,GLVV,GHVV,
|
|
. GLPM,GHPM,B,A
|
|
COMMON/ALS_HDEC/XLAMBDA,AMC0,AMB0,AMT0,N0
|
|
COMMON/FLAG_HDEC/IHIGGS,NNLO,IPOLE
|
|
COMMON/MODEL_HDEC/IMODEL
|
|
COMMON/ONSHELL_HDEC/IONSH,IONWZ,IOFSUSY
|
|
COMMON/OLDFASH_HDEC/NFGG
|
|
COMMON/SM4_HDEC/AMTP,AMBP,AMNUP,AMEP,ISM4,IGGELW
|
|
COMMON/WIDTHSM_HDEC/SMBRB,SMBRL,SMBRM,SMBRS,SMBRC,SMBRT,SMBRG,
|
|
. SMBRGA,SMBRZGA,SMBRW,SMBRZ,SMWDTH
|
|
COMMON/WIDTHSM4_HDEC/SMBRNUP,SMBREP,SMBRBP,SMBRTP
|
|
COMMON/WIDTHA_HDEC/ABRB,ABRL,ABRM,ABRS,ABRC,ABRT,ABRG,ABRGA,
|
|
. ABRZGA,ABRZ,AWDTH
|
|
COMMON/WIDTHHL_HDEC/HLBRB,HLBRL,HLBRM,HLBRS,HLBRC,HLBRT,HLBRG,
|
|
. HLBRGA,HLBRZGA,HLBRW,HLBRZ,HLBRA,HLBRAZ,HLBRHW,
|
|
. HLWDTH
|
|
COMMON/WIDTHHH_HDEC/HHBRB,HHBRL,HHBRM,HHBRS,HHBRC,HHBRT,HHBRG,
|
|
. HHBRGA,HHBRZGA,HHBRW,HHBRZ,HHBRH,HHBRA,HHBRAZ,
|
|
. HHBRHW,HHWDTH
|
|
COMMON/WIDTHHC_HDEC/HCBRB,HCBRL,HCBRM,HCBRBU,HCBRS,HCBRC,HCBRT,
|
|
. HCBRW,HCBRA,HCWDTH
|
|
COMMON/WISUSY_HDEC/HLBRSC,HLBRSN,HHBRSC,HHBRSN,HABRSC,HABRSN,
|
|
. HCBRSU,HLBRCHT,HHBRCHT,HABRCHT,HLBRNET,HHBRNET,
|
|
. HABRNET,HCBRCNT,HLBRSL,HHBRSL,HCBRSL,HABRSL,HABRST,
|
|
. HABRSB,HHBRSQ,HHBRST,HHBRSB,HHBRSQT,HCBRSQ,HCBRSTB,
|
|
. HCBRSQT,HLBRSQ,HLBRSQT
|
|
COMMON/WISFER_HDEC/BHLSLNL,BHLSLEL,BHLSLER,BHLSQUL,BHLSQUR,
|
|
. BHLSQDL,BHLSQDR,BHLST(2,2),BHLSB(2,2),BHLSTAU(2,2),
|
|
. BHHSLNL,BHHSLEL,BHHSLER,BHHSQUL,BHHSQUR,BHHSQDL,
|
|
. BHHSQDR,BHHST(2,2),BHHSB(2,2),BHHSTAU(2,2),
|
|
. BHASTAU,BHASB,BHAST,
|
|
. BHCSL00,BHCSL11,BHCSL21,BHCSQ,BHCSTB(2,2)
|
|
COMMON/SMASS_HDEC/GMN,XMN,GMC,GMST,GMSB,GMSL,GMSU,GMSD,GMSE,GMSN
|
|
. ,GMSN1
|
|
COMMON/GOLDST_HDEC/AXMPL,AXMGD,IGOLD
|
|
COMMON/WIGOLD_HDEC/HLBRGD,HABRGD,HHBRGD,HCBRGD
|
|
COMMON/FLAGS_HDEC/INDIDEC
|
|
c -------------- common block given by read_leshouches ------------ c
|
|
COMMON/SLHA_leshouches1_HDEC/spinfo1,spinfo2,modselval,mincom,
|
|
. extcom,softcom,hmixcom
|
|
COMMON/SLHA_leshouches2_HDEC/minval,extval,smval,massval,nmixval,
|
|
. umixval,vmixval,stopmixval,sbotmixval,
|
|
. staumixval,hmixval,gaugeval,msoftval,auval,
|
|
. adval,aeval,yuval,ydval,yeval,alphaval,
|
|
. qvalue,imod
|
|
COMMON/SLHA_leshouches3_HDEC/vckmval
|
|
COMMON/SD_scaleofewsb/scaleofewsb
|
|
c -------------- common blocks needed in HDECAY subroutines ---------- c
|
|
COMMON/SLHA_vals_HDEC/islhai,islhao
|
|
COMMON/SLHA_m1_HDEC/am1
|
|
COMMON/M1_HDEC/am10,igut
|
|
COMMON/SLHA_gaug_HDEC/slhaneut,slhaxneut,slhachar,slhau,slhav,
|
|
. slhaz,slhaxchar
|
|
COMMON/SLHA_sfer_HDEC/slhast,slhasb,slhasu,slhasd,slhase,slhasl,
|
|
. slhasn,slhasnl,slhacot,slhasit,slhacob,slhasib,
|
|
. slhacol,slhasil
|
|
COMMON/SLHA_hmass_HDEC/slhaml,slhamh,slhamc,slha_alpha
|
|
COMMON/GAUGINOMIX_HDEC/ZZ(4,4),UU(2,2),VV(2,2)
|
|
COMMON/TAUMIX_HDEC/CL,SL
|
|
COMMON/SLHAVAL_HDEC/g1ew,g2ew
|
|
COMMON/SLHA_checkval_HDEC/check
|
|
c MMM changed 21/8/13
|
|
COMMON/THDM_HDEC/TGBET2HDM,ALPH2HDM,AMHL2HDM,AMHH2HDM,
|
|
. AMHA2HDM,AMHC2HDM,AM12SQ,A1LAM2HDM,A2LAM2HDM,A3LAM2HDM,
|
|
. A4LAM2HDM,A5LAM2HDM,ITYPE2HDM,I2HDM,IPARAM2HDM
|
|
COMMON/WIDTH_HC_ADD/hcbrcd,hcbrts,hcbrtd
|
|
COMMON/WIDTH_2HDM/hcbrwhh,hhbrchch,hlbrchch,abrhhaz,abrhawphm
|
|
c end MMM changed 21/8/13
|
|
|
|
PI = 4*DATAN(1D0)
|
|
|
|
if(islhao.eq.1) then
|
|
open(nout,file='slha.out')
|
|
|
|
id =1
|
|
idb=-1
|
|
iu =2
|
|
iub=-2
|
|
is =3
|
|
isb=-3
|
|
ic =4
|
|
icb=-4
|
|
ib =5
|
|
ibb=-5
|
|
it =6
|
|
itb=-6
|
|
|
|
ie =11
|
|
ine =12
|
|
imu =13
|
|
inmu =14
|
|
itau =15
|
|
intau=16
|
|
|
|
ihl=25
|
|
ihh=35
|
|
iha=36
|
|
ihc=37
|
|
igl=21
|
|
iga=22
|
|
iz =23
|
|
iwc=24
|
|
|
|
isdl=1000001
|
|
isdr=2000001
|
|
isul=1000002
|
|
isur=2000002
|
|
issl=1000003
|
|
issr=2000003
|
|
iscl=1000004
|
|
iscr=2000004
|
|
isb1=1000005
|
|
isb2=2000005
|
|
ist1=1000006
|
|
ist2=2000006
|
|
|
|
iglo=1000021
|
|
in1 =1000022
|
|
in2 =1000023
|
|
in3 =1000025
|
|
in4 =1000035
|
|
ic1 =1000024
|
|
ic2 =1000037
|
|
|
|
intau1=1000016
|
|
intau2=2000016
|
|
inel =1000012
|
|
iner =2000012
|
|
inmul =1000014
|
|
inmur =2000014
|
|
|
|
isell =1000011
|
|
iselr =2000011
|
|
ismul =1000013
|
|
ismur =2000013
|
|
istau1=1000015
|
|
istau2=2000015
|
|
|
|
c ----------------------------------- c
|
|
c Information about the decay program c
|
|
c ----------------------------------- c
|
|
|
|
write(nout,105)
|
|
write(nout,51) 'DCINFO','Decay Program information'
|
|
write(nout,61) 1,'HDECAY # decay calculator'
|
|
write(nout,61) 2,'6.61 # version number'
|
|
|
|
c ----------------------------------------------------------------- c
|
|
c The program information: Which spectrum calculator has been used. c
|
|
c ----------------------------------------------------------------- c
|
|
|
|
if(check(22).eq.1) then
|
|
write(nout,105)
|
|
write(nout,51) 'SPINFO','Spectrum calculator information'
|
|
write(nout,61) 1,spinfo1(1:50)
|
|
write(nout,61) 2,spinfo2(1:50)
|
|
endif
|
|
|
|
c ------------------------------------------------ c
|
|
c Information on the model which has been selected c
|
|
c ------------------------------------------------ c
|
|
|
|
write(nout,105)
|
|
write(nout,51) 'MODSEL','Model selection'
|
|
write(nout,62) 1,0,'# General MSSM'
|
|
|
|
c ----------------------- c
|
|
c The SM input parameters c
|
|
c ----------------------- c
|
|
|
|
c if(smval(1).ne.0.d0)then
|
|
c salpha_MS = 1/smval(1)
|
|
c else
|
|
c salpha_MS = 1/127.934D0
|
|
c endif
|
|
c -- calculation of mb(mb)_MSbar from the mb pole mass --
|
|
del = 1.d-8
|
|
rmb0 = amb
|
|
444 rmb = rmb0
|
|
rmb0 = runm_hdec(rmb,5,1)
|
|
if(dabs(rmb0/rmb-1).gt.del)goto 444
|
|
rmb = rmb0
|
|
alsmz = alphas_hdec(amz,3)
|
|
write(nout,105)
|
|
write(nout,51) 'SMINPUTS','Standard Model inputs'
|
|
c write(nout,52) 1,1.D0/salpha_MS,'alpha_em^-1(M_Z)^MSbar'
|
|
write(nout,52) 2,gf,'G_F [GeV^-2]'
|
|
write(nout,52) 3,alsmz,'alpha_S(M_Z)^MSbar'
|
|
write(nout,52) 4,amz,'M_Z pole mass'
|
|
write(nout,52) 5,rmb,'mb(mb)^MSbar'
|
|
write(nout,52) 6,amt,'mt pole mass'
|
|
write(nout,52) 7,amtau,'mtau pole mass'
|
|
|
|
c ------------------------------------------------ c
|
|
c Input parameters for minimal/default SUSY models c
|
|
c ------------------------------------------------ c
|
|
|
|
if(check(3).eq.1) then
|
|
write(nout,105)
|
|
write(nout,51) 'MINPAR','Input parameters - minimal models'
|
|
unlikely = -123456789D0
|
|
do ii=1,20,1
|
|
if(minval(ii).ne.unlikely) then
|
|
write(nout,52) ii,minval(ii),mincom(ii)
|
|
endif
|
|
end do
|
|
endif
|
|
|
|
c ------------------------------------------------------------------- c
|
|
c Optional input parameters for non-minimal/non-universal SUSY models c
|
|
c ------------------------------------------------------------------- c
|
|
|
|
if(check(4).eq.1) then
|
|
write(nout,105)
|
|
write(nout,51) 'EXTPAR','Input parameters - non-minimal models'
|
|
unlikely = -123456789D0
|
|
do ii=1,100,1
|
|
if(extval(ii-1).ne.unlikely) then
|
|
write(nout,52) ii-1,extval(ii-1),extcom(ii-1)
|
|
endif
|
|
end do
|
|
endif
|
|
|
|
c ----------------- c
|
|
c The mass spectrum c
|
|
c ----------------- c
|
|
|
|
write(nout,105)
|
|
write(nout,51) 'MASS','Mass Spectrum'
|
|
write(nout,50) 'PDG code mass particle'
|
|
write(nout,52) iwc,amw,'W+'
|
|
write(nout,52) ihl,aml,'h'
|
|
write(nout,52) ihh,amh,'H'
|
|
write(nout,52) iha,ama,'A'
|
|
write(nout,52) ihc,amch,'H+'
|
|
write(nout,52) ib,amb,
|
|
.'b-quark pole mass calculated from mb(mb)_Msbar'
|
|
write(nout,52) isdl,gmsd(1),'~d_L'
|
|
write(nout,52) isdr,gmsd(2),'~d_R'
|
|
write(nout,52) isul,gmsu(1),'~u_L'
|
|
write(nout,52) isur,gmsu(2),'~u_R'
|
|
write(nout,52) issl,gmsd(1),'~s_L'
|
|
write(nout,52) issr,gmsd(2),'~s_R'
|
|
write(nout,52) iscl,gmsu(1),'~c_L'
|
|
write(nout,52) iscr,gmsu(2),'~c_R'
|
|
write(nout,52) isb1,GMSB(1),'~b_1'
|
|
write(nout,52) isb2,GMSB(2),'~b_2'
|
|
write(nout,52) ist1,GMST(1),'~t_1'
|
|
write(nout,52) ist2,GMST(2),'~t_2'
|
|
write(nout,52) isell,GMSE(1),'~e_L'
|
|
write(nout,52) iselr,GMSE(2),'~e_R'
|
|
write(nout,52) inel,GMSN1(1),'~nu_eL'
|
|
write(nout,52) ismul,GMSE(1),'~mu_L'
|
|
write(nout,52) ismur,GMSE(2),'~mu_R'
|
|
write(nout,52) inmul,GMSN1(1),'~nu_muL'
|
|
write(nout,52) istau1,GMSL(1),'~tau_1'
|
|
write(nout,52) istau2,GMSL(2),'~tau_2'
|
|
write(nout,52) intau1,GMSN(1),'~nu_tauL'
|
|
write(nout,52) iglo,amgluino,'~g'
|
|
write(nout,52) in1,xmn(1),'~chi_10'
|
|
write(nout,52) in2,xmn(2),'~chi_20'
|
|
write(nout,52) in3,xmn(3),'~chi_30'
|
|
write(nout,52) in4,xmn(4),'~chi_40'
|
|
write(nout,52) ic1,gmc(1),'~chi_1+'
|
|
write(nout,52) ic2,gmc(2),'~chi_2+'
|
|
|
|
c ------------------------------------------------------------------- c
|
|
c The neutralino mixing matrix N and the chargino mixing matrices U,V c
|
|
c ------------------------------------------------------------------- c
|
|
|
|
write(nout,105)
|
|
write(nout,51) 'NMIX','Neutralino Mixing Matrix'
|
|
write(nout,53) 1,1,zz(1,1),'N_11'
|
|
write(nout,53) 1,2,zz(1,2),'N_12'
|
|
write(nout,53) 1,3,zz(1,3),'N_13'
|
|
write(nout,53) 1,4,zz(1,4),'N_14'
|
|
write(nout,53) 2,1,zz(2,1),'N_21'
|
|
write(nout,53) 2,2,zz(2,2),'N_22'
|
|
write(nout,53) 2,3,zz(2,3),'N_23'
|
|
write(nout,53) 2,4,zz(2,4),'N_24'
|
|
write(nout,53) 3,1,zz(3,1),'N_31'
|
|
write(nout,53) 3,2,zz(3,2),'N_32'
|
|
write(nout,53) 3,3,zz(3,3),'N_33'
|
|
write(nout,53) 3,4,zz(3,4),'N_34'
|
|
write(nout,53) 4,1,zz(4,1),'N_41'
|
|
write(nout,53) 4,2,zz(4,2),'N_42'
|
|
write(nout,53) 4,3,zz(4,3),'N_43'
|
|
write(nout,53) 4,4,zz(4,4),'N_44'
|
|
|
|
write(nout,105)
|
|
write(nout,51) 'UMIX','Chargino Mixing Matrix U'
|
|
write(nout,53) 1,1,uu(1,1),'U_11'
|
|
write(nout,53) 1,2,uu(1,2),'U_12'
|
|
write(nout,53) 2,1,uu(2,1),'U_21'
|
|
write(nout,53) 2,2,uu(2,2),'U_22'
|
|
|
|
write(nout,105)
|
|
write(nout,51) 'VMIX','Chargino Mixing Matrix V'
|
|
write(nout,53) 1,1,vv(1,1),'V_11'
|
|
write(nout,53) 1,2,vv(1,2),'V_12'
|
|
write(nout,53) 2,1,vv(2,1),'V_21'
|
|
write(nout,53) 2,2,vv(2,2),'V_22'
|
|
|
|
c ------------------------------------------ c
|
|
c The stop, sbottom and stau mixing matrices c
|
|
c ------------------------------------------ c
|
|
|
|
write(nout,105)
|
|
write(nout,51) 'STOPMIX','Stop Mixing Matrix'
|
|
write(nout,53) 1,1,ctht,'cos(theta_t)'
|
|
write(nout,53) 1,2,stht,'sin(theta_t)'
|
|
write(nout,53) 2,1,-stht,'-sin(theta_t)'
|
|
write(nout,53) 2,2,ctht,'cos(theta_t)'
|
|
|
|
write(nout,105)
|
|
write(nout,51) 'SBOTMIX','Sbottom Mixing Matrix'
|
|
write(nout,53) 1,1,cthb,'cos(theta_b)'
|
|
write(nout,53) 1,2,sthb,'sin(theta_b)'
|
|
write(nout,53) 2,1,-sthb,'-sin(theta_b)'
|
|
write(nout,53) 2,2,cthb,'cos(theta_b)'
|
|
|
|
write(nout,105)
|
|
write(nout,51) 'STAUMIX','Stau Mixing Matrix'
|
|
write(nout,53) 1,1,cl,'cos(theta_tau)'
|
|
write(nout,53) 1,2,sl,'sin(theta_tau)'
|
|
write(nout,53) 2,1,-sl,'-sin(theta_tau)'
|
|
write(nout,53) 2,2,cl,'cos(theta_tau)'
|
|
|
|
c ------------------------------------------------------------------- c
|
|
c The angle alpha in the Higgs sector and the Higgs mixing parameters c
|
|
c ------------------------------------------------------------------- c
|
|
|
|
alphaval = A
|
|
write(nout,105)
|
|
write(nout,51) 'ALPHA','Higgs mixing'
|
|
write(nout,60) alphaval,
|
|
.'Mixing angle in the neutral Higgs boson sector'
|
|
|
|
amudrbar = AMU/(1.D0+g1ew**2/16.D0/pi**2*3.D0/5.D0+
|
|
. g2ew**2/16.D0/pi**2*3.D0/4.D0)
|
|
if(qvalue(1).ne.0.d0)then
|
|
qq = qvalue(1)
|
|
else
|
|
qq = amt
|
|
endif
|
|
write(nout,105)
|
|
write(nout,54) 'HMIX Q= ',qq,'DRbar Higgs Parameters'
|
|
write(nout,52) 1,amudrbar,'mu(Q)'
|
|
write(nout,52) 2,tgbet,'tanbeta(Q)'
|
|
|
|
c --------------------- c
|
|
c The CKM mixing matrix c
|
|
c --------------------- c
|
|
|
|
unlikely = -123456789D0
|
|
r0 = 0.132d0
|
|
e0 = 0.341d0
|
|
fac1 = r0/dsqrt(r0**2+e0**2)
|
|
fac2 = e0/dsqrt(r0**2+e0**2)
|
|
if(vckmval(1).eq.unlikely)vckmval(1) = vus
|
|
if(vckmval(2).eq.unlikely)vckmval(2) = vcb/vus**2
|
|
if(vckmval(3).eq.unlikely)vckmval(3) = fac1*vub/vus/vcb
|
|
if(vckmval(4).eq.unlikely)vckmval(4) = fac2*vub/vus/vcb
|
|
if(islhai.eq.0)then
|
|
vckmval(1) = vus
|
|
vckmval(2) = vcb/vus**2
|
|
vckmval(3) = fac1*vub/vus/vcb
|
|
vckmval(4) = fac2*vub/vus/vcb
|
|
endif
|
|
write(nout,105)
|
|
write(nout,51) 'VCKMIN','CKM mixing'
|
|
write(nout,52) 1,vckmval(1),'lambda'
|
|
write(nout,52) 2,vckmval(2),'A'
|
|
write(nout,52) 3,vckmval(3),'rhobar'
|
|
write(nout,52) 4,vckmval(4),'etabar'
|
|
|
|
c ------------------- c
|
|
c The gauge couplings c
|
|
c ------------------- c
|
|
|
|
c del = 1.d-8
|
|
c g2ew0 = g2ew
|
|
c80 g2test = g2ew/(1-g2ew0**2/96/pi**2*2)
|
|
c g2ew1 = g2test*(1-g2test**2/96/pi**2*2)
|
|
c write(6,*)g2ew,g2ew1,g2test
|
|
c g2ew0 = g2test
|
|
c if(dabs(g2ew1/g2ew-1).gt.del)goto 80
|
|
c g2drbar = g2test
|
|
|
|
if(qvalue(2).ne.0.d0)then
|
|
write(nout,105)
|
|
write(nout,54) 'GAUGE Q=',qvalue(2),'The gauge couplings'
|
|
if(gaugeval(1).ne.0.D0) then
|
|
write(nout,55) 1,gaugeval(1),'gprime(Q) DRbar'
|
|
endif
|
|
if(gaugeval(2).ne.0.D0) then
|
|
write(nout,55) 2,gaugeval(2),'g(Q) DRbar'
|
|
endif
|
|
endif
|
|
|
|
c ------------------------------------- c
|
|
c The trilinear couplings Au, Ad and Ae c
|
|
c ------------------------------------- c
|
|
|
|
qq = amt
|
|
if(qvalue(4).ne.0.d0)qq = qvalue(4)
|
|
write(nout,105)
|
|
write(nout,54) 'AU Q=',qq,'The trilinear couplings'
|
|
write(nout,53) 1,1,au,'A_u(Q) DRbar'
|
|
write(nout,53) 2,2,au,'A_c(Q) DRbar'
|
|
write(nout,53) 3,3,au,'A_t(Q) DRbar'
|
|
|
|
qq = amt
|
|
if(qvalue(5).ne.0.d0)qq = qvalue(5)
|
|
write(nout,105)
|
|
write(nout,54) 'AD Q=',qq,'The trilinear couplings'
|
|
write(nout,53) 1,1,ad,'A_d(Q) DRbar'
|
|
write(nout,53) 2,2,ad, 'A_s(Q) DRbar'
|
|
write(nout,53) 3,3,ad,'A_b(Q) DRbar'
|
|
|
|
qq = amt
|
|
if(qvalue(6).ne.0.d0)qq = qvalue(6)
|
|
write(nout,105)
|
|
write(nout,54) 'AE Q=',qq,'The trilinear couplings'
|
|
write(nout,53) 1,1,al,'A_e(Q) DRbar'
|
|
write(nout,53) 2,2,al, 'A_mu(Q) DRbar'
|
|
write(nout,53) 3,3,al,'A_tau(Q) DRbar'
|
|
|
|
c ----------------------------- c
|
|
c The soft SUSY breaking masses c
|
|
c ----------------------------- c
|
|
|
|
if(check(15).eq.1) then
|
|
write(nout,105)
|
|
write(nout,54) 'MSOFT Q=',scaleofewsb,'The soft SUSY breaking m
|
|
.asses at the scale Q'
|
|
unlikely = -123456789D0
|
|
do ii=1,99,1
|
|
if(msoftval(ii).ne.unlikely) then
|
|
if(ii.ne.11.and.ii.ne.12.and.ii.ne.13.and.ii.ne.23.and.
|
|
. ii.ne.24.and.ii.ne.25.and.ii.ne.26) then
|
|
write(nout,52) ii,msoftval(ii),softcom(ii)
|
|
endif
|
|
endif
|
|
end do
|
|
else
|
|
write(nout,105)
|
|
write(nout,54) 'MSOFT Q=',scaleofewsb,'The soft SUSY breaking m
|
|
.asses at the scale Q'
|
|
cw=amw/amz
|
|
sw=dsqrt(1-cw**2)
|
|
tw=sw/cw
|
|
if(igut.ne.0)then
|
|
am1=5.D0/3.D0*tw**2*am2
|
|
else
|
|
am1=am10
|
|
endif
|
|
am2=am2/(1.D0+g2ew**2/16.D0/pi**2*2.D0)
|
|
write(nout,52) 1,am1,'M_1(Q)'
|
|
write(nout,52) 2,am2,'M_2(Q)'
|
|
write(nout,52) 31,amel1,'AMEL1'
|
|
write(nout,52) 33,amel,'AMEL'
|
|
write(nout,52) 34,amer1,'AMER1'
|
|
write(nout,52) 36,amer,'AMER'
|
|
write(nout,52) 41,amql1,'AMQL1'
|
|
write(nout,52) 43,amsq,'AMSQ'
|
|
write(nout,52) 44,amur1,'AMUR1'
|
|
write(nout,52) 46,amur,'AMUR'
|
|
write(nout,52) 47,amdr1,'AMDR1'
|
|
write(nout,52) 49,amdr,'AMDR'
|
|
endif
|
|
|
|
if(ihiggs.eq.0) then
|
|
if(smwdth.ne.0.D0) then
|
|
write(nout,99)
|
|
write(nout,100) 25,smwdth,'SM Higgs decays'
|
|
|
|
write(nout,101)
|
|
|
|
if(smbrb.ne.0.D0) then
|
|
write(nout,102) smbrb,2,ib,ibb ,'BR(H -> b bb )'
|
|
endif
|
|
if(smbrl.ne.0.D0) then
|
|
write(nout,102) smbrl,2,-itau,itau ,'BR(H -> tau+ tau- )'
|
|
endif
|
|
if(smbrm.ne.0.D0) then
|
|
write(nout,102) smbrm,2,-imu,imu ,'BR(H -> mu+ mu- )'
|
|
endif
|
|
if(smbrs.ne.0.D0) then
|
|
write(nout,102) smbrs,2,is,isb ,'BR(H -> s sb )'
|
|
endif
|
|
if(smbrc.ne.0.D0) then
|
|
write(nout,102) smbrc,2,ic,icb ,'BR(H -> c cb )'
|
|
endif
|
|
if(smbrt.ne.0.D0) then
|
|
write(nout,102) smbrt,2,it,itb ,'BR(H -> t tb )'
|
|
endif
|
|
if(smbrg.ne.0.D0) then
|
|
write(nout,102) smbrg,2,igl,igl ,'BR(H -> g g )'
|
|
endif
|
|
if(smbrga.ne.0.D0) then
|
|
write(nout,102) smbrga,2,iga,iga ,'BR(H -> gam gam )'
|
|
endif
|
|
if(smbrzga.ne.0.D0) then
|
|
write(nout,102) smbrzga,2,iga,iz ,'BR(H -> Z gam )'
|
|
endif
|
|
if(smbrw.ne.0.D0) then
|
|
write(nout,102) smbrw,2,iwc,-iwc ,'BR(H -> W+ W- )'
|
|
endif
|
|
if(smbrz.ne.0.D0) then
|
|
write(nout,102) smbrz,2,iz,iz ,'BR(H -> Z Z )'
|
|
endif
|
|
|
|
elseif(smwdth.eq.0.D0) then
|
|
write(nout,99)
|
|
write(nout,100) 25,0.000000000E+00,'SM Higgs decays'
|
|
|
|
endif
|
|
endif
|
|
|
|
if(ihiggs.eq.1.or.ihiggs.eq.5) then
|
|
write(nout,105)
|
|
|
|
if(hlwdth.ne.0.D0) then
|
|
|
|
write(nout,99)
|
|
write(nout,100) 25,hlwdth,'h decays'
|
|
|
|
write(nout,101)
|
|
if(hlbrb.ne.0.D0) then
|
|
write(nout,102) hlbrb,2,ib,ibb ,'BR(h -> b bb )'
|
|
endif
|
|
if(hlbrl.ne.0.D0) then
|
|
write(nout,102) hlbrl,2,-itau,itau ,'BR(h -> tau+ tau- )'
|
|
endif
|
|
if(hlbrm.ne.0.D0) then
|
|
write(nout,102) hlbrm,2,-imu,imu ,'BR(h -> mu+ mu- )'
|
|
endif
|
|
if(hlbrs.ne.0.D0) then
|
|
write(nout,102) hlbrs,2,is,isb ,'BR(h -> s sb )'
|
|
endif
|
|
if(hlbrc.ne.0.D0) then
|
|
write(nout,102) hlbrc,2,ic,icb ,'BR(h -> c cb )'
|
|
endif
|
|
if(hlbrt.ne.0.D0) then
|
|
write(nout,102) hlbrt,2,it,itb ,'BR(h -> t tb )'
|
|
endif
|
|
if(hlbrg.ne.0.D0) then
|
|
write(nout,102) hlbrg,2,igl,igl ,'BR(h -> g g )'
|
|
endif
|
|
if(hlbrga.ne.0.D0) then
|
|
write(nout,102) hlbrga,2,iga,iga ,'BR(h -> gam gam )'
|
|
endif
|
|
if(hlbrzga.ne.0.D0) then
|
|
write(nout,102) hlbrzga,2,iga,iz ,'BR(h -> Z gam )'
|
|
endif
|
|
if(hlbrw.ne.0.D0) then
|
|
write(nout,102) hlbrw,2,iwc,-iwc ,'BR(h -> W+ W- )'
|
|
endif
|
|
if(hlbrz.ne.0.D0) then
|
|
write(nout,102) hlbrz,2,iz,iz ,'BR(h -> Z Z )'
|
|
endif
|
|
if(hlbra.ne.0.D0) then
|
|
write(nout,102) hlbra,2,iha,iha ,'BR(h -> A A )'
|
|
endif
|
|
if(hlbraz.ne.0.D0) then
|
|
write(nout,102) hlbraz,2,iz,iha ,'BR(h -> Z A )'
|
|
endif
|
|
if(hlbrhw.ne.0.D0) then
|
|
write(nout,102) hlbrhw/2.D0,2,iwc,-ihc,'BR(h -> W+ H- )'
|
|
endif
|
|
if(hlbrhw.ne.0.D0) then
|
|
write(nout,102) hlbrhw/2.D0,2,-iwc,ihc,'BR(h -> W- H+ )'
|
|
endif
|
|
if(hlbrchch.ne.0.D0) then
|
|
write(nout,102) hlbrchch,2,ihc,-ihc, 'BR(h -> H+ H- )'
|
|
endif
|
|
if(hlbrsc(1,1).ne.0.D0) then
|
|
write(nout,102) hlbrsc(1,1),2,ic1,-ic1,'BR(h -> ~chi_1+ ~chi_1-)'
|
|
endif
|
|
if(hlbrsc(2,2).ne.0.D0) then
|
|
write(nout,102) hlbrsc(2,2),2,ic2,-ic2,'BR(h -> ~chi_2+ ~chi_2-)'
|
|
endif
|
|
if(hlbrsc(1,2).ne.0.D0) then
|
|
write(nout,102) hlbrsc(1,2),2,ic1,-ic2,'BR(h -> ~chi_1+ ~chi_2-)'
|
|
endif
|
|
if(hlbrsc(2,1).ne.0.D0) then
|
|
write(nout,102) hlbrsc(2,1),2,ic2,-ic1,'BR(h -> ~chi_2+ ~chi_1-)'
|
|
endif
|
|
hlbrsn1(1,2) = 2.D0*hlbrsn(1,2)
|
|
hlbrsn1(1,3) = 2.D0*hlbrsn(1,3)
|
|
hlbrsn1(1,4) = 2.D0*hlbrsn(1,4)
|
|
hlbrsn1(2,3) = 2.D0*hlbrsn(2,3)
|
|
hlbrsn1(2,4) = 2.D0*hlbrsn(2,4)
|
|
hlbrsn1(3,4) = 2.D0*hlbrsn(3,4)
|
|
if(hlbrsn(1,1).ne.0.D0) then
|
|
write(nout,102) hlbrsn(1,1),2,in1,in1 ,'BR(h -> ~chi_10 ~chi_10)'
|
|
endif
|
|
if(hlbrsn(2,2).ne.0.D0) then
|
|
write(nout,102) hlbrsn(2,2),2,in2,in2 ,'BR(h -> ~chi_20 ~chi_20)'
|
|
endif
|
|
if(hlbrsn(3,3).ne.0.D0) then
|
|
write(nout,102) hlbrsn(3,3),2,in3,in3 ,'BR(h -> ~chi_30 ~chi_30)'
|
|
endif
|
|
if(hlbrsn(4,4).ne.0.D0) then
|
|
write(nout,102) hlbrsn(4,4),2,in4,in4 ,'BR(h -> ~chi_40 ~chi_40)'
|
|
endif
|
|
if(hlbrsn(1,2).ne.0.D0) then
|
|
write(nout,102) hlbrsn1(1,2),2,in1,in2,'BR(h -> ~chi_10 ~chi_20)'
|
|
endif
|
|
if(hlbrsn(1,3).ne.0.D0) then
|
|
write(nout,102) hlbrsn1(1,3),2,in1,in3,'BR(h -> ~chi_10 ~chi_30)'
|
|
endif
|
|
if(hlbrsn(1,4).ne.0.D0) then
|
|
write(nout,102) hlbrsn1(1,4),2,in1,in4,'BR(h -> ~chi_10 ~chi_40)'
|
|
endif
|
|
if(hlbrsn(2,3).ne.0.D0) then
|
|
write(nout,102) hlbrsn1(2,3),2,in2,in3,'BR(h -> ~chi_20 ~chi_30)'
|
|
endif
|
|
if(hlbrsn(2,4).ne.0.D0) then
|
|
write(nout,102) hlbrsn1(2,4),2,in2,in4,'BR(h -> ~chi_20 ~chi_40)'
|
|
endif
|
|
if(hlbrsn(3,4).ne.0.D0) then
|
|
write(nout,102) hlbrsn1(3,4),2,in3,in4,'BR(h -> ~chi_30 ~chi_40)'
|
|
endif
|
|
bhlslnl1 = bhlslnl/3.D0
|
|
bhlslel1 = bhlslel/2.D0
|
|
bhlsler1 = bhlsler/2.D0
|
|
bhlsqul1 = bhlsqul/2.d0
|
|
bhlsqur1 = bhlsqur/2.d0
|
|
bhlsqdl1 = bhlsqdl/2.d0
|
|
bhlsqdr1 = bhlsqdr/2.d0
|
|
if(bhlsqul1.ne.0.D0) then
|
|
write(nout,102) bhlsqul1,2,isul,-isul ,'BR(h -> ~u_L ~u_L* )'
|
|
endif
|
|
if(bhlsqur1.ne.0.D0) then
|
|
write(nout,102) bhlsqur1,2,isur,-isur ,'BR(h -> ~u_R ~u_R* )'
|
|
endif
|
|
if(bhlsqul1.ne.0.D0) then
|
|
write(nout,102) bhlsqul1,2,iscl,-iscl ,'BR(h -> ~c_L ~c_L* )'
|
|
endif
|
|
if(bhlsqur1.ne.0.D0) then
|
|
write(nout,102) bhlsqur1,2,iscr,-iscr ,'BR(h -> ~c_R ~c_R* )'
|
|
endif
|
|
if(bhlst(1,1).ne.0.D0) then
|
|
write(nout,102) bhlst(1,1),2,ist1,-ist1,'BR(h -> ~t_1 ~t_1* )'
|
|
endif
|
|
if(bhlst(2,2).ne.0.D0) then
|
|
write(nout,102) bhlst(2,2),2,ist2,-ist2,'BR(h -> ~t_2 ~t_2* )'
|
|
endif
|
|
if(bhlst(1,2).ne.0.D0) then
|
|
write(nout,102) bhlst(1,2),2,ist1,-ist2,'BR(h -> ~t_1 ~t_2* )'
|
|
endif
|
|
if(bhlst(2,1).ne.0.D0) then
|
|
write(nout,102) bhlst(2,1),2,ist2,-ist1,'BR(h -> ~t_2 ~t_1* )'
|
|
endif
|
|
if(bhlsqdl1.ne.0.D0) then
|
|
write(nout,102) bhlsqdl1,2,isdl,-isdl ,'BR(h -> ~d_L ~d_L* )'
|
|
endif
|
|
if(bhlsqdr1.ne.0.D0) then
|
|
write(nout,102) bhlsqdr1,2,isdr,-isdr ,'BR(h -> ~d_R ~d_R* )'
|
|
endif
|
|
if(bhlsqdl1.ne.0.D0) then
|
|
write(nout,102) bhlsqdl1,2,issl,-issl ,'BR(h -> ~s_L ~s_L* )'
|
|
endif
|
|
if(bhlsqdr1.ne.0.D0) then
|
|
write(nout,102) bhlsqdr1,2,issr,-issr ,'BR(h -> ~s_R ~s_R* )'
|
|
endif
|
|
if(bhlsb(1,1).ne.0.D0) then
|
|
write(nout,102) bhlsb(1,1),2,isb1,-isb1,'BR(h -> ~b_1 ~b_1* )'
|
|
endif
|
|
if(bhlsb(2,2).ne.0.D0) then
|
|
write(nout,102) bhlsb(2,2),2,isb2,-isb2,'BR(h -> ~b_2 ~b_2* )'
|
|
endif
|
|
if(bhlsb(1,2).ne.0.D0) then
|
|
write(nout,102) bhlsb(1,2),2,isb1,-isb2,'BR(h -> ~b_1 ~b_2* )'
|
|
endif
|
|
if(bhlsb(2,1).ne.0.D0) then
|
|
write(nout,102) bhlsb(2,1),2,isb2,-isb1,'BR(h -> ~b_2 ~b_1* )'
|
|
endif
|
|
if(bhlslel1.ne.0.D0) then
|
|
write(nout,102) bhlslel1,2,isell,-isell,'BR(h -> ~e_L- ~e_L+ )'
|
|
endif
|
|
if(bhlsler1.ne.0.D0) then
|
|
write(nout,102) bhlsler1,2,iselr,-iselr,'BR(h -> ~e_R- ~e_R+ )'
|
|
endif
|
|
if(bhlslel1.ne.0.D0) then
|
|
write(nout,102) bhlslel1,2,ismul,-ismul,'BR(h -> ~mu_L- ~mu_L+ )'
|
|
endif
|
|
if(bhlsler1.ne.0.D0) then
|
|
write(nout,102) bhlsler1,2,ismur,-ismur,'BR(h -> ~mu_R- ~mu_R+ )'
|
|
endif
|
|
if(bhlstau(1,1).ne.0.D0) then
|
|
write(nout,102) bhlstau(1,1),2,istau1,-istau1,'BR(h -> ~tau_1- ~ta
|
|
.u_1+)'
|
|
endif
|
|
if(bhlstau(2,2).ne.0.D0) then
|
|
write(nout,102) bhlstau(2,2),2,istau2,-istau2,'BR(h -> ~tau_2- ~ta
|
|
.u_2+)'
|
|
endif
|
|
if(bhlstau(1,2).ne.0.D0) then
|
|
write(nout,102) bhlstau(1,2),2,istau1,-istau2,'BR(h -> ~tau_1- ~ta
|
|
.u_2+)'
|
|
endif
|
|
if(bhlstau(2,1).ne.0.D0) then
|
|
write(nout,102) bhlstau(2,1),2,istau2,-istau1,'BR(h -> ~tau_2- ~ta
|
|
.u_1+)'
|
|
endif
|
|
if(bhlslnl1.ne.0.D0) then
|
|
write(nout,102) bhlslnl1,2,inel,-inel ,'BR(h -> ~nu_eL ~nu_eL*
|
|
. )'
|
|
write(nout,102) bhlslnl1,2,inmul,-inmul,'BR(h -> ~nu_muL ~nu_muL*
|
|
. )'
|
|
write(nout,102) bhlslnl1,2,intau1,-intau1,'BR(h -> ~nu_tauL ~nu_ta
|
|
.uL*)'
|
|
endif
|
|
|
|
elseif(hlwdth.eq.0.D0) then
|
|
write(nout,99)
|
|
write(nout,100) 25,0.000000000E+00,'h decays'
|
|
|
|
endif
|
|
endif
|
|
|
|
if(ihiggs.eq.2.or.ihiggs.eq.5) then
|
|
write(nout,105)
|
|
|
|
if(hhwdth.ne.0.D0) then
|
|
write(nout,99)
|
|
write(nout,100) 35,hhwdth,'H decays'
|
|
|
|
write(nout,101)
|
|
if(hhbrb.ne.0.D0) then
|
|
write(nout,102) hhbrb,2,ib,ibb ,'BR(H -> b bb )'
|
|
endif
|
|
if(hhbrl.ne.0.D0) then
|
|
write(nout,102) hhbrl,2,-itau,itau ,'BR(H -> tau+ tau- )'
|
|
endif
|
|
if(hhbrm.ne.0.D0) then
|
|
write(nout,102) hhbrm,2,-imu,imu ,'BR(H -> mu+ mu- )'
|
|
endif
|
|
if(hhbrs.ne.0.D0) then
|
|
write(nout,102) hhbrs,2,is,isb ,'BR(H -> s sb )'
|
|
endif
|
|
if(hhbrc.ne.0.D0) then
|
|
write(nout,102) hhbrc,2,ic,icb ,'BR(H -> c cb )'
|
|
endif
|
|
if(hhbrt.ne.0.D0) then
|
|
write(nout,102) hhbrt,2,it,itb ,'BR(H -> t tb )'
|
|
endif
|
|
if(hhbrg.ne.0.D0) then
|
|
write(nout,102) hhbrg,2,igl,igl ,'BR(H -> g g )'
|
|
endif
|
|
if(hhbrga.ne.0.D0) then
|
|
write(nout,102) hhbrga,2,iga,iga ,'BR(H -> gam gam )'
|
|
endif
|
|
if(hhbrzga.ne.0.D0) then
|
|
write(nout,102) hhbrzga,2,iz,iga ,'BR(H -> Z gam )'
|
|
endif
|
|
if(hhbrw.ne.0.D0) then
|
|
write(nout,102) hhbrw,2,iwc,-iwc ,'BR(H -> W+ W- )'
|
|
endif
|
|
if(hhbrz.ne.0.D0) then
|
|
write(nout,102) hhbrz,2,iz,iz ,'BR(H -> Z Z )'
|
|
endif
|
|
if(hhbrh.ne.0.D0) then
|
|
write(nout,102) hhbrh,2,ihl,ihl ,'BR(H -> h h )'
|
|
endif
|
|
if(hhbra.ne.0.D0) then
|
|
write(nout,102) hhbra,2,iha,iha ,'BR(H -> A A )'
|
|
endif
|
|
if(hhbraz.ne.0.D0) then
|
|
write(nout,102) hhbraz,2,iz,iha ,'BR(H -> Z A )'
|
|
endif
|
|
if(hhbrhw.ne.0.D0) then
|
|
write(nout,102) hhbrhw/2.D0,2,iwc,-ihc,'BR(H -> W+ H- )'
|
|
write(nout,102) hhbrhw/2.D0,2,-iwc,ihc,'BR(H -> W- H+ )'
|
|
endif
|
|
if(hhbrchch.ne.0.D0) then
|
|
write(nout,102) hhbrchch,2,ihc,-ihc, 'BR(H -> H+ H- )'
|
|
endif
|
|
if(hhbrsc(1,1).ne.0.D0) then
|
|
write(nout,102) hhbrsc(1,1),2,ic1,-ic1,'BR(H -> ~chi_1+ ~chi_1-)'
|
|
endif
|
|
if(hhbrsc(2,2).ne.0.D0) then
|
|
write(nout,102) hhbrsc(2,2),2,ic2,-ic2,'BR(H -> ~chi_2+ ~chi_2-)'
|
|
endif
|
|
if(hhbrsc(1,2).ne.0.D0) then
|
|
write(nout,102) hhbrsc(1,2),2,ic1,-ic2,'BR(H -> ~chi_1+ ~chi_2-)'
|
|
endif
|
|
if(hhbrsc(2,1).ne.0.D0) then
|
|
write(nout,102) hhbrsc(2,1),2,ic2,-ic1,'BR(H -> ~chi_2+ ~chi_1-)'
|
|
endif
|
|
if(hhbrsn(1,1).ne.0.D0) then
|
|
write(nout,102) hhbrsn(1,1),2,in1,in1 ,'BR(H -> ~chi_10 ~chi_10)'
|
|
endif
|
|
if(hhbrsn(2,2).ne.0.D0) then
|
|
write(nout,102) hhbrsn(2,2),2,in2,in2 ,'BR(H -> ~chi_20 ~chi_20)'
|
|
endif
|
|
if(hhbrsn(3,3).ne.0.D0) then
|
|
write(nout,102) hhbrsn(3,3),2,in3,in3 ,'BR(H -> ~chi_30 ~chi_30)'
|
|
endif
|
|
if(hhbrsn(4,4).ne.0.D0) then
|
|
write(nout,102) hhbrsn(4,4),2,in4,in4 ,'BR(H -> ~chi_40 ~chi_40)'
|
|
endif
|
|
hhbrsn1(1,2) = 2.D0*hhbrsn(1,2)
|
|
hhbrsn1(1,3) = 2.D0*hhbrsn(1,3)
|
|
hhbrsn1(1,4) = 2.D0*hhbrsn(1,4)
|
|
hhbrsn1(2,3) = 2.D0*hhbrsn(2,3)
|
|
hhbrsn1(2,4) = 2.D0*hhbrsn(2,4)
|
|
hhbrsn1(3,4) = 2.D0*hhbrsn(3,4)
|
|
if(hhbrsn1(1,2).ne.0.D0) then
|
|
write(nout,102) hhbrsn1(1,2),2,in1,in2,'BR(H -> ~chi_10 ~chi_20)'
|
|
endif
|
|
if(hhbrsn1(1,3).ne.0.D0) then
|
|
write(nout,102) hhbrsn1(1,3),2,in1,in3,'BR(H -> ~chi_10 ~chi_30)'
|
|
endif
|
|
if(hhbrsn1(1,4).ne.0.D0) then
|
|
write(nout,102) hhbrsn1(1,4),2,in1,in4,'BR(H -> ~chi_10 ~chi_40)'
|
|
endif
|
|
if(hhbrsn1(2,3).ne.0.D0) then
|
|
write(nout,102) hhbrsn1(2,3),2,in2,in3,'BR(H -> ~chi_20 ~chi_30)'
|
|
endif
|
|
if(hhbrsn1(2,4).ne.0.D0) then
|
|
write(nout,102) hhbrsn1(2,4),2,in2,in4,'BR(H -> ~chi_20 ~chi_40)'
|
|
endif
|
|
if(hhbrsn1(3,4).ne.0.D0) then
|
|
write(nout,102) hhbrsn1(3,4),2,in3,in4,'BR(H -> ~chi_30 ~chi_40)'
|
|
endif
|
|
bhhslnl1 = bhhslnl/3.D0
|
|
bhhslel1 = bhhslel/2.D0
|
|
bhhsler1 = bhhsler/2.D0
|
|
bhhsqul1 = bhhsqul/2.d0
|
|
bhhsqur1 = bhhsqur/2.d0
|
|
bhhsqdl1 = bhhsqdl/2.d0
|
|
bhhsqdr1 = bhhsqdr/2.d0
|
|
if(bhhsqul1.ne.0.D0) then
|
|
write(nout,102) bhhsqul1,2,isul,-isul ,'BR(H -> ~u_L ~u_L* )'
|
|
endif
|
|
if(bhhsqur1.ne.0.D0) then
|
|
write(nout,102) bhhsqur1,2,isur,-isur ,'BR(H -> ~u_R ~u_R* )'
|
|
endif
|
|
if(bhhsqul1.ne.0.D0) then
|
|
write(nout,102) bhhsqul1,2,iscl,-iscl ,'BR(H -> ~c_L ~c_L* )'
|
|
endif
|
|
if(bhhsqur1.ne.0.D0) then
|
|
write(nout,102) bhhsqur1,2,iscr,-iscr ,'BR(H -> ~c_R ~c_R* )'
|
|
endif
|
|
if(bhhst(1,1).ne.0.D0) then
|
|
write(nout,102) bhhst(1,1),2,ist1,-ist1,'BR(H -> ~t_1 ~t_1* )'
|
|
endif
|
|
if(bhhst(2,2).ne.0.D0) then
|
|
write(nout,102) bhhst(2,2),2,ist2,-ist2,'BR(H -> ~t_2 ~t_2* )'
|
|
endif
|
|
if(bhhst(1,2).ne.0.D0) then
|
|
write(nout,102) bhhst(1,2),2,ist1,-ist2,'BR(H -> ~t_1 ~t_2* )'
|
|
endif
|
|
if(bhhst(2,1).ne.0.D0) then
|
|
write(nout,102) bhhst(2,1),2,ist2,-ist1,'BR(H -> ~t_2 ~t_1* )'
|
|
endif
|
|
if(bhhsqdl1.ne.0.D0) then
|
|
write(nout,102) bhhsqdl1,2,isdl,-isdl ,'BR(H -> ~d_L ~d_L* )'
|
|
endif
|
|
if(bhhsqdr1.ne.0.D0) then
|
|
write(nout,102) bhhsqdr1,2,isdr,-isdr ,'BR(H -> ~d_R ~d_R* )'
|
|
endif
|
|
if(bhhsqdl1.ne.0.D0) then
|
|
write(nout,102) bhhsqdl1,2,issl,-issl ,'BR(H -> ~s_L ~s_L* )'
|
|
endif
|
|
if(bhhsqdr1.ne.0.D0) then
|
|
write(nout,102) bhhsqdr1,2,issr,-issr ,'BR(H -> ~s_R ~s_R* )'
|
|
endif
|
|
if(bhhsb(1,1).ne.0.D0) then
|
|
write(nout,102) bhhsb(1,1),2,isb1,-isb1,'BR(H -> ~b_1 ~b_1* )'
|
|
endif
|
|
if(bhhsb(2,2).ne.0.D0) then
|
|
write(nout,102) bhhsb(2,2),2,isb2,-isb2,'BR(H -> ~b_2 ~b_2* )'
|
|
endif
|
|
if(bhhsb(1,2).ne.0.D0) then
|
|
write(nout,102) bhhsb(1,2),2,isb1,-isb2,'BR(H -> ~b_1 ~b_2* )'
|
|
endif
|
|
if(bhhsb(2,1).ne.0.D0) then
|
|
write(nout,102) bhhsb(2,1),2,isb2,-isb1,'BR(H -> ~b_2 ~b_1* )'
|
|
endif
|
|
if(bhhslel1.ne.0.D0) then
|
|
write(nout,102) bhhslel1,2,isell,-isell,'BR(H -> ~e_L- ~e_L+ )'
|
|
endif
|
|
if(bhhsler1.ne.0.D0) then
|
|
write(nout,102) bhhsler1,2,iselr,-iselr,'BR(H -> ~e_R- ~e_R+ )'
|
|
endif
|
|
if(bhhslel1.ne.0.D0) then
|
|
write(nout,102) bhhslel1,2,ismul,-ismul,'BR(H -> ~mu_L- ~mu_L+ )'
|
|
endif
|
|
if(bhhsler1.ne.0.D0) then
|
|
write(nout,102) bhhsler1,2,ismur,-ismur,'BR(H -> ~mu_R- ~mu_R+ )'
|
|
endif
|
|
if(bhhstau(1,1).ne.0.D0) then
|
|
write(nout,102) bhhstau(1,1),2,istau1,-istau1,'BR(H -> ~tau_1- ~ta
|
|
.u_1+)'
|
|
endif
|
|
if(bhhstau(2,2).ne.0.D0) then
|
|
write(nout,102) bhhstau(2,2),2,istau2,-istau2,'BR(H -> ~tau_2- ~ta
|
|
.u_2+)'
|
|
endif
|
|
if(bhhstau(1,2).ne.0.D0) then
|
|
write(nout,102) bhhstau(1,2),2,istau1,-istau2,'BR(H -> ~tau_1- ~ta
|
|
.u_2+)'
|
|
endif
|
|
if(bhhstau(2,1).ne.0.D0) then
|
|
write(nout,102) bhhstau(2,1),2,istau2,-istau1,'BR(H -> ~tau_2- ~ta
|
|
.u_1+)'
|
|
endif
|
|
if(bhhslnl1.ne.0.D0) then
|
|
write(nout,102) bhhslnl1,2,inel,-inel ,'BR(H -> ~nu_eL ~nu_eL*
|
|
. )'
|
|
write(nout,102) bhhslnl1,2,inmul,-inmul,'BR(H -> ~nu_muL ~nu_muL*
|
|
. )'
|
|
write(nout,102) bhhslnl1,2,intau1,-intau1,'BR(H -> ~nu_tauL ~nu_ta
|
|
.uL*)'
|
|
endif
|
|
|
|
elseif(hhwdth.eq.0.D0) then
|
|
write(nout,99)
|
|
write(nout,100) 35,0.000000000E+00,'H decays'
|
|
|
|
endif
|
|
endif
|
|
|
|
if(ihiggs.eq.3.or.ihiggs.eq.5) then
|
|
write(nout,105)
|
|
|
|
if(awdth.ne.0.D0) then
|
|
write(nout,99)
|
|
write(nout,100) 36,awdth,'A decays'
|
|
|
|
write(nout,101)
|
|
if(abrb.ne.0.D0) then
|
|
write(nout,102) abrb,2,ib,ibb ,'BR(A -> b bb )'
|
|
endif
|
|
if(abrl.ne.0.D0) then
|
|
write(nout,102) abrl,2,-itau,itau ,'BR(A -> tau+ tau- )'
|
|
endif
|
|
if(abrm.ne.0.D0) then
|
|
write(nout,102) abrm,2,-imu,imu ,'BR(A -> mu+ mu- )'
|
|
endif
|
|
if(abrs.ne.0.D0) then
|
|
write(nout,102) abrs,2,is,isb ,'BR(A -> s sb )'
|
|
endif
|
|
if(abrc.ne.0.D0) then
|
|
write(nout,102) abrc,2,ic,icb ,'BR(A -> c cb )'
|
|
endif
|
|
if(abrt.ne.0.D0) then
|
|
write(nout,102) abrt,2,it,itb ,'BR(A -> t tb )'
|
|
endif
|
|
if(abrg.ne.0.D0) then
|
|
write(nout,102) abrg,2,igl,igl ,'BR(A -> g g )'
|
|
endif
|
|
if(abrga.ne.0.D0) then
|
|
write(nout,102) abrga,2,iga,iga ,'BR(A -> gam gam )'
|
|
endif
|
|
if(abrzga.ne.0.D0) then
|
|
write(nout,102) abrzga,2,iz,iga ,'BR(A -> Z gam )'
|
|
endif
|
|
if(abrz.ne.0.D0) then
|
|
write(nout,102) abrz,2,iz,ihl ,'BR(A -> Z h )'
|
|
endif
|
|
if(habrsc(1,1).ne.0.D0) then
|
|
write(nout,102) habrsc(1,1),2,ic1,-ic1,'BR(A -> ~chi_1+ ~chi_1-)'
|
|
endif
|
|
if(habrsc(2,2).ne.0.D0) then
|
|
write(nout,102) habrsc(2,2),2,ic2,-ic2,'BR(A -> ~chi_2+ ~chi_2-)'
|
|
endif
|
|
if(habrsc(1,2).ne.0.D0) then
|
|
write(nout,102) habrsc(1,2),2,ic1,-ic2,'BR(A -> ~chi_1+ ~chi_2-)'
|
|
endif
|
|
if(habrsc(2,1).ne.0.D0) then
|
|
write(nout,102) habrsc(2,1),2,ic2,-ic1,'BR(A -> ~chi_2+ ~chi_1-)'
|
|
endif
|
|
habrsn1(1,2) = 2.D0*habrsn(1,2)
|
|
habrsn1(1,3) = 2.D0*habrsn(1,3)
|
|
habrsn1(1,4) = 2.D0*habrsn(1,4)
|
|
habrsn1(2,3) = 2.D0*habrsn(2,3)
|
|
habrsn1(2,4) = 2.D0*habrsn(2,4)
|
|
habrsn1(3,4) = 2.D0*habrsn(3,4)
|
|
if(habrsn(1,1).ne.0.D0) then
|
|
write(nout,102) habrsn(1,1),2,in1,in1 ,'BR(A -> ~chi_10 ~chi_10)'
|
|
endif
|
|
if(habrsn(2,2).ne.0.D0) then
|
|
write(nout,102) habrsn(2,2),2,in2,in2 ,'BR(A -> ~chi_20 ~chi_20)'
|
|
endif
|
|
if(habrsn(3,3).ne.0.D0) then
|
|
write(nout,102) habrsn(3,3),2,in3,in3 ,'BR(A -> ~chi_30 ~chi_30)'
|
|
endif
|
|
if(habrsn(4,4).ne.0.D0) then
|
|
write(nout,102) habrsn(4,4),2,in4,in4 ,'BR(A -> ~chi_40 ~chi_40)'
|
|
endif
|
|
if(habrsn1(1,2).ne.0.D0) then
|
|
write(nout,102) habrsn1(1,2),2,in1,in2,'BR(A -> ~chi_10 ~chi_20)'
|
|
endif
|
|
if(habrsn1(1,3).ne.0.D0) then
|
|
write(nout,102) habrsn1(1,3),2,in1,in3,'BR(A -> ~chi_10 ~chi_30)'
|
|
endif
|
|
if(habrsn1(1,4).ne.0.D0) then
|
|
write(nout,102) habrsn1(1,4),2,in1,in4,'BR(A -> ~chi_10 ~chi_40)'
|
|
endif
|
|
if(habrsn1(2,3).ne.0.D0) then
|
|
write(nout,102) habrsn1(2,3),2,in2,in3,'BR(A -> ~chi_20 ~chi_30)'
|
|
endif
|
|
if(habrsn1(2,4).ne.0.D0) then
|
|
write(nout,102) habrsn1(2,4),2,in2,in4,'BR(A -> ~chi_20 ~chi_40)'
|
|
endif
|
|
if(habrsn1(3,4).ne.0.D0) then
|
|
write(nout,102) habrsn1(3,4),2,in3,in4,'BR(A -> ~chi_30 ~chi_40)'
|
|
endif
|
|
if(habrst.ne.0.D0) then
|
|
write(nout,102) habrst/2.D0,2,ist1,-ist2,'BR(A -> ~t_1 ~t_2* )
|
|
.'
|
|
write(nout,102) habrst/2.D0,2,-ist1,ist2,'BR(A -> ~t_1* ~t_2 )
|
|
.'
|
|
endif
|
|
if(habrsb.ne.0.D0) then
|
|
write(nout,102) habrsb/2.D0,2,isb1,-isb2,'BR(A -> ~b_1 ~b_2* )
|
|
.'
|
|
write(nout,102) habrsb/2.D0,2,-isb1,isb2,'BR(A -> ~b_1* ~b_2 )
|
|
.'
|
|
endif
|
|
if(habrsl.ne.0.D0) then
|
|
write(nout,102) habrsl/2.D0,2,istau1,-istau2,'BR(A -> ~tau_1- ~tau
|
|
._2+)'
|
|
write(nout,102) habrsl/2.D0,2,-istau1,istau2,'BR(A -> ~tau_1+ ~tau
|
|
._2-)'
|
|
endif
|
|
|
|
elseif(awdth.eq.0.D0) then
|
|
write(nout,99)
|
|
write(nout,100) 36,0.000000000E+00,'A decays'
|
|
|
|
endif
|
|
endif
|
|
|
|
if(ihiggs.eq.4.or.ihiggs.eq.5) then
|
|
write(nout,105)
|
|
|
|
if(hcwdth.ne.0.D0) then
|
|
write(nout,99)
|
|
write(nout,100) 37,hcwdth,'H+ decays'
|
|
|
|
write(nout,101)
|
|
if(hcbrb.ne.0.D0) then
|
|
write(nout,102) hcbrb,2,ic,ibb ,'BR(H+ -> c bb )'
|
|
endif
|
|
if(hcbrl.ne.0.D0) then
|
|
write(nout,102) hcbrl,2,-itau,intau ,'BR(H+ -> tau+ nu_tau )'
|
|
endif
|
|
if(hcbrm.ne.0.D0) then
|
|
write(nout,102) hcbrm,2,-imu,inmu ,'BR(H+ -> mu+ nu_mu )'
|
|
endif
|
|
if(hcbrbu.ne.0.D0) then
|
|
write(nout,102) hcbrbu,2,iu,ibb ,'BR(H+ -> u bb )'
|
|
endif
|
|
if(hcbrs.ne.0.D0) then
|
|
write(nout,102) hcbrs,2,iu,isb ,'BR(H+ -> u sb )'
|
|
endif
|
|
if(hcbrcd.ne.0.D0) then
|
|
write(nout,102) hcbrcd,2,ic,idb ,'BR(H+ -> c db )'
|
|
endif
|
|
if(hcbrc.ne.0.D0) then
|
|
write(nout,102) hcbrc,2,ic,isb ,'BR(H+ -> c sb )'
|
|
endif
|
|
if(hcbrt.ne.0.D0) then
|
|
write(nout,102) hcbrt,2,it,ibb ,'BR(H+ -> t bb )'
|
|
endif
|
|
if(hcbrts.ne.0.D0) then
|
|
write(nout,102) hcbrts,2,it,isb ,'BR(H+ -> t sb )'
|
|
endif
|
|
if(hcbrtd.ne.0.D0) then
|
|
write(nout,102) hcbrtd,2,it,idb ,'BR(H+ -> t db )'
|
|
endif
|
|
if(hcbrw.ne.0.D0) then
|
|
write(nout,102) hcbrw,2,iwc,ihl ,'BR(H+ -> W+ h )'
|
|
endif
|
|
if(hcbrwhh.ne.0.D0) then
|
|
write(nout,102) hcbrwhh,2,iwc,ihh ,'BR(H+ -> W+ H )'
|
|
endif
|
|
if(hcbra.ne.0.D0) then
|
|
write(nout,102) hcbra,2,iwc,iha ,'BR(H+ -> W+ A )'
|
|
endif
|
|
if(hcbrsu(1,1).ne.0.D0) then
|
|
write(nout,102) hcbrsu(1,1),2,ic1,in1 ,'BR(H+ -> ~chi_1+ ~chi_10)'
|
|
endif
|
|
if(hcbrsu(1,2).ne.0.D0) then
|
|
write(nout,102) hcbrsu(1,2),2,ic1,in2 ,'BR(H+ -> ~chi_1+ ~chi_20)'
|
|
endif
|
|
if(hcbrsu(1,3).ne.0.D0) then
|
|
write(nout,102) hcbrsu(1,3),2,ic1,in3 ,'BR(H+ -> ~chi_1+ ~chi_30)'
|
|
endif
|
|
if(hcbrsu(1,4).ne.0.D0) then
|
|
write(nout,102) hcbrsu(1,4),2,ic1,in4 ,'BR(H+ -> ~chi_1+ ~chi_40)'
|
|
endif
|
|
if(hcbrsu(2,1).ne.0.D0) then
|
|
write(nout,102) hcbrsu(2,1),2,ic2,in1 ,'BR(H+ -> ~chi_2+ ~chi_10)'
|
|
endif
|
|
if(hcbrsu(2,2).ne.0.D0) then
|
|
write(nout,102) hcbrsu(2,2),2,ic2,in2 ,'BR(H+ -> ~chi_2+ ~chi_20)'
|
|
endif
|
|
if(hcbrsu(2,3).ne.0.D0) then
|
|
write(nout,102) hcbrsu(2,3),2,ic2,in3 ,'BR(H+ -> ~chi_2+ ~chi_30)'
|
|
endif
|
|
if(hcbrsu(2,4).ne.0.D0) then
|
|
write(nout,102) hcbrsu(2,4),2,ic2,in4 ,'BR(H+ -> ~chi_2+ ~chi_40)'
|
|
endif
|
|
bhcsl02=bhcsl00/2.D0
|
|
if(bhcsl02.ne.0.D0) then
|
|
write(nout,102) bhcsl02,2,-isell,inel ,'BR(H+ -> ~e_L+ ~nu_eL )'
|
|
write(nout,102) bhcsl02,2,-ismul,inmul,'BR(H+ -> ~mu_L+ ~nu_muL)'
|
|
endif
|
|
if(bhcsl11.ne.0.D0) then
|
|
write(nout,102) bhcsl11,2,-istau1,intau1,'BR(H+ -> ~tau_1+ ~nu_tau
|
|
.L)'
|
|
endif
|
|
if(bhcsl21.ne.0.D0) then
|
|
write(nout,102) bhcsl21,2,-istau2,intau1,'BR(H+ -> ~tau_2+ ~nu_tau
|
|
.L)'
|
|
endif
|
|
hcbrsq1=hcbrsq/2.D0
|
|
if(hcbrsq1.ne.0.D0) then
|
|
write(nout,102) hcbrsq1,2,isul,-isdl ,'BR(H+ -> ~u_L ~d_L* )'
|
|
write(nout,102) hcbrsq1,2,iscl,-issl ,'BR(H+ -> ~c_L ~s_L* )'
|
|
endif
|
|
if(hcbrstb(1,1).ne.0.D0) then
|
|
write(nout,102) hcbrstb(1,1),2,ist1,-isb1,'BR(H+ -> ~t_1 ~b_1*
|
|
. )'
|
|
endif
|
|
if(hcbrstb(2,2).ne.0.D0) then
|
|
write(nout,102) hcbrstb(2,2),2,ist2,-isb2,'BR(H+ -> ~t_2 ~b_2*
|
|
. )'
|
|
endif
|
|
if(hcbrstb(1,2).ne.0.D0) then
|
|
write(nout,102) hcbrstb(1,2),2,ist1,-isb2,'BR(H+ -> ~t_1 ~b_2*
|
|
. )'
|
|
endif
|
|
if(hcbrstb(2,1).ne.0.D0) then
|
|
write(nout,102) hcbrstb(2,1),2,ist2,-isb1,'BR(H+ -> ~t_2 ~b_1*
|
|
. )'
|
|
endif
|
|
|
|
elseif(hcwdth.eq.0.D0) then
|
|
write(nout,99)
|
|
write(nout,100) 37,0.000000000E+00,'H+ decays'
|
|
|
|
endif
|
|
endif
|
|
|
|
if(ihiggs.ne.0) then
|
|
write(nout,105)
|
|
|
|
if(hcwdth.ne.0.D0) then
|
|
write(nout,99)
|
|
write(nout,100) 6,gamt1,'top decays'
|
|
|
|
write(nout,101)
|
|
if(gamt0.ne.0.D0) then
|
|
write(nout,102) gamt0/gamt1,2,ib,iwc,'BR(t -> b W+ )'
|
|
endif
|
|
if(gamt1-gamt0.ne.0.D0) then
|
|
write(nout,102) (gamt1-gamt0)/gamt1,2,ib,ihc,
|
|
. 'BR(t -> b H+ )'
|
|
endif
|
|
|
|
elseif(gamt1.eq.0.D0) then
|
|
write(nout,99)
|
|
write(nout,100) 6,0.000000000E+00,'top decays'
|
|
|
|
endif
|
|
endif
|
|
|
|
49 format('#',1x,A,E16.8)
|
|
50 format('#',1x,A)
|
|
51 format('BLOCK',1x,A,2x,'#',1x,A)
|
|
551 format(1x,A,2x,'#',1x,A)
|
|
52 format(1x,I9,3x,1P,E16.8,0P,3x,'#',1x,A)
|
|
552 format(2x,E16.8,0P,3x,A)
|
|
53 format(1x,I2,1x,I2,3x,1P,E16.8,0P,3x,'#',1x,A)
|
|
54 format('BLOCK',1x,A,1P,E16.8,2x,'#',1x,A)
|
|
554 format(2x,A,1P,E16.8,2x,1x,A)
|
|
55 format(1x,I5,3x,1P,E16.8,0P,3x,'#',1x,A)
|
|
56 format(1x,I4,3x,'#',1x,A,E16.8)
|
|
57 format(1x,I5,3x,1P,E16.8,0P,3x,'#',1x,A,E16.8)
|
|
58 format(1x,I2,1x,I2,3x,'#',1x,A)
|
|
59 format(1x,I2,1x,I2,3x,1P,E16.8,0P,3x,'#',1x,A,E16.8)
|
|
60 format(9x,1P,E16.8,0P,3x,'#',1x,A)
|
|
61 format(1x,I5,3x,A)
|
|
661 format(2x,A)
|
|
62 format(1x,I5,1x,I5,3x,A)
|
|
662 format(2x,A)
|
|
63 format(1x,I5,3x,A,1x,'#',1x,A)
|
|
|
|
99 format('#',9x,'PDG',12x,'Width')
|
|
100 format('DECAY',1x,I9,3x,1P,E16.8,0P,3x,'#',1x,A)
|
|
101 format('#',10x,'BR',9x,'NDA',6x,'ID1',7x,'ID2')
|
|
102 format(3x,1P,E16.8,0P,3x,I2,3x,(I9,1x),(I9,1x),2x,'#',1x,A)
|
|
103 format('#',11x,'BR',9x,'NDA',6x,'ID1',7x,'ID2',7x,'ID3')
|
|
107 format('#',11x,'BR',9x,'NDA',6x,'ID1',7x,'ID2',7x,'ID3',7x,'ID4')
|
|
104 format(3x,1P,E16.8,0P,3x,I2,3x,(I9,1x),(I9,1x),(I9,1x),2x,'#',
|
|
.1x,A)
|
|
106 format(3x,1P,E16.8,0P,3x,I2,3x,(I9,1x),(I9,1x),(I9,1x),(I9,1x),
|
|
.2x,'#',1x,A)
|
|
105 format('#')
|
|
|
|
close(nout)
|
|
|
|
else
|
|
|
|
IF(IHIGGS.EQ.0)THEN
|
|
WRITE(NSA,20)AMSM,SMBRB,SMBRL,SMBRM,SMBRS,SMBRC,SMBRT
|
|
WRITE(NSB,20)AMSM,SMBRG,SMBRGA,SMBRZGA,SMBRW,SMBRZ,SMWDTH
|
|
IF(ISM4.NE.0)THEN
|
|
WRITE(NSC,20)AMSM,SMBRNUP,SMBREP,SMBRBP,SMBRTP
|
|
ENDIF
|
|
ENDIF
|
|
|
|
IF(IHIGGS.NE.0)THEN
|
|
WRITE(NTA,23)AMCH,GAMT0/GAMT1,(GAMT1-GAMT0)/GAMT1,GAMT1
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.1.OR.IHIGGS.EQ.5)THEN
|
|
WRITE(NLA,20)AML,HLBRB,HLBRL,HLBRM,HLBRS,HLBRC,HLBRT
|
|
c MMM changed 23/8/2013
|
|
if(i2hdm.eq.0) then
|
|
WRITE(NLB,20)AML,HLBRG,HLBRGA,HLBRZGA,HLBRW,HLBRZ,HLWDTH
|
|
elseif(i2hdm.eq.1) then
|
|
WRITE(NLB,22)AML,HLBRG,HLBRGA,HLBRZGA,HLBRW,HLBRZ
|
|
WRITE(NLC,20)AML,HLBRA,HLBRAZ,HLBRHW,HLBRCHCH,HLWDTH
|
|
endif
|
|
c end MMM changed 23/8/2013
|
|
IF(IOFSUSY.EQ.0)THEN
|
|
WRITE(NSUSYL,22)AML,HLBRCHT,HLBRNET,HLBRSL,HLBRSQT,HLBRGD
|
|
IF(INDIDEC.NE.0)THEN
|
|
WRITE(NSUSYLA,23)AML,HLBRSC(1,1),HLBRSC(2,2),
|
|
. HLBRSC(1,2)+HLBRSC(2,1)
|
|
WRITE(NSUSYLB,21)AML,HLBRSN(1,1),HLBRSN(2,2),HLBRSN(3,3),
|
|
. HLBRSN(4,4)
|
|
WRITE(NSUSYLC,20)AML,HLBRSN(1,2)+HLBRSN(2,1),
|
|
. HLBRSN(1,3)+HLBRSN(3,1),
|
|
. HLBRSN(1,4)+HLBRSN(4,1),
|
|
. HLBRSN(2,3)+HLBRSN(3,2),
|
|
. HLBRSN(2,4)+HLBRSN(4,2),
|
|
. HLBRSN(3,4)+HLBRSN(4,3)
|
|
WRITE(NSUSYLD,20)AML,BHLSLNL,BHLSLEL,BHLSLER,BHLSTAU(1,1),
|
|
. BHLSTAU(1,2)+BHLSTAU(2,1),BHLSTAU(2,2)
|
|
WRITE(NSUSYLE,21)AML,BHLSQUL,BHLSQUR,BHLSQDL,BHLSQDR
|
|
WRITE(NSUSYLF,20)AML,BHLSB(1,1),BHLSB(1,2)+BHLSB(2,1),BHLSB(2,2),
|
|
. BHLST(1,1),BHLST(1,2)+BHLST(2,1),BHLST(2,2)
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.2.OR.IHIGGS.EQ.5)THEN
|
|
WRITE(NHA,20)AMH,HHBRB,HHBRL,HHBRM,HHBRS,HHBRC,HHBRT
|
|
WRITE(NHB,20)AMH,HHBRG,HHBRGA,HHBRZGA,HHBRW,HHBRZ
|
|
WRITE(NHC,20)AMH,HHBRH,HHBRA,HHBRAZ,HHBRHW,HHBRCHCH,HHWDTH
|
|
IF(IOFSUSY.EQ.0)THEN
|
|
WRITE(NSUSYH,22)AMH,HHBRCHT,HHBRNET,HHBRSL,HHBRSQT,HHBRGD
|
|
IF(INDIDEC.NE.0)THEN
|
|
WRITE(NSUSYHA,23)AMH,HHBRSC(1,1),HHBRSC(2,2),
|
|
. HHBRSC(1,2)+HHBRSC(2,1)
|
|
WRITE(NSUSYHB,21)AMH,HHBRSN(1,1),HHBRSN(2,2),HHBRSN(3,3),
|
|
. HHBRSN(4,4)
|
|
WRITE(NSUSYHC,20)AMH,HHBRSN(1,2)+HHBRSN(2,1),
|
|
. HHBRSN(1,3)+HHBRSN(3,1),
|
|
. HHBRSN(1,4)+HHBRSN(4,1),
|
|
. HHBRSN(2,3)+HHBRSN(3,2),
|
|
. HHBRSN(2,4)+HHBRSN(4,2),
|
|
. HHBRSN(3,4)+HHBRSN(4,3)
|
|
WRITE(NSUSYHD,20)AMH,BHHSLNL,BHHSLEL,BHHSLER,BHHSTAU(1,1),
|
|
. BHHSTAU(1,2)+BHHSTAU(2,1),BHHSTAU(2,2)
|
|
WRITE(NSUSYHE,21)AMH,BHHSQUL,BHHSQUR,BHHSQDL,BHHSQDR
|
|
WRITE(NSUSYHF,20)AMH,BHHSB(1,1),BHHSB(1,2)+BHHSB(2,1),BHHSB(2,2),
|
|
. BHHST(1,1),BHHST(1,2)+BHHST(2,1),BHHST(2,2)
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.3.OR.IHIGGS.EQ.5)THEN
|
|
WRITE(NAA,20)AMA,ABRB,ABRL,ABRM,ABRS,ABRC,ABRT
|
|
c MMM changed 23/8/2013
|
|
if(i2hdm.eq.0) then
|
|
WRITE(NAB,22)AMA,ABRG,ABRGA,ABRZGA,ABRZ,AWDTH
|
|
elseif(i2hdm.eq.1) then
|
|
WRITE(NAB,22)AMA,ABRG,ABRGA,ABRZGA,ABRZ,ABRHHAZ
|
|
WRITE(NAC,24)AMA,ABRHAWPHM,AWDTH
|
|
endif
|
|
c end MMM changed 23/8/2013
|
|
IF(IOFSUSY.EQ.0)THEN
|
|
WRITE(NSUSYA,22)AMA,HABRCHT,HABRNET,HABRSL,HABRST+HABRSB,HABRGD
|
|
IF(INDIDEC.NE.0)THEN
|
|
WRITE(NSUSYAA,23)AMA,HABRSC(1,1),HABRSC(2,2),
|
|
. HABRSC(1,2)+HABRSC(2,1)
|
|
WRITE(NSUSYAB,21)AMA,HABRSN(1,1),HABRSN(2,2),HABRSN(3,3),
|
|
. HABRSN(4,4)
|
|
WRITE(NSUSYAC,20)AMA,HABRSN(1,2)+HABRSN(2,1),
|
|
. HABRSN(1,3)+HABRSN(3,1),
|
|
. HABRSN(1,4)+HABRSN(4,1),
|
|
. HABRSN(2,3)+HABRSN(3,2),
|
|
. HABRSN(2,4)+HABRSN(4,2),
|
|
. HABRSN(3,4)+HABRSN(4,3)
|
|
WRITE(NSUSYAD,23)AMA,BHASTAU,BHASB,BHAST
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.4.OR.IHIGGS.EQ.5)THEN
|
|
WRITE(NCA,20)AMCH,HCBRB,HCBRL,HCBRM,HCBRS,HCBRC,HCBRT
|
|
WRITE(NCB,22)AMCH,HCBRCD,HCBRBU,HCBRTS,HCBRTD
|
|
c MMM changed 23/8/2013
|
|
if(i2hdm.eq.0) then
|
|
WRITE(NCC,22)AMCH,HCBRW,HCBRA,HCWDTH
|
|
elseif(i2hdm.eq.1) then
|
|
WRITE(NCC,20)AMCH,HCBRW,HCBRWHH,HCBRA,HCWDTH
|
|
endif
|
|
c end MMM changed 23/8/2013
|
|
IF(IOFSUSY.EQ.0)THEN
|
|
WRITE(NSUSYC,21)AMCH,HCBRCNT,HCBRSL,HCBRSQT,HCBRGD
|
|
IF(INDIDEC.NE.0)THEN
|
|
WRITE(NSUSYCA,21)AMCH,HCBRSU(1,1),HCBRSU(1,2),
|
|
. HCBRSU(1,3),HCBRSU(1,4)
|
|
WRITE(NSUSYCB,21)AMCH,HCBRSU(2,1),HCBRSU(2,2),
|
|
. HCBRSU(2,3),HCBRSU(2,4)
|
|
WRITE(NSUSYCC,23)AMCH,BHCSL00,BHCSL11,BHCSL21
|
|
WRITE(NSUSYCD,22)AMCH,BHCSQ,BHCSTB(1,1),BHCSTB(1,2),
|
|
. BHCSTB(2,1),BHCSTB(2,2)
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
|
|
19 FORMAT(G12.6,7(1X,G10.4))
|
|
20 FORMAT(G12.6,6(1X,G10.4))
|
|
21 FORMAT(G12.6,4(1X,G10.4))
|
|
22 FORMAT(G12.6,5(1X,G10.4))
|
|
23 FORMAT(G12.6,3(1X,G10.4))
|
|
24 FORMAT(G12.6,2(1X,G10.4))
|
|
endif
|
|
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE CLOSE_HDEC
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
PARAMETER(K=6,NI=87,NSA=85,NSB=86,NLA=88,NLB=89,NHA=90,NHB=91,
|
|
. NHC=92,NAA=93,NAB=94,NCA=95,NCB=96,NCC=50,NRA=97,NRB=98,
|
|
. NSUSYL=81,NSUSYA=82,NSUSYH=83,NSUSYC=84,NPAR=80,NTA=99,
|
|
. NSUSYLA=79,NSUSYLB=78,NSUSYLC=77,NSUSYLD=76,NSUSYLE=75,
|
|
. NSUSYLF=59,NSUSYHF=58,NSC=57,
|
|
. NSUSYHA=74,NSUSYHB=73,NSUSYHC=72,NSUSYHD=71,NSUSYHE=70,
|
|
. NSUSYAA=69,NSUSYAB=68,NSUSYAC=67,NSUSYAD=66,NSUSYAE=65,
|
|
. NSUSYCA=64,NSUSYCB=63,NSUSYCC=62,NSUSYCD=61,NSUSYCE=60)
|
|
PARAMETER (NAC=31,NLC=32)
|
|
DIMENSION GMN(4),XMN(4),GMC(2),GMST(2),GMSB(2),GMSL(2),
|
|
. GMSU(2),GMSD(2),GMSE(2),GMSN(2),GMSN1(2)
|
|
DIMENSION HLBRSC(2,2),HLBRSN(4,4),HHBRSC(2,2),HHBRSN(4,4),
|
|
. HABRSC(2,2),HABRSN(4,4),HCBRSU(2,4),
|
|
. HHBRST(2,2),HHBRSB(2,2),HCBRSTB(2,2)
|
|
DIMENSION AC1(2,2),AC2(2,2),AC3(2,2),
|
|
. AN1(4,4),AN2(4,4),AN3(4,4),
|
|
. ACNL(2,4),ACNR(2,4)
|
|
DIMENSION GLTT(2,2),GLBB(2,2),GHTT(2,2),GHBB(2,2),GCTB(2,2),
|
|
. GLEE(2,2),GHEE(2,2),GCEN(2,2)
|
|
DIMENSION AGDL(4),AGDA(4),AGDH(4),AGDC(2)
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/STRANGE_HDEC/AMSB
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/CKMPAR_HDEC/VTB,VTS,VTD,VCB,VCS,VCD,VUB,VUS,VUD
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AML,AMH,AMCH,AMAR
|
|
COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
|
|
COMMON/BREAKGLU_HDEC/AMGLU
|
|
COMMON/SFER1ST_HDEC/AMQL1,AMUR1,AMDR1,AMEL1,AMER1
|
|
COMMON/GLUINO_HDEC/AMGLUINO,XMSB1,XMSB2,STHB,CTHB,
|
|
. XLBB(2,2),XHBB(2,2),XABB(2,2),
|
|
. XMST1,XMST2,STHT,CTHT,
|
|
. XLTT(2,2),XHTT(2,2),XATT(2,2)
|
|
COMMON/WZWDTH_HDEC/GAMC0,GAMT0,GAMT1,GAMW,GAMZ
|
|
COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,
|
|
. GHHH,GLLL,GHLL,GLHH,GHAA,GLAA,GLVV,GHVV,
|
|
. GLPM,GHPM,B,A
|
|
COMMON/ALS_HDEC/XLAMBDA,AMC0,AMB0,AMT0,N0
|
|
COMMON/FLAG_HDEC/IHIGGS,NNLO,IPOLE
|
|
COMMON/MODEL_HDEC/IMODEL
|
|
COMMON/ONSHELL_HDEC/IONSH,IONWZ,IOFSUSY
|
|
COMMON/OLDFASH_HDEC/NFGG
|
|
COMMON/WIDTHSM_HDEC/SMBRB,SMBRL,SMBRM,SMBRS,SMBRC,SMBRT,SMBRG,
|
|
. SMBRGA,SMBRZGA,SMBRW,SMBRZ,SMWDTH
|
|
COMMON/WIDTHA_HDEC/ABRB,ABRL,ABRM,ABRS,ABRC,ABRT,ABRG,ABRGA,
|
|
. ABRZGA,ABRZ,AWDTH
|
|
COMMON/WIDTHHL_HDEC/HLBRB,HLBRL,HLBRM,HLBRS,HLBRC,HLBRT,HLBRG,
|
|
. HLBRGA,HLBRZGA,HLBRW,HLBRZ,HLBRA,HLBRAZ,HLBRHW,
|
|
. HLWDTH
|
|
COMMON/WIDTHHH_HDEC/HHBRB,HHBRL,HHBRM,HHBRS,HHBRC,HHBRT,HHBRG,
|
|
. HHBRGA,HHBRZGA,HHBRW,HHBRZ,HHBRH,HHBRA,HHBRAZ,
|
|
. HHBRHW,HHWDTH
|
|
COMMON/WIDTHHC_HDEC/HCBRB,HCBRL,HCBRM,HCBRBU,HCBRS,HCBRC,HCBRT,
|
|
. HCBRW,HCBRA,HCWDTH
|
|
COMMON/WISUSY_HDEC/HLBRSC,HLBRSN,HHBRSC,HHBRSN,HABRSC,HABRSN,
|
|
. HCBRSU,HLBRCHT,HHBRCHT,HABRCHT,HLBRNET,HHBRNET,
|
|
. HABRNET,HCBRCNT,HLBRSL,HHBRSL,HCBRSL,HABRSL,HABRST,
|
|
. HABRSB,HHBRSQ,HHBRST,HHBRSB,HHBRSQT,HCBRSQ,HCBRSTB,
|
|
. HCBRSQT,HLBRSQ,HLBRSQT
|
|
COMMON/WISFER_HDEC/BHLSLNL,BHLSLEL,BHLSLER,BHLSQUL,BHLSQUR,
|
|
. BHLSQDL,BHLSQDR,BHLST(2,2),BHLSB(2,2),BHLSTAU(2,2),
|
|
. BHHSLNL,BHHSLEL,BHHSLER,BHHSQUL,BHHSQUR,BHHSQDL,
|
|
. BHHSQDR,BHHST(2,2),BHHSB(2,2),BHHSTAU(2,2),
|
|
. BHASTAU,BHASB,BHAST,
|
|
. BHCSL00,BHCSL11,BHCSL21,BHCSQ,BHCSTB(2,2)
|
|
COMMON/SMASS_HDEC/GMN,XMN,GMC,GMST,GMSB,GMSL,GMSU,GMSD,GMSE,GMSN
|
|
. ,GMSN1
|
|
COMMON/GOLDST_HDEC/AXMPL,AXMGD,IGOLD
|
|
COMMON/WIGOLD_HDEC/HLBRGD,HABRGD,HHBRGD,HCBRGD
|
|
COMMON/THDM_HDEC/TGBET2HDM,ALPH2HDM,AMHL2HDM,AMHH2HDM,
|
|
. AMHA2HDM,AMHC2HDM,AM12SQ,A1LAM2HDM,A2LAM2HDM,A3LAM2HDM,
|
|
. A4LAM2HDM,A5LAM2HDM,ITYPE2HDM,I2HDM,IPARAM2HDM
|
|
|
|
IF(IHIGGS.EQ.0) THEN
|
|
CLOSE(NSA)
|
|
CLOSE(NSB)
|
|
IF(ISM4.NE.0)THEN
|
|
CLOSE(NSC)
|
|
ENDIF
|
|
ENDIF
|
|
|
|
IF(IHIGGS.NE.0) THEN
|
|
CLOSE(NTA)
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.1.OR.IHIGGS.EQ.5) THEN
|
|
CLOSE(NLA)
|
|
CLOSE(NLB)
|
|
IF(I2HDM.NE.0) CLOSE(NLC)
|
|
CLOSE(NSUSYL)
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.2.OR.IHIGGS.EQ.5) THEN
|
|
CLOSE(NHA)
|
|
CLOSE(NHB)
|
|
CLOSE(NHC)
|
|
CLOSE(NSUSYH)
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.3.OR.IHIGGS.EQ.5) THEN
|
|
CLOSE(NAA)
|
|
CLOSE(NAB)
|
|
if(i2hdm.eq.1) then
|
|
close(nac)
|
|
endif
|
|
CLOSE(NSUSYA)
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.4.OR.IHIGGS.EQ.5) THEN
|
|
CLOSE(NCA)
|
|
CLOSE(NCB)
|
|
CLOSE(NCC)
|
|
CLOSE(NSUSYC)
|
|
ENDIF
|
|
|
|
RETURN
|
|
END
|
|
|
|
C =====================================================================
|
|
C =========== BEGINNING OF THE SUBROUTINE FOR THE DECAYS ==============
|
|
C !!!!!!!!!!!!!! Any change below this line is at your own risk!!!!!!!!
|
|
C =====================================================================
|
|
|
|
SUBROUTINE HDEC(TGBET)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DOUBLE PRECISION LAMB_HDEC
|
|
COMPLEX*16 CFACQ_HDEC,CFACSQ_HDEC,CKOFQ_HDEC,CKOFQ,CFACQ,CFACQ0
|
|
integer ivegas(4)
|
|
DIMENSION XX(4),YY(4)
|
|
DIMENSION AMCHAR(2),AMNEUT(4),XMNEUT(4),
|
|
. AC1(2,2),AC2(2,2),AC3(2,2),
|
|
. AN1(4,4),AN2(4,4),AN3(4,4),
|
|
. ACNL(2,4),ACNR(2,4),
|
|
. AMST(2),AMSB(2),AMSL(2),
|
|
. AMSU(2),AMSD(2),AMSE(2),AMSN(2),AMSN1(2),
|
|
. GLTT(2,2),GLBB(2,2),GLEE(2,2),
|
|
. GHTT(2,2),GHBB(2,2),GHEE(2,2),
|
|
. GCTB(2,2),GCEN(2,2)
|
|
DIMENSION GMST(2),GMSB(2),GMSL(2),GMSU(2),GMSD(2),GMSE(2),
|
|
. GMSN(2),GMSN1(2)
|
|
DIMENSION HLBRSC(2,2),HLBRSN(4,4),HHBRSC(2,2),
|
|
. HHBRSN(4,4),HABRSC(2,2),HABRSN(4,4),HCBRSU(2,4),
|
|
. HHBRST(2,2),HHBRSB(2,2),HCBRSTB(2,2)
|
|
DIMENSION WHLCH(2,2),WHLNE(4,4),WHHCH(2,2),WHHNE(4,4),
|
|
. WHACH(2,2),WHANE(4,4),WHCCN(2,4),
|
|
. WHHST(2,2),WHHSB(2,2),WHHSTAU(2,2),WHCSTB(2,2),
|
|
. WHLST(2,2),WHLSB(2,2),WHLSTAU(2,2)
|
|
DIMENSION WHHST0(2,2),WHHSB0(2,2)
|
|
DIMENSION WHLGD(4),WHCGD(2),WHHGD(4),WHAGD(4)
|
|
DIMENSION AGDL(4),AGDA(4),AGDH(4),AGDC(2)
|
|
DIMENSION slhaneut(4),slhaxneut(4),slhachar(2),slhau(2,2),
|
|
. slhav(2,2),slhaz(4,4),xmchar(2)
|
|
DIMENSION XGLBB(2,2),XGHBB(2,2),XGCTB(2,2)
|
|
DIMENSION XHGG(3),XHQQ(3)
|
|
COMPLEX*16 CF,CG,CI1,CI2,CA,CB,CTT,CTB,CTC,CTW,CLT,CLB,CLC,CLW,
|
|
. CAT,CAB,CAC,CAW,CAH,CTH,CLH,CX1,CX2,CAX1,CAX2,CTL,CAL,
|
|
. CSL,CSQ,CSB1,CSB2,CST1,CST2,CSL1,CSL2,
|
|
. CXL,CXQ,CXB1,CXB2,CXT1,CXT2,CXL1,CXL2
|
|
COMPLEX*16 CSEL,CSER,CSUL,CSUR,CSDL,CSDR,
|
|
. CXEL,CXER,CXUL,CXUR,CXDL,CXDR
|
|
COMPLEX*16 CAT0,CAB0,CAC0,CXUL0,CXUR0,CXDL0,CXDR0,CXB10,CXB20,
|
|
. CXT10,CXT20
|
|
COMPLEX*16 CLE
|
|
COMPLEX*16 CTTP,CTBP,CTEP,CLTP,CLBP,CLEP,CATP,CABP,CAEP
|
|
COMPLEX*16 CCTT0,CTT1,CTT2,CAT1,CAT2,CTRUN,CDCT,CDCTA
|
|
COMPLEX*16 CATP0,CABP0
|
|
COMPLEX*16 CAT00,CAB00,CAC00,CAL00,CAW00
|
|
COMPLEX*16 CATP00,CABP00,CAEP00
|
|
COMPLEX*16 CTOT,CDT,CDB,CTOT0,CDT0,CDB0
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AML,AMH,AMCH,AMAR
|
|
COMMON/HMASSR_HDEC/AMLR,AMHR
|
|
COMMON/CHIMASS_HDEC/AMCHI
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/MSBAR_HDEC/AMCB,AMBB
|
|
COMMON/ALS_HDEC/XLAMBDA,AMC0,AMB0,AMT0,N0
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/CKMPAR_HDEC/VTB,VTS,VTD,VCB,VCS,VCD,VUB,VUS,VUD
|
|
COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
|
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COMMON/BREAKGLU_HDEC/AMGLU
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COMMON/WZWDTH_HDEC/GAMC0,GAMT0,GAMT1,GAMW,GAMZ
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COMMON/MODEL_HDEC/IMODEL
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COMMON/ONSHELL_HDEC/IONSH,IONWZ,IOFSUSY
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COMMON/OLDFASH_HDEC/NFGG
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COMMON/FLAG_HDEC/IHIGGS,NNLO,IPOLE
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COMMON/SM4_HDEC/AMTP,AMBP,AMNUP,AMEP,ISM4,IGGELW
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COMMON/FERMIOPHOBIC_HDEC/IFERMPHOB
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COMMON/WIDTHSM_HDEC/SMBRB,SMBRL,SMBRM,SMBRS,SMBRC,SMBRT,SMBRG,
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. SMBRGA,SMBRZGA,SMBRW,SMBRZ,SMWDTH
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COMMON/WIDTHSM4_HDEC/SMBRNUP,SMBREP,SMBRBP,SMBRTP
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COMMON/WIDTHA_HDEC/ABRB,ABRL,ABRM,ABRS,ABRC,ABRT,ABRG,ABRGA,
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. ABRZGA,ABRZ,AWDTH
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COMMON/WIDTHHL_HDEC/HLBRB,HLBRL,HLBRM,HLBRS,HLBRC,HLBRT,HLBRG,
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. HLBRGA,HLBRZGA,HLBRW,HLBRZ,HLBRA,HLBRAZ,HLBRHW,
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. HLWDTH
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COMMON/WIDTHHH_HDEC/HHBRB,HHBRL,HHBRM,HHBRS,HHBRC,HHBRT,HHBRG,
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. HHBRGA,HHBRZGA,HHBRW,HHBRZ,HHBRH,HHBRA,HHBRAZ,
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. HHBRHW,HHWDTH
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COMMON/WIDTHHC_HDEC/HCBRB,HCBRL,HCBRM,HCBRBU,HCBRS,HCBRC,HCBRT,
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. HCBRW,HCBRA,HCWDTH
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COMMON/WISUSY_HDEC/HLBRSC,HLBRSN,HHBRSC,HHBRSN,HABRSC,HABRSN,
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. HCBRSU,HLBRCHT,HHBRCHT,HABRCHT,HLBRNET,HHBRNET,
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. HABRNET,HCBRCNT,HLBRSL,HHBRSL,HCBRSL,HABRSL,HABRST,
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. HABRSB,HHBRSQ,HHBRST,HHBRSB,HHBRSQT,HCBRSQ,HCBRSTB,
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. HCBRSQT,HLBRSQ,HLBRSQT
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COMMON/WISFER_HDEC/BHLSLNL,BHLSLEL,BHLSLER,BHLSQUL,BHLSQUR,
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. BHLSQDL,BHLSQDR,BHLST(2,2),BHLSB(2,2),BHLSTAU(2,2),
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. BHHSLNL,BHHSLEL,BHHSLER,BHHSQUL,BHHSQUR,BHHSQDL,
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. BHHSQDR,BHHST(2,2),BHHSB(2,2),BHHSTAU(2,2),
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. BHASTAU,BHASB,BHAST,
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. BHCSL00,BHCSL11,BHCSL21,BHCSQ,BHCSTB(2,2)
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COMMON/SMASS_HDEC/AMNEUT,XMNEUT,AMCHAR,AMST,AMSB,AMSL,
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. AMSU,AMSD,AMSE,AMSN,AMSN1
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COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,
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. GHHH,GLLL,GHLL,GLHH,GHAA,GLAA,GLVV,GHVV,
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. GLPM,GHPM,B,A
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COMMON/GOLDST_HDEC/AXMPL,AXMGD,IGOLD
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COMMON/WIGOLD_HDEC/HLBRGD,HABRGD,HHBRGD,HCBRGD
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COMMON/SLHA_gaug_HDEC/slhaneut,slhaxneut,slhachar,slhau,slhav,
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. slhaz,xmchar
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COMMON/SLHA_vals_HDEC/islhai,islhao
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COMMON/BREAKSCALE_HDEC/SUSYSCALE
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c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
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COMMON/DAVID/QSUSY1,QSUSY2,LOOP
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COMMON/SQNLO_HDEC/YMSB(2),STYB,CTYB,YLBB(2,2),YHBB(2,2),YABB,
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. YMST(2),STYT,CTYT,YLTT(2,2),YHTT(2,2),YATT
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c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
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COMMON/CPSM_HDEC/CPW,CPZ,CPTAU,CPMU,CPT,CPB,CPC,CPS,
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. CPGAGA,CPGG,CPZGA,ICOUPELW
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COMMON/CPSM4_HDEC/CPTP,CPBP,CPNUP,CPEP
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c MMM changed 21/8/13
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COMMON/THDM_HDEC/TGBET2HDM,ALPH2HDM,AMHL2HDM,AMHH2HDM,
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. AMHA2HDM,AMHC2HDM,AM12SQ,A1LAM2HDM,A2LAM2HDM,A3LAM2HDM,
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. A4LAM2HDM,A5LAM2HDM,ITYPE2HDM,I2HDM,IPARAM2HDM
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COMMON/THDM_COUP_HDEC/gllep,ghlep,galep
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COMMON/WIDTH_HC_ADD/hcbrcd,hcbrts,hcbrtd
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COMMON/WIDTH_2HDM/hcbrwhh,hhbrchch,hlbrchch,abrhhaz,abrhawphm
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common/DECPARAMETERS/amhi,amhj,amhk,gamtotj,gamtotk
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COMMON/OMIT_ELW_HDEC/IOELW
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common/marcelvos_hdec/scalmq,imarcelvos,ioutput
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external hvhinteg
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c end MMM changed 21/8/13
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HVV(X,Y)= GF/(4.D0*PI*DSQRT(2.D0))*X**3/2.D0*BETA_HDEC(Y)
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. *(1.D0-4.D0*Y+12.D0*Y**2)
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AFF(X,Y)= GF/(4*PI*DSQRT(2.D0))*X**3*Y*(BETA_HDEC(Y))
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HFF(X,Y)= GF/(4*PI*DSQRT(2.D0))*X**3*Y*(BETA_HDEC(Y))**3
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CFF(Z,TB,X,Y)= GF/(4*PI*DSQRT(2.D0))*Z**3*LAMB_HDEC(X,Y)
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. *((1.D0-X-Y)*(X*TB**2+Y/TB**2)-4.D0*X*Y)
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HV(V)=3.D0*(1.D0-8.D0*V+20.D0*V**2)/DSQRT((4.D0*V-1.D0))
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. *DACOS((3.D0*V-1.D0)/2.D0/DSQRT(V**3))
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. -(1.D0-V)*(47.D0/2.D0*V-13.D0/2.D0+1.D0/V)
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. -3.D0/2.D0*(1.D0-6.D0*V+4.D0*V**2)*DLOG(V)
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HVH(X,Y)=0.25D0*( (1-X)*(-2+4*X-2*X**2+9*Y+9*X*Y-6*Y**2)
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. /(3*Y)-2*(1-X-X**2+X**3-3*Y-2*X*Y-3*X**2*Y+3*Y**2
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. +3*X*Y**2-Y**3)*(-PI/2- DATAN((1-2*X+X**2-Y-X*Y)/
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. ((1-X)*DSQRT(-1.D0+2*X+2*Y-(X-Y)**2))))/DSQRT(-1.D0
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. +2*X-(X-Y)**2+2*Y)-(1+X**2-2*Y-2*X*Y+Y**2)*DLOG(X))
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c HVH(X,Y)=0.25D0*( (1-X)*(5.D0*(1.D0+X)-4.D0*Y-2.D0/Y*
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c . (-1.D0+2.D0*X+2.D0*Y-(X-Y)**2))/3
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c . -2*(1-X-X**2+X**3-3*Y-2*X*Y-3*X**2*Y+3*Y**2
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c . +3*X*Y**2-Y**3)*(-PI/2- DATAN((1-2*X+X**2-Y-X*Y)/
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c . ((1-X)*DSQRT(-1.D0+2*X+2*Y-(X-Y)**2))))/DSQRT(-1.D0
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c . +2*X-(X-Y)**2+2*Y)-(1+X**2-2*Y-2*X*Y+Y**2)*DLOG(X))
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QCD0(X) = (1+X**2)*(4*SP_HDEC((1-X)/(1+X))+2*SP_HDEC((X-1)/(X+1))
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. - 3*DLOG((1+X)/(1-X))*DLOG(2/(1+X))
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. - 2*DLOG((1+X)/(1-X))*DLOG(X))
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. - 3*X*DLOG(4/(1-X**2)) - 4*X*DLOG(X)
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HQCDM(X)=QCD0(X)/X+(3+34*X**2-13*X**4)/16/X**3*DLOG((1+X)/(1-X))
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. + 3.D0/8/X**2*(7*X**2-1)
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AQCDM(X)=QCD0(X)/X + (19+2*X**2+3*X**4)/16/X*DLOG((1+X)/(1-X))
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. + 3.D0/8*(7-X**2)
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HQCD(X,NF)=(4.D0/3*HQCDM(BETA_HDEC(X))
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. +2*(4.D0/3-DLOG(X))*(1-10*X)/(1-4*X))*ASH/PI
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c . + (29.1467076531D0 + X*(-93.72459D0+12)
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. + (35.9399611978D0-1.35865070894D0*NF
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. +RATCOUP*(1.570D0 - 2*DLOG(HIGTOP)/3
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. + DLOG(X)**2/9))*(ASH/PI)**2
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. +(164.139210924D0 - 25.7711923544D0*NF
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. + 0.258974286253D0*NF**2)*(ASH/PI)**3
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. +(39.3368712384D0-220.929242025D0*NF+9.6848101719D0*NF**2
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. -0.0204598558268D0*NF**3)*(ASH/PI)**4
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HQCDSC(AMH,AMU,NF)=ASH/PI*(2*DLOG(AMU**2/AMH**2))
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. +(ASH/PI)**2*((4.75D0-1/6.D0*NF)*DLOG(AMU**2/AMH**2)**2
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. +(106/3.D0-11/9.D0*NF)*DLOG(AMU**2/AMH**2))
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. +(ASH/PI)**3*((11.875D0-17/18.D0*NF+1/54.D0*NF**2)
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. *DLOG(AMU**2/AMH**2)**3
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. +(3535/24.D0-277/24.D0*NF+11/54.D0*NF**2)
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. *DLOG(AMU**2/AMH**2)**2
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. +(392.400403428D0-32.7982955549D0*NF
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. +0.398871223969D0*NF**2)*DLOG(AMU**2/AMH**2))
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. +(ASH/PI)**4*((30.4296875D0-35.140625D0/9*NF+143/864.D0*NF**2
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. -1/432.D0*NF**3)*DLOG(AMU**2/AMH**2)**4
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. +(51529/96.D0-68.1053240741D0*NF+2.72299382716D0*NF**2
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. -0.033950617284D0*NF**3)*DLOG(AMU**2/AMH**2)**3
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. +(2446.34807451D0-320.943346989D0*NF
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. +11.4211615968D0*NF**2-0.0997178059923D0*NF**3)
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. *DLOG(AMU**2/AMH**2)**2
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. +(224152633/75000.D0-955313213/1800000.D0*NF
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. +18.8478273464D0*NF**2-0.117900698418D0*NF**3)
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. *DLOG(AMU**2/AMH**2))
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c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
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c--different orders
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HQCD1(X,NF)=(4.D0/3*HQCDM(BETA_HDEC(X))
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. +2*(4.D0/3-DLOG(X))*(1-10*X)/(1-4*X))*ASH/PI
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HQCD2(X,NF)=(4.D0/3*HQCDM(BETA_HDEC(X))
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. +2*(4.D0/3-DLOG(X))*(1-10*X)/(1-4*X))*ASH/PI
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. + (35.9399611978D0-1.35865070894D0*NF
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. +RATCOUP*(1.570D0 - 2*DLOG(HIGTOP)/3
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. + DLOG(X)**2/9))*(ASH/PI)**2
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HQCD3(X,NF)=(4.D0/3*HQCDM(BETA_HDEC(X))
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. +2*(4.D0/3-DLOG(X))*(1-10*X)/(1-4*X))*ASH/PI
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. + (35.9399611978D0-1.35865070894D0*NF
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. +RATCOUP*(1.570D0 - 2*DLOG(HIGTOP)/3
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. + DLOG(X)**2/9))*(ASH/PI)**2
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. +(164.139210924D0 - 25.7711923544D0*NF
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. + 0.258974286253D0*NF**2)*(ASH/PI)**3
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HQCD1SC(AMH,AMU,NF)=ASH/PI*(2*DLOG(AMU**2/AMH**2))
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HQCD2SC(AMH,AMU,NF)=ASH/PI*(2*DLOG(AMU**2/AMH**2))
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. +(ASH/PI)**2*((4.75D0-1/6.D0*NF)*DLOG(AMU**2/AMH**2)**2
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. +(106/3.D0-11/9.D0*NF)*DLOG(AMU**2/AMH**2))
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HQCD3SC(AMH,AMU,NF)=ASH/PI*(2*DLOG(AMU**2/AMH**2))
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. +(ASH/PI)**2*((4.75D0-1/6.D0*NF)*DLOG(AMU**2/AMH**2)**2
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. +(106/3.D0-11/9.D0*NF)*DLOG(AMU**2/AMH**2))
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. +(ASH/PI)**3*((11.875D0-17/18.D0*NF+1/54.D0*NF**2)
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. *DLOG(AMU**2/AMH**2)**3
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. +(3535/24.D0-277/24.D0*NF+11/54.D0*NF**2)
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. *DLOG(AMU**2/AMH**2)**2
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. +(392.400403428D0-32.7982955549D0*NF
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. +0.398871223969D0*NF**2)*DLOG(AMU**2/AMH**2))
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QCDH1(X,NF)=1.D0+HQCD1(X,NF)+HQCD1SC(AMH,SCALMQ*AMH,NF)
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QCDH2(X,NF)=1.D0+HQCD2(X,NF)+HQCD2SC(AMH,SCALMQ*AMH,NF)
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QCDH3(X,NF)=1.D0+HQCD3(X,NF)+HQCD3SC(AMH,SCALMQ*AMH,NF)
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c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
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AQCD(X,NF)=(4.D0/3*AQCDM(BETA_HDEC(X))
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. +2*(4.D0/3-DLOG(X))*(1-6*X)/(1-4*X))*ASH/PI
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. + (35.9399611978D0-1.35865070894D0*NF
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. + RATCOUP*(23/6.D0 - DLOG(HIGTOP) + DLOG(X)**2/6))*(ASH/PI)**2
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. +(164.13921D0 - 25.77119D0*NF + 0.258974D0*NF**2)*(ASH/PI)**3
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. +(39.34D0-220.9D0*NF+9.685D0*NF**2-0.0205D0*NF**3)*(ASH/PI)**4
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c QCDH(X,NF)=1.D0+HQCD(X,NF)
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QCDH(X,NF)=1.D0+HQCD(X,NF)+HQCDSC(AMH,SCALMQ*AMH,NF)
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QCDA(X,NF)=1.D0+AQCD(X,NF)
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TQCDH(X)=1.D0+4.D0/3*HQCDM(BETA_HDEC(X))*ASH/PI
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TQCDA(X)=1.D0+4.D0/3*AQCDM(BETA_HDEC(X))*ASH/PI
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QCDC(X,Y)=1.D0+4/3.D0*ASH/PI*(9/4.D0 + (3-2*X+2*Y)/4*DLOG(X/Y)
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. +((1.5D0-X-Y)*LAMB_HDEC(X,Y)**2+5*X*Y)/2/LAMB_HDEC(X,Y)
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. /(1-X-Y)*DLOG(XI_HDEC(X,Y)*XI_HDEC(Y,X))
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. + BIJ_HDEC(X,Y))
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. + ASH/PI*(2*(4/3.D0-DLOG(X))
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. - (X*2*(4/3.D0-DLOG(X)) + Y*2*(4/3.D0-DLOG(Y)))/(1-X-Y)
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. - (X*2*(4/3.D0-DLOG(X))*(1-X+Y)
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. +Y*2*(4/3.D0-DLOG(Y))*(1+X-Y))/LAMB_HDEC(X,Y)**2)
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QCDCI(X,Y)=1.D0+4/3.D0*ASH/PI*(3 + (Y-X)/2*DLOG(X/Y)
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. +(2*(1-X-Y)+LAMB_HDEC(X,Y)**2)/2/LAMB_HDEC(X,Y)
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. *DLOG(XI_HDEC(X,Y)*XI_HDEC(Y,X))
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. + BIJ_HDEC(X,Y))
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. + ASH/PI*(2*(4/3.D0-DLOG(X)) + 2*(4/3.D0-DLOG(Y))
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. - (X*2*(4/3.D0-DLOG(X))*(1-X+Y)
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. +Y*2*(4/3.D0-DLOG(Y))*(1+X-Y))/LAMB_HDEC(X,Y)**2)
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QCDCM(X,Y)=1.D0+4/3.D0*ASH/PI*(9/4.D0 + (3-2*X+2*Y)/4*DLOG(X/Y)
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. +((1.5D0-X-Y)*LAMB_HDEC(X,Y)**2+5*X*Y)/2/LAMB_HDEC(X,Y)
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. /(1-X-Y)*DLOG(4*X*Y/(1-X-Y+LAMB_HDEC(X,Y))**2)
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. + BIJ_HDEC(X,Y))
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QCDCMI(X,Y)=1.D0+4/3.D0*ASH/PI*(3 + (Y-X)/2*DLOG(X/Y)
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. +(2*(1-X-Y)+LAMB_HDEC(X,Y)**2)/2/LAMB_HDEC(X,Y)
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. *DLOG(4*X*Y/(1-X-Y+LAMB_HDEC(X,Y))**2)
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. + BIJ_HDEC(X,Y))
|
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c------------------------------------------------------------------------
|
|
c--running x Yukawa coupling
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QCDCM1(X,Y)=1.D0+4/3.D0*ASH/PI*(9/4.D0 + (3-2*X+2*Y)/4*DLOG(X/Y)
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. +((1.5D0-X-Y)*LAMB_HDEC(X,Y)**2+5*X*Y)/2/LAMB_HDEC(X,Y)
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. /(1-X-Y)*DLOG(4*X*Y/(1-X-Y+LAMB_HDEC(X,Y))**2)
|
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. + BIJ_HDEC(X,Y))
|
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. + ASH/PI*(2*(4/3.D0-DLOG(X)))
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QCDCMI1(X,Y)=1.D0+4/3.D0*ASH/PI*(3 + (Y-X)/2*DLOG(X/Y)
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. +(2*(1-X-Y)+LAMB_HDEC(X,Y)**2)/2/LAMB_HDEC(X,Y)
|
|
. *DLOG(4*X*Y/(1-X-Y+LAMB_HDEC(X,Y))**2)
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. + BIJ_HDEC(X,Y))
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. + ASH/PI*(2*(4/3.D0-DLOG(X)))
|
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c------------------------------------------------------------------------
|
|
CQCD(Z,TB,X,Y,R)= GF/(4*PI*DSQRT(2.D0))*Z**3*LAMB_HDEC(X,Y)
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. *((1.D0-X-Y)*(X*TB**2*R**2*QCDC(X,Y)
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. +Y/TB**2*QCDC(Y,X))
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. -4.D0*X*Y*R*QCDCI(X,Y))
|
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CQCDM(Z,TB,X,Y,R)= GF/(4*PI*DSQRT(2.D0))*Z**3*LAMB_HDEC(X,Y)
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. *((1.D0-X-Y)*(X*TB**2*R**2*QCDCM1(X,Y)
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. +Y/TB**2*QCDCM(Y,X))
|
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. -4.D0*X*Y*R*QCDCMI1(X,Y))
|
|
c MMM changed 21/8/13
|
|
CQCD2HDM(Z,GCPD,GCPU,X,Y,R)=
|
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. GF/(4*PI*DSQRT(2.D0))*Z**3*LAMB_HDEC(X,Y)
|
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. *((1.D0-X-Y)*(X*GCPD**2*R**2*QCDC(X,Y)
|
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. +Y*GCPU**2*QCDC(Y,X))
|
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. -4.D0*GCPD*GCPU*X*Y*R*QCDCI(X,Y))
|
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CQCDM2HDM(Z,GCPD,GCPU,X,Y,R)=
|
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. GF/(4*PI*DSQRT(2.D0))*Z**3*LAMB_HDEC(X,Y)
|
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. *((1.D0-X-Y)*(X*GCPD**2*R**2*QCDCM1(X,Y)
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. +Y*GCPU**2*QCDCM(Y,X))
|
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. -4.D0*GCPD*GCPU*X*Y*R*QCDCMI1(X,Y))
|
|
c end MMM changed 21/8/13
|
|
ELW(AMH,AMF,AMFP,QF,AI3F)=IOELW*(
|
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. ELWFULL_HDEC(AMH,AMF,AMFP,QF,AI3F,AMW)
|
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. + ALPH/PI*QF**2*HQCDM(BETA_HDEC(AMF**2/AMH**2))
|
|
. - GF*AMH**2/16.D0/PI**2/DSQRT(2.D0)*2.117203D0)
|
|
ELW0(AMH,AMF,QF,ACF)=IOELW*(ALPH/PI*3.D0/2*QF**2
|
|
. *(3.D0/2-DLOG(AMH**2/AMF**2))
|
|
. +GF/8/DSQRT(2.D0)/PI**2*(ACF*AMT**2
|
|
. +AMW**2*(3*DLOG(CS)/SS-5)+AMZ**2*(0.5D0
|
|
. -3*(1-4*SS*DABS(QF))**2)))
|
|
CF(CA) = -CDLOG(-(1+CDSQRT(1-CA))/(1-CDSQRT(1-CA)))**2/4
|
|
CG(CA) = CDSQRT(1-CA)/2*CDLOG(-(1+CDSQRT(1-CA))/(1-CDSQRT(1-CA)))
|
|
CI1(CA,CB) = CA*CB/2/(CA-CB)
|
|
. + CA**2*CB**2/2/(CA-CB)**2*(CF(CA)-CF(CB))
|
|
. + CA**2*CB/(CA-CB)**2*(CG(CA)-CG(CB))
|
|
CI2(CA,CB) = -CA*CB/2/(CA-CB)*(CF(CA)-CF(CB))
|
|
HGGQCD(ASG,NF)=1.D0+ASG/PI*(95.D0/4.D0-NF*7.D0/6.D0)
|
|
HGGQCD2(ASG,NF,AMH,AMT)=1.D0+ASG/PI*(95.D0/4.D0-NF*7.D0/6.D0)
|
|
. +(ASG/PI)**2*(149533/288.D0-363/8.D0*ZETA2-495/8.D0*ZETA3
|
|
. +19/8.D0*DLOG(AMH**2/AMT**2)
|
|
. +NF*(-4157/72.D0+11/2.D0*ZETA2+5/4.D0*ZETA3
|
|
. +2/3.D0*DLOG(AMH**2/AMT**2))
|
|
. +NF**2*(127/108.D0-1/6.D0*ZETA2))
|
|
. +(ASG/PI)**3*(467.683620788D0+122.440972222D0*DLOG(AMH**2/AMT**2)
|
|
. +10.9409722222D0*DLOG(AMH**2/AMT**2)**2)
|
|
PHGGQCD(ASG,NF)=1.D0+ASG/PI*(73/4.D0-7/6.D0*NF)
|
|
PHGGQCD2(ASG,NF,AMH,AMT)=1.D0+ASG/PI*(73/4.D0-7/6.D0*NF)
|
|
. +(ASG/PI)**2*(37631/96.D0-363/8.D0*ZETA2-495/8.D0*ZETA3
|
|
. +NF*(-7189/144.D0+11/2.D0*ZETA2+5/4.D0*ZETA3)
|
|
. +NF**2*(127/108.D0-1/6.D0*ZETA2))
|
|
. +(ASG/PI)**3*(-212.447364638D0)
|
|
DHGGQCD(ASG,NF)=1.D0+ASG/PI*(21.D0-NF*7.D0/6.D0)
|
|
DHGGQCD2(ASG,NF,AMH,AMT)=1.D0+ASG/PI*(21.D0-NF*7.D0/6.D0)
|
|
. +(ASG/PI)**2*(32531/72.D0-363/8.D0*ZETA2-495/8.D0*ZETA3
|
|
. +19/16.D0*DLOG(AMH**2/AMT**2)
|
|
. +NF*(-15503/288.D0+11/2.D0*ZETA2+5/4.D0*ZETA3
|
|
. +1/3.D0*DLOG(AMH**2/AMT**2))
|
|
. +NF**2*(127/108.D0-1/6.D0*ZETA2))
|
|
. +(ASG/PI)**3*(63.7474683529D0+53.3715277778D0*DLOG(AMH**2/AMT**2)
|
|
. +5.47048611111D0*DLOG(AMH**2/AMT**2)**2)
|
|
SGGQCD(ASG)=ASG/PI*7.D0/2.D0
|
|
AGGQCD(ASG,NF)=1.D0+ASG/PI*(97.D0/4.D0-NF*7.D0/6.D0)
|
|
AGGQCD2(ASG,NF,AMA,AMT)=1.D0+ASG/PI*(97.D0/4.D0-NF*7.D0/6.D0)
|
|
. +(ASG/PI)**2*(237311/864.D0-529/24.D0*ZETA2-445/8.D0*ZETA3
|
|
. +5*DLOG(AMA**2/AMT**2))
|
|
HFFSELF(AMH)=1.D0+IOELW*(
|
|
. GF*AMH**2/16.D0/PI**2/DSQRT(2.D0)*2.117203D0
|
|
. -(GF*AMH**2/16.D0/PI**2/DSQRT(2.D0))**2*32.6567D0)
|
|
HVVSELF(AMH)=1.D0+IOELW*(
|
|
. GF*AMH**2/16.D0/PI**2/DSQRT(2.D0)*2.800952D0
|
|
. +(GF*AMH**2/16.D0/PI**2/DSQRT(2.D0))**2*62.0308D0)
|
|
c WTOP0(X,ASG,NF)=ASG/PI*(-2/3.D0*(PI**2+2*SP_HDEC(X)-2*SP_HDEC(1-X)
|
|
c . +(4*X*(1-X-2*X**2)*DLOG(X)
|
|
c . +2*(1-X)**2*(5+4*X)*DLOG(1-X)
|
|
c . -(1-X)*(5+9*X-6*X**2))
|
|
c . /2/(1-X)**2/(1+2*X)))
|
|
WTOP(X,ASG,NF)=ASG/PI*(-2/3.D0*(PI**2+2*SP_HDEC(X)-2*SP_HDEC(1-X)
|
|
. +(4*X*(1-X-2*X**2)*DLOG(X)
|
|
. +2*(1-X)**2*(5+4*X)*DLOG(1-X)
|
|
. -(1-X)*(5+9*X-6*X**2))
|
|
. /2/(1-X)**2/(1+2*X)))
|
|
. + (ASG/2/PI)**2*(-110.4176D0+7.978D0*NF)
|
|
c CHTOP0(X)=-4/3.D0*((5/2.D0-1/X)*DLOG(1-X)+X/(1-X)*DLOG(X)
|
|
c . +SP_HDEC(X)-SP_HDEC(1-X)+PI**2/2-9/4.D0)
|
|
CHTOP(X)=8/3.D0*(SP_HDEC(1-X)-X/2/(1-X)*DLOG(X)
|
|
. + DLOG(X)*DLOG(1-X)/2+(1-2.5D0*X)/2/X*DLOG(1-X)-PI**2/3
|
|
. +9/8.D0)
|
|
CHTOP1(X)=8/3.D0*(SP_HDEC(1-X)-X/2/(1-X)*DLOG(X)
|
|
. + DLOG(X)*DLOG(1-X)/2+(1-2.5D0*X)/2/X*DLOG(1-X)-PI**2/3
|
|
. +17/8.D0)
|
|
|
|
PI=4D0*DATAN(1D0)
|
|
SS=1.D0-(AMW/AMZ)**2
|
|
CS=1.D0-SS
|
|
|
|
ZETA2 = PI**2/6
|
|
ZETA3 = 1.202056903159594D0
|
|
ZETA4 = PI**4/90
|
|
ZETA5 = 1.03692775514337D0
|
|
|
|
IF(IHIGGS.NE.0)THEN
|
|
TSC = (AMSQ+AMUR+AMDR)/3
|
|
BSC = (AMSQ+AMUR+AMDR)/3
|
|
CALL SFERMION_HDEC(TSC,BSC,AMSQ,AMUR,AMDR,AMEL,AMER,AL,AU,AD,AMU,
|
|
. AMST,AMSB,AMSL,AMSU,AMSD,AMSE,AMSN,AMSN1,
|
|
. GLEE,GLTT,GLBB,GHEE,GHTT,GHBB,
|
|
. GAEE,GATT,GABB,GCEN,GCTB)
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
ENDIF
|
|
|
|
C--DECOUPLING THE TOP QUARK FROM ALPHAS
|
|
AMT0=3.D8
|
|
|
|
C--TOP QUARK DECAY WIDTH
|
|
c GAMT00= GF*AMT**3/8/DSQRT(2D0)/PI*(1-AMW**2/AMT**2)**2
|
|
c . *(1+2*AMW**2/AMT**2)
|
|
c . * (1+WTOP(AMW**2/AMT**2,ALPHAS_HDEC(AMT,3),5))
|
|
GAMT0 = GF*AMT**3/8/DSQRT(2D0)/PI*VTB**2
|
|
. * LAMB_HDEC(AMB**2/AMT**2,AMW**2/AMT**2)
|
|
. * ((1-AMW**2/AMT**2)*(1+2*AMW**2/AMT**2)
|
|
. -AMB**2/AMT**2*(2-AMW**2/AMT**2-AMB**2/AMT**2))
|
|
. * (1+WTOP(AMW**2/AMT**2,ALPHAS_HDEC(AMT,3),5))
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c--real!!
|
|
LOOP = 2
|
|
QSUSY = 1
|
|
QSUSY1 = QSUSY
|
|
QSUSY2 = QSUSY
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c DO I = -10,10,1
|
|
c QSUSY = 10.D0**(I/10.D0)
|
|
c QSUSY1 = QSUSY
|
|
c QSUSY2 = QSUSY
|
|
c QSUSY = QSUSY1
|
|
c CALL BOTSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,QSUSY,LOOP)
|
|
c CALL STRSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,QSUSY,LOOP)
|
|
c ENDDO
|
|
c CLOSE(51)
|
|
c CLOSE(52)
|
|
c CLOSE(53)
|
|
c CLOSE(54)
|
|
c RETURN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
IF(IHIGGS.NE.0.AND.AMT.GT.AMCH+AMB)THEN
|
|
IF(I2HDM.EQ.0)THEN
|
|
TSC = (AMSQ+AMUR+AMDR)/3
|
|
BSC = (AMSQ+AMUR+AMDR)/3
|
|
CALL SFERMION_HDEC(TSC,BSC,AMSQ,AMUR,AMDR,AMEL,AMER,AL,AU,AD,AMU,
|
|
. AMST,AMSB,AMSL,AMSU,AMSD,AMSE,AMSN,AMSN1,
|
|
. GLEE,GLTT,GLBB,GHEE,GHTT,GHBB,
|
|
. GAEE,GATT,GABB,GCEN,GCTB)
|
|
c LOOP = 2
|
|
c QSUSY = 1
|
|
c QSUSY1 = QSUSY
|
|
c QSUSY2 = QSUSY
|
|
QSUSY = QSUSY1
|
|
CALL BOTSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,QSUSY,LOOP)
|
|
ELSE
|
|
XGLB = GLB
|
|
XGHB = GHB
|
|
XGAB = GAB
|
|
ENDIF
|
|
c GAMT10= GF*AMT**3/8/DSQRT(2D0)/PI*VTB**2*(1-AMCH**2/AMT**2)**2
|
|
c . *((AMB/AMT)**2*XGAB**2 + GAT**2)
|
|
c . * (1+ALPHAS_HDEC(AMT,3)/PI*CHTOP0(AMCH**2/AMT**2))
|
|
YMB = RUNM_HDEC(AMT,5,1)
|
|
c GAMT10= GF*AMT**3/8/DSQRT(2D0)/PI*VTB**2
|
|
c . * LAMB_HDEC(AMB**2/AMT**2,AMCH**2/AMT**2)
|
|
c . * (((YMB/AMT)**2*XGAB**2 + GAT**2)
|
|
c . * (1+AMB**2/AMT**2-AMCH**2/AMT**2)+4*YMB**2/AMT**2*XGAB*GAT)
|
|
c . * (1+ALPHAS_HDEC(AMT,3)/PI*CHTOP0(AMCH**2/AMT**2))
|
|
GAMT1 = GF*AMT**3/8/DSQRT(2D0)/PI*VTB**2
|
|
. * LAMB_HDEC(AMB**2/AMT**2,AMCH**2/AMT**2)
|
|
. * (GAT**2*(1+AMB**2/AMT**2-AMCH**2/AMT**2)
|
|
. * (1+ALPHAS_HDEC(AMT,3)/PI*CHTOP(AMCH**2/AMT**2))
|
|
. +(YMB/AMT)**2*XGAB**2*(1+AMB**2/AMT**2-AMCH**2/AMT**2)
|
|
. * (1+ALPHAS_HDEC(AMT,3)/PI*CHTOP1(AMCH**2/AMT**2))
|
|
. + 4*YMB**2/AMT**2*XGAB*GAT)
|
|
ELSE
|
|
GAMT1 = 0
|
|
ENDIF
|
|
GAMT1 = GAMT0+GAMT1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'topw: ',GAMT0,WTOP(AMW**2/AMT**2,ALPHAS_HDEC(AMT,3),5),
|
|
c . WTOP0(AMW**2/AMT**2,ALPHAS_HDEC(AMT,3),5),
|
|
c . ALPHAS_HDEC(AMT,3)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c GAMT10= GAMT00+GAMT10
|
|
c GAMT0 = GAMT00
|
|
c GAMT1 = GAMT10
|
|
c write(6,*)'topw: ',GAMT0,GAMT00,GAMT00/GAMT0
|
|
c write(6,*)'toph: ',GAMT1-GAMT0,GAMT10-GAMT00,
|
|
c . (GAMT10-GAMT00)/(GAMT1-GAMT0)
|
|
c write(6,*)'top: ',gamt0/gamt1,(gamt1-gamt0)/gamt1,gamt1
|
|
c write(6,*)'top0: ',gamt00/gamt10,(gamt10-gamt00)/gamt10,gamt10
|
|
c write(6,*)'toph: ',CHTOP(AMCH**2/AMT**2),CHTOP0(AMCH**2/AMT**2),
|
|
c . CHTOP(AMCH**2/AMT**2)/CHTOP0(AMCH**2/AMT**2)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'CKM: ',VUS,VCB,VUB/VCB
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
IF(IHIGGS.EQ.0)THEN
|
|
|
|
C =========================================================
|
|
C SM HIGGS DECAYS
|
|
C =========================================================
|
|
AMXX=AMH
|
|
AMH=AMSM
|
|
C ============= RUNNING MASSES
|
|
RMS = RUNM_HDEC(SCALMQ*AMH,3,0)
|
|
RMC = RUNM_HDEC(SCALMQ*AMH,4,0)
|
|
RMB = RUNM_HDEC(SCALMQ*AMH,5,1)
|
|
RMT = RUNM_HDEC(SCALMQ*AMH,6,1)
|
|
c write(6,*) 'm_{s,c,b,t} (M_H) = ',AMH,RMS,RMC,RMB,RMT
|
|
c write(6,*) 'm_{s,c,b,t} = ',runm_hdec(2.d0,3,0),runm_hdec(3.d0,4,0),
|
|
c . runm_hdec(ambb,5,1),amt
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XXX = RUNM_HDEC(AMB,5,1)
|
|
c write(6,*) 'mb = ',XXX
|
|
c do i=1,23
|
|
c XXX = RUNM_HDEC(XXX,5,1)
|
|
c write(6,*) 'mb = ',XXX
|
|
c enddo
|
|
c write(6,*)
|
|
c XXX = RUNM_HDEC(AMC,4,0)
|
|
c write(6,*) 'mc = ',XXX
|
|
c do i=1,43
|
|
c XXX = RUNM_HDEC(XXX,4,0)
|
|
c write(6,*) 'mc = ',XXX
|
|
c enddo
|
|
c write(6,*)'mc(3): ',RUNM_HDEC(3.D0,4,0)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)
|
|
c write(6,*) 'alpha_s(MZ) = ',ALPHAS_HDEC(AMZ,3)
|
|
c write(6,*)
|
|
c XXX = RUNM_HDEC(AMBB,5,1)
|
|
c write(6,*) 'Mb = ',AMB
|
|
c write(6,*) 'mb = ',XXX
|
|
c write(6,*) 'mb = ',AMBB
|
|
c write(6,*)
|
|
c XXX = RUNM_HDEC(3.D0,4,0)
|
|
c write(6,*) 'Mc = ',AMC
|
|
c write(6,*) 'mc = ',XXX
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,"(F9.2,3(2X,G12.5))")AMH,RMC,RMB,RMT
|
|
IF(ISM4.NE.0)THEN
|
|
RMBP= RUNM_HDEC(AMH,7,1)
|
|
RMTP= RUNM_HDEC(AMH,8,1)
|
|
c write(6,*)AMTP,AMBP
|
|
c write(6,*)RUNM_HDEC(AMTP,8,1),RUNM_HDEC(AMTP,7,1)
|
|
c write(6,*)RMTP,RMBP,AMH
|
|
ENDIF
|
|
RATCOUP = 1
|
|
HIGTOP = AMH**2/AMT**2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'strange mass: ',runm_hdec(1.d0,3,0),runm_hdec(2.d0,3,0)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c X1 = RUNM_HDEC(AMB,5,1)
|
|
c X2 = RUNM_HDEC(AMH,5,1)
|
|
c do i=1,100
|
|
c x1 = RUNM_HDEC(x1,5,1)
|
|
c enddo
|
|
c write(6,*)'mb,MH = ',AMB,AMH
|
|
c write(6,*)'als(MZ) = ',ALPHAS_HDEC(AMZ,3)
|
|
c write(6,*)'als(mb,MH) = ',ALPHAS_HDEC(AMB,3),ALPHAS_HDEC(AMH,3)
|
|
c write(6,*)'mb(mb,MH) = ',X1,X2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c TOPFAC = 1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c x2 = runm_hdec(amh/4,6,1)
|
|
c x3 = runm_hdec(amh/2,6,1)
|
|
c x4 = runm_hdec(amh,6,1)
|
|
c x1 = amt
|
|
c do i=1,100
|
|
c x1 = RUNM_HDEC(x1,6,1)
|
|
c enddo
|
|
c write(6,*)'MH = ',amh
|
|
c write(6,*)'mt(mt,k*MH) = ',amt,x1,x2,x3,x4
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XK = 16.11D0
|
|
c XK = XK - 1.0414D0*(1.D0-AMB/AMT)
|
|
c XK = XK - 1.0414D0*(1.D0-AMC/AMT)
|
|
c XK = XK - 1.0414D0*(1.D0-AMS/AMT)
|
|
c XK = XK - 1.0414D0*(2.D0)
|
|
c XK2 = 0.65269D0*(5)**2 - 29.7010D0*(5) + 239.2966D0
|
|
c x0 = x1*(1+4*ALPHAS_HDEC(AMT,3)/3/PI
|
|
c . +XK*(ALPHAS_HDEC(AMT,3)/PI)**2
|
|
c . +XK2*(ALPHAS_HDEC(AMT,3)/PI)**3)
|
|
c . * (1-ALPHAS_HDEC(AMT,3)/PI*DLOG(AMT**2/x1**2))
|
|
c write(6,*)x0,x0/x1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
x1 = runm_hdec(amh,4,0)
|
|
x2 = runm_hdec(amh,5,1)
|
|
x3 = runm_hdec(amh,6,1)
|
|
c write(6,*)amh,x1,x2,x3
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
ASH=ALPHAS_HDEC(AMH,3)
|
|
c write(66,('f4.0,3(g18.10)'))AMH,ASH,RMB,RUNM_HDEC(AMH/2,5,1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
ASH=ALPHAS_HDEC(AMH,3)
|
|
c write(66,('f4.0,3(g18.10)'))AMH,ASH,RMB,RUNM_HDEC(AMH/2,5,1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
ASH=ALPHAS_HDEC(AMH,3)
|
|
c write(66,('f4.0,3(g18.10)'))AMH,ASH,RMB,RUNM_HDEC(AMH/2,5,1)
|
|
AMC0=1.D8
|
|
AMB0=2.D8
|
|
AS3=ALPHAS_HDEC(AMH,3)
|
|
AMC0=AMC
|
|
AS4=ALPHAS_HDEC(AMH,3)
|
|
AMB0=AMB
|
|
C AMT0=AMT
|
|
C =============== PARTIAL WIDTHS
|
|
C H ---> G G
|
|
C
|
|
C mass dependent NLO QCD corrections
|
|
CALL CORRGG_HDEC(AMH,AMT,AMB,XHGG,XHQQ)
|
|
c write(6,*)amh,amt,amb,xhgg,xhqq
|
|
EPS=1.D-8
|
|
NFEXT = 3
|
|
ASG = AS3
|
|
CTT = 4*AMT**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*AMB**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTC = 4*AMC**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CAT0= 2*CTT*(1+(1-CTT)*CF(CTT))
|
|
CAB0= 2*CTB*(1+(1-CTB)*CF(CTB))
|
|
CAC0= 2*CTC*(1+(1-CTC)*CF(CTC))
|
|
CAT = CAT0 * CPT
|
|
CAB = CAB0 * CPB
|
|
CAC = CAC0 * CPC
|
|
CATP = 0
|
|
CABP = 0
|
|
CATP0= 0
|
|
CABP0= 0
|
|
IF(ISM4.NE.0)THEN
|
|
CTTP = 4*AMTP**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTBP = 4*AMBP**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CATP0= 2*CTTP*(1+(1-CTTP)*CF(CTTP))
|
|
CABP0= 2*CTBP*(1+(1-CTBP)*CF(CTBP))
|
|
CATP = CATP0 * CPTP
|
|
CABP = CABP0 * CPBP
|
|
ENDIF
|
|
FQCD=HGGQCD(ASG,NFEXT)
|
|
DQCD=DHGGQCD(ASG,NFEXT)
|
|
PQCD=PHGGQCD(ASG,NFEXT)
|
|
XFAC = CDABS(CAT+CAB+CAC+CATP+CABP)**2*FQCD
|
|
. + 4*DREAL(DCONJG(CAT+CAB+CAC+CATP+CABP)*CPGG)*DQCD
|
|
. + (2*CPGG)**2*PQCD
|
|
C mass dependent NLO QCD corrections
|
|
XFAC0 =(CDABS(CAT)**2*(XHGG(1)+XHQQ(1)*NFEXT)
|
|
. + CDABS(CAB)**2*(XHGG(2)+XHQQ(2)*NFEXT)
|
|
. + 2*DREAL(DCONJG(CAT)*CAB)*(XHGG(3)+XHQQ(3)*NFEXT))*ASG/PI
|
|
XFAC = XFAC + XFAC0
|
|
HGG=HVV(AMH,0.D0)*(ASG/PI)**2*XFAC/8
|
|
|
|
C H ---> G G* ---> G CC TO BE ADDED TO H ---> CC
|
|
NFEXT = 4
|
|
ASG = AS4
|
|
FQCD=HGGQCD(ASG,NFEXT)
|
|
DQCD=DHGGQCD(ASG,NFEXT)
|
|
PQCD=PHGGQCD(ASG,NFEXT)
|
|
XFAC = CDABS(CAT+CAB+CAC+CATP+CABP)**2*FQCD
|
|
. + 4*DREAL(DCONJG(CAT+CAB+CAC+CATP+CABP)*CPGG)*DQCD
|
|
. + (2*CPGG)**2*PQCD
|
|
C mass dependent NLO QCD corrections
|
|
XFAC0 =(CDABS(CAT)**2*(XHGG(1)+XHQQ(1)*NFEXT)
|
|
. + CDABS(CAB)**2*(XHGG(2)+XHQQ(2)*NFEXT)
|
|
. + 2*DREAL(DCONJG(CAT)*CAB)*(XHGG(3)+XHQQ(3)*NFEXT))*ASG/PI
|
|
XFAC = XFAC + XFAC0
|
|
DCC=HVV(AMH,0.D0)*(ASG/PI)**2*XFAC/8 - HGG
|
|
C H ---> G G* ---> G BB TO BE ADDED TO H ---> BB
|
|
NFEXT = 5
|
|
ASG = ASH
|
|
FQCD=HGGQCD(ASG,NFEXT)
|
|
DQCD=DHGGQCD(ASG,NFEXT)
|
|
PQCD=PHGGQCD(ASG,NFEXT)
|
|
XFAC = CDABS(CAT+CAB+CAC+CATP+CABP)**2*FQCD
|
|
. + 4*DREAL(DCONJG(CAT+CAB+CAC+CATP+CABP)*CPGG)*DQCD
|
|
. + (2*CPGG)**2*PQCD
|
|
C mass dependent NLO QCD corrections
|
|
XFAC0 =(CDABS(CAT)**2*(XHGG(1)+XHQQ(1)*NFEXT)
|
|
. + CDABS(CAB)**2*(XHGG(2)+XHQQ(2)*NFEXT)
|
|
. + 2*DREAL(DCONJG(CAT)*CAB)*(XHGG(3)+XHQQ(3)*NFEXT))*ASG/PI
|
|
XFAC = XFAC + XFAC0
|
|
DBB=HVV(AMH,0.D0)*(ASG/PI)**2*XFAC/8 - HGG - DCC
|
|
|
|
C H ---> G G: FULL NNNLO CORRECTIONS FOR NF=5
|
|
IF(ISM4.EQ.0)THEN
|
|
FQCD0=HGGQCD(ASG,5)
|
|
FQCD=HGGQCD2(ASG,5,AMH,AMT)
|
|
DQCD=DHGGQCD2(ASG,5,AMH,AMT)
|
|
PQCD=PHGGQCD2(ASG,5,AMH,AMT)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c FQCD=FQCD0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
XFAC = CDABS(CAT+CAB+CAC+CATP+CABP)**2*FQCD
|
|
. + 4*DREAL(DCONJG(CAT+CAB+CAC+CATP+CABP)*CPGG)*DQCD
|
|
. + (2*CPGG)**2*PQCD
|
|
C mass dependent NLO QCD corrections
|
|
XFAC0 =(CDABS(CAT)**2*(XHGG(1)+XHQQ(1)*NFEXT)
|
|
. + CDABS(CAB)**2*(XHGG(2)+XHQQ(2)*NFEXT)
|
|
. + 2*DREAL(DCONJG(CAT)*CAB)*(XHGG(3)+XHQQ(3)*NFEXT))*ASG/PI
|
|
c write(6,*)'xfac: ',XFAC,XFAC0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XFAC0=0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
XFAC = XFAC + XFAC0
|
|
HGG=HVV(AMH,0.D0)*(ASG/PI)**2*XFAC/8
|
|
C electroweak corrections
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
c XFAC00 = CDABS(CAT0+CAB0+CAC0+CATP0+CABP0)**2*FQCD
|
|
XFAC00= DREAL(DCONJG(CAT+CAB+CAC+CATP+CABP)
|
|
. * (CAT0+CAB0+CAC0+CATP0+CABP0))*FQCD
|
|
ELSE
|
|
XFAC00 = CDABS(CAT+CAB+CAC+CATP+CABP)**2*FQCD
|
|
. + 4*DREAL(DCONJG(CAT+CAB+CAC+CATP+CABP)*CPGG)*DQCD
|
|
. + (2*CPGG)**2*PQCD
|
|
ENDIF
|
|
HGG0 =HVV(AMH,0.D0)*(ASG/PI)**2*XFAC00/8*IOELW*GLGL_ELW(AMT,AMH)
|
|
c write(6,*)'hgg: ',HGG,HGG0,XFAC00,GLGL_ELW(AMT,AMH)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c HGG0=0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
HGG=HGG+HGG0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c CDUM0 = CAT0+CAB0
|
|
c CDUM = CAT +CAB
|
|
c CTOT0= CAT0/CDUM0
|
|
c CDT0 = CAT0/CAT0
|
|
c CDB0 = CAB0/CAT0
|
|
c CTOT = CAT/CDUM
|
|
c CDT = CAT/CAT
|
|
c CDB = CAB/CAT
|
|
c write(6,*)'H -> gg ',CTOT,CDT,CDB
|
|
c write(6,*)'H -> gg0',CTOT0,CDT0,CDB0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'alpha_s= ',ASG
|
|
c write(6,*)'H -> gg: ',1.D0,ASG/PI*(95.D0/4.D0-5*7.D0/6.D0),
|
|
c . (ASG/PI)**2*(149533/288.D0-363/8.D0*ZETA2-495/8.D0*ZETA3
|
|
c . +19/8.D0*DLOG(AMH**2/AMT**2)
|
|
c . +5*(-4157/72.D0+11/2.D0*ZETA2+5/4.D0*ZETA3
|
|
c . +2/3.D0*DLOG(AMH**2/AMT**2))
|
|
c . +5**2*(127/108.D0-1/6.D0*ZETA2)),
|
|
c . (ASG/PI)**3*(467.683620788D0+122.440972222D0*DLOG(AMH**2/AMT**2)
|
|
c . +10.9409722222D0*DLOG(AMH**2/AMT**2)**2),
|
|
c . XFAC0/CDABS(CAT+CAB+CAC+CATP+CABP)**2,
|
|
c . XFAC/CDABS(CAT+CAB+CAC+CATP+CABP)**2,GLGL_ELW(AMT,AMH),
|
|
c . (HGG)/(HVV(AMH,0.D0)*(ASG/PI)**2/8*CDABS(CAT+CAB+CAC)**2),
|
|
c . (XFAC-XFAC0)/CDABS(CAT+CAB+CAC+CATP+CABP)**2
|
|
c . * (1+GLGL_ELW(AMT,AMH)) + XFAC0/CDABS(CAT+CAB+CAC+CATP+CABP)**2,
|
|
c . (FQCD+XFAC0/CDABS(CAT+CAB+CAC)**2)*(1+GLGL_ELW(AMT,AMH)),
|
|
c . (FQCD+XFAC0/CDABS(CAT+CAB+CAC)**2)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'Hgg:',XFAC/FQCD/(4/3.d0)**2-1
|
|
c . ,CDABS(CAT)**2/(4/3.d0)**2-1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)CDABS(CAT)**2,16/9.D0,16/9.D0/CDABS(CAT)**2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(46,*)AMH,FQCD0,FQCD0+XFAC0/CDABS(CAT+CAB)**2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c YY0 = CDABS(CAT+CAC)**2*FQCD
|
|
c . + CDABS(CAT)**2*(XHGG(1)+XHQQ(1)*NFEXT)*ASG/PI
|
|
c YTT = HVV(AMH,0.D0)*(ASG/PI)**2*YY0/8/HGG*(1+GLGL_ELW(AMT,AMH))
|
|
c YY0 = CDABS(CAB)**2*(FQCD+(XHGG(2)+XHQQ(2)*NFEXT)*ASG/PI)
|
|
c YBB = HVV(AMH,0.D0)*(ASG/PI)**2*YY0/8/HGG*(1+GLGL_ELW(AMT,AMH))
|
|
c YY0 = 2*DREAL(DCONJG(CAT+CAC)*CAB)*FQCD
|
|
c . + 2*DREAL(DCONJG(CAT)*CAB)*(XHGG(3)+XHQQ(3)*NFEXT)*ASG/PI
|
|
c YTB = HVV(AMH,0.D0)*(ASG/PI)**2*YY0/8/HGG*(1+GLGL_ELW(AMT,AMH))
|
|
c write(51,('f4.0,4(g18.10)'))AMH,HGG,YTT,YBB,YTB
|
|
c write(6,*)'gg: ',AMH,YTT+YBB+YTB
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XFAC1 = CDABS(CAT)**2*(XHGG(1)+XHQQ(1)*NFEXT)*ASG/PI
|
|
c XFAC2 = CDABS(CAB)**2*(XHGG(2)+XHQQ(2)*NFEXT)*ASG/PI
|
|
c XFAC3 = 2*DREAL(DCONJG(CAT)*CAB)*(XHGG(3)+XHQQ(3)*NFEXT)*ASG/PI
|
|
c write(50,*)AMH,FQCD0,XFAC1/CDABS(CAT)**2/FQCD0
|
|
c write(50,*)AMH,FQCD0,XFAC2/CDABS(CAB)**2/FQCD0
|
|
c write(50,*)AMH,FQCD0,XFAC3/(2*DREAL(DCONJG(CAT)*CAB))/FQCD0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(50,*)AMH,FQCD0,FQCD0+XFAC1/CDABS(CAT)**2
|
|
c write(51,*)AMH,FQCD0,FQCD0+XFAC2/CDABS(CAB)**2
|
|
c write(52,*)AMH,FQCD0,FQCD0+XFAC3/(2*DREAL(DCONJG(CAT)*CAB))
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ELSE
|
|
IM = IGGELW
|
|
FQCD0=HGGQCD(ASG,5)
|
|
DQCD=DHGGQCD2(ASG,5,AMH,AMT)
|
|
PQCD=PHGGQCD2(ASG,5,AMH,AMT)
|
|
FAC4 = -ASG**2/PI**2*(77/288.D0*2 + (2/3.D0*5+19/8.D0)
|
|
. * (CPBP*DLOG(AMBP**2/AMT**2)+CPTP*DLOG(AMTP**2/AMT**2))
|
|
. / (CPT+CPBP+CPTP))
|
|
IF(CPBP.EQ.0.D0.AND.CPTP.EQ.0.D0.AND.CPT.EQ.0.D0)
|
|
. FAC4 = -ASG**2/PI**2*(77/288.D0*2)
|
|
FQCD=HGGQCD2(ASG,5,AMH,AMT)+FAC4
|
|
DQCD=DQCD+FAC4/2
|
|
XFAC = CDABS(CAT+CAB+CAC+CATP+CABP)**2*FQCD
|
|
HGG=HVV(AMH,0.D0)*(ASG/PI)**2*XFAC/8
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
XFAC00= DREAL(DCONJG(CAT+CAB+CAC+CATP+CABP)
|
|
. * (CAT0+CAB0+CAC0+CATP0+CABP0))*FQCD
|
|
ELSE
|
|
XFAC00 = CDABS(CAT+CAB+CAC+CATP+CABP)**2*FQCD
|
|
. + 4*DREAL(DCONJG(CAT+CAB+CAC+CATP+CABP)*CPGG)*DQCD
|
|
. + (2*CPGG)**2*PQCD
|
|
ENDIF
|
|
HGG0 = HVV(AMH,0.D0)*(ASG/PI)**2*XFAC00/8 * GLGL_ELW4(IM,AMH)
|
|
HGG=HGG+HGG0
|
|
c write(6,*)'H -> gg: ',AMH,HGG,GLGL_ELW4(IM,AMH)*100,FQCD,
|
|
c . FAC4/FQCD*100
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
IF(AMNUP.EQ.AMEP)THEN
|
|
XXL = AMEP**2
|
|
ELSE
|
|
XXL =AMNUP**2*AMEP**2/(AMNUP**2-AMEP**2)*DLOG(AMNUP**2/AMEP**2)
|
|
ENDIF
|
|
IF(AMTP.EQ.AMBP)THEN
|
|
XXQ = AMTP**2
|
|
ELSE
|
|
XXQ = AMTP**2*AMBP**2/(AMTP**2-AMBP**2)*DLOG(AMTP**2/AMBP**2)
|
|
ENDIF
|
|
CELW = GF/8/DSQRT(2.D0)/PI**2*(5*AMT**2/2
|
|
. + 7*(AMNUP**2+AMEP**2)/6 - XXL
|
|
. + 3*(AMTP**2+AMBP**2)/2 - 3*XXQ)
|
|
c write(6,*)'H -> gg: ',AMH,2*CELW*100,GLGL_ELW4(IM,AMH)*100
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ENDIF
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'H -> gg: ',HGG,DBB,DCC
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
IF(NFGG.EQ.3)THEN
|
|
HGG = HGG - DBB - DCC
|
|
ELSEIF(NFGG.EQ.4)THEN
|
|
HGG = HGG - DBB
|
|
DCC = 0
|
|
ELSE
|
|
DCC = 0
|
|
DBB = 0
|
|
ENDIF
|
|
IF(IFERMPHOB.NE.0)THEN
|
|
c write(6,*)'Fermiophobic: H -> gg ---> 0'
|
|
HGG = 0
|
|
DBB = 0
|
|
DCC = 0
|
|
ENDIF
|
|
c write(6,*)'H -> GG: ',FQCD0,FQCD,FQCD-FQCD0
|
|
c write(6,*)'H -> GG: ',(FQCD0-1)/ASG*PI,(FQCD-FQCD0)/ASG**2*PI**2
|
|
c write(6,*)'H -> GG: ',GLGL_ELW(AMT,AMH)
|
|
c write(6,*)'XFAC(',AMH,') = ',xfac
|
|
c write(6,*)'BR(H -> gg) = ',HGG
|
|
c write(6,*)'Ga(H -> gg) = ',HGG,HGG0,HVV(AMH,0.D0),XFAC,XFAC0
|
|
|
|
SM4FACF=1
|
|
SM4FACW = 1
|
|
SM4FACZ = 1
|
|
IF(ISM4.NE.0)THEN
|
|
SM4FACF=1+ELW4_HDEC(AMNUP,AMEP,AMTP,AMBP)
|
|
SM4FACW=1+ELW4V_HDEC(1,AMNUP,AMEP,AMTP,AMBP)
|
|
SM4FACZ=1+ELW4V_HDEC(2,AMNUP,AMEP,AMTP,AMBP)
|
|
c write(6,*)'SM4 elw.: ff,WW,ZZ ',(SM4FACF-1)*100,
|
|
c . (SM4FACW-1)*100,(SM4FACZ-1)*100
|
|
ENDIF
|
|
|
|
C H ---> E E
|
|
c CPEL = CPMU
|
|
c AMELEC = 0.510998910D-3
|
|
c IF(AMH.LE.2*AMELEC) THEN
|
|
c HEE = 0
|
|
c ELSE
|
|
c HEE=HFF(AMH,(AMELEC/AMH)**2)
|
|
c . *(1+ELW0(AMH,AMELEC,-1.D0,7.D0))
|
|
c . *(1+ELW(AMH,AMELEC,0.D0,-1.D0,-1/2.D0))
|
|
c . *HFFSELF(AMH)
|
|
c . *SM4FACF
|
|
c . * CPEL**2
|
|
c IF(ICOUPELW.EQ.0)THEN
|
|
c HEE=HFF(AMH,(AMELEC/AMH)**2) * CPMU
|
|
c . * ((CPEL-1)
|
|
c . +(1+ELW0(AMH,AMELEC,-1.D0,7.D0))
|
|
c . +(1+ELW(AMH,AMELEC,0.D0,-1.D0,-1/2.D0))
|
|
c . *HFFSELF(AMH) * SM4FACF)
|
|
c ENDIF
|
|
c ENDIF
|
|
C H ---> MU MU
|
|
IF(AMH.LE.2*AMMUON) THEN
|
|
HMM = 0
|
|
ELSE
|
|
HMM=HFF(AMH,(AMMUON/AMH)**2)
|
|
c . *(1+ELW0(AMH,AMMUON,-1.D0,7.D0))
|
|
. *(1+ELW(AMH,AMMUON,0.D0,-1.D0,-1/2.D0))
|
|
. *HFFSELF(AMH)
|
|
. *SM4FACF
|
|
. * CPMU**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HMM=HFF(AMH,(AMMUON/AMH)**2) * CPMU
|
|
. * ((CPMU-1)
|
|
c . +(1+ELW0(AMH,AMMUON,-1.D0,7.D0))
|
|
. +(1+ELW(AMH,AMMUON,0.D0,-1.D0,-1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
ENDIF
|
|
ENDIF
|
|
c write(6,*)'ee/mumu: ',HEE/HMM,HEE/HMM * AMMUON**2/AMELEC**2
|
|
C H ---> TAU TAU
|
|
IF(AMH.LE.2*AMTAU) THEN
|
|
HLL = 0
|
|
ELSE
|
|
HLL=HFF(AMH,(AMTAU/AMH)**2)
|
|
c . *(1+ELW0(AMH,AMTAU,-1.D0,7.D0))
|
|
. *(1+ELW(AMH,AMTAU,0.D0,-1.D0,-1/2.D0))
|
|
. *HFFSELF(AMH)
|
|
. *SM4FACF
|
|
. * CPTAU**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HLL=HFF(AMH,(AMTAU/AMH)**2) * CPTAU
|
|
. * ((CPTAU-1)
|
|
c . +(1+ELW0(AMH,AMTAU,-1.D0,7.D0))
|
|
. +(1+ELW(AMH,AMTAU,0.D0,-1.D0,-1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c write(96,*)AMH,ELW0(AMH,AMTAU,-1.D0,7.D0)
|
|
c . -ALPH/PI*3.D0/2*(3.D0/2-DLOG(AMH**2/AMTAU**2))
|
|
c . ,ELW(AMH,AMTAU,0.D0,-1.D0,-1/2.D0)
|
|
c . -ALPH/PI*HQCDM(BETA_HDEC(AMTAU**2/AMH**2))
|
|
c . +GF*AMH**2/16.D0/PI**2/DSQRT(2.D0)*2.117203D0
|
|
|
|
c write(6,*)'tau tau: ',AMH,ELW0(AMH,AMTAU,-1.D0,7.D0),HFFSELF(AMH)
|
|
ash0 = ash
|
|
ash = alphas_hdec(scalmq*amh,3)
|
|
as5 = ash
|
|
amc0=1.d8
|
|
amb0=2.d8
|
|
as3=alphas_hdec(amh,3)
|
|
amc0=amc
|
|
as4=alphas_hdec(amh,3)
|
|
amb0=amb
|
|
C H --> SS
|
|
ash = as3
|
|
IRAT = 0
|
|
RATCOUP = 1
|
|
XQCD0 = QCDH(RMS**2/AMH**2,5)
|
|
IF(CPT.EQ.0.D0)THEN
|
|
RATCOUP = 0
|
|
ELSE
|
|
IF(CPS.EQ.0.D0)THEN
|
|
CPS = 1.D-20
|
|
IRAT = 1
|
|
ENDIF
|
|
RATCOUP = CPT/CPS
|
|
ENDIF
|
|
XQCD1= QCDH(RMS**2/AMH**2,5)
|
|
XQCD = (XQCD0-XQCD1)/2/XQCD1
|
|
IF(AMH.LE.2*AMS) THEN
|
|
HSS = 0
|
|
ELSE
|
|
HS2=3.D0*HFF(AMH,(RMS/AMH)**2)
|
|
. *QCDH(RMS**2/AMH**2,5)
|
|
c . *(1+ELW0(AMH,RMS,-1.D0/3.D0,7.D0))
|
|
. *(1+ELW(AMH,AMS,AMC,-1/3.D0,-1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF
|
|
. * CPS**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HS2=3.D0*HFF(AMH,(RMS/AMH)**2) * CPS
|
|
. *QCDH(RMS**2/AMH**2,5)
|
|
. * ((CPS-1)
|
|
c . +(1+ELW0(AMH,RMS,-1.D0/3.D0,7.D0)*(1+XQCD))
|
|
. +(1+ELW(AMH,AMS,AMC,-1/3.D0,-1/2.D0)*(1+XQCD))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
ENDIF
|
|
c IF(HS2.LT.0.D0) HS2 = 0
|
|
HS1=3.D0*HFF(AMH,(AMS/AMH)**2)
|
|
. *TQCDH(AMS**2/AMH**2)
|
|
c . *(1+ELW0(AMH,RMS,-1.D0/3.D0,7.D0))
|
|
. *(1+ELW(AMH,AMS,AMC,-1/3.D0,-1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF
|
|
. *CPS**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HS1=3.D0*HFF(AMH,(AMS/AMH)**2) * CPS
|
|
. *TQCDH(AMS**2/AMH**2)
|
|
. * ((CPS-1)
|
|
c . +(1+ELW0(AMH,RMS,-1.D0/3.D0,7.D0))
|
|
. +(1+ELW(AMH,AMS,AMC,-1/3.D0,-1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
ENDIF
|
|
RAT = 2*AMS/AMH
|
|
HSS = QQINT_HDEC(RAT,HS1,HS2)
|
|
ENDIF
|
|
c HSS = HSS * SM4FACF
|
|
IF(IRAT.EQ.1)CPS = 0
|
|
C H --> CC
|
|
ash = as4
|
|
IRAT = 0
|
|
RATCOUP = 1
|
|
XQCD0 = QCDH(RMC**2/AMH**2,5)
|
|
IF(CPT.EQ.0.D0)THEN
|
|
RATCOUP = 0
|
|
ELSE
|
|
IF(CPC.EQ.0.D0)THEN
|
|
CPC = 1.D-20
|
|
IRAT = 1
|
|
ENDIF
|
|
RATCOUP = CPT/CPC
|
|
ENDIF
|
|
XQCD1= QCDH(RMC**2/AMH**2,5)
|
|
XQCD = (XQCD0-XQCD1)/2/XQCD1
|
|
IF(AMH.LE.2*AMC) THEN
|
|
HCC = 0
|
|
ELSE
|
|
HC2=3.D0*HFF(AMH,(RMC/AMH)**2)
|
|
. *QCDH(RMC**2/AMH**2,5)
|
|
c . *(1+ELW0(AMH,RMC,2.D0/3.D0,7.D0))
|
|
. *(1+ELW(AMH,AMC,AMS,2/3.D0,1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF
|
|
. *CPC**2
|
|
. + DCC
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HC2=3.D0*HFF(AMH,(RMC/AMH)**2) * CPC
|
|
. *QCDH(RMC**2/AMH**2,5)
|
|
. * ((CPC-1)
|
|
c . +(1+ELW0(AMH,RMC,2.D0/3.D0,7.D0)*(1+XQCD))
|
|
. +(1+ELW(AMH,AMC,AMS,2/3.D0,1/2.D0)*(1+XQCD))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
. + DCC
|
|
ENDIF
|
|
c IF(HC2.LT.0.D0) HC2 = 0
|
|
HC1=3.D0*HFF(AMH,(AMC/AMH)**2)
|
|
. *TQCDH(AMC**2/AMH**2)
|
|
c . *(1+ELW0(AMH,AMC,2.D0/3.D0,7.D0))
|
|
. *(1+ELW(AMH,AMC,AMS,2/3.D0,1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF
|
|
. *CPC**2
|
|
. + DCC
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HC1=3.D0*HFF(AMH,(AMC/AMH)**2) * CPC
|
|
. *TQCDH(AMC**2/AMH**2)
|
|
. * ((CPC-1)
|
|
c . +(1+ELW0(AMH,AMC,2.D0/3.D0,7.D0))
|
|
. +(1+ELW(AMH,AMC,AMS,2/3.D0,1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
. + DCC
|
|
ENDIF
|
|
RAT = 2*AMC/AMH
|
|
HCC = QQINT_HDEC(RAT,HC1,HC2)
|
|
c write(6,*)'H -> cc: ',HCC,QCDH(RMC**2/AMH**2,5)
|
|
c write(6,*)'H -> cc: ',
|
|
c . RMC**2/AMH**2*(-93.72459D0+12)*(ASH/PI)**2/QCDH(RMC**2/AMH**2,5)
|
|
|
|
c eps00 = 1.d-15
|
|
c xq1 = amb*(1-eps00)
|
|
c xq2 = amb*(1+eps00)
|
|
c xal1 = alphas_hdec(xq1,3)
|
|
c xal2 = alphas_hdec(xq2,3)
|
|
c xdel1= 7*alphas_hdec(xq1,3)**2/pi**2/24
|
|
c xdel2= 7*alphas_hdec(xq2,3)**2/pi**2/24
|
|
c write(6,*)xal1,xal2
|
|
c write(6,*)(xal2-xal1)/xal1,(xal2-xal1)/xal2
|
|
c write(6,*)xdel2,xdel1
|
|
|
|
c ALS0 = ALPHAS_HDEC(AMZ,3)
|
|
c WMC = RUNM_HDEC(AMC,4,0)
|
|
c YMC = RUNM_HDEC(3.D0,4,0)
|
|
c ZMC = 0.996D0-(ALS0-0.1189D0)/2.D0*9
|
|
c do i =125,133
|
|
c sc = i/100.D0
|
|
c XMC = RUNM_HDEC(sc,4,0)
|
|
c write(6,*)
|
|
c write(6,*)sc,XMC,AMC,YMC,ZMC,WMC,ALS0
|
|
c enddo
|
|
ENDIF
|
|
c HCC = HCC * SM4FACF
|
|
IF(IRAT.EQ.1)CPC = 0
|
|
c write(6,*)AMB,AMC
|
|
C H --> BB :
|
|
ash = as5
|
|
IRAT = 0
|
|
RATCOUP = 1
|
|
XQCD0 = QCDH(RMB**2/AMH**2,5)
|
|
IF(CPT.EQ.0.D0)THEN
|
|
RATCOUP = 0
|
|
ELSE
|
|
IF(CPB.EQ.0.D0)THEN
|
|
CPB = 1.D-20
|
|
IRAT = 1
|
|
ENDIF
|
|
RATCOUP = CPT/CPB
|
|
ENDIF
|
|
XQCD1= QCDH(RMB**2/AMH**2,5)
|
|
XQCD = (XQCD0-XQCD1)/2/XQCD1
|
|
IF(AMH.LE.2*AMB) THEN
|
|
HBB = 0
|
|
ELSE
|
|
HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
. *QCDH(RMB**2/AMH**2,5)
|
|
c . *(1+ELW0(AMH,RMB,-1.D0/3.D0,1.D0))
|
|
. *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF
|
|
. * CPB**2
|
|
. + DBB
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HB2=3.D0*HFF(AMH,(RMB/AMH)**2) * CPB
|
|
. *QCDH(RMB**2/AMH**2,5)
|
|
. * ((CPB-1)
|
|
c . +(1+ELW0(AMH,RMB,-1.D0/3.D0,1.D0)*(1+XQCD))
|
|
. +(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0)*(1+XQCD))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
. + DBB
|
|
ENDIF
|
|
c IF(HB2.LT.0.D0) HB2 = 0
|
|
HB1=3.D0*HFF(AMH,(AMB/AMH)**2)
|
|
. *TQCDH(AMB**2/AMH**2)
|
|
c . *(1+ELW0(AMH,AMB,-1.D0/3.D0,1.D0))
|
|
. *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF
|
|
. * CPB**2
|
|
. + DBB
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HB1=3.D0*HFF(AMH,(AMB/AMH)**2) * CPB
|
|
. *TQCDH(AMB**2/AMH**2)
|
|
. * ((CPB-1)
|
|
c . +(1+ELW0(AMH,AMB,-1.D0/3.D0,1.D0))
|
|
. +(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
. + DBB
|
|
ENDIF
|
|
RAT = 2*AMB/AMH
|
|
HBB = QQINT_HDEC(RAT,HB1,HB2)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
if(ioutput.eq.1)then
|
|
c--LO QCD
|
|
HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
. *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
. *HFFSELF(AMH)
|
|
c HBB0 = QQINT_HDEC(RAT,HB1,HB2)
|
|
HBB0 = HB2
|
|
c--1-loop QCD
|
|
HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
. *QCDH1(RMB**2/AMH**2,5)
|
|
. *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
. *HFFSELF(AMH)
|
|
c HBB1 = QQINT_HDEC(RAT,HB1,HB2)
|
|
HBB1 = HB2
|
|
c--2-loop QCD
|
|
HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
. *QCDH2(RMB**2/AMH**2,5)
|
|
. *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
. *HFFSELF(AMH)
|
|
c HBB2 = QQINT_HDEC(RAT,HB1,HB2)
|
|
HBB2 = HB2
|
|
c--3-loop QCD
|
|
HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
. *QCDH3(RMB**2/AMH**2,5)
|
|
. *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
. *HFFSELF(AMH)
|
|
c HBB3 = QQINT_HDEC(RAT,HB1,HB2)
|
|
HBB3 = HB2
|
|
c--4-loop QCD
|
|
HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
. *QCDH(RMB**2/AMH**2,5)
|
|
. *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
. *HFFSELF(AMH)
|
|
c HBB4 = QQINT_HDEC(RAT,HB1,HB2)
|
|
HBB4 = HB2
|
|
write(50,*)'Gamma(H -> bb) =',HBB,' GeV'
|
|
write(50,*)'=============='
|
|
write(50,*)'scale LO 1-loop',
|
|
. ' 2-loop 3-loop 4-loop'
|
|
write(50,"(g10.4,5(1x,g12.5))")scalmq,hbb0,hbb1,hbb2,hbb3,hbb4
|
|
write(50,*)
|
|
write(50,*)'Running Parameters'
|
|
write(50,*)'=================='
|
|
write(50,*)'mb(mb) mb(M_H/2) mb(M_H) mb(2*M_H)'
|
|
write(50,"(g12.6,3(1x,g12.6))")ambb,runm_hdec(amh/2,5,1),
|
|
. runm_hdec(amh,5,1),runm_hdec(2*amh,5,1)
|
|
write(50,*)
|
|
write(50,*)'alpha_s(MZ) alpha_s(MH/2) alpha_s(MH)',
|
|
. ' alpha_s(2*MH)'
|
|
write(50,"(1x,g12.6,3(3x,g12.6))")alphas_hdec(amz,3),
|
|
. alphas_hdec(amh/2,3),alphas_hdec(amh,3),alphas_hdec(2*amh,3)
|
|
endif
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c--scale dependence
|
|
c scalmq0 = scalmq
|
|
c rmb0 = rmb
|
|
c nn = 100
|
|
c do i=-nn,nn
|
|
c scalmq = 10.d0**(i/dfloat(nn))
|
|
c rmb = runm_hdec(scalmq*amh,5,1)
|
|
c ash = alphas_hdec(scalmq*amh,3)
|
|
c--LO QCD
|
|
c HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
c . *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
c . *HFFSELF(AMH)
|
|
c HBB0 = HB2
|
|
c--1-loop QCD
|
|
c HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
c . *QCDH1(RMB**2/AMH**2,5)
|
|
c . *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
c . *HFFSELF(AMH)
|
|
c HBB1 = HB2
|
|
c--2-loop QCD
|
|
c HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
c . *QCDH2(RMB**2/AMH**2,5)
|
|
c . *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
c . *HFFSELF(AMH)
|
|
c HBB2 = HB2
|
|
c--3-loop QCD
|
|
c HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
c . *QCDH3(RMB**2/AMH**2,5)
|
|
c . *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
c . *HFFSELF(AMH)
|
|
c HBB3 = HB2
|
|
c--4-loop QCD
|
|
c HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
c . *QCDH(RMB**2/AMH**2,5)
|
|
c . *(1+ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0))
|
|
c . *HFFSELF(AMH)
|
|
c HBB4 = HB2
|
|
c write(51,"(g10.4,5(1x,g12.5))")scalmq,hbb0,hbb1,hbb2,hbb3,hbb4
|
|
c enddo
|
|
c scalmq = scalmq0
|
|
c rmb = rmb0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'H -> bb: ',QCDH(RMB**2/AMH**2,5),HQCDSC(AMH,AMH/2,5),ASH
|
|
c write(6,*)'h -> bb = ',AMH,HBB
|
|
c write(6,*)'H -> bb: ',HBB,QCDH(RMB**2/AMH**2,5)
|
|
c write(6,*)'H -> bb: ',QCDH(RMB**2/AMH**2,5)
|
|
c write(6,*)'H -> bb: ',
|
|
c . RMB**2/AMH**2*(-93.72459D0+12)*(ASH/PI)**2/QCDH(RMB**2/AMH**2,5)
|
|
|
|
c write(6,*)AMH,HBB,RMB,RUNM_HDEC(AMB,5,1),AMB,HB1,HB2
|
|
c write(6,*)AMH,ELW0(AMH,AMB,-1.D0/3.D0,1.D0),
|
|
c . ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0)
|
|
c write(6,*)(1.570D0-2*DLOG(HIGTOP)/3+ DLOG(RMB**2/AMH**2)**2/9)
|
|
c . *(ASH/PI)**2,
|
|
c . QCDH(RMB**2/AMH**2,5)-1
|
|
c write(6,*)'mu,tau,b: ',ELW(AMH,AMMUON,0.D0,-1.D0,-1/2.D0)
|
|
c . ,ELW(AMH,AMTAU,0.D0,-1.D0,-1/2.D0)
|
|
c . ,ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0)
|
|
|
|
c write(97,*)AMH,ELW0(AMH,AMB,-1/3.D0,1.D0)
|
|
c . -ALPH/PI*3.D0/2/9*(3.D0/2-DLOG(AMH**2/AMB**2))
|
|
c . ,ELW(AMH,AMB,AMT,-1/3.D0,-1/2.D0)
|
|
c . -ALPH/PI/9*HQCDM(BETA_HDEC(AMB**2/AMH**2))
|
|
c . +GF*AMH**2/16.D0/PI**2/DSQRT(2.D0)*2.117203D0
|
|
|
|
c write(6,*)AMH,
|
|
c . ALPH/PI*AMH**2/32.D0/AMW**2/(1-AMW**2/AMZ**2)*2.117203D0
|
|
c write(6,*)
|
|
|
|
c write(6,*)RMC,RUNM_HDEC(AMC,4,0),RMC/RUNM_HDEC(AMC,4,0),
|
|
c . QCDH(RMC**2/AMH**2,5),
|
|
c . RMB,RUNM_HDEC(AMB,5,1),RMB/RUNM_HDEC(AMB,5,1),
|
|
c . QCDH(RMB**2/AMH**2,5)
|
|
|
|
c write(6,*)'bb: ',AMH,RATCOUP*(1.570D0 - 2*DLOG(HIGTOP)/3
|
|
c . + DLOG(AMH**2/RMB**2)**2/9)*(ASH/PI)**2,QCDH(RMB**2/AMH**2,5)-1,
|
|
c . ELW0(AMH,AMB,-1.D0/3.D0,1.D0),HFFSELF(AMH)
|
|
|
|
c write(6,*)AMH,HB1,HB2,HBB
|
|
|
|
c write(61,*)AMH,1.D0+GF*AMH**2/16.D0/PI**2/DSQRT(2.D0)*2.117203D0,
|
|
c . HFFSELF(AMH)
|
|
|
|
c ALS0 = ALPHAS_HDEC(AMZ,3)
|
|
c WMB = RUNM_HDEC(AMB,5,1)
|
|
c YMB = 4.163D0-(ALS0-0.1189D0)/2.D0*12
|
|
c XMB = RUNM_HDEC(YMB,5,1)
|
|
c write(6,*)
|
|
c write(6,*)AMB,XMB,YMB,WMB,ALS0
|
|
c do i =1,100
|
|
c sc = i
|
|
c XMS = RUNM_HDEC(sc,3,0)
|
|
c XMC = RUNM_HDEC(sc,4,0)
|
|
c XMB = RUNM_HDEC(sc,5,1)
|
|
c write(66,*)sc,XMS,XMC,XMB,ALS0
|
|
c enddo
|
|
ENDIF
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c--check interpolation massive NLO with massles N4LO
|
|
c IF(AMH.LE.2*AMB) THEN
|
|
c HB1=0
|
|
c HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
c . *QCDH(RMB**2/AMH**2,5)
|
|
c ELSE
|
|
c HB1=3.D0*HFF(AMH,(AMB/AMH)**2)
|
|
c . *TQCDH(AMB**2/AMH**2)
|
|
c HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
c . *QCDH(RMB**2/AMH**2,5)
|
|
c ENDIF
|
|
c RAT = 2*AMB/AMH
|
|
c HB3 = QQINT_HDEC(RAT,HB1,HB2)
|
|
c write(96,"(g10.4,3(1x,g12.5))")amh,hb3,hb1,hb2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c HBB = HBB * SM4FACF
|
|
IF(IRAT.EQ.1)CPB = 0
|
|
|
|
c HB1X=3.D0*HFF(AMH,(AMB/AMH)**2)
|
|
c . *TQCDH(AMB**2/AMH**2)
|
|
c . /(BETA_HDEC(AMB**2/AMH**2))**3
|
|
c HB2X=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
c . *QCDH(RMB**2/AMH**2,5)
|
|
c . /(BETA_HDEC(RMB**2/AMH**2))**3
|
|
c RATCOUP = 0
|
|
c deltaqcd = QCDH(RMB**2/AMH**2,5)
|
|
c RATCOUP = 1
|
|
c deltat = QCDH(RMB**2/AMH**2,5) - deltaqcd
|
|
c write(6,*)'SM: MH = ',AMH
|
|
c write(6,*)'scale = ',scalmq
|
|
c write(6,*)'alphas(MZ) = ',ALPHAS_HDEC(AMZ,3)
|
|
c write(6,*)'alphas(MH/2) = ',ALPHAS_HDEC(AMH/2,3)
|
|
c write(6,*)'alphas(MH) = ',ALPHAS_HDEC(AMH,3)
|
|
c write(6,*)'alphas(2*MH) = ',ALPHAS_HDEC(2*AMH,3)
|
|
c write(6,*)'alphas(mb) = ',ALPHAS_HDEC(AMB,3)
|
|
c write(6,*)'mb,mb(mb) = ',AMB,RUNM_HDEC(AMB,5,1)
|
|
c write(6,*)'mb(MH,100) = ',RMB,RUNM_HDEC(100.D0,5,1)
|
|
c write(6,*)'deltaqcd,t = ',deltaqcd,deltat
|
|
c write(6,*)'Gamma(0) = ',HB2X,HB1X
|
|
c write(6,*)'Gamma(mb) = ',HB2,HB1
|
|
c write(6,*)'mb = ',AMB
|
|
c write(6,*)'mb(MH/2) = ',RUNM_HDEC(AMH/2,5,1)
|
|
c write(6,*)'mc = ',AMC
|
|
c write(6,*)'mc(MH/2) = ',RUNM_HDEC(AMH/2,4,0)
|
|
c write(6,*)'mb(mb),Mb = ',AMBB,AMBB*(1+4*ALPHAS_HDEC(AMBB,3)/3/PI)
|
|
|
|
c ALS0 = ALPHAS_HDEC(AMZ,3)
|
|
c WMT = RUNM_HDEC(AMT,6,1)
|
|
c do i =165440,165450
|
|
c sc = i/1000.D0
|
|
c XMT = RUNM_HDEC(sc,6,1)
|
|
c write(6,*)
|
|
c write(6,*)sc,XMT,AMT,WMT,ALS0
|
|
c enddo
|
|
|
|
C H ---> TT
|
|
IRAT = 0
|
|
RATCOUP = 0
|
|
IF(IONSH.EQ.0)THEN
|
|
DLD=3D0
|
|
DLU=5D0
|
|
XM1 = 2D0*AMT-DLD
|
|
XM2 = 2D0*AMT+DLU
|
|
IF (AMH.LE.AMT+AMW+AMB) THEN
|
|
HTT=0.D0
|
|
ELSEIF (AMH.LE.XM1) THEN
|
|
FACTT=6.D0*GF**2*AMH**3*AMT**2/2.D0/128.D0/PI**3
|
|
CALL HTOTTS_HDEC(AMH,AMT,AMB,AMW,HTTS)
|
|
HTT=FACTT*HTTS
|
|
ELSEIF (AMH.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
FACTT=6.D0*GF**2*XX(1)**3*AMT**2/2.D0/128.D0/PI**3
|
|
CALL HTOTTS_HDEC(XX(1),AMT,AMB,AMW,HTTS)
|
|
YY(1)=FACTT*HTTS
|
|
FACTT=6.D0*GF**2*XX(2)**3*AMT**2/2.D0/128.D0/PI**3
|
|
CALL HTOTTS_HDEC(XX(2),AMT,AMB,AMW,HTTS)
|
|
YY(2)=FACTT*HTTS
|
|
XMT = RUNM_HDEC(XX(3),6,1)
|
|
XY2=3.D0*HFF(XX(3),(XMT/XX(3))**2)
|
|
. *QCDH(XMT**2/XX(3)**2,5)
|
|
. *(1+ELW(XX(3),AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(XX(3)) * SM4FACF
|
|
. * CPT**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
XY2=3.D0*HFF(XX(3),(XMT/XX(3))**2) * CPT
|
|
. *QCDH(XMT**2/XX(3)**2,5)
|
|
. * ((CPT-1)
|
|
. +(1+ELW(XX(3),AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(XX(3)) * SM4FACF)
|
|
ENDIF
|
|
IF(XY2.LT.0.D0) XY2 = 0
|
|
XY1=3.D0*HFF(XX(3),(AMT/XX(3))**2)
|
|
. *TQCDH(AMT**2/XX(3)**2)
|
|
. *(1+ELW(XX(3),AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(XX(3)) * SM4FACF
|
|
. * CPT**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
XY1=3.D0*HFF(XX(3),(AMT/XX(3))**2) * CPT
|
|
. *TQCDH(AMT**2/XX(3)**2)
|
|
. * ((CPT-1)
|
|
. +(1+ELW(XX(3),AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(XX(3)) * SM4FACF)
|
|
ENDIF
|
|
RAT = 2*AMT/XX(3)
|
|
YY(3) = QQINT_HDEC(RAT,XY1,XY2)
|
|
XMT = RUNM_HDEC(XX(4),6,1)
|
|
XY2=3.D0*HFF(XX(4),(XMT/XX(4))**2)
|
|
. *QCDH(XMT**2/XX(4)**2,5)
|
|
. *(1+ELW(XX(4),AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(XX(4)) * SM4FACF
|
|
. * CPT**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
XY2=3.D0*HFF(XX(4),(XMT/XX(4))**2) * CPT
|
|
. *QCDH(XMT**2/XX(4)**2,5)
|
|
. * ((CPT-1)
|
|
. +(1+ELW(XX(4),AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(XX(4)) * SM4FACF)
|
|
ENDIF
|
|
IF(XY2.LT.0.D0) XY2 = 0
|
|
XY1=3.D0*HFF(XX(4),(AMT/XX(4))**2)
|
|
. *TQCDH(AMT**2/XX(4)**2)
|
|
. *(1+ELW(XX(4),AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(XX(4)) * SM4FACF
|
|
. * CPT**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
XY1=3.D0*HFF(XX(4),(AMT/XX(4))**2) * CPT
|
|
. *TQCDH(AMT**2/XX(4)**2)
|
|
. * ((CPT-1)
|
|
. +(1+ELW(XX(4),AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(XX(4)) * SM4FACF)
|
|
ENDIF
|
|
RAT = 2*AMT/XX(4)
|
|
YY(4) = QQINT_HDEC(RAT,XY1,XY2)
|
|
HTT = FINT_HDEC(AMH,XX,YY)
|
|
ELSE
|
|
HT2=3.D0*HFF(AMH,(RMT/AMH)**2)
|
|
. *QCDH(RMT**2/AMH**2,5)
|
|
. *(1+ELW(AMH,AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF
|
|
. * CPT**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HT2=3.D0*HFF(AMH,(RMT/AMH)**2) * CPT
|
|
. *QCDH(RMT**2/AMH**2,5)
|
|
. * ((CPT-1)
|
|
. +(1+ELW(AMH,AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
ENDIF
|
|
IF(HT2.LT.0.D0) HT2 = 0
|
|
HT1=3.D0*HFF(AMH,(AMT/AMH)**2)
|
|
. *TQCDH(AMT**2/AMH**2)
|
|
. *(1+ELW(AMH,AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF
|
|
. * CPT**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HT1=3.D0*HFF(AMH,(AMT/AMH)**2) * CPT
|
|
. *TQCDH(AMT**2/AMH**2)
|
|
. * ((CPT-1)
|
|
. +(1+ELW(AMH,AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
ENDIF
|
|
RAT = 2*AMT/AMH
|
|
HTT = QQINT_HDEC(RAT,HT1,HT2)
|
|
c write(6,*)'H -> tt: ',
|
|
c . RMT**2/AMH**2*(-93.72459D0+12)*(ASH/PI)**2/QCDH(RMT**2/AMH**2,5)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c HT0=HTT
|
|
c TOPFAC = 0.5D0
|
|
c RMT = RUNM_HDEC(TOPFAC*AMH,6,1)
|
|
c HT2=3.D0*HFF(AMH,(RMT/AMH)**2)
|
|
c . *QCDH(RMT**2/AMH**2,5)
|
|
c . *HFFSELF(AMH)
|
|
c HTL = QQINT_HDEC(RAT,HT1,HT2)
|
|
c TOPFAC = 2
|
|
c RMT = RUNM_HDEC(TOPFAC*AMH,6,1)
|
|
c HT2=3.D0*HFF(AMH,(RMT/AMH)**2)
|
|
c . *QCDH(RMT**2/AMH**2,5)
|
|
c . *HFFSELF(AMH)
|
|
c HTU = QQINT_HDEC(RAT,HT1,HT2)
|
|
c write(6,*)'H -> TT: ',AMH,HT0,HTL/HT0,HTU/HT0
|
|
c TOPFAC = 1
|
|
c RMT = RUNM_HDEC(AMH,6,1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ENDIF
|
|
ELSE
|
|
IF (AMH.LE.2.D0*AMT) THEN
|
|
HTT=0.D0
|
|
ELSE
|
|
HT2=3.D0*HFF(AMH,(RMT/AMH)**2)
|
|
. *QCDH(RMT**2/AMH**2,5)
|
|
. *(1+ELW(AMH,AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF
|
|
. * CPT**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HT2=3.D0*HFF(AMH,(RMT/AMH)**2) * CPT
|
|
. *QCDH(RMT**2/AMH**2,5)
|
|
. * ((CPT-1)
|
|
. +(1+ELW(AMH,AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
ENDIF
|
|
IF(HT2.LT.0.D0) HT2 = 0
|
|
HT1=3.D0*HFF(AMH,(AMT/AMH)**2)
|
|
. *TQCDH(AMT**2/AMH**2)
|
|
. *(1+ELW(AMH,AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF
|
|
. * CPT**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HT1=3.D0*HFF(AMH,(AMT/AMH)**2) * CPT
|
|
. *TQCDH(AMT**2/AMH**2)
|
|
. * ((CPT-1)
|
|
. +(1+ELW(AMH,AMT,AMB,2/3.D0,1/2.D0))
|
|
. *HFFSELF(AMH) * SM4FACF)
|
|
ENDIF
|
|
RAT = 2*AMT/AMH
|
|
HTT = QQINT_HDEC(RAT,HT1,HT2)
|
|
ENDIF
|
|
ENDIF
|
|
ASH = ASH0
|
|
c HTT=HTT*SM4FACF
|
|
IF(IFERMPHOB.NE.0)THEN
|
|
c write(6,*)'Fermiophobic: H -> mu mu,tau tau,ss,cc,bb,tt ---> 0'
|
|
HMM = 0
|
|
HLL = 0
|
|
HSS = 0
|
|
HCC = 0
|
|
HBB = 0
|
|
HTT = 0
|
|
ENDIF
|
|
ASH0 = ASH
|
|
C H ---> GAMMA GAMMA
|
|
EPS=1.D-8
|
|
XRMC = RUNM_HDEC(AMH/2,4,0)*AMC/RUNM_HDEC(AMC,4,0)
|
|
XRMB = RUNM_HDEC(AMH/2,5,1)*AMB/RUNM_HDEC(AMB,5,1)
|
|
XRMT = RUNM_HDEC(AMH/2,6,1)*AMT/RUNM_HDEC(AMT,6,1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XRMC = AMC
|
|
c XRMB = AMB
|
|
c XRMT = AMT
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CTT = 4*XRMT**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*XRMB**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTC = 4*XRMC**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTL = 4*AMTAU**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTW = 4*AMW**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CAW = -(2+3*CTW+3*CTW*(2-CTW)*CF(CTW)) * CPW
|
|
CAW00= -(2+3*CTW+3*CTW*(2-CTW)*CF(CTW))
|
|
CAT00= 4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT))
|
|
CAB00= 1/3D0 * 2*CTB*(1+(1-CTB)*CF(CTB))
|
|
CAC00= 4/3D0 * 2*CTC*(1+(1-CTC)*CF(CTC))
|
|
CAL00 = 2*CTL*(1+(1-CTL)*CF(CTL))
|
|
CAT0= 4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT)) * CPT
|
|
CAB0= 1/3D0 * 2*CTB*(1+(1-CTB)*CF(CTB)) * CPB
|
|
CAC0= 4/3D0 * 2*CTC*(1+(1-CTC)*CF(CTC)) * CPC
|
|
CAT = 4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT)) * CPT
|
|
. * CFACQ_HDEC(0,AMH,XRMT)
|
|
CAB = 1/3D0 * 2*CTB*(1+(1-CTB)*CF(CTB)) * CPB
|
|
. * CFACQ_HDEC(0,AMH,XRMB)
|
|
CAC = 4/3D0 * 2*CTC*(1+(1-CTC)*CF(CTC)) * CPC
|
|
. * CFACQ_HDEC(0,AMH,XRMC)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c--default
|
|
c topscale0 = amh/2
|
|
c xfac = cdabs(cat+cab+cac+cal+caw)**2
|
|
c xxx0 = cdabs(cat00+cab00+cac00+cal+caw)**2
|
|
c--pole mass
|
|
c dshift = dlog(amt**2/topscale0**2)
|
|
c ctrun=-cdct(amh,amt)*dshift*alphas_hdec(amh,3)/pi
|
|
c cctt0 = 4*amt**2/amh**2*dcmplx(1D0,-eps)
|
|
c cat1 = 4/3d0 * 2*cctt0*(1+(1-cctt0)*cf(cctt0))
|
|
c . * (cfacq_hdec(0,amh,amt)+ctrun)
|
|
c xfac0 = cdabs(cat0+cab+cac+cal+caw)**2
|
|
c--scale = M_H/4
|
|
c topscale = amh/4
|
|
c dshift = dlog(topscale**2/topscale0**2)
|
|
c xrmt0 = runm_hdec(topscale,6,1)*amt/runm_hdec(amt,6,1)
|
|
c ctrun=-cdct(amh,xrmt0)*dshift*alphas_hdec(amh,3)/pi
|
|
c ctt1 = 4*xrmt0**2/amh**2*dcmplx(1D0,-eps)
|
|
c cat1 = 4/3d0 * 2*ctt1*(1+(1-ctt1)*cf(ctt1))
|
|
c . * (cfacq_hdec(0,amh,xrmt0)+ctrun)
|
|
c xfac1 = cdabs(cat1+cab+cac+cal+caw)**2
|
|
c dshift = dlog(topscale**2/topscale0**2)+4/3.d0
|
|
c xrmt0 = runm_hdec(topscale,6,1)
|
|
c ctrun=-cdct(amh,xrmt0)*dshift*alphas_hdec(amh,3)/pi
|
|
c ctt1 = 4*xrmt0**2/amh**2*dcmplx(1D0,-eps)
|
|
c cat1 = 4/3d0 * 2*ctt1*(1+(1-ctt1)*cf(ctt1))
|
|
c . * (cfacq_hdec(0,amh,xrmt0)+ctrun)
|
|
c xfac10= cdabs(cat1+cab+cac+cal+caw)**2
|
|
c--scale = M_H
|
|
c topscale = amh
|
|
c dshift = dlog(topscale0**2/topscale**2)
|
|
c xrmt0 = runm_hdec(topscale,6,1)*amt/runm_hdec(amt,6,1)
|
|
c ctrun=-cdct(amh,xrmt0)*dshift*alphas_hdec(amh,3)/pi
|
|
c ctt2 = 4*xrmt0**2/amh**2*dcmplx(1D0,-eps)
|
|
c cat2 = 4/3d0 * 2*ctt2*(1+(1-ctt2)*cf(ctt2))
|
|
c . * (cfacq_hdec(0,amh,xrmt0)+ctrun)
|
|
c xfac2 = cdabs(cat2+cab+cac+cal+caw)**2
|
|
c dshift = dlog(topscale**2/topscale0**2)+4/3.d0
|
|
c xrmt0 = runm_hdec(topscale,6,1)
|
|
c ctrun=-cdct(amh,xrmt0)*dshift*alphas_hdec(amh,3)/pi
|
|
c ctt2 = 4*xrmt0**2/amh**2*dcmplx(1D0,-eps)
|
|
c cat2 = 4/3d0 * 2*ctt2*(1+(1-ctt2)*cf(ctt2))
|
|
c . * (cfacq_hdec(0,amh,xrmt0)+ctrun)
|
|
c xfac20= cdabs(cat2+cab+cac+cal+caw)**2
|
|
c write(6,*)'H -> gamma gamma: ',xfac,cdabs(cat+caw)**2,
|
|
c . cdabs(caw)**2,cdabs(cat)**2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)xfac0/xfac,xfac1/xfac,xfac2/xfac
|
|
c write(6,*)xfac10/xfac,xfac20/xfac
|
|
c write(6,*)xfac0/xxx0,xfac1/xxx0,xfac2/xxx0
|
|
c write(6,*)xfac10/xxx0,xfac20/xxx0
|
|
c xrho = 100.d0
|
|
c amx = dsqrt(xrho)*amt
|
|
c topscale0= amx/2
|
|
c topscale = amt
|
|
c dshift = dlog(topscale**2/topscale0**2)+0*4/3.d0
|
|
c ctrun=-cdct(amx,amt)*dshift*alphas_hdec(amx,3)/pi
|
|
c write(6,*)'Cfactor: ',xrho,
|
|
c . dreal(cfacq_hdec(0,amx,amt)+ctrun-1)/alphas_hdec(amx,3)*pi
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CAL = 2*CTL*(1+(1-CTL)*CF(CTL)) * CPTAU
|
|
CATP = 0
|
|
CABP = 0
|
|
CAEP = 0
|
|
CATP0 = 0
|
|
CABP0 = 0
|
|
CATP00 = 0
|
|
CABP00 = 0
|
|
CAEP00 = 0
|
|
XFAC0= CDABS(CAT0+CAB0+CAC0+CAL+CAW+CPGAGA)**2
|
|
. * IOELW*GAGA_ELW(AMT,AMH)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CCTT = 4*AMT**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CCAT = 4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT))
|
|
CCT = CFACQ_HDEC(0,AMH,AMT) - 1
|
|
c write(6,*)'H -> gamma gamma: ',CAW,CCAT,CCT,ALPHAS_HDEC(AMH,3)/PI
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c CDUM0 = CAT0+CAW
|
|
c CDUM = CAT +CAW
|
|
c CTOT0= CAW/CDUM0
|
|
c CDT0 = CAT0/CAW
|
|
c CDB0 = CAB0/CAW
|
|
c CTOT = CAW/CDUM
|
|
c CDT = CAT/CAW
|
|
c CDB = CAB/CAW
|
|
c write(6,*)'H -> gamma gamma',CTOT,CDT,CDB
|
|
c write(6,*)'H -> gamma gamma',CTOT0,CDT0,CDB0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c DUM1 = CDABS(CAT+CAB+CAC+CAL+CAW)**2
|
|
c CKOFQ = CKOFQ_HDEC(0,AMH**2/XRMT**2)
|
|
c CFACQ = CKOFQ*ALPHAS_HDEC(AMH,3)/PI
|
|
c CFACQ0 = -ALPHAS_HDEC(AMH,3)/PI
|
|
c CATX = 4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT)) * CPT
|
|
c . * (1+CFACQ0)
|
|
c DUM2 = CDABS(CATX+CAB+CAC+CAL+CAW)**2
|
|
c write(6,*)'H -> gamma gamma: ',CKOFQ,CFACQ,DUM1
|
|
c write(6,*)'H -> gamma gamma: ',-1.D0,CFACQ0,DUM2,DUM1/DUM2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
c XFAC0= CDABS(CAT00+CAB00+CAC00+CAL00+CAW00)**2*GAGA_ELW(AMT,AMH)
|
|
XFAC0= DREAL(DCONJG(CAT0+CAB0+CAC0+CAL+CAW+CPGAGA)
|
|
. * (CAT00+CAB00+CAC00+CAL00+CAW00))
|
|
. * IOELW*GAGA_ELW(AMT,AMH)
|
|
ENDIF
|
|
IF(ISM4.NE.0)THEN
|
|
XRMBP = RUNM_HDEC(AMH/2,7,1)*AMBP/RUNM_HDEC(AMBP,7,1)
|
|
XRMTP = RUNM_HDEC(AMH/2,8,1)*AMTP/RUNM_HDEC(AMTP,8,1)
|
|
CTTP = 4*XRMTP**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTBP = 4*XRMBP**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTEP = 4*AMEP**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CATP00= 4/3D0 * 2*CTTP*(1+(1-CTTP)*CF(CTTP))
|
|
CABP00= 1/3D0 * 2*CTBP*(1+(1-CTBP)*CF(CTBP))
|
|
CAEP00= 2*CTEP*(1+(1-CTEP)*CF(CTEP))
|
|
CATP0= 4/3D0 * 2*CTTP*(1+(1-CTTP)*CF(CTTP)) * CPTP
|
|
CABP0= 1/3D0 * 2*CTBP*(1+(1-CTBP)*CF(CTBP)) * CPBP
|
|
CATP = 4/3D0 * 2*CTTP*(1+(1-CTTP)*CF(CTTP)) * CPTP
|
|
. * CFACQ_HDEC(0,AMH,XRMTP)
|
|
CABP = 1/3D0 * 2*CTBP*(1+(1-CTBP)*CF(CTBP)) * CPBP
|
|
. * CFACQ_HDEC(0,AMH,XRMBP)
|
|
CAEP = 2*CTEP*(1+(1-CTEP)*CF(CTEP)) * CPEP
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c CATP = 0
|
|
c CABP = 0
|
|
c CAEP = 0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
IF(AMNUP.EQ.AMEP)THEN
|
|
XXL = AMEP**2
|
|
ELSE
|
|
XXL =AMNUP**2*AMEP**2/(AMNUP**2-AMEP**2)*DLOG(AMNUP**2/AMEP**2)
|
|
ENDIF
|
|
IF(AMTP.EQ.AMBP)THEN
|
|
XXQ = AMTP**2
|
|
ELSE
|
|
XXQ = AMTP**2*AMBP**2/(AMTP**2-AMBP**2)*DLOG(AMTP**2/AMBP**2)
|
|
ENDIF
|
|
FFT = -6
|
|
FFT = 1
|
|
CELW = GF/8/DSQRT(2.D0)/PI**2*(-49*AMT**2/2*FFT
|
|
. + 7*AMNUP**2/6 - 65*AMEP**2/6 - XXL
|
|
. - 237*AMTP**2/10 - 117*AMBP**2/10 - 3*XXQ)
|
|
CELW = CELW*(1-0.614D0*AMH**2/4/AMW**2)
|
|
XFAC0= CDABS(CAT0+CAB0+CAC0+CAL+CAW+CATP0+CABP0+CAEP+CPGAGA)**2
|
|
. * ((1+CELW)**2 - 1)
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
XFAC0= DREAL(DCONJG(CAT0+CAB0+CAC0+CAL+CAW+CATP0+CABP0+CAEP
|
|
. +CPGAGA)
|
|
. * (CAT00+CAB00+CAC00+CAL00+CAW00+CATP00+CABP00+CAEP00))
|
|
. * ((1+CELW)**2 - 1)
|
|
ENDIF
|
|
c write(6,*)'H -> ga ga: ',AMH,2*CELW*100,((1+CELW)**2-1)*100
|
|
c write(6,*)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XFAC0= 0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ENDIF
|
|
IF(IFERMPHOB.NE.0)THEN
|
|
c write(6,*)'Fermiophobic: H -> gamma gamma ---> W loop'
|
|
CAL = 0
|
|
CAC = 0
|
|
CAB = 0
|
|
CAT = 0
|
|
XFAC0= 0
|
|
c write(6,*)CDABS(CAW)**2,CDABS(CAT+CAB+CAC+CAL+CAW)**2
|
|
ENDIF
|
|
XFAC = CDABS(CAT+CAB+CAC+CAL+CAW+CATP+CABP+CAEP+CPGAGA)**2
|
|
HGA=HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*(XFAC+XFAC0)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XXX0 = CDABS(CAT00+CAB00+CAC00+CAL+CAW)**2
|
|
c XXX1 = CDABS(CAT+CAB+CAC+CAL+CAW)**2
|
|
c write(6,*)'H->gaga: ',AMH,HGA/(XFAC+XFAC0)*XXX0*1.d6,
|
|
c . HGA/(XFAC+XFAC0)*XXX1*1.d6
|
|
c write(9,*)AMH,HGA/(XFAC+XFAC0)*XXX0*1.d6,
|
|
c . HGA/(XFAC+XFAC0)*XXX1*1.d6
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'H -> gamma gamma: NLO QCD, approx ',
|
|
c . CDABS(CAT+CAB+CAC+CAL+CAW)**2/CDABS(CAT0+CAB0+CAC0+CAL+CAW)**2,
|
|
c . CDABS(CAT0*(1-ALPHAS_HDEC(AMH/2)/PI)+CAB0+CAC0+CAL+CAW)**2
|
|
c . /CDABS(CAT0+CAB0+CAC0+CAL+CAW)**2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'H -> gamma gamma: ',XFAC,XFAC0,HGA,IOELW
|
|
c write(6,*)'H -> gamma gamma: ',CAT0,CAB0,CAC0,CAL,CAW
|
|
c . ,CATP0,CABP0,CAEP,CGAGA
|
|
c write(6,*)'H -> gamma gamma: ',CAT00,CAB00,CAC00,CAL00,CAW00
|
|
c . ,CATP00,CABP00,CAEP00
|
|
c write(6,*)'H -> gamma gamma: ',AMH,XRMT,XRMB,XRMC
|
|
c write(6,*)'H -> gamma gamma: ',
|
|
c . CDABS(CAT+CAB+CAC+CAL+CAW)**2/CDABS(CAT+CAW)**2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'H -> gamma gamma: ',
|
|
c . dsqrt(xfac)/8
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'H gamma gamma: ',(16/9.d0-7)/8,(CAT0+CAW)/8,
|
|
c . (CAT0+CAB0+CAC0+CAL+CAW)/8
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c HGA=HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*XFAC
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'H -> gamma gamma: ',HGA,XFAC0/XFAC
|
|
c write(6,*)'gaga: ',AMH,CAT,CAW,CAT+CAW
|
|
c write(6,*)'gaga: ',AMH,CAT0,CAW,CAT0+CAW
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c YY0 = CDABS(CAT+CAC)**2 + CDABS(CAT0+CAC0)**2*GAGA_ELW(AMT,AMH)
|
|
c YTT = HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*YY0 / HGA
|
|
c YY0 = CDABS(CAB)**2 + CDABS(CAB0)**2*GAGA_ELW(AMT,AMH)
|
|
c YBB = HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*YY0 / HGA
|
|
c YY0 = CDABS(CAW)**2 + CDABS(CAW)**2*GAGA_ELW(AMT,AMH)
|
|
c YWW = HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*YY0 / HGA
|
|
c YY0 = CDABS(CAL)**2 + CDABS(CAL)**2*GAGA_ELW(AMT,AMH)
|
|
c YLL = HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*YY0 / HGA
|
|
c YY0 = 2*DREAL(DCONJG(CAT+CAC)*CAB)
|
|
c . + 2*DREAL(DCONJG(CAT0+CAC0)*CAB0)*GAGA_ELW(AMT,AMH)
|
|
c YTB = HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*YY0 / HGA
|
|
c YY0 = 2*DREAL(DCONJG(CAT+CAC)*CAW)
|
|
c . + 2*DREAL(DCONJG(CAT0+CAC0)*CAW)*GAGA_ELW(AMT,AMH)
|
|
c YTW = HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*YY0 / HGA
|
|
c YY0 = 2*DREAL(DCONJG(CAB)*CAW)
|
|
c . + 2*DREAL(DCONJG(CAB0)*CAW)*GAGA_ELW(AMT,AMH)
|
|
c YBW = HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*YY0 / HGA
|
|
c YY0 = 2*DREAL(DCONJG(CAT+CAC)*CAL)
|
|
c . + 2*DREAL(DCONJG(CAT0+CAC0)*CAL)*GAGA_ELW(AMT,AMH)
|
|
c YTL = HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*YY0 / HGA
|
|
c YY0 = 2*DREAL(DCONJG(CAB)*CAL)
|
|
c . + 2*DREAL(DCONJG(CAB0)*CAL)*GAGA_ELW(AMT,AMH)
|
|
c YBL = HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*YY0 / HGA
|
|
c YY0 = 2*DREAL(DCONJG(CAL)*CAW)
|
|
c . + 2*DREAL(DCONJG(CAL)*CAW)*GAGA_ELW(AMT,AMH)
|
|
c YLW = HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*YY0 / HGA
|
|
c write(52,('f4.0,7(g13.5)'))AMH,HGA,YTT,YBB,YWW,YTB,YTW,YBW
|
|
c . ,YLL,YTL,YBL,YLW
|
|
c write(6,*)'gaga: ',AMH,YTT+YBB+YWW+YTB+YTW+YBW+YLL+YTL+YBL+YLW
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)AMH,(XFAC/XFAC0*GAGA_ELW(AMT,AMH)-1)*100,
|
|
c . GAGA_ELW(AMT,AMH)*100
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c CAT0 = 4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT))
|
|
c CAB0 = 1/3D0 * 2*CTB*(1+(1-CTB)*CF(CTB))
|
|
c CAC0 = 4/3D0 * 2*CTC*(1+(1-CTC)*CF(CTC))
|
|
c XFACLO = CDABS(CAT0+CAB0+CAC0+CAL+CAW)**2
|
|
c write(54,('4(1X,E12.6)'))AMH,HGA,HGA*XFACLO/XFAC,XFAC/XFACLO-1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)CDABS(CAT0+CAW)**2,(16/9.D0-7)**2,
|
|
c . (16/9.D0-7)**2/CDABS(CAT0+CAW)**2,16/9.D0,CAT0,-7,CAW
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
C H ---> Z GAMMA
|
|
XRMC = RUNM_HDEC(AMH/2,4,0)*AMC/RUNM_HDEC(AMC,4,0)
|
|
XRMB = RUNM_HDEC(AMH/2,5,1)*AMB/RUNM_HDEC(AMB,5,1)
|
|
XRMT = RUNM_HDEC(AMH/2,6,1)*AMT/RUNM_HDEC(AMT,6,1)
|
|
IF(AMH.LE.AMZ)THEN
|
|
HZGA=0
|
|
ELSE
|
|
EPS=1.D-8
|
|
TS = SS/CS
|
|
FT = -3*2D0/3*(1-4*2D0/3*SS)/DSQRT(SS*CS) * CPT
|
|
FB = 3*1D0/3*(-1+4*1D0/3*SS)/DSQRT(SS*CS) * CPB
|
|
FC = -3*2D0/3*(1-4*2D0/3*SS)/DSQRT(SS*CS) * CPC
|
|
FL = (-1+4*SS)/DSQRT(SS*CS) * CPTAU
|
|
c CTT = 4*XRMT**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
c CTB = 4*XRMB**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
c CTC = 4*XRMC**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTT = 4*AMT**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*AMB**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTC = 4*AMC**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTL = 4*AMTAU**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTW = 4*AMW**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
c CLT = 4*XRMT**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
c CLB = 4*XRMB**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
c CLC = 4*XRMC**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLT = 4*AMT**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLB = 4*AMB**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLC = 4*AMC**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLE = 4*AMTAU**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLW = 4*AMW**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
CAB = FB*(CI1(CTB,CLB) - CI2(CTB,CLB))
|
|
CAC = FC*(CI1(CTC,CLC) - CI2(CTC,CLC))
|
|
CAL = FL*(CI1(CTL,CLE) - CI2(CTL,CLE))
|
|
CAW = -1/DSQRT(TS)*(4*(3-TS)*CI2(CTW,CLW)
|
|
. + ((1+2/CTW)*TS - (5+2/CTW))*CI1(CTW,CLW)) * CPW
|
|
CATP = 0
|
|
CABP = 0
|
|
CAEP = 0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)6*CI1(CTT,CLT),2*CI2(CTT,CLT)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c EPS = 1.d-30
|
|
c QQ = 2*AMT - 1
|
|
c CLT = 4*AMT**2/QQ**2*DCMPLX(1D0,-EPS)
|
|
c CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
c write(6,*)QQ,CAT
|
|
c QQ = 2*AMT - 0.1d0
|
|
c CLT = 4*AMT**2/QQ**2*DCMPLX(1D0,-EPS)
|
|
c CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
c write(6,*)QQ,CAT
|
|
c QQ = 2*AMT - 0.01d0
|
|
c CLT = 4*AMT**2/QQ**2*DCMPLX(1D0,-EPS)
|
|
c CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
c write(6,*)QQ,CAT
|
|
c QQ = 2*AMT - 1.d-8
|
|
c CLT = 4*AMT**2/QQ**2*DCMPLX(1D0,-EPS)
|
|
c CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
c write(6,*)QQ,CAT
|
|
c QQ = 2*AMT
|
|
c CLT = 4*AMT**2/QQ**2*DCMPLX(1D0,-EPS)
|
|
c CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
c write(6,*)QQ,CAT
|
|
c QQ = 2*AMT + 1.d-8
|
|
c CLT = 4*AMT**2/QQ**2*DCMPLX(1D0,-EPS)
|
|
c CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
c write(6,*)QQ,CAT
|
|
c QQ = 2*AMT + 0.01d0
|
|
c CLT = 4*AMT**2/QQ**2*DCMPLX(1D0,-EPS)
|
|
c CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
c write(6,*)QQ,CAT
|
|
c QQ = 2*AMT + 0.1d0
|
|
c CLT = 4*AMT**2/QQ**2*DCMPLX(1D0,-EPS)
|
|
c CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
c write(6,*)QQ,CAT
|
|
c QQ = 2*AMT+1
|
|
c CLT = 4*AMT**2/QQ**2*DCMPLX(1D0,-EPS)
|
|
c CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
c write(6,*)QQ,CAT
|
|
c CLT = 4*AMT**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
c CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
IF(ISM4.NE.0)THEN
|
|
FTP = -3*2D0/3*(1-4*2D0/3*SS)/DSQRT(SS*CS) * CPTP
|
|
FBP = 3*1D0/3*(-1+4*1D0/3*SS)/DSQRT(SS*CS) * CPBP
|
|
FEP = (-1+4*SS)/DSQRT(SS*CS) * CPEP
|
|
CTTP = 4*AMTP**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTBP = 4*AMBP**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTEP = 4*AMEP**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CLTP = 4*AMTP**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLBP = 4*AMBP**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLEP = 4*AMEP**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CATP = FTP*(CI1(CTTP,CLTP) - CI2(CTTP,CLTP))
|
|
CABP = FBP*(CI1(CTBP,CLBP) - CI2(CTBP,CLBP))
|
|
CAEP = FEP*(CI1(CTEP,CLEP) - CI2(CTEP,CLEP))
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c CATP = 0
|
|
c CABP = 0
|
|
c CAEP = 0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ENDIF
|
|
IF(IFERMPHOB.NE.0)THEN
|
|
c write(6,*)'Fermiophobic: H -> Z gamma ---> W loop'
|
|
CAB = 0
|
|
CAT = 0
|
|
CAL = 0
|
|
c write(6,*)CDABS(CAW)**2,CDABS(CAT+CAB+CAW)**2
|
|
ENDIF
|
|
FPTLIKE = CPZGA
|
|
XFAC = CDABS(CAT+CAB+CAC+CAL+CAW+CATP+CABP+CAEP+FPTLIKE)**2
|
|
ACOUP = DSQRT(2D0)*GF*AMZ**2*SS*CS/PI**2
|
|
HZGA = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
. *XFAC*(1-AMZ**2/AMH**2)**3
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'H -> Z gamma: ',
|
|
c . 1-CDABS(CAB+CAC+CAL+CAW+CATP+CABP+CAEP)**2/XFAC
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c YY0 = CDABS(CAT+CAC)**2
|
|
c YTT = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
c . * YY0*(1-AMZ**2/AMH**2)**3 / HZGA
|
|
c YY0 = CDABS(CAB)**2
|
|
c YBB = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
c . * YY0*(1-AMZ**2/AMH**2)**3 / HZGA
|
|
c YY0 = CDABS(CAW)**2
|
|
c YWW = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
c . * YY0*(1-AMZ**2/AMH**2)**3 / HZGA
|
|
c YY0 = CDABS(CAL)**2
|
|
c YLL = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
c . * YY0*(1-AMZ**2/AMH**2)**3 / HZGA
|
|
c YY0 = 2*DREAL(DCONJG(CAT+CAC)*CAB)
|
|
c YTB = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
c . * YY0*(1-AMZ**2/AMH**2)**3 / HZGA
|
|
c YY0 = 2*DREAL(DCONJG(CAT+CAC)*CAW)
|
|
c YTW = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
c . * YY0*(1-AMZ**2/AMH**2)**3 / HZGA
|
|
c YY0 = 2*DREAL(DCONJG(CAB)*CAW)
|
|
c YBW = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
c . * YY0*(1-AMZ**2/AMH**2)**3 / HZGA
|
|
c YY0 = 2*DREAL(DCONJG(CAT+CAC)*CAL)
|
|
c YTL = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
c . * YY0*(1-AMZ**2/AMH**2)**3 / HZGA
|
|
c YY0 = 2*DREAL(DCONJG(CAB)*CAL)
|
|
c YBL = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
c . * YY0*(1-AMZ**2/AMH**2)**3 / HZGA
|
|
c YY0 = 2*DREAL(DCONJG(CAL)*CAW)
|
|
c YLW = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
c . * YY0*(1-AMZ**2/AMH**2)**3 / HZGA
|
|
c write(53,('f4.0,11(g13.5)'))AMH,HZGA,YTT,YBB,YWW,YTB,YTW,YBW
|
|
c . ,YLL,YTL,YBL,YLW
|
|
c write(6,*)'Zga: ',AMH,YTT+YBB+YWW+YTB+YTW+YBW+YLL+YTL+YBL+YLW
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XFAC0 = CDABS(CAT+CAB+CAL+CAW+CATP+CABP+CAEP)**2
|
|
c write(6,*)'H -> Z gamma: ',XFAC/XFAC0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ENDIF
|
|
C H ---> W W
|
|
IF(IONWZ.EQ.0)THEN
|
|
IF(IFERMPHOB.NE.0)THEN
|
|
CALL HTOVV_HDEC(0,AMH,AMW,GAMW,HTWW)
|
|
HTWW = HTWW*HVVSELF(AMH)
|
|
ELSE
|
|
CALL HTOVV_HDEC(1,AMH,AMW,GAMW,HTWW)
|
|
CALL HTOVV_HDEC(0,AMH,AMW,GAMW,HTWW0)
|
|
IF(IOELW.EQ.0) HTWW = HTWW0
|
|
HTWW = HTWW * SM4FACW
|
|
ENDIF
|
|
HWW = 3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/AMH**3*HTWW * CPW**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HWW = 3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/AMH**3
|
|
. * CPW * (HTWW0*(CPW-1)+HTWW)
|
|
ENDIF
|
|
ELSEIF(IONWZ.EQ.-1)THEN
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMW-DLD
|
|
XM2 = 2D0*AMW+DLU
|
|
IF (AMH.LE.AMW) THEN
|
|
HWW=0
|
|
ELSE IF (AMH.LE.XM1) THEN
|
|
CWW=3.D0*GF**2*AMW**4/16.D0/PI**3
|
|
HWW=HV(AMW**2/AMH**2)*CWW*AMH * CPW**2
|
|
. * SM4FACW
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HWW=HV(AMW**2/AMH**2)*CWW*AMH
|
|
. * CPW * ((CPW-1)+SM4FACW)
|
|
ENDIF
|
|
ELSE IF (AMH.LT.XM2) THEN
|
|
CWW=3.D0*GF**2*AMW**4/16.D0/PI**3
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1)=HV(AMW**2/XX(1)**2)*CWW*XX(1) * SM4FACW
|
|
YY(2)=HV(AMW**2/XX(2)**2)*CWW*XX(2) * SM4FACW
|
|
YY(3)=HVV(XX(3),AMW**2/XX(3)**2)
|
|
. *HVVSELF(XX(3)) * SM4FACW
|
|
YY(4)=HVV(XX(4),AMW**2/XX(4)**2)
|
|
. *HVVSELF(XX(4)) * SM4FACW
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
YY(1)=HV(AMW**2/XX(1)**2)*CWW*XX(1)
|
|
. * CPW * ((CPW-1)+SM4FACW)
|
|
YY(2)=HV(AMW**2/XX(2)**2)*CWW*XX(2)
|
|
. * CPW * ((CPW-1)+SM4FACW)
|
|
YY(3)=HVV(XX(3),AMW**2/XX(3)**2)
|
|
. * CPW * ((CPW-1)+HVVSELF(XX(3)) * SM4FACW)
|
|
YY(4)=HVV(XX(4),AMW**2/XX(4)**2)
|
|
. * CPW * ((CPW-1)+HVVSELF(XX(4)) * SM4FACW)
|
|
ENDIF
|
|
HWW = FINT_HDEC(AMH,XX,YY)
|
|
ELSE
|
|
HWW=HVV(AMH,AMW**2/AMH**2)
|
|
. *HVVSELF(AMH) * SM4FACW * CPW**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HWW=HVV(AMH,AMW**2/AMH**2)
|
|
. * CPW * ((CPW-1)+HVVSELF(AMH) * SM4FACW)
|
|
ENDIF
|
|
ENDIF
|
|
ELSE
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMW-DLD
|
|
XM2 = 2D0*AMW+DLU
|
|
IF (AMH.LE.XM1) THEN
|
|
CALL HTOVV_HDEC(0,AMH,AMW,GAMW,HTWW)
|
|
HWW = 3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/AMH**3*HTWW * CPW**2
|
|
. * SM4FACW
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HWW = 3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/AMH**3*HTWW
|
|
. * CPW * ((CPW-1)+SM4FACW)
|
|
ENDIF
|
|
ELSEIF (AMH.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
CALL HTOVV_HDEC(0,XX(1),AMW,GAMW,HTWW)
|
|
YY(1)=3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/XX(1)**3*HTWW * CPW**2
|
|
. * SM4FACW
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
YY(1)=3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/XX(1)**3*HTWW
|
|
. * CPW * ((CPW-1) + SM4FACW)
|
|
ENDIF
|
|
CALL HTOVV_HDEC(0,XX(2),AMW,GAMW,HTWW)
|
|
YY(2)=3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/XX(2)**3*HTWW * CPW**2
|
|
. * SM4FACW
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
YY(2)=3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/XX(2)**3*HTWW * CPW**2
|
|
. * CPW * ((CPW-1) + SM4FACW)
|
|
ENDIF
|
|
YY(3)=HVV(XX(3),AMW**2/XX(3)**2)
|
|
. *HVVSELF(XX(3)) * SM4FACW * CPW**2
|
|
YY(4)=HVV(XX(4),AMW**2/XX(4)**2)
|
|
. *HVVSELF(XX(4)) * SM4FACW * CPW**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
YY(3)=HVV(XX(3),AMW**2/XX(3)**2)
|
|
. * CPW * ((CPW-1) + HVVSELF(XX(3)) * SM4FACW)
|
|
YY(4)=HVV(XX(4),AMW**2/XX(4)**2)
|
|
. * CPW * ((CPW-1) + HVVSELF(XX(4)) * SM4FACW)
|
|
ENDIF
|
|
HWW = FINT_HDEC(AMH,XX,YY)
|
|
ELSE
|
|
HWW=HVV(AMH,AMW**2/AMH**2)
|
|
. *HVVSELF(AMH) * SM4FACW * CPW**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HWW=HVV(AMH,AMW**2/AMH**2)
|
|
. * CPW * ((CPW-1)+HVVSELF(AMH) * SM4FACW)
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
c HWW = HWW * SM4FACW
|
|
C H ---> Z Z
|
|
IF(IONWZ.EQ.0)THEN
|
|
IF(IFERMPHOB.NE.0)THEN
|
|
CALL HTOVV_HDEC(0,AMH,AMZ,GAMZ,HTZZ)
|
|
HTZZ = HTZZ*HVVSELF(AMH)
|
|
ELSE
|
|
CALL HTOVV_HDEC(2,AMH,AMZ,GAMZ,HTZZ)
|
|
CALL HTOVV_HDEC(0,AMH,AMZ,GAMZ,HTZZ0)
|
|
IF(IOELW.EQ.0) HTZZ = HTZZ0
|
|
HTZZ = HTZZ * SM4FACZ
|
|
ENDIF
|
|
HZZ = 3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/AMH**3*HTZZ * CPZ**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HZZ = 3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/AMH**3
|
|
. * CPZ * (HTZZ0*(CPZ-1)+HTZZ)
|
|
ENDIF
|
|
ELSEIF(IONWZ.EQ.-1)THEN
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMZ-DLD
|
|
XM2 = 2D0*AMZ+DLU
|
|
IF (AMH.LE.AMZ) THEN
|
|
HZZ=0
|
|
ELSEIF (AMH.LE.XM1) THEN
|
|
CZZ=3.D0*GF**2*AMZ**4/192.D0/PI**3*(7-40/3.D0*SS+160/9.D0*SS**2)
|
|
HZZ=HV(AMZ**2/AMH**2)*CZZ*AMH * CPZ**2
|
|
. * SM4FACZ
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HZZ=HV(AMZ**2/AMH**2)*CZZ*AMH
|
|
. * CPZ * ((CPZ-1)+SM4FACZ)
|
|
ENDIF
|
|
ELSEIF (AMH.LT.XM2) THEN
|
|
CZZ=3.D0*GF**2*AMZ**4/192.D0/PI**3*(7-40/3.D0*SS+160/9.D0*SS**2)
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1)=HV(AMZ**2/XX(1)**2)*CZZ*XX(1) * CPZ**2
|
|
. * SM4FACZ
|
|
YY(2)=HV(AMZ**2/XX(2)**2)*CZZ*XX(2) * CPZ**2
|
|
. * SM4FACZ
|
|
YY(3)=HVV(XX(3),AMZ**2/XX(3)**2)/2
|
|
. *HVVSELF(XX(3)) * SM4FACZ * CPZ**2
|
|
YY(4)=HVV(XX(4),AMZ**2/XX(4)**2)/2
|
|
. *HVVSELF(XX(4)) * SM4FACZ * CPZ**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
YY(1)=HV(AMZ**2/XX(1)**2)*CZZ*XX(1)
|
|
. * CPZ * ((CPZ-1)+SM4FACZ)
|
|
YY(2)=HV(AMZ**2/XX(2)**2)*CZZ*XX(2)
|
|
. * CPZ * ((CPZ-1)+SM4FACZ)
|
|
YY(3)=HVV(XX(3),AMZ**2/XX(3)**2)/2
|
|
. * CPZ * ((CPZ-1)+HVVSELF(XX(3)) * SM4FACZ)
|
|
YY(4)=HVV(XX(4),AMZ**2/XX(4)**2)/2
|
|
. * CPZ * ((CPZ-1)+HVVSELF(XX(4)) * SM4FACZ)
|
|
ENDIF
|
|
HZZ = FINT_HDEC(AMH,XX,YY)
|
|
ELSE
|
|
HZZ=HVV(AMH,AMZ**2/AMH**2)/2.D0
|
|
. *HVVSELF(AMH) * SM4FACZ * CPZ**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HZZ=HVV(AMH,AMZ**2/AMH**2)/2.D0
|
|
. * CPZ * ((CPZ-1)+HVVSELF(AMH) * SM4FACZ)
|
|
ENDIF
|
|
ENDIF
|
|
ELSE
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMZ-DLD
|
|
XM2 = 2D0*AMZ+DLU
|
|
IF (AMH.LE.XM1) THEN
|
|
CALL HTOVV_HDEC(0,AMH,AMZ,GAMZ,HTZZ)
|
|
HZZ = 3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/AMH**3*HTZZ
|
|
. * SM4FACZ
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HZZ = 3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/AMH**3*HTZZ
|
|
. * CPZ * ((CPZ-1)+SM4FACZ)
|
|
ENDIF
|
|
ELSEIF (AMH.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
CALL HTOVV_HDEC(0,XX(1),AMZ,GAMZ,HTZZ)
|
|
YY(1)=3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/XX(1)**3*HTZZ * CPZ**2
|
|
. * SM4FACZ
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
YY(1)=3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/XX(1)**3*HTZZ
|
|
. * CPZ * ((CPZ-1) + SM4FACZ)
|
|
ENDIF
|
|
CALL HTOVV_HDEC(0,XX(2),AMZ,GAMZ,HTZZ)
|
|
YY(2)=3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/XX(2)**3*HTZZ * CPZ**2
|
|
. * SM4FACZ
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
YY(2)=3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/XX(2)**3*HTZZ
|
|
. * CPZ * ((CPZ-1) + SM4FACZ)
|
|
ENDIF
|
|
YY(3)=HVV(XX(3),AMZ**2/XX(3)**2)/2
|
|
. *HVVSELF(XX(3)) * SM4FACZ * CPZ**2
|
|
YY(4)=HVV(XX(4),AMZ**2/XX(4)**2)/2
|
|
. *HVVSELF(XX(4)) * SM4FACZ * CPZ**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
YY(3)=HVV(XX(3),AMZ**2/XX(3)**2)/2
|
|
. * CPZ * ((CPZ-1)+HVVSELF(XX(3)))
|
|
YY(4)=HVV(XX(4),AMZ**2/XX(4)**2)/2
|
|
. * CPZ * ((CPZ-1)+HVVSELF(XX(4)))
|
|
ENDIF
|
|
HZZ = FINT_HDEC(AMH,XX,YY)
|
|
ELSE
|
|
HZZ=HVV(AMH,AMZ**2/AMH**2)/2.D0
|
|
. *HVVSELF(AMH) * SM4FACZ * CPZ**2
|
|
IF(ICOUPELW.EQ.0)THEN
|
|
HZZ=HVV(AMH,AMZ**2/AMH**2)/2.D0
|
|
. * CPZ * ((CPZ-1)+HVVSELF(AMH) * SM4FACZ)
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
c HZZ = HZZ * SM4FACZ
|
|
c write(62,*)AMH,1.D0+GF*AMH**2/16.D0/PI**2/DSQRT(2.D0)*2.800952D0,
|
|
c . HVVSELF(AMH)
|
|
c write(91,*)AMH,HWW,HZZ
|
|
|
|
c CALL HTOVV_HDEC(0,AMH,AMW,GAMW,HTWW0)
|
|
c CALL HTOVV_HDEC(1,AMH,AMW,GAMW,HTWW1)
|
|
c CALL HTOVV_HDEC(0,AMH,AMZ,GAMZ,HTZZ0)
|
|
c CALL HTOVV_HDEC(2,AMH,AMZ,GAMZ,HTZZ1)
|
|
c write(6,*)AMH,HTWW1/HTWW0,HTZZ1/HTZZ0
|
|
C
|
|
HNUPNUP = 0
|
|
HEPEP = 0
|
|
HBPBP = 0
|
|
HTPTP = 0
|
|
IF(ISM4.NE.0)THEN
|
|
C H ---> NUP NUP
|
|
IF(AMH.LE.2*AMNUP) THEN
|
|
HNUPNUP = 0
|
|
ELSE
|
|
HNUPNUP=HFF(AMH,(AMNUP/AMH)**2) * CPNUP**2
|
|
. *HFFSELF(AMH)
|
|
ENDIF
|
|
C H ---> EP EP
|
|
IF(AMH.LE.2*AMEP) THEN
|
|
HEPEP = 0
|
|
ELSE
|
|
HEPEP=HFF(AMH,(AMEP/AMH)**2) * CPEP**2
|
|
. *HFFSELF(AMH)
|
|
ENDIF
|
|
C H --> BP BP :
|
|
IF(AMH.LE.2*AMBP) THEN
|
|
HBPBP = 0
|
|
ELSE
|
|
HBP2=3.D0*HFF(AMH,(RMBP/AMH)**2) * CPBP**2
|
|
. *QCDH(RMBP**2/AMH**2,5)
|
|
. *HFFSELF(AMH)
|
|
IF(HBP2.LT.0.D0) HBP2 = 0
|
|
HBP1=3.D0*HFF(AMH,(AMBP/AMH)**2) * CPBP**2
|
|
. *TQCDH(AMBP**2/AMH**2)
|
|
. *HFFSELF(AMH)
|
|
RAT = 2*AMBP/AMH
|
|
HBPBP = QQINT_HDEC(RAT,HBP1,HBP2)
|
|
ENDIF
|
|
C H --> TP TP :
|
|
IF(AMH.LE.2*AMTP) THEN
|
|
HTPTP = 0
|
|
ELSE
|
|
HTP2=3.D0*HFF(AMH,(RMTP/AMH)**2) * CPTP**2
|
|
. *QCDH(RMTP**2/AMH**2,5)
|
|
. *HFFSELF(AMH)
|
|
IF(HTP2.LT.0.D0) HTP2 = 0
|
|
HTP1=3.D0*HFF(AMH,(AMTP/AMH)**2) * CPTP**2
|
|
. *TQCDH(AMTP**2/AMH**2)
|
|
. *HFFSELF(AMH)
|
|
RAT = 2*AMTP/AMH
|
|
HTPTP = QQINT_HDEC(RAT,HTP1,HTP2)
|
|
ENDIF
|
|
ENDIF
|
|
C ========== TOTAL WIDTH AND BRANCHING RATIOS
|
|
C
|
|
WTOT=HLL+HMM+HSS+HCC+HBB+HTT+HGG+HGA+HZGA+HWW+HZZ
|
|
. +HNUPNUP+HEPEP+HBPBP+HTPTP
|
|
c . +HEE
|
|
c write(6,*)'BR(H -> ee) = ',AMH,HEE/WTOT
|
|
c write(6,*)'part: ',HLL,HMM,HSS,HCC,HBB,HTT,HGG,HGA,HZGA,HWW,HZZ
|
|
c write(6,*)HBB,HWW,HZZ
|
|
IF(WTOT.NE.0.D0)THEN
|
|
SMBRT=HTT/WTOT
|
|
SMBRB=HBB/WTOT
|
|
SMBRL=HLL/WTOT
|
|
SMBRM=HMM/WTOT
|
|
SMBRC=HCC/WTOT
|
|
SMBRS=HSS/WTOT
|
|
SMBRG=HGG/WTOT
|
|
SMBRGA=HGA/WTOT
|
|
SMBRZGA=HZGA/WTOT
|
|
SMBRW=HWW/WTOT
|
|
SMBRZ=HZZ/WTOT
|
|
SMBRNUP=HNUPNUP/WTOT
|
|
SMBREP=HEPEP/WTOT
|
|
SMBRBP=HBPBP/WTOT
|
|
SMBRTP=HTPTP/WTOT
|
|
ELSE
|
|
SMBRT=0
|
|
SMBRB=0
|
|
SMBRL=0
|
|
SMBRM=0
|
|
SMBRC=0
|
|
SMBRS=0
|
|
SMBRG=0
|
|
SMBRGA=0
|
|
SMBRZGA=0
|
|
SMBRW=0
|
|
SMBRZ=0
|
|
SMBRNUP=0
|
|
SMBREP=0
|
|
SMBRBP=0
|
|
SMBRTP=0
|
|
ENDIF
|
|
SMWDTH=WTOT
|
|
|
|
c write(6,*)HLL,HMM
|
|
c write(6,*)HSS,HCC,HBB,HTT
|
|
c write(6,*)HGG,HGA,HZGA,HWW,HZZ
|
|
c write(6,*)HNUPNUP,HEPEP,HBPBP,HTPTP
|
|
c write(6,*)WTOT
|
|
c write(6,*)SMBRT+SMBRB+SMBRL+SMBRM+SMBRC+SMBRS+SMBRG+SMBRGA
|
|
c . +SMBRZGA+SMBRW+SMBRZ+SMBRNUP+SMBREP+SMBRBP+SMBRTP
|
|
|
|
AMH=AMXX
|
|
|
|
endif
|
|
|
|
IF(IHIGGS.GT.0)THEN
|
|
|
|
C +++++++++++++++++++++++ SUSY HIGGSSES +++++++++++++++++++++++
|
|
C
|
|
CALL GAUGINO_HDEC(AMU,AM2,B,A,AMCHAR,AMNEUT,XMNEUT,AC1,AC2,AC3,
|
|
. AN1,AN2,AN3,ACNL,ACNR,AGDL,AGDA,AGDH,AGDC)
|
|
C
|
|
TSC = (AMSQ+AMUR+AMDR)/3
|
|
BSC = (AMSQ+AMUR+AMDR)/3
|
|
CALL SFERMION_HDEC(TSC,BSC,AMSQ,AMUR,AMDR,AMEL,AMER,AL,AU,AD,AMU,
|
|
. AMST,AMSB,AMSL,AMSU,AMSD,AMSE,AMSN,AMSN1,
|
|
. GLEE,GLTT,GLBB,GHEE,GHTT,GHBB,
|
|
. GAEE,GATT,GABB,GCEN,GCTB)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c QSUSY = 1.D0/3
|
|
c QSUSY = 1
|
|
c QSUSY = 3
|
|
c LOOP = 1
|
|
c QSUSY1 = QSUSY
|
|
c QSUSY2 = QSUSY
|
|
c LOOP = 2
|
|
c QSUSY1 = QSUSY
|
|
c QSUSY2 = 1/QSUSY
|
|
c write(6,*)'Loop, Factor = ?'
|
|
c read(5,*)LOOP,QSUSY
|
|
c QSUSY = DMIN1(AMSB(1),AMSB(2),AMGLU)*QSUSY
|
|
c QSUSY = (AMSB(1)+AMSB(2)+AMGLU)/3*QSUSY
|
|
c QSUSY = +0.8204315362167340D3
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c QSUSY = QSUSY1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c--real!!!
|
|
QSUSY = 1
|
|
LOOP = 2
|
|
QSUSY1 = QSUSY
|
|
QSUSY2 = QSUSY
|
|
C
|
|
|
|
c write(6,*)'M_A, M_h, M_H, sin(alpha): ',AMA,AML,AMH,DSIN(A)
|
|
|
|
ENDIF
|
|
|
|
c write(6,*)'glt, glb = ',glt,glb
|
|
c write(6,*)'ght, ghb = ',ght,ghb
|
|
c write(6,*)'gat, gab = ',gat,gab
|
|
|
|
IF(IHIGGS.EQ.1.OR.IHIGGS.EQ.5)THEN
|
|
C =========================================================
|
|
C LIGHT CP EVEN HIGGS DECAYS
|
|
C =========================================================
|
|
C ============= RUNNING MASSES
|
|
RMS = RUNM_HDEC(AML,3,0)
|
|
RMC = RUNM_HDEC(AML,4,0)
|
|
RMB = RUNM_HDEC(AML,5,1)
|
|
RMT = RUNM_HDEC(AML,6,1)
|
|
RATCOUP = GLT/GLB
|
|
HIGTOP = AML**2/AMT**2
|
|
|
|
ASH=ALPHAS_HDEC(AML,3)
|
|
AMC0=1.D8
|
|
AMB0=2.D8
|
|
C AMT0=3.D8
|
|
AS3=ALPHAS_HDEC(AML,3)
|
|
AMC0=AMC
|
|
AS4=ALPHAS_HDEC(AML,3)
|
|
AMB0=AMB
|
|
C AMT0=AMT
|
|
|
|
C =============== PARTIAL WIDTHS
|
|
C H ---> G G
|
|
EPS=1.D-8
|
|
NFEXT = 3
|
|
ASG = AS3
|
|
CTT = 4*AMT**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*AMB**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CAT = 2*CTT*(1+(1-CTT)*CF(CTT))*GLT
|
|
CAB = 2*CTB*(1+(1-CTB)*CF(CTB))*GLB
|
|
CTC = 4*AMC**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CAC = 2*CTC*(1+(1-CTC)*CF(CTC))*GLT
|
|
C
|
|
|
|
c this is for a check
|
|
bb = datan(tgbet2hdm)
|
|
c print*,'1,glt/b',dcos(alph2hdm)/dsin(bb),glt,glb
|
|
|
|
c print*,'2,glt',dcos(alph2hdm)/dsin(bb),glt
|
|
c print*,'2,glb',-sin(alph2hdm)/dcos(bb),glb
|
|
|
|
c print*,'v1',amt,amb,amc,cat,cab,cac
|
|
c end check
|
|
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CSB1= 4*AMSB(1)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSB2= 4*AMSB(2)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CST1= 4*AMST(1)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CST2= 4*AMST(2)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CXB1=-AMZ**2/AMSB(1)**2*CSB1*(1-CSB1*CF(CSB1))*GLBB(1,1)
|
|
CXB2=-AMZ**2/AMSB(2)**2*CSB2*(1-CSB2*CF(CSB2))*GLBB(2,2)
|
|
CXT1=-AMZ**2/AMST(1)**2*CST1*(1-CST1*CF(CST1))*GLTT(1,1)
|
|
CXT2=-AMZ**2/AMST(2)**2*CST2*(1-CST2*CF(CST2))*GLTT(2,2)
|
|
|
|
CSUL = 4*AMSU(1)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSUR = 4*AMSU(2)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSDL = 4*AMSD(1)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSDR = 4*AMSD(2)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CXUL=2*(1.D0/2.D0-2.D0/3.D0*SS)*AMZ**2/AMSU(1)**2*DSIN(A+B)
|
|
. *CSUL*(1-CSUL*CF(CSUL))
|
|
CXUR=2*(2.D0/3.D0*SS)*AMZ**2/AMSU(2)**2*DSIN(A+B)
|
|
. *CSUR*(1-CSUR*CF(CSUR))
|
|
CXDL=2*(-1.D0/2.D0+1.D0/3.D0*SS)*AMZ**2/AMSD(1)**2*DSIN(A+B)
|
|
. *CSDL*(1-CSDL*CF(CSDL))
|
|
CXDR=2*(-1.D0/3.D0*SS)*AMZ**2/AMSD(2)**2*DSIN(A+B)
|
|
. *CSDR*(1-CSDR*CF(CSDR))
|
|
|
|
ELSE
|
|
CXB1=0.D0
|
|
CXB2=0.D0
|
|
CXT1=0.D0
|
|
CXT2=0.D0
|
|
|
|
CXUL=0.D0
|
|
CXUR=0.D0
|
|
CXDL=0.D0
|
|
CXDR=0.D0
|
|
ENDIF
|
|
|
|
FQCD=HGGQCD(ASG,NFEXT)
|
|
SQCD=SGGQCD(ASG)
|
|
XFAC = CDABS(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)**2*FQCD
|
|
. + DREAL(DCONJG(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)
|
|
. *(CXB1+CXB2+CXT1+CXT2+CXUL+CXUR+CXDL+CXDR))*SQCD
|
|
|
|
c this is for a check
|
|
c print*,'v2',xfac,CDABS(CAT+CAB+CAC)**2*FQCD
|
|
c Maggie question // mass dependent NLO QCD corrections?
|
|
c end check
|
|
|
|
HGG=HVV(AML,0.D0)*(ASG/PI)**2*XFAC/8
|
|
c write(6,*)'gg: ',CAT,CAB,CAC,CXB1+CXB2,CXT1+CXT2,
|
|
c . CXUL+CXUR+CXDL+CXDR
|
|
|
|
c write(6,*)'amhl, glb, glt: ',aml,glb,glt
|
|
|
|
c print*,''
|
|
c print*,'h decay widths'
|
|
c print*,'hgg_NLO',hgg
|
|
|
|
C H ---> G G* ---> G CC TO BE ADDED TO H ---> CC
|
|
NFEXT = 4
|
|
ASG = AS4
|
|
FQCD=HGGQCD(ASG,NFEXT)
|
|
SQCD=SGGQCD(ASG)
|
|
XFAC = CDABS(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)**2*FQCD
|
|
. + DREAL(DCONJG(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)
|
|
. *(CXB1+CXB2+CXT1+CXT2+CXUL+CXUR+CXDL+CXDR))*SQCD
|
|
DCC=HVV(AML,0.D0)*(ASG/PI)**2*XFAC/8 - HGG
|
|
|
|
C H ---> G G* ---> G BB TO BE ADDED TO H ---> BB
|
|
NFEXT = 5
|
|
ASG = ASH
|
|
FQCD=HGGQCD(ASG,NFEXT)
|
|
SQCD=SGGQCD(ASG)
|
|
XFAC = CDABS(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)**2*FQCD
|
|
. + DREAL(DCONJG(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)
|
|
. *(CXB1+CXB2+CXT1+CXT2+CXUL+CXUR+CXDL+CXDR))*SQCD
|
|
DBB=HVV(AML,0.D0)*(ASG/PI)**2*XFAC/8 - HGG - DCC
|
|
HGG=HVV(AML,0.D0)*(ASG/PI)**2*XFAC/8
|
|
|
|
C H ---> G G: FULL NNNLO CORRECTIONS TO TOP LOOPS FOR NF=5
|
|
FQCD0=HGGQCD(ASG,5)
|
|
FQCD=HGGQCD2(ASG,5,AML,AMT)
|
|
XFAC = CDABS(CAT+CAB+CAC)**2*(FQCD-FQCD0)
|
|
HGG=HGG+HVV(AML,0.D0)*(ASG/PI)**2*XFAC/8
|
|
|
|
IF(NFGG.EQ.3)THEN
|
|
HGG = HGG - DBB - DCC
|
|
ELSEIF(NFGG.EQ.4)THEN
|
|
HGG = HGG - DBB
|
|
DCC = 0
|
|
ELSE
|
|
DCC = 0
|
|
DBB = 0
|
|
ENDIF
|
|
|
|
c Alex
|
|
c CAT0 = CAT/GLT
|
|
c CAB0 = CAB/GLB
|
|
c CAC0 = CAC/GLT
|
|
c XFAC0 = CDABS(CAT0+CAB0+CAC0)**2*FQCD
|
|
c HGG0=HVV(AML,0.D0)*(ASG/PI)**2*XFAC0/8
|
|
c write(1,*)'c_gg= ',HGG/HGG0
|
|
c end Alex
|
|
|
|
c print*,'hgg_NNLO',hgg
|
|
|
|
C H ---> MU MU
|
|
XGLM = GLB
|
|
XGHM = GHB
|
|
XGAM = GAB
|
|
if(i2hdm.eq.1) then
|
|
xglm = gllep
|
|
endif
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STAUSUSY_HDEC(GLB,GHB,GAB,XGLM,XGHM,XGAM,QSUSY,0)
|
|
ENDIF
|
|
IF(AML.LE.2*AMMUON) THEN
|
|
HMM = 0
|
|
ELSE
|
|
HMM=HFF(AML,(AMMUON/AML)**2)*XGLM**2
|
|
ENDIF
|
|
|
|
c print*,'h -> mumu',hmm
|
|
C H ---> TAU TAU
|
|
XGLT = GLB
|
|
XGHT = GHB
|
|
XGAT = GAB
|
|
if(i2hdm.eq.1) then
|
|
xglt = gllep
|
|
endif
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STAUSUSY_HDEC(GLB,GHB,GAB,XGLT,XGHT,XGAT,QSUSY,1)
|
|
ENDIF
|
|
IF(AML.LE.2*AMTAU) THEN
|
|
HLL = 0
|
|
ELSE
|
|
HLL=HFF(AML,(AMTAU/AML)**2)*XGLT**2
|
|
ENDIF
|
|
|
|
as5 = ash
|
|
amc0=1.d8
|
|
amb0=2.d8
|
|
as3=alphas_hdec(aml,3)
|
|
amc0=amc
|
|
as4=alphas_hdec(aml,3)
|
|
amb0=amb
|
|
c Alex
|
|
c write(1,*)'c_tau= ',XGLT
|
|
c write(1,*)'c0_tau= ',GLT
|
|
c write(1,*)'Deltatau= ',(gat/xgat-1)/(1+gat/xgat/tgbet**2)
|
|
c end Alex
|
|
|
|
c write(6,*)'h: tau/mu: ',HLL/HMM*AMMUON**2/AMTAU**2,XGLT**2/XGLM**2
|
|
c print*,'h -> tautau',hll
|
|
C H --> SS
|
|
|
|
ash = as3
|
|
XGLS = GLB
|
|
XGHS = GHB
|
|
XGAS = GAB
|
|
SSUSY = (AMSD(1)+AMSD(2)+AMGLU)/3*QSUSY
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STRSUSY_HDEC(GLB,GHB,GAB,XGLS,XGHS,XGAS,SSUSY,LOOP)
|
|
ENDIF
|
|
IF(AML.LE.2*AMS) THEN
|
|
HSS = 0
|
|
ELSE
|
|
HS1=3.D0*HFF(AML,(AMS/AML)**2)
|
|
. *XGLS**2
|
|
. *TQCDH(AMS**2/AML**2)
|
|
HS2=3.D0*HFF(AML,(RMS/AML)**2)*XGLS**2
|
|
. *QCDH(RMS**2/AML**2,5)
|
|
IF(HS2.LT.0.D0) HS2 = 0
|
|
RAT = 2*AMS/AML
|
|
HSS = QQINT_HDEC(RAT,HS1,HS2)
|
|
ENDIF
|
|
c Alex
|
|
c write(1,*)'c_s= ',XGLS
|
|
c write(1,*)'c0_s= ',GLB
|
|
c end Alex
|
|
|
|
c print*,'h -> ss',hss
|
|
C H --> CC
|
|
|
|
ash = as4
|
|
RATCOUP = 1
|
|
IF(AML.LE.2*AMC) THEN
|
|
HCC = 0
|
|
ELSE
|
|
HC1=3.D0*HFF(AML,(AMC/AML)**2)
|
|
. *GLT**2
|
|
. *TQCDH(AMC**2/AML**2)
|
|
HC2=3.D0*HFF(AML,(RMC/AML)**2)*GLT**2
|
|
. *QCDH(RMC**2/AML**2,5)
|
|
. + DCC
|
|
IF(HC2.LT.0.D0) HC2 = 0
|
|
RAT = 2*AMC/AML
|
|
HCC = QQINT_HDEC(RAT,HC1,HC2)
|
|
ENDIF
|
|
|
|
c print*,'h -> cc',hcc
|
|
C H --> BB :
|
|
|
|
ash = as5
|
|
XGLB = GLB
|
|
XGHB = GHB
|
|
XGAB = GAB
|
|
QQ = AMB
|
|
SUSY = 0
|
|
XGLB = GLB
|
|
SSUSY = (AMSB(1)+AMSB(2)+AMGLU)/3*QSUSY
|
|
c FSUSY = SUSYSCALE
|
|
FSUSY = SSUSY
|
|
AS0 = ALPHAS_HDEC(FSUSY,3)
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
I0 = 0
|
|
CALL DMBAPP_HDEC(I0,DGLB,DGHB,DGAB,FSUSY,LOOP)
|
|
DELB1 = -DGAB/(1+1/TGBET**2)
|
|
DELB0 = DELB1/(1-DELB1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
I0 = 1
|
|
CALL DMBAPP_HDEC(I0,DGLB,DGHB,DGAB,FSUSY,LOOP)
|
|
I0 = 1
|
|
BSC = (AMSQ+AMUR+AMDR)/3
|
|
DELB2 = -DGAB/(1+1/TGBET**2)
|
|
c write(6,*)'Delta_b = ',DELB0
|
|
C XMB = RUNM_HDEC(FSUSY,5,0)/(1+DELB0)
|
|
XMB = AMB
|
|
c1357
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
if(islhai.ne.0) XMB = AMB
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
SUSY = COFSUSY_HDEC(I0,AMB,XMB,QQ)*AS0/PI - 2*DGLB
|
|
c SUSY = COFSUSY_HDEC(I0,XMB,XMB,QQ)*AS0/PI - 2*DGLB
|
|
CALL BOTSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,SSUSY,LOOP)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
delb = tgbet*(tgbet-xgab)/(1+tgbet*xgab)
|
|
ygab = tgbet*(1-delb/tgbet**2)/(1+delb)
|
|
write(6,*)
|
|
write(6,*)'Yukawa factors:'
|
|
write(6,*)'==============='
|
|
write(6,*)'tan(beta) =',tgbet,' tan(alpha) =',dtan(a)
|
|
write(6,*)'delta_b =',delb
|
|
write(6,*)'g_b^A_0 =',gab, ' g_b^A_eff =',xgab
|
|
write(6,*)'g_b^H_0 =',ghb, ' g_b^H_eff =',xghb
|
|
write(6,*)'g_b^h_0 =',glb, ' g_b^h_eff =',xglb
|
|
write(6,*)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ENDIF
|
|
RATCOUP = GLT/XGLB
|
|
IF(AML.LE.2*AMB) THEN
|
|
HBB = 0
|
|
ELSE
|
|
HB1=3.D0*HFF(AML,(AMB/AML)**2)
|
|
. *(XGLB**2+XGLB*GLB*SUSY)
|
|
. *TQCDH(AMB**2/AML**2)
|
|
HB2=3.D0*HFF(AML,(RMB/AML)**2)
|
|
. *(XGLB**2+XGLB*GLB*SUSY)
|
|
. *QCDH(RMB**2/AML**2,5)
|
|
. + DBB
|
|
IF(HB2.LT.0.D0) HB2 = 0
|
|
RAT = 2*AMB/AML
|
|
HBB = QQINT_HDEC(RAT,HB1,HB2)
|
|
c write(6,*)'par: ',COFSUSY_HDEC(I0,AMB,XMB,QQ)*AS0/PI,2*DGLB
|
|
|
|
c Alex
|
|
c XB1=3.D0*HFF(AML,(AMB/AML)**2)
|
|
c . *TQCDH(AMB**2/AML**2)
|
|
c XB2=3.D0*HFF(AML,(RMB/AML)**2)
|
|
c . *QCDH(RMB**2/AML**2,5)
|
|
c . + DBB
|
|
c IF(XB2.LT.0.D0) HB2 = 0
|
|
c RAT = 2*AMB/AML
|
|
c XBB = QQINT_HDEC(RAT,XB1,XB2)
|
|
c write(6,*)'h -> bb = ',AML,HBB,XBB
|
|
c write(6,*)'rem/tot = ',XGLB*GLB*SUSY/XGLB**2,
|
|
c . XGLB**2+XGLB*GLB*SUSY,XGLB**2
|
|
c write(1,*)'c_b= ',XGLB
|
|
c write(1,*)'c0_b= ',GLB
|
|
c write(1,*)'Deltab= ',DELB0
|
|
c write(1,*)'Deltab= ',DELB2
|
|
c TANA = DTAN(A)
|
|
c TANB = TGBET
|
|
c DELB1 = DELB0/(1-DELB0)
|
|
c DELB1 = DELB0
|
|
c TEST = -DELB1/(1+DELB1)*(1+1/TANA/TANB)
|
|
c YGLB = GLB*(1+TEST)
|
|
c write(1,*)'Deltab= ',DELB1
|
|
c write(1,*)'tgbet = ',TGBET
|
|
c write(1,*)'tgalp = ',TANA
|
|
c write(1,*)'c_b= ',YGLB
|
|
c write(1,*)'A_b= ',AD
|
|
c end Alex
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XXX = COFSUSY_HDEC(I0,AMB,XMB,QQ)
|
|
c write(1,*)'h -> bb: ',XXX
|
|
c write(1,*)'h -> bb: ',XXX*AS0/PI
|
|
c write(1,*)'h -> bb: ',2*DGLB
|
|
c write(1,*)'h -> bb: ',GLB,XGLB,SUSY
|
|
c write(1,*)'h -> bb: ',HBB
|
|
|
|
c Alex
|
|
c write(1,*)'c_b= ',XGLB
|
|
c write(1,*)'c0_b= ',GLB
|
|
c write(1,*)'Deltab= ',DELB0,-DGAB,TGBET
|
|
c write(1,*)-DSIN(A),DCOS(B),-DSIN(A)/DCOS(B)
|
|
c write(6,*)'h -> bb: ',XGLB**2,XGLB*GLB*SUSY/XGLB**2,
|
|
c . (XGLB**2+XGLB*GLB*SUSY)/XGLB**2
|
|
c write(6,*)'approx: ',SUSY+2*DGLB,2*DGLB,SUSY
|
|
c FAC = AS0/PI
|
|
c write(6,*)'approx2: ',(SUSY+2*DGLB)/FAC,2*DGLB/FAC,SUSY/FAC
|
|
c end Alex
|
|
|
|
c print*,'h -> bb',hbb,rmb
|
|
c print*
|
|
c print*,'h -> bb:',hbb,glb,xglb,glb*susy,2*dglb,susy,2*dglb+susy
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c--hMSSM?
|
|
c sb0 = dsin(b)
|
|
c cb0 = dcos(b)
|
|
c c2b0 = cb0**2-sb0**2
|
|
c amh0 =dsqrt(((ama**2+amz**2-aml**2)*(amz**2*cb0**2+ama**2*sb0**2)
|
|
c . -ama**2*amz**2*c2b0**2)/(amz**2*cb0**2+ama**2*sb0**2-aml**2))
|
|
c amch0 = dsqrt(ama**2+amw**2)
|
|
c a0 = -datan((amz**2+ama**2)*sb0*cb0
|
|
c . /(amz**2*cb0**2+ama**2*sb0**2-aml**2))
|
|
c sa0 = dsin(a0)
|
|
c ca0 = dcos(a0)
|
|
c s2a0 = 2*sa0*ca0
|
|
c c2a0 = ca0**2-sa0**2
|
|
c sbpa0 = sb0*ca0+cb0*sa0
|
|
c cbpa0 = cb0*ca0-sb0*sa0
|
|
c deps = (aml**2*(ama**2+amz**2-aml**2)-ama**2*amz**2*c2b0**2)
|
|
c . / (amz**2*cb0**2+ama**2*sb0**2-aml**2)
|
|
c ghhh0 = 3*c2a0*cbpa0 + 3*deps/amz**2*sa0**3/sb0
|
|
c glll0 = 3*c2a0*sbpa0 + 3*deps/amz**2*ca0**3/sb0
|
|
c ghll0 = 2*s2a0*sbpa0 - c2a0*cbpa0 + 3*deps/amz**2*sa0*ca0**2/sb0
|
|
c glhh0 =-2*s2a0*cbpa0 - c2a0*sbpa0 + 3*deps/amz**2*sa0**2*ca0/sb0
|
|
c ghaa0 =-c2b0*cbpa0 + deps/amz**2*sa0*cb0**2/sb0
|
|
c glaa0 = c2b0*sbpa0 + deps/amz**2*ca0*cb0**2/sb0
|
|
c write(6,*)'0: ',AML,AMH,AMA
|
|
c write(6,*)'1: ',AML,AMH0,AMA
|
|
c write(6,*)'0: ',AMCH,B,A
|
|
c write(6,*)'1: ',AMCH0,B,A0
|
|
c write(6,*)' ',glb,xglb
|
|
c write(6,*)' ',ghb,xghb
|
|
c write(6,*)' ',gab,xgab
|
|
c write(6,*)
|
|
c write(6,*)
|
|
c write(6,*)'HHH: ',glll,ghll,glhh,ghhh
|
|
c write(6,*)' ',glll0,ghll0,glhh0,ghhh0
|
|
c write(6,*)
|
|
c write(6,*)'HAA: ',glaa,ghaa
|
|
c write(6,*)' ',glaa0,ghaa0
|
|
c write(6,*)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,('A3,4(1X,G15.8)'))'h: ',AMA,AML,SUSY+2*DGLB,
|
|
c . SUSY/(SUSY+2*DGLB)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c HB2=3.D0*HFF(AML,(RMB/AML)**2)
|
|
c . *QCDH(RMB**2/AML**2,5)
|
|
c . *(1+ELW0(AML,RMB,-1.D0/3.D0,1.D0))
|
|
c . *HFFSELF(AML)
|
|
c . + DBB
|
|
c IF(HB2.LT.0.D0) HB2 = 0
|
|
c HB1=3.D0*HFF(AML,(AMB/AML)**2)
|
|
c . *TQCDH(AMB**2/AML**2)
|
|
c . *HFFSELF(AML)
|
|
c RAT = 2*AMB/AML
|
|
c HBB0 = QQINT_HDEC(RAT,HB1,HB2)
|
|
c write(6,*)AML,XGLB,GLB,XGLB/GLB-1,SUSY,HBB/HBB0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)AML,HB1,HB2,HBB,GLB,XGLB,SUSY+2*DGLB,2*DGLB
|
|
c . ,XGLB**2+XGLB*GLB*SUSY
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XB0=3.D0*HFF(AML,(AMB/AML)**2)
|
|
c . *GLB**2
|
|
c XB1=3.D0*HFF(AML,(RMB/AML)**2)
|
|
c . *GLB**2
|
|
c . *QCDH(RMB**2/AML**2,5)
|
|
c . + DBB
|
|
c XB2=3.D0*HFF(AML,(RMB/AML)**2)
|
|
c . *(XGLB**2+XGLB*GLB*SUSY)
|
|
c . *QCDH(RMB**2/AML**2,5)
|
|
c . + DBB
|
|
c write(51,('5(1X,G15.8)'))AMA,AML,XB0,XB1,XB2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(51,('4(1X,G15.8)'))AMA,AML,SUSY+2*DGLB,SUSY/(SUSY+2*DGLB)
|
|
c write(51,('4(1X,G15.8)'))AMA,AML,HBB,2*DGLB,XGLB,SUSY-1+2*DLGB,
|
|
c . DSIN(A),DCOS(A)
|
|
c write(51,*)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
c X1 = (QCDH(RMB**2/AML**2,5)*HFF(AML,(RMB/AML)**2)/
|
|
c . HFF(AML,(AMB/AML)**2)-1)
|
|
c X2 = (SUSY-1)
|
|
|
|
c RATCOUP = GLT/XGLB
|
|
c HB1X=3.D0*HFF(AML,(AMB/AML)**2)
|
|
c . *XGLB**2
|
|
c . *TQCDH(AMB**2/AML**2)
|
|
c . /(BETA_HDEC(AMB**2/AML**2))**3
|
|
c . *SUSY
|
|
c HB2X=3.D0*HFF(AML,(RMB/AML)**2)*XGLB**2
|
|
c . *QCDH(RMB**2/AML**2,5)
|
|
c . /(BETA_HDEC(RMB**2/AML**2))**3
|
|
c . *SUSY
|
|
c HB1X=3.D0*HFF(AML,(RMB/AML)**2)*GLB**2
|
|
c . *QCDH(RMB**2/AML**2)
|
|
c . /(BETA_HDEC(RMB**2/AML**2))**3
|
|
c . *(SUSY+2*DGLB)
|
|
|
|
c RATCOUP = 0
|
|
c deltaqcd = QCDH(RMB**2/AML**2,5)
|
|
c RATCOUP = GLT/XGLB
|
|
c deltat = QCDH(RMB**2/AML**2,5) - deltaqcd
|
|
|
|
c write(6,*)
|
|
c write(6,*)'h:'
|
|
c write(6,*)'MB,RUNMB,alpha_s: ',AMB,RMB,ASH
|
|
c write(6,*)'Mh = ',AML
|
|
c write(6,*)'MA = ',AMA
|
|
c write(6,*)'Delta(mb) = ',-DGAB
|
|
c write(6,*)'QCD SUSY APPROX',
|
|
c . ' APPROX/FULL Gbh(QCD) Gbh(SQCD):'
|
|
c write(6,*)X1,X2+2*DGLB,2*DGLB,2*DGLB/(X2+2*DGLB),GLB,XGLB
|
|
c write(6,*)'Resummation: ',(XGLB/GLB)**2-1
|
|
c write(6,*)'Rest: ',SUSY-1
|
|
c write(6,*)'Rest: ',SUSY-1,dtan(a),tgbet
|
|
c write(6,*)AMSQ,AMUR,AMDR,(SUSY-1)/(X2+2*DGLB)
|
|
c write(6,*)'Total SUSY: ',(XGLB/GLB)**2*SUSY-1
|
|
c write(6,*)'deltaqcd,t = ',deltaqcd,deltat
|
|
c write(6,*)'Gamma(0) = ',AMA,HB2X,HB1X
|
|
c write(6,*)'Gamma(mb) = ',HB2,HB1
|
|
c write(6,*)
|
|
c write(9,*)AMA,AML,HB2X,HB2X/SUSY,GLB,XGLB
|
|
c write(6,*)'Rest: h ',AMA,AML,(SUSY-1)/(X2+2*DGLB)
|
|
c write(51,*)AMA,AML,(SUSY-1)/(X2+2*DGLB)
|
|
ENDIF
|
|
C H ---> TT
|
|
RATCOUP = 0
|
|
CALL TOPSUSY_HDEC(GLT,GHT,GAT,XGLTOP,XGHTOP,XGATOP,SCALE,1)
|
|
c write(6,*)xgltop,xghtop,xgatop
|
|
IF (AML.LE.2*AMT) THEN
|
|
HTT=0.D0
|
|
ELSE
|
|
HT1=3.D0*HFF(AML,(AMT/AML)**2)*GLT**2
|
|
. *TQCDH(AMT**2/AML**2)
|
|
HT2=3.D0*HFF(AML,(RMT/AML)**2)*GLT**2
|
|
. *QCDH(RMT**2/AML**2,5)
|
|
IF(HT2.LT.0.D0) HT2 = 0
|
|
RAT = 2*AMT/AML
|
|
HTT = QQINT_HDEC(RAT,HT1,HT2)
|
|
ENDIF
|
|
|
|
c MMM changed 22/8/2013
|
|
if(i2hdm.eq.1) then
|
|
if(ionsh.eq.0)then
|
|
dld=5.D0
|
|
dlu=3.D0
|
|
xm1 = 2d0*amt-dld
|
|
xm2 = 2d0*amt+dlu
|
|
if (aml.le.amt+amw+amb) then
|
|
htt=0.d0
|
|
elseif (aml.le.xm1) then
|
|
factt=6.d0*gf**2*aml**3*amt**2/2.d0/128.d0/pi**3
|
|
call HTOTT_hdec(aml,amt,amb,amw,amch,glt,glb,gat,gab,
|
|
. glvv,gzah,htt0)
|
|
htt=factt*htt0
|
|
elseif (aml.le.xm2) then
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
|
|
factt=6.d0*gf**2*xx(1)**3*amt**2/2.d0/128.d0/pi**3
|
|
call HTOTT_hdec(xx(1),amt,amb,amw,amch,glt,glb,gat,gab,
|
|
. glvv,gzah,htt0)
|
|
yy(1)=factt*htt0
|
|
|
|
factt=6.d0*gf**2*xx(2)**3*amt**2/2.d0/128.d0/pi**3
|
|
call HTOTT_hdec(xx(2),amt,amb,amw,amch,glt,glb,gat,gab,
|
|
. glvv,gzah,htt0)
|
|
yy(2)=factt*htt0
|
|
|
|
xmt = runm_hdec(xx(3),6,1)
|
|
ht1=3.d0*hff(xx(3),(amt/xx(3))**2)*glt**2
|
|
. *tqcdh(amt**2/xx(3)**2)
|
|
ht2=3.d0*hff(xx(3),(xmt/xx(3))**2)*glt**2
|
|
. *qcdh(xmt**2/xx(3)**2,5)
|
|
if(ht2.lt.0.d0) ht2 = 0
|
|
rat = 2*amt/xx(3)
|
|
yy(3) = qqint_hdec(rat,ht1,ht2)
|
|
|
|
xmt = runm_hdec(xx(4),6,1)
|
|
ht1=3.d0*hff(xx(4),(amt/xx(4))**2)*glt**2
|
|
. *tqcdh(amt**2/xx(4)**2)
|
|
ht2=3.d0*hff(xx(4),(xmt/xx(4))**2)*glt**2
|
|
. *qcdh(xmt**2/xx(4)**2,5)
|
|
if(ht2.lt.0.d0) ht2 = 0
|
|
rat = 2*amt/xx(4)
|
|
yy(4) = qqint_hdec(rat,ht1,ht2)
|
|
|
|
htt=fint_hdec(aml,xx,yy)
|
|
else
|
|
ht1=3.d0*hff(aml,(amt/aml)**2)*glt**2
|
|
. *tqcdh(amt**2/aml**2)
|
|
ht2=3.d0*hff(aml,(rmt/aml)**2)*glt**2
|
|
. *qcdh(rmt**2/aml**2,5)
|
|
if(ht2.lt.0.d0) ht2 = 0
|
|
rat = 2.D0*amt/aml
|
|
htt = qqint_hdec(rat,ht1,ht2)
|
|
endif
|
|
else
|
|
if (aml.le.2.d0*amt) then
|
|
htt=0.d0
|
|
else
|
|
ht1=3.d0*hff(aml,(amt/aml)**2)*glt**2
|
|
. *tqcdh(amt**2/aml**2)
|
|
ht2=3.d0*hff(aml,(rmt/aml)**2)*glt**2
|
|
. *qcdh(rmt**2/aml**2,5)
|
|
if(ht2.lt.0.d0) ht2 = 0
|
|
rat = 2.D0*amt/aml
|
|
htt = qqint_hdec(rat,ht1,ht2)
|
|
endif
|
|
endif
|
|
endif
|
|
c end MMM changed 22/8/2013
|
|
|
|
c Alex
|
|
c write(1,*)'c_t= ',XGLTOP
|
|
c write(1,*)'c0_t= ',GLT
|
|
c end Alex
|
|
|
|
c print*,'h -> tt',htt
|
|
C H ---> GAMMA GAMMA
|
|
EPS=1.D-8
|
|
XRMC = RUNM_HDEC(AML/2,4,0)*AMC/RUNM_HDEC(AMC,4,0)
|
|
XRMB = RUNM_HDEC(AML/2,5,1)*AMB/RUNM_HDEC(AMB,5,1)
|
|
XRMT = RUNM_HDEC(AML/2,6,1)*AMT/RUNM_HDEC(AMT,6,1)
|
|
|
|
CTT = 4*XRMT**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*XRMB**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTC = 4*XRMC**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTL = 4*AMTAU**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTW = 4*AMW**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTH = 4*AMCH**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CAT = 4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT))*GLT
|
|
. * CFACQ_HDEC(0,AML,XRMT)
|
|
|
|
c print*,'cat_LO',4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT))*GLT
|
|
c print*,'cat_NLO',cat
|
|
c print*,'h-top-top coupling',glt
|
|
c print*,'4*rmt**2/aml**2',ctt
|
|
c print*,'rmt',rmt
|
|
c print*,'aml',aml
|
|
|
|
CAB = 1/3D0 * 2*CTB*(1+(1-CTB)*CF(CTB))*GLB
|
|
. * CFACQ_HDEC(0,AML,XRMB)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c CALL BOTSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,SSUSY,LOOP)
|
|
c CAB = 1/3D0 * 2*CTB*(1+(1-CTB)*CF(CTB))*XGLB
|
|
c . * CFACQ_HDEC(0,AML,XRMB)
|
|
c write(6,*)CTB,XGLB,CFACQ_HDEC(0,AML,XRMB)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CAC = 4/3D0 * 2*CTC*(1+(1-CTC)*CF(CTC))*GLT
|
|
. * CFACQ_HDEC(0,AML,XRMC)
|
|
CAL = 1.D0 * 2*CTL*(1+(1-CTL)*CF(CTL))*GLB
|
|
if(i2hdm.eq.1) then
|
|
CAL = 1.D0 * 2*CTL*(1+(1-CTL)*CF(CTL))*gllep
|
|
endif
|
|
CAW = -(2+3*CTW+3*CTW*(2-CTW)*CF(CTW))*GLVV
|
|
CAH = -AMZ**2/2/AMCH**2*CTH*(1-CTH*CF(CTH))*GLPM
|
|
|
|
c write(6,*)'gamma gamma: ',AML,AMCH,-3*CTH*(1-CTH*CF(CTH))
|
|
|
|
c print*,'amz,amch,ghlh+h-',amz,amch,glpm,cth
|
|
c print*,'fac1',-AMZ**2/2/AMCH**2*glpm
|
|
c print*,'fac2',CTH*(1-CTH*CF(CTH))
|
|
c write(6,*)'CAH,AMZ,AMCH,CTH,CF(CTH),GLPM: ',
|
|
c . CAH,AMZ,AMCH,CTH,CF(CTH),GLPM
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
RMSU1 = RUNMS_HDEC(AML/2,AMSU(1))
|
|
RMSU2 = RUNMS_HDEC(AML/2,AMSU(2))
|
|
RMSD1 = RUNMS_HDEC(AML/2,AMSD(1))
|
|
RMSD2 = RUNMS_HDEC(AML/2,AMSD(2))
|
|
RMSB1 = RUNMS_HDEC(AML/2,AMSB(1))
|
|
RMSB2 = RUNMS_HDEC(AML/2,AMSB(2))
|
|
RMST1 = RUNMS_HDEC(AML/2,AMST(1))
|
|
RMST2 = RUNMS_HDEC(AML/2,AMST(2))
|
|
CX1 = 4*AMCHAR(1)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CX2 = 4*AMCHAR(2)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSB1= 4*RMSB1**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSB2= 4*RMSB2**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CST1= 4*RMST1**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CST2= 4*RMST2**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSL1= 4*AMSL(1)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSL2= 4*AMSL(2)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CAX1= AMW/XMCHAR(1) * 2*CX1*(1+(1-CX1)*CF(CX1))*2*AC2(1,1)
|
|
CAX2= AMW/XMCHAR(2) * 2*CX2*(1+(1-CX2)*CF(CX2))*2*AC2(2,2)
|
|
|
|
CSEL = 4*AMSE(1)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSER = 4*AMSE(2)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSUL = 4*RMSU1**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSUR = 4*RMSU2**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSDL = 4*RMSD1**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSDR = 4*RMSD2**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CXEL=2*(-1/2D0+SS)*AMZ**2/AMSE(1)**2*DSIN(A+B)
|
|
. *CSEL*(1-CSEL*CF(CSEL))
|
|
CXER=-2*(SS)*AMZ**2/AMSE(2)**2*DSIN(A+B)
|
|
. *CSER*(1-CSER*CF(CSER))
|
|
CXUL=2*4.D0/3.D0*(1.D0/2.D0-2.D0/3.D0*SS)
|
|
. *AMZ**2/AMSU(1)**2*DSIN(A+B)*CSUL*(1-CSUL*CF(CSUL))
|
|
. * CFACSQ_HDEC(AML,RMSU1)
|
|
CXUR=2*4.D0/3.D0*(2.D0/3.D0*SS)
|
|
. *AMZ**2/AMSU(2)**2*DSIN(A+B)*CSUR*(1-CSUR*CF(CSUR))
|
|
. * CFACSQ_HDEC(AML,RMSU2)
|
|
CXDL=2/3.D0*(-1.D0/2.D0+1.D0/3.D0*SS)
|
|
. *AMZ**2/AMSD(1)**2*DSIN(A+B)*CSDL*(1-CSDL*CF(CSDL))
|
|
. * CFACSQ_HDEC(AML,RMSD1)
|
|
CXDR=2/3.D0*(-1.D0/3.D0*SS)
|
|
. *AMZ**2/AMSD(2)**2*DSIN(A+B)*CSDR*(1-CSDR*CF(CSDR))
|
|
. * CFACSQ_HDEC(AML,RMSD2)
|
|
|
|
CXB1=-1/3D0*AMZ**2/AMSB(1)**2*CSB1*(1-CSB1*CF(CSB1))*GLBB(1,1)
|
|
. * CFACSQ_HDEC(AML,RMSB1)
|
|
CXB2=-1/3D0*AMZ**2/AMSB(2)**2*CSB2*(1-CSB2*CF(CSB2))*GLBB(2,2)
|
|
. * CFACSQ_HDEC(AML,RMSB2)
|
|
CXT1=-4/3D0*AMZ**2/AMST(1)**2*CST1*(1-CST1*CF(CST1))*GLTT(1,1)
|
|
. * CFACSQ_HDEC(AML,RMST1)
|
|
CXT2=-4/3D0*AMZ**2/AMST(2)**2*CST2*(1-CST2*CF(CST2))*GLTT(2,2)
|
|
. * CFACSQ_HDEC(AML,RMST2)
|
|
CSL1= 4*AMSL(1)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CSL2= 4*AMSL(2)**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CXL1= -AMZ**2/AMSL(1)**2*CSL1*(1-CSL1*CF(CSL1))*GLEE(1,1)
|
|
CXL2= -AMZ**2/AMSL(2)**2*CSL2*(1-CSL2*CF(CSL2))*GLEE(2,2)
|
|
XFAC = CDABS(CAT+CAB+CAC+CAL+CAW+CAH+CAX1+CAX2
|
|
. + CXEL+CXER+CXUL+CXUR+CXDL+CXDR
|
|
. + CXB1+CXB2+CXT1+CXT2+CXL1+CXL2)**2
|
|
c write(6,*)'hga: ',CAH,GLPM
|
|
ELSE
|
|
XFAC = CDABS(CAT+CAB+CAC+CAL+CAW+CAH)**2
|
|
ENDIF
|
|
HGA=HVV(AML,0.D0)*(ALPH/PI)**2/16.D0*XFAC
|
|
c write(6,*)'h -> ga ga: ',XFAC,CAT,CAB,CAC,CAL,CAW,CAH
|
|
c write(6,*)'h -> ga ga: ',GLPM
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CAT0 = CAT/GLT
|
|
CAB0 = CAB/GLB
|
|
CAC0 = CAC/GLT
|
|
CAL0 = CAL/GLB
|
|
CAW0 = CAW/GLVV
|
|
XFAC0 = CDABS(CAT0+CAB0+CAC0+CAL0+CAW0)**2
|
|
XCLGAGA = XFAC/XFAC0
|
|
c write(6,*)'hgaga: ',aml,xclgaga
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
c print*,'h -> gamgam',hga,aml,amch
|
|
c print*,'cat,cab',cat,cab
|
|
c print*,'cac,cal',cac,cal
|
|
c print*,'caw,cah',caw,cah
|
|
c print*,'charged Higgs loop',cah
|
|
c print*,'charged Higgs loop',cth,glpm,cf(cth)
|
|
c CAH = -AMZ**2/2/AMCH**2*CTH*(1-CTH*CF(CTH))*GLPM
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
XFACQ = CDABS(CAT+CAB+CAC+CAL+CAW+CAH)**2
|
|
XFACS = CDABS(CAT+CAB+CAC+CAL+CAW+CAH+CAX1+CAX2
|
|
. + CXL1+CXL2)**2
|
|
XFACSQ = CDABS(CAT+CAB+CAC+CAL+CAW+CAH+CAX1+CAX2
|
|
. + CXB1+CXB2+CXT1+CXT2+CXL1+CXL2)**2
|
|
HGA0 = HGA*XFACSQ/XFAC
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c CTT = 4*AMT**2/AML**2*DCMPLX(1D0,-EPS)
|
|
c CTB = 4*AMB**2/AML**2*DCMPLX(1D0,-EPS)
|
|
c CTC = 4*AMC**2/AML**2*DCMPLX(1D0,-EPS)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CAC0 = 4/3D0 * 2*CTC*(1+(1-CTC)*CF(CTC))*GLT
|
|
CAT0 = 4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT))*GLT
|
|
CAB0 = 1/3D0 * 2*CTB*(1+(1-CTB)*CF(CTB))*GLB
|
|
CXB10= -1/3D0*AMZ**2/AMSB(1)**2*CSB1*(1-CSB1*CF(CSB1))*GLBB(1,1)
|
|
CXB20= -1/3D0*AMZ**2/AMSB(2)**2*CSB2*(1-CSB2*CF(CSB2))*GLBB(2,2)
|
|
CXT10= -4/3D0*AMZ**2/AMST(1)**2*CST1*(1-CST1*CF(CST1))*GLTT(1,1)
|
|
CXT20= -4/3D0*AMZ**2/AMST(2)**2*CST2*(1-CST2*CF(CST2))*GLTT(2,2)
|
|
XFACLOQ = CDABS(CAT0+CAB0+CAC0+CAL+CAW+CAH)**2
|
|
CXUL0=2*4.D0/3.D0*(1.D0/2.D0-2.D0/3.D0*SS)
|
|
. *AMZ**2/AMSU(1)**2*DSIN(A+B)*CSUL*(1-CSUL*CF(CSUL))
|
|
CXUR0=2*4.D0/3.D0*(2.D0/3.D0*SS)
|
|
. *AMZ**2/AMSU(2)**2*DSIN(A+B)*CSUR*(1-CSUR*CF(CSUR))
|
|
CXDL0=2/3.D0*(-1.D0/2.D0+1.D0/3.D0*SS)
|
|
. *AMZ**2/AMSD(1)**2*DSIN(A+B)*CSDL*(1-CSDL*CF(CSDL))
|
|
CXDR0=2/3.D0*(-1.D0/3.D0*SS)
|
|
. *AMZ**2/AMSD(2)**2*DSIN(A+B)*CSDR*(1-CSDR*CF(CSDR))
|
|
XFACLO = CDABS(CAT0+CAB0+CAC0+CAL+CAW+CAH+CAX1+CAX2
|
|
. + CXEL+CXER+CXUL0+CXUR0+CXDL0+CXDR0
|
|
. + CXB10+CXB20+CXT10+CXT20+CXL1+CXL2)**2
|
|
CSQ = 1+3*ALPHAS_HDEC(AML,3)
|
|
XFACSQL = CDABS(CAT+CAB+CAC+CAL+CAW+CAH+CAX1+CAX2
|
|
. + CXEL+CXER+(CXUL0+CXUR0+CXDL0+CXDR0
|
|
. + CXB10+CXB20+CXT10+CXT20)*CSQ+CXL1+CXL2)**2
|
|
XFACSM = CDABS(CAT/GLT+CAB/GLB+CAC/GLT+CAL/GLB+CAW/GLVV)**2
|
|
XFAC0 = CDABS(CAT+CAB+CAC+CAL+CAW+CXL1)**2
|
|
|
|
c Alex
|
|
c write(1,*)'c_gaga= ',XCLGAGA
|
|
c write(1,*)'h -> gaga: ',XFAC,CDABS(CAT+CAB+CAC+CAL+CAW)**2
|
|
c . ,XFAC/CDABS(CAT+CAB+CAC+CAL+CAW)**2
|
|
c write(1,*)'H_SM -> gaga: ',XFAC0
|
|
c write(1,*)'h -> gaga: ',CDABS(CAT+CAB+CAC+CAL+CAW+CAH+CAX1+CAX2
|
|
c . + CXEL+CXER+CXUL+CXUR+CXDL+CXDR
|
|
c . + CXB1+CXB2+CXT1+CXT2+CXL1+CXL2)**2
|
|
c write(1,*)'h -> gaga: ',CDABS(CAT+CAB+CAC+CAL+CAW)**2
|
|
c write(1,*)'h -> gaga: ',CDABS(CAT+CAB+CAC+CAL+CAW+CAH+CAX1+CAX2
|
|
c . + 0*(CXEL+CXER+CXUL+CXUR+CXDL+CXDR
|
|
c . + CXB1+CXB2+CXT1+CXT2+CXL1+CXL2))**2
|
|
c write(1,*)'h -> gaga: ',CDABS(CAT+CAB+CAC+CAL+CAW+0*CAH
|
|
c . + 0*CAX1+0*CAX2
|
|
c . + 1*CXEL+0*CXER+0*CXUL+0*CXUR+0*CXDL+0*CXDR
|
|
c . + 0*CXB1+0*CXB2+0*CXT1+0*CXT2+0*CXL1+0*CXL2)**2
|
|
c write(1,*)'H_SM -> gaga: ',XFAC0
|
|
c write(1,*)
|
|
c write(1,*)'h -> gaga: ',CDABS(CAT+CAB+CAC+CAL+CAW+CAH+CAX1+CAX2
|
|
c . + CXEL+CXER+CXUL+CXUR+CXDL+CXDR
|
|
c . + CXB1+CXB2+CXT1+CXT2+CXL1+CXL2)**2
|
|
c end Alex
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
C H ---> Z GAMMA
|
|
XRMC = RUNM_HDEC(AML/2,4,0)*AMC/RUNM_HDEC(AMC,4,0)
|
|
XRMB = RUNM_HDEC(AML/2,5,1)*AMB/RUNM_HDEC(AMB,5,1)
|
|
XRMT = RUNM_HDEC(AML/2,6,1)*AMT/RUNM_HDEC(AMT,6,1)
|
|
c print*,'xrmc,xrmb,xrmt ',xrmc,xrmb,xrmt
|
|
IF(AML.LE.AMZ)THEN
|
|
HZGA=0
|
|
ELSE
|
|
TS = SS/CS
|
|
FT = -3*2D0/3*(1-4*2D0/3*SS)/DSQRT(SS*CS)*GLT
|
|
FB = 3*1D0/3*(-1+4*1D0/3*SS)/DSQRT(SS*CS)*GLB
|
|
FC = -3*2D0/3*(1-4*2D0/3*SS)/DSQRT(SS*CS)*GLT
|
|
FL = (-1+4*SS)/DSQRT(SS*CS)*GLB
|
|
if(i2hdm.eq.1) then
|
|
FL = (-1+4*SS)/DSQRT(SS*CS)*gllep
|
|
endif
|
|
EPS=1.D-8
|
|
c CTT = 4*XRMT**2/AML**2*DCMPLX(1D0,-EPS)
|
|
c CTB = 4*XRMB**2/AML**2*DCMPLX(1D0,-EPS)
|
|
c CTC = 4*XRMC**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTT = 4*AMT**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*AMB**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTC = 4*AMC**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTL = 4*AMTAU**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTW = 4*AMW**2/AML**2*DCMPLX(1D0,-EPS)
|
|
CTH = 4*AMCH**2/AML**2*DCMPLX(1D0,-EPS)
|
|
c CLT = 4*XRMT**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
c CLB = 4*XRMB**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
c CLC = 4*XRMC**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLT = 4*AMT**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLB = 4*AMB**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLC = 4*AMC**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLE = 4*AMTAU**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLW = 4*AMW**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLH = 4*AMCH**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
CAB = FB*(CI1(CTB,CLB) - CI2(CTB,CLB))
|
|
CAC = FC*(CI1(CTC,CLC) - CI2(CTC,CLC))
|
|
CAL = FL*(CI1(CTL,CLE) - CI2(CTL,CLE))
|
|
CAW = -1/DSQRT(TS)*(4*(3-TS)*CI2(CTW,CLW)
|
|
. + ((1+2/CTW)*TS - (5+2/CTW))*CI1(CTW,CLW))*GLVV
|
|
CAH = (1-2*SS)/DSQRT(SS*CS)*AMZ**2/2/AMCH**2*CI1(CTH,CLH)*GLPM
|
|
XFAC = CDABS(CAT+CAB+CAC+CAL+CAW+CAH)**2
|
|
ACOUP = DSQRT(2D0)*GF*AMZ**2*SS*CS/PI**2
|
|
HZGA = GF/(4.D0*PI*DSQRT(2.D0))*AML**3*(ALPH/PI)*ACOUP/16.D0
|
|
. *XFAC*(1-AMZ**2/AML**2)**3
|
|
c write(6,*)'Z gamma: ',AML,AMCH,6*CI1(CTH,CLH)
|
|
|
|
ENDIF
|
|
|
|
c print*,'h -> Zgam',hzga
|
|
C H ---> W W
|
|
IF(IONWZ.EQ.0)THEN
|
|
CALL HTOVV_HDEC(0,AML,AMW,GAMW,HTWW)
|
|
HWW = 3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/AML**3*HTWW*GLVV**2
|
|
ELSEIF(IONWZ.EQ.-1)THEN
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMW-DLD
|
|
XM2 = 2D0*AMW+DLU
|
|
IF (AML.LE.XM1) THEN
|
|
CALL HTOVV_HDEC(0,AML,AMW,GAMW,HTWW)
|
|
HWW = 3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/AML**3*HTWW*GLVV**2
|
|
ELSEIF (AML.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
CALL HTOVV_HDEC(0,XX(1),AMW,GAMW,HTWW)
|
|
YY(1)=3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/XX(1)**3*HTWW
|
|
CALL HTOVV_HDEC(0,XX(2),AMW,GAMW,HTWW)
|
|
YY(2)=3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/XX(2)**3*HTWW
|
|
YY(3)=HVV(XX(3),AMW**2/XX(3)**2)
|
|
YY(4)=HVV(XX(4),AMW**2/XX(4)**2)
|
|
HWW = FINT_HDEC(AML,XX,YY)*GLVV**2
|
|
ELSE
|
|
HWW=HVV(AML,AMW**2/AML**2)*GLVV**2
|
|
ENDIF
|
|
ELSE
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMW-DLD
|
|
XM2 = 2D0*AMW+DLU
|
|
IF (AML.LE.AMW) THEN
|
|
HWW=0
|
|
ELSE IF (AML.LE.XM1) THEN
|
|
CWW=3.D0*GF**2*AMW**4/16.D0/PI**3
|
|
HWW=HV(AMW**2/AML**2)*CWW*AML*GLVV**2
|
|
ELSE IF (AML.LT.XM2) THEN
|
|
CWW=3.D0*GF**2*AMW**4/16.D0/PI**3
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1)=HV(AMW**2/XX(1)**2)*CWW*XX(1)
|
|
YY(2)=HV(AMW**2/XX(2)**2)*CWW*XX(2)
|
|
YY(3)=HVV(XX(3),AMW**2/XX(3)**2)
|
|
YY(4)=HVV(XX(4),AMW**2/XX(4)**2)
|
|
HWW = FINT_HDEC(AML,XX,YY)*GLVV**2
|
|
ELSE
|
|
HWW=HVV(AML,AMW**2/AML**2)*GLVV**2
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c print*,'h -> WW',hww
|
|
C H ---> Z Z
|
|
IF(IONWZ.EQ.0)THEN
|
|
CALL HTOVV_HDEC(0,AML,AMZ,GAMZ,HTZZ)
|
|
HZZ = 3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/AML**3*HTZZ*GLVV**2
|
|
ELSEIF(IONWZ.EQ.-1)THEN
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMZ-DLD
|
|
XM2 = 2D0*AMZ+DLU
|
|
IF (AML.LE.XM1) THEN
|
|
CALL HTOVV_HDEC(0,AML,AMZ,GAMZ,HTZZ)
|
|
HZZ = 3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/AML**3*HTZZ*GLVV**2
|
|
ELSEIF (AML.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
CALL HTOVV_HDEC(0,XX(1),AMZ,GAMZ,HTZZ)
|
|
YY(1)=3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/XX(1)**3*HTZZ
|
|
CALL HTOVV_HDEC(0,XX(2),AMZ,GAMZ,HTZZ)
|
|
YY(2)=3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/XX(2)**3*HTZZ
|
|
YY(3)=HVV(XX(3),AMZ**2/XX(3)**2)/2
|
|
YY(4)=HVV(XX(4),AMZ**2/XX(4)**2)/2
|
|
HZZ = FINT_HDEC(AML,XX,YY)*GLVV**2
|
|
ELSE
|
|
HZZ=HVV(AML,AMZ**2/AML**2)/2.D0*GLVV**2
|
|
ENDIF
|
|
ELSE
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMZ-DLD
|
|
XM2 = 2D0*AMZ+DLU
|
|
IF (AML.LE.AMZ) THEN
|
|
HZZ=0
|
|
ELSE IF (AML.LE.XM1) THEN
|
|
CZZ=3.D0*GF**2*AMZ**4/192.D0/PI**3*(7-40/3.D0*SS+160/9.D0*SS**2)
|
|
HZZ=HV(AMZ**2/AML**2)*CZZ*AML*GLVV**2
|
|
ELSE IF (AML.LT.XM2) THEN
|
|
CZZ=3.D0*GF**2*AMZ**4/192.D0/PI**3*(7-40/3.D0*SS+160/9.D0*SS**2)
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1)=HV(AMZ**2/XX(1)**2)*CZZ*XX(1)
|
|
YY(2)=HV(AMZ**2/XX(2)**2)*CZZ*XX(2)
|
|
YY(3)=HVV(XX(3),AMZ**2/XX(3)**2)/2D0
|
|
YY(4)=HVV(XX(4),AMZ**2/XX(4)**2)/2D0
|
|
HZZ = FINT_HDEC(AML,XX,YY)*GLVV**2
|
|
ELSE
|
|
HZZ=HVV(AML,AMZ**2/AML**2)/2.D0*GLVV**2
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c Alex
|
|
c write(1,*)'c_V= ',GLVV
|
|
c end Alex
|
|
|
|
c print*,'h -> ZZ',hzz
|
|
C H ---> A A
|
|
IF (AML.LE.2.D0*AMA) THEN
|
|
HAA=0
|
|
ELSE
|
|
HAA=GF/16.D0/DSQRT(2D0)/PI*AMZ**4/AML
|
|
. *BETA_HDEC(AMA**2/AML**2)*GLAA**2
|
|
ENDIF
|
|
|
|
c MMM changed 22/8/2013
|
|
if(i2hdm.eq.1) then
|
|
if(ionsh.eq.0) then
|
|
dld=0.1d0
|
|
dlu=0.1d0
|
|
xm1 = 2d0*ama-dld
|
|
xm2 = 2d0*ama+dlu
|
|
if (aml.le.ama) then
|
|
haa = 0d0
|
|
elseif (aml.le.xm1) then
|
|
xa=ama**2/aml**2
|
|
xa1=(xa-1.d0)*(2.d0-.5d0*dlog(xa))+(1.d0-5.d0*xa)
|
|
. *(datan((2.d0*xa-1.d0)/dsqrt(4.d0*xa-1.d0))
|
|
. -datan(1.d0/dsqrt(4.d0*xa-1.d0)))
|
|
. /dsqrt(4.d0*xa-1.d0)
|
|
xa2=3*gf**2/32.d0/pi**3*amz**4/aml*glaa**2*gab**2*amb**2
|
|
haa=xa1*xa2
|
|
elseif (aml.le.xm2) then
|
|
xx(1) = xm1-1d0
|
|
xx(2) = xm1
|
|
xx(3) = xm2
|
|
xx(4) = xm2+1d0
|
|
xa=ama**2/xx(1)**2
|
|
xa1=(xa-1.d0)*(2.d0-.5d0*dlog(xa))+(1.d0-5.d0*xa)
|
|
. *(datan((2.d0*xa-1.d0)/dsqrt(4.d0*xa-1.d0))
|
|
. -datan(1.d0/dsqrt(4.d0*xa-1.d0)))
|
|
. /dsqrt(4.d0*xa-1.d0)
|
|
xa2=3*gf**2/32.d0/pi**3*amz**4/xx(1)*gab**2*amb**2
|
|
yy(1)=xa1*xa2
|
|
xa=ama**2/xx(2)**2
|
|
xa1=(xa-1.d0)*(2.d0-.5d0*dlog(xa))+(1.d0-5.d0*xa)
|
|
. *(datan((2.d0*xa-1.d0)/dsqrt(4.d0*xa-1.d0))
|
|
. -datan(1.d0/dsqrt(4.d0*xa-1.d0)))
|
|
. /dsqrt(4.d0*xa-1.d0)
|
|
xa2=3*gf**2/32.d0/pi**3*amz**4/xx(2)*gab**2*amb**2
|
|
yy(2)=xa1*xa2
|
|
yy(3)=gf/16d0/dsqrt(2d0)/pi*amz**4/xx(3)
|
|
. *beta_hdec(ama**2/xx(3)**2)
|
|
yy(4)=gf/16d0/dsqrt(2d0)/pi*amz**4/xx(4)
|
|
. *beta_hdec(ama**2/xx(4)**2)
|
|
haa = fint_hdec(aml,xx,yy)*glaa**2
|
|
else
|
|
haa=gf/16d0/dsqrt(2d0)/pi*amz**4/aml*
|
|
. beta_hdec(ama**2/aml**2)*glaa**2
|
|
endif
|
|
else
|
|
if (aml.le.2*ama) then
|
|
haa=0
|
|
else
|
|
haa=gf/16d0/dsqrt(2d0)/pi*amz**4/aml*
|
|
. beta_hdec(ama**2/aml**2)*glaa**2
|
|
endif
|
|
endif
|
|
endif
|
|
c end MMM changed 22/8/2013
|
|
|
|
c print*,'h -> AA',haa
|
|
|
|
C h ---> H+ H-
|
|
|
|
if(i2hdm.eq.1) then
|
|
if (aml.le.2*amch) then
|
|
hlchch=0.D0
|
|
else
|
|
hlchch=gf/8d0/dsqrt(2d0)/pi*amz**4/aml*
|
|
. beta_hdec(amch**2/aml**2)*glpm**2
|
|
endif
|
|
elseif(i2hdm.eq.0) then
|
|
hlchch=0.D0
|
|
endif
|
|
|
|
c print*,'h -> H+H-',hlchch
|
|
|
|
C H ---> A Z
|
|
IF (AML.LE.AMZ+AMA) THEN
|
|
HAZ=0
|
|
ELSE
|
|
CAZ=LAMB_HDEC(AMA**2/AML**2,AMZ**2/AML**2)
|
|
. *LAMB_HDEC(AML**2/AMZ**2,AMA**2/AMZ**2)**2
|
|
HAZ=GF/8.D0/DSQRT(2D0)/PI*AMZ**4/AML*CAZ*GZAL**2
|
|
ENDIF
|
|
|
|
c MMM changed 22/8/2013
|
|
if(i2hdm.eq.1) then
|
|
if(ionsh.eq.0) then
|
|
dld=1d0
|
|
dlu=8d0
|
|
xm1 = ama+amz-dld
|
|
xm2 = ama+amz+dlu
|
|
if (aml.lt.ama) then
|
|
haz=0
|
|
elseif (aml.lt.xm1) then
|
|
if(aml.le.dabs(amz-ama))then
|
|
haz=0
|
|
else
|
|
haz=9.d0*gf**2/8.d0/pi**3*amz**4*aml*gzal**2*
|
|
. (7.d0/12.d0-10.d0/9.d0*ss+40.d0/27.d0*ss**2)
|
|
. *hvh((ama/aml)**2,(amz/aml)**2)
|
|
endif
|
|
elseif (aml.lt.xm2) then
|
|
xx(1) = xm1-1d0
|
|
xx(2) = xm1
|
|
xx(3) = xm2
|
|
xx(4) = xm2+1d0
|
|
yy(1)=9.d0*gf**2/8.d0/pi**3*amz**4*xx(1)*
|
|
. (7.d0/12.d0-10.d0/9.d0*ss+40.d0/27.d0*ss**2)
|
|
. *hvh((ama/xx(1))**2,(amz/xx(1))**2)
|
|
yy(2)=9.d0*gf**2/8.d0/pi**3*amz**4*xx(2)*
|
|
. (7.d0/12.d0-10.d0/9.d0*ss+40.d0/27.d0*ss**2)
|
|
. *hvh((ama/xx(2))**2,(amz/xx(2))**2)
|
|
caz=lamb_hdec(ama**2/xx(3)**2,amz**2/xx(3)**2)
|
|
. *lamb_hdec(xx(3)**2/amz**2,ama**2/amz**2)**2
|
|
yy(3)=gf/8.d0/dsqrt(2d0)/pi*amz**4/xx(3)*caz
|
|
caz=lamb_hdec(ama**2/xx(4)**2,amz**2/xx(4)**2)
|
|
. *lamb_hdec(xx(4)**2/amz**2,ama**2/amz**2)**2
|
|
yy(4)=gf/8.d0/dsqrt(2d0)/pi*amz**4/xx(4)*caz
|
|
haz = fint_hdec(aml,xx,yy)*gzal**2
|
|
else
|
|
caz=lamb_hdec(ama**2/aml**2,amz**2/aml**2)
|
|
. *lamb_hdec(aml**2/amz**2,ama**2/amz**2)**2
|
|
haz=gf/8.d0/dsqrt(2d0)/pi*amz**4/aml*caz*gzal**2
|
|
endif
|
|
else
|
|
if (aml.lt.amz+ama) then
|
|
haz=0
|
|
else
|
|
caz=lamb_hdec(ama**2/aml**2,amz**2/aml**2)
|
|
. *lamb_hdec(aml**2/amz**2,ama**2/amz**2)**2
|
|
haz=gf/8.d0/dsqrt(2d0)/pi*amz**4/aml*caz*gzal**2
|
|
endif
|
|
endif
|
|
endif
|
|
c end MMM changed 22/8/2013
|
|
|
|
c print*,'h -> AZ',haz
|
|
|
|
C H ---> H+ W+
|
|
|
|
IF (AML.LE.AMW+AMCH) THEN
|
|
HHW=0
|
|
ELSE
|
|
CHW=LAMB_HDEC(AMCH**2/AML**2,AMW**2/AML**2)
|
|
. *LAMB_HDEC(AML**2/AMW**2,AMCH**2/AMW**2)**2
|
|
HHW=2*gf/8.d0/dsqrt(2d0)/pi*amw**4/aml*chw*ghvv**2
|
|
ENDIF
|
|
|
|
c MMM changed 22/8/2013
|
|
if(i2hdm.eq.1) then
|
|
if(ionsh.eq.0) then
|
|
dld=3d0
|
|
dlu=9d0
|
|
xm1 = amch+amw-dld
|
|
xm2 = amch+amw+dlu
|
|
if (aml.lt.amch) then
|
|
hhw=0.d0
|
|
elseif (aml.lt.xm1) then
|
|
if(aml.le.dabs(amw-amch))then
|
|
hhw=0
|
|
else
|
|
c ---- this is for a numeric check ----
|
|
iprint = 10
|
|
|
|
ivegas(1) = 30000
|
|
ivegas(2) = 5
|
|
ivegas(3) = 120000
|
|
ivegas(4) = 10
|
|
|
|
amhi = aml
|
|
amhj = amch
|
|
amhk = amw
|
|
gamtoti = 1.D0
|
|
gamtotj = 1.D0
|
|
gamtotk = gamw
|
|
|
|
c ---- initialization of VEGAS ----
|
|
|
|
c call RSTART(12,34,56,78)
|
|
|
|
c call INTEG(hvhinteg,2,iprint,ivegas,result,relative)
|
|
|
|
c print*,'result',result
|
|
c ---- end numeric check
|
|
|
|
hhw=9.d0*gf**2/16.d0/pi**3*amw**4*aml*ghvv**2*2
|
|
. *hvh((amch/aml)**2,(amw/aml)**2)
|
|
endif
|
|
elseif (aml.lt.xm2) then
|
|
xx(1) = xm1-1d0
|
|
xx(2) = xm1
|
|
xx(3) = xm2
|
|
xx(4) = xm2+1d0
|
|
yy(1)=9.d0*gf**2/16.d0/pi**3*amw**4*xx(1)*2
|
|
. *hvh((amch/xx(1))**2,(amw/xx(1))**2)
|
|
yy(2)=9.d0*gf**2/16.d0/pi**3*amw**4*xx(2)*2
|
|
. *hvh((amch/xx(2))**2,(amw/xx(2))**2)
|
|
chw=lamb_hdec(amch**2/xx(3)**2,amw**2/xx(3)**2)
|
|
. *lamb_hdec(xx(3)**2/amw**2,amch**2/amw**2)**2
|
|
yy(3)=2*gf/8.d0/dsqrt(2d0)/pi*amw**4/xx(3)*chw
|
|
chw=lamb_hdec(amch**2/xx(4)**2,amw**2/xx(4)**2)
|
|
. *lamb_hdec(xx(4)**2/amw**2,amch**2/amw**2)**2
|
|
yy(4)=2*gf/8.d0/dsqrt(2d0)/pi*amw**4/xx(4)*chw
|
|
hhw=fint_hdec(aml,xx,yy)*ghvv**2
|
|
else
|
|
chw=lamb_hdec(amch**2/aml**2,amw**2/aml**2)
|
|
. *lamb_hdec(aml**2/amw**2,amch**2/amw**2)**2
|
|
hhw=2*gf/8.d0/dsqrt(2d0)/pi*amw**4/aml*chw*ghvv**2
|
|
endif
|
|
else
|
|
if (aml.lt.amw+amch) then
|
|
hhw=0.d0
|
|
else
|
|
chw=lamb_hdec(amch**2/aml**2,amw**2/aml**2)
|
|
. *lamb_hdec(aml**2/amw**2,amch**2/amw**2)**2
|
|
hhw=2*gf/8.d0/dsqrt(2d0)/pi*amw**4/aml*chw*ghvv**2
|
|
endif
|
|
endif
|
|
endif
|
|
c end MMM changed 22/8/2013
|
|
|
|
c print*,'h -> H+W- + H-W+',hhw,hhw/2.D0
|
|
|
|
C ============================ SUSY DECAYS
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
C
|
|
C HL ----> CHARGINOS
|
|
C
|
|
DO 711 I=1,2
|
|
DO 711 J=1,2
|
|
IF (AML.GT.AMCHAR(I)+AMCHAR(J)) THEN
|
|
WHLCH(I,J)=GF*AMW**2/(2*PI*DSQRT(2.D0))/AML
|
|
. *LAMB_HDEC(AMCHAR(I)**2/AML**2,AMCHAR(J)**2/AML**2)
|
|
. *( (AC2(I,J)**2+AC2(J,I)**2)*(AML**2-AMCHAR(I)
|
|
. **2-AMCHAR(J)**2)-4.D0*AC2(I,J)*AC2(J,I)*
|
|
. XMCHAR(I)*XMCHAR(J) )
|
|
ELSE
|
|
WHLCH(I,J)=0.D0
|
|
ENDIF
|
|
WHLCHT=WHLCH(1,1)+WHLCH(1,2)+WHLCH(2,1)+WHLCH(2,2)
|
|
711 CONTINUE
|
|
C
|
|
C HL ----> NEUTRALINOS
|
|
C
|
|
DO 712 I=1,4
|
|
DO 712 J=1,4
|
|
IF (AML.GT.AMNEUT(I)+AMNEUT(J)) THEN
|
|
WHLNE(I,J)=GF*AMW**2/(2*PI*DSQRT(2.D0))/AML
|
|
. *AN2(I,J)**2*(AML**2-(XMNEUT(I)+XMNEUT(J))**2)
|
|
. *LAMB_HDEC(AMNEUT(I)**2/AML**2,AMNEUT(J)**2/AML**2)
|
|
ELSE
|
|
WHLNE(I,J)=0.D0
|
|
ENDIF
|
|
712 CONTINUE
|
|
WHLNET= WHLNE(1,1)+WHLNE(1,2)+WHLNE(1,3)+WHLNE(1,4)
|
|
. +WHLNE(2,1)+WHLNE(2,2)+WHLNE(2,3)+WHLNE(2,4)
|
|
. +WHLNE(3,1)+WHLNE(3,2)+WHLNE(3,3)+WHLNE(3,4)
|
|
. +WHLNE(4,1)+WHLNE(4,2)+WHLNE(4,3)+WHLNE(4,4)
|
|
CCC
|
|
C HL ----> SLEPTONS
|
|
C
|
|
IF (AML.GT.2.D0*AMSE(1)) THEN
|
|
WHLSLEL=2*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AML*DSIN(B+A)**2
|
|
. *BETA_HDEC(AMSE(1)**2/AML**2)*(-0.5D0+SS)**2
|
|
ELSE
|
|
WHLSLEL=0.D0
|
|
ENDIF
|
|
|
|
IF (AML.GT.2.D0*AMSE(2)) THEN
|
|
WHLSLER=2*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AML*DSIN(B+A)**2
|
|
. *BETA_HDEC(AMSE(2)**2/AML**2)*SS**2
|
|
ELSE
|
|
WHLSLER=0.D0
|
|
ENDIF
|
|
|
|
WHLSLNL=0.D0
|
|
IF (AML.GT.2.D0*AMSN1(1)) THEN
|
|
WHLSLNL=2*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AML*DSIN(B+A)**2
|
|
. *BETA_HDEC(AMSN1(1)**2/AML**2)*0.5D0**2
|
|
ENDIF
|
|
IF (AML.GT.2.D0*AMSN(1)) THEN
|
|
WHLSLNL=WHLSLNL + GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AML*DSIN(B+A)**2
|
|
. *BETA_HDEC(AMSN(1)**2/AML**2)*0.5D0**2
|
|
ENDIF
|
|
|
|
DO 718 I=1,2
|
|
DO 718 J=1,2
|
|
IF(AML.GT.AMSL(I)+AMSL(J)) THEN
|
|
WHLSTAU(I,J)=GF*AMZ**4/2.D0/DSQRT(2.D0)/PI*GLEE(I,J)**2*
|
|
. LAMB_HDEC(AMSL(I)**2/AML**2,AMSL(J)**2/AML**2)/AML
|
|
ELSE
|
|
WHLSTAU(I,J)=0.D0
|
|
ENDIF
|
|
718 CONTINUE
|
|
|
|
WHLSLT=WHLSTAU(1,1)+WHLSTAU(2,1)+WHLSTAU(1,2)+WHLSTAU(2,2)
|
|
. +WHLSLEL+WHLSLER+WHLSLNL
|
|
C
|
|
C HL ----> SQUARKS
|
|
C
|
|
IF (AML.GT.2.D0*AMSU(1)) THEN
|
|
WHLSQUL=6*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AML*DSIN(B+A)**2
|
|
. *BETA_HDEC(AMSU(1)**2/AML**2)*(0.5D0-2.D0/3.D0*SS)**2
|
|
ELSE
|
|
WHLSQUL=0.D0
|
|
ENDIF
|
|
|
|
IF (AML.GT.2.D0*AMSU(2)) THEN
|
|
WHLSQUR=6*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AML*DSIN(B+A)**2
|
|
. *BETA_HDEC(AMSU(2)**2/AML**2)*(-2.D0/3.D0*SS)**2
|
|
ELSE
|
|
WHLSQUR=0.D0
|
|
ENDIF
|
|
|
|
IF (AML.GT.2.D0*AMSD(1)) THEN
|
|
WHLSQDL=6*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AML*DSIN(B+A)**2
|
|
. *BETA_HDEC(AMSD(1)**2/AML**2)*(-0.5D0+1.D0/3.D0*SS)**2
|
|
ELSE
|
|
WHLSQDL=0.D0
|
|
ENDIF
|
|
|
|
IF (AML.GT.2.D0*AMSD(2)) THEN
|
|
WHLSQDR=6*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AML*DSIN(B+A)**2
|
|
. *BETA_HDEC(AMSD(2)**2/AML**2)*(+1.D0/3.D0*SS)**2
|
|
ELSE
|
|
WHLSQDR=0.D0
|
|
ENDIF
|
|
|
|
WHLSQ=WHLSQUL+WHLSQUR+WHLSQDL+WHLSQDR
|
|
|
|
C
|
|
C HL ----> STOPS
|
|
SUSY = 1
|
|
DO 713 I=1,2
|
|
DO 713 J=1,2
|
|
c QSQ = (YMST(I)+YMST(J))/2
|
|
QSQ = AML
|
|
SUSY = 1
|
|
IF(AML.GT.YMST(I)+YMST(J)) THEN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CALL SQMBAPP_HDEC(QSQ)
|
|
SUSY = 1+SQSUSY_HDEC(1,1,I,J,QSQ,0,1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
WHLST(I,J)=3*GF*AMZ**4/2.D0/DSQRT(2.D0)/PI*YLTT(I,J)**2*
|
|
. LAMB_HDEC(YMST(I)**2/AML**2,YMST(J)**2/AML**2)/AML
|
|
. *SUSY
|
|
c write(6,*)'h -> stop: ',I,J,AML,YMST(I),YMST(J),SUSY-1,
|
|
c . WHLST(I,J)/SUSY,WHLST(I,J)
|
|
c write(6,*)'h -> stop: ',I,J,AML,YMST(I),YMST(J),SUSY-1
|
|
ELSE
|
|
WHLST(I,J)=0.D0
|
|
ENDIF
|
|
713 CONTINUE
|
|
C
|
|
C HL ----> SBOTTOMS
|
|
SUSY = 1
|
|
DO 714 I=1,2
|
|
DO 714 J=1,2
|
|
c QSQ = (YMSB(I)+YMSB(J))/2
|
|
QSQ = AML
|
|
IF(AML.GT.YMSB(I)+YMSB(J)) THEN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CALL SQMBAPP_HDEC(QSQ)
|
|
SUSY = 1+SQSUSY_HDEC(1,2,I,J,QSQ,0,1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
WHLSB(I,J)=3*GF*AMZ**4/2.D0/DSQRT(2.D0)/PI*YLBB(I,J)**2*
|
|
. LAMB_HDEC(YMSB(I)**2/AML**2,YMSB(J)**2/AML**2)/AML
|
|
. *SUSY
|
|
c write(6,*)'h -> sbot: ',I,J,AML,YMSB(I),YMSB(J),SUSY-1,
|
|
c . WHLSB(I,J)/SUSY,WHLSB(I,J)
|
|
c write(6,*)'h -> sbot: ',I,J,AML,YMSB(I),YMSB(J),SUSY-1
|
|
ELSE
|
|
WHLSB(I,J)=0.D0
|
|
ENDIF
|
|
714 CONTINUE
|
|
C
|
|
WHLSTT=WHLST(1,1)+WHLST(1,2)+WHLST(2,1)+WHLST(2,2)
|
|
WHLSBB=WHLSB(1,1)+WHLSB(1,2)+WHLSB(2,1)+WHLSB(2,2)
|
|
WHLSQT=WHLSTT+WHLSBB+WHLSQ
|
|
|
|
ELSE
|
|
WHLCHT=0.D0
|
|
WHLNET=0.D0
|
|
WHLSLT=0.D0
|
|
WHLSQT=0.D0
|
|
C--Change thanks to Elzbieta Richter-Was
|
|
DO I=1,2
|
|
DO J=1,2
|
|
WHLCH(I,J)=0.D0
|
|
WHLST(I,J)=0.D0
|
|
WHLSB(I,J)=0.D0
|
|
WHLSTAU(I,J)=0.D0
|
|
ENDDO
|
|
ENDDO
|
|
DO I=1,4
|
|
DO J=1,4
|
|
WHLNE(I,J)=0.D0
|
|
ENDDO
|
|
ENDDO
|
|
ENDIF
|
|
|
|
IF(IGOLD.NE.0)THEN
|
|
C HL ---> GOLDSTINOS
|
|
DO 710 I=1,4
|
|
IF (AML.GT.AMNEUT(I)) THEN
|
|
WHLGD(I)=AML**5/AXMPL**2/AXMGD**2/48.D0/PI*
|
|
. (1.D0-AMNEUT(I)**2/AML**2)**4*AGDL(I)**2
|
|
ELSE
|
|
WHLGD(I)=0.D0
|
|
ENDIF
|
|
710 CONTINUE
|
|
WHLGDT=WHLGD(1)+WHLGD(2)+WHLGD(3)+WHLGD(4)
|
|
ELSE
|
|
WHLGDT=0
|
|
ENDIF
|
|
|
|
C ========== TOTAL WIDTH AND BRANCHING RATIOS
|
|
WTOT=HLL+HMM+HSS+HCC+HBB+HTT+HGG+HGA+HZGA+HWW+HZZ+HAA+HAZ+HHW
|
|
. +WHLCHT+WHLNET+WHLSLT+WHLSQT + WHLGDT
|
|
|
|
c write(6,*)'h:',WTOT,HLL,HMM,HSS,HCC,HBB,HTT,HGG,HGA,HZGA,HWW,HZZ
|
|
c . ,HAA,HAZ,HHW,WHLCHT,WHLNET,WHLSLT,WHLSQT , WHLGDT
|
|
c write(6,*)'h:',HGA
|
|
|
|
wtot = wtot + hlchch
|
|
hlbrchch=hlchch/wtot
|
|
|
|
c print*,'wtot',wtot
|
|
|
|
HLBRT=HTT/WTOT
|
|
HLBRB=HBB/WTOT
|
|
HLBRL=HLL/WTOT
|
|
HLBRM=HMM/WTOT
|
|
HLBRS=HSS/WTOT
|
|
HLBRC=HCC/WTOT
|
|
HLBRG=HGG/WTOT
|
|
HLBRGA=HGA/WTOT
|
|
HLBRZGA=HZGA/WTOT
|
|
HLBRW=HWW/WTOT
|
|
HLBRZ=HZZ/WTOT
|
|
HLBRA=HAA/WTOT
|
|
HLBRAZ=HAZ/WTOT
|
|
HLBRHW=HHW/WTOT
|
|
DO 811 I=1,2
|
|
DO 811 J=1,2
|
|
HLBRSC(I,J)=WHLCH(I,J)/WTOT
|
|
811 CONTINUE
|
|
DO 812 I=1,4
|
|
DO 812 J=1,4
|
|
HLBRSN(I,J)=WHLNE(I,J)/WTOT
|
|
812 CONTINUE
|
|
HLBRCHT=WHLCHT/WTOT
|
|
HLBRNET=WHLNET/WTOT
|
|
HLBRSL=WHLSLT/WTOT
|
|
HLBRSQ=WHLSQ/WTOT
|
|
HLBRSQT=WHLSQT/WTOT
|
|
HLBRGD =WHLGDT/WTOT
|
|
HLWDTH=WTOT
|
|
|
|
BHLSLNL = WHLSLNL/WTOT
|
|
BHLSLEL = WHLSLEL/WTOT
|
|
BHLSLER = WHLSLER/WTOT
|
|
BHLSQUL = WHLSQUL/WTOT
|
|
BHLSQUR = WHLSQUR/WTOT
|
|
BHLSQDL = WHLSQDL/WTOT
|
|
BHLSQDR = WHLSQDR/WTOT
|
|
DO I = 1,2
|
|
DO J = 1,2
|
|
BHLST(I,J) = WHLST(I,J)/WTOT
|
|
BHLSB(I,J) = WHLSB(I,J)/WTOT
|
|
BHLSTAU(I,J) = WHLSTAU( I,J)/WTOT
|
|
ENDDO
|
|
ENDDO
|
|
|
|
ENDIF
|
|
|
|
IF(IHIGGS.GT.1)THEN
|
|
|
|
|
|
C =========================================================
|
|
C CHARGED HIGGS DECAYS
|
|
C =========================================================
|
|
TB=TGBET
|
|
C ============= RUNNING MASSES
|
|
RMS = RUNM_HDEC(AMCH,3,0)
|
|
RMC = RUNM_HDEC(AMCH,4,0)
|
|
RMB = RUNM_HDEC(AMCH,5,1)
|
|
RMT = RUNM_HDEC(AMCH,6,1)
|
|
ASH=ALPHAS_HDEC(AMCH,3)
|
|
C =============== PARTIAL WIDTHS
|
|
C H+ ---> MU NMU
|
|
XGAM = GAB
|
|
if(i2hdm.eq.1) then
|
|
xgam = galep
|
|
endif
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STAUSUSY_HDEC(GLB,GHB,GAB,XGLM,XGHM,XGAM,QSUSY,0)
|
|
ENDIF
|
|
IF(AMCH.LE.AMMUON) THEN
|
|
HMN = 0
|
|
ELSE
|
|
HMN=CFF(AMCH,XGAM,(AMMUON/AMCH)**2,0.D0)
|
|
ENDIF
|
|
|
|
c print*,''
|
|
c print*,'H+ decay widths'
|
|
c print*,'H+ -> nu mu',hmn
|
|
|
|
C H+ ---> TAU NTAU
|
|
XGAT = GAB
|
|
if(i2hdm.eq.1) then
|
|
xgat = galep
|
|
endif
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STAUSUSY_HDEC(GLB,GHB,GAB,XGLT,XGHT,XGAT,QSUSY,1)
|
|
ENDIF
|
|
IF(AMCH.LE.AMTAU) THEN
|
|
HLN = 0
|
|
ELSE
|
|
HLN=CFF(AMCH,XGAT,(AMTAU/AMCH)**2,0.D0)
|
|
ENDIF
|
|
|
|
c print*,'H+ -> tau ntau',hln
|
|
|
|
C H+ --> SU
|
|
EPS = 1.D-12
|
|
RATX = 1
|
|
SSUSY = (AMSD(1)+AMSD(2)+AMGLU)/3*QSUSY
|
|
C SSUSY = (AMSD(1)+AMSD(2))/2*QSUSY
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STRSUSY_HDEC(GLB,GHB,GAB,XGLS,XGHS,XGAS,SSUSY,LOOP)
|
|
RATX = XGAS/GAB
|
|
ENDIF
|
|
IF(AMCH.LE.AMS+EPS) THEN
|
|
HSU = 0
|
|
ELSE
|
|
HSU1=3.D0*VUS**2*CQCDM(AMCH,TB,(AMS/AMCH)**2,EPS,RATX)
|
|
HSU2=3.D0*VUS**2*CQCD(AMCH,TB,(RMS/AMCH)**2,EPS,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
hsu1=3.d0*vus**2*
|
|
. cqcdm2hdm(amch,gab,gat,(ams/amch)**2,eps,ratx)
|
|
hsu2=3.d0*vus**2*cqcd2hdm(amch,gab,gat,(rms/amch)**2,eps,ratx)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(HSU2.LT.0.D0) HSU2 = 0
|
|
RAT = AMS/AMCH
|
|
HSU = QQINT_HDEC(RAT,HSU1,HSU2)
|
|
ENDIF
|
|
|
|
c print*,'H+ -> su',hsu,3.d0*vus**2*
|
|
c . cqcdm2hdm(amch,gab,gat,(ams/amch)**2,eps,ratx)
|
|
|
|
C H+ --> CS
|
|
RATX = RMS/AMS
|
|
RATY = 1
|
|
SSUSY = (AMSD(1)+AMSD(2)+AMGLU)/3*QSUSY
|
|
C SSUSY = (AMSD(1)+AMSD(2))/2*QSUSY
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STRSUSY_HDEC(GLB,GHB,GAB,XGLS,XGHS,XGAS,SSUSY,LOOP)
|
|
RATX = RMS/AMS*XGAS/GAB
|
|
RATY = XGAS/GAB
|
|
ENDIF
|
|
IF(AMCH.LE.AMS+AMC) THEN
|
|
HSC = 0
|
|
ELSE
|
|
HSC1=3.D0*CQCDM(AMCH,TB,(AMS/AMCH)**2,(AMC/AMCH)**2,RATX)*VCS**2
|
|
HSC2=3.D0*CQCD(AMCH,TB,(RMS/AMCH)**2,(RMC/AMCH)**2,RATY)*VCS**2
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
hsc1=3.d0*VCS**2*
|
|
. cqcdm2hdm(amch,gab,gat,(ams/amch)**2,(amc/amch)**2,ratx)
|
|
hsc2=3.d0*VCS**2*
|
|
. cqcd2hdm(amch,gab,gat,(rms/amch)**2,(rmc/amch)**2,raty)
|
|
c print*,'rms,rmc',hsc1,hsc2,rms,rmc
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(HSC2.LT.0.D0) HSC2 = 0
|
|
RAT = (AMS+AMC)/AMCH
|
|
HSC = QQINT_HDEC(RAT,HSC1,HSC2)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c HSC1=3.D0*CQCDM(AMCH,TB,(AMS/AMCH)**2,(AMC/AMCH)**2,1.D0)
|
|
c HSC2=3.D0*CQCD(AMCH,TB,(RMS/AMCH)**2,(RMC/AMCH)**2,1.D0)
|
|
c IF(HSC2.LT.0.D0) HSC2 = 0
|
|
c RAT = (AMS+AMC)/AMCH
|
|
c HSC0 = QQINT_HDEC(RAT,HSC1,HSC2)
|
|
c write(6,*)'H+- --> cs: ',AMCH,HSC,HSC0,HSC/HSC0,RATX**2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ENDIF
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(53,*)AMCH,HSC
|
|
c write(6,*)'H+ -> cs: ',AMCH,HSC,QSUSY,LOOP,RATX,RATY,SSUSY
|
|
c write(6,*)AMCH,HSC,gab,xgas
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
c print*,'H+ -> cs',hsc
|
|
|
|
c Maggie added 16/10/2013
|
|
C H+ --> CD
|
|
RATX = 1
|
|
EPS = 1D-12
|
|
IF(AMCH.LE.AMC) THEN
|
|
HCD = 0
|
|
ELSE
|
|
HCD1=3.D0*CQCDM(AMCH,TB,EPS,(AMC/AMCH)**2,RATX)*VCD**2
|
|
HCD2=3.D0*CQCD(AMCH,TB,EPS,(RMC/AMCH)**2,RATX)*VCD**2
|
|
if(i2hdm.eq.1) then
|
|
hCD1=3.d0*vcd**2*
|
|
. cqcdm2hdm(amch,gab,gat,eps,(amc/amch)**2,ratx)
|
|
hCD2=3.d0*vcd**2*
|
|
. cqcd2hdm(amch,gab,gat,eps,(rmc/amch)**2,ratx)
|
|
endif
|
|
IF(HCD2.LT.0.D0) HCD2 = 0
|
|
RAT = (EPS+AMC)/AMCH
|
|
HCD = QQINT_HDEC(RAT,HCD1,HCD2)
|
|
ENDIF
|
|
|
|
c print*,'H+ -> cd',hcd
|
|
c end Maggie added 16/10/2013
|
|
|
|
C H+ --> CB
|
|
RATX = 1
|
|
QQ = AMB
|
|
SUSY = 0
|
|
XGAB = GAB
|
|
c SSUSY = AMCH
|
|
SSUSY = (AMSB(1)+AMSB(2)+AMGLU)/3*QSUSY
|
|
C SSUSY = (AMSB(1)+AMSB(2))/2*QSUSY
|
|
AS0 = ALPHAS_HDEC(SSUSY,3)
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
I0 = 1
|
|
c write(6,*)
|
|
c write(6,*)'H+ -> cb: ',amch
|
|
c write(6,*)
|
|
CALL DMBAPP_HDEC(I0,DGLB,DGHB,DGAB,SSUSY,LOOP)
|
|
I0 = 1
|
|
BSC = (AMSQ+AMUR+AMDR)/3
|
|
c XMB = RUNM_HDEC(BSC,5,0)
|
|
XMB = AMB
|
|
c SUSY = COFSUSY_HDEC(I0,AMB,XMB,QQ)*AS0/PI - 2*DGLB
|
|
c write(6,*)
|
|
c write(6,*)'H+ -> cb: ',amch
|
|
c write(6,*)
|
|
CALL BOTSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,SSUSY,LOOP)
|
|
ENDIF
|
|
RATX = XGAB/GAB
|
|
c write(6,*)'ratio = ',ratx
|
|
IF(AMCH.LE.AMB+AMC) THEN
|
|
HBC = 0
|
|
ELSE
|
|
HBC1=3.D0*VCB**2*CQCDM(AMCH,TB,(AMB/AMCH)**2,(AMC/AMCH)**2,RATX)
|
|
HBC2=3.D0*VCB**2*CQCD(AMCH,TB,(RMB/AMCH)**2,(RMC/AMCH)**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
hbc1=3.d0*vcb**2*
|
|
. cqcdm2hdm(amch,gab,gat,(amb/amch)**2,(amc/amch)**2,ratx)
|
|
hbc2=3.d0*vcb**2*
|
|
. cqcd2hdm(amch,gab,gat,(rmb/amch)**2,(rmc/amch)**2,ratx)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(HBC2.LT.0.D0) HBC2 = 0
|
|
RAT = (AMB+AMC)/AMCH
|
|
HBC = QQINT_HDEC(RAT,HBC1,HBC2)
|
|
ENDIF
|
|
|
|
c print*,'H+ -> cb',hbc
|
|
|
|
C H+ --> BU
|
|
EPS = 1.D-12
|
|
IF(AMCH.LE.AMB+EPS) THEN
|
|
HBU = 0
|
|
ELSE
|
|
HBU1=3.D0*VUB**2*CQCDM(AMCH,TB,(AMB/AMCH)**2,EPS,RATX)
|
|
HBU2=3.D0*VUB**2*CQCD(AMCH,TB,(RMB/AMCH)**2,EPS,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
hbu1=3.d0*vub**2*
|
|
. cqcdm2hdm(amch,gab,gat,(amb/amch)**2,eps,ratx)
|
|
hbu2=3.d0*vub**2*
|
|
. cqcd2hdm(amch,gab,gat,(rmb/amch)**2,eps,ratx)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(HBU2.LT.0.D0) HBU2 = 0
|
|
RAT = AMB/AMCH
|
|
HBU = QQINT_HDEC(RAT,HBU1,HBU2)
|
|
ENDIF
|
|
|
|
c print*,'H+ -> ub',hbu
|
|
|
|
C H+ --> TD :
|
|
EPS = 1.D-12
|
|
IF(IONSH.EQ.0)THEN
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = AMT-DLD
|
|
XM2 = AMT+DLU
|
|
IF (AMCH.LE.AMW) THEN
|
|
HDT=0.D0
|
|
ELSEIF (AMCH.LE.XM1) THEN
|
|
FACTB=3.D0*GF**2*AMCH*AMT**4/32.D0/PI**3*gat**2
|
|
CALL CTOTT_HDEC(AMCH,AMT,EPS,AMW,i2hdm,gat,gab,CTT0)
|
|
HDT=VTD**2*FACTB*CTT0
|
|
ELSEIF (AMCH.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
FACTB=3.D0*GF**2*XX(1)*AMT**4/32.D0/PI**3*gat**2
|
|
CALL CTOTT_HDEC(XX(1),AMT,EPS,AMW,i2hdm,gat,gab,CTT0)
|
|
YY(1)=VTD**2*FACTB*CTT0
|
|
FACTB=3.D0*GF**2*XX(2)*AMT**4/32.D0/PI**3*gat**2
|
|
CALL CTOTT_HDEC(XX(2),AMT,EPS,AMW,i2hdm,gat,gab,CTT0)
|
|
YY(2)=VTD**2*FACTB*CTT0
|
|
XMB = RUNM_HDEC(XX(3),5,1)
|
|
XMT = RUNM_HDEC(XX(3),6,1)
|
|
XYZ2 = 3.D0*CQCD(XX(3),TB,(EPS/XX(3))**2,(XMT/XX(3))**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ2 = 3.D0*
|
|
. CQCD2HDM(XX(3),gab,gat,(EPS/XX(3))**2,(XMT/XX(3))**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(XYZ2.LT.0.D0) XYZ2 = 0
|
|
XYZ1 = 3.D0*CQCDM(XX(3),TB,(EPS/XX(3))**2,(AMT/XX(3))**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ1 = 3.D0*
|
|
. CQCDM2HDM(XX(3),gab,gat,(EPS/XX(3))**2,(AMT/XX(3))**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMT)/XX(3)
|
|
YY(3) = VTD**2*QQINT_HDEC(RAT,XYZ1,XYZ2)
|
|
XMB = RUNM_HDEC(XX(4),5,1)
|
|
XMT = RUNM_HDEC(XX(4),6,1)
|
|
XYZ2 = 3.D0*CQCD(XX(4),TB,(EPS/XX(4))**2,(XMT/XX(4))**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ2 = 3.D0*
|
|
. CQCD2HDM(XX(4),gab,gat,(EPS/XX(4))**2,(XMT/XX(4))**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(XYZ2.LT.0.D0) XYZ2 = 0
|
|
XYZ1 = 3.D0*CQCDM(XX(4),TB,(EPS/XX(4))**2,(AMT/XX(4))**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ1 = 3.D0*
|
|
. CQCDM2HDM(XX(4),gab,gat,(EPS/XX(4))**2,(AMT/XX(4))**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMT)/XX(4)
|
|
YY(4) = VTD**2*QQINT_HDEC(RAT,XYZ1,XYZ2)
|
|
HDT = FINT_HDEC(AMCH,XX,YY)
|
|
ELSE
|
|
HDT2=3.D0*VTD**2*CQCD(AMCH,TB,(EPS/AMCH)**2,(RMT/AMCH)**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HDT2=3.D0*VTD**2*
|
|
. CQCD2HDM(AMCH,gab,gat,(EPS/AMCH)**2,(RMT/AMCH)**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(HDT2.LT.0.D0) HDT2 = 0
|
|
HDT1=3.D0*VTD**2*CQCDM(AMCH,TB,(EPS/AMCH)**2,(AMT/AMCH)**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HDT1=3.D0*VTD**2*
|
|
. CQCDM2HDM(AMCH,gab,gat,(EPS/AMCH)**2,(AMT/AMCH)**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMT)/AMCH
|
|
HDT = QQINT_HDEC(RAT,HDT1,HDT2)
|
|
ENDIF
|
|
ELSE
|
|
IF (AMCH.LE.AMT) THEN
|
|
HDT=0.D0
|
|
ELSE
|
|
HDT2=3.D0*VTD**2*CQCD(AMCH,TB,EPS,(RMT/AMCH)**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HDT2=3.D0*VTD**2*
|
|
. CQCD2HDM(AMCH,gab,gat,EPS,(RMT/AMCH)**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(HDT2.LT.0.D0) HDT2 = 0
|
|
HDT1=3.D0*VTD**2*CQCDM(AMCH,TB,EPS,(AMT/AMCH)**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HDT1=3.D0*VTD**2*
|
|
. CQCDM2HDM(AMCH,gab,gat,EPS,(AMT/AMCH)**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMT)/AMCH
|
|
HDT = QQINT_HDEC(RAT,HDT1,HDT2)
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c print*,'H+ -> td',hdt
|
|
|
|
C H+ --> TS :
|
|
EPS = 1.D-12
|
|
RATX = RMS/AMS
|
|
RATY = 1
|
|
XGAS = GAB
|
|
SSUSY = (AMSD(1)+AMSD(2)+AMGLU)/3*QSUSY
|
|
C SSUSY = (AMSD(1)+AMSD(2))/2*QSUSY
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STRSUSY_HDEC(GLB,GHB,GAB,XGLS,XGHS,XGAS,SSUSY,LOOP)
|
|
RATX = RMS/AMS*XGAS/GAB
|
|
RATY = XGAS/GAB
|
|
ENDIF
|
|
IF(IONSH.EQ.0)THEN
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = AMT+AMS-DLD
|
|
XM2 = AMT+AMS+DLU
|
|
IF (AMCH.LE.AMW+2*AMS) THEN
|
|
HST=0.D0
|
|
ELSEIF (AMCH.LE.XM1) THEN
|
|
FACTB=3.D0*GF**2*AMCH*AMT**4/32.D0/PI**3*gat**2
|
|
CALL CTOTT_HDEC(AMCH,AMT,EPS,AMW,i2hdm,gat,xgas,CTT0)
|
|
c CALL CTOTT_HDEC(AMCH,AMT,EPS,AMW,i2hdm,gat,gab,CTT1)
|
|
c write(6,*)'H+ -> ts: ',amch,ctt0/ctt1
|
|
HST=VTS**2*FACTB*CTT0
|
|
ELSEIF (AMCH.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
FACTB=3.D0*GF**2*XX(1)*AMT**4/32.D0/PI**3*gat**2
|
|
CALL CTOTT_HDEC(XX(1),AMT,EPS,AMW,i2hdm,gat,xgas,CTT0)
|
|
YY(1)=VTS**2*FACTB*CTT0
|
|
FACTB=3.D0*GF**2*XX(2)*AMT**4/32.D0/PI**3*gat**2
|
|
CALL CTOTT_HDEC(XX(2),AMT,EPS,AMW,i2hdm,gat,xgas,CTT0)
|
|
YY(2)=VTS**2*FACTB*CTT0
|
|
XMS = RUNM_HDEC(XX(3),3,0)
|
|
XMT = RUNM_HDEC(XX(3),6,1)
|
|
XYZ2 = 3.D0*CQCD(XX(3),TB,(XMS/XX(3))**2,(XMT/XX(3))**2,RATY)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ2 = 3.D0*
|
|
. CQCD2HDM(XX(3),gab,gat,(XMS/XX(3))**2,(XMT/XX(3))**2,RATY)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(XYZ2.LT.0.D0) XYZ2 = 0
|
|
XYZ1 = 3.D0*CQCDM(XX(3),TB,(AMS/XX(3))**2,(AMT/XX(3))**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ1 = 3.D0*
|
|
. CQCDM2HDM(XX(3),gab,gat,(AMS/XX(3))**2,(AMT/XX(3))**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMS+AMT)/XX(3)
|
|
YY(3) = VTS**2*QQINT_HDEC(RAT,XYZ1,XYZ2)
|
|
XMS = RUNM_HDEC(XX(4),3,0)
|
|
XMT = RUNM_HDEC(XX(4),6,1)
|
|
XYZ2 = 3.D0*CQCD(XX(4),TB,(XMS/XX(4))**2,(XMT/XX(4))**2,RATY)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ2 = 3.D0*
|
|
. CQCD2HDM(XX(4),gab,gat,(XMS/XX(4))**2,(XMT/XX(4))**2,RATY)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(XYZ2.LT.0.D0) XYZ2 = 0
|
|
XYZ1 = 3.D0*CQCDM(XX(4),TB,(AMS/XX(4))**2,(AMT/XX(4))**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ1 = 3.D0*
|
|
. CQCDM2HDM(XX(4),gab,gat,(AMS/XX(4))**2,(AMT/XX(4))**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMS+AMT)/XX(4)
|
|
YY(4) = VTS**2*QQINT_HDEC(RAT,XYZ1,XYZ2)
|
|
HST = FINT_HDEC(AMCH,XX,YY)
|
|
ELSE
|
|
HST2=3.D0*VTS**2*CQCD(AMCH,TB,(RMS/AMCH)**2,(RMT/AMCH)**2,RATY)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HST2=3.D0*VTS**2*
|
|
. CQCD2HDM(AMCH,gab,gat,(RMS/AMCH)**2,(RMT/AMCH)**2,RATY)
|
|
c print*,'rms,rmt',rms,rmt
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(HST2.LT.0.D0) HST2 = 0
|
|
HST1=3.D0*VTS**2*CQCDM(AMCH,TB,(AMS/AMCH)**2,(AMT/AMCH)**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HST1=3.D0*VTS**2*
|
|
. CQCDM2HDM(AMCH,gab,gat,(AMS/AMCH)**2,(AMT/AMCH)**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMS+AMT)/AMCH
|
|
HST = QQINT_HDEC(RAT,HST1,HST2)
|
|
ENDIF
|
|
ELSE
|
|
IF (AMCH.LE.AMT+AMS) THEN
|
|
HST=0.D0
|
|
ELSE
|
|
HST2=3.D0*VTS**2*CQCD(AMCH,TB,(RMS/AMCH)**2,(RMT/AMCH)**2,RATY)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HST2=3.D0*VTS**2*
|
|
. CQCD2HDM(AMCH,gab,gat,(RMS/AMCH)**2,(RMT/AMCH)**2,RATY)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(HST2.LT.0.D0) HST2 = 0
|
|
HST1=3.D0*VTS**2*CQCDM(AMCH,TB,(AMS/AMCH)**2,(AMT/AMCH)**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HST1=3.D0*VTS**2*
|
|
. CQCDM2HDM(AMCH,gab,gat,(AMS/AMCH)**2,(AMT/AMCH)**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMS+AMT)/AMCH
|
|
HST = QQINT_HDEC(RAT,HST1,HST2)
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c print*,'H+ -> ts',hst
|
|
|
|
C H+ --> TB :
|
|
RATX = RMB/AMB
|
|
RATY = 1
|
|
XGAB = GAB
|
|
SSUSY = (AMSB(1)+AMSB(2)+AMGLU)/3*QSUSY
|
|
C SSUSY = (AMSB(1)+AMSB(2))/3*QSUSY
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL BOTSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,SSUSY,LOOP)
|
|
RATX = RMB/AMB*XGAB/GAB
|
|
RATY = XGAB/GAB
|
|
ENDIF
|
|
IF(IONSH.EQ.0)THEN
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = AMT+AMB-DLD
|
|
XM2 = AMT+AMB+DLU
|
|
IF (AMCH.LE.AMW+2*AMB) THEN
|
|
HBT=0.D0
|
|
ELSEIF (AMCH.LE.XM1) THEN
|
|
FACTB=3.D0*GF**2*AMCH*AMT**4/32.D0/PI**3*gat**2
|
|
CALL CTOTT_HDEC(AMCH,AMT,AMB,AMW,i2hdm,gat,xgab,CTT0)
|
|
c CALL CTOTT_HDEC(AMCH,AMT,AMB,AMW,i2hdm,gat,gab,CTT1)
|
|
c write(6,*)'H+ -> tb: ',amch,ctt0/ctt1
|
|
HBT=VTB**2*FACTB*CTT0
|
|
ELSEIF (AMCH.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
FACTB=3.D0*GF**2*XX(1)*AMT**4/32.D0/PI**3*gat**2
|
|
CALL CTOTT_HDEC(XX(1),AMT,AMB,AMW,i2hdm,gat,xgab,CTT0)
|
|
YY(1)=VTB**2*FACTB*CTT0
|
|
FACTB=3.D0*GF**2*XX(2)*AMT**4/32.D0/PI**3*gat**2
|
|
CALL CTOTT_HDEC(XX(2),AMT,AMB,AMW,i2hdm,gat,xgab,CTT0)
|
|
YY(2)=VTB**2*FACTB*CTT0
|
|
XMB = RUNM_HDEC(XX(3),5,1)
|
|
XMT = RUNM_HDEC(XX(3),6,1)
|
|
XYZ2 = 3.D0*CQCD(XX(3),TB,(XMB/XX(3))**2,(XMT/XX(3))**2,RATY)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ2 = 3.D0*
|
|
. CQCD2HDM(XX(3),gab,gat,(XMB/XX(3))**2,(XMT/XX(3))**2,RATY)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(XYZ2.LT.0.D0) XYZ2 = 0
|
|
XYZ1 = 3.D0*CQCDM(XX(3),TB,(AMB/XX(3))**2,(AMT/XX(3))**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ1 = 3.D0*
|
|
. CQCDM2HDM(XX(3),gab,gat,(AMB/XX(3))**2,(AMT/XX(3))**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMB+AMT)/XX(3)
|
|
YY(3) = VTB**2*QQINT_HDEC(RAT,XYZ1,XYZ2)
|
|
XMB = RUNM_HDEC(XX(4),5,1)
|
|
XMT = RUNM_HDEC(XX(4),6,1)
|
|
XYZ2 = 3.D0*CQCD(XX(4),TB,(XMB/XX(4))**2,(XMT/XX(4))**2,RATY)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ2 = 3.D0*
|
|
. CQCD2HDM(XX(4),gab,gat,(XMB/XX(4))**2,(XMT/XX(4))**2,RATY)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(XYZ2.LT.0.D0) XYZ2 = 0
|
|
XYZ1 = 3.D0*CQCDM(XX(4),TB,(AMB/XX(4))**2,(AMT/XX(4))**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
XYZ1 = 3.D0*
|
|
. CQCDM2HDM(XX(4),gab,gat,(AMB/XX(4))**2,(AMT/XX(4))**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMB+AMT)/XX(4)
|
|
YY(4) = VTB**2*QQINT_HDEC(RAT,XYZ1,XYZ2)
|
|
HBT = FINT_HDEC(AMCH,XX,YY)
|
|
ELSE
|
|
HBT2=3.D0*VTB**2*CQCD(AMCH,TB,(RMB/AMCH)**2,(RMT/AMCH)**2,RATY)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HBT2=3.D0*VTB**2*
|
|
. CQCD2HDM(AMCH,gab,gat,(RMB/AMCH)**2,(RMT/AMCH)**2,RATY)
|
|
c print*,'rmb,rmt',rmb,rmt
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(HBT2.LT.0.D0) HBT2 = 0
|
|
HBT1=3.D0*VTB**2*CQCDM(AMCH,TB,(AMB/AMCH)**2,(AMT/AMCH)**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HBT1=3.D0*VTB**2*
|
|
. CQCDM2HDM(AMCH,gab,gat,(AMB/AMCH)**2,(AMT/AMCH)**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMB+AMT)/AMCH
|
|
HBT = QQINT_HDEC(RAT,HBT1,HBT2)
|
|
ENDIF
|
|
ELSE
|
|
IF (AMCH.LE.AMT+AMB) THEN
|
|
HBT=0.D0
|
|
ELSE
|
|
HBT2=3.D0*VTB**2*CQCD(AMCH,TB,(RMB/AMCH)**2,(RMT/AMCH)**2,RATY)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HBT2=3.D0*VTB**2*
|
|
. CQCD2HDM(AMCH,gab,gat,(RMB/AMCH)**2,(RMT/AMCH)**2,RATY)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
IF(HBT2.LT.0.D0) HBT2 = 0
|
|
HBT1=3.D0*VTB**2*CQCDM(AMCH,TB,(AMB/AMCH)**2,(AMT/AMCH)**2,RATX)
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.1) then
|
|
HBT1=3.D0*VTB**2*
|
|
. CQCDM2HDM(AMCH,gab,gat,(AMB/AMCH)**2,(AMT/AMCH)**2,RATX)
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
RAT = (AMB+AMT)/AMCH
|
|
HBT = QQINT_HDEC(RAT,HBT1,HBT2)
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c print*,'H+ -> tb',hbt
|
|
|
|
c H+ ---> W h
|
|
IF(IONSH.EQ.0)THEN
|
|
DLD=3D0
|
|
DLU=5D0
|
|
XM1 = AMW+AML-DLD
|
|
XM2 = AMW+AML+DLU
|
|
IF (AMCH.LT.AML) THEN
|
|
HWH=0
|
|
ELSEIF (AMCH.LE.XM1) THEN
|
|
IF(AMCH.LE.DABS(AMW-AML))THEN
|
|
HWH=0
|
|
ELSE
|
|
HWH=9.D0*GF**2/16.D0/PI**3*AMW**4*AMCH*GHVV**2
|
|
. *HVH((AML/AMCH)**2,(AMW/AMCH)**2)
|
|
ENDIF
|
|
ELSEIF (AMCH.LT.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1) = 9.D0*GF**2/16.D0/PI**3*AMW**4*XX(1)
|
|
. *HVH((AML/XX(1))**2,(AMW/XX(1))**2)
|
|
YY(2) = 9.D0*GF**2/16.D0/PI**3*AMW**4*XX(2)
|
|
. *HVH((AML/XX(2))**2,(AMW/XX(2))**2)
|
|
CWH=LAMB_HDEC(AML**2/XX(3)**2,AMW**2/XX(3)**2)
|
|
. *LAMB_HDEC(XX(3)**2/AMW**2,AML**2/AMW**2)**2
|
|
YY(3)=GF/8.D0/DSQRT(2D0)/PI*AMW**4/XX(3)*CWH
|
|
CWH=LAMB_HDEC(AML**2/XX(4)**2,AMW**2/XX(4)**2)
|
|
. *LAMB_HDEC(XX(4)**2/AMW**2,AML**2/AMW**2)**2
|
|
YY(4)=GF/8.D0/DSQRT(2D0)/PI*AMW**4/XX(4)*CWH
|
|
HWH = FINT_HDEC(AMCH,XX,YY)*GHVV**2
|
|
ELSE
|
|
CWH=LAMB_HDEC(AML**2/AMCH**2,AMW**2/AMCH**2)
|
|
. *LAMB_HDEC(AMCH**2/AMW**2,AML**2/AMW**2)**2
|
|
HWH=GF/8.D0/DSQRT(2D0)/PI*AMW**4/AMCH*GHVV**2*CWH
|
|
ENDIF
|
|
ELSE
|
|
IF (AMCH.LT.AMW+AML) THEN
|
|
HWH=0
|
|
ELSE
|
|
CWH=LAMB_HDEC(AML**2/AMCH**2,AMW**2/AMCH**2)
|
|
. *LAMB_HDEC(AMCH**2/AMW**2,AML**2/AMW**2)**2
|
|
HWH=GF/8.D0/DSQRT(2D0)/PI*AMW**4/AMCH*GHVV**2*CWH
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c print*,'H+ -> W+ h',hwh
|
|
|
|
c MMM changed 21/8/2013
|
|
c H+ ---> W H
|
|
if(i2hdm.eq.1) then
|
|
IF(IONSH.EQ.0)THEN
|
|
DLD=3D0
|
|
DLU=5D0
|
|
XM1 = AMW+AMH-DLD
|
|
XM2 = AMW+AMH+DLU
|
|
IF (AMCH.LT.AMH) THEN
|
|
HWHH=0
|
|
ELSEIF (AMCH.LE.XM1) THEN
|
|
IF(AMCH.LE.DABS(AMW-AMH))THEN
|
|
HWHH=0
|
|
ELSE
|
|
HWHH=9.D0*GF**2/16.D0/PI**3*AMW**4*AMCH*GLVV**2
|
|
. *HVH((AMH/AMCH)**2,(AMW/AMCH)**2)
|
|
ENDIF
|
|
ELSEIF (AMCH.LT.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1) = 9.D0*GF**2/16.D0/PI**3*AMW**4*XX(1)
|
|
. *HVH((AMH/XX(1))**2,(AMW/XX(1))**2)
|
|
YY(2) = 9.D0*GF**2/16.D0/PI**3*AMW**4*XX(2)
|
|
. *HVH((AMH/XX(2))**2,(AMW/XX(2))**2)
|
|
CWH=LAMB_HDEC(AMH**2/XX(3)**2,AMW**2/XX(3)**2)
|
|
. *LAMB_HDEC(XX(3)**2/AMW**2,AMH**2/AMW**2)**2
|
|
YY(3)=GF/8.D0/DSQRT(2D0)/PI*AMW**4/XX(3)*CWH
|
|
CWH=LAMB_HDEC(AMH**2/XX(4)**2,AMW**2/XX(4)**2)
|
|
. *LAMB_HDEC(XX(4)**2/AMW**2,AMH**2/AMW**2)**2
|
|
YY(4)=GF/8.D0/DSQRT(2D0)/PI*AMW**4/XX(4)*CWH
|
|
HWHH = FINT_HDEC(AMCH,XX,YY)*GLVV**2
|
|
ELSE
|
|
CWH=LAMB_HDEC(AMH**2/AMCH**2,AMW**2/AMCH**2)
|
|
. *LAMB_HDEC(AMCH**2/AMW**2,AMH**2/AMW**2)**2
|
|
HWHH=GF/8.D0/DSQRT(2D0)/PI*AMW**4/AMCH*GLVV**2*CWH
|
|
ENDIF
|
|
ELSE
|
|
IF (AMCH.LT.AMW+AMH) THEN
|
|
HWHH=0
|
|
ELSE
|
|
CWH=LAMB_HDEC(AMH**2/AMCH**2,AMW**2/AMCH**2)
|
|
. *LAMB_HDEC(AMCH**2/AMW**2,AMH**2/AMW**2)**2
|
|
HWHH=GF/8.D0/DSQRT(2D0)/PI*AMW**4/AMCH*GLVV**2*CWH
|
|
ENDIF
|
|
ENDIF
|
|
endif
|
|
|
|
if(i2hdm.eq.0) then
|
|
HWHH=0.D0
|
|
endif
|
|
|
|
c print*,'H+ -> W+ H',hwhh
|
|
c end MMM changed 21/8/2013
|
|
|
|
C H+ ---> W A
|
|
IF(IONSH.EQ.0)THEN
|
|
IF (AMCH.LT.AMA) THEN
|
|
HWA=0
|
|
ELSEIF (AMCH.LT.AMW+AMA) THEN
|
|
IF(AMCH.LE.DABS(AMW-AMA))THEN
|
|
HWA=0
|
|
ELSE
|
|
HWA=9.D0*GF**2/16.D0/PI**3*AMW**4*AMCH
|
|
. *HVH((AMA/AMCH)**2,(AMW/AMCH)**2)
|
|
ENDIF
|
|
ELSE
|
|
HWA=0.D0
|
|
ENDIF
|
|
ELSE
|
|
IF (AMCH.LT.AMW+AMA) THEN
|
|
HWA=0
|
|
ELSE
|
|
HWA=0.D0
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c MMM changed 22/8/2013
|
|
if(i2hdm.eq.1) then
|
|
if(ionsh.eq.0)then
|
|
dld=3d0
|
|
dlu=5d0
|
|
xm1 = amw+ama-dld
|
|
xm2 = amw+ama+dlu
|
|
if (amch.lt.ama) then
|
|
hwa=0
|
|
elseif (amch.le.xm1) then
|
|
if(amch.le.dabs(amw-ama))then
|
|
hwa=0
|
|
else
|
|
hwa=9.d0*gf**2/16.d0/pi**3*amw**4*amch
|
|
. *hvh((ama/amch)**2,(amw/amch)**2)
|
|
|
|
ivegas(1) = 30000
|
|
ivegas(2) = 5
|
|
ivegas(3) = 120000
|
|
ivegas(4) = 10
|
|
|
|
iprint = 0
|
|
|
|
amhi = amch
|
|
amhj = amw
|
|
amhk = ama
|
|
gamtoti = 1.D0
|
|
gamtotj = 1.D0
|
|
gamtotk = gamw
|
|
|
|
c ---- initialization of VEGAS ----
|
|
|
|
c call RSTART(12,34,56,78)
|
|
|
|
c call INTEG(hvhinteg,2,iprint,ivegas,result,relative)
|
|
|
|
c hwa=9.d0*gf**2/16.d0/pi**3*amw**4*amch*result
|
|
endif
|
|
elseif (amch.lt.xm2) then
|
|
xx(1) = xm1-1d0
|
|
xx(2) = xm1
|
|
xx(3) = xm2
|
|
xx(4) = xm2+1d0
|
|
yy(1) = 9.d0*gf**2/16.d0/pi**3*amw**4*xx(1)
|
|
. *hvh((ama/xx(1))**2,(amw/xx(1))**2)
|
|
yy(2) = 9.d0*gf**2/16.d0/pi**3*amw**4*xx(2)
|
|
. *hvh((ama/xx(2))**2,(amw/xx(2))**2)
|
|
cwh=lamb_hdec(ama**2/xx(3)**2,amw**2/xx(3)**2)
|
|
. *lamb_hdec(xx(3)**2/amw**2,ama**2/amw**2)**2
|
|
yy(3)=gf/8.d0/dsqrt(2d0)/pi*amw**4/xx(3)*cwh
|
|
cwh=lamb_hdec(ama**2/xx(4)**2,amw**2/xx(4)**2)
|
|
. *lamb_hdec(xx(4)**2/amw**2,ama**2/amw**2)**2
|
|
yy(4)=gf/8.d0/dsqrt(2d0)/pi*amw**4/xx(4)*cwh
|
|
hwa = fint_hdec(amch,xx,yy)
|
|
else
|
|
cwh=lamb_hdec(ama**2/amch**2,amw**2/amch**2)
|
|
. *lamb_hdec(amch**2/amw**2,ama**2/amw**2)**2
|
|
hwa=gf/8.d0/dsqrt(2d0)/pi*amw**4/amch*cwh
|
|
endif
|
|
else
|
|
if (amch.lt.amw+ama) then
|
|
hwa=0
|
|
else
|
|
cwh=lamb_hdec(ama**2/amch**2,amw**2/amch**2)
|
|
. *lamb_hdec(amch**2/amw**2,ama**2/amw**2)**2
|
|
hwa=gf/8.d0/dsqrt(2d0)/pi*amw**4/amch*cwh
|
|
endif
|
|
endif
|
|
endif
|
|
c end MMM changed 22/8/2013
|
|
|
|
c print*,'H+ -> W+ A',hwa
|
|
|
|
C ======================= SUSY DECAYS
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
C
|
|
C H+ ----> CHARGINOS+NEUTRALINOS
|
|
C
|
|
DO 751 I=1,2
|
|
DO 751 J=1,4
|
|
IF (AMCH.GT.AMCHAR(I)+AMNEUT(J)) THEN
|
|
WHCCN(I,J)=GF*AMW**2/(2*PI*DSQRT(2.D0))/AMCH
|
|
. *LAMB_HDEC(AMCHAR(I)**2/AMCH**2,AMNEUT(J)**2/AMCH**2)*(
|
|
. (ACNL(I,J)**2+ACNR(I,J)**2)*(AMCH**2-AMCHAR(I)**2-XMNEUT(J)
|
|
. **2)-4.D0*ACNL(I,J)*ACNR(I,J)*XMCHAR(I)*XMNEUT(J) )
|
|
ELSE
|
|
WHCCN(I,J)=0.D0
|
|
ENDIF
|
|
751 CONTINUE
|
|
|
|
WHCCNT=WHCCN(1,1)+WHCCN(1,2)+WHCCN(1,3)+WHCCN(1,4)
|
|
. +WHCCN(2,1)+WHCCN(2,2)+WHCCN(2,3)+WHCCN(2,4)
|
|
C
|
|
C H+ ----> SLEPTONS
|
|
C
|
|
IF (AMCH.GT.AMSE(1)+AMSN1(1)) THEN
|
|
WHCSL00=2*GF/4.D0/DSQRT(2D0)/PI*AMW**4/AMCH*DSIN(2.D0*B)**2
|
|
. *LAMB_HDEC(AMSE(1)**2/AMCH**2,AMSN1(1)**2/AMCH**2)
|
|
ELSE
|
|
WHCSL00=0.D0
|
|
ENDIF
|
|
|
|
IF (AMCH.GT.AMSL(1)+AMSN(1)) THEN
|
|
WHCSL11=GF/2.D0/DSQRT(2D0)/PI*AMW**4/AMCH*GCEN(1,1)**2
|
|
. *LAMB_HDEC(AMSL(1)**2/AMCH**2,AMSN(1)**2/AMCH**2)
|
|
ELSE
|
|
WHCSL11=0.D0
|
|
ENDIF
|
|
|
|
IF (AMCH.GT.AMSL(2)+AMSN(1)) THEN
|
|
WHCSL21=GF/2.D0/DSQRT(2D0)/PI*AMW**4/AMCH*GCEN(1,2)**2
|
|
. *LAMB_HDEC(AMSL(2)**2/AMCH**2,AMSN(1)**2/AMCH**2)
|
|
ELSE
|
|
WHCSL21=0.D0
|
|
ENDIF
|
|
|
|
WHCSLT=WHCSL00+WHCSL11+WHCSL21
|
|
|
|
C
|
|
C H+ ----> SQUARKS
|
|
C
|
|
IF (AMCH.GT.AMSU(1)+AMSD(1)) THEN
|
|
WHCSQ=6*GF/4.D0/DSQRT(2D0)/PI*AMW**4/AMCH*DSIN(2.D0*B)**2
|
|
. *LAMB_HDEC(AMSU(1)**2/AMCH**2,AMSD(1)**2/AMCH**2)
|
|
ELSE
|
|
WHCSQ=0.D0
|
|
ENDIF
|
|
C
|
|
DO 753 I=1,2
|
|
DO 753 J=1,2
|
|
IF(AMCH.GT.AMST(I)+AMSB(J)) THEN
|
|
WHCSTB(I,J)=3*GF*AMW**4/2.D0/DSQRT(2.D0)/PI*GCTB(I,J)**2
|
|
. *LAMB_HDEC(AMST(I)**2/AMCH**2,AMSB(J)**2/AMCH**2)/AMCH
|
|
ELSE
|
|
WHCSTB(I,J)=0.D0
|
|
ENDIF
|
|
|
|
753 CONTINUE
|
|
C
|
|
WHCSQT=WHCSQ+WHCSTB(1,1)+WHCSTB(1,2)+WHCSTB(2,1)+WHCSTB(2,2)
|
|
|
|
ELSE
|
|
WHCCNT=0.D0
|
|
WHCSLT=0.D0
|
|
WHCSQT=0.D0
|
|
WHCGDT=0.D0
|
|
C--Change thanks to Elzbieta Richter-Was
|
|
DO I=1,2
|
|
DO J=1,2
|
|
WHCSTB(I,J)=0.D0
|
|
ENDDO
|
|
ENDDO
|
|
DO I=1,2
|
|
DO J=1,4
|
|
WHCCN(I,J)=0.D0
|
|
ENDDO
|
|
ENDDO
|
|
ENDIF
|
|
|
|
IF(IGOLD.NE.0)THEN
|
|
C HC ---> GOLDSTINOS
|
|
DO 750 I=1,2
|
|
IF (AMCH.GT.AMCHAR(I)) THEN
|
|
WHCGD(I)=AMCH**5/AXMPL**2/AXMGD**2/48.D0/PI*
|
|
. (1.D0-AMCHAR(I)**2/AMCH**2)**4*AGDC(I)**2
|
|
ELSE
|
|
WHCGD(I)=0.D0
|
|
ENDIF
|
|
750 CONTINUE
|
|
WHCGDT=WHCGD(1)+WHCGD(2)
|
|
ELSE
|
|
WHCGDT=0
|
|
ENDIF
|
|
C
|
|
C ========== TOTAL WIDTH AND BRANCHING RATIOS
|
|
C
|
|
WTOT=HLN+HMN+HSU+HBU+HSC+HBC+HBT+HWH+HWA+WHCCNT+WHCSLT+WHCSQT
|
|
. +WHCGDT
|
|
|
|
c MMM changed 21/8/2013
|
|
WTOT=WTOT+HCD+HST+HDT
|
|
|
|
if(i2hdm.eq.1) then
|
|
wtot = wtot+hwhh
|
|
HCBRWHH=hwhh/wtot
|
|
endif
|
|
if(i2hdm.eq.0) then
|
|
hcbrwhh=0.D0
|
|
endif
|
|
c end MMM changed 21/8/2013
|
|
HCBRCD=HCD/WTOT
|
|
HCBRTS=HST/WTOT
|
|
HCBRTD=HDT/WTOT
|
|
|
|
c print*,'wtot',wtot
|
|
|
|
HCBRL=HLN/WTOT
|
|
HCBRM=HMN/WTOT
|
|
HCBRS=HSU/WTOT
|
|
HCBRBU=HBU/WTOT
|
|
HCBRC=HSC/WTOT
|
|
HCBRB=HBC/WTOT
|
|
HCBRT=HBT/WTOT
|
|
HCBRW=HWH/WTOT
|
|
HCBRA=HWA/WTOT
|
|
DO 851 I=1,2
|
|
DO 851 J=1,4
|
|
HCBRSU(I,J)=WHCCN(I,J)/WTOT
|
|
851 CONTINUE
|
|
HCBRCNT=WHCCNT/WTOT
|
|
HCBRSL=WHCSLT/WTOT
|
|
HCBRSQ=WHCSQ/WTOT
|
|
HCBRSQT=WHCSQT/WTOT
|
|
DO 853 I=1,2
|
|
DO 853 J=1,2
|
|
HCBRSTB(I,J)=WHCSTB(I,J)/WTOT
|
|
853 CONTINUE
|
|
HCBRGD=WHCGDT/WTOT
|
|
HCWDTH=WTOT
|
|
|
|
BHCSL00 = WHCSL00/WTOT
|
|
BHCSL11 = WHCSL11/WTOT
|
|
BHCSL21 = WHCSL21/WTOT
|
|
BHCSQ = WHCSQ/WTOT
|
|
DO I = 1,2
|
|
DO J = 1,2
|
|
BHCSTB(I,J) = WHCSTB(I,J)/WTOT
|
|
ENDDO
|
|
ENDDO
|
|
|
|
GAMC0 = WTOT
|
|
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.2.OR.IHIGGS.EQ.5)THEN
|
|
|
|
C =========================================================
|
|
C HEAVY CP EVEN HIGGS DECAYS
|
|
C =========================================================
|
|
C ============= RUNNING MASSES
|
|
RMS = RUNM_HDEC(AMH,3,0)
|
|
RMC = RUNM_HDEC(AMH,4,0)
|
|
RMB = RUNM_HDEC(AMH,5,1)
|
|
RMT = RUNM_HDEC(AMH,6,1)
|
|
RATCOUP = GHT/GHB
|
|
HIGTOP = AMH**2/AMT**2
|
|
|
|
ASH=ALPHAS_HDEC(AMH,3)
|
|
AMC0=1.D8
|
|
AMB0=2.D8
|
|
C AMT0=3.D8
|
|
AS3=ALPHAS_HDEC(AMH,3)
|
|
AMC0=AMC
|
|
AS4=ALPHAS_HDEC(AMH,3)
|
|
AMB0=AMB
|
|
C AMT0=AMT
|
|
|
|
C =============== PARTIAL WIDTHS
|
|
C H ---> G G
|
|
EPS=1.D-8
|
|
NFEXT = 3
|
|
ASG = AS3
|
|
CTT = 4*AMT**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*AMB**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CAT = 2*CTT*(1+(1-CTT)*CF(CTT))*GHT
|
|
CAB = 2*CTB*(1+(1-CTB)*CF(CTB))*GHB
|
|
CTC = 4*AMC**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CAC = 2*CTC*(1+(1-CTC)*CF(CTC))*GHT
|
|
C
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CSB1= 4*AMSB(1)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSB2= 4*AMSB(2)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CST1= 4*AMST(1)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CST2= 4*AMST(2)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
C
|
|
CXB1=-AMZ**2/AMSB(1)**2*CSB1*(1-CSB1*CF(CSB1))*GHBB(1,1)
|
|
CXB2=-AMZ**2/AMSB(2)**2*CSB2*(1-CSB2*CF(CSB2))*GHBB(2,2)
|
|
CXT1=-AMZ**2/AMST(1)**2*CST1*(1-CST1*CF(CST1))*GHTT(1,1)
|
|
CXT2=-AMZ**2/AMST(2)**2*CST2*(1-CST2*CF(CST2))*GHTT(2,2)
|
|
C
|
|
CSUL = 4*AMSU(1)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSUR = 4*AMSU(2)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSDL = 4*AMSD(1)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSDR = 4*AMSD(2)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CXUL=-2*(1.D0/2.D0-2.D0/3.D0*SS)*AMZ**2/AMSU(1)**2*DCOS(A+B)
|
|
. *CSUL*(1-CSUL*CF(CSUL))
|
|
CXUR=-2*(2.D0/3.D0*SS)*AMZ**2/AMSU(2)**2*DCOS(A+B)
|
|
. *CSUR*(1-CSUR*CF(CSUR))
|
|
CXDL=-2*(-1.D0/2.D0+1.D0/3.D0*SS)*AMZ**2/AMSD(1)**2*DCOS(A+B)
|
|
. *CSDL*(1-CSDL*CF(CSDL))
|
|
CXDR=-2*(-1.D0/3.D0*SS)*AMZ**2/AMSD(2)**2*DCOS(A+B)
|
|
. *CSDR*(1-CSDR*CF(CSDR))
|
|
ELSE
|
|
CXB1=0.D0
|
|
CXB2=0.D0
|
|
CXT1=0.D0
|
|
CXT2=0.D0
|
|
CXUL=0.D0
|
|
CXUR=0.D0
|
|
CXDL=0.D0
|
|
CXDR=0.D0
|
|
ENDIF
|
|
|
|
FQCD=HGGQCD(ASG,NFEXT)
|
|
SQCD=SGGQCD(ASG)
|
|
XFAC = CDABS(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)**2*FQCD
|
|
. + DREAL(DCONJG(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)
|
|
. *(CXB1+CXB2+CXT1+CXT2+CXUL+CXUR+CXDL+CXDR))*SQCD
|
|
HGG=HVV(AMH,0.D0)*(ASG/PI)**2*XFAC/8
|
|
|
|
c write(6,*)'ghb, ght: ',ghb,ght
|
|
|
|
c print*,''
|
|
c print*,'H decay widths'
|
|
c print*,'hgg_NLO',hgg
|
|
|
|
C H ---> G G* ---> G CC TO BE ADDED TO H ---> CC
|
|
NFEXT = 4
|
|
ASG = AS4
|
|
FQCD=HGGQCD(ASG,NFEXT)
|
|
SQCD=SGGQCD(ASG)
|
|
XFAC = CDABS(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)**2*FQCD
|
|
. + DREAL(DCONJG(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)
|
|
. *(CXB1+CXB2+CXT1+CXT2+CXUL+CXUR+CXDL+CXDR))*SQCD
|
|
DCC=HVV(AMH,0.D0)*(ASG/PI)**2*XFAC/8 - HGG
|
|
|
|
C H ---> G G* ---> G BB TO BE ADDED TO H ---> BB
|
|
NFEXT = 5
|
|
ASG = ASH
|
|
FQCD=HGGQCD(ASG,NFEXT)
|
|
SQCD=SGGQCD(ASG)
|
|
XFAC = CDABS(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)**2*FQCD
|
|
. + DREAL(DCONJG(CAT+CAB+CAC+CXB1+CXB2+CXT1+CXT2
|
|
. +CXUL+CXUR+CXDL+CXDR)
|
|
. *(CXB1+CXB2+CXT1+CXT2+CXUL+CXUR+CXDL+CXDR))*SQCD
|
|
DBB=HVV(AMH,0.D0)*(ASG/PI)**2*XFAC/8 - HGG - DCC
|
|
HGG=HVV(AMH,0.D0)*(ASG/PI)**2*XFAC/8
|
|
|
|
C H ---> G G: FULL NNNLO CORRECTIONS TO TOP LOOPS FOR NF=5
|
|
FQCD0=HGGQCD(ASG,5)
|
|
FQCD=HGGQCD2(ASG,5,AMH,AMT)
|
|
XFAC = CDABS(CAT+CAB+CAC)**2*(FQCD-FQCD0)
|
|
HGG=HGG+HVV(AMH,0.D0)*(ASG/PI)**2*XFAC/8
|
|
|
|
IF(NFGG.EQ.3)THEN
|
|
HGG = HGG - DBB - DCC
|
|
ELSEIF(NFGG.EQ.4)THEN
|
|
HGG = HGG - DBB
|
|
DCC = 0
|
|
ELSE
|
|
DCC = 0
|
|
DBB = 0
|
|
ENDIF
|
|
|
|
c print*,'hgg_NNLO',hgg
|
|
|
|
C H ---> MU MU
|
|
XGLM = GLB
|
|
XGHM = GHB
|
|
XGAM = GAB
|
|
if(i2hdm.eq.1) then
|
|
xghm = ghlep
|
|
endif
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STAUSUSY_HDEC(GLB,GHB,GAB,XGLM,XGHM,XGAM,QSUSY,0)
|
|
ENDIF
|
|
IF(AMH.LE.2*AMMUON) THEN
|
|
HMM = 0
|
|
ELSE
|
|
HMM=HFF(AMH,(AMMUON/AMH)**2)*XGHM**2
|
|
ENDIF
|
|
|
|
c print*,'H -> mumu',hmm
|
|
C H ---> LL
|
|
XGLT = GLB
|
|
XGHT = GHB
|
|
XGAT = GAB
|
|
if(i2hdm.eq.1) then
|
|
xght = ghlep
|
|
endif
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STAUSUSY_HDEC(GLB,GHB,GAB,XGLT,XGHT,XGAT,QSUSY,1)
|
|
ENDIF
|
|
IF(AMH.LE.2*AMTAU) THEN
|
|
HLL = 0
|
|
ELSE
|
|
HLL=HFF(AMH,(AMTAU/AMH)**2)*XGHT**2
|
|
ENDIF
|
|
|
|
as5 = ash
|
|
amc0=1.d8
|
|
amb0=2.d8
|
|
as3=alphas_hdec(amh,3)
|
|
amc0=amc
|
|
as4=alphas_hdec(amh,3)
|
|
amb0=amb
|
|
c write(6,*)'H: tau/mu: ',HLL/HMM*AMMUON**2/AMTAU**2,XGHT**2/XGHM**2
|
|
c print*,'H -> tautau',hll
|
|
C H --> SS
|
|
ash = as3
|
|
XGLS = GLB
|
|
XGHS = GHB
|
|
XGAS = GAB
|
|
SSUSY = (AMSD(1)+AMSD(2)+AMGLU)/3*QSUSY
|
|
C SSUSY = (AMSD(1)+AMSD(2))/3*QSUSY
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STRSUSY_HDEC(GLB,GHB,GAB,XGLS,XGHS,XGAS,SSUSY,LOOP)
|
|
ENDIF
|
|
IF(AMH.LE.2*AMS) THEN
|
|
HSS = 0
|
|
ELSE
|
|
HS1=3.D0*HFF(AMH,(AMS/AMH)**2)
|
|
. *XGHS**2
|
|
. *TQCDH(AMS**2/AMH**2)
|
|
HS2=3.D0*HFF(AMH,(RMS/AMH)**2)*XGHS**2
|
|
. *QCDH(RMS**2/AMH**2,5)
|
|
IF(HS2.LT.0.D0) HS2 = 0
|
|
RAT = 2*AMS/AMH
|
|
HSS = QQINT_HDEC(RAT,HS1,HS2)
|
|
ENDIF
|
|
|
|
c print*,'H -> ss',hss
|
|
C H --> CC
|
|
ash = as4
|
|
RATCOUP = 1
|
|
IF(AMH.LE.2*AMC) THEN
|
|
HCC = 0
|
|
ELSE
|
|
HC1=3.D0*HFF(AMH,(AMC/AMH)**2)
|
|
. *GHT**2
|
|
. *TQCDH(AMC**2/AMH**2)
|
|
HC2=3.D0*HFF(AMH,(RMC/AMH)**2)*GHT**2
|
|
. *QCDH(RMC**2/AMH**2,5)
|
|
. + DCC
|
|
IF(HC2.LT.0.D0) HC2 = 0
|
|
RAT = 2*AMC/AMH
|
|
HCC = QQINT_HDEC(RAT,HC1,HC2)
|
|
ENDIF
|
|
|
|
c print*,'H -> cc',hcc
|
|
C H --> BB :
|
|
ash = as5
|
|
QQ = AMB
|
|
SUSY = 0
|
|
XGHB = GHB
|
|
SSUSY = (AMSB(1)+AMSB(2)+AMGLU)/3*QSUSY
|
|
FSUSY = SUSYSCALE
|
|
AS0 = ALPHAS_HDEC(FSUSY,3)
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
I0 = 0
|
|
CALL DMBAPP_HDEC(I0,DGLB,DGHB,DGAB,FSUSY,LOOP)
|
|
DELB1 = -DGAB/(1+1/TGBET**2)
|
|
DELB0 = DELB1/(1-DELB1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
I0 = 1
|
|
CALL DMBAPP_HDEC(I0,DGLB,DGHB,DGAB,FSUSY,LOOP)
|
|
I0 = 2
|
|
BSC = (AMSQ+AMUR+AMDR)/3
|
|
C XMB = RUNM_HDEC(FSUSY,5,0)/(1+DELB0)
|
|
XMB = AMB
|
|
c1357
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
if(islhai.ne.0) XMB = AMB
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
SUSY = COFSUSY_HDEC(I0,AMB,XMB,QQ)*AS0/PI - 2*DGHB
|
|
CALL BOTSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,SSUSY,LOOP)
|
|
ENDIF
|
|
RATCOUP = GHT/XGHB
|
|
IF(AMH.LE.2*AMB) THEN
|
|
HBB = 0
|
|
ELSE
|
|
HB1=3.D0*HFF(AMH,(AMB/AMH)**2)
|
|
. *(XGHB**2+XGHB*GHB*SUSY)
|
|
. *TQCDH(AMB**2/AMH**2)
|
|
HB2=3.D0*HFF(AMH,(RMB/AMH)**2)
|
|
. *(XGHB**2+XGHB*GHB*SUSY)
|
|
. *QCDH(RMB**2/AMH**2,5)
|
|
. + DBB
|
|
IF(HB2.LT.0.D0) HB2 = 0
|
|
RAT = 2*AMB/AMH
|
|
HBB = QQINT_HDEC(RAT,HB1,HB2)
|
|
c write(6,*)'H -> bb: ',RAT,HB1,HB2
|
|
c write(6,*)'H -> bb: ',GHB,XGHB,SUSY
|
|
c write(6,*)'H -> bb1: ',COFSUSY_HDEC(I0,AMB,XMB,QQ),DGHB
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XXX = COFSUSY_HDEC(I0,AMB,XMB,QQ)
|
|
c write(1,*)'H -> bb: ',XXX*AS0/PI
|
|
c write(1,*)'H -> bb: ',2*DGHB
|
|
c write(1,*)'H -> bb: ',GHB,XGHB,SUSY
|
|
c write(6,('A3,4(1X,G15.8)'))'H: ',AMA,AMH,SUSY+2*DGHB,
|
|
c . SUSY/(SUSY+2*DGHB)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
ENDIF
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'H -> bb: ',XGHB**2,XGHB*GHB*SUSY/XGHB**2,
|
|
c . (XGHB**2+XGHB*GHB*SUSY)/XGHB**2
|
|
c write(6,*)'approx: ',SUSY+2*DGHB,2*DGHB,SUSY
|
|
c FAC = AS0/PI
|
|
c write(6,*)'approx2: ',(SUSY+2*DGHB)/FAC,2*DGHB/FAC,SUSY/FAC
|
|
c write(51,*)AMH,HBB
|
|
c write(51,*)GHB,XGHB
|
|
c write(51,*)SUSY,COFSUSY_HDEC(I0,AMB,XMB,QQ)*AS0/PI,-2*DGHB
|
|
c write(51,*)SSUSY,AS0,QSUSY,(AMSB(1)+AMSB(2)+AMGLU)/3
|
|
c write(6,*)'H -> bb: ',AMH,HBB,QSUSY1,LOOP
|
|
c write(6,*)GHB,XGHB,XGHB**2+XGHB*GHB*SUSY
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
c print*,'H -> bb',hbb
|
|
c print*
|
|
c print*,'H -> bb:',hbb,ghb,xghb,ghb*susy,2*dghb,susy,2*dghb+susy
|
|
C H ---> TT
|
|
RATCOUP = 0
|
|
CALL TOPSUSY_HDEC(GLT,GHT,GAT,XGLTOP,XGHTOP,XGATOP,SCALE,1)
|
|
c write(6,*)xgltop,xghtop,xgatop
|
|
if(i2hdm.eq.0) then
|
|
IF(IONSH.EQ.0)THEN
|
|
DLD=3D0
|
|
DLU=5D0
|
|
XM1 = 2D0*AMT-DLD
|
|
XM2 = 2D0*AMT+DLU
|
|
IF (AMH.LE.AMT+AMW+AMB) THEN
|
|
HTT=0.D0
|
|
ELSEIF (AMH.LE.XM1) THEN
|
|
FACTT=6.D0*GF**2*AMH**3*AMT**2/2.D0/128.D0/PI**3
|
|
call HTOTT_hdec(amh,amt,amb,amw,amch,ght,ghb,gat,gab,
|
|
. ghvv,gzal,htt0)
|
|
HTT=FACTT*HTT0
|
|
ELSEIF (AMH.LE.XM2) THEN
|
|
ZZMA=AMAR
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
CALL AMHAMA_HDEC(2,XX(1),TGBET)
|
|
FACTT=6.D0*GF**2*XX(1)**3*AMT**2/2.D0/128.D0/PI**3
|
|
call HTOTT_hdec(xx(1),amt,amb,amw,amch,ght,ghb,gat,gab,
|
|
. ghvv,gzal,htt0)
|
|
YY(1)=FACTT*HTT0
|
|
CALL AMHAMA_HDEC(2,XX(2),TGBET)
|
|
FACTT=6.D0*GF**2*XX(2)**3*AMT**2/2.D0/128.D0/PI**3
|
|
call HTOTT_hdec(xx(2),amt,amb,amw,amch,ght,ghb,gat,gab,
|
|
. ghvv,gzal,htt0)
|
|
YY(2)=FACTT*HTT0
|
|
CALL AMHAMA_HDEC(2,XX(3),TGBET)
|
|
XMT = RUNM_HDEC(XX(3),6,1)
|
|
HT1=3.D0*HFF(XX(3),(AMT/XX(3))**2)*GHT**2
|
|
. *TQCDH(AMT**2/XX(3)**2)
|
|
HT2=3.D0*HFF(XX(3),(XMT/XX(3))**2)*GHT**2
|
|
. *QCDH(XMT**2/XX(3)**2,5)
|
|
IF(HT2.LT.0.D0) HT2 = 0
|
|
RAT = 2*AMT/XX(3)
|
|
YY(3) = QQINT_HDEC(RAT,HT1,HT2)
|
|
CALL AMHAMA_HDEC(2,XX(4),TGBET)
|
|
XMT = RUNM_HDEC(XX(4),6,1)
|
|
HT1=3.D0*HFF(XX(4),(AMT/XX(4))**2)*GHT**2
|
|
. *TQCDH(AMT**2/XX(4)**2)
|
|
HT2=3.D0*HFF(XX(4),(XMT/XX(4))**2)*GHT**2
|
|
. *QCDH(XMT**2/XX(4)**2,5)
|
|
IF(HT2.LT.0.D0) HT2 = 0
|
|
RAT = 2*AMT/XX(4)
|
|
YY(4) = QQINT_HDEC(RAT,HT1,HT2)
|
|
AMA = ZZMA
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
HTT=FINT_HDEC(AMH,XX,YY)
|
|
ELSE
|
|
HT1=3.D0*HFF(AMH,(AMT/AMH)**2)*GHT**2
|
|
. *TQCDH(AMT**2/AMH**2)
|
|
HT2=3.D0*HFF(AMH,(RMT/AMH)**2)*GHT**2
|
|
. *QCDH(RMT**2/AMH**2,5)
|
|
IF(HT2.LT.0.D0) HT2 = 0
|
|
RAT = 2*AMT/AMH
|
|
HTT = QQINT_HDEC(RAT,HT1,HT2)
|
|
ENDIF
|
|
ELSE
|
|
IF (AMH.LE.2.D0*AMT) THEN
|
|
HTT=0.D0
|
|
ELSE
|
|
HT1=3.D0*HFF(AMH,(AMT/AMH)**2)*GHT**2
|
|
. *TQCDH(AMT**2/AMH**2)
|
|
HT2=3.D0*HFF(AMH,(RMT/AMH)**2)*GHT**2
|
|
. *QCDH(RMT**2/AMH**2,5)
|
|
IF(HT2.LT.0.D0) HT2 = 0
|
|
RAT = 2*AMT/AMH
|
|
HTT = QQINT_HDEC(RAT,HT1,HT2)
|
|
ENDIF
|
|
ENDIF
|
|
endif
|
|
|
|
c MMM changed 21/8/2013
|
|
if(i2hdm.eq.1) then
|
|
if(ionsh.eq.0)then
|
|
dld=5.D0
|
|
dlu=3.D0
|
|
xm1 = 2d0*amt-dld
|
|
xm2 = 2d0*amt+dlu
|
|
if (amh.le.amt+amw+amb) then
|
|
htt=0.d0
|
|
elseif (amh.le.xm1) then
|
|
factt=6.d0*gf**2*amh**3*amt**2/2.d0/128.d0/pi**3
|
|
call HTOTT_hdec(amh,amt,amb,amw,amch,ght,ghb,gat,gab,
|
|
. ghvv,gzal,htt0)
|
|
htt=factt*htt0
|
|
elseif (amh.le.xm2) then
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
|
|
factt=6.d0*gf**2*xx(1)**3*amt**2/2.d0/128.d0/pi**3
|
|
call HTOTT_hdec(xx(1),amt,amb,amw,amch,ght,ghb,gat,gab,
|
|
. ghvv,gzal,htt0)
|
|
yy(1)=factt*htt0
|
|
|
|
factt=6.d0*gf**2*xx(2)**3*amt**2/2.d0/128.d0/pi**3
|
|
call HTOTT_hdec(xx(2),amt,amb,amw,amch,ght,ghb,gat,gab,
|
|
. ghvv,gzal,htt0)
|
|
yy(2)=factt*htt0
|
|
|
|
xmt = runm_hdec(xx(3),6,1)
|
|
ht1=3.d0*hff(xx(3),(amt/xx(3))**2)*ght**2
|
|
. *tqcdh(amt**2/xx(3)**2)
|
|
ht2=3.d0*hff(xx(3),(xmt/xx(3))**2)*ght**2
|
|
. *qcdh(xmt**2/xx(3)**2,5)
|
|
if(ht2.lt.0.d0) ht2 = 0
|
|
rat = 2*amt/xx(3)
|
|
yy(3) = qqint_hdec(rat,ht1,ht2)
|
|
|
|
xmt = runm_hdec(xx(4),6,1)
|
|
ht1=3.d0*hff(xx(4),(amt/xx(4))**2)*ght**2
|
|
. *tqcdh(amt**2/xx(4)**2)
|
|
ht2=3.d0*hff(xx(4),(xmt/xx(4))**2)*ght**2
|
|
. *qcdh(xmt**2/xx(4)**2,5)
|
|
if(ht2.lt.0.d0) ht2 = 0
|
|
rat = 2*amt/xx(4)
|
|
yy(4) = qqint_hdec(rat,ht1,ht2)
|
|
|
|
htt=fint_hdec(amh,xx,yy)
|
|
else
|
|
ht1=3.d0*hff(amh,(amt/amh)**2)*ght**2
|
|
. *tqcdh(amt**2/amh**2)
|
|
ht2=3.d0*hff(amh,(rmt/amh)**2)*ght**2
|
|
. *qcdh(rmt**2/amh**2,5)
|
|
if(ht2.lt.0.d0) ht2 = 0
|
|
rat = 2.D0*amt/amh
|
|
htt = qqint_hdec(rat,ht1,ht2)
|
|
endif
|
|
else
|
|
if (amh.le.2.d0*amt) then
|
|
htt=0.d0
|
|
else
|
|
ht1=3.d0*hff(amh,(amt/amh)**2)*ght**2
|
|
. *tqcdh(amt**2/amh**2)
|
|
ht2=3.d0*hff(amh,(rmt/amh)**2)*ght**2
|
|
. *qcdh(rmt**2/amh**2,5)
|
|
if(ht2.lt.0.d0) ht2 = 0
|
|
rat = 2.D0*amt/amh
|
|
htt = qqint_hdec(rat,ht1,ht2)
|
|
endif
|
|
endif
|
|
endif
|
|
c end MMM changed 21/8/2103
|
|
|
|
c print*,'H -> tt',htt
|
|
|
|
C H ---> GAMMA GAMMA
|
|
EPS=1.D-8
|
|
XRMC = RUNM_HDEC(AMH/2,4,0)*AMC/RUNM_HDEC(AMC,4,0)
|
|
XRMB = RUNM_HDEC(AMH/2,5,1)*AMB/RUNM_HDEC(AMB,5,1)
|
|
XRMT = RUNM_HDEC(AMH/2,6,1)*AMT/RUNM_HDEC(AMT,6,1)
|
|
CTT = 4*XRMT**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*XRMB**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTL = 4*AMTAU**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTW = 4*AMW**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTH = 4*AMCH**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTC = 4*XRMC**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CAC = 4/3D0 * 2*CTC*(1+(1-CTC)*CF(CTC))*GHT
|
|
. * CFACQ_HDEC(0,AMH,XRMC)
|
|
CAT = 4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT))*GHT
|
|
. * CFACQ_HDEC(0,AMH,XRMT)
|
|
CAB = 1/3D0 * 2*CTB*(1+(1-CTB)*CF(CTB))*GHB
|
|
. * CFACQ_HDEC(0,AMH,XRMB)
|
|
CAL = 1.D0 * 2*CTL*(1+(1-CTL)*CF(CTL))*GHB
|
|
if(i2hdm.eq.1) then
|
|
CAL = 1.D0 * 2*CTL*(1+(1-CTL)*CF(CTL))*ghlep
|
|
endif
|
|
CAW = -(2+3*CTW+3*CTW*(2-CTW)*CF(CTW))*GHVV
|
|
CAH = -AMZ**2/2/AMCH**2*CTH*(1-CTH*CF(CTH))*GHPM
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
RMSU1 = RUNMS_HDEC(AMH/2,AMSU(1))
|
|
RMSU2 = RUNMS_HDEC(AMH/2,AMSU(2))
|
|
RMSD1 = RUNMS_HDEC(AMH/2,AMSD(1))
|
|
RMSD2 = RUNMS_HDEC(AMH/2,AMSD(2))
|
|
RMSB1 = RUNMS_HDEC(AMH/2,AMSB(1))
|
|
RMSB2 = RUNMS_HDEC(AMH/2,AMSB(2))
|
|
RMST1 = RUNMS_HDEC(AMH/2,AMST(1))
|
|
RMST2 = RUNMS_HDEC(AMH/2,AMST(2))
|
|
CX1 = 4*AMCHAR(1)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CX2 = 4*AMCHAR(2)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CAX1= AMW/XMCHAR(1) * 2*CX1*(1+(1-CX1)*CF(CX1))*2*AC1(1,1)
|
|
CAX2= AMW/XMCHAR(2) * 2*CX2*(1+(1-CX2)*CF(CX2))*2*AC1(2,2)
|
|
CSL1= 4*AMSL(1)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSL2= 4*AMSL(2)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSB1= 4*RMSB1**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSB2= 4*RMSB2**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CST1= 4*RMST1**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CST2= 4*RMST2**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
|
|
CSEL = 4*AMSE(1)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSER = 4*AMSE(2)**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSUL = 4*RMSU1**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSUR = 4*RMSU2**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSDL = 4*RMSD1**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CSDR = 4*RMSD2**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CXEL=-2*(-1/2D0+SS)*AMZ**2/AMSE(1)**2*DCOS(A+B)
|
|
. *CSEL*(1-CSEL*CF(CSEL))
|
|
CXER=2*(SS)*AMZ**2/AMSE(2)**2*DCOS(A+B)
|
|
. *CSER*(1-CSER*CF(CSER))
|
|
CXUL=-2*4.D0/3.D0*(1.D0/2.D0-2.D0/3.D0*SS)
|
|
. *AMZ**2/AMSU(1)**2*DCOS(A+B)*CSUL*(1-CSUL*CF(CSUL))
|
|
. * CFACSQ_HDEC(AMH,RMSU1)
|
|
CXUR=-2*4.D0/3.D0*(2.D0/3.D0*SS)
|
|
. *AMZ**2/AMSU(2)**2*DCOS(A+B)*CSUR*(1-CSUR*CF(CSUR))
|
|
. * CFACSQ_HDEC(AMH,RMSU2)
|
|
CXDL=-2/3.D0*(-1.D0/2.D0+1.D0/3.D0*SS)
|
|
. *AMZ**2/AMSD(1)**2*DCOS(A+B)*CSDL*(1-CSDL*CF(CSDL))
|
|
. * CFACSQ_HDEC(AMH,RMSD1)
|
|
CXDR=-2/3.D0*(-1.D0/3.D0*SS)
|
|
. *AMZ**2/AMSD(2)**2*DCOS(A+B)*CSDR*(1-CSDR*CF(CSDR))
|
|
. * CFACSQ_HDEC(AMH,RMSD2)
|
|
|
|
CXB1= -1/3D0*AMZ**2/AMSB(1)**2*CSB1*(1-CSB1*CF(CSB1))*GHBB(1,1)
|
|
. * CFACSQ_HDEC(AMH,RMSB1)
|
|
CXB2= -1/3D0*AMZ**2/AMSB(2)**2*CSB2*(1-CSB2*CF(CSB2))*GHBB(2,2)
|
|
. * CFACSQ_HDEC(AMH,RMSB2)
|
|
CXT1= -4/3D0*AMZ**2/AMST(1)**2*CST1*(1-CST1*CF(CST1))*GHTT(1,1)
|
|
. * CFACSQ_HDEC(AMH,RMST1)
|
|
CXT2= -4/3D0*AMZ**2/AMST(2)**2*CST2*(1-CST2*CF(CST2))*GHTT(2,2)
|
|
. * CFACSQ_HDEC(AMH,RMST2)
|
|
CXL1= -AMZ**2/AMSL(1)**2*CSL1*(1-CSL1*CF(CSL1))*GHEE(1,1)
|
|
CXL2= -AMZ**2/AMSL(2)**2*CSL2*(1-CSL2*CF(CSL2))*GHEE(2,2)
|
|
XFAC = CDABS(CAT+CAB+CAC+CAL+CAW+CAH+CAX1+CAX2
|
|
. + CXEL+CXER+CXUL+CXUR+CXDL+CXDR
|
|
. + CXB1+CXB2+CXT1+CXT2+CXL1+CXL2)**2
|
|
ELSE
|
|
XFAC = CDABS(CAT+CAB+CAC+CAL+CAW+CAH)**2
|
|
ENDIF
|
|
HGA=HVV(AMH,0.D0)*(ALPH/PI)**2/16.D0*XFAC
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c CAC0= 4/3D0 * 2*CTC*(1+(1-CTC)*CF(CTC))*GHT
|
|
c CAT0= 4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT))*GHT
|
|
c CAB0= 1/3D0 * 2*CTB*(1+(1-CTB)*CF(CTB))*GHB
|
|
|
|
c CXUL0=-2*4.D0/3.D0*(1.D0/2.D0-2.D0/3.D0*SS)
|
|
c . *AMZ**2/AMSU(1)**2*DCOS(A+B)*CSUL*(1-CSUL*CF(CSUL))
|
|
c CXUR0=-2*4.D0/3.D0*(2.D0/3.D0*SS)
|
|
c . *AMZ**2/AMSU(2)**2*DCOS(A+B)*CSUR*(1-CSUR*CF(CSUR))
|
|
c CXDL0=-2/3.D0*(-1.D0/2.D0+1.D0/3.D0*SS)
|
|
c . *AMZ**2/AMSD(1)**2*DCOS(A+B)*CSDL*(1-CSDL*CF(CSDL))
|
|
c CXDR0=-2/3.D0*(-1.D0/3.D0*SS)
|
|
c . *AMZ**2/AMSD(2)**2*DCOS(A+B)*CSDR*(1-CSDR*CF(CSDR))
|
|
c CXB10= -1/3D0*AMZ**2/AMSB(1)**2*CSB1*(1-CSB1*CF(CSB1))*GHBB(1,1)
|
|
c CXB20= -1/3D0*AMZ**2/AMSB(2)**2*CSB2*(1-CSB2*CF(CSB2))*GHBB(2,2)
|
|
c CXT10= -4/3D0*AMZ**2/AMST(1)**2*CST1*(1-CST1*CF(CST1))*GHTT(1,1)
|
|
c CXT20= -4/3D0*AMZ**2/AMST(2)**2*CST2*(1-CST2*CF(CST2))*GHTT(2,2)
|
|
|
|
c XFAC0 = CDABS(CAT0+CAB0+CAC0+CAL+CAW+CAH+CAX1+CAX2
|
|
c . + CXEL+CXER+CXUL0+CXUR0+CXDL0+CXDR0
|
|
c . + CXB10+CXB20+CXT10+CXT20+CXL1+CXL2)**2
|
|
c XFAC0 = CDABS(CAT0+CAB0+CAC0+CAL+CAW+CAH+CAX1+CAX2
|
|
c . + CXEL+CXER+CXUL+CXUR+CXDL+CXDR
|
|
c . + CXB1+CXB2+CXT1+CXT2+CXL1+CXL2)**2
|
|
c XCHGAGA = XFAC/XFAC0
|
|
c write(6,*)'Hgaga: ',amh,xchgaga,hga,hga*xchgaga
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c CAT0 = CAT/GHT
|
|
c CAB0 = CAB/GHB
|
|
c CAC0 = CAC/GHT
|
|
c CAL0 = CAL/GHB
|
|
c CAW0 = CAW/GHVV
|
|
c XFAC0 = CDABS(CAT0+CAB0+CAC0+CAL0+CAW0)**2
|
|
c XCHGAGA = XFAC/XFAC0
|
|
c write(6,*)'Hgaga: ',amh,xchgaga
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
c print*,'H -> gamgam',hga
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XFACQ = CDABS(CAT+CAB+CAC+CAL+CAW+CAH)**2
|
|
c XFACS = CDABS(CAT+CAB+CAC+CAL+CAW+CAH+CAX1+CAX2
|
|
c . + CXL1+CXL2)**2
|
|
c XFACSQ = CDABS(CAT+CAB+CAC+CAL+CAW+CAH+CAX1+CAX2
|
|
c . + CXB1+CXB2+CXT1+CXT2+CXL1+CXL2)**2
|
|
c HGA0 = HGA*XFACSQ/XFAC
|
|
c CAC0 = 4/3D0 * 2*CTC*(1+(1-CTC)*CF(CTC))*GHT
|
|
c CAT0 = 4/3D0 * 2*CTT*(1+(1-CTT)*CF(CTT))*GHT
|
|
c CAB0 = 1/3D0 * 2*CTB*(1+(1-CTB)*CF(CTB))*GHB
|
|
c CXB10= -1/3D0*AMZ**2/AMSB(1)**2*CSB1*(1-CSB1*CF(CSB1))*GHBB(1,1)
|
|
c CXB20= -1/3D0*AMZ**2/AMSB(2)**2*CSB2*(1-CSB2*CF(CSB2))*GHBB(2,2)
|
|
c CXT10= -4/3D0*AMZ**2/AMST(1)**2*CST1*(1-CST1*CF(CST1))*GHTT(1,1)
|
|
c CXT20= -4/3D0*AMZ**2/AMST(2)**2*CST2*(1-CST2*CF(CST2))*GHTT(2,2)
|
|
c XFACLOQ = CDABS(CAT0+CAB0+CAC0+CAL+CAW+CAH)**2
|
|
c CXUL0=-2*4.D0/3.D0*(1.D0/2.D0-2.D0/3.D0*SS)
|
|
c . *AMZ**2/AMSU(1)**2*DCOS(A+B)*CSUL*(1-CSUL*CF(CSUL))
|
|
c CXUR0=-2*4.D0/3.D0*(2.D0/3.D0*SS)
|
|
c . *AMZ**2/AMSU(2)**2*DCOS(A+B)*CSUR*(1-CSUR*CF(CSUR))
|
|
c CXDL0=-2/3.D0*(-1.D0/2.D0+1.D0/3.D0*SS)
|
|
c . *AMZ**2/AMSD(1)**2*DCOS(A+B)*CSDL*(1-CSDL*CF(CSDL))
|
|
c CXDR0=-2/3.D0*(-1.D0/3.D0*SS)
|
|
c . *AMZ**2/AMSD(2)**2*DCOS(A+B)*CSDR*(1-CSDR*CF(CSDR))
|
|
c XFACLO = CDABS(CAT0+CAB0+CAC0+CAL+CAW+CAH+CAX1+CAX2
|
|
c . + CXEL+CXER+CXUL0+CXUR0+CXDL0+CXDR0
|
|
c . + CXB10+CXB20+CXT10+CXT20+CXL1+CXL2)**2
|
|
c CSQ = 1+3*ALPHAS_HDEC(AMH,3)
|
|
c XFACSQL = CDABS(CAT+CAB+CAC+CAL+CAW+CAH+CAX1+CAX2
|
|
c . + CXEL+CXER+(CXUL0+CXUR0+CXDL0+CXDR0
|
|
c . + CXB10+CXB20+CXT10+CXT20)*CSQ+CXL1+CXL2)**2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
C H ---> Z GAMMA
|
|
XRMC = RUNM_HDEC(AMH/2,4,0)*AMC/RUNM_HDEC(AMC,4,0)
|
|
XRMB = RUNM_HDEC(AMH/2,5,1)*AMB/RUNM_HDEC(AMB,5,1)
|
|
XRMT = RUNM_HDEC(AMH/2,6,1)*AMT/RUNM_HDEC(AMT,6,1)
|
|
c print*,'xrmc,xrmb,xrmt ',xrmc,xrmb,xrmt
|
|
IF(AMH.LE.AMZ)THEN
|
|
HZGA=0
|
|
ELSE
|
|
TS = SS/CS
|
|
FT = -3*2D0/3*(1-4*2D0/3*SS)/DSQRT(SS*CS)*GHT
|
|
FB = 3*1D0/3*(-1+4*1D0/3*SS)/DSQRT(SS*CS)*GHB
|
|
FC = -3*2D0/3*(1-4*2D0/3*SS)/DSQRT(SS*CS)*GHT
|
|
FL = (-1+4*SS)/DSQRT(SS*CS)*GHB
|
|
if(i2hdm.eq.1) then
|
|
FL = (-1+4*SS)/DSQRT(SS*CS)*ghlep
|
|
endif
|
|
EPS=1.D-8
|
|
c CTT = 4*XRMT**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
c CTB = 4*XRMB**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
c CTC = 4*XRMC**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTT = 4*AMT**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*AMB**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTC = 4*AMC**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTL = 4*AMTAU**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTW = 4*AMW**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
CTH = 4*AMCH**2/AMH**2*DCMPLX(1D0,-EPS)
|
|
c CLT = 4*XRMT**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
c CLB = 4*XRMB**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
c CLC = 4*XRMC**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLT = 4*AMT**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLB = 4*AMB**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLC = 4*AMC**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLE = 4*AMTAU**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLW = 4*AMW**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLH = 4*AMCH**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CAT = FT*(CI1(CTT,CLT) - CI2(CTT,CLT))
|
|
CAB = FB*(CI1(CTB,CLB) - CI2(CTB,CLB))
|
|
CAC = FC*(CI1(CTC,CLC) - CI2(CTC,CLC))
|
|
CAL = FL*(CI1(CTL,CLE) - CI2(CTL,CLE))
|
|
CAW = -1/DSQRT(TS)*(4*(3-TS)*CI2(CTW,CLW)
|
|
. + ((1+2/CTW)*TS - (5+2/CTW))*CI1(CTW,CLW))*GHVV
|
|
CAH = (1-2*SS)/DSQRT(SS*CS)*AMZ**2/2/AMCH**2*CI1(CTH,CLH)*GHPM
|
|
XFAC = CDABS(CAT+CAB+CAC+CAL+CAW+CAH)**2
|
|
ACOUP = DSQRT(2D0)*GF*AMZ**2*SS*CS/PI**2
|
|
HZGA = GF/(4.D0*PI*DSQRT(2.D0))*AMH**3*(ALPH/PI)*ACOUP/16.D0
|
|
. *XFAC*(1-AMZ**2/AMH**2)**3
|
|
ENDIF
|
|
|
|
c print*,'H -> Zgam',hzga
|
|
C H ---> W W
|
|
IF(IONWZ.EQ.0)THEN
|
|
CALL HTOVV_HDEC(0,AMH,AMW,GAMW,HTWW)
|
|
HWW = 3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/AMH**3*HTWW*GHVV**2
|
|
ELSEIF(IONWZ.EQ.-1)THEN
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMW-DLD
|
|
XM2 = 2D0*AMW+DLU
|
|
IF (AMH.LE.XM1) THEN
|
|
CALL HTOVV_HDEC(0,AMH,AMW,GAMW,HTWW)
|
|
HWW = 3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/AMH**3*HTWW*GHVV**2
|
|
ELSEIF (AMH.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
CALL HTOVV_HDEC(0,XX(1),AMW,GAMW,HTWW)
|
|
YY(1)=3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/XX(1)**3*HTWW
|
|
CALL HTOVV_HDEC(0,XX(2),AMW,GAMW,HTWW)
|
|
YY(2)=3D0/2D0*GF*AMW**4/DSQRT(2D0)/PI/XX(2)**3*HTWW
|
|
YY(3)=HVV(XX(3),AMW**2/XX(3)**2)
|
|
YY(4)=HVV(XX(4),AMW**2/XX(4)**2)
|
|
HWW = FINT_HDEC(AMH,XX,YY)*GHVV**2
|
|
ELSE
|
|
HWW=HVV(AMH,AMW**2/AMH**2)*GHVV**2
|
|
ENDIF
|
|
ELSE
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMW-DLD
|
|
XM2 = 2D0*AMW+DLU
|
|
IF (AMH.LE.AMW) THEN
|
|
HWW=0
|
|
ELSE IF (AMH.LE.XM1) THEN
|
|
CWW=3.D0*GF**2*AMW**4/16.D0/PI**3
|
|
HWW=HV(AMW**2/AMH**2)*CWW*AMH*GHVV**2
|
|
ELSE IF (AMH.LT.XM2) THEN
|
|
CWW=3.D0*GF**2*AMW**4/16.D0/PI**3
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1)=HV(AMW**2/XX(1)**2)*CWW*XX(1)
|
|
YY(2)=HV(AMW**2/XX(2)**2)*CWW*XX(2)
|
|
YY(3)=HVV(XX(3),AMW**2/XX(3)**2)
|
|
YY(4)=HVV(XX(4),AMW**2/XX(4)**2)
|
|
HWW = FINT_HDEC(AMH,XX,YY)*GHVV**2
|
|
ELSE
|
|
HWW=HVV(AMH,AMW**2/AMH**2)*GHVV**2
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c print*,'H -> WW',hww
|
|
C H ---> Z Z
|
|
IF(IONWZ.EQ.0)THEN
|
|
CALL HTOVV_HDEC(0,AMH,AMZ,GAMZ,HTZZ)
|
|
HZZ = 3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/AMH**3*HTZZ*GHVV**2
|
|
ELSEIF(IONWZ.EQ.-1)THEN
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMZ-DLD
|
|
XM2 = 2D0*AMZ+DLU
|
|
IF (AMH.LE.XM1) THEN
|
|
CALL HTOVV_HDEC(0,AMH,AMZ,GAMZ,HTZZ)
|
|
HZZ = 3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/AMH**3*HTZZ*GHVV**2
|
|
ELSEIF (AMH.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
CALL HTOVV_HDEC(0,XX(1),AMZ,GAMZ,HTZZ)
|
|
YY(1)=3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/XX(1)**3*HTZZ
|
|
CALL HTOVV_HDEC(0,XX(2),AMZ,GAMZ,HTZZ)
|
|
YY(2)=3D0/4D0*GF*AMZ**4/DSQRT(2D0)/PI/XX(2)**3*HTZZ
|
|
YY(3)=HVV(XX(3),AMZ**2/XX(3)**2)/2
|
|
YY(4)=HVV(XX(4),AMZ**2/XX(4)**2)/2
|
|
HZZ = FINT_HDEC(AMH,XX,YY)*GHVV**2
|
|
ELSE
|
|
HZZ=HVV(AMH,AMZ**2/AMH**2)/2.D0*GHVV**2
|
|
ENDIF
|
|
ELSE
|
|
DLD=2D0
|
|
DLU=2D0
|
|
XM1 = 2D0*AMZ-DLD
|
|
XM2 = 2D0*AMZ+DLU
|
|
IF (AMH.LE.AMZ) THEN
|
|
HZZ=0
|
|
ELSE IF (AMH.LE.XM1) THEN
|
|
CZZ=3.D0*GF**2*AMZ**4/192.D0/PI**3*(7-40/3.D0*SS+160/9.D0*SS**2)
|
|
HZZ=HV(AMZ**2/AMH**2)*CZZ*AMH*GHVV**2
|
|
ELSE IF (AMH.LT.XM2) THEN
|
|
CZZ=3.D0*GF**2*AMZ**4/192.D0/PI**3*(7-40/3.D0*SS+160/9.D0*SS**2)
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1)=HV(AMZ**2/XX(1)**2)*CZZ*XX(1)
|
|
YY(2)=HV(AMZ**2/XX(2)**2)*CZZ*XX(2)
|
|
YY(3)=HVV(XX(3),AMZ**2/XX(3)**2)/2D0
|
|
YY(4)=HVV(XX(4),AMZ**2/XX(4)**2)/2D0
|
|
HZZ = FINT_HDEC(AMH,XX,YY)*GHVV**2
|
|
ELSE
|
|
HZZ=HVV(AMH,AMZ**2/AMH**2)/2.D0*GHVV**2
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c print*,'H -> ZZ',hzz
|
|
C H ---> h h
|
|
if(i2hdm.eq.0) then
|
|
IF(IONSH.EQ.0)THEN
|
|
if(islhai.eq.0)then
|
|
ZZMA = AMAR
|
|
AMREAL = AMH
|
|
AMA = 1.D0
|
|
AMLOW = AMH
|
|
12345 CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMLR.LT.0.D0)THEN
|
|
AMA = AMAR + 1
|
|
GOTO 12345
|
|
ENDIF
|
|
AMLOW = AMH
|
|
AMDEL = AMREAL - AMLOW
|
|
DLD = 0.3D0*(TGBET-1.3D0)
|
|
DLD = DMAX1(0.1D0,DLD)
|
|
DLU=DLD
|
|
AMA = ZZMA
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
XM1 = 2*AML-DLD
|
|
XM2 = 2*AML+DLU
|
|
IF (AMH.LE.AML) THEN
|
|
HHH=0
|
|
ELSEIF (AMH.LT.XM1) THEN
|
|
XH=AML**2/AMH**2
|
|
XH1=(XH-1.D0)*(2.D0-.5D0*DLOG(XH))+(1.D0-5.D0*XH)
|
|
. *(DATAN((2.D0*XH-1.D0)/DSQRT(4.D0*XH-1.D0))
|
|
. -DATAN(1.D0/DSQRT(4.D0*XH-1.D0)))/DSQRT(4.D0*XH-1.D0)
|
|
XH2=3*GF**2/32.D0/PI**3*AMZ**4/AMH*GHLL**2*GLB**2*AMB**2
|
|
HHH=XH1*XH2
|
|
ELSEIF (AMH.LT.XM2) THEN
|
|
IFLON0 = 0
|
|
IFLON1 = 0
|
|
ZZMA=AMAR
|
|
AMACRIT = AMAR
|
|
AMA0 = AMAR
|
|
AMA1 = AMAR
|
|
510 AMA0 = AMA0 - 1
|
|
AMA1 = AMA1 + 1
|
|
AMA = AMA0
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AML) THEN
|
|
IFLON0 = -1
|
|
ELSE
|
|
IFLON0 = 1
|
|
ENDIF
|
|
AMA = AMA1
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AML) THEN
|
|
IFLON1 = -1
|
|
ELSE
|
|
IFLON1 = 1
|
|
ENDIF
|
|
IF(IFLON0*IFLON1.NE.-1) GOTO 510
|
|
501 AMA = (AMA0+AMA1)/2
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AML) THEN
|
|
IF(IFLON0.EQ.-1) THEN
|
|
AMA0 = AMAR
|
|
ELSE
|
|
AMA1 = AMAR
|
|
ENDIF
|
|
ELSE
|
|
IF(IFLON0.EQ.-1) THEN
|
|
AMA1 = AMAR
|
|
ELSE
|
|
AMA0 = AMAR
|
|
ENDIF
|
|
ENDIF
|
|
AMACRIT = (AMA0+AMA1)/2
|
|
DEL = 1.D-8
|
|
AMDEL = 2*DABS(AMA1-AMA0)/(AMA1+AMA0)
|
|
IF(AMDEL.GT.DEL) GOTO 501
|
|
AMA = AMACRIT
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
YM1 = AMACRIT
|
|
YM2 = AMACRIT
|
|
AMA0 = AMACRIT
|
|
AMA1 = AMACRIT
|
|
DELSTEP = 1.D0
|
|
511 AMA0 = AMA0 - DELSTEP
|
|
AMA1 = AMA1 + DELSTEP
|
|
AMA = AMACRIT
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AML-DLD) THEN
|
|
IFLONC = -1
|
|
ELSE
|
|
IFLONC = 1
|
|
ENDIF
|
|
AMA = AMA0
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AML-DLD) THEN
|
|
IFLON0 = -1
|
|
ELSE
|
|
IFLON0 = 1
|
|
ENDIF
|
|
AMA = AMA1
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AML-DLD) THEN
|
|
IFLON1 = -1
|
|
ELSE
|
|
IFLON1 = 1
|
|
ENDIF
|
|
IF(IFLON0*IFLONC.NE.-1.AND.IFLONC*IFLON1.NE.-1) GOTO 511
|
|
IF(IFLON0*IFLONC.EQ.-1) THEN
|
|
AMA1 = AMACRIT
|
|
IFLON1 = IFLONC
|
|
ELSE
|
|
AMA0 = AMACRIT
|
|
IFLON0 = IFLONC
|
|
ENDIF
|
|
512 AMA = (AMA0+AMA1)/2
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AML-DLD) THEN
|
|
IF(IFLON0.EQ.-1) THEN
|
|
AMA0 = AMAR
|
|
ELSE
|
|
AMA1 = AMAR
|
|
ENDIF
|
|
ELSE
|
|
IF(IFLON0.EQ.-1) THEN
|
|
AMA1 = AMAR
|
|
ELSE
|
|
AMA0 = AMAR
|
|
ENDIF
|
|
ENDIF
|
|
YM1 = (AMA0+AMA1)/2
|
|
DEL = 1.D-8
|
|
AMDEL = 2*DABS(AMA1-AMA0)/(AMA1+AMA0)
|
|
IF(AMDEL.GT.DEL) GOTO 512
|
|
AMA = YM1
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
AMA0 = AMACRIT
|
|
AMA1 = AMACRIT
|
|
DELSTEP = 1.D0
|
|
513 AMA0 = AMA0 - DELSTEP
|
|
AMA1 = AMA1 + DELSTEP
|
|
AMA = AMACRIT
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AML+DLU) THEN
|
|
IFLONC = -1
|
|
ELSE
|
|
IFLONC = 1
|
|
ENDIF
|
|
AMA = AMA0
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AML+DLU) THEN
|
|
IFLON0 = -1
|
|
ELSE
|
|
IFLON0 = 1
|
|
ENDIF
|
|
AMA = AMA1
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AML+DLU) THEN
|
|
IFLON1 = -1
|
|
ELSE
|
|
IFLON1 = 1
|
|
ENDIF
|
|
IF(IFLON0*IFLONC.NE.-1.AND.IFLONC*IFLON1.NE.-1) GOTO 513
|
|
IF(IFLON0*IFLONC.EQ.-1) THEN
|
|
AMA1 = AMACRIT
|
|
IFLON1 = IFLONC
|
|
ELSE
|
|
AMA0 = AMACRIT
|
|
IFLON0 = IFLONC
|
|
ENDIF
|
|
514 AMA = (AMA0+AMA1)/2
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AML+DLU) THEN
|
|
IF(IFLON0.EQ.-1) THEN
|
|
AMA0 = AMAR
|
|
ELSE
|
|
AMA1 = AMAR
|
|
ENDIF
|
|
ELSE
|
|
IF(IFLON0.EQ.-1) THEN
|
|
AMA1 = AMAR
|
|
ELSE
|
|
AMA0 = AMAR
|
|
ENDIF
|
|
ENDIF
|
|
YM2 = (AMA0+AMA1)/2
|
|
DEL = 1.D-8
|
|
AMDEL = 2*DABS(AMA1-AMA0)/(AMA1+AMA0)
|
|
IF(AMDEL.GT.DEL) GOTO 514
|
|
AMA = YM2
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
DEL = 1.D-4
|
|
XX(1) = YM1 - DEL
|
|
XX(2) = YM1
|
|
XX(3) = YM2
|
|
XX(4) = YM2 + DEL
|
|
AMAR = ZZMA
|
|
DO J=1,4
|
|
AMA = XX(J)
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
XX(J) = AMH
|
|
IF(AMH.GE.2*AML)THEN
|
|
YY(J)=GF/16D0/DSQRT(2D0)/PI*AMZ**4/XX(J)
|
|
. *BETA_HDEC(AML**2/XX(J)**2)
|
|
ELSEIF(AMH.LE.AML)THEN
|
|
YY(J) = 0
|
|
ELSE
|
|
XH=AML**2/XX(J)**2
|
|
XH1=(XH-1.D0)*(2.D0-.5D0*DLOG(XH))+(1.D0-5.D0*XH)
|
|
. *(DATAN((2.D0*XH-1.D0)/DSQRT(4.D0*XH-1.D0))
|
|
. -DATAN(1.D0/DSQRT(4.D0*XH-1.D0)))/DSQRT(4.D0*XH-1.D0)
|
|
XH2=3*GF**2/32.D0/PI**3*AMZ**4/XX(J)*GLB**2*AMB**2
|
|
YY(J)=XH1*XH2
|
|
ENDIF
|
|
ENDDO
|
|
AMA = ZZMA
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
HHH = FINT_HDEC(AMH,XX,YY)*GHLL**2
|
|
ELSE
|
|
HHH=GF/16D0/DSQRT(2D0)/PI*AMZ**4/AMH*BETA_HDEC(AML**2/AMH**2)
|
|
. *GHLL**2
|
|
ii0 = 1
|
|
if(imodel.eq.10)then
|
|
ii0 = 0
|
|
endif
|
|
corr = h2hh_hdec(ii0)
|
|
c corr1 = cofhll_hdec(ii0,amh,aml,amt)
|
|
c write(6,*)'H --> hh: ',hhh,corr,corr1
|
|
c write(6,*)'H --> hh: ',imodel,ii0,hhh,corr
|
|
HHH=HHH*(1+corr/2)**2
|
|
ENDIF
|
|
else
|
|
DLD=0.1D0
|
|
DLU=0.1D0
|
|
XM1 = 2D0*AML-DLD
|
|
XM2 = 2D0*AML+DLU
|
|
IF (AMH.LE.AML) THEN
|
|
HHH = 0D0
|
|
ELSEIF (AMH.LE.XM1) THEN
|
|
XH=AML**2/AMH**2
|
|
XH1=(XH-1.D0)*(2.D0-.5D0*DLOG(XH))+(1.D0-5.D0*XH)
|
|
. *(DATAN((2.D0*XH-1.D0)/DSQRT(4.D0*XH-1.D0))
|
|
. -DATAN(1.D0/DSQRT(4.D0*XH-1.D0)))/DSQRT(4.D0*XH-1.D0)
|
|
XH2=3*GF**2/32.D0/PI**3*AMZ**4/AMH*GLB**2*AMB**2
|
|
HHH=XH1*XH2
|
|
ELSEIF (AMH.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
XH=AML**2/XX(1)**2
|
|
XH1=(XH-1.D0)*(2.D0-.5D0*DLOG(XH))+(1.D0-5.D0*XH)
|
|
. *(DATAN((2.D0*XH-1.D0)/DSQRT(4.D0*XH-1.D0))
|
|
. -DATAN(1.D0/DSQRT(4.D0*XH-1.D0)))/DSQRT(4.D0*XH-1.D0)
|
|
XH2=3*GF**2/32.D0/PI**3*AMZ**4/XX(1)*GLB**2*AMB**2
|
|
YY(1)=XH1*XH2
|
|
XH=AML**2/XX(2)**2
|
|
XH1=(XH-1.D0)*(2.D0-.5D0*DLOG(XH))+(1.D0-5.D0*XH)
|
|
. *(DATAN((2.D0*XH-1.D0)/DSQRT(4.D0*XH-1.D0))
|
|
. -DATAN(1.D0/DSQRT(4.D0*XH-1.D0)))/DSQRT(4.D0*XH-1.D0)
|
|
XH2=3*GF**2/32.D0/PI**3*AMZ**4/XX(2)*GLB**2*AMB**2
|
|
YY(2)=XH1*XH2
|
|
YY(3)=GF/16D0/DSQRT(2D0)/PI*AMZ**4/XX(3)
|
|
. *BETA_HDEC(AML**2/XX(3)**2)
|
|
YY(4)=GF/16D0/DSQRT(2D0)/PI*AMZ**4/XX(4)
|
|
. *BETA_HDEC(AML**2/XX(4)**2)
|
|
HHH = FINT_HDEC(AMH,XX,YY)*GHLL**2
|
|
ELSE
|
|
HHH=GF/16D0/DSQRT(2D0)/PI*AMZ**4/AMH*BETA_HDEC(AML**2/AMH**2)
|
|
. *GHLL**2
|
|
ENDIF
|
|
endif
|
|
ELSE
|
|
IF (AMH.LE.2*AML) THEN
|
|
HHH=0
|
|
ELSE
|
|
HHH=GF/16D0/DSQRT(2D0)/PI*AMZ**4/AMH*BETA_HDEC(AML**2/AMH**2)
|
|
. *GHLL**2
|
|
ENDIF
|
|
ENDIF
|
|
endif
|
|
|
|
c MMM changed 22/8/2013
|
|
if(i2hdm.eq.1) then
|
|
if(ionsh.eq.0) then
|
|
dld=0.1d0
|
|
dlu=0.1d0
|
|
xm1 = 2d0*aml-dld
|
|
xm2 = 2d0*aml+dlu
|
|
if (amh.le.aml) then
|
|
hhh = 0d0
|
|
elseif (amh.le.xm1) then
|
|
xh=aml**2/amh**2
|
|
xh1=(xh-1.d0)*(2.d0-.5d0*dlog(xh))+(1.d0-5.d0*xh)
|
|
. *(datan((2.d0*xh-1.d0)/dsqrt(4.d0*xh-1.d0))
|
|
. -datan(1.d0/dsqrt(4.d0*xh-1.d0)))
|
|
. /dsqrt(4.d0*xh-1.d0)
|
|
xh2=3*gf**2/32.d0/pi**3*amz**4/amh*ghll**2*glb**2*amb**2
|
|
hhh=xh1*xh2
|
|
elseif (amh.le.xm2) then
|
|
xx(1) = xm1-1d0
|
|
xx(2) = xm1
|
|
xx(3) = xm2
|
|
xx(4) = xm2+1d0
|
|
xh=aml**2/xx(1)**2
|
|
xh1=(xh-1.d0)*(2.d0-.5d0*dlog(xh))+(1.d0-5.d0*xh)
|
|
. *(datan((2.d0*xh-1.d0)/dsqrt(4.d0*xh-1.d0))
|
|
. -datan(1.d0/dsqrt(4.d0*xh-1.d0)))
|
|
. /dsqrt(4.d0*xh-1.d0)
|
|
xh2=3*gf**2/32.d0/pi**3*amz**4/xx(1)*glb**2*amb**2
|
|
yy(1)=xh1*xh2
|
|
xh=aml**2/xx(2)**2
|
|
xh1=(xh-1.d0)*(2.d0-.5d0*dlog(xh))+(1.d0-5.d0*xh)
|
|
. *(datan((2.d0*xh-1.d0)/dsqrt(4.d0*xh-1.d0))
|
|
. -datan(1.d0/dsqrt(4.d0*xh-1.d0)))
|
|
. /dsqrt(4.d0*xh-1.d0)
|
|
xh2=3*gf**2/32.d0/pi**3*amz**4/xx(2)*glb**2*amb**2
|
|
yy(2)=xh1*xh2
|
|
yy(3)=gf/16d0/dsqrt(2d0)/pi*amz**4/xx(3)
|
|
. *beta_hdec(aml**2/xx(3)**2)
|
|
yy(4)=gf/16d0/dsqrt(2d0)/pi*amz**4/xx(4)
|
|
. *beta_hdec(aml**2/xx(4)**2)
|
|
hhh = fint_hdec(amh,xx,yy)*ghll**2
|
|
else
|
|
hhh=gf/16d0/dsqrt(2d0)/pi*amz**4/amh*
|
|
. beta_hdec(aml**2/amh**2)*ghll**2
|
|
endif
|
|
else
|
|
if (amh.le.2*aml) then
|
|
hhh=0
|
|
else
|
|
hhh=gf/16d0/dsqrt(2d0)/pi*amz**4/amh*
|
|
. beta_hdec(aml**2/amh**2)*ghll**2
|
|
endif
|
|
endif
|
|
endif
|
|
c end MMM changed 22/8/2013
|
|
|
|
c print*,'H -> hh',HHH,ghll
|
|
|
|
C H ---> A A
|
|
if(i2hdm.eq.0) then
|
|
IF(IONSH.EQ.0)THEN
|
|
if(islhai.eq.0)then
|
|
DLD = 0.3D0*(TGBET-1.3D0)
|
|
DLD = DMAX1(0.1D0,DLD)
|
|
DLU=DLD
|
|
ALD = DLD/2
|
|
ALU = DLU/2
|
|
XM1 = 2*AMA-DLD
|
|
XM2 = 2*AMA+DLU
|
|
IF (AMH.LE.AMA) THEN
|
|
HAA=0
|
|
ELSEIF (AMH.LT.XM1) THEN
|
|
XA=AMA**2/AMH**2
|
|
XA1=(XA-1.D0)*(2.D0-.5D0*DLOG(XA))+(1.D0-5.D0*XA)
|
|
. *(DATAN((2.D0*XA-1.D0)/DSQRT(4.D0*XA-1.D0))
|
|
. -DATAN(1.D0/DSQRT(4.D0*XA-1.D0)))/DSQRT(4.D0*XA-1.D0)
|
|
XA2=3*GF**2/32.D0/PI**3*AMZ**4/AMH*GHAA**2*GAB**2*AMB**2
|
|
HAA=XA1*XA2
|
|
ELSEIF (AMH.LT.XM2) THEN
|
|
ZZMA=AMAR
|
|
AMACRIT = AMAR
|
|
AMA0 = 10.D0
|
|
AMA1 = AMAR + 50.D0
|
|
AMA = AMA0
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AMA) THEN
|
|
IFLON0 = -1
|
|
ELSEIF(AMH.EQ.2*AMA) THEN
|
|
IFLON0 = 0
|
|
AMACRIT = AMAR
|
|
ELSE
|
|
IFLON0 = 1
|
|
ENDIF
|
|
AMA = AMA1
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AMA) THEN
|
|
IFLON1 = -1
|
|
ELSEIF(AMH.EQ.2*AMA) THEN
|
|
IFLON1 = 0
|
|
AMACRIT = AMAR
|
|
ELSE
|
|
IFLON1 = 1
|
|
ENDIF
|
|
IF(IFLON0*IFLON1.EQ.0)THEN
|
|
IFLON0 = 0
|
|
IFLON1 = 0
|
|
ENDIF
|
|
IF(IFLON0.NE.IFLON1)THEN
|
|
502 AMA = (AMA0+AMA1)/2
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.2*AMA) THEN
|
|
IF(IFLON0.EQ.-1) THEN
|
|
AMA0 = AMAR
|
|
ELSE
|
|
AMA1 = AMAR
|
|
ENDIF
|
|
ELSEIF(AMH.EQ.2*AMA) THEN
|
|
IFLON0 = 0
|
|
IFLON1 = 0
|
|
AMACRIT = AMAR
|
|
ELSE
|
|
IF(IFLON0.EQ.-1) THEN
|
|
AMA1 = AMAR
|
|
ELSE
|
|
AMA0 = AMAR
|
|
ENDIF
|
|
ENDIF
|
|
IF(IFLON0.NE.0)THEN
|
|
AMACRIT = (AMA0+AMA1)/2
|
|
DEL = 1.D-8
|
|
AMDEL = 2*DABS(AMA1-AMA0)/(AMA1+AMA0)
|
|
IF(AMDEL.GT.DEL) GOTO 502
|
|
ENDIF
|
|
ENDIF
|
|
DEL = 1.D-4
|
|
XX(1) = AMACRIT - ALD - DEL
|
|
XX(2) = AMACRIT - ALD
|
|
XX(3) = AMACRIT + ALU
|
|
XX(4) = AMACRIT + ALU + DEL
|
|
DO J=1,4
|
|
AMA = XX(J)
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
XX(J) = AMH
|
|
IF(AMH.GE.2*AMA)THEN
|
|
YY(J)=GF/16D0/DSQRT(2D0)/PI*AMZ**4/XX(J)
|
|
. *BETA_HDEC(AMA**2/XX(J)**2)
|
|
ELSEIF(AMH.LE.AMA)THEN
|
|
YY(J) = 0
|
|
ELSE
|
|
XA=AMA**2/XX(J)**2
|
|
XA1=(XA-1.D0)*(2.D0-.5D0*DLOG(XA))+(1.D0-5.D0*XA)
|
|
. *(DATAN((2.D0*XA-1.D0)/DSQRT(4.D0*XA-1.D0))
|
|
. -DATAN(1.D0/DSQRT(4.D0*XA-1.D0)))/DSQRT(4.D0*XA-1.D0)
|
|
XA2=3*GF**2/32.D0/PI**3*AMZ**4/XX(J)*GAB**2*AMB**2
|
|
YY(J)=XA1*XA2
|
|
ENDIF
|
|
ENDDO
|
|
AMA = ZZMA
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
HAA = FINT_HDEC(AMH,XX,YY)*GHAA**2
|
|
ELSE
|
|
HAA=GF/16D0/DSQRT(2D0)/PI*AMZ**4/AMH*BETA_HDEC(AMA**2/AMH**2)
|
|
. *GHAA**2
|
|
ENDIF
|
|
else
|
|
DLD=0.1D0
|
|
DLU=0.1D0
|
|
XM1 = 2D0*AMA-DLD
|
|
XM2 = 2D0*AMA+DLU
|
|
IF (AMH.LE.AMA) THEN
|
|
HAA = 0D0
|
|
ELSEIF (AMH.LE.XM1) THEN
|
|
XA=AMA**2/AMH**2
|
|
XA1=(XA-1.D0)*(2.D0-.5D0*DLOG(XA))+(1.D0-5.D0*XA)
|
|
. *(DATAN((2.D0*XA-1.D0)/DSQRT(4.D0*XA-1.D0))
|
|
. -DATAN(1.D0/DSQRT(4.D0*XA-1.D0)))/DSQRT(4.D0*XA-1.D0)
|
|
XA2=3*GF**2/32.D0/PI**3*AMZ**4/AMH*GHAA**2*GAB**2*AMB**2
|
|
HAA=XA1*XA2
|
|
ELSEIF (AMH.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
XA=AMA**2/XX(1)**2
|
|
XA1=(XA-1.D0)*(2.D0-.5D0*DLOG(XA))+(1.D0-5.D0*XA)
|
|
. *(DATAN((2.D0*XA-1.D0)/DSQRT(4.D0*XA-1.D0))
|
|
. -DATAN(1.D0/DSQRT(4.D0*XA-1.D0)))/DSQRT(4.D0*XA-1.D0)
|
|
XA2=3*GF**2/32.D0/PI**3*AMZ**4/XX(1)*GAB**2*AMB**2
|
|
YY(1)=XA1*XA2
|
|
XA=AMA**2/XX(2)**2
|
|
XA1=(XA-1.D0)*(2.D0-.5D0*DLOG(XA))+(1.D0-5.D0*XA)
|
|
. *(DATAN((2.D0*XA-1.D0)/DSQRT(4.D0*XA-1.D0))
|
|
. -DATAN(1.D0/DSQRT(4.D0*XA-1.D0)))/DSQRT(4.D0*XA-1.D0)
|
|
XA2=3*GF**2/32.D0/PI**3*AMZ**4/XX(2)*GAB**2*AMB**2
|
|
YY(2)=XA1*XA2
|
|
YY(3)=GF/16D0/DSQRT(2D0)/PI*AMZ**4/XX(3)
|
|
. *BETA_HDEC(AMA**2/XX(3)**2)
|
|
YY(4)=GF/16D0/DSQRT(2D0)/PI*AMZ**4/XX(4)
|
|
. *BETA_HDEC(AMA**2/XX(4)**2)
|
|
HAA = FINT_HDEC(AMH,XX,YY)*GHAA**2
|
|
ELSE
|
|
HAA=GF/16D0/DSQRT(2D0)/PI*AMZ**4/AMH*BETA_HDEC(AMA**2/AMH**2)
|
|
. *GHAA**2
|
|
ENDIF
|
|
endif
|
|
ELSE
|
|
IF (AMH.LE.2*AMA) THEN
|
|
HAA=0
|
|
ELSE
|
|
HAA=GF/16D0/DSQRT(2D0)/PI*AMZ**4/AMH*BETA_HDEC(AMA**2/AMH**2)
|
|
. *GHAA**2
|
|
ENDIF
|
|
ENDIF
|
|
endif
|
|
|
|
c MMM changed 22/8/2013
|
|
if(i2hdm.eq.1) then
|
|
if(ionsh.eq.0) then
|
|
dld=0.1d0
|
|
dlu=0.1d0
|
|
xm1 = 2d0*ama-dld
|
|
xm2 = 2d0*ama+dlu
|
|
if (amh.le.ama) then
|
|
haa = 0d0
|
|
elseif (amh.le.xm1) then
|
|
xa=ama**2/amh**2
|
|
xa1=(xa-1.d0)*(2.d0-.5d0*dlog(xa))+(1.d0-5.d0*xa)
|
|
. *(datan((2.d0*xa-1.d0)/dsqrt(4.d0*xa-1.d0))
|
|
. -datan(1.d0/dsqrt(4.d0*xa-1.d0)))
|
|
. /dsqrt(4.d0*xa-1.d0)
|
|
xa2=3*gf**2/32.d0/pi**3*amz**4/amh*ghaa**2*gab**2*amb**2
|
|
haa=xa1*xa2
|
|
elseif (amh.le.xm2) then
|
|
xx(1) = xm1-1d0
|
|
xx(2) = xm1
|
|
xx(3) = xm2
|
|
xx(4) = xm2+1d0
|
|
xa=ama**2/xx(1)**2
|
|
xa1=(xa-1.d0)*(2.d0-.5d0*dlog(xa))+(1.d0-5.d0*xa)
|
|
. *(datan((2.d0*xa-1.d0)/dsqrt(4.d0*xa-1.d0))
|
|
. -datan(1.d0/dsqrt(4.d0*xa-1.d0)))
|
|
. /dsqrt(4.d0*xa-1.d0)
|
|
xa2=3*gf**2/32.d0/pi**3*amz**4/xx(1)*gab**2*amb**2
|
|
yy(1)=xa1*xa2
|
|
xa=ama**2/xx(2)**2
|
|
xa1=(xa-1.d0)*(2.d0-.5d0*dlog(xa))+(1.d0-5.d0*xa)
|
|
. *(datan((2.d0*xa-1.d0)/dsqrt(4.d0*xa-1.d0))
|
|
. -datan(1.d0/dsqrt(4.d0*xa-1.d0)))
|
|
. /dsqrt(4.d0*xa-1.d0)
|
|
xa2=3*gf**2/32.d0/pi**3*amz**4/xx(2)*gab**2*amb**2
|
|
yy(2)=xa1*xa2
|
|
yy(3)=gf/16d0/dsqrt(2d0)/pi*amz**4/xx(3)
|
|
. *beta_hdec(ama**2/xx(3)**2)
|
|
yy(4)=gf/16d0/dsqrt(2d0)/pi*amz**4/xx(4)
|
|
. *beta_hdec(ama**2/xx(4)**2)
|
|
haa = fint_hdec(amh,xx,yy)*ghaa**2
|
|
else
|
|
haa=gf/16d0/dsqrt(2d0)/pi*amz**4/amh*
|
|
. beta_hdec(ama**2/amh**2)*ghaa**2
|
|
endif
|
|
else
|
|
if (amh.le.2*ama) then
|
|
haa=0
|
|
else
|
|
haa=gf/16d0/dsqrt(2d0)/pi*amz**4/amh*
|
|
. beta_hdec(ama**2/amh**2)*ghaa**2
|
|
endif
|
|
endif
|
|
endif
|
|
c end MMM changed 22/8/2013
|
|
|
|
c print*,'H -> AA',haa,ghaa
|
|
|
|
C H ---> H+ H-
|
|
|
|
if(i2hdm.eq.1) then
|
|
if (amh.le.2*amch) then
|
|
hchch=0.D0
|
|
else
|
|
hchch=gf/8d0/dsqrt(2d0)/pi*amz**4/amh*
|
|
. beta_hdec(amch**2/amh**2)*ghpm**2
|
|
endif
|
|
elseif(i2hdm.eq.0) then
|
|
hchch=0.D0
|
|
endif
|
|
|
|
c print*,'H -> H+H-',hchch,ghpm
|
|
|
|
C H ---> A Z
|
|
if(i2hdm.eq.0)then
|
|
IF(IONSH.EQ.0)THEN
|
|
if(islhai.eq.0)then
|
|
DLD=1D0
|
|
DLU=8D0
|
|
XM1 = AMA+AMZ-DLD
|
|
XM2 = AMA+AMZ+DLU
|
|
IF (AMH.LT.AMA) THEN
|
|
HAZ=0
|
|
ELSEIF (AMH.LT.XM1) THEN
|
|
IF(AMH.LE.DABS(AMZ-AMA))THEN
|
|
HAZ=0
|
|
ELSE
|
|
HAZ=9.D0*GF**2/8.D0/PI**3*AMZ**4*AMH*GZAH**2*
|
|
. (7.D0/12.D0-10.D0/9.D0*SS+40.D0/27.D0*SS**2)
|
|
. *HVH((AMA/AMH)**2,(AMZ/AMH)**2)
|
|
ENDIF
|
|
ELSEIF (AMH.LT.XM2) THEN
|
|
ZZMA=AMAR
|
|
165 AMA = AMAR - 1.D0
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.AMA+AMZ+DLU.AND.AMH.GT.AMA+AMZ-DLD) GOTO 165
|
|
XX(1) = AMAR-1D0
|
|
XX(2) = AMAR
|
|
AMA = ZZMA
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
166 AMA = AMAR + 1.D0
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.AMA+AMZ+DLU.AND.AMH.GT.AMA+AMZ-DLD) GOTO 166
|
|
XX(3) = AMAR
|
|
XX(4) = AMAR+1D0
|
|
DO IJ=1,4
|
|
AMA = XX(IJ)
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
XX(IJ) = AMH
|
|
IF(AMH.LE.AMA+AMZ) THEN
|
|
YY(IJ)=9.D0*GF**2/8.D0/PI**3*AMZ**4*XX(IJ)*
|
|
. (7.D0/12.D0-10.D0/9.D0*SS+40.D0/27.D0*SS**2)
|
|
. *HVH((AMA/XX(IJ))**2,(AMZ/XX(IJ))**2)
|
|
ELSE
|
|
CAZ=LAMB_HDEC(AMA**2/XX(IJ)**2,AMZ**2/XX(IJ)**2)
|
|
. *LAMB_HDEC(XX(IJ)**2/AMZ**2,AMA**2/AMZ**2)**2
|
|
YY(IJ)=GF/8.D0/DSQRT(2D0)/PI*AMZ**4/XX(IJ)*CAZ
|
|
ENDIF
|
|
ENDDO
|
|
AMA = ZZMA
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
HAZ = FINT_HDEC(AMH,XX,YY)*GZAH**2
|
|
ELSE
|
|
CAZ=LAMB_HDEC(AMA**2/AMH**2,AMZ**2/AMH**2)
|
|
. *LAMB_HDEC(AMH**2/AMZ**2,AMA**2/AMZ**2)**2
|
|
HAZ=GF/8.D0/DSQRT(2D0)/PI*AMZ**4/AMH*CAZ*GZAH**2
|
|
ENDIF
|
|
else
|
|
DLD=1D0
|
|
DLU=8D0
|
|
XM1 = AMA+AMZ-DLD
|
|
XM2 = AMA+AMZ+DLU
|
|
IF (AMH.LT.AMA) THEN
|
|
HAZ=0
|
|
ELSEIF (AMH.LT.XM1) THEN
|
|
IF(AMH.LE.DABS(AMZ-AMA))THEN
|
|
HAZ=0
|
|
ELSE
|
|
HAZ=9.D0*GF**2/8.D0/PI**3*AMZ**4*AMH*GZAH**2*
|
|
. (7.D0/12.D0-10.D0/9.D0*SS+40.D0/27.D0*SS**2)
|
|
. *HVH((AMA/AMH)**2,(AMZ/AMH)**2)
|
|
ENDIF
|
|
ELSEIF (AMH.LT.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1)=9.D0*GF**2/8.D0/PI**3*AMZ**4*XX(1)*
|
|
. (7.D0/12.D0-10.D0/9.D0*SS+40.D0/27.D0*SS**2)
|
|
. *HVH((AMA/XX(1))**2,(AMZ/XX(1))**2)
|
|
YY(2)=9.D0*GF**2/8.D0/PI**3*AMZ**4*XX(2)*
|
|
. (7.D0/12.D0-10.D0/9.D0*SS+40.D0/27.D0*SS**2)
|
|
. *HVH((AMA/XX(2))**2,(AMZ/XX(2))**2)
|
|
CAZ=LAMB_HDEC(AMA**2/XX(3)**2,AMZ**2/XX(3)**2)
|
|
. *LAMB_HDEC(XX(3)**2/AMZ**2,AMA**2/AMZ**2)**2
|
|
YY(3)=GF/8.D0/DSQRT(2D0)/PI*AMZ**4/XX(3)*CAZ
|
|
CAZ=LAMB_HDEC(AMA**2/XX(4)**2,AMZ**2/XX(4)**2)
|
|
. *LAMB_HDEC(XX(4)**2/AMZ**2,AMA**2/AMZ**2)**2
|
|
YY(4)=GF/8.D0/DSQRT(2D0)/PI*AMZ**4/XX(4)*CAZ
|
|
HAZ = FINT_HDEC(AMH,XX,YY)*GZAH**2
|
|
ELSE
|
|
CAZ=LAMB_HDEC(AMA**2/AMH**2,AMZ**2/AMH**2)
|
|
. *LAMB_HDEC(AMH**2/AMZ**2,AMA**2/AMZ**2)**2
|
|
HAZ=GF/8.D0/DSQRT(2D0)/PI*AMZ**4/AMH*CAZ*GZAH**2
|
|
ENDIF
|
|
endif
|
|
ELSE
|
|
IF (AMH.LT.AMZ+AMA) THEN
|
|
HAZ=0
|
|
ELSE
|
|
CAZ=LAMB_HDEC(AMA**2/AMH**2,AMZ**2/AMH**2)
|
|
. *LAMB_HDEC(AMH**2/AMZ**2,AMA**2/AMZ**2)**2
|
|
HAZ=GF/8.D0/DSQRT(2D0)/PI*AMZ**4/AMH*CAZ*GZAH**2
|
|
ENDIF
|
|
ENDIF
|
|
endif
|
|
|
|
c MMM changed 22/8/2013
|
|
if(i2hdm.eq.1) then
|
|
if(ionsh.eq.0) then
|
|
dld=1d0
|
|
dlu=8d0
|
|
xm1 = ama+amz-dld
|
|
xm2 = ama+amz+dlu
|
|
if (amh.lt.ama) then
|
|
haz=0
|
|
elseif (amh.lt.xm1) then
|
|
if(amh.le.dabs(amz-ama))then
|
|
haz=0
|
|
else
|
|
haz=9.d0*gf**2/8.d0/pi**3*amz**4*amh*gzah**2*
|
|
. (7.d0/12.d0-10.d0/9.d0*ss+40.d0/27.d0*ss**2)
|
|
. *hvh((ama/amh)**2,(amz/amh)**2)
|
|
endif
|
|
elseif (amh.lt.xm2) then
|
|
xx(1) = xm1-1d0
|
|
xx(2) = xm1
|
|
xx(3) = xm2
|
|
xx(4) = xm2+1d0
|
|
yy(1)=9.d0*gf**2/8.d0/pi**3*amz**4*xx(1)*
|
|
. (7.d0/12.d0-10.d0/9.d0*ss+40.d0/27.d0*ss**2)
|
|
. *hvh((ama/xx(1))**2,(amz/xx(1))**2)
|
|
yy(2)=9.d0*gf**2/8.d0/pi**3*amz**4*xx(2)*
|
|
. (7.d0/12.d0-10.d0/9.d0*ss+40.d0/27.d0*ss**2)
|
|
. *hvh((ama/xx(2))**2,(amz/xx(2))**2)
|
|
caz=lamb_hdec(ama**2/xx(3)**2,amz**2/xx(3)**2)
|
|
. *lamb_hdec(xx(3)**2/amz**2,ama**2/amz**2)**2
|
|
yy(3)=gf/8.d0/dsqrt(2d0)/pi*amz**4/xx(3)*caz
|
|
caz=lamb_hdec(ama**2/xx(4)**2,amz**2/xx(4)**2)
|
|
. *lamb_hdec(xx(4)**2/amz**2,ama**2/amz**2)**2
|
|
yy(4)=gf/8.d0/dsqrt(2d0)/pi*amz**4/xx(4)*caz
|
|
haz = fint_hdec(amh,xx,yy)*gzah**2
|
|
else
|
|
caz=lamb_hdec(ama**2/amh**2,amz**2/amh**2)
|
|
. *lamb_hdec(amh**2/amz**2,ama**2/amz**2)**2
|
|
haz=gf/8.d0/dsqrt(2d0)/pi*amz**4/amh*caz*gzah**2
|
|
endif
|
|
else
|
|
if (amh.lt.amz+ama) then
|
|
haz=0
|
|
else
|
|
caz=lamb_hdec(ama**2/amh**2,amz**2/amh**2)
|
|
. *lamb_hdec(amh**2/amz**2,ama**2/amz**2)**2
|
|
haz=gf/8.d0/dsqrt(2d0)/pi*amz**4/amh*caz*gzah**2
|
|
endif
|
|
endif
|
|
endif
|
|
c end MMM changed 22/8/2013
|
|
|
|
c print*,'H -> AZ',haz
|
|
|
|
C H ---> H+ W-
|
|
if(i2hdm.eq.0)then
|
|
IF(IONSH.EQ.0)THEN
|
|
if(islhai.eq.0)then
|
|
DLD=3D0
|
|
DLU=9D0
|
|
XM1 = AMCH+AMW-DLD
|
|
XM2 = AMCH+AMW+DLU
|
|
IF (AMH.LT.AMCH) THEN
|
|
HHW=0.D0
|
|
ELSEIF (AMH.LT.XM1) THEN
|
|
IF(AMH.LE.DABS(AMW-AMCH))THEN
|
|
HHW=0
|
|
ELSE
|
|
HHW=9.D0*GF**2/16.D0/PI**3*AMW**4*AMH*GLVV**2*2
|
|
. *HVH((AMCH/AMH)**2,(AMW/AMH)**2)
|
|
ENDIF
|
|
ELSEIF (AMH.LT.XM2) THEN
|
|
ZZMA=AMAR
|
|
167 AMA = AMAR - 1.D0
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.LT.AMCH+AMW+DLU) GOTO 167
|
|
XX(1) = AMAR-1D0
|
|
XX(2) = AMAR
|
|
AMA = ZZMA
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
168 AMA = AMAR + 1.D0
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
IF(AMH.GT.AMCH+AMW-DLD) GOTO 168
|
|
XX(3) = AMAR
|
|
XX(4) = AMAR+1D0
|
|
AMA = XX(1)
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
XX(1) = AMH
|
|
CHW=LAMB_HDEC(AMCH**2/XX(1)**2,AMW**2/XX(1)**2)
|
|
. *LAMB_HDEC(XX(1)**2/AMW**2,AMCH**2/AMW**2)**2
|
|
YY(1)=2*GF/8.D0/DSQRT(2D0)/PI*AMW**4/XX(1)*CHW
|
|
AMA = XX(2)
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
XX(2) = AMH
|
|
CHW=LAMB_HDEC(AMCH**2/XX(2)**2,AMW**2/XX(2)**2)
|
|
. *LAMB_HDEC(XX(2)**2/AMW**2,AMCH**2/AMW**2)**2
|
|
YY(2)=2*GF/8.D0/DSQRT(2D0)/PI*AMW**4/XX(2)*CHW
|
|
AMA = XX(3)
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
XX(3) = AMH
|
|
YY(3)=9.D0*GF**2/16.D0/PI**3*AMW**4*XX(3)*2
|
|
. *HVH((AMCH/XX(3))**2,(AMW/XX(3))**2)
|
|
AMA = XX(4)
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
XX(4) = AMH
|
|
YY(4)=9.D0*GF**2/16.D0/PI**3*AMW**4*XX(4)*2
|
|
. *HVH((AMCH/XX(4))**2,(AMW/XX(4))**2)
|
|
AMA = ZZMA
|
|
CALL SUSYCP_HDEC(TGBET)
|
|
HHW=FINT_HDEC(AMH,XX,YY)*GLVV**2
|
|
ELSE
|
|
CHW=LAMB_HDEC(AMCH**2/AMH**2,AMW**2/AMH**2)
|
|
. *LAMB_HDEC(AMH**2/AMW**2,AMCH**2/AMW**2)**2
|
|
HHW=2*GF/8.D0/DSQRT(2D0)/PI*AMW**4/AMH*CHW*GLVV**2
|
|
ENDIF
|
|
else
|
|
DLD=3D0
|
|
DLU=9D0
|
|
XM1 = AMCH+AMW-DLD
|
|
XM2 = AMCH+AMW+DLU
|
|
IF (AMH.LT.AMCH) THEN
|
|
HHW=0.D0
|
|
ELSEIF (AMH.LT.XM1) THEN
|
|
IF(AMH.LE.DABS(AMW-AMCH))THEN
|
|
HHW=0
|
|
ELSE
|
|
HHW=9.D0*GF**2/16.D0/PI**3*AMW**4*AMH*GLVV**2*2
|
|
. *HVH((AMCH/AMH)**2,(AMW/AMH)**2)
|
|
ENDIF
|
|
ELSEIF (AMH.LT.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1)=9.D0*GF**2/16.D0/PI**3*AMW**4*XX(1)*2
|
|
. *HVH((AMCH/XX(1))**2,(AMW/XX(1))**2)
|
|
YY(2)=9.D0*GF**2/16.D0/PI**3*AMW**4*XX(2)*2
|
|
. *HVH((AMCH/XX(2))**2,(AMW/XX(2))**2)
|
|
CHW=LAMB_HDEC(AMCH**2/XX(3)**2,AMW**2/XX(3)**2)
|
|
. *LAMB_HDEC(XX(3)**2/AMW**2,AMCH**2/AMW**2)**2
|
|
YY(3)=2*GF/8.D0/DSQRT(2D0)/PI*AMW**4/XX(3)*CHW
|
|
CHW=LAMB_HDEC(AMCH**2/XX(4)**2,AMW**2/XX(4)**2)
|
|
. *LAMB_HDEC(XX(4)**2/AMW**2,AMCH**2/AMW**2)**2
|
|
YY(4)=2*GF/8.D0/DSQRT(2D0)/PI*AMW**4/XX(4)*CHW
|
|
HHW=FINT_HDEC(AMH,XX,YY)*GLVV**2
|
|
ELSE
|
|
CHW=LAMB_HDEC(AMCH**2/AMH**2,AMW**2/AMH**2)
|
|
. *LAMB_HDEC(AMH**2/AMW**2,AMCH**2/AMW**2)**2
|
|
HHW=2*GF/8.D0/DSQRT(2D0)/PI*AMW**4/AMH*CHW*GLVV**2
|
|
ENDIF
|
|
endif
|
|
ELSE
|
|
IF (AMH.LT.AMW+AMCH) THEN
|
|
HHW=0.D0
|
|
ELSE
|
|
CHW=LAMB_HDEC(AMCH**2/AMH**2,AMW**2/AMH**2)
|
|
. *LAMB_HDEC(AMH**2/AMW**2,AMCH**2/AMW**2)**2
|
|
HHW=2*GF/8.D0/DSQRT(2D0)/PI*AMW**4/AMH*CHW*GLVV**2
|
|
ENDIF
|
|
ENDIF
|
|
endif
|
|
|
|
c MMM changed 22/8/2013
|
|
if(i2hdm.eq.1) then
|
|
if(ionsh.eq.0) then
|
|
dld=3d0
|
|
dlu=9d0
|
|
xm1 = amch+amw-dld
|
|
xm2 = amch+amw+dlu
|
|
if (amh.lt.amch) then
|
|
hhw=0.d0
|
|
elseif (amh.lt.xm1) then
|
|
if(amh.le.dabs(amw-amch))then
|
|
hhw=0
|
|
else
|
|
hhw=9.d0*gf**2/16.d0/pi**3*amw**4*amh*glvv**2*2
|
|
. *hvh((amch/amh)**2,(amw/amh)**2)
|
|
endif
|
|
elseif (amh.lt.xm2) then
|
|
xx(1) = xm1-1d0
|
|
xx(2) = xm1
|
|
xx(3) = xm2
|
|
xx(4) = xm2+1d0
|
|
yy(1)=9.d0*gf**2/16.d0/pi**3*amw**4*xx(1)*2
|
|
. *hvh((amch/xx(1))**2,(amw/xx(1))**2)
|
|
yy(2)=9.d0*gf**2/16.d0/pi**3*amw**4*xx(2)*2
|
|
. *hvh((amch/xx(2))**2,(amw/xx(2))**2)
|
|
chw=lamb_hdec(amch**2/xx(3)**2,amw**2/xx(3)**2)
|
|
. *lamb_hdec(xx(3)**2/amw**2,amch**2/amw**2)**2
|
|
yy(3)=2*gf/8.d0/dsqrt(2d0)/pi*amw**4/xx(3)*chw
|
|
chw=lamb_hdec(amch**2/xx(4)**2,amw**2/xx(4)**2)
|
|
. *lamb_hdec(xx(4)**2/amw**2,amch**2/amw**2)**2
|
|
yy(4)=2*gf/8.d0/dsqrt(2d0)/pi*amw**4/xx(4)*chw
|
|
hhw=fint_hdec(amh,xx,yy)*glvv**2
|
|
else
|
|
chw=lamb_hdec(amch**2/amh**2,amw**2/amh**2)
|
|
. *lamb_hdec(amh**2/amw**2,amch**2/amw**2)**2
|
|
hhw=2*gf/8.d0/dsqrt(2d0)/pi*amw**4/amh*chw*glvv**2
|
|
endif
|
|
else
|
|
if (amh.lt.amw+amch) then
|
|
hhw=0.d0
|
|
else
|
|
chw=lamb_hdec(amch**2/amh**2,amw**2/amh**2)
|
|
. *lamb_hdec(amh**2/amw**2,amch**2/amw**2)**2
|
|
hhw=2*gf/8.d0/dsqrt(2d0)/pi*amw**4/amh*chw*glvv**2
|
|
endif
|
|
endif
|
|
endif
|
|
c end MMM changed 22/8/2013
|
|
|
|
c print*,'H -> H+W-',hhw,hhw/2.D0
|
|
|
|
C ========================== SUSY DECAYS
|
|
C
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
C HH ----> CHARGINOS
|
|
DO 741 I=1,2
|
|
DO 741 J=1,2
|
|
IF (AMH.GT.AMCHAR(I)+AMCHAR(J)) THEN
|
|
WHHCH(I,J)=GF*AMW**2/(2*PI*DSQRT(2.D0))/AMH
|
|
. *LAMB_HDEC(AMCHAR(I)**2/AMH**2,AMCHAR(J)**2/AMH**2)
|
|
. *( (AC1(I,J)**2+AC1(J,I)**2)*(AMH**2-AMCHAR(I)
|
|
. **2-AMCHAR(J)**2)-4.D0*AC1(I,J)*AC1(J,I)*
|
|
. XMCHAR(I)*XMCHAR(J) )
|
|
ELSE
|
|
WHHCH(I,J)=0.D0
|
|
ENDIF
|
|
741 CONTINUE
|
|
WHHCHT=WHHCH(1,1)+WHHCH(1,2)+WHHCH(2,1)+WHHCH(2,2)
|
|
C
|
|
C HH ----> NEUTRALINOS
|
|
DO 742 I=1,4
|
|
DO 742 J=1,4
|
|
IF (AMH.GT.AMNEUT(I)+AMNEUT(J)) THEN
|
|
WHHNE(I,J)=GF*AMW**2/(2*PI*DSQRT(2.D0))/AMH
|
|
. *AN1(I,J)**2*(AMH**2-(XMNEUT(I)+XMNEUT(J))**2)
|
|
. *LAMB_HDEC(AMNEUT(I)**2/AMH**2,AMNEUT(J)**2/AMH**2)
|
|
ELSE
|
|
WHHNE(I,J)=0.D0
|
|
ENDIF
|
|
742 CONTINUE
|
|
WHHNET= WHHNE(1,1)+WHHNE(1,2)+WHHNE(1,3)+WHHNE(1,4)
|
|
. +WHHNE(2,1)+WHHNE(2,2)+WHHNE(2,3)+WHHNE(2,4)
|
|
. +WHHNE(3,1)+WHHNE(3,2)+WHHNE(3,3)+WHHNE(3,4)
|
|
. +WHHNE(4,1)+WHHNE(4,2)+WHHNE(4,3)+WHHNE(4,4)
|
|
C
|
|
C HH ----> SLEPTONS
|
|
C
|
|
IF (AMH.GT.2.D0*AMSE(1)) THEN
|
|
WHHSLEL=2*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AMH*DCOS(B+A)**2
|
|
. *BETA_HDEC(AMSE(1)**2/AMH**2)*(-0.5D0+SS)**2
|
|
ELSE
|
|
WHHSLEL=0.D0
|
|
ENDIF
|
|
|
|
IF (AMH.GT.2.D0*AMSE(2)) THEN
|
|
WHHSLER=2*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AMH*DCOS(B+A)**2
|
|
. *BETA_HDEC(AMSE(2)**2/AMH**2)*SS**2
|
|
ELSE
|
|
WHHSLER=0.D0
|
|
ENDIF
|
|
|
|
WHHSLNL=0.D0
|
|
IF (AMH.GT.2.D0*AMSN1(1)) THEN
|
|
WHHSLNL=2*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AMH*DCOS(B+A)**2
|
|
. *BETA_HDEC(AMSN1(1)**2/AMH**2)*0.5D0**2
|
|
ENDIF
|
|
IF (AMH.GT.2.D0*AMSN(1)) THEN
|
|
WHHSLNL=WHHSLNL + GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AMH*DCOS(B+A)**2
|
|
. *BETA_HDEC(AMSN(1)**2/AMH**2)*0.5D0**2
|
|
ENDIF
|
|
|
|
DO 748 I=1,2
|
|
DO 748 J=1,2
|
|
IF(AMH.GT.AMSL(I)+AMSL(J)) THEN
|
|
WHHSTAU(I,J)=GF*AMZ**4/2.D0/DSQRT(2.D0)/PI*GHEE(I,J)**2*
|
|
. LAMB_HDEC(AMSL(I)**2/AMH**2,AMSL(J)**2/AMH**2)/AMH
|
|
ELSE
|
|
WHHSTAU(I,J)=0.D0
|
|
ENDIF
|
|
748 CONTINUE
|
|
|
|
WHHSLT=WHHSTAU(1,1)+WHHSTAU(1,2)+WHHSTAU(2,1)+WHHSTAU(2,2)
|
|
. +WHHSLEL+WHHSLER+WHHSLNL
|
|
C
|
|
C HH ----> SQUARKS
|
|
C
|
|
IF (AMH.GT.2.D0*AMSU(1)) THEN
|
|
WHHSQUL=6*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AMH*DCOS(B+A)**2
|
|
. *BETA_HDEC(AMSU(1)**2/AMH**2)*(0.5D0-2.D0/3.D0*SS)**2
|
|
ELSE
|
|
WHHSQUL=0.D0
|
|
ENDIF
|
|
|
|
IF (AMH.GT.2.D0*AMSU(2)) THEN
|
|
WHHSQUR=6*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AMH*DCOS(B+A)**2
|
|
. *BETA_HDEC(AMSU(2)**2/AMH**2)*(-2.D0/3.D0*SS)**2
|
|
ELSE
|
|
WHHSQUR=0.D0
|
|
ENDIF
|
|
|
|
IF (AMH.GT.2.D0*AMSD(1)) THEN
|
|
WHHSQDL=6*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AMH*DCOS(B+A)**2
|
|
. *BETA_HDEC(AMSD(1)**2/AMH**2)*(-0.5D0+1.D0/3.D0*SS)**2
|
|
ELSE
|
|
WHHSQDL=0.D0
|
|
ENDIF
|
|
|
|
IF (AMH.GT.2.D0*AMSD(2)) THEN
|
|
WHHSQDR=6*GF/2.D0/DSQRT(2D0)/PI*AMZ**4/AMH*DCOS(B+A)**2
|
|
. *BETA_HDEC(AMSD(2)**2/AMH**2)*(+1.D0/3.D0*SS)**2
|
|
ELSE
|
|
WHHSQDR=0.D0
|
|
ENDIF
|
|
|
|
WHHSQ=WHHSQUL+WHHSQUR+WHHSQDL+WHHSQDR
|
|
C
|
|
C HH ----> STOPS
|
|
SUSY = 1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c DO K=-10,10
|
|
c DO K=-1,1
|
|
c DO I=1,2
|
|
c DO J=1,2
|
|
c QSQ = AMH*10.D0**(K/10.D0)
|
|
c QSQ = AMH*2.D0**(K)
|
|
c IF(AMH.GT.YMST(I)+YMST(J)) THEN
|
|
c CALL SQMBAPP_HDEC(QSQ)
|
|
c SUSY = 1+SQSUSY_HDEC(2,1,I,J,QSQ,0,1)
|
|
c WHHST0(I,J)=3*GF*AMZ**4/2.D0/DSQRT(2.D0)/PI*YHTT(I,J)**2*
|
|
c . LAMB_HDEC(YMST(I)**2/AMH**2,YMST(J)**2/AMH**2)/AMH
|
|
c WHHST(I,J)=3*GF*AMZ**4/2.D0/DSQRT(2.D0)/PI*YHTT(I,J)**2*
|
|
c . LAMB_HDEC(YMST(I)**2/AMH**2,YMST(J)**2/AMH**2)/AMH
|
|
c . *SUSY
|
|
c ELSE
|
|
c WHHST(I,J)=0.D0
|
|
c ENDIF
|
|
c ENDDO
|
|
c ENDDO
|
|
c write(9,*)'H -> t1 t1: ',QSQ/AMH,WHHST0(1,1),WHHST(1,1)
|
|
c write(9,*)'numbers: ',3*GF/2.D0/DSQRT(2.D0)/PI/AMH,
|
|
c .YHTT(1,1)**2*AMZ**4,LAMB_HDEC(YMST(1)**2/AMH**2,YMST(1)**2/AMH**2)
|
|
c .,YHTT(1,1)*AMZ**2
|
|
c .,3*GF/2.D0/DSQRT(2.D0)/PI/AMH*
|
|
c .YHTT(1,1)**2*AMZ**4*LAMB_HDEC(YMST(1)**2/AMH**2,YMST(1)**2/AMH**2)
|
|
c write(9,*)'H -> t1 t2: ',QSQ/AMH,WHHST0(1,2),WHHST(1,2)
|
|
c write(9,*)'H -> t2 t2: ',QSQ/AMH,WHHST0(2,2),WHHST(2,2)
|
|
c write(901,('1X,G10.4,6(1X,G10.4)'))QSQ/AMH,WHHST0(1,1),WHHST(1,1),
|
|
c . WHHST0(1,2),WHHST(1,2),WHHST0(2,2),WHHST(2,2)
|
|
c ENDDO
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
DO 743 I=1,2
|
|
DO 743 J=1,2
|
|
c QSQ = (YMST(I)+YMST(J))/2
|
|
QSQ = AMH
|
|
IF(AMH.GT.YMST(I)+YMST(J)) THEN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CALL SQMBAPP_HDEC(QSQ)
|
|
SUSY = 1+SQSUSY_HDEC(2,1,I,J,QSQ,0,1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
WHHST(I,J)=3*GF*AMZ**4/2.D0/DSQRT(2.D0)/PI*YHTT(I,J)**2*
|
|
. LAMB_HDEC(YMST(I)**2/AMH**2,YMST(J)**2/AMH**2)/AMH
|
|
. *SUSY
|
|
c write(6,*)'H -> stop: ',I,J,AMH,YMST(I),YMST(J),100*(SUSY-1),'% ',
|
|
c . WHHST(I,J)/SUSY,WHHST(I,J)
|
|
c if(i.eq.1.and.j.eq.1)write(511,*)AMH,WHHST(I,J),WHHST(I,J)/SUSY
|
|
c if(i.eq.1.and.j.eq.2)write(512,*)AMH,WHHST(I,J),WHHST(I,J)/SUSY
|
|
c if(i.eq.2.and.j.eq.1)write(521,*)AMH,WHHST(I,J),WHHST(I,J)/SUSY
|
|
c if(i.eq.2.and.j.eq.2)write(522,*)AMH,WHHST(I,J),WHHST(I,J)/SUSY
|
|
c write(6,*)'H -> stop: ',I,J,AMH,YMST(I),YMST(J),SUSY-1
|
|
ELSE
|
|
WHHST(I,J)=0.D0
|
|
ENDIF
|
|
743 CONTINUE
|
|
C
|
|
C HH ----> SBOTTOMS
|
|
SUSY = 1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c DO K=-10,10
|
|
c DO K=-1,1
|
|
c DO I=1,2
|
|
c DO J=1,2
|
|
c QSQ = AMH*10.D0**(K/10.D0)
|
|
c QSQ = AMH*2.D0**(K)
|
|
c IF(AMH.GT.YMSB(I)+YMSB(J)) THEN
|
|
c CALL SQMBAPP_HDEC(QSQ)
|
|
c SUSY = 1+SQSUSY_HDEC(2,2,I,J,QSQ,0,1)
|
|
c WHHSB0(I,J)=3*GF*AMZ**4/2.D0/DSQRT(2.D0)/PI*YHBB(I,J)**2*
|
|
c . LAMB_HDEC(YMSB(I)**2/AMH**2,YMSB(J)**2/AMH**2)/AMH
|
|
c WHHSB(I,J)=3*GF*AMZ**4/2.D0/DSQRT(2.D0)/PI*YHBB(I,J)**2*
|
|
c . LAMB_HDEC(YMSB(I)**2/AMH**2,YMSB(J)**2/AMH**2)/AMH
|
|
c . *SUSY
|
|
c ELSE
|
|
c WHHSB(I,J)=0.D0
|
|
c ENDIF
|
|
c ENDDO
|
|
c ENDDO
|
|
c write(9,*)'H -> b1 b1: ',QSQ/AMH,WHHSB0(1,1),WHHSB(1,1)
|
|
c write(9,*)'H -> b1 b2: ',QSQ/AMH,WHHSB0(1,2),WHHSB(1,2)
|
|
c write(9,*)'H -> b2 b2: ',QSQ/AMH,WHHSB0(2,2),WHHSB(2,2)
|
|
c write(902,('1X,G10.4,6(1X,G10.4)'))QSQ/AMH,WHHSB0(1,1),WHHSB(1,1),
|
|
c . WHHSB0(1,2),WHHSB(1,2),WHHSB0(2,2),WHHSB(2,2)
|
|
c ENDDO
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c dummy0 = 0
|
|
c dummy1 = 0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
DO 744 I=1,2
|
|
DO 744 J=1,2
|
|
c QSQ = (YMSB(I)+YMSB(J))/2
|
|
QSQ = AMH
|
|
IF(AMH.GT.YMSB(I)+YMSB(J)) THEN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CALL SQMBAPP_HDEC(QSQ)
|
|
SUSY = 1+SQSUSY_HDEC(2,2,I,J,QSQ,0,1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
WHHSB(I,J)=3*GF*AMZ**4/2.D0/DSQRT(2.D0)/PI*YHBB(I,J)**2*
|
|
. LAMB_HDEC(YMSB(I)**2/AMH**2,YMSB(J)**2/AMH**2)/AMH
|
|
. *SUSY
|
|
c write(6,*)'H -> sbot: ',I,J,AMH,YMSB(I),YMSB(J),100*(SUSY-1),'% ',
|
|
c . WHHSB(I,J)/SUSY,WHHSB(I,J)
|
|
c if(i.eq.1.and.j.eq.1)write(611,*)AMH,WHHSB(I,J),WHHSB(I,J)/SUSY
|
|
c if(i.eq.1.and.j.eq.2)write(612,*)AMH,WHHSB(I,J),WHHSB(I,J)/SUSY
|
|
c if(i.eq.2.and.j.eq.1)write(621,*)AMH,WHHSB(I,J),WHHSB(I,J)/SUSY
|
|
c if(i.eq.2.and.j.eq.2)write(622,*)AMH,WHHSB(I,J),WHHSB(I,J)/SUSY
|
|
c write(6,*)'H -> sbot: ',I,J,AMH,YMSB(I),YMSB(J),SUSY-1
|
|
c dummy0 = dummy0 + WHHSB(I,J)/SUSY
|
|
c dummy1 = dummy1 + WHHSB(I,J)
|
|
ELSE
|
|
WHHSB(I,J)=0.D0
|
|
ENDIF
|
|
744 CONTINUE
|
|
c write(6,*)'H -> sbot0: ',YMSB(1),YMSB(2),dummy0,dummy1,
|
|
c . 100*(dummy1/dummy0-1),'%'
|
|
C
|
|
WHHSTT=WHHST(1,1)+WHHST(1,2)+WHHST(2,1)+WHHST(2,2)
|
|
WHHSBB=WHHSB(1,1)+WHHSB(1,2)+WHHSB(2,1)+WHHSB(2,2)
|
|
WHHSQT=WHHSTT+WHHSBB+WHHSQ
|
|
C
|
|
ELSE
|
|
WHHCHT=0.D0
|
|
WHHNET=0.D0
|
|
WHHSLT=0.D0
|
|
WHHSQT=0.D0
|
|
C--Change thanks to Elzbieta Richter-Was
|
|
DO I=1,2
|
|
DO J=1,2
|
|
WHHCH(I,J)=0.D0
|
|
WHHST(I,J)=0.D0
|
|
WHHSB(I,J)=0.D0
|
|
WHHSTAU(I,J)=0.D0
|
|
ENDDO
|
|
ENDDO
|
|
DO I=1,4
|
|
DO J=1,4
|
|
WHHNE(I,J)=0.D0
|
|
ENDDO
|
|
ENDDO
|
|
ENDIF
|
|
|
|
IF(IGOLD.NE.0)THEN
|
|
C HH ---> GOLDSTINOS
|
|
DO 740 I=1,4
|
|
IF (AMH.GT.AMNEUT(I)) THEN
|
|
WHHGD(I)=AMH**5/AXMPL**2/AXMGD**2/48.D0/PI*
|
|
. (1.D0-AMNEUT(I)**2/AMH**2)**4*AGDH(I)**2
|
|
ELSE
|
|
WHHGD(I)=0.D0
|
|
ENDIF
|
|
740 CONTINUE
|
|
WHHGDT=WHHGD(1)+WHHGD(2)+WHHGD(3)+WHHGD(4)
|
|
ELSE
|
|
WHHGDT=0
|
|
ENDIF
|
|
C
|
|
C ========== TOTAL WIDTH AND BRANCHING RATIOS
|
|
WTOT=HLL+HMM+HSS+HCC+HBB+HTT+HGG+HGA+HZGA+HWW+HZZ+HHH+HAA+HAZ
|
|
. +HHW+WHHCHT+WHHNET+WHHSLT+WHHSQT + WHHGDT
|
|
|
|
c write(6,*)'H: ',WTOT
|
|
c write(6,*)'H: ',HLL,HMM,HSS
|
|
c write(6,*)'H: ',HCC,HBB,HTT
|
|
c write(6,*)'H: ',HGG,HGA,HZGA
|
|
c write(6,*)'H: ',HWW,HZZ,HHH
|
|
c write(6,*)'H: ',HAA,HAZ,HHW
|
|
c write(6,*)'H: ',WHHCHT,WHHNET,WHHSLT
|
|
c write(6,*)'H: ',WHHSQT , WHHGDT
|
|
c write(6,*)
|
|
|
|
c print*,'wtot',wtot
|
|
|
|
c maggie changed 21/10/2013
|
|
WTOT=WTOT+HCHCH
|
|
HHBRCHCH=HCHCH/WTOT
|
|
c end maggie changed 21/10/2013
|
|
|
|
c print*,'wtot',wtot
|
|
|
|
HHBRT=HTT/WTOT
|
|
HHBRB=HBB/WTOT
|
|
HHBRL=HLL/WTOT
|
|
HHBRM=HMM/WTOT
|
|
HHBRS=HSS/WTOT
|
|
HHBRC=HCC/WTOT
|
|
HHBRG=HGG/WTOT
|
|
HHBRGA=HGA/WTOT
|
|
HHBRZGA=HZGA/WTOT
|
|
HHBRW=HWW/WTOT
|
|
HHBRZ=HZZ/WTOT
|
|
HHBRH=HHH/WTOT
|
|
HHBRA=HAA/WTOT
|
|
HHBRAZ=HAZ/WTOT
|
|
HHBRHW=HHW/WTOT
|
|
DO 841 I=1,2
|
|
DO 841 J=1,2
|
|
HHBRSC(I,J)=WHHCH(I,J)/WTOT
|
|
841 CONTINUE
|
|
DO 842 I=1,4
|
|
DO 842 J=1,4
|
|
HHBRSN(I,J)=WHHNE(I,J)/WTOT
|
|
842 CONTINUE
|
|
HHBRCHT=WHHCHT/WTOT
|
|
HHBRNET=WHHNET/WTOT
|
|
HHBRSL=WHHSLT/WTOT
|
|
HHBRSQ=WHHSQ/WTOT
|
|
HHBRSQT=WHHSQT/WTOT
|
|
DO 843 I=1,2
|
|
DO 843 J=1,2
|
|
HHBRST(I,J)=WHHST(I,J)/WTOT
|
|
843 CONTINUE
|
|
DO 844 I=1,2
|
|
DO 844 J=1,2
|
|
HHBRSB(I,J)=WHHSB(I,J)/WTOT
|
|
844 CONTINUE
|
|
HHBRGD =WHHGDT/WTOT
|
|
HHWDTH=WTOT
|
|
|
|
BHHSLNL = WHHSLNL/WTOT
|
|
BHHSLEL = WHHSLEL/WTOT
|
|
BHHSLER = WHHSLER/WTOT
|
|
BHHSQUL = WHHSQUL/WTOT
|
|
BHHSQUR = WHHSQUR/WTOT
|
|
BHHSQDL = WHHSQDL/WTOT
|
|
BHHSQDR = WHHSQDR/WTOT
|
|
DO I = 1,2
|
|
DO J = 1,2
|
|
BHHST(I,J) = WHHST(I,J)/WTOT
|
|
BHHSB(I,J) = WHHSB(I,J)/WTOT
|
|
BHHSTAU(I,J) = WHHSTAU( I,J)/WTOT
|
|
ENDDO
|
|
ENDDO
|
|
|
|
ENDIF
|
|
|
|
IF(IHIGGS.EQ.3.OR.IHIGGS.EQ.5)THEN
|
|
C
|
|
C =========================================================
|
|
C CP ODD HIGGS DECAYS
|
|
C =========================================================
|
|
C ============= RUNNING MASSES
|
|
RMS = RUNM_HDEC(AMA,3,0)
|
|
RMC = RUNM_HDEC(AMA,4,0)
|
|
RMB = RUNM_HDEC(AMA,5,1)
|
|
RMT = RUNM_HDEC(AMA,6,1)
|
|
RATCOUP = GAT/GAB
|
|
HIGTOP = AMA**2/AMT**2
|
|
|
|
ASH=ALPHAS_HDEC(AMA,3)
|
|
AMC0=1.D8
|
|
AMB0=2.D8
|
|
C AMT0=3.D8
|
|
AS3=ALPHAS_HDEC(AMA,3)
|
|
AMC0=AMC
|
|
AS4=ALPHAS_HDEC(AMA,3)
|
|
AMB0=AMB
|
|
C AMT0=AMT
|
|
|
|
C =============== PARTIAL WIDTHS
|
|
C A ---> G G
|
|
EPS=1.D-8
|
|
NFEXT = 3
|
|
ASG = AS3
|
|
CTT = 4*AMT**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*AMB**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CAT = CTT*CF(CTT)*GAT
|
|
CAB = CTB*CF(CTB)*GAB
|
|
CTC = 4*AMC**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CAC = CTC*CF(CTC)*GAT
|
|
FQCD=AGGQCD(ASG,NFEXT)
|
|
XFAC = CDABS(CAT+CAB+CAC)**2*FQCD
|
|
HGG=GF/(16.D0*PI*DSQRT(2.D0))*AMA**3*(ASG/PI)**2*XFAC
|
|
|
|
c print*
|
|
c print*,'A decay widths'
|
|
c print*,'hgg_NLO',hgg
|
|
|
|
C A ---> G G* ---> G CC TO BE ADDED TO A ---> CC
|
|
NFEXT = 4
|
|
ASG = AS4
|
|
FQCD=AGGQCD(ASG,NFEXT)
|
|
XFAC = CDABS(CAT+CAB+CAC)**2*FQCD
|
|
DCC=GF/(16.D0*PI*DSQRT(2.D0))*AMA**3*(ASG/PI)**2*XFAC
|
|
. - HGG
|
|
|
|
C A ---> G G* ---> G BB TO BE ADDED TO A ---> BB
|
|
NFEXT = 5
|
|
ASG = ASH
|
|
FQCD=AGGQCD(ASG,NFEXT)
|
|
XFAC = CDABS(CAT+CAB+CAC)**2*FQCD
|
|
DBB=GF/(16.D0*PI*DSQRT(2.D0))*AMA**3*(ASG/PI)**2*XFAC
|
|
. - HGG - DCC
|
|
HGG=GF/(16.D0*PI*DSQRT(2.D0))*AMA**3*(ASG/PI)**2*XFAC
|
|
|
|
C A ---> G G: FULL NNLO CORRECTIONS TO TOP LOOPS FOR NF=5
|
|
FQCD0=AGGQCD(ASG,5)
|
|
FQCD=AGGQCD2(ASG,5,AMA,AMT)
|
|
XFAC = CDABS(CAT+CAB+CAC)**2*(FQCD-FQCD0)
|
|
HGG=HGG+GF/(16.D0*PI*DSQRT(2.D0))*AMA**3*(ASG/PI)**2*XFAC
|
|
|
|
IF(NFGG.EQ.3)THEN
|
|
HGG = HGG - DBB - DCC
|
|
ELSEIF(NFGG.EQ.4)THEN
|
|
HGG = HGG - DBB
|
|
DCC = 0
|
|
ELSE
|
|
DCC = 0
|
|
DBB = 0
|
|
ENDIF
|
|
|
|
c write(6,*)AMA,FQCD0-1,FQCD-FQCD0
|
|
c print*,'hgg_NNLO',hgg
|
|
|
|
C A ---> MU MU
|
|
XGLM = GLB
|
|
XGHM = GHB
|
|
XGAM = GAB
|
|
if(i2hdm.eq.1) then
|
|
xgam = galep
|
|
endif
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STAUSUSY_HDEC(GLB,GHB,GAB,XGLM,XGHM,XGAM,QSUSY,0)
|
|
ENDIF
|
|
IF(AMA.LE.2*AMMUON) THEN
|
|
HMM = 0
|
|
ELSE
|
|
HMM=AFF(AMA,(AMMUON/AMA)**2)*XGAM**2
|
|
ENDIF
|
|
|
|
c print*,'A -> mumu',hmm
|
|
|
|
C A ---> LL
|
|
XGLT = GLB
|
|
XGHT = GHB
|
|
XGAT = GAB
|
|
if(i2hdm.eq.1) then
|
|
xgat = galep
|
|
endif
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STAUSUSY_HDEC(GLB,GHB,GAB,XGLT,XGHT,XGAT,QSUSY,1)
|
|
ENDIF
|
|
IF(AMA.LE.2*AMTAU) THEN
|
|
HLL = 0
|
|
ELSE
|
|
HLL=AFF(AMA,(AMTAU/AMA)**2)*XGAT**2
|
|
ENDIF
|
|
|
|
as5 = ash
|
|
amc0=1.d8
|
|
amb0=2.d8
|
|
as3=alphas_hdec(ama,3)
|
|
amc0=amc
|
|
as4=alphas_hdec(ama,3)
|
|
amb0=amb
|
|
c write(6,*)'A: tau/mu: ',HLL/HMM*AMMUON**2/AMTAU**2,XGAT**2/XGAM**2
|
|
c print*,'A -> tautau',hll
|
|
C A --> SS
|
|
ash = as3
|
|
XGLS = GLB
|
|
XGHS = GHB
|
|
XGAS = GAB
|
|
SSUSY = (AMSD(1)+AMSD(2)+AMGLU)/3*QSUSY
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CALL STRSUSY_HDEC(GLB,GHB,GAB,XGLS,XGHS,XGAS,SSUSY,LOOP)
|
|
ENDIF
|
|
IF(AMA.LE.2*AMS) THEN
|
|
HSS = 0
|
|
ELSE
|
|
HS1=3.D0*AFF(AMA,(AMS/AMA)**2)
|
|
. *XGAS**2
|
|
. *TQCDA(AMS**2/AMA**2)
|
|
HS2=3.D0*AFF(AMA,(RMS/AMA)**2)
|
|
. *XGAS**2
|
|
. *QCDA(RMS**2/AMA**2,5)
|
|
IF(HS2.LT.0.D0) HS2 = 0
|
|
RAT = 2*AMS/AMA
|
|
HSS = QQINT_HDEC(RAT,HS1,HS2)
|
|
ENDIF
|
|
|
|
c print*,'A -> ss',hs1,hs2
|
|
C A --> CC
|
|
ash = as4
|
|
RATCOUP = 1
|
|
IF(AMA.LE.2*AMC) THEN
|
|
HCC = 0
|
|
ELSE
|
|
HC1=3.D0*AFF(AMA,(AMC/AMA)**2)
|
|
. *GAT**2
|
|
. *TQCDA(AMC**2/AMA**2)
|
|
HC2=3.D0*AFF(AMA,(RMC/AMA)**2)
|
|
. *GAT**2
|
|
. *QCDA(RMC**2/AMA**2,5)
|
|
. + DCC
|
|
IF(HC2.LT.0.D0) HC2 = 0
|
|
RAT = 2*AMC/AMA
|
|
HCC = QQINT_HDEC(RAT,HC1,HC2)
|
|
ENDIF
|
|
|
|
c print*,'A -> cc',hcc
|
|
|
|
C A --> BB :
|
|
ash = as5
|
|
QQ = AMB
|
|
SUSY = 0
|
|
XGAB = GAB
|
|
SSUSY = (AMSB(1)+AMSB(2)+AMGLU)/3*QSUSY
|
|
FSUSY = SUSYSCALE
|
|
AS0 = ALPHAS_HDEC(FSUSY,3)
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
I0 = 0
|
|
CALL DMBAPP_HDEC(I0,DGLB,DGHB,DGAB,FSUSY,LOOP)
|
|
DELB1 = -DGAB/(1+1/TGBET**2)
|
|
DELB0 = DELB1/(1-DELB1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
I0 = 1
|
|
CALL DMBAPP_HDEC(I0,DGLB,DGHB,DGAB,FSUSY,LOOP)
|
|
I0 = 3
|
|
BSC = (AMSQ+AMUR+AMDR)/3
|
|
C XMB = RUNM_HDEC(FSUSY,5,0)/(1+DELB0)
|
|
XMB = AMB
|
|
c1357
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
if(islhai.ne.0) XMB = AMB
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
SUSY = COFSUSY_HDEC(I0,AMB,XMB,QQ)*AS0/PI - 2*DGAB
|
|
CALL BOTSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,SSUSY,LOOP)
|
|
ENDIF
|
|
RATCOUP = GAT/XGAB
|
|
IF(AMA.LE.2*AMB) THEN
|
|
HBB = 0
|
|
ELSE
|
|
HB1=3.D0*AFF(AMA,(AMB/AMA)**2)
|
|
. *(XGAB**2+XGAB*GAB*SUSY)
|
|
. *TQCDA(AMB**2/AMA**2)
|
|
HB2=3.D0*AFF(AMA,(RMB/AMA)**2)
|
|
. *(XGAB**2+XGAB*GAB*SUSY)
|
|
. *QCDA(RMB**2/AMA**2,5)
|
|
. + DBB
|
|
IF(HB2.LT.0.D0) HB2 = 0
|
|
RAT = 2*AMB/AMA
|
|
HBB = QQINT_HDEC(RAT,HB1,HB2)
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XXX = COFSUSY_HDEC(I0,AMB,XMB,QQ)
|
|
c write(1,*)'A -> bb: ',XXX*AS0/PI
|
|
c write(1,*)'A -> bb: ',2*DGAB
|
|
c write(1,*)'A -> bb: ',GAB,XGAB,SUSY
|
|
c write(6,('A3,4(1X,G15.8)'))'A: ',AMA,AMA,SUSY+2*DGAB,
|
|
c . SUSY/(SUSY+2*DGAB)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
ENDIF
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'A -> bb: ',XGAB**2,XGAB*GAB*SUSY/XGAB**2,
|
|
c . (XGAB**2+XGAB*GAB*SUSY)/XGAB**2
|
|
c write(6,*)'approx: ',SUSY+2*DGAB,2*DGAB,SUSY
|
|
c FAC = AS0/PI
|
|
c write(6,*)'approx2: ',(SUSY+2*DGAB)/FAC,2*DGAB/FAC,SUSY/FAC
|
|
c write(52,*)AMA,HBB
|
|
c write(6,*)'A -> bb: ',AMA,HBB,QSUSY1,LOOP
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
c print*,'A -> bb',hbb
|
|
c print*
|
|
c print*,'A -> bb:',hbb,gab,xgab,gab*susy,2*dgab,susy,2*dgab+susy
|
|
C A --> TT :
|
|
RATCOUP = 0
|
|
CALL TOPSUSY_HDEC(GLT,GHT,GAT,XGLTOP,XGHTOP,XGATOP,SCALE,1)
|
|
c write(6,*)xgltop,xghtop,xgatop
|
|
IF(IONSH.EQ.0)THEN
|
|
DLD=3D0
|
|
DLU=4D0
|
|
XM1 = 2D0*AMT-DLD
|
|
XM2 = 2D0*AMT+DLU
|
|
IF (AMA.LE.AMT+AMW+AMB) THEN
|
|
HTT=0.D0
|
|
ELSEIF (AMA.LE.XM1) THEN
|
|
FACTT=6.D0*GF**2*AMA**3*AMT**2/2.D0/128.D0/PI**3*GAT**2
|
|
call ATOTT_HDEC(ama,amt,amb,amw,amch,att0,gab,gat)
|
|
HTT=FACTT*ATT0
|
|
ELSEIF (AMA.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
FACTT=6.D0*GF**2*XX(1)**3*AMT**2/2.D0/128.D0/PI**3
|
|
call ATOTT_HDEC(xx(1),amt,amb,amw,amch,att0,gab,gat)
|
|
YY(1)=FACTT*ATT0
|
|
FACTT=6.D0*GF**2*XX(2)**3*AMT**2/2.D0/128.D0/PI**3
|
|
call ATOTT_HDEC(xx(2),amt,amb,amw,amch,att0,gab,gat)
|
|
YY(2)=FACTT*ATT0
|
|
XMT = RUNM_HDEC(XX(3),6,1)
|
|
XYZ1 =3.D0*AFF(XX(3),(AMT/XX(3))**2)
|
|
. *TQCDA(AMT**2/XX(3)**2)
|
|
XYZ2 =3.D0*AFF(XX(3),(XMT/XX(3))**2)
|
|
. *QCDA(XMT**2/XX(3)**2,5)
|
|
IF(XYZ2.LT.0.D0) XYZ2 = 0
|
|
RAT = 2*AMT/XX(3)
|
|
YY(3) = QQINT_HDEC(RAT,XYZ1,XYZ2)
|
|
XMT = RUNM_HDEC(XX(4),6,1)
|
|
XYZ1 =3.D0*AFF(XX(4),(AMT/XX(4))**2)
|
|
. *TQCDA(AMT**2/XX(4)**2)
|
|
XYZ2 =3.D0*AFF(XX(4),(XMT/XX(4))**2)
|
|
. *QCDA(XMT**2/XX(4)**2,5)
|
|
IF(XYZ2.LT.0.D0) XYZ2 = 0
|
|
RAT = 2*AMT/XX(4)
|
|
YY(4) = QQINT_HDEC(RAT,XYZ1,XYZ2)
|
|
HTT = FINT_HDEC(AMA,XX,YY)*GAT**2
|
|
ELSE
|
|
HT1=3.D0*AFF(AMA,(AMT/AMA)**2)*GAT**2
|
|
. *TQCDA(AMT**2/AMA**2)
|
|
HT2=3.D0*AFF(AMA,(RMT/AMA)**2)*GAT**2
|
|
. *QCDA(RMT**2/AMA**2,5)
|
|
IF(HT2.LT.0.D0) HT2 = 0
|
|
RAT = 2*AMT/AMA
|
|
HTT = QQINT_HDEC(RAT,HT1,HT2)
|
|
ENDIF
|
|
ELSE
|
|
IF (AMA.LE.2.D0*AMT) THEN
|
|
HTT=0.D0
|
|
ELSE
|
|
HT1=3.D0*AFF(AMA,(AMT/AMA)**2)*GAT**2
|
|
. *TQCDA(AMT**2/AMA**2)
|
|
HT2=3.D0*AFF(AMA,(RMT/AMA)**2)*GAT**2
|
|
. *QCDA(RMT**2/AMA**2,5)
|
|
IF(HT2.LT.0.D0) HT2 = 0
|
|
RAT = 2*AMT/AMA
|
|
HTT = QQINT_HDEC(RAT,HT1,HT2)
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c print*,'A -> tt',htt
|
|
|
|
C A ---> GAMMA GAMMA
|
|
EPS=1.D-8
|
|
XRMC = RUNM_HDEC(AMA/2,4,0)*AMC/RUNM_HDEC(AMC,4,0)
|
|
XRMB = RUNM_HDEC(AMA/2,5,1)*AMB/RUNM_HDEC(AMB,5,1)
|
|
XRMT = RUNM_HDEC(AMA/2,6,1)*AMT/RUNM_HDEC(AMT,6,1)
|
|
CTT = 4*XRMT**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*XRMB**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CAT = 4/3D0 * CTT*CF(CTT)*GAT
|
|
. * CFACQ_HDEC(1,AMA,XRMT)
|
|
CAB = 1/3D0 * CTB*CF(CTB)*GAB
|
|
. * CFACQ_HDEC(1,AMA,XRMB)
|
|
CTC = 4*XRMC**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CAC = 4/3D0 * CTC*CF(CTC)*GAT
|
|
. * CFACQ_HDEC(1,AMA,XRMC)
|
|
CTL = 4*AMTAU**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CAL = 1.D0 * CTL*CF(CTL)*GAB
|
|
if(i2hdm.eq.1) then
|
|
CAL = 1.D0 * CTL*CF(CTL)*galep
|
|
endif
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
CX1 = 4*AMCHAR(1)**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CX2 = 4*AMCHAR(2)**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CAX1= AMW/XMCHAR(1) * CX1*CF(CX1) * 2*AC3(1,1)
|
|
CAX2= AMW/XMCHAR(2) * CX2*CF(CX2) * 2*AC3(2,2)
|
|
XFAC = CDABS(CAT+CAB+CAC+CAL+CAX1+CAX2)**2
|
|
ELSE
|
|
XFAC = CDABS(CAT+CAB+CAC+CAL)**2
|
|
ENDIF
|
|
HGA=GF/(32.D0*PI*DSQRT(2.D0))*AMA**3*(ALPH/PI)**2*XFAC
|
|
|
|
c print*,'A -> gamgam',hga
|
|
C A ---> Z GAMMA
|
|
XRMC = RUNM_HDEC(AMA/2,4,0)*AMC/RUNM_HDEC(AMC,4,0)
|
|
XRMB = RUNM_HDEC(AMA/2,5,1)*AMB/RUNM_HDEC(AMB,5,1)
|
|
XRMT = RUNM_HDEC(AMA/2,6,1)*AMT/RUNM_HDEC(AMT,6,1)
|
|
c print*,'xrmc,xrmb,xrmt ',xrmc,xrmb,xrmt
|
|
IF(AMA.LE.AMZ)THEN
|
|
HZGA=0
|
|
ELSE
|
|
TS = SS/CS
|
|
FT = -3*2D0/3*(1-4*2D0/3*SS)/DSQRT(SS*CS)*GAT
|
|
FB = 3*1D0/3*(-1+4*1D0/3*SS)/DSQRT(SS*CS)*GAB
|
|
FC = -3*2D0/3*(1-4*2D0/3*SS)/DSQRT(SS*CS)*GAT
|
|
FL = (-1+4*SS)/DSQRT(SS*CS)*GAB
|
|
if(i2hdm.eq.1) then
|
|
FL = (-1+4*SS)/DSQRT(SS*CS)*galep
|
|
endif
|
|
EPS=1.D-8
|
|
c CTT = 4*XRMT**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
c CTB = 4*XRMB**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
c CTC = 4*XRMC**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CTT = 4*AMT**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CTB = 4*AMB**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CTC = 4*AMC**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
CTL = 4*AMTAU**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
c CLT = 4*XRMT**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
c CLB = 4*XRMB**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
c CLC = 4*XRMC**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLT = 4*AMT**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLB = 4*AMB**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLC = 4*AMC**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CLE = 4*AMTAU**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
CAT = FT*(- CI2(CTT,CLT))
|
|
CAB = FB*(- CI2(CTB,CLB))
|
|
CAC = FC*(- CI2(CTC,CLC))
|
|
CAL = FL*(- CI2(CTL,CLE))
|
|
c
|
|
c CTC = 4*AMC**2/AMA**2*DCMPLX(1D0,-EPS)
|
|
c CLC = 4*AMC**2/AMZ**2*DCMPLX(1D0,-EPS)
|
|
c CAC = FT*(- CI2(CTC,CLC))
|
|
c
|
|
XFAC = CDABS(CAT+CAB+CAC+CAL)**2
|
|
ACOUP = DSQRT(2D0)*GF*AMZ**2*SS*CS/PI**2
|
|
HZGA = GF/(4.D0*PI*DSQRT(2.D0))*AMA**3*(ALPH/PI)*ACOUP/16.D0
|
|
. *XFAC*(1-AMZ**2/AMA**2)**3
|
|
ENDIF
|
|
|
|
c print*,'A -> Zgam',hzga
|
|
C A ---> h Z* ---> HFF
|
|
IF(IONSH.EQ.0)THEN
|
|
DLD=3D0
|
|
DLU=5D0
|
|
XM1 = AML+AMZ-DLD
|
|
XM2 = AML+AMZ+DLU
|
|
IF (AMA.LE.AML) THEN
|
|
HAZ=0
|
|
ELSEIF (AMA.LE.XM1) THEN
|
|
IF (AMA.LE.DABS(AMZ-AML)) THEN
|
|
HAZ=0
|
|
ELSE
|
|
HAZ=9.D0*GF**2/8.D0/PI**3*AMZ**4*AMA*GZAL**2*
|
|
. (7.D0/12.D0-10.D0/9.D0*SS+40.D0/27.D0*SS**2)
|
|
. *HVH((AML/AMA)**2,(AMZ/AMA)**2)
|
|
ENDIF
|
|
ELSEIF (AMA.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1)=9.D0*GF**2/8.D0/PI**3*AMZ**4*XX(1)*
|
|
. (7.D0/12.D0-10.D0/9.D0*SS+40.D0/27.D0*SS**2)
|
|
. *HVH((AML/XX(1))**2,(AMZ/XX(1))**2)
|
|
YY(2)=9.D0*GF**2/8.D0/PI**3*AMZ**4*XX(2)*
|
|
. (7.D0/12.D0-10.D0/9.D0*SS+40.D0/27.D0*SS**2)
|
|
. *HVH((AML/XX(2))**2,(AMZ/XX(2))**2)
|
|
CAZ=LAMB_HDEC(AML**2/XX(3)**2,AMZ**2/XX(3)**2)
|
|
. *LAMB_HDEC(XX(3)**2/AMZ**2,AML**2/AMZ**2)**2
|
|
YY(3)=GF/8D0/DSQRT(2D0)/PI*AMZ**4/XX(3)*CAZ
|
|
CAZ=LAMB_HDEC(AML**2/XX(4)**2,AMZ**2/XX(4)**2)
|
|
. *LAMB_HDEC(XX(4)**2/AMZ**2,AML**2/AMZ**2)**2
|
|
YY(4)=GF/8D0/DSQRT(2D0)/PI*AMZ**4/XX(4)*CAZ
|
|
HAZ = FINT_HDEC(AMA,XX,YY)*GZAL**2
|
|
ELSE
|
|
CAZ=LAMB_HDEC(AML**2/AMA**2,AMZ**2/AMA**2)
|
|
. *LAMB_HDEC(AMA**2/AMZ**2,AML**2/AMZ**2)**2
|
|
HAZ=GF/8D0/DSQRT(2D0)/PI*AMZ**4/AMA*GZAL**2*CAZ
|
|
ENDIF
|
|
ELSE
|
|
IF (AMA.LE.AMZ+AML) THEN
|
|
HAZ=0
|
|
ELSE
|
|
CAZ=LAMB_HDEC(AML**2/AMA**2,AMZ**2/AMA**2)
|
|
. *LAMB_HDEC(AMA**2/AMZ**2,AML**2/AMZ**2)**2
|
|
HAZ=GF/8D0/DSQRT(2D0)/PI*AMZ**4/AMA*GZAL**2*CAZ
|
|
ENDIF
|
|
ENDIF
|
|
|
|
c print*,'A -> Zh',haz
|
|
|
|
c MMM changed 23/8/2013
|
|
C A ---> H Z* ---> HFF
|
|
if(i2hdm.eq.1) then
|
|
IF(IONSH.EQ.0)THEN
|
|
DLD=3D0
|
|
DLU=5D0
|
|
XM1 = AMH+AMZ-DLD
|
|
XM2 = AMH+AMZ+DLU
|
|
IF (AMA.LE.AMH) THEN
|
|
HHAZ=0
|
|
ELSEIF (AMA.LE.XM1) THEN
|
|
IF (AMA.LE.DABS(AMZ-AMH)) THEN
|
|
HHAZ=0
|
|
ELSE
|
|
HHAZ=9.D0*GF**2/8.D0/PI**3*AMZ**4*AMA*GZAH**2*
|
|
. (7.D0/12.D0-10.D0/9.D0*SS+40.D0/27.D0*SS**2)
|
|
. *HVH((AMH/AMA)**2,(AMZ/AMA)**2)
|
|
ENDIF
|
|
ELSEIF (AMA.LE.XM2) THEN
|
|
XX(1) = XM1-1D0
|
|
XX(2) = XM1
|
|
XX(3) = XM2
|
|
XX(4) = XM2+1D0
|
|
YY(1)=9.D0*GF**2/8.D0/PI**3*AMZ**4*XX(1)*
|
|
. (7.D0/12.D0-10.D0/9.D0*SS+40.D0/27.D0*SS**2)
|
|
. *HVH((AMH/XX(1))**2,(AMZ/XX(1))**2)
|
|
YY(2)=9.D0*GF**2/8.D0/PI**3*AMZ**4*XX(2)*
|
|
. (7.D0/12.D0-10.D0/9.D0*SS+40.D0/27.D0*SS**2)
|
|
. *HVH((AMH/XX(2))**2,(AMZ/XX(2))**2)
|
|
CAZ=LAMB_HDEC(AMH**2/XX(3)**2,AMZ**2/XX(3)**2)
|
|
. *LAMB_HDEC(XX(3)**2/AMZ**2,AMH**2/AMZ**2)**2
|
|
YY(3)=GF/8D0/DSQRT(2D0)/PI*AMZ**4/XX(3)*CAZ
|
|
CAZ=LAMB_HDEC(AMH**2/XX(4)**2,AMZ**2/XX(4)**2)
|
|
. *LAMB_HDEC(XX(4)**2/AMZ**2,AMH**2/AMZ**2)**2
|
|
YY(4)=GF/8D0/DSQRT(2D0)/PI*AMZ**4/XX(4)*CAZ
|
|
HHAZ = FINT_HDEC(AMA,XX,YY)*GZAH**2
|
|
ELSE
|
|
CAZ=LAMB_HDEC(AMH**2/AMA**2,AMZ**2/AMA**2)
|
|
. *LAMB_HDEC(AMA**2/AMZ**2,AMH**2/AMZ**2)**2
|
|
HHAZ=GF/8D0/DSQRT(2D0)/PI*AMZ**4/AMA*GZAH**2*CAZ
|
|
ENDIF
|
|
ELSE
|
|
IF (AMA.LE.AMZ+AMH) THEN
|
|
HHAZ=0
|
|
ELSE
|
|
CAZ=LAMB_HDEC(AMH**2/AMA**2,AMZ**2/AMA**2)
|
|
. *LAMB_HDEC(AMA**2/AMZ**2,AMH**2/AMZ**2)**2
|
|
HHAZ=GF/8D0/DSQRT(2D0)/PI*AMZ**4/AMA*GZAH**2*CAZ
|
|
ENDIF
|
|
ENDIF
|
|
endif
|
|
|
|
if(i2hdm.eq.0) then
|
|
HHAZ=0.D0
|
|
endif
|
|
|
|
c print*,'A -> ZH',hhaz
|
|
|
|
C A ---> W+ H-
|
|
if(i2hdm.eq.1) then
|
|
if(ionsh.eq.0)then
|
|
dld=3d0
|
|
dlu=5d0
|
|
xm1 = amw+amch-dld
|
|
xm2 = amw+amch+dlu
|
|
if (ama.lt.amch) then
|
|
hawphm=0
|
|
elseif (ama.le.xm1) then
|
|
if(ama.le.dabs(amw-amch))then
|
|
hawphm=0
|
|
else
|
|
hawphm=9.d0*gf**2/16.d0/pi**3*amw**4*ama
|
|
. *hvh((amch/ama)**2,(amw/ama)**2)
|
|
endif
|
|
elseif (ama.lt.xm2) then
|
|
xx(1) = xm1-1d0
|
|
xx(2) = xm1
|
|
xx(3) = xm2
|
|
xx(4) = xm2+1d0
|
|
yy(1) = 9.d0*gf**2/16.d0/pi**3*amw**4*xx(1)
|
|
. *hvh((amch/xx(1))**2,(amw/xx(1))**2)
|
|
yy(2) = 9.d0*gf**2/16.d0/pi**3*amw**4*xx(2)
|
|
. *hvh((amch/xx(2))**2,(amw/xx(2))**2)
|
|
cwh=lamb_hdec(amch**2/xx(3)**2,amw**2/xx(3)**2)
|
|
. *lamb_hdec(xx(3)**2/amw**2,amch**2/amw**2)**2
|
|
yy(3)=gf/8.d0/dsqrt(2d0)/pi*amw**4/xx(3)*cwh
|
|
cwh=lamb_hdec(amch**2/xx(4)**2,amw**2/xx(4)**2)
|
|
. *lamb_hdec(xx(4)**2/amw**2,amch**2/amw**2)**2
|
|
yy(4)=gf/8.d0/dsqrt(2d0)/pi*amw**4/xx(4)*cwh
|
|
hawphm = fint_hdec(ama,xx,yy)
|
|
else
|
|
cwh=lamb_hdec(amch**2/ama**2,amw**2/ama**2)
|
|
. *lamb_hdec(ama**2/amw**2,amch**2/amw**2)**2
|
|
hawphm=gf/8.d0/dsqrt(2d0)/pi*amw**4/ama*cwh
|
|
endif
|
|
else
|
|
if (ama.lt.amw+amch) then
|
|
hawphm=0
|
|
else
|
|
cwh=lamb_hdec(amch**2/ama**2,amw**2/ama**2)
|
|
. *lamb_hdec(ama**2/amw**2,amch**2/amw**2)**2
|
|
hawphm=gf/8.d0/dsqrt(2d0)/pi*amw**4/ama*cwh
|
|
endif
|
|
endif
|
|
endif
|
|
|
|
if(i2hdm.eq.0) then
|
|
hawphm = 0.D0
|
|
endif
|
|
|
|
hawphm = 2.D0*hawphm
|
|
|
|
c print*,'A -> W+H- + W-H+',hawphm,hawphm/2.D0
|
|
c end MMM changed 23/8/2013
|
|
|
|
C
|
|
C ========================== SUSY DECAYS
|
|
C
|
|
IF(IOFSUSY.EQ.0) THEN
|
|
C A ----> CHARGINOS
|
|
DO 731 I=1,2
|
|
DO 731 J=1,2
|
|
IF (AMA.GT.AMCHAR(I)+AMCHAR(J)) THEN
|
|
WHACH(I,J)=GF*AMW**2/(2*PI*DSQRT(2.D0))/AMA
|
|
. *LAMB_HDEC(AMCHAR(I)**2/AMA**2,AMCHAR(J)**2/AMA**2)
|
|
. *( (AC3(I,J)**2+AC3(J,I)**2)*(AMA**2-AMCHAR(I)
|
|
. **2-AMCHAR(J)**2)+4.D0*AC3(I,J)*AC3(J,I)*
|
|
. XMCHAR(I)*XMCHAR(J) )
|
|
ELSE
|
|
WHACH(I,J)=0.D0
|
|
ENDIF
|
|
731 CONTINUE
|
|
WHACHT=WHACH(1,1)+WHACH(1,2)+WHACH(2,1)+WHACH(2,2)
|
|
C A ----> NEUTRALINOS
|
|
DO 732 I=1,4
|
|
DO 732 J=1,4
|
|
IF (AMA.GT.AMNEUT(I)+AMNEUT(J)) THEN
|
|
WHANE(I,J)=GF*AMW**2/(2*PI*DSQRT(2.D0))/AMA
|
|
. *AN3(I,J)**2*(AMA**2-(XMNEUT(I)-XMNEUT(J))**2)
|
|
. *LAMB_HDEC(AMNEUT(I)**2/AMA**2,AMNEUT(J)**2/AMA**2)
|
|
ELSE
|
|
WHANE(I,J)=0.D0
|
|
ENDIF
|
|
732 CONTINUE
|
|
WHANET= WHANE(1,1)+WHANE(1,2)+WHANE(1,3)+WHANE(1,4)
|
|
. +WHANE(2,1)+WHANE(2,2)+WHANE(2,3)+WHANE(2,4)
|
|
. +WHANE(3,1)+WHANE(3,2)+WHANE(3,3)+WHANE(3,4)
|
|
. +WHANE(4,1)+WHANE(4,2)+WHANE(4,3)+WHANE(4,4)
|
|
|
|
C A ----> STAU'S
|
|
C
|
|
IF(AMA.GT.AMSL(1)+AMSL(2)) THEN
|
|
WHASL=GF*AMZ**4/DSQRT(2.D0)/PI*GAEE**2*
|
|
. LAMB_HDEC(AMSL(1)**2/AMA**2,AMSL(2)**2/AMA**2)/AMA
|
|
ELSE
|
|
WHASL=0.D0
|
|
ENDIF
|
|
C
|
|
C A ----> STOPS
|
|
C
|
|
SUSY = 1
|
|
c QSQ = (YMST(1)+YMST(2))/2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c DO K=-10,10
|
|
c QSQ = AMA*10.D0**(K/10.D0)
|
|
c DO K=-1,1
|
|
c QSQ = AMA*2.D0**(K)
|
|
c IF(AMA.GT.YMST(1)+YMST(2)) THEN
|
|
c CALL SQMBAPP_HDEC(QSQ)
|
|
c SUSY = 1+SQSUSY_HDEC(3,1,1,2,QSQ,0,1)
|
|
c WHAST0=3*GF*AMZ**4/DSQRT(2.D0)/PI*YATT**2*
|
|
c . LAMB_HDEC(YMST(1)**2/AMA**2,YMST(2)**2/AMA**2)/AMA
|
|
c WHAST=3*GF*AMZ**4/DSQRT(2.D0)/PI*YATT**2*
|
|
c . LAMB_HDEC(YMST(1)**2/AMA**2,YMST(2)**2/AMA**2)/AMA
|
|
c . *SUSY
|
|
c ELSE
|
|
c WHAST=0.D0
|
|
c ENDIF
|
|
c write(9,*)'A -> t1 t2: ',QSQ/AMA,WHAST0,WHAST
|
|
c write(903,('1X,G10.4,2(1X,G10.4)'))QSQ/AMA,WHAST0,WHAST
|
|
c ENDDO
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
QSQ = AMA
|
|
IF(AMA.GT.YMST(1)+YMST(2)) THEN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CALL SQMBAPP_HDEC(QSQ)
|
|
SUSY = 1+SQSUSY_HDEC(3,1,1,2,QSQ,0,1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
WHAST=3*GF*AMZ**4/DSQRT(2.D0)/PI*YATT**2*
|
|
. LAMB_HDEC(YMST(1)**2/AMA**2,YMST(2)**2/AMA**2)/AMA
|
|
. *SUSY
|
|
c write(6,*)'A -> stop: ',AMA,AMST(1),AMST(2),100*(SUSY-1),'% ',
|
|
c . WHAST/SUSY,WHAST
|
|
c write(712,*)AMA,WHAST/2,WHAST/SUSY/2
|
|
c write(721,*)AMA,WHAST/2,WHAST/SUSY/2
|
|
c write(6,*)'A -> stop: ',AMA,AMST(1),AMST(2),SUSY-1
|
|
ELSE
|
|
WHAST=0.D0
|
|
ENDIF
|
|
C
|
|
C A ----> SBOTTOMS
|
|
C
|
|
SUSY = 1
|
|
c QSQ = (YMSB(1)+YMSB(2))/2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c DO K=-10,10
|
|
c QSQ = AMA*10.D0**(K/10.D0)
|
|
c DO K=-1,1
|
|
c QSQ = AMA*2.D0**(K)
|
|
c IF(AMA.GT.YMSB(1)+YMSB(2)) THEN
|
|
c CALL SQMBAPP_HDEC(QSQ)
|
|
c SUSY = 1+SQSUSY_HDEC(3,2,1,2,QSQ,0,1)
|
|
c WHASB0=3*GF*AMZ**4/DSQRT(2.D0)/PI*YABB**2*
|
|
c . LAMB_HDEC(YMSB(1)**2/AMA**2,YMSB(2)**2/AMA**2)/AMA
|
|
c WHASB=3*GF*AMZ**4/DSQRT(2.D0)/PI*YABB**2*
|
|
c . LAMB_HDEC(YMSB(1)**2/AMA**2,YMSB(2)**2/AMA**2)/AMA
|
|
c . *SUSY
|
|
c ELSE
|
|
c WHASB=0.D0
|
|
c ENDIF
|
|
c write(9,*)'A -> b1 b2: ',QSQ/AMA,WHASB0,WHASB
|
|
c write(904,('1X,G10.4,2(1X,G10.4)'))QSQ/AMA,WHASB0,WHASB
|
|
c ENDDO
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
QSQ = AMA
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c dummy0 = 0
|
|
c dummy1 = 0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
IF(AMA.GT.YMSB(1)+YMSB(2)) THEN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CALL SQMBAPP_HDEC(QSQ)
|
|
SUSY = 1+SQSUSY_HDEC(3,2,1,2,QSQ,0,1)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
WHASB=3*GF*AMZ**4/DSQRT(2.D0)/PI*YABB**2*
|
|
. LAMB_HDEC(YMSB(1)**2/AMA**2,YMSB(2)**2/AMA**2)/AMA
|
|
. *SUSY
|
|
c write(6,*)'A -> sbot: ',AMA,YMSB(1),YMSB(2),100*(SUSY-1),'% ',
|
|
c . WHASB/SUSY,WHASB
|
|
c write(812,*)AMA,WHASB/2,WHASB/SUSY/2
|
|
c write(821,*)AMA,WHASB/2,WHASB/SUSY/2
|
|
c write(6,*)'A -> sbot: ',AMA,AMSB(1),AMSB(2),SUSY-1
|
|
c dummy0 = dummy0 + WHASB/SUSY
|
|
c dummy1 = dummy1 + WHASB
|
|
ELSE
|
|
WHASB=0.D0
|
|
ENDIF
|
|
c write(6,*)'A -> sbot0: ',YMSB(1),YMSB(2),dummy0,dummy1,
|
|
c . 100*(dummy1/dummy0-1),'%'
|
|
C
|
|
ELSE
|
|
WHACHT=0.D0
|
|
WHANET=0.D0
|
|
WHASL=0.D0
|
|
WHAST=0.D0
|
|
WHASB=0.D0
|
|
C--Change thanks to Elzbieta Richter-Was
|
|
DO I=1,2
|
|
DO J=1,2
|
|
WHACH(I,J)=0.D0
|
|
ENDDO
|
|
ENDDO
|
|
DO I=1,4
|
|
DO J=1,4
|
|
WHANE(I,J)=0.D0
|
|
ENDDO
|
|
ENDDO
|
|
ENDIF
|
|
|
|
IF(IGOLD.NE.0)THEN
|
|
C HA ---> GOLDSTINOS
|
|
DO 730 I=1,4
|
|
IF (AMA.GT.AMNEUT(I)) THEN
|
|
WHAGD(I)=AMA**5/AXMPL**2/AXMGD**2/48.D0/PI*
|
|
. (1.D0-AMNEUT(I)**2/AMA**2)**4*AGDA(I)**2
|
|
ELSE
|
|
WHAGD(I)=0.D0
|
|
ENDIF
|
|
730 CONTINUE
|
|
WHAGDT=WHAGD(1)+WHAGD(2)+WHAGD(3)+WHAGD(4)
|
|
ELSE
|
|
WHAGDT=0
|
|
ENDIF
|
|
C
|
|
C ========== TOTAL WIDTH AND BRANCHING RATIOS
|
|
WTOT=HLL+HMM+HSS+HCC+HBB+HGG+HGA+HZGA+HAZ+HTT
|
|
. +WHACHT+WHANET+WHASL+WHAST+WHASB + WHAGDT
|
|
|
|
c MMM changed 23/8/2013
|
|
if(i2hdm.eq.1) then
|
|
wtot = wtot + hhaz + hawphm
|
|
abrhhaz = hhaz/wtot
|
|
abrhawphm = hawphm/wtot
|
|
endif
|
|
if(i2hdm.eq.0) then
|
|
abrhhaz = 0.D0
|
|
abrhawphm = 0.D0
|
|
endif
|
|
c end MMM changed 23/8/2013
|
|
|
|
c print*,'wtot',wtot
|
|
|
|
ABRT=HTT/WTOT
|
|
ABRB=HBB/WTOT
|
|
ABRL=HLL/WTOT
|
|
ABRM=HMM/WTOT
|
|
ABRS=HSS/WTOT
|
|
ABRC=HCC/WTOT
|
|
ABRG=HGG/WTOT
|
|
ABRGA=HGA/WTOT
|
|
ABRZGA=HZGA/WTOT
|
|
ABRZ=HAZ/WTOT
|
|
DO 831 I=1,2
|
|
DO 831 J=1,2
|
|
HABRSC(I,J)=WHACH(I,J)/WTOT
|
|
831 CONTINUE
|
|
DO 832 I=1,4
|
|
DO 832 J=1,4
|
|
HABRSN(I,J)=WHANE(I,J)/WTOT
|
|
832 CONTINUE
|
|
HABRCHT=WHACHT/WTOT
|
|
HABRNET=WHANET/WTOT
|
|
HABRSL=WHASL/WTOT
|
|
HABRST=WHAST/WTOT
|
|
HABRSB=WHASB/WTOT
|
|
HABRGD=WHAGDT/WTOT
|
|
C
|
|
AWDTH=WTOT
|
|
|
|
BHASTAU = WHASL/WTOT
|
|
BHASB = WHASB/WTOT
|
|
BHAST = WHAST/WTOT
|
|
|
|
C ==============================================================
|
|
ENDIF
|
|
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION BIJ_HDEC(X,Y)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DOUBLE PRECISION LAMB_HDEC
|
|
BIJ_HDEC = (1-X-Y)/LAMB_HDEC(X,Y)*(
|
|
. 4*SP_HDEC(XI_HDEC(X,Y)*XI_HDEC(Y,X))
|
|
. - 2*SP_HDEC(-XI_HDEC(X,Y)) - 2*SP_HDEC(-XI_HDEC(Y,X))
|
|
. + 2*DLOG(XI_HDEC(X,Y)*XI_HDEC(Y,X))
|
|
. *DLOG(1-XI_HDEC(X,Y)*XI_HDEC(Y,X))
|
|
. - DLOG(XI_HDEC(X,Y))*DLOG(1+XI_HDEC(X,Y))
|
|
. - DLOG(XI_HDEC(Y,X))*DLOG(1+XI_HDEC(Y,X))
|
|
. )
|
|
. -4*(DLOG(1-XI_HDEC(X,Y)*XI_HDEC(Y,X))
|
|
. +XI_HDEC(X,Y)*XI_HDEC(Y,X)/(1-XI_HDEC(X,Y)*XI_HDEC(Y,X))
|
|
. *DLOG(XI_HDEC(X,Y)*XI_HDEC(Y,X)))
|
|
. +(LAMB_HDEC(X,Y)+X-Y)/LAMB_HDEC(X,Y)*(DLOG(1+XI_HDEC(X,Y))
|
|
. - XI_HDEC(X,Y)/(1+XI_HDEC(X,Y))*DLOG(XI_HDEC(X,Y)))
|
|
. +(LAMB_HDEC(X,Y)-X+Y)/LAMB_HDEC(X,Y)*(DLOG(1+XI_HDEC(Y,X))
|
|
. - XI_HDEC(Y,X)/(1+XI_HDEC(Y,X))*DLOG(XI_HDEC(Y,X)))
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION BETA_HDEC(X)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
BETA_HDEC=DSQRT(1.D0-4.D0*X)
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION LAMB_HDEC(X,Y)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
LAMB_HDEC=DSQRT((1.D0-X-Y)**2-4.D0*X*Y)
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION XI_HDEC(X,Y)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DOUBLE PRECISION LAMB_HDEC
|
|
XI_HDEC = 2*X/(1-X-Y+LAMB_HDEC(X,Y))
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION ELW4_HDEC(AMNUP,AMEP,AMTP,AMBP)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
FF(X) = (1-X)*SP_HDEC(1-X)-X/(1-X)*DLOG(X)
|
|
. * (1+(3+X**2)/2/(1-X)*DLOG(X))
|
|
ELW41(AMA,X,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2
|
|
. * (7*(1+X)/6+X*DLOG(X)/(1-X))
|
|
ELW42(AMA,X,NC) = NC*GF**2*AMA**4/8/PI**4
|
|
. * ((25-29*X+25*X**2)/24
|
|
. +(6-9*X+85*X**2-47*X**3+13*X**4)/96/(1-X)*DLOG(X)
|
|
. +(1-X)**2/96/X*(13-14*X+13*X**2)*DLOG(DABS(1-X))
|
|
. -X**3*(3-X**2)/16/(1-X)**2*DLOG(X)**2
|
|
. +(1-X)/16/X*(1+X**3)*DLOG(X)*DLOG(DABS(1-X))
|
|
. -3*(1-X**2)/8*SP_HDEC(1-X)
|
|
. +NC*(11*(1+X)**2/128+13*X*(1+X)/96/(1-X)*DLOG(X)
|
|
. +3*X**2/32/(1-X)**2*DLOG(X)**2))
|
|
ELW42Q(AMA,X,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2 * CF*ALS/PI
|
|
. * (-3*(1+X)/4-FF(X)/2)
|
|
ELW410(AMA,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2 * 4/3.D0
|
|
ELW420(AMA,NC) = NC*GF**2*AMA**4/8/PI**4 * (3+2*NC)/12
|
|
ELW42Q0(AMA,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2*CF*ALS/PI*(-1)
|
|
PI = 4*DATAN(1.D0)
|
|
QQ = (AMTP+AMBP)/2
|
|
ALS = ALPHAS_HDEC(QQ,3)
|
|
CF = 4/3.D0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c CF = 0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
NC = 3
|
|
IF(AMTP.NE.AMBP)THEN
|
|
XQ1 = ELW41(AMBP,AMTP**2/AMBP**2,NC)
|
|
XQ2 = ELW42(AMBP,AMTP**2/AMBP**2,NC)
|
|
. + ELW42Q(AMBP,AMTP**2/AMBP**2,NC)
|
|
ELSE
|
|
XQ1 = ELW410(AMBP,NC)
|
|
XQ2 = ELW420(AMBP,NC) + ELW42Q0(AMBP,NC)
|
|
ENDIF
|
|
NC = 1
|
|
IF(AMEP.NE.AMNUP)THEN
|
|
XL1 = ELW41(AMEP,AMNUP**2/AMEP**2,NC)
|
|
XL2 = ELW42(AMEP,AMNUP**2/AMEP**2,NC)
|
|
ELSE
|
|
XL1 = ELW410(AMEP,NC)
|
|
XL2 = ELW420(AMEP,NC)
|
|
ENDIF
|
|
ELW4_HDEC=2*(XQ1+XL1) + 2*(XQ2+XL2) + (XQ1+XL1)**2
|
|
c write(6,*)'SM4 elw.: ',(XQ1+XL1),(XQ2+XL2)
|
|
c write(6,*)'SM4 elw. ff: ',ELW4_HDEC*100,2*(XQ1+XL1)*100,
|
|
c . (2*(XQ2+XL2)+(XQ1+XL1)**2)*100
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION ELW4V_HDEC(IV,AMNUP,AMEP,AMTP,AMBP)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
ELW41U(AMA,X,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2
|
|
. * (7*(1+X)/6+X*DLOG(X)/(1-X))
|
|
ELW41V(AMA,X,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2*(-2)*(1+X)
|
|
ELW42U(AMA,X,NC) = NC*GF**2*AMA**4/8/PI**4
|
|
. * ((25-29*X+25*X**2)/24
|
|
. +(6-9*X+85*X**2-47*X**3+13*X**4)/96/(1-X)*DLOG(X)
|
|
. +(1-X)**2/96/X*(13-14*X+13*X**2)*DLOG(DABS(1-X))
|
|
. -X**3*(3-X**2)/16/(1-X)**2*DLOG(X)**2
|
|
. +(1-X)/16/X*(1+X**3)*DLOG(X)*DLOG(DABS(1-X))
|
|
. -3*(1-X**2)/8*SP_HDEC(1-X)
|
|
. +NC*(11*(1+X)**2/128+13*X*(1+X)/96/(1-X)*DLOG(X)
|
|
. +3*X**2/32/(1-X)**2*DLOG(X)**2))
|
|
ELW42W(AMA,X,NC) = NC*GF**2*AMA**4/8/PI**4
|
|
. * (-3*(1-X+X**2)/4-X**2*(10-5*X+X**2)/8/(1-X)*DLOG(X)
|
|
. -(1-X)**4/8/X*DLOG(DABS(1-X)))
|
|
ELW42Z(AMA,X,NC) = NC*GF**2*AMA**4/8/PI**4
|
|
. * (-15*(1-X)**2/16+X*(3-4*X+X**2)/8*DLOG(X)
|
|
. -(1-X)**4/8/X*DLOG(DABS(1-X))
|
|
. -NC*(1+X)/8*(1+X+2*X/(1-X)*DLOG(X)))
|
|
ELW41U0(AMA,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2 * 4/3.D0
|
|
ELW42U0(AMA,NC) = NC*GF**2*AMA**4/8/PI**4 * (3+2*NC)/12
|
|
ELW41V0(AMA,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2*(-4)
|
|
ELW42V0(AMA,NC) = 0
|
|
FF(X) = (1-X)*SP_HDEC(1-X)-X/(1-X)*DLOG(X)
|
|
. * (1+(3+X**2)/2/(1-X)*DLOG(X))
|
|
ELW42QW(AMA,X,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2*CF*ALS/PI
|
|
. * (9*(1+X)/4-3*X/(1-X)*DLOG(X)-FF(X)/2)
|
|
ELW42QW0(AMA,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2*CF*ALS/PI * 8
|
|
ELW42QZ(AMA,X,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2*CF*ALS/PI
|
|
. * (15*(1+X)/4-FF(X)/2)
|
|
ELW42QZ0(AMA,NC) = NC*GF*AMA**2/8/DSQRT(2.D0)/PI**2*CF*ALS/PI * 8
|
|
PI = 4*DATAN(1.D0)
|
|
QQ = (AMTP+AMBP)/2
|
|
ALS = ALPHAS_HDEC(QQ,3)
|
|
CF = 4/3.D0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c ALS = ALPHAS_HDEC(AMZ,3)
|
|
c ALS = 0.119D0
|
|
c write(6,*)'als = ',als
|
|
c CF = 0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
IF(IV.EQ.1)THEN
|
|
C--HWW
|
|
NC = 3
|
|
IF(AMTP.NE.AMBP)THEN
|
|
XQ1 = ELW41U(AMBP,AMTP**2/AMBP**2,NC)
|
|
. + ELW41V(AMBP,AMTP**2/AMBP**2,NC)
|
|
XQ2 = ELW42U(AMBP,AMTP**2/AMBP**2,NC)
|
|
. + ELW42W(AMBP,AMTP**2/AMBP**2,NC)
|
|
. + ELW42QW(AMBP,AMTP**2/AMBP**2,NC)
|
|
XQU = ELW41U(AMBP,AMTP**2/AMBP**2,NC)
|
|
XQV = ELW41V(AMBP,AMTP**2/AMBP**2,NC)
|
|
ELSE
|
|
XQ1 = ELW41U0(AMBP,NC) + ELW41V0(AMBP,NC)
|
|
XQ2 = ELW42U0(AMBP,NC) + ELW42V0(AMBP,NC) + ELW42QW0(AMBP,NC)
|
|
XQU = ELW41U0(AMBP,NC)
|
|
XQV = ELW41V0(AMBP,NC)
|
|
ENDIF
|
|
NC = 1
|
|
IF(AMEP.NE.AMNUP)THEN
|
|
XL1 = ELW41U(AMEP,AMNUP**2/AMEP**2,NC)
|
|
. + ELW41V(AMEP,AMNUP**2/AMEP**2,NC)
|
|
XL2 = ELW42U(AMEP,AMNUP**2/AMEP**2,NC)
|
|
. + ELW42W(AMEP,AMNUP**2/AMEP**2,NC)
|
|
XLU = ELW41U(AMEP,AMNUP**2/AMEP**2,NC)
|
|
XLV = ELW41V(AMEP,AMNUP**2/AMEP**2,NC)
|
|
ELSE
|
|
XL1 = ELW41U0(AMEP,NC) + ELW41V0(AMEP,NC)
|
|
XL2 = ELW42U0(AMEP,NC) + ELW42V0(AMEP,NC)
|
|
XLU = ELW41U0(AMEP,NC)
|
|
XLV = ELW41V0(AMEP,NC)
|
|
ENDIF
|
|
ELSE
|
|
C--HZZ
|
|
NC = 3
|
|
IF(AMTP.NE.AMBP)THEN
|
|
XQ1 = ELW41U(AMBP,AMTP**2/AMBP**2,NC)
|
|
. + ELW41V(AMBP,AMTP**2/AMBP**2,NC)
|
|
XQ2 = ELW42U(AMBP,AMTP**2/AMBP**2,NC)
|
|
. + ELW42Z(AMBP,AMTP**2/AMBP**2,NC)
|
|
. + ELW42QZ(AMBP,AMTP**2/AMBP**2,NC)
|
|
XQU = ELW41U(AMBP,AMTP**2/AMBP**2,NC)
|
|
XQV = ELW41V(AMBP,AMTP**2/AMBP**2,NC)
|
|
ELSE
|
|
XQ1 = ELW41U0(AMBP,NC) + ELW41V0(AMBP,NC)
|
|
XQ2 = ELW42U0(AMBP,NC) + ELW42V0(AMBP,NC) + ELW42QZ0(AMBP,NC)
|
|
XQU = ELW41U0(AMBP,NC)
|
|
XQV = ELW41V0(AMBP,NC)
|
|
ENDIF
|
|
NC = 1
|
|
IF(AMEP.NE.AMNUP)THEN
|
|
XL1 = ELW41U(AMEP,AMNUP**2/AMEP**2,NC)
|
|
. + ELW41V(AMEP,AMNUP**2/AMEP**2,NC)
|
|
XL2 = ELW42U(AMEP,AMNUP**2/AMEP**2,NC)
|
|
. + ELW42Z(AMEP,AMNUP**2/AMEP**2,NC)
|
|
XLU = ELW41U(AMEP,AMNUP**2/AMEP**2,NC)
|
|
XLV = ELW41V(AMEP,AMNUP**2/AMEP**2,NC)
|
|
ELSE
|
|
XL1 = ELW41U0(AMEP,NC) + ELW41V0(AMEP,NC)
|
|
XL2 = ELW42U0(AMEP,NC) + ELW42V0(AMEP,NC)
|
|
XLU = ELW41U0(AMEP,NC)
|
|
XLV = ELW41V0(AMEP,NC)
|
|
ENDIF
|
|
ENDIF
|
|
X1 = XQ1 + XL1
|
|
X2 = XQ2 + XL2 + (XQU + XLU) * (XQV + XLV)
|
|
ELW4V_HDEC = 2*(X1 + X2) + X1**2
|
|
c write(6,*)'SM4 elw. VV: ',ELW4V_HDEC*100,2*X1*100,
|
|
c . ELW4V_HDEC*100-2*X1*100
|
|
c write(6,*)'SM4: '
|
|
c write(6,*)'du1, dv1: ',
|
|
c . ELW41U(AMBP,AMTP**2/AMBP**2,3)+ELW41U0(AMEP,1),
|
|
c . ELW41V(AMBP,AMTP**2/AMBP**2,3)+ELW41V0(AMEP,1)
|
|
c write(6,*)
|
|
c write(6,*)'du2, dw2, dz2: ',
|
|
c . ELW42U(AMBP,AMTP**2/AMBP**2,3)+ELW42U0(AMEP,1),
|
|
c . ELW42W(AMBP,AMTP**2/AMBP**2,3)+ELW42V0(AMEP,1),
|
|
c . ELW42Z(AMBP,AMTP**2/AMBP**2,3)+ELW42V0(AMEP,1)
|
|
c write(6,*)
|
|
c write(6,*)'dvtot1, dwtot2, dztot2: ',
|
|
c . ELW41U(AMBP,AMTP**2/AMBP**2,3)+ELW41V(AMBP,AMTP**2/AMBP**2,3)
|
|
c .+ELW41U0(AMEP,1) + ELW41V0(AMEP,1),
|
|
c . ELW42U(AMBP,AMTP**2/AMBP**2,3)+ELW42W(AMBP,AMTP**2/AMBP**2,3)
|
|
c .+ELW42QW(AMBP,AMTP**2/AMBP**2,3)+ELW42U0(AMEP,1)+ELW42V0(AMEP,1)
|
|
c .+(ELW41U(AMBP,AMTP**2/AMBP**2,3)+ELW41U0(AMEP,1))
|
|
c .*(ELW41V(AMBP,AMTP**2/AMBP**2,3)+ELW41V0(AMEP,1)),
|
|
c . ELW42U(AMBP,AMTP**2/AMBP**2,3)+ELW42Z(AMBP,AMTP**2/AMBP**2,3)
|
|
c .+ELW42QZ(AMBP,AMTP**2/AMBP**2,3)+ELW42U0(AMEP,1)+ELW42V0(AMEP,1)
|
|
c .+(ELW41U(AMBP,AMTP**2/AMBP**2,3)+ELW41U0(AMEP,1))
|
|
c .*(ELW41V(AMBP,AMTP**2/AMBP**2,3)+ELW41V0(AMEP,1))
|
|
c write(6,*)
|
|
c write(6,*)'dw2ew, dw2qcd, dz2ew, dz2qcd: ',
|
|
c . ELW42U(AMBP,AMTP**2/AMBP**2,3)+ELW42W(AMBP,AMTP**2/AMBP**2,3)
|
|
c .+ELW42U0(AMEP,1)+ELW42V0(AMEP,1)
|
|
c .+(ELW41U(AMBP,AMTP**2/AMBP**2,3)+ELW41U0(AMEP,1))
|
|
c .*(ELW41V(AMBP,AMTP**2/AMBP**2,3)+ELW41V0(AMEP,1)),
|
|
c . ELW42QW(AMBP,AMTP**2/AMBP**2,3),
|
|
c . ELW42U(AMBP,AMTP**2/AMBP**2,3)+ELW42Z(AMBP,AMTP**2/AMBP**2,3)
|
|
c .+ELW42U0(AMEP,1)+ELW42V0(AMEP,1)
|
|
c .+(ELW41U(AMBP,AMTP**2/AMBP**2,3)+ELW41U0(AMEP,1))
|
|
c .*(ELW41V(AMBP,AMTP**2/AMBP**2,3)+ELW41V0(AMEP,1)),
|
|
c . ELW42QZ(AMBP,AMTP**2/AMBP**2,3)
|
|
c write(6,*)'dw2qcd, dz2qcd: ',
|
|
c . ELW42QW(AMBP,AMTP**2/AMBP**2,3),
|
|
c . ELW42QZ(AMBP,AMTP**2/AMBP**2,3)
|
|
c write(6,*)'dw2qcd, dz2qcd: ',
|
|
c . ELW42QW(AMTP,AMBP**2/AMTP**2,3),
|
|
c . ELW42QZ(AMTP,AMBP**2/AMTP**2,3)
|
|
c write(6,*)
|
|
RETURN
|
|
END
|
|
|
|
C *****************************************************************
|
|
C ************* SUBROUTINE FOR THE SUSY COUPLINGS *****************
|
|
C *****************************************************************
|
|
SUBROUTINE SUSYCP_HDEC(TGBET)
|
|
IMPLICIT DOUBLE PRECISION (A-H,M,O-Z)
|
|
DOUBLE PRECISION LA1,LA2,LA3,LA4,LA5,LA6,LA7,LA3T
|
|
COMPLEX*16 F0_HDEC
|
|
DIMENSION MST(2),GLTT(2,2),GHTT(2,2),
|
|
. MSB(2),GLBB(2,2),GHBB(2,2)
|
|
dimension itest(30)
|
|
COMMON/FLAG_HDEC/IHIGGS,NNLO,IPOLE
|
|
COMMON/MODEL_HDEC/IMODEL
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AML,AMH,AMCH,AMAR
|
|
COMMON/HMASSR_HDEC/AMLR,AMHR
|
|
COMMON/CHIMASS_HDEC/AMCHI
|
|
COMMON/HSELF_HDEC/LA1,LA2,LA3,LA4,LA5,LA6,LA7
|
|
COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
|
|
COMMON/BREAKSCALE_HDEC/SUSYSCALE
|
|
COMMON/BREAKGLU_HDEC/AMGLU
|
|
COMMON/SFER1ST_HDEC/AMQL1,AMUR1,AMDR1,AMEL1,AMER1
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,
|
|
. GHHH,GLLL,GHLL,GLHH,GHAA,GLAA,GLVV,GHVV,
|
|
. GLPM,GHPM,B,A
|
|
COMMON/GLUINO_HDEC/AMGLUINO,AMSB1,AMSB2,STHB,CTHB,
|
|
. XLBB(2,2),XHBB(2,2),XABB(2,2),
|
|
. AMST1,AMST2,STHT,CTHT,
|
|
. XLTT(2,2),XHTT(2,2),XATT(2,2)
|
|
COMMON/ALS_HDEC/XLAMBDA,AMC0,AMB0,AMT0,N0
|
|
COMMON/SLHA_vals_HDEC/islhai,islhao
|
|
COMMON/SLHA_hmass_HDEC/slhaml,slhamh,slhamc,slha_alpha
|
|
COMMON/SLHA_gaug_HDEC/slhaneut(4),slhaxneut(4),slhachar(2),
|
|
. slhau(2,2),slhav(2,2),slhaz(4,4),slhaxchar(2)
|
|
c MMM changed 21/8/13
|
|
COMMON/THDM_HDEC/TGBET2HDM,ALPH2HDM,AMHL2HDM,AMHH2HDM,
|
|
. AMHA2HDM,AMHC2HDM,AM12SQ,A1LAM2HDM,A2LAM2HDM,A3LAM2HDM,
|
|
. A4LAM2HDM,A5LAM2HDM,ITYPE2HDM,I2HDM,IPARAM2HDM
|
|
COMMON/THDM_TEST/itestcond
|
|
COMMON/THDM_COUP_HDEC/gllep,ghlep,galep
|
|
c end MMM changed 21/8/13
|
|
COMMON/HMSSM_HDEC/AMHL10
|
|
common/feynhiggs0_hdec/ifeynhiggs,itheta
|
|
FTRIANG(X,Y)= (x**2+y**2)/2.D0-x**2*y**2/(x**2-y**2)*
|
|
. dlog(x**2/y**2)
|
|
FPTRIANG(X,Y)=-1.D0/3.D0*(4.D0/3.D0-(x**2*dlog(x**2)
|
|
. -y**2*dlog(y**2))/(x**2-y**2)-(x**2+y**2)/(x**2-y**2)**2*
|
|
. ((x**2+y**2)/2.D0-x**2*y**2/(x**2-y**2)*
|
|
. dlog(x**2/y**2)))
|
|
BB1(P2,AM1,AM2,XMU)=((AM1**2-AM2**2)*B02_HDEC(0.D0,AM1,AM2,XMU**2)
|
|
. -(P2+AM1**2-AM2**2)*B02_HDEC(P2,AM1,AM2,XMU**2))/2/P2
|
|
PMSQ1(QQ,AM,AMG,ALS) = CF*ALS/PI*(AMG**2*DLOG(QQ**2/AMG**2)
|
|
. + AM**2/2*DLOG(AMG**2/AM**2) + AM**2/2 + 3*AMG**2/2
|
|
. + (AMG**2-AM**2)**2/2/AM**2*DLOG(DABS(AMG**2-AM**2)/AMG**2))
|
|
PMSQ10(QQ,AM,ALS) = CF*ALS/PI*(AM**2*DLOG(QQ**2/AM**2)
|
|
. + AM**2/2 + 3*AM**2/2)
|
|
ALS_SUSY(X,XLB,B0,B1)=12.D0*PI/(B0*DLOG(X**2/XLB**2))
|
|
. *(1.D0-B1*DLOG(DLOG(X**2/XLB**2))
|
|
. /DLOG(X**2/XLB**2))
|
|
|
|
PI=4*DATAN(1D0)
|
|
V=1.D0/DSQRT(DSQRT(2.D0)*GF)
|
|
BET=DATAN(TGBET)
|
|
SB = DSIN(BET)
|
|
CB = DCOS(BET)
|
|
AMAR = AMA
|
|
C ============ TRANSFORMATION OF INPUT FOR SUBH ==========
|
|
CF = 4/3.D0
|
|
CA = 3
|
|
Q0 = DSQRT(2*AMSQ**2+AMUR**2+AMDR**2)/2
|
|
if(ifeynhiggs.eq.0) Q0 = SUSYSCALE
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c Q0 = SUSYSCALE
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ALSP = ALPHAS_HDEC(Q0,3)/PI
|
|
ALTP = RUNM_HDEC(Q0,6,0)**2/2/PI/V**2/SB**2 / PI
|
|
ALBP = RUNM_HDEC(Q0,5,0)**2/2/PI/V**2/CB**2 / PI
|
|
RMT = RUNM_HDEC(AMT,6,0)
|
|
RMB = RUNM_HDEC(AMT,5,0)
|
|
QT = DSQRT(DMAX1(AMSQ**2+RMT**2,AMUR**2+RMT**2))
|
|
QB = DSQRT(DMAX1(AMSQ**2+RMB**2,AMDR**2+RMB**2))
|
|
AMH12 = AMA**2*SB**2 - AMZ**2/2*(CB**2-SB**2) - AMU**2
|
|
AMH22 = AMA**2*CB**2 + AMZ**2/2*(CB**2-SB**2) - AMU**2
|
|
XB = AMSQ**2 + AMDR**2 + AMH12 + AD**2
|
|
XT = AMSQ**2 + AMUR**2 + AMH22 + AU**2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c AD0 = AD + (CF*ALSP*AMGLU + 3*ALTP/2*AU + ALBP/4*AD)
|
|
c . * DLOG(QB**2/Q0**2)
|
|
c AMDL0 = DSQRT(AMSQ**2 + (-CF*ALSP*AMGLU**2 + (ALTP*XT+ALBP*XB)/4)
|
|
c . * DLOG(QB**2/Q0**2))
|
|
c AMDR0 = DSQRT(AMDR**2 + (-CF*ALSP*AMGLU**2 + ALBP*XB/4)
|
|
c . * DLOG(QB**2/Q0**2))
|
|
c AU0 = AU + (CF*ALSP*AMGLU + ALTP/4*AU + 3*ALBP/2*AD)
|
|
c . * DLOG(QT**2/Q0**2)
|
|
c AMUL0 = DSQRT(AMSQ**2 + (-CF*ALSP*AMGLU**2 + (ALTP*XT+ALBP*XB)/4)
|
|
c . * DLOG(QT**2/Q0**2))
|
|
c AMUR0 = DSQRT(AMUR**2 + (-CF*ALSP*AMGLU**2 + ALTP*XT/4)
|
|
c . * DLOG(QT**2/Q0**2))
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c ADQCD = CF*ALSP*AMGLU*DLOG(QB**2/Q0**2)
|
|
c SDQCD = -CF*ALSP*AMGLU**2*DLOG(QB**2/Q0**2)
|
|
c AUQCD = CF*ALSP*AMGLU*DLOG(QT**2/Q0**2)
|
|
c SUQCD = -CF*ALSP*AMGLU**2*DLOG(QT**2/Q0**2)
|
|
c goto 8765
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
AMG = AMGLU
|
|
QQ0 = Q0
|
|
ALS = ALPHAS_HDEC(QQ0,3)
|
|
SW2=1.D0-AMW**2/AMZ**2
|
|
C UP SQUARKS:
|
|
AMSQ0 = DSQRT(AMQL1**2+(0.5D0-2.D0/3.D0*SW2)*AMZ**2*DCOS(2.D0*B))
|
|
IF(DABS(AMG).NE.AMSQ0)THEN
|
|
AMU1L = DSQRT(AMSQ0**2 + PMSQ1(QQ0,AMSQ0,AMG,ALS))
|
|
ELSE
|
|
AMU1L = DSQRT(AMSQ0**2 + PMSQ10(QQ0,AMSQ0,ALS))
|
|
ENDIF
|
|
AMSQ0 = DSQRT(AMUR1**2+2.D0/3.D0*SW2*AMZ**2*DCOS(2.D0*B))
|
|
IF(DABS(AMG).NE.AMSQ0)THEN
|
|
AMU1R = DSQRT(AMSQ0**2 + PMSQ1(QQ0,AMSQ0,AMG,ALS))
|
|
ELSE
|
|
AMU1R = DSQRT(AMSQ0**2 + PMSQ10(QQ0,AMSQ0,ALS))
|
|
ENDIF
|
|
C DOWN SQUARKS
|
|
AMSQ0 = DSQRT(AMQL1**2+(-0.5D0+1.D0/3.D0*SW2)*AMZ**2*DCOS(2.D0*B))
|
|
IF(DABS(AMG).NE.AMSQ0)THEN
|
|
AMD1L = DSQRT(AMSQ0**2 + PMSQ1(QQ0,AMSQ0,AMG,ALS))
|
|
ELSE
|
|
AMD1L = DSQRT(AMSQ0**2 + PMSQ10(QQ0,AMSQ0,ALS))
|
|
ENDIF
|
|
AMSQ0 = DSQRT(AMDR1**2-1.D0/3.D0*SW2*AMZ**2*DCOS(2.D0*B))
|
|
IF(DABS(AMG).NE.AMSQ0)THEN
|
|
AMD1R = DSQRT(AMSQ0**2 + PMSQ1(QQ0,AMSQ0,AMG,ALS))
|
|
ELSE
|
|
AMD1R = DSQRT(AMSQ0**2 + PMSQ10(QQ0,AMSQ0,ALS))
|
|
ENDIF
|
|
EPS = 0
|
|
FFB = AMB*2*STHB*CTHB/AMG
|
|
FFT = AMT*2*STHT*CTHT/AMG
|
|
AM3 = AMG*(1-ALPHAS_HDEC(DABS(AMG),3)/4/PI
|
|
. *(4*CA+3*CA*DLOG(QQ0**2/AMG**2)
|
|
. + BB1(AMG**2,EPS,AMU1L,QQ0)
|
|
. + BB1(AMG**2,EPS,AMU1R,QQ0)
|
|
. + BB1(AMG**2,EPS,AMD1L,QQ0)
|
|
. + BB1(AMG**2,EPS,AMD1R,QQ0)
|
|
. + BB1(AMG**2,AMS,AMD1L,QQ0)
|
|
. + BB1(AMG**2,AMS,AMD1R,QQ0)
|
|
. + BB1(AMG**2,AMC,AMU1L,QQ0)
|
|
. + BB1(AMG**2,AMC,AMU1R,QQ0)
|
|
. + BB1(AMG**2,AMB,AMSB1,QQ0)
|
|
. + BB1(AMG**2,AMB,AMSB2,QQ0)
|
|
. + BB1(AMG**2,AMT,AMST1,QQ0)
|
|
. + BB1(AMG**2,AMT,AMST2,QQ0)
|
|
. + FFB*(B02_HDEC(AMG**2,AMB,AMSB1,QQ0**2)
|
|
. -B02_HDEC(AMG**2,AMB,AMSB2,QQ0**2))
|
|
. + FFT*(B02_HDEC(AMG**2,AMT,AMST1,QQ0**2)
|
|
. -B02_HDEC(AMG**2,AMT,AMST2,QQ0**2))
|
|
. ))
|
|
ALS_SUSY0= ALPHAS_HDEC(QQ0,3)*(1+ALPHAS_HDEC(QQ0,3)/PI
|
|
. * (DLOG(QQ0**2/AMT**2)/6 + DLOG(QQ0**2/AMG**2)/2
|
|
. + (2*(DLOG(QQ0**2/AMU1L**2)+DLOG(QQ0**2/AMU1R**2)
|
|
. +DLOG(QQ0**2/AMD1L**2)+DLOG(QQ0**2/AMD1R**2))
|
|
. +DLOG(QQ0**2/AMSB1**2)+DLOG(QQ0**2/AMSB2**2)
|
|
. +DLOG(QQ0**2/AMST1**2)+DLOG(QQ0**2/AMST2**2))/24))
|
|
ACC = 1.D-10
|
|
XLB_SUSY = XITSUSY_HDEC(QQ0,ALS_SUSY0,ACC)
|
|
B0 = 9
|
|
B1 = 14.D0/9
|
|
ALS0 = ALS_SUSY(QQ0,XLB_SUSY,B0,B1)
|
|
ALST = ALS_SUSY(QT,XLB_SUSY,B0,B1)
|
|
ALSB = ALS_SUSY(QB,XLB_SUSY,B0,B1)
|
|
AUQCD = AM3*(-16.D0/9*(ALST/ALS0-1)*(1+ALS0/6/PI)
|
|
. -16*ALS0/27/PI*(ALST**2/ALS0**2-1))
|
|
ADQCD = AM3*(-16.D0/9*(ALSB/ALS0-1)*(1+ALS0/6/PI)
|
|
. -16*ALS0/27/PI*(ALSB**2/ALS0**2-1))
|
|
SUQCD = AM3**2*(8.D0/9*(ALST**2/ALS0**2-1)*(1+ALS0/6/PI)
|
|
. -4*ALS0/9/PI*(ALST**3/ALS0**3-1))
|
|
SDQCD = AM3**2*(8.D0/9*(ALSB**2/ALS0**2-1)*(1+ALS0/6/PI)
|
|
. -4*ALS0/9/PI*(ALSB**3/ALS0**3-1))
|
|
c write(6,*)'subh1: ',AMSQ**2,SDQCD,
|
|
c . ((ALTP*XT+ALBP*XB)/4)*DLOG(QB**2/Q0**2)
|
|
8765 continue
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
AD0 = AD + ADQCD + (3*ALTP/2*AU + ALBP/4*AD)*DLOG(QB**2/Q0**2)
|
|
AMDL0 = DSQRT(AMSQ**2 + SDQCD
|
|
. + ((ALTP*XT+ALBP*XB)/4)*DLOG(QB**2/Q0**2))
|
|
AMDR0 = DSQRT(AMDR**2 + SDQCD
|
|
. + ALBP*XB/4*DLOG(QB**2/Q0**2))
|
|
AU0 = AU + AUQCD + (ALTP/4*AU + 3*ALBP/2*AD)*DLOG(QT**2/Q0**2)
|
|
AMUL0 = DSQRT(AMSQ**2 + SUQCD
|
|
. + (ALTP*XT+ALBP*XB)/4*DLOG(QT**2/Q0**2))
|
|
AMUR0 = DSQRT(AMUR**2 + SUQCD + ALTP*XT/4*DLOG(QT**2/Q0**2))
|
|
c write(6,*)'delmb: ',Q0,amsq**2,SDQCD,
|
|
c . ((ALTP*XT+ALBP*XB)/4)*DLOG(QB**2/Q0**2),
|
|
c . (AMSQ**2 + SDQCD
|
|
c . + ((ALTP*XT+ALBP*XB)/4)*DLOG(QB**2/Q0**2))
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)
|
|
c write(6,*)
|
|
c write(6,*)'ALS param: ',XLAMBDA,AMC0,AMB0,AMT0,N0
|
|
c write(6,*)'Q0,QT,QB: ',Q0,QT,QB
|
|
c write(6,*)'ALSP,ALTP,ALBP: ',ALSP,ALTP,ALBP
|
|
c write(6,*)'stop params: ',RUNM_HDEC(Q0,6,0),V,SB
|
|
c write(6,*)'sbot params: ',RUNM_HDEC(Q0,5,0),V,CB
|
|
c write(6,*)'A_t params: ',CF*ALSP*AMGLU,ALTP/4*AU,3*ALBP/2*AD,
|
|
c . DLOG(QT**2/Q0**2)
|
|
c write(6,*)'stop: ',AMSQ,AMUR,AU
|
|
c write(6,*)' ',AMUL0,AMUR0,AU0
|
|
c write(6,*)'sbot: ',AMSQ,AMDR,AD
|
|
c write(6,*)' ',AMDL0,AMDR0,AD0
|
|
c write(6,*)' ',AMDR**2,-CF*ALSP*AMGLU**2 * DLOG(QB**2/Q0**2),
|
|
c . ALBP*XB/4 * DLOG(QB**2/Q0**2)
|
|
c write(6,*)' ',AMGLU
|
|
c write(6,*)
|
|
c write(6,*)AMDR**2,SDQCD,ALBP*XB/4*DLOG(QB**2/Q0**2)
|
|
c write(6,*)AMG,AM3
|
|
c write(6,*)AMST1,AMST2,AMSB1,AMSB2
|
|
C ============ HEAVIEST CHARGINO MASS NEEDED FOR SUBH ==========
|
|
if(islhai.eq.0) then
|
|
AMCHI2=AM2**2+AMU**2+2.D0*AMW**2+DSQRT((AM2**2-AMU**2)**2
|
|
. +4.D0*AMW**4*DCOS(2.D0*BET)**2+4.D0*AMW**2*
|
|
. (AM2**2+AMU**2+2.D0*AMU*AM2*DSIN(2.D0*BET) ) )
|
|
AMCHI=DSQRT(0.5D0*AMCHI2)
|
|
else
|
|
amchi = slhachar(2)
|
|
endif
|
|
C ===============================================================
|
|
C ========== RUNNING MASSES
|
|
if(islhai.eq.0) then
|
|
IF(IMODEL.EQ.1)THEN
|
|
CALL SUBH1_HDEC(AMA,TGBET,AMUL0,AMDL0,AMUR0,AMDR0,AMT,AU0,AD0,
|
|
. AMU,AMCHI,AMLR,AMHR,AMCH,SA,CA,TANBA,AMGLU)
|
|
ELSEIF(IMODEL.EQ.2)THEN
|
|
CALL SUBH2_HDEC(AMA,TGBET,AMUL0,AMUR0,AMT,AU0,AD0,AMU,
|
|
. AMLR,AMHR,AMCH,SA,CA,TANBA)
|
|
ELSEIF(IMODEL.EQ.3)THEN
|
|
CALL HABER(TGBET,SA,CA)
|
|
AMLR = AML
|
|
AMHR = AMH
|
|
ELSEIF(IMODEL.EQ.4)THEN
|
|
C--Use Carena et al. for everything not included in FeynHiggs....
|
|
CALL SUBH1_HDEC(AMA,TGBET,AMUL0,AMDL0,AMUR0,AMDR0,AMT,AU0,AD0,
|
|
. AMU,AMCHI,AMLR,AMHR,AMCH,SA,CA,TANBA,AMGLU)
|
|
IF(CTHT.GE.0.D0)THEN
|
|
XMST1 = AMST1
|
|
XMST2 = AMST2
|
|
STT = STHT
|
|
ELSE
|
|
XMST1 = AMST1
|
|
XMST2 = AMST2
|
|
STT = CTHT
|
|
ENDIF
|
|
IF(CTHB.GE.0.D0)THEN
|
|
XMSB1 = AMSB1
|
|
XMSB2 = AMSB2
|
|
STB = STHB
|
|
ELSE
|
|
XMSB1 = AMSB1
|
|
XMSB2 = AMSB2
|
|
STB = CTHB
|
|
ENDIF
|
|
c CALL FEYNHIGGS(AMA,TGBET,AMT,XMST1,XMST2,STT,XMSB1,
|
|
c . XMSB2,STB,AMU,AMGLU,AM2,AMLR,AMHR,SA,CA)
|
|
ELSEIF(IMODEL.EQ.10)THEN
|
|
c--hMSSM?
|
|
aml = amhl10
|
|
c2b = cb**2-sb**2
|
|
amh = dsqrt(((ama**2+amz**2-aml**2)*(amz**2*cb**2+ama**2*sb**2)
|
|
. -ama**2*amz**2*c2b**2)/(amz**2*cb**2+ama**2*sb**2-aml**2))
|
|
amch = dsqrt(ama**2+amw**2)
|
|
a = -datan((amz**2+ama**2)*sb*cb
|
|
. /(amz**2*cb**2+ama**2*sb**2-aml**2))
|
|
amlr = aml
|
|
amhr = amh
|
|
sa = dsin(a)
|
|
ca = dcos(a)
|
|
deps = (aml**2*(ama**2+amz**2-aml**2)-ama**2*amz**2*c2b**2)
|
|
. / (amz**2*cb**2+ama**2*sb**2-aml**2)
|
|
ENDIF
|
|
else
|
|
CALL SUBH1_HDEC(AMA,TGBET,AMUL0,AMDL0,AMUR0,AMDR0,AMT,AU0,AD0,
|
|
. AMU,AMCHI,AMLR,AMHR,AMCH,SA,CA,TANBA,AMGLU)
|
|
amlr = slhaml
|
|
amhr = slhamh
|
|
aml = slhaml
|
|
amh = slhamh
|
|
amch = slhamc
|
|
sa = dsin(slha_alpha)
|
|
ca = dcos(slha_alpha)
|
|
endif
|
|
c MMM changed 21/8/13
|
|
if(I2HDM.eq.1) then
|
|
ammh2 = AM12SQ/sb/cb
|
|
bb = datan(tgbet2hdm)
|
|
cb = dcos(bb)
|
|
sb = dsin(bb)
|
|
|
|
if(iparam2hdm.eq.1) then
|
|
sa = dsin(alph2hdm)
|
|
ca = dcos(alph2hdm)
|
|
amar = AMHA2HDM
|
|
ama = amar
|
|
amlr= AMHL2HDM
|
|
amhr= AMHH2HDM
|
|
aml = AMHL2HDM
|
|
amh = AMHH2HDM
|
|
amch= AMHC2HDM
|
|
amar= AMHA2HDM
|
|
c from hep-ph/0408364, Eqs. (26)-(30)
|
|
LA1 = 1.D0/v**2/cb**2*(-sb**2*ammh2+sa**2*amlr**2
|
|
. +ca**2*amhr**2)
|
|
LA2 = 1.D0/v**2/sb**2*(-cb**2*ammh2+ca**2*amlr**2
|
|
. +sa**2*amhr**2)
|
|
LA3 = -ammh2/v**2+2.D0*amch**2/v**2+1.D0/v**2*sa*ca/sb/cb*
|
|
. (amhr**2-amlr**2)
|
|
LA4 = 1.D0/v**2*(ammh2+amar**2-2.D0*amch**2)
|
|
LA5 = 1.D0/v**2*(ammh2-amar**2)
|
|
LA6 = 0.D0
|
|
LA7 = 0.D0
|
|
c print*,'lambdas',la1,la2,la3,la4,la5
|
|
elseif(iparam2hdm.eq.2) then
|
|
la1=a1lam2hdm
|
|
la2=a2lam2hdm
|
|
la3=a3lam2hdm
|
|
la4=a4lam2hdm
|
|
la5=a5lam2hdm
|
|
LA6 = 0.D0
|
|
LA7 = 0.D0
|
|
c print*,'lambdas',la1,la2,la3,la4,la5
|
|
|
|
am11h2 = (la1*cb**4+la2*sb**4+2.D0*(la3+la4+la5)*
|
|
. cb**2*sb**2)*V**2
|
|
am12h2 = (-la1*cb**2+la2*sb**2+(la3+la4+la5)*
|
|
. (cb**2-sb**2))*cb*sb*V**2
|
|
am22h2 = ammh2 + 1.D0/8.D0*(la1+la2-2.D0*(la3+la4+la5))*
|
|
. (1.D0-dcos(4.D0*bb))*V**2
|
|
|
|
aminb = 1.D0/2.D0*datan(2.D0*am12h2/(am11h2-am22h2))
|
|
alph2hdm = aminb + bb
|
|
sa = dsin(alph2hdm)
|
|
ca = dcos(alph2hdm)
|
|
|
|
amlch2 = (dsin(alph2hdm-bb))**2*am11h2
|
|
. -dsin(2.D0*(alph2hdm-bb))*am12h2
|
|
. + (dcos(alph2hdm-bb))**2*am22h2
|
|
|
|
amhch2 = (dcos(alph2hdm-bb))**2*am11h2
|
|
. +dsin(2.D0*(alph2hdm-bb))*am12h2
|
|
. + (dsin(alph2hdm-bb))**2*am22h2
|
|
|
|
amlr = dsqrt(amlch2)
|
|
amhr = dsqrt(amhch2)
|
|
|
|
if(amlr.gt.amhr) then
|
|
alph2hdm = alph2hdm - Pi/2.D0
|
|
sa = dsin(alph2hdm)
|
|
ca = dcos(alph2hdm)
|
|
tmp1 = amlr
|
|
tmp2 = amhr
|
|
amhr = tmp1
|
|
amlr = tmp2
|
|
endif
|
|
|
|
aml = amlr
|
|
amh = amhr
|
|
|
|
amach2 = ammh2-la5*V**2
|
|
amcch2 = ammh2-1.D0/2.D0*(la4+la5)*V**2
|
|
|
|
amar = dsqrt(amach2)
|
|
amch = dsqrt(amcch2)
|
|
|
|
c print*,'vals',aml,amh,amar,amch,alph2hdm
|
|
endif
|
|
|
|
if(itestcond.eq.1) then
|
|
c test of vacuum stability (S.Kanemura eal, Phys.Rev.D70(2004)115002)
|
|
do i=1,30,1
|
|
itest(i) = 0
|
|
end do
|
|
if(la1.gt.0.D0) then
|
|
itest(1)=1
|
|
endif
|
|
if(la1.gt.0.D0) then
|
|
itest(2)=1
|
|
endif
|
|
if(0.D0.le.la4+la5.and.0.D0.le.la4-la5) then
|
|
amin=0.D0
|
|
elseif(la4+la5.le.0.D0.and.la4+la5.le.la4-la5) then
|
|
amin=la4+la5
|
|
elseif(la4-la5.le.0.D0.and.la4-la5.le.la4+la5) then
|
|
amin=la4-la5
|
|
endif
|
|
valtest = dsqrt(la1*la2)+la3+amin
|
|
if(valtest.gt.0.D0) then
|
|
itest(3)=1
|
|
endif
|
|
c print*,'check',amin,itest(1),itest(2),itest(3)
|
|
iteststab=itest(1)*itest(2)*itest(3)
|
|
if(iteststab.eq.0) then
|
|
print*,'Attention: vacuum stability is not fulfilled.'
|
|
endif
|
|
|
|
c test for perturbativity (arXiv:1106.0034, Eqs.(3.363)-(3.372))
|
|
pap = 1.5D0*(la1+la2)+dsqrt(9.D0/4.D0*(la1-la2)**2+
|
|
. (2.D0*la3+la4)**2)
|
|
pam = 1.5D0*(la1+la2)-dsqrt(9.D0/4.D0*(la1-la2)**2+
|
|
. (2.D0*la3+la4)**2)
|
|
pbp = 0.5D0*(la1+la2)+0.5D0*dsqrt((la1-la2)**2+4.D0*la4**2)
|
|
pbm = 0.5D0*(la1+la2)-0.5D0*dsqrt((la1-la2)**2+4.D0*la4**2)
|
|
pcp = 0.5D0*(la1+la2)+0.5D0*dsqrt((la1-la2)**2+4.D0*la5**2)
|
|
pcm = 0.5D0*(la1+la2)-0.5D0*dsqrt((la1-la2)**2+4.D0*la5**2)
|
|
pe1 = la3+2.D0*la4-3.D0*la5
|
|
pe2 = la3-la5
|
|
pfp = la3+2.D0*la4+3.D0*la5
|
|
pfm = la3+la5
|
|
pf1 = la3+la4
|
|
pp1 = la3-la4
|
|
|
|
pertval = 8.D0*Pi
|
|
|
|
if(dabs(pap).lt.pertval) then
|
|
itest(4) = 1
|
|
endif
|
|
if(dabs(pam).lt.pertval) then
|
|
itest(5) = 1
|
|
endif
|
|
if(dabs(pbp).lt.pertval) then
|
|
itest(6) = 1
|
|
endif
|
|
if(dabs(pbm).lt.pertval) then
|
|
itest(7) = 1
|
|
endif
|
|
if(dabs(pcp).lt.pertval) then
|
|
itest(8) = 1
|
|
endif
|
|
if(dabs(pcm).lt.pertval) then
|
|
itest(9) = 1
|
|
endif
|
|
if(dabs(pe1).lt.pertval) then
|
|
itest(10) = 1
|
|
endif
|
|
if(dabs(pe2).lt.pertval) then
|
|
itest(11) = 1
|
|
endif
|
|
if(dabs(pfp).lt.pertval) then
|
|
itest(12) = 1
|
|
endif
|
|
if(dabs(pfm).lt.pertval) then
|
|
itest(13) = 1
|
|
endif
|
|
if(dabs(pf1).lt.pertval) then
|
|
itest(14) = 1
|
|
endif
|
|
if(dabs(pp1).lt.pertval) then
|
|
itest(15) = 1
|
|
endif
|
|
itestpert = itest(4)*itest(5)*itest(6)*itest(7)*itest(8)*
|
|
. itest(9)*itest(10)*itest(11)*itest(12)
|
|
if(itestpert.eq.0) then
|
|
print*,'Attention: perturbative unitarity is not fulfilled.'
|
|
endif
|
|
|
|
c the S- and T-parameter in the 2HDM (1108.3297, Eqs. (12),(13))
|
|
params2hdm = -1.D0/(4.D0*Pi)*(1.D0/3.D0*dlog(amch**2)
|
|
. -(dsin(bb-alph2hdm))**2*fptriang(amh,amar)
|
|
. -(dcos(bb-alph2hdm))**2*fptriang(aml,amar))
|
|
paramt2hdm = -dsqrt(2.D0)*gf/16.D0/Pi**2/alph*(
|
|
. -ftriang(amar,amch)+(dsin(bb-alph2hdm))**2*(
|
|
. ftriang(amh,amar)-ftriang(amh,amch))
|
|
. +(dcos(bb-alph2hdm))**2*(ftriang(aml,amar)
|
|
. -ftriang(aml,amch)))
|
|
c print*,'par S,T',params2hdm,paramt2hdm
|
|
|
|
c the S- and T-parameter limits are taken from 1209.2716, Eq.(9)
|
|
|
|
tparamlimp = 0.17D0
|
|
tparamlimm = -0.07D0
|
|
|
|
sparamlimp = 0.13D0
|
|
sparamlimm = -0.07D0
|
|
|
|
if(params2hdm.gt.sparamlimp.or.params2hdm.lt.sparamlimm) then
|
|
print*,'The limits on the S-parameter are not fulfilled.'
|
|
endif
|
|
if(paramt2hdm.gt.tparamlimp.or.paramt2hdm.lt.tparamlimm) then
|
|
print*,'The limits on the T-parameter are not fulfilled.'
|
|
endif
|
|
|
|
endif
|
|
|
|
c -- this is for a check --
|
|
c print*,'alphacheck',alphacheck-2.D0*datan(1.D0)
|
|
c print*,'alpha',datan(dsin(alph2hdm)/dcos(alph2hdm))
|
|
c print*,'alpha2hdm',alph2hdm
|
|
c print*,'check: aml,amh,ama,amch',amlc,amhc,amac,amcc
|
|
c print*,'m12h2',am12sq,am12sq/sb/cb,ammh2
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
LA3T=LA3+LA4+LA5
|
|
AMA2=AMAR**2
|
|
AML2=AMLR**2
|
|
AMH2=AMHR**2
|
|
AMP2=AMCH**2
|
|
C ========== HIGGS COUPLINGS
|
|
SBMA = SB*CA-CB*SA
|
|
CBMA = CB*CA+SB*SA
|
|
SBPA = SB*CA+CB*SA
|
|
CBPA = CB*CA-SB*SA
|
|
S2A = 2*SA*CA
|
|
C2A = CA**2-SA**2
|
|
S2B = 2*SB*CB
|
|
C2B = CB**2-SB**2
|
|
GLZZ = 1/V/2*AML2*SBMA
|
|
GHZZ = 1/V/2*AMH2*CBMA
|
|
GLWW = 2*GLZZ
|
|
GHWW = 2*GHZZ
|
|
GLAZ = 1/V*(AML2-AMA2)*CBMA
|
|
GHAZ = -1/V*(AMH2-AMA2)*SBMA
|
|
GLPW = -1/V*(AMP2-AML2)*CBMA
|
|
GLMW = GLPW
|
|
GHPW = 1/V*(AMP2-AMH2)*SBMA
|
|
GHMW = GHPW
|
|
GAPW = 1/V*(AMP2-AMA2)
|
|
GAMW = -GAPW
|
|
GHHH = V/2*(LA1*CA**3*CB + LA2*SA**3*SB + LA3T*SA*CA*SBPA
|
|
. + LA6*CA**2*(3*SA*CB+CA*SB) + LA7*SA**2*(3*CA*SB+SA*CB))
|
|
GLLL = -V/2*(LA1*SA**3*CB - LA2*CA**3*SB + LA3T*SA*CA*CBPA
|
|
. - LA6*SA**2*(3*CA*CB-SA*SB) + LA7*CA**2*(3*SA*SB-CA*CB))
|
|
GLHH = -3*V/2*(LA1*CA**2*CB*SA - LA2*SA**2*SB*CA
|
|
. + LA3T*(SA**3*CB-CA**3*SB+2*SBMA/3)
|
|
. - LA6*CA*(CB*C2A-SA*SBPA) - LA7*SA*(C2A*SB+CA*SBPA))
|
|
GHLL = 3*V/2*(LA1*SA**2*CB*CA + LA2*CA**2*SB*SA
|
|
. + LA3T*(SA**3*SB+CA**3*CB-2*CBMA/3)
|
|
. - LA6*SA*(CB*C2A+CA*CBPA) + LA7*CA*(C2A*SB+SA*CBPA))
|
|
GLAA = -V/2*(LA1*SB**2*CB*SA - LA2*CB**2*SB*CA
|
|
. - LA3T*(SB**3*CA-CB**3*SA) + 2*LA5*SBMA
|
|
. - LA6*SB*(CB*SBPA+SA*C2B) - LA7*CB*(C2B*CA-SB*SBPA))
|
|
GHAA = V/2*(LA1*SB**2*CB*CA + LA2*CB**2*SB*SA
|
|
. + LA3T*(SB**3*SA+CB**3*CA) - 2*LA5*CBMA
|
|
. - LA6*SB*(CB*CBPA+CA*C2B) + LA7*CB*(SB*CBPA+SA*C2B))
|
|
GLPM = 2*GLAA + V*(LA5 - LA4)*SBMA
|
|
c write(6,*)'GLPM: ',GLPM,GLAA,V,LA5,LA4,SBMA
|
|
|
|
c --- this is for a check against hep-ph/0408364 ---
|
|
|
|
if(i2hdm.eq.1) then
|
|
aa = alph2hdm
|
|
|
|
xlll = -1.D0/4.D0/V/(2.D0*cb*sb)*(
|
|
. (dcos(3.D0*aa-bb)+3.D0*dcos(aa+bb))*amlr**2
|
|
. -4.D0*(dcos(aa-bb))**2*dcos(aa+bb)*ammh2)
|
|
|
|
xlhh = -dsin(aa-bb)/2.D0/V/dsin(2.D0*bb)*(dsin(2.D0*aa)*
|
|
. (amlr**2+2.D0*amhr**2)-(3.D0*dsin(2.D0*aa)+dsin(2.D0*bb))*
|
|
. ammh2)
|
|
|
|
xhll = -dcos(aa-bb)/2.D0/V/dsin(2.D0*bb)*(dsin(2.D0*aa)*(2.D0*
|
|
. amlr**2+amhr**2)-(3.D0*dsin(2.D0*aa)-dsin(2.D0*bb))*ammh2)
|
|
|
|
xhhh = 1.D0/4.D0/V/dsin(2.D0*b)*((dsin(3.D0*aa-bb)
|
|
. -3.D0*dsin(aa+bb))*amhr**2+4.D0*(dsin(aa-bb))**2*
|
|
. dsin(aa+bb)*ammh2)
|
|
|
|
xlaa = -1.D0/4.D0/V/dsin(2.D0*bb)*((dcos(aa-3.D0*bb)+3.D0*
|
|
. dcos(aa+bb))*
|
|
. amlr**2-4.D0*dsin(2.D0*bb)*dsin(aa-bb)*amar**2-4.D0*
|
|
. dcos(aa+bb)*ammh2)
|
|
|
|
xhaa = -1.D0/4.D0/V/dsin(2.D0*bb)*((dsin(aa-3.D0*bb)+3.D0*
|
|
. dsin(aa+bb))*amhr**2+4.D0*dsin(2.D0*bb)*dcos(aa-bb)*amar**2
|
|
. -4.D0*dsin(aa+bb)*ammh2)
|
|
|
|
xlpm = -1.D0/2.D0/V/dsin(2.D0*bb)*((dcos(aa-3.D0*bb)+3.D0*
|
|
. dcos(aa+bb))*
|
|
. amlr**2-4.D0*dsin(2.D0*bb)*dsin(aa-bb)*amch**2-4.D0*
|
|
. dcos(aa+bb)*ammh2)
|
|
|
|
xhpm = -1.D0/2.D0/V/dsin(2.D0*bb)*((dsin(aa-3.D0*bb)+3.D0*
|
|
. dsin(aa+bb))*amhr**2+4.D0*dsin(2.D0*bb)*dcos(aa-bb)*
|
|
. amch**2-4.D0*dsin(aa+bb)*ammh2)
|
|
|
|
c print*,'lll',glll,xlll
|
|
c print*,'lhh',glhh,xlhh
|
|
c print*,'hll',ghll,xhll
|
|
c print*,'hhh',ghhh,xhhh
|
|
c print*,'laa',glaa,xlaa
|
|
c print*,'haa',ghaa,xhaa
|
|
c print*,'lH+H-',glpm,xlpm
|
|
c print*,'MA',amar,amch
|
|
c print*,'Mh,MH,MA,MH+',amlr,amhr,amar,amch
|
|
c print*,'alpha,tan(beta)',aa,tgbet2hdm
|
|
|
|
c ---------------------------------------------------
|
|
|
|
c print*,'la1-la5',la1,la2,la3,la4,la5
|
|
c print*,'glaa',glaa
|
|
c print*,'sbma,sb,cb,sa,ca',sbma,sb,cb,sa,ca
|
|
endif
|
|
c write(6,*)'GLAA,SB,CB,SA,CA,SBPA,C2B,LA1,LA2,LA3T,LA5,LA6,LA7: ',
|
|
c . GLAA,SB,CB,SA,CA,SBPA,C2B,LA1,LA2,LA3T,LA5,LA6,LA7
|
|
c write(6,*)'GLPM,GLAA,V,LA5,LA4,SBMA,LA5-LA4: ',
|
|
c . GLPM,GLAA,V,LA5,LA4,SBMA,LA5-LA4
|
|
GHPM = 2*GHAA + V*(LA5 - LA4)*CBMA
|
|
c print*,'HH+H-',ghpm,xhpm
|
|
GLZZ = 2*GLZZ
|
|
GHZZ = 2*GHZZ
|
|
GLLL = 6*GLLL
|
|
GHHH = 6*GHHH
|
|
GLHH = 2*GLHH
|
|
GHLL = 2*GHLL
|
|
GLAA = 2*GLAA
|
|
GHAA = 2*GHAA
|
|
XNORM = AMZ**2/V
|
|
GLLL = GLLL/XNORM
|
|
GHLL = GHLL/XNORM
|
|
GLHH = GLHH/XNORM
|
|
GHHH = GHHH/XNORM
|
|
GHAA = GHAA/XNORM
|
|
GLAA = GLAA/XNORM
|
|
GLPM = GLPM/XNORM
|
|
|
|
c--hMSSM?
|
|
IF(IMODEL.EQ.10)THEN
|
|
depsb = deps - 16*amt**4/(4*pi)**2/v**2/sb**2
|
|
GHHH = 3*C2A*CBPA + 3*depsb/amz**2*sa**3/sb
|
|
GLLL = 3*C2A*SBPA + 3*depsb/amz**2*ca**3/sb
|
|
GHLL = 2*S2A*SBPA - C2A*CBPA + 3*depsb/amz**2*sa*ca**2/sb
|
|
GLHH =-2*S2A*CBPA - C2A*SBPA + 3*depsb/amz**2*sa**2*ca/sb
|
|
GHAA =-C2B*CBPA + depsb/amz**2*sa*cb**2/sb
|
|
GLAA = C2B*SBPA + depsb/amz**2*ca*cb**2/sb
|
|
GLPM = 2*AMW**2/AMZ**2*SBMA + C2B*SBPA
|
|
GHPM = 2*AMW**2/AMZ**2*CBMA - C2B*CBPA
|
|
ENDIF
|
|
|
|
|
|
c print*,'lll',glll
|
|
c print*,'lhh',glhh
|
|
c print*,'hll',ghll
|
|
c print*,'hhh',ghhh
|
|
c print*,'laa',glaa
|
|
c print*,'haa',ghaa
|
|
c print*,'lH+H-',glpm
|
|
c print*,'hH+H-',ghpm*v/amz**2
|
|
c print*,'norm = v/amz**2',v/amz**2
|
|
|
|
c print*,'glpm',glpm
|
|
|
|
GHPM = GHPM/XNORM
|
|
GAT=1.D0/TGBET
|
|
GAB=TGBET
|
|
c MMM changed 21/8/13
|
|
if(i2hdm.eq.0) then
|
|
c end MMM changed 2178/13
|
|
GLT=CA/SB
|
|
GLB=-SA/CB
|
|
GHT=SA/SB
|
|
GHB=CA/CB
|
|
c MMM changed 21/8/13
|
|
elseif(i2hdm.eq.1) then
|
|
if(itype2hdm.eq.1) then
|
|
glt = ca/sb
|
|
glb = ca/sb
|
|
gllep = glb
|
|
ght = sa/sb
|
|
ghb = sa/sb
|
|
ghlep = ghb
|
|
gat = 1.D0/tgbet
|
|
gab =-1.D0/tgbet
|
|
galep = gab
|
|
elseif(itype2hdm.eq.2) then
|
|
glt = ca/sb
|
|
glb =-sa/cb
|
|
gllep = glb
|
|
ght = sa/sb
|
|
ghb = ca/cb
|
|
ghlep = ghb
|
|
gat = 1.D0/tgbet
|
|
gab = tgbet
|
|
galep = gab
|
|
elseif(itype2hdm.eq.3) then
|
|
glt = ca/sb
|
|
glb = ca/sb
|
|
gllep =-sa/cb
|
|
ght = sa/sb
|
|
ghb = sa/sb
|
|
ghlep = ca/cb
|
|
gat = 1.D0/tgbet
|
|
gab =-1.D0/tgbet
|
|
galep = tgbet
|
|
elseif(itype2hdm.eq.4) then
|
|
glt = ca/sb
|
|
glb =-sa/cb
|
|
gllep = ca/sb
|
|
ght = sa/sb
|
|
ghb = ca/cb
|
|
ghlep = sa/sb
|
|
gat = 1.D0/tgbet
|
|
gab = tgbet
|
|
galep =-1.D0/tgbet
|
|
endif
|
|
endif
|
|
c end MMM changed 21/8/13
|
|
GZAL=-CBMA
|
|
GZAH=SBMA
|
|
GLVV=SBMA
|
|
GHVV=CBMA
|
|
B=BET
|
|
IF(CA.EQ.0)THEN
|
|
A = PI/2
|
|
ELSE
|
|
A=DATAN(SA/CA)
|
|
ENDIF
|
|
IF(CA.LT.0D0)THEN
|
|
IF(SA.LT.0D0)THEN
|
|
A = A-PI
|
|
ELSE
|
|
A = A+PI
|
|
ENDIF
|
|
ENDIF
|
|
C ===============================================================
|
|
C ========== POLE MASSES
|
|
if(islhai.eq.0) then
|
|
IF(IMODEL.EQ.1)THEN
|
|
IF(IPOLE.EQ.1) THEN
|
|
MT=RUNM_HDEC(AMT,6,0)
|
|
MB=RUNM_HDEC(AMT,5,0)
|
|
SW2=1.D0-AMW**2/AMZ**2
|
|
C===== STOP MASSES
|
|
MSTL2=AMSQ**2+(0.5D0-2.D0/3.D0*SW2)*AMZ**2*DCOS(2.D0*B)
|
|
MSTR2=AMUR**2+2.D0/3.D0*SW2*AMZ**2*DCOS(2.D0*B)
|
|
MLRT=AU-AMU/TGBET
|
|
DELT=(MSTL2-MSTR2)**2+4*MT**2*MLRT**2
|
|
MST12=MT**2+0.5D0*(MSTL2+MSTR2-DSQRT(DELT))
|
|
MST22=MT**2+0.5D0*(MSTL2+MSTR2+DSQRT(DELT))
|
|
IF(MST12.LT.0.D0)GOTO 111
|
|
MST(1)=DSQRT(MST12)
|
|
MST(2)=DSQRT(MST22)
|
|
IF(MSTL2.EQ.MSTR2) THEN
|
|
THET = PI/4
|
|
ELSE
|
|
THET=0.5D0*DATAN(2.D0*MT*MLRT / (MSTL2-MSTR2) )
|
|
IF(MSTL2.GT.MSTR2) THET = THET + PI/2
|
|
ENDIF
|
|
CST= DCOS(THET)
|
|
SST= DSIN(THET)
|
|
C===== SBOTTOM MASSES
|
|
MSBL2=AMSQ**2+(-0.5D0+1.D0/3.D0*SW2)*AMZ**2*DCOS(2.D0*B)
|
|
MSBR2=AMDR**2-1.D0/3.D0*SW2*AMZ**2*DCOS(2.D0*B)
|
|
MLRB=AD-AMU*TGBET
|
|
DELB=(MSBL2-MSBR2)**2+4*MB**2*MLRB**2
|
|
MSB12=MB**2+0.5D0*(MSBL2+MSBR2-DSQRT(DELB))
|
|
MSB22=MB**2+0.5D0*(MSBL2+MSBR2+DSQRT(DELB))
|
|
IF(MSB12.LT.0.D0)GOTO 111
|
|
MSB(1)=DSQRT(MSB12)
|
|
MSB(2)=DSQRT(MSB22)
|
|
IF(MSBL2.EQ.MSBR2) THEN
|
|
THEB = PI/4
|
|
ELSE
|
|
THEB=0.5D0*DATAN(2.D0*MB*MLRB / (MSBL2-MSBR2) )
|
|
IF(MSBL2.GT.MSBR2) THEB = THEB + PI/2
|
|
ENDIF
|
|
CSB= DCOS(THEB)
|
|
SSB= DSIN(THEB)
|
|
C===== LIGHT HIGGS COUPLINGS
|
|
GLTT(1,1)=-SBPA*(0.5D0*CST**2-2.D0/3.D0*SW2*DCOS(2*THET) )
|
|
. +MT**2/AMZ**2*GLT + MT*SST*CST/AMZ**2*(AU*GLT+AMU*GHT)
|
|
GLTT(2,2)=-SBPA*(0.5D0*SST**2+2.D0/3.D0*SW2*DCOS(2*THET) )
|
|
. +MT**2/AMZ**2*GLT - MT*SST*CST/AMZ**2*(AU*GLT+AMU*GHT)
|
|
GLTT(1,2)=-2*SBPA*SST*CST*(2.D0/3.D0*SW2-0.25D0)
|
|
. + MT*DCOS(2*THET)/2.D0/AMZ**2*(AU*GLT+AMU*GHT)
|
|
GLTT(2,1)=-2*SBPA*SST*CST*(2.D0/3.D0*SW2-0.25D0)
|
|
. + MT*DCOS(2*THET)/2.D0/AMZ**2*(AU*GLT+AMU*GHT)
|
|
GLBB(1,1)=-SBPA*(-0.5D0*CSB**2+1.D0/3.D0*SW2*DCOS(2*THEB))
|
|
. +MB**2/AMZ**2*GLB + MB*SSB*CSB/AMZ**2*(AD*GLB-AMU*GHB)
|
|
GLBB(2,2)=-SBPA*(-0.5D0*SSB**2-1.D0/3.D0*SW2*DCOS(2*THEB))
|
|
. +MB**2/AMZ**2*GLB - MB*SSB*CSB/AMZ**2*(AD*GLB-AMU*GHB)
|
|
GLBB(1,2)=-2*SBPA*SSB*CSB*(-1.D0/3.D0*SW2+0.25D0)
|
|
. + MB*DCOS(2*THEB)/2.D0/AMZ**2*(AD*GLB-AMU*GHB)
|
|
GLBB(2,1)=-2*SBPA*SSB*CSB*(-1.D0/3.D0*SW2+0.25D0)
|
|
. + MB*DCOS(2*THEB)/2.D0/AMZ**2*(AD*GLB-AMU*GHB)
|
|
C===== HEAVY HIGGS COUPLINGS
|
|
GHTT(1,1)=CBPA*(0.5D0*CST**2-2.D0/3.D0*SW2*DCOS(2*THET))
|
|
. +MT**2/AMZ**2*GHT + MT*SST*CST/AMZ**2*(AU*GHT-AMU*GLT)
|
|
GHTT(2,2)=CBPA*(0.5D0*SST**2+2.D0/3.D0*SW2*DCOS(2*THET))
|
|
. +MT**2/AMZ**2*GHT - MT*SST*CST/AMZ**2*(AU*GHT-AMU*GLT)
|
|
GHTT(1,2)=2*CBPA*SST*CST*(2.D0/3.D0*SW2-0.25D0)
|
|
. +MT*DCOS(2*THET)/2.D0/AMZ**2*(AU*GHT-AMU*GLT)
|
|
GHTT(2,1)=2*CBPA*SST*CST*(2.D0/3.D0*SW2-0.25D0)
|
|
. + MT*DCOS(2*THET)/2.D0/AMZ**2*(AU*GHT-AMU*GLT)
|
|
GHBB(1,1)=CBPA*(-0.5D0*CSB**2+1.D0/3.D0*SW2*DCOS(2*THEB))
|
|
. +MB**2/AMZ**2*GHB + MB*SSB*CSB/AMZ**2*(AD*GHB+AMU*GLB)
|
|
GHBB(2,2)=CBPA*(-0.5D0*SSB**2-1.D0/3.D0*SW2*DCOS(2*THEB))
|
|
. + MB**2/AMZ**2*GHB - MB*SSB*CSB/AMZ**2*(AD*GHB+AMU*GLB)
|
|
GHBB(1,2)=2*CBPA*SSB*CSB*(-1.D0/3.D0*SW2+0.25D0)
|
|
. + MB*DCOS(2*THEB)/2.D0/AMZ**2*(AD*GHB+AMU*GLB)
|
|
GHBB(2,1)=2*CBPA*SSB*CSB*(-1.D0/3.D0*SW2+0.25D0)
|
|
. + MB*DCOS(2*THEB)/2.D0/AMZ**2*(AD*GHB+AMU*GLB)
|
|
C===== PSEUDOSCALAR HIGGS COUPLINGS
|
|
GATT=MT/2.D0/AMZ**2*(AMU+AU*GAT)
|
|
GABB=MB/2.D0/AMZ**2*(AMU+AD*GAB)
|
|
C======= LOOP CORRECTIONS
|
|
XDLT=GF/(2.D0*DSQRT(2.D0)*PI**2)*GLT**2*(-2.D0*MT**2+0.5D0*AML2)
|
|
. *DREAL(F0_HDEC(MT,MT,AML2))
|
|
. *3*MT**2
|
|
XDLB=GF/(2.D0*DSQRT(2.D0)*PI**2)*GLB**2*(-2.D0*MB**2+0.5D0*AML2)
|
|
. *DREAL(F0_HDEC(MB,MB,AML2))
|
|
. *3*MB**2
|
|
C--BUG IN CARENA ET AL. FIXED
|
|
. +GF/(2.D0*DSQRT(2.D0)*PI**2)*GLB**2*(0.5D0*AML2)
|
|
. *DLOG(MB**2/MT**2)
|
|
. *3*MB**2
|
|
XDHT=GF/(2.D0*DSQRT(2.D0)*PI**2)*GHT**2*(-2.D0*MT**2+0.5D0*AMH2)
|
|
. *DREAL(F0_HDEC(MT,MT,AMH2))
|
|
. *3*MT**2
|
|
XDHB=GF/(2.D0*DSQRT(2.D0)*PI**2)*GHB**2*(-2.D0*MB**2+0.5D0*AMH2)
|
|
. *DREAL(F0_HDEC(MB,MB,AMH2))
|
|
. *3*MB**2
|
|
C--BUG IN CARENA ET AL. FIXED
|
|
. +GF/(2.D0*DSQRT(2.D0)*PI**2)*GHB**2*(0.5D0*AMH2)
|
|
. *DLOG(MB**2/MT**2)
|
|
. *3*MB**2
|
|
XDAT=GF/(2.D0*DSQRT(2.D0)*PI**2)*GAT**2*(-0.5D0*AMA2)
|
|
. *DREAL(F0_HDEC(MT,MT,AMA2))
|
|
. *3*MT**2
|
|
XDAB=GF/(2.D0*DSQRT(2.D0)*PI**2)*GAB**2*(-0.5D0*AMA2)
|
|
. *DREAL(F0_HDEC(MB,MB,AMA2))
|
|
. *3*MB**2
|
|
C--BUG IN CARENA ET AL. FIXED
|
|
. +GF/(2.D0*DSQRT(2.D0)*PI**2)*GAB**2*(-0.5D0*AMA2)
|
|
. *DLOG(MB**2/MT**2)
|
|
. *3*MB**2
|
|
XDLST=0.D0
|
|
XDLSB=0.D0
|
|
XDHST=0.D0
|
|
XDHSB=0.D0
|
|
DO 311 I=1,2
|
|
DO 311 J=1,2
|
|
XDLST=XDLST+GF/(2.D0*DSQRT(2.D0)*PI**2)*GLTT(I,J)**2*
|
|
. DREAL(F0_HDEC(MST(I),MST(J),AML2))
|
|
. *3*AMZ**4
|
|
XDLSB=XDLSB+GF/(2.D0*DSQRT(2.D0)*PI**2)*GLBB(I,J)**2*
|
|
. DREAL(F0_HDEC(MSB(I),MSB(J),AML2))
|
|
. *3*AMZ**4
|
|
XDHST=XDHST+GF/(2.D0*DSQRT(2.D0)*PI**2)*GHTT(I,J)**2*
|
|
. DREAL(F0_HDEC(MST(I),MST(J),AMH2))
|
|
. *3*AMZ**4
|
|
XDHSB=XDHSB+GF/(2.D0*DSQRT(2.D0)*PI**2)*GHBB(I,J)**2*
|
|
. DREAL(F0_HDEC(MSB(I),MSB(J),AMH2))
|
|
. *3*AMZ**4
|
|
311 CONTINUE
|
|
XDAST=GF/(1.D0*DSQRT(2.D0)*PI**2)*GATT**2*
|
|
. DREAL(F0_HDEC(MST(1),MST(2),AMA2))
|
|
. *3*AMZ**4
|
|
XDASB=GF/(1.D0*DSQRT(2.D0)*PI**2)*GABB**2*
|
|
. DREAL(F0_HDEC(MSB(1),MSB(2),AMA2))
|
|
. *3*AMZ**4
|
|
|
|
AML=DSQRT(AML2+XDLT+XDLB+XDLST+XDLSB)
|
|
AMH=DSQRT(AMH2+XDHT+XDHB+XDHST+XDHSB)
|
|
AMA=DSQRT(AMA2+XDAT+XDAB+XDAST+XDASB)
|
|
ELSE
|
|
AML=AMLR
|
|
AMH=AMHR
|
|
AMA=AMAR
|
|
ENDIF
|
|
ELSE
|
|
AML=AMLR
|
|
AMH=AMHR
|
|
AMA=AMAR
|
|
ENDIF
|
|
endif
|
|
c MMM changed 21/8/13
|
|
c if(I2HDM.eq.1) then
|
|
c ama = amar
|
|
c amlr= AMHL2HDM
|
|
c amhr= AMHH2HDM
|
|
c aml = AMHL2HDM
|
|
c amh = AMHH2HDM
|
|
c amch= AMHC2HDM
|
|
c endif
|
|
c end MMM changed 21/8/13
|
|
RETURN
|
|
111 STOP
|
|
END
|
|
|
|
C ===================== THE FUNCTION F0 ===============
|
|
COMPLEX*16 FUNCTION F0_HDEC(M1,M2,QSQ)
|
|
IMPLICIT REAL*8 (A-H,M,O-Z)
|
|
COMPLEX*16 CD,CR,CQ2,IEPS,CBET,CXX
|
|
M1SQ = M1*M1
|
|
M2SQ = M2*M2
|
|
AQSQ = DABS(QSQ)
|
|
IEPS = DCMPLX(1.D0,1.D-12)
|
|
CQ2 = QSQ*IEPS
|
|
CD = (M1SQ-M2SQ)/CQ2
|
|
CR = CDSQRT((1+CD)**2 - 4*M1SQ/CQ2)
|
|
IF(QSQ.EQ.0.D0) THEN
|
|
F0_HDEC = 0.D0
|
|
ELSE
|
|
IF(M1.EQ.M2) THEN
|
|
F0_HDEC = -2.D0 + CR*CDLOG(-(1+CR)/(1-CR))
|
|
ELSE
|
|
CBET = CDSQRT(1-4*M1*M2/(CQ2 - (M1-M2)**2))
|
|
CXX = (CBET-1)/(CBET+1)
|
|
F0_HDEC = -1 + ((QSQ+M2SQ-M1SQ)/2/QSQ - M2SQ/(M2SQ-M1SQ))
|
|
. *DLOG(M2SQ/M1SQ)
|
|
. - (QSQ-(M1-M2)**2)/QSQ*CBET*CDLOG(CXX)
|
|
ENDIF
|
|
ENDIF
|
|
RETURN
|
|
END
|
|
|
|
C ************************************************************
|
|
C SUBROUTINE FOR HSM ---> V*V* ---> 4F
|
|
C ************************************************************
|
|
SUBROUTINE HTOVV_HDEC(IV,AMH,AMV,GAMV,HTVV)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
COMMON/VVOFF_HDEC/AMH1,AMV1,GAMV1
|
|
COMMON/VVOFFFLAG_HDEC/IV1
|
|
COMMON/PREC_HDEC/IP
|
|
EXTERNAL FTOVV1_HDEC
|
|
c IP=20
|
|
IP=50
|
|
AMH1=AMH
|
|
AMV1=AMV
|
|
GAMV1=GAMV
|
|
IV1 = IV
|
|
DLT=1D0/IP
|
|
SUM=0D0
|
|
DO 1 I=1,IP
|
|
UU=DLT*I
|
|
DD=UU-DLT
|
|
CALL QGAUS1_HDEC(FTOVV1_HDEC,DD,UU,RES)
|
|
SUM=SUM+RES
|
|
1 CONTINUE
|
|
HTVV=SUM
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION FTOVV1_HDEC(XX)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
COMMON/FIRST_HDEC/X1
|
|
COMMON/PREC_HDEC/IP
|
|
EXTERNAL FTOVV2_HDEC
|
|
X1=XX
|
|
DLT=1D0/IP
|
|
SUM=0D0
|
|
DO 1 I=1,IP
|
|
UU=DLT*I
|
|
DD=UU-DLT
|
|
CALL QGAUS2_HDEC(FTOVV2_HDEC,DD,UU,RES)
|
|
SUM=SUM+RES
|
|
1 CONTINUE
|
|
FTOVV1_HDEC=SUM
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION FTOVV2_HDEC(XX)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DIMENSION YY(2)
|
|
COMMON/FIRST_HDEC/X1
|
|
YY(1)=X1
|
|
YY(2)=XX
|
|
FTOVV2_HDEC=FTOVV_HDEC(YY)
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION FTOVV_HDEC(XX)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DOUBLE PRECISION LAMB
|
|
DIMENSION XX(2)
|
|
COMMON/VVOFF_HDEC/AMH,AMW,GAMW
|
|
LAMB(X,Y)=DSQRT((1.D0-X-Y)**2-4.D0*X*Y)
|
|
PI=4D0*DATAN(1D0)
|
|
IF(AMH.LT.2*AMW)THEN
|
|
ICASE = 1
|
|
ELSE
|
|
ICASE = 0
|
|
ENDIF
|
|
IF(ICASE.EQ.0)THEN
|
|
YY = AMH**2
|
|
Y1 = DATAN((YY-AMW**2)/AMW/GAMW)
|
|
Y2 = -DATAN((AMW**2)/AMW/GAMW)
|
|
DJAC = Y1-Y2
|
|
T1 = TAN(Y1*XX(1)+Y2*(1.D0-XX(1)))
|
|
SP = AMW**2 + AMW*GAMW*T1
|
|
YY = (AMH-DSQRT(SP))**2
|
|
Y1 = DATAN((YY-AMW**2)/AMW/GAMW)
|
|
Y2 = -DATAN((AMW**2)/AMW/GAMW)
|
|
DJAC = DJAC*(Y1-Y2)
|
|
T2 = TAN(Y1*XX(2)+Y2*(1.D0-XX(2)))
|
|
SM = AMW**2 + AMW*GAMW*T2
|
|
AM2=AMH**2
|
|
GAM = AM2*LAMB(SP/AM2,SM/AM2)*(1+LAMB(SP/AM2,SM/AM2)**2*AMH**4
|
|
. /SP/SM/12)
|
|
PRO1 = SP/AMW**2
|
|
PRO2 = SM/AMW**2
|
|
FTOVV_HDEC = PRO1*PRO2*GAM*DJAC/PI**2
|
|
. * RADVV_HDEC(SP,SM)
|
|
ELSE
|
|
SP = AMH**2*XX(1)
|
|
SM = (AMH-DSQRT(SP))**2*XX(2)
|
|
DJAC = AMH**2*(AMH-DSQRT(SP))**2/PI**2
|
|
AM2=AMH**2
|
|
GAM = AM2*LAMB(SP/AM2,SM/AM2)*(1+LAMB(SP/AM2,SM/AM2)**2*AMH**4
|
|
. /SP/SM/12)
|
|
PRO1 = SP*GAMW/AMW/((SP-AMW**2)**2+AMW**2*GAMW**2)
|
|
PRO2 = SM*GAMW/AMW/((SM-AMW**2)**2+AMW**2*GAMW**2)
|
|
FTOVV_HDEC = PRO1*PRO2*GAM*DJAC
|
|
. * RADVV_HDEC(SP,SM)
|
|
ENDIF
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION RADVV_HDEC(Q12,Q22)
|
|
IMPLICIT DOUBLE PRECISION (A-B,D-H,O-Z), COMPLEX*16 (C)
|
|
COMMON/VVOFFFLAG_HDEC/IV
|
|
q1 = dsqrt(q12)
|
|
q2 = dsqrt(q22)
|
|
if(iv.eq.0)then
|
|
radvv_hdec=1
|
|
elseif(iv.eq.1)then
|
|
radvv_hdec=radww_hdec(q1,q2)
|
|
else
|
|
radvv_hdec=radzz_hdec(q1,q2)
|
|
endif
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION RADWW_HDEC(Q1W,Q2W)
|
|
C ************************************************************
|
|
C ELECTROWEAK CORRECTIONS TO HSM ---> W*W* ---> 4F (APPROX.)
|
|
C (A. BREDENSTEIN ET AL., PHYS. REV. D74 (2006) 013004
|
|
C [ARXIV:HEP-PH/0604011])
|
|
C ************************************************************
|
|
IMPLICIT DOUBLE PRECISION (A-B,D-H,O-Z), COMPLEX*16 (C)
|
|
DOUBLE PRECISION LAMB
|
|
COMMON/VVOFF_HDEC/AMH,AMW,GAMW
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW0
|
|
COMMON/MASSES_HDEC/AMS0,AMC0,AMB0,AMT
|
|
COMMON/WZWDTH_HDEC/GAMC0,GAMT,GAMT1,GAMW0,GAMZ
|
|
LAMB(X,Y)=DSQRT((1.D0-X-Y)**2-4.D0*X*Y)
|
|
PI=4D0*DATAN(1D0)
|
|
cmut2 = dcmplx(amt**2,-amt*gamt)
|
|
cmuw2 = dcmplx(amw**2,-amw*gamw)
|
|
cmuz2 = dcmplx(amz**2,-amz*gamz*3)
|
|
cbett = cdsqrt(1-4*cmut2/amh**2)
|
|
cbetw = cdsqrt(1-4*cmuw2/amh**2)
|
|
cbetz = cdsqrt(1-4*cmuz2/amh**2)
|
|
cxt = (cbett-1)/(cbett+1)
|
|
cthww = 8+12*cbett**2+3*cbett*(3*cbett**2-1)*cdlog(cxt)
|
|
. + 3/2.d0*(1-cbett**2)**2*cdlog(cxt)**2
|
|
cbetwb = cdsqrt(dcmplx(amh**4+q1w**4+q2w**4-2*amh**2*q1w**2
|
|
. -2*amh**2*q2w**2-2*q1w**2*q2w**2))/amh**2
|
|
cgw = (1-cbetwb**2)**2
|
|
dmw = dabs(q1w**2-q2w**2)/amh**2
|
|
cdcoul = alph/cbetwb*dimag(cdlog((cbetw-cbetwb+dmw)
|
|
. /(cbetw+cbetwb+dmw)))
|
|
c cgz = 1
|
|
cgz = 0.7d0
|
|
cdcoulz = alph/2/cbetz*dimag(cdlog((cbetz-cbetwb)
|
|
. /(cbetz+cbetwb)))
|
|
c bias = 0.04d0*(1+(100-amh)/500)
|
|
bias = 0.05d0*(1+(100-amh)/500)
|
|
radww_hdec=dreal(1.d0
|
|
. +gf*cmut2/8.d0/pi**2/dsqrt(2.d0)*(-5+cthww)
|
|
. +gf*amh**2/16.d0/pi**2/dsqrt(2.d0)*2.800952d0
|
|
. +(gf*amh**2/16.d0/pi**2/dsqrt(2.d0))**2*62.0308d0
|
|
. +cgw*cdcoul + cgz*cdcoulz + bias)
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION RADZZ_HDEC(Q1Z,Q2Z)
|
|
C ************************************************************
|
|
C ELECTROWEAK CORRECTIONS TO HSM ---> Z*Z* ---> 4F (APPROX.)
|
|
C (A. BREDENSTEIN ET AL., PHYS. REV. D74 (2006) 013004
|
|
C [ARXIV:HEP-PH/0604011])
|
|
C ************************************************************
|
|
IMPLICIT DOUBLE PRECISION (A-B,D-H,O-Z), COMPLEX*16 (C)
|
|
DOUBLE PRECISION LAMB
|
|
COMMON/VVOFF_HDEC/AMH,AMZ,GAMZ
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ0,AMW
|
|
COMMON/MASSES_HDEC/AMS0,AMC0,AMB0,AMT
|
|
COMMON/WZWDTH_HDEC/GAMC0,GAMT,GAMT1,GAMW,GAMZ0
|
|
LAMB(X,Y)=DSQRT((1.D0-X-Y)**2-4.D0*X*Y)
|
|
PI=4D0*DATAN(1D0)
|
|
cmut2 = dcmplx(amt**2,-amt*gamt)
|
|
cmuw2 = dcmplx(amw**2,-amw*gamw)
|
|
cmuz2 = dcmplx(amz**2,-amz*gamz*2)
|
|
cbett = cdsqrt(1-4*cmut2/amh**2)
|
|
cbetw = cdsqrt(1-4*cmuw2/amh**2)
|
|
cbetz = cdsqrt(1-4*cmuz2/amh**2)
|
|
cxt = (cbett-1)/(cbett+1)
|
|
cthzz = 20+6*cbett**2+3*cbett*(cbett**2+1)*cdlog(cxt)
|
|
. + 3*(1-cbett**2)*cdlog(cxt)**2
|
|
cbetzb = cdsqrt(dcmplx(amh**4+q1z**4+q2z**4-2*amh**2*q1z**2
|
|
. -2*amh**2*q2z**2-2*q1z**2*q2z**2))/amh**2
|
|
c cgw =-0.15d0 * (1-cbetw**2)**2
|
|
cgw =-0.10d0 * (1-cbetw**2)**2
|
|
cdcoulw = alph/2/cbetw*dimag(cdlog((cbetw-cbetzb)
|
|
. /(cbetw+cbetzb)))
|
|
cgz = 1
|
|
cdcoulz = alph/2/cbetz*dimag(cdlog((cbetz-cbetzb)
|
|
. /(cbetz+cbetzb)))
|
|
c bias = 0.02d0*(1+(100-amh)/350)
|
|
bias = 0.02d0*(1+(100-amh)/300)
|
|
radzz_hdec=dreal(1.d0
|
|
. +gf*cmut2/8.d0/pi**2/dsqrt(2.d0)*(1+cthzz)
|
|
. +gf*amh**2/16.d0/pi**2/dsqrt(2.d0)*2.800952d0
|
|
. +(gf*amh**2/16.d0/pi**2/dsqrt(2.d0))**2*62.0308d0
|
|
. +cgw*cdcoulw + cgz*cdcoulz + bias)
|
|
RETURN
|
|
END
|
|
|
|
C ************************************************************
|
|
C SUBROUTINE FOR HSM ---> TT* ---> TBW
|
|
C ************************************************************
|
|
SUBROUTINE HTOTTS_HDEC(AMH,AMT,AMB,AMW,HTTS)
|
|
IMPLICIT REAL*8(A-Z)
|
|
INTEGER IP,K
|
|
COMMON/PREC1_HDEC/IP
|
|
EXTERNAL FUNSTT1_HDEC
|
|
COMMON/IKSY0_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
COMMON/TOP0_HDEC/AMH0,AMT0,AMB0,AMW0
|
|
AMH0=AMH
|
|
AMT0=AMT
|
|
AMB0=AMB
|
|
AMW0=AMW
|
|
IP=5
|
|
M1=AMB
|
|
M2=AMT
|
|
M3=AMW
|
|
C FIRST INTEGRATE OVER X2, i.e. (1+3) SYSTEM
|
|
C CHECK WHETHER ENOUGH PHASE SPACE
|
|
MASTOT=M1+M2+M3
|
|
IF(MASTOT.GE.AMH) GOTO 12
|
|
ECM=AMH
|
|
S=ECM**2
|
|
U1=(ECM-M2)**2
|
|
D1=(M1+M3)**2
|
|
U=(S-D1+M2**2)/s
|
|
D=(S-U1+M2**2)/s
|
|
DEL=(U-D)/IP
|
|
U=D+DEL
|
|
XSEC=0.D0
|
|
DO K=1,IP
|
|
CALL QGAUS1_HDEC(FUNSTT1_HDEC,D,U,SS)
|
|
D=U
|
|
U=D+DEL
|
|
XSEC=XSEC+SS
|
|
ENDDO
|
|
HTTS=XSEC
|
|
12 CONTINUE
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION FUNSTT1_HDEC(XL)
|
|
IMPLICIT REAL*8(A-Z)
|
|
INTEGER IP,I
|
|
COMMON/IKSY0_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
COMMON/PREC1_HDEC/IP
|
|
EXTERNAL FUNSTT2_HDEC
|
|
X2=XL
|
|
S13=S-S*X2+M2**2
|
|
TEM=2.D0*DSQRT(S13)
|
|
E2S=(S-S13-M2**2)/TEM
|
|
E3S=(S13+M3**2-M1**2)/TEM
|
|
C SECOND INTEGRAL OVER X1, i.e. (2+3) SYSTEM
|
|
U1=(E2S+E3S)**2-(DSQRT(E2S**2-M2**2)-DSQRT(E3S**2-M3**2))**2
|
|
D1=(E2S+E3S)**2-(DSQRT(E2S**2-M2**2)+DSQRT(E3S**2-M3**2))**2
|
|
U=(S-D1+M1**2)/s
|
|
D=(S-U1+M1**2)/s
|
|
DEL=(U-D)/IP
|
|
FUNSTT1_HDEC=0.d0
|
|
U=D+DEL
|
|
DO I=1,IP
|
|
CALL QGAUS2_HDEC(FUNSTT2_HDEC,D,U,SS)
|
|
FUNSTT1_HDEC=FUNSTT1_HDEC+SS
|
|
D=U
|
|
U=D+DEL
|
|
ENDDO
|
|
RETURN
|
|
END
|
|
|
|
c --- this is for a check of the off-shell decays h/H -> H+ W-
|
|
double precision function hvhinteg(dum)
|
|
|
|
implicit double precision (a-h,o-z)
|
|
double precision dum(2),lamb,kj,kk
|
|
|
|
common/DECPARAMETERS/amhi,amhj,amhk,gamtotj,gamtotk
|
|
|
|
c lamb(x,y)=dsqrt((1.d0-x-y)**2-4.d0*x*y)
|
|
c pi=4d0*datan(1d0)
|
|
|
|
c amhi = h/H, amhj = amch, amhk = amw
|
|
kj = amhj**2/amhi**2
|
|
kk = amhk**2/amhi**2
|
|
gamk = gamtotk**2/amhi**2
|
|
|
|
c ---- the integration limits ----
|
|
c --- the x1 integration ---------
|
|
x1m = 0.D0
|
|
x1p = 1.D0-kj
|
|
x1 = (x1p-x1m)*dum(1)+x1m
|
|
c --- the x2 integration ---------
|
|
x2m = 1.D0-x1-kj
|
|
x2p = 1.D0-kj/(1.D0-x1)
|
|
x2 = (x2p-x2m)*dum(2)+x2m
|
|
|
|
djac = (x1p-x1m)*(x2p-x2m)
|
|
|
|
hvhinteg = ((1.D0-x1)*(1.D0-x2)-kj)/
|
|
. ((1.D0-x1-x2-kj+kk)**2+kk*gamk)*djac
|
|
|
|
return
|
|
end
|
|
c ---- end check off-shell decays h/H -> H+ W-
|
|
|
|
DOUBLE PRECISION FUNCTION FUNSTT2_HDEC(XK)
|
|
IMPLICIT REAL*8(A-Z)
|
|
COMMON/IKSY0_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
X1=XK
|
|
CALL ELEMSTT_HDEC(SS)
|
|
FUNSTT2_HDEC=SS
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE ELEMSTT_HDEC(RES)
|
|
IMPLICIT REAL*8(A-Z)
|
|
COMMON/IKSY0_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
COMMON/TOP0_HDEC/AMH,AMT,AMB,AMW
|
|
COMMON/WZWDTH_HDEC/GAMC0,GAMT0,GAMT1,GAMW0,GAMZ0
|
|
GAMT=GAMT0**2*AMT**2/AMH**4
|
|
GAMW=GAMW0**2*AMW**2/AMH**4
|
|
W=AMW**2/AMH**2
|
|
T=AMT**2/AMH**2
|
|
Y1=1-X2
|
|
Y2=1-X1
|
|
X0=2.D0-X1-X2
|
|
W1=(1.D0-X2)
|
|
W3=(1.D0-X1-X2)
|
|
W11=1.D0/((1.D0-X2)**2+GAMT)
|
|
W33=1.D0/(W3**2+GAMW)
|
|
W13=W1*W3*W11*W33
|
|
|
|
R11=4*T*W-16.*T*W*Y1-4.*T*Y2*Y1+8.*T*Y1+32.*T*W**2-20
|
|
. .*T*Y1**2+8.*W*Y2*Y1+4.*W*Y1**2-4.*Y2*Y1**2-16.*T**2*W-
|
|
. 32.*T**2*Y1+4.*T**2-16.*T**3-8.*W**2+4.*Y1**2-4.*Y1**3
|
|
R33=-4.*T*W+4.*T*W*Y2-2.*T*W*Y2*Y1+4.*T*W*Y1+T*W*Y2**2-
|
|
. 3.*T*W*Y1**2+2.*T*Y2*Y1-3.*T*Y2*Y1**2+4.*T*W**2-4.*T*W**3
|
|
. +T*Y2**2-3.*T*Y2**2*Y1-T*Y2**3+T*Y1**2-T*Y1**3+4.*T**2
|
|
. *W-4.*T**2*W*Y2-4.*T**2*W*Y1-2.*T**2*Y2*Y1-4.*T**2*W**2-
|
|
. T**2*Y2**2-T**2*Y1**2+4.*W**2*Y2*Y1-8.*W**3*Y2-8.*W**3*Y1
|
|
. +4.*W**3+8.*W**4
|
|
R13=8.*W-24.*T*W+16.*T*W*Y1 -4.*T*Y2+16.*T*Y2*Y1-4.*T*
|
|
. Y1+16.*T*W**2+4.*T*Y2**2+12.*T*Y1**2-8.*W*Y2-12.*W*Y2*Y1
|
|
. -8.*W*Y1+4.*W*Y1**2-4.*Y2*Y1+8.*Y2*Y1**2+16.*T**2*W+8.
|
|
. *T**2*Y2+8.*T**2*Y1+16.*W**2*Y2+24.*W**2*Y1+4.*Y2**2*Y1-
|
|
. 32.*W**3-4.*Y1**2+4.*Y1**3
|
|
RES=R11*W11+4.D0*R33*W33/T-2.D0*R13*W13
|
|
RETURN
|
|
END
|
|
|
|
C **************************************************
|
|
C SUBROUTINE FOR A -> TT* -> TBW
|
|
C **************************************************
|
|
|
|
subroutine ATOTT_HDEC(ama,amt,amb,amw,amch,att0,gab,gat)
|
|
|
|
implicit real*8(a-z)
|
|
integer ip,k
|
|
common/prec1_hdec/ip
|
|
external funatt1_hdec
|
|
common/iksy1_hdec/x1,x2,m1,m2,m3,ecm,s
|
|
common/top1_hdec/ama1,amt1,amb1,amw1,amch1
|
|
common/top6_hdec/gab1,gat1
|
|
|
|
ama1=ama
|
|
amt1=amt
|
|
amb1=amb
|
|
amw1=amw
|
|
amch1=amch
|
|
gab1 = gab
|
|
gat1 = gat
|
|
|
|
ip=5
|
|
m1=amb
|
|
m2=amt
|
|
m3=amw
|
|
c first integrate over x2, i.e. (1+3) system
|
|
c check whether enough phase space
|
|
mastot=m1+m2+m3
|
|
if(mastot.ge.ama) goto 12
|
|
ecm=ama
|
|
s=ecm**2
|
|
u1=(ecm-m2)**2
|
|
d1=(m1+m3)**2
|
|
u=(s-d1+m2**2)/s
|
|
d=(s-u1+m2**2)/s
|
|
del=(u-d)/ip
|
|
u=d+del
|
|
xsec=0.d0
|
|
do k=1,ip
|
|
call qgaus1_hdec(funatt1_hdec,d,u,ss)
|
|
d=u
|
|
u=d+del
|
|
xsec=xsec+ss
|
|
enddo
|
|
att0=xsec
|
|
12 continue
|
|
return
|
|
end
|
|
|
|
DOUBLE PRECISION FUNCTION FUNATT1_HDEC(XL)
|
|
IMPLICIT REAL*8(A-Z)
|
|
INTEGER IP,I
|
|
COMMON/IKSY1_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
COMMON/PREC1_HDEC/IP
|
|
EXTERNAL FUNATT2_HDEC
|
|
X2=XL
|
|
S13=S-S*X2+M2**2
|
|
TEM=2.D0*DSQRT(S13)
|
|
E2S=(S-S13-M2**2)/TEM
|
|
E3S=(S13+M3**2-M1**2)/TEM
|
|
C SECOND INTEGRAL OVER X1, i.e. (2+3) SYSTEM
|
|
U1=(E2S+E3S)**2-(DSQRT(E2S**2-M2**2)-DSQRT(E3S**2-M3**2))**2
|
|
D1=(E2S+E3S)**2-(DSQRT(E2S**2-M2**2)+DSQRT(E3S**2-M3**2))**2
|
|
U=(S-D1+M1**2)/s
|
|
D=(S-U1+M1**2)/s
|
|
DEL=(U-D)/IP
|
|
FUNATT1_HDEC=0.d0
|
|
U=D+DEL
|
|
DO I=1,IP
|
|
CALL QGAUS2_HDEC(FUNATT2_HDEC,D,U,SS)
|
|
FUNATT1_HDEC=FUNATT1_HDEC+SS
|
|
D=U
|
|
U=D+DEL
|
|
ENDDO
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION FUNATT2_HDEC(XK)
|
|
IMPLICIT REAL*8(A-Z)
|
|
COMMON/IKSY1_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
X1=XK
|
|
CALL ELEMATT_HDEC(SS)
|
|
FUNATT2_HDEC=SS
|
|
RETURN
|
|
END
|
|
|
|
subroutine ELEMATT_HDEC(res)
|
|
implicit real*8(a-z)
|
|
common/iksy1_hdec/x1,x2,m1,m2,m3,ecm,s
|
|
common/top1_hdec/ama,amt,amb,amw,amch
|
|
common/top6_hdec/gab,gat
|
|
common/wzwdth_hdec/gamc0,gamt0,gamt1,gamw,gamz
|
|
|
|
gamt=gamt1**2*amt**2/ama**4
|
|
gamc=gamc0**2*amch**2/ama**4
|
|
ch=amch**2/ama**2
|
|
w=amw**2/ama**2
|
|
t=amt**2/ama**2
|
|
b=amb**2/ama**2
|
|
y1=1-x1
|
|
y2=1-x2
|
|
x0=2.d0-x1-x2
|
|
w1=(1.d0-x2)
|
|
w2=(1.d0-x0+w-ch)
|
|
w22=1.d0/ ((1.d0-x0+w-ch)**2+gamc)
|
|
w11=1.d0/((1.d0-x2)**2+gamt)
|
|
w12=w1*w2*w11*w22
|
|
w3=(1.d0-x1)
|
|
w33=1.d0/w3**2
|
|
w13=w1*w11/w3
|
|
w23=w2*w22/w3
|
|
|
|
r11= 4.d0*b**2 - 8.d0*b*t + 4.d0*t**2 + 4.d0*b*w + 4.d0*t*w -
|
|
. 8.d0*w**2 - 8.d0*b*y2 + 8.d0*t*y2 + 4.d0*b*y1*y2 -
|
|
. 4.d0*t*y1*y2 + 8.d0*w*y1*y2 + 4.d0*y2**2 + 4.d0*b*y2**2 -
|
|
. 4.d0*t*y2**2 + 4.d0*w*y2**2 - 4.d0*y1*y2**2 - 4.d0*y2**3
|
|
r22= 4.d0/t*(4.d0*w - (y1+y2)**2)*(b**2*gab**2+gat**2*t*
|
|
. (-1.d0 + t - w + y1 + y2) + b*(4.d0*gab*gat*t + gat**2*t +
|
|
. gab**2*(-1 + t - w + y1 + y2)))
|
|
r12= 2.d0*(-4.d0*(gat*(-2*w**2 -(t + y2)*(-1 + y1 + y2)*(y1 + y2)
|
|
. +w*(2*(-1 + t + y1) + (2 + y1)*y2 + y2**2)) +
|
|
. b*(gat*(2*w - y1 - y2) + gab*(4*w - (y1 + y2)**2))))
|
|
r33= 4.d0*b**2 - 8.d0*b*t + 4.d0*t**2 + 4.d0*b*w + 4.d0*t*w -
|
|
. 8.d0*w**2 + 8.d0*b*y1 - 8.d0*t*y1 + 4.d0*y1**2 -
|
|
. 4.d0*b*y1**2 + 4.d0*t*y1**2 + 4.d0*w*y1**2 - 4.d0*y1**3 -
|
|
. 4.d0*b*y1*y2 + 4.d0*t*y1*y2 + 8.d0*w*y1*y2 - 4.d0*y1**2*y2
|
|
r13= -8.d0*b*(y1**2+2.d0*y1*y2+y2**2+2.d0*w)
|
|
r23= -8.d0*(gat*t*(4.d0*w - (y1 + y2)**2) + gab*(-2.d0*w**2 -
|
|
. (y1 + y2)*(t + b*(-1.d0 + y1 + y2) + y1*(-1.d0 + y1 + y2)) +
|
|
. w*(2.d0*b + 2.d0*t +
|
|
. 2.d0*(-1.d0 + y2) + y1*(2.d0 + y1 + y2))))
|
|
|
|
c --- take off charged Higgs exchange ---
|
|
w22 = 0.D0
|
|
w12 = 0.D0
|
|
w23 = 0.D0
|
|
c ----------------------------------------
|
|
|
|
res= (r11*w11*gat**2+r22*w22+r12*w12*gat+
|
|
. r33*w33*b/t*gab**2+r23*w23*gab*b/t+
|
|
. r13*w13*gab*gat)/gat**2
|
|
|
|
return
|
|
|
|
end
|
|
|
|
C ************************************************************
|
|
C SUBROUTINE FOR H ---> TT* ---> TBW
|
|
C ************************************************************
|
|
SUBROUTINE HTOTT_HDEC(AMH,AMT,AMB,AMW,AMCH,GHT,GHB,GAT,GAB,GHVV,
|
|
. GHIHPWM,HTT0)
|
|
IMPLICIT REAL*8(A-Z)
|
|
INTEGER IP,K
|
|
COMMON/PREC1_HDEC/IP
|
|
EXTERNAL FUNHTT1_HDEC
|
|
COMMON/IKSY2_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
COMMON/TOP2_HDEC/AMH2,AMT2,AMB2,AMW2,AMCH2,GHT2,GHB2,
|
|
. GAT2,GAB2,GHVV2
|
|
c maggie changed 20/8/2013
|
|
COMMON/TOP4_HDEC/GLVV2
|
|
c end maggie changed 20/8/2013
|
|
AMH2=AMH
|
|
AMT2=AMT
|
|
AMB2=AMB
|
|
AMW2=AMW
|
|
AMCH2=AMCH
|
|
GHT2=GHT
|
|
GHB2=GHB
|
|
GAT2=GAT
|
|
GAB2=GAB
|
|
GHVV2=GHVV
|
|
c MMM changed 20/8/2013
|
|
GLVV2=GHIHPWM
|
|
c end MMM changed 20/8/2013
|
|
IP=5
|
|
M1=AMB
|
|
M2=AMT
|
|
M3=AMW
|
|
C FIRST INTEGRATE OVER X2, i.e. (1+3) SYSTEM
|
|
C CHECK WHETHER ENOUGH PHASE SPACE
|
|
MASTOT=M1+M2+M3
|
|
IF(MASTOT.GE.AMH) GOTO 12
|
|
ECM=AMH
|
|
S=ECM**2
|
|
U1=(ECM-M2)**2
|
|
D1=(M1+M3)**2
|
|
U=(S-D1+M2**2)/s
|
|
D=(S-U1+M2**2)/s
|
|
DEL=(U-D)/IP
|
|
U=D+DEL
|
|
XSEC=0.D0
|
|
DO K=1,IP
|
|
CALL QGAUS1_HDEC(FUNHTT1_HDEC,D,U,SS)
|
|
D=U
|
|
U=D+DEL
|
|
XSEC=XSEC+SS
|
|
ENDDO
|
|
HTT0=XSEC
|
|
12 CONTINUE
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION FUNHTT1_HDEC(XL)
|
|
IMPLICIT REAL*8(A-Z)
|
|
INTEGER IP,I
|
|
COMMON/IKSY2_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
COMMON/PREC1_HDEC/IP
|
|
EXTERNAL FUNHTT2_HDEC
|
|
X2=XL
|
|
S13=S-S*X2+M2**2
|
|
TEM=2.D0*DSQRT(S13)
|
|
E2S=(S-S13-M2**2)/TEM
|
|
E3S=(S13+M3**2-M1**2)/TEM
|
|
C SECOND INTEGRAL OVER X1, i.e. (2+3) SYSTEM
|
|
U1=(E2S+E3S)**2-(DSQRT(E2S**2-M2**2)-DSQRT(E3S**2-M3**2))**2
|
|
D1=(E2S+E3S)**2-(DSQRT(E2S**2-M2**2)+DSQRT(E3S**2-M3**2))**2
|
|
U=(S-D1+M1**2)/s
|
|
D=(S-U1+M1**2)/s
|
|
DEL=(U-D)/IP
|
|
FUNHTT1_HDEC=0.d0
|
|
U=D+DEL
|
|
DO I=1,IP
|
|
CALL QGAUS2_HDEC(FUNHTT2_HDEC,D,U,SS)
|
|
FUNHTT1_HDEC=FUNHTT1_HDEC+SS
|
|
D=U
|
|
U=D+DEL
|
|
ENDDO
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION FUNHTT2_HDEC(XK)
|
|
IMPLICIT REAL*8(A-Z)
|
|
COMMON/IKSY2_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
X1=XK
|
|
CALL ELEMHTT_HDEC(SS)
|
|
FUNHTT2_HDEC=SS
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE ELEMHTT_HDEC(RES)
|
|
IMPLICIT REAL*8(A-Z)
|
|
COMMON/IKSY2_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
COMMON/TOP2_HDEC/AMH,AMT,AMB,AMW,AMCH,GHT,GHB,GAT,GAB,GHVV
|
|
COMMON/WZWDTH_HDEC/GAMC0,GAMT0,GAMT1,GAMW0,GAMZ0
|
|
COMMON/TOP4_HDEC/GLVV
|
|
GAMT=GAMT1**2*AMT**2/AMH**4
|
|
GAMC=GAMC0**2*AMCH**2/AMH**4
|
|
GAMW=GAMW0**2*AMW**2/AMH**4
|
|
CH=AMCH**2/AMH**2
|
|
W=AMW**2/AMH**2
|
|
T=AMT**2/AMH**2
|
|
B=AMB**2/AMH**2
|
|
Y1=1-X2
|
|
Y2=1-X1
|
|
X0=2.D0-X1-X2
|
|
|
|
W1=(1.D0-X2)
|
|
W2=(1.D0-X0+W-CH)
|
|
W3 = (1.D0-X0)
|
|
W22=1.D0/ (W2**2+GAMC)
|
|
W11=1.D0/(W1**2+GAMT)
|
|
W33=1.D0/(W3**2+GAMW)
|
|
W12=W1*W2*W11*W22
|
|
W13=W1*W3*W11*W33
|
|
W23=W2*W3*W22*W33
|
|
W4=(1.d0-X1)
|
|
W44=1.d0/W4**2
|
|
W14=W1*W11/W4
|
|
W24=W2*W22/W4
|
|
W34=W3*W33/W4
|
|
|
|
R11=4.d0*B**2-8.d0*B*T-16.d0*B**2*T+4.d0*T**2+32.d0*B*T**2-
|
|
. 16.d0*T**3+4.d0*B*W+4.d0*T*W-16.d0*B*T*W-16.d0*T**2*W-
|
|
. 8.d0*W**2+32.d0*T*W**2-8.d0*B*Y1+8.d0*T*Y1+32.d0*B*T*Y1-
|
|
. 32.d0*T**2*Y1-16.d0*T*W*Y1+4.d0*Y1**2+4.d0*B*Y1**2-
|
|
. 20.d0*T*Y1**2+4.d0*W*Y1**2-4.d0*Y1**3+4.d0*B*Y1*Y2 -
|
|
. 4.d0*T*Y1*Y2+8.d0*W*Y1*Y2-4.d0*Y1**2*Y2
|
|
R22= 4.d0*(4.d0*W - (Y1+Y2)**2)*(b**2*GAB**2+GAT**2*t*
|
|
. (-1.d0 + T - W + Y1 + Y2) + B*(4.d0*GAB*GAT*T + GAT**2*T +
|
|
. GAB**2*(-1 + T - W + Y1 + Y2)))/T
|
|
R33=-4.d0*B*W+4.d0*B**2*W-4.d0*T*W-8.d0*B*T*W+4.d0*T**2*W+
|
|
. 4.d0*B*W**2-4.d0*B**2*W**2+4.d0*T*W**2+8.d0*B*T*W**2-
|
|
. 4.d0*T**2*W**2+4.d0*W**3-4.d0*B*W**3-4.d0*T*W**3+8.d0*W**4+
|
|
. 4.d0*B*W*Y1-4.d0*B**2*W*Y1+4.d0*T*W*Y1+8.d0*B*T*W*Y1-
|
|
. 4.d0*T**2*W*Y1-8.d0*W**3*Y1+B*Y1**2-B**2*Y1**2+T*Y1**2+
|
|
. 2.d0*B*T*Y1**2-T**2*Y1**2+B*W*Y1**2-3.d0*T*W*Y1**2-B*Y1**3-
|
|
. T*Y1**3+4.d0*B*W*Y2-4.d0*B**2*W*Y2+4.d0*T*W*Y2+
|
|
. 8.d0*B*T*W*Y2-4.d0*T**2*W*Y2-8.d0*W**3*Y2+2.d0*B*Y1*Y2-
|
|
. 2.d0*B**2*Y1*Y2+2.d0*T*Y1*Y2+4.d0*B*T*Y1*Y2-2.d0*T**2*Y1*Y2-
|
|
. 2.d0*B*W*Y1*Y2-2.d0*T*W*Y1*Y2+4.d0*W**2*Y1*Y2-
|
|
. 3.d0*B*Y1**2*Y2-3.d0*T*Y1**2*Y2+B*Y2**2-B**2*Y2**2+T*Y2**2+
|
|
. 2.d0*B*T*Y2**2-T**2*Y2**2-3.d0*B*W*Y2**2+T*W*Y2**2-
|
|
. 3.d0*B*Y1*Y2**2-3.d0*T*Y1*Y2**2-B*Y2**3-T*Y2**3
|
|
R12=4.d0*(B*GAB*((Y1*(2.d0*T - 2*W + Y1)) +
|
|
. 2.d0*(T + W)*Y2 - Y2**2 - 2.d0*B*(Y1 + Y2)) +
|
|
. GAT*(2.d0*W**2 - W*(2.d0*B + 2.d0*T*(3 + Y1 - Y2) +
|
|
. 2.d0*(-1.d0 + Y1 + Y2) + Y1*(Y1 + Y2)) +
|
|
. (Y1 + Y2)*(B - 2.d0*B*T +
|
|
. (T + Y1)*(-1.d0 + 2.d0*T + Y1 + Y2))))
|
|
c original HDECAY sign in R13 not correct
|
|
R13=(8.d0*W-8*B*W+16.d0*B**2*W-24.d0*T*W-32.d0*B*T*W+16.d0*T**2*W+
|
|
. 16.d0*B*W**2+16.d0*T*W**2-32.d0*W**3+4.d0*B*Y1+8.d0*B**2*Y1-
|
|
. 4.d0*T*Y1-16.d0*B*T*Y1+8.d0*T**2*Y1-8.d0*W*Y1-16.d0*B*W*Y1+
|
|
. 16.d0*T*W*Y1+24.d0*W**2*Y1-4.d0*Y1**2-4.d0*B*Y1**2+
|
|
. 12.d0*T*Y1**2+4.d0*W*Y1**2+4.d0*Y1**3+4.d0*B*Y2+8.d0*B**2*Y2-
|
|
. 4.d0*T*Y2-16.d0*B*T*Y2+8.d0*T**2*Y2-8.d0*W*Y2+16.d0*W**2*Y2-
|
|
. 4.d0*Y1*Y2+16.d0*T*Y1*Y2-12.d0*W*Y1*Y2+8.d0*Y1**2*Y2+
|
|
. 4.d0*B*Y2**2+4.d0*T*Y2**2+4.d0*Y1*Y2**2)*(-1.d0)
|
|
R23=-4.d0*(B**2*GAB*(2.d0*W*(-2.d0 + Y1 + Y2) + (Y1 + Y2)**2) -
|
|
. GAT*T*(2*W**2*(-Y1 + Y2) + (Y1 + Y2)**2*(-1 + T + Y1 + Y2) +
|
|
. W*(4 + (-4 + Y1)*Y1 - Y2*(4 + Y2) + 2*T*(-2 + Y1 + Y2))) +
|
|
. B*(GAT*T*(2*W*(-2 + Y1 + Y2) + (Y1 + Y2)**2) + GAB*
|
|
. (2*W**2*(Y1 - Y2) + (Y1 + Y2)**2*(-1 - T + Y1 + Y2) -
|
|
. W*(Y1*(4 + Y1) - (-2 + Y2)**2 + 2*T*(-2 + Y1 + Y2)))))
|
|
R44=4.d0*B**2-16.d0*B**3-8.d0*B*T+32.d0*B**2*T+4.d0*T**2-
|
|
. 16.d0*B*T**2+4.d0*B*W-16.d0*B**2*W+4.d0*T*W-16.d0*B*T*W-
|
|
. 8.d0*W**2+32.d0*B*W**2+8.d0*B*Y2-32.d0*B**2*Y2-8.d0*T*Y2+
|
|
. 32.d0*B*T*Y2-16.d0*B*W*Y2-4.d0*B*Y1*Y2+4.d0*T*Y1*Y2+
|
|
. 8.d0*W*Y1*Y2+4.d0*Y2**2-20.d0*B*Y2**2+4.d0*T*Y2**2+
|
|
. 4.d0*W*Y2**2-4.d0*Y1*Y2**2-4.d0*Y2**3
|
|
R14=-16.d0*B**2+32.d0*B*T-16.d0*T**2+8.d0*W-16.d0*B*W-16.d0*T*W+
|
|
. 32.d0*W**2-16.d0*B*Y2+16.d0*T*Y2-8.d0*W*Y2-4.d0*Y2**2+
|
|
. 16.d0*B*Y1-16.d0*T*Y1-8.d0*W*Y1+8.d0*Y2*Y1-4.d0*Y1**2
|
|
R24= 4.d0*(GAT*T*(Y1*(2.d0*T - 2*W + Y1) + 2.d0*(T + W)*Y2 -
|
|
. Y2**2 - 2.d0*B*(Y1 + Y2)) + GAB*(-2.d0*W**2 +
|
|
. W*(2.d0*B*(3.d0 - Y1 + Y2) + Y2*(Y1 + Y2) +
|
|
. 2.d0*(-1.d0 + T + Y1 + Y2)) - (Y1 + Y2)*(2.d0*B**2 + T +
|
|
. Y2*(-1.d0 + Y1 + Y2) + B*(-1.d0 - 2*T + Y1 + 3.d0*Y2))))
|
|
R34=-8.d0*W+24.d0*B*W-16.d0*B**2*W+8*T*W+32.d0*B*T*W-16.d0*T**2*W-
|
|
. 16.d0*B*W**2-16.d0*T*W**2+32.d0*W**3+4.d0*B*Y1-8.d0*B**2*Y1-
|
|
. 4.d0*T*Y1+16.d0*B*T*Y1-8.d0*T**2*Y1+8.d0*W*Y1-16.d0*W**2*Y1-
|
|
. 4.d0*B*Y1**2-4.d0*T*Y1**2+4.d0*B*Y2-8.d0*B**2*Y2-4.d0*T*Y2+
|
|
. 16.d0*B*T*Y2-8.d0*T**2*Y2+8.d0*W*Y2-16.d0*B*W*Y2+
|
|
. 16.d0*T*W*Y2-24.d0*W**2*Y2+4.d0*Y1*Y2-16.d0*B*Y1*Y2+
|
|
. 12.d0*W*Y1*Y2-4.d0*Y1**2*Y2+4.d0*Y2**2-12.d0*B*Y2**2+
|
|
. 4.d0*T*Y2**2-4.d0*W*Y2**2-8.d0*Y1*Y2**2-4.d0*Y2**3
|
|
|
|
c - take off the charged H+ and W+ exchange -
|
|
W22 = 0.D0
|
|
W33 = 0.D0
|
|
W12 = 0.D0
|
|
W23 = 0.D0
|
|
W13 = 0.D0
|
|
W24 = 0.D0
|
|
W34 = 0.D0
|
|
c -------------------------------------------
|
|
|
|
RES=GHT**2*R11*W11+GLVV**2*R22*W22+
|
|
. 4.D0*GHVV**2*R33*W33/T+2.D0*GHT*GLVV*R12*W12+
|
|
. 2.D0*GHT*GHVV*R13*W13+2.D0*GHVV*GLVV*R23*W23/T+
|
|
. GHB**2*R44*W44*B/T+2.D0*B*GHB*GHT*R14*W14+
|
|
. 2.D0*GHB*GLVV*R24*W24*B/T+
|
|
. 2.d0*GHB*GHVV*R34*W34*B/T
|
|
RETURN
|
|
END
|
|
|
|
C ************************************************************
|
|
C SUBROUTINE FOR H+ ---> BT* ---> BBW
|
|
C ************************************************************
|
|
SUBROUTINE CTOTT_HDEC(AMCH,AMT,AMB,AMW,i2hdm,gat,gab,CTT0)
|
|
IMPLICIT REAL*8(A-Z)
|
|
INTEGER IP,K,i2hdm3,i2hdm
|
|
COMMON/PREC1_HDEC/IP
|
|
EXTERNAL FUNCTT1_HDEC
|
|
COMMON/IKSY3_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
COMMON/TOP3_HDEC/AMH3,AMT3,AMB3,AMW3
|
|
COMMON/TOP5_HDEC/gat3,gab3,i2hdm3
|
|
AMH3=AMCH
|
|
AMT3=AMT
|
|
AMB3=AMB
|
|
AMW3=AMW
|
|
gat3=gat
|
|
gab3=gab
|
|
i2hdm3=i2hdm
|
|
IP=5
|
|
M1=AMB
|
|
M2=AMB
|
|
M3=AMW
|
|
C FIRST INTEGRATE OVER X2, i.e. (1+3) SYSTEM
|
|
C CHECK WHETHER ENOUGH PHASE SPACE
|
|
MASTOT=M1+M2+M3
|
|
IF(MASTOT.GE.AMCH) GOTO 12
|
|
ECM=AMCH
|
|
S=ECM**2
|
|
U1=(ECM-M2)**2
|
|
D1=(M1+M3)**2
|
|
U=(S-D1+M2**2)/s
|
|
D=(S-U1+M2**2)/s
|
|
DEL=(U-D)/IP
|
|
U=D+DEL
|
|
XSEC=0.D0
|
|
DO K=1,IP
|
|
CALL QGAUS1_HDEC(FUNCTT1_HDEC,D,U,SS)
|
|
D=U
|
|
U=D+DEL
|
|
XSEC=XSEC+SS
|
|
ENDDO
|
|
CTT0=XSEC
|
|
12 CONTINUE
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION FUNCTT1_HDEC(XL)
|
|
IMPLICIT REAL*8(A-Z)
|
|
INTEGER IP,I
|
|
COMMON/IKSY3_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
COMMON/PREC1_HDEC/IP
|
|
EXTERNAL FUNCTT2_HDEC
|
|
X2=XL
|
|
S13=S-S*X2+M2**2
|
|
TEM=2.D0*DSQRT(S13)
|
|
E2S=(S-S13-M2**2)/TEM
|
|
E3S=(S13+M3**2-M1**2)/TEM
|
|
C SECOND INTEGRAL OVER X1, i.e. (2+3) SYSTEM
|
|
U1=(E2S+E3S)**2-(DSQRT(E2S**2-M2**2)-DSQRT(E3S**2-M3**2))**2
|
|
D1=(E2S+E3S)**2-(DSQRT(E2S**2-M2**2)+DSQRT(E3S**2-M3**2))**2
|
|
U=(S-D1+M1**2)/s
|
|
D=(S-U1+M1**2)/s
|
|
DEL=(U-D)/IP
|
|
FUNCTT1_HDEC=0.d0
|
|
U=D+DEL
|
|
DO I=1,IP
|
|
CALL QGAUS2_HDEC(FUNCTT2_HDEC,D,U,SS)
|
|
FUNCTT1_HDEC=FUNCTT1_HDEC+SS
|
|
D=U
|
|
U=D+DEL
|
|
ENDDO
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION FUNCTT2_HDEC(XK)
|
|
IMPLICIT REAL*8(A-Z)
|
|
COMMON/IKSY3_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
X1=XK
|
|
CALL ELEMCTT_HDEC(SS)
|
|
FUNCTT2_HDEC=SS
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE ELEMCTT_HDEC(RES)
|
|
IMPLICIT REAL*8(A-Z)
|
|
integer i2hdm
|
|
COMMON/IKSY3_HDEC/X1,X2,M1,M2,M3,ECM,S
|
|
COMMON/TOP3_HDEC/AMCH,AMT,AMB,AMW
|
|
COMMON/WZWDTH_HDEC/GAMC0,GAMT0,GAMT1,GAMW,GAMZ
|
|
COMMON/TOP5_HDEC/gat,gab,i2hdm
|
|
GAMT=GAMT1**2*AMT**2/AMCH**4
|
|
W=AMW**2/AMCH**2
|
|
T=AMT**2/AMCH**2
|
|
B=AMB**2/AMCH**2
|
|
|
|
c ---- w/o b-quark mass dependence ----
|
|
|
|
RES=((1.D0-X1-W)*(1.D0-X2-W)+W*(X1+X2-1.D0+W))/
|
|
. ((1.D0-X2+B-T)**2+GAMT)
|
|
|
|
c ---- w/ b-quark mass dependence ----
|
|
|
|
res=(-2.d0*b**3*gab**2*w+gat**2*t**2*((-1.d0+2.d0*w)*(-1.d0+w+x1)+
|
|
. (-1.d0+2.d0*w+x1)*x2)+b*(-2.d0*gat**2*t**2*w+2*gab*gat*t*
|
|
. (1.d0+2.d0*w-x2)*(-1.d0+w+x2)+gab**2*(-2.d0*w**2+
|
|
. (-1.d0+x2)**2*(-1.d0+x1+x2)+w*(-1.d0+x2)*
|
|
. (-3.d0+2.d0*x1+x2)))+b**2*gab*(-4.d0*gat*t*w+gab*
|
|
. (2.d0*w**2+w*(3.d0-2.d0*x1)-(-1.d0+x2)*
|
|
. (-3.d0+x1+2.d0*x2))))/((1.d0-x2+b-t)**2+gamt)/t**2/gat**2
|
|
|
|
RETURN
|
|
END
|
|
|
|
C ***************** INTEGRATION ROUTINE ***********************
|
|
C Returns SS as integral of FUNC from A to B, by 10-point Gauss-
|
|
C Legendre integration
|
|
SUBROUTINE QGAUS1_HDEC(FUNC,A,B,SS)
|
|
IMPLICIT REAL*8(A-Z)
|
|
INTEGER J
|
|
DIMENSION X(5),W(5)
|
|
EXTERNAL FUNC
|
|
DATA X/.1488743389D0,.4333953941D0,.6794095682D0
|
|
. ,.8650633666D0,.9739065285D0/
|
|
DATA W/.2955242247D0,.2692667193D0,.2190863625D0
|
|
. ,.1494513491D0,.0666713443D0/
|
|
XM=0.5D0*(B+A)
|
|
XR=0.5D0*(B-A)
|
|
SS=0.D0
|
|
DO 11 J=1,5
|
|
DX=XR*X(J)
|
|
SS=SS+W(J)*(FUNC(XM+DX)+FUNC(XM-DX))
|
|
11 CONTINUE
|
|
SS=XR*SS
|
|
RETURN
|
|
END
|
|
|
|
C Returns SS as integral of FUNC from A to B, by 10-point Gauss-
|
|
C Legendre integration
|
|
SUBROUTINE QGAUS2_HDEC(FUNC,A,B,SS)
|
|
IMPLICIT REAL*8(A-Z)
|
|
INTEGER J
|
|
DIMENSION X(5),W(5)
|
|
EXTERNAL FUNC
|
|
DATA X/.1488743389D0,.4333953941D0,.6794095682D0
|
|
. ,.8650633666D0,.9739065285D0/
|
|
DATA W/.2955242247D0,.2692667193D0,.2190863625D0
|
|
. ,.1494513491D0,.0666713443D0/
|
|
XM=0.5D0*(B+A)
|
|
XR=0.5D0*(B-A)
|
|
SS=0.D0
|
|
DO 11 J=1,5
|
|
DX=XR*X(J)
|
|
SS=SS+W(J)*(FUNC(XM+DX)+FUNC(XM-DX))
|
|
11 CONTINUE
|
|
SS=XR*SS
|
|
RETURN
|
|
END
|
|
|
|
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
SUBROUTINE AMHAMA_HDEC(ICASE,MH,TANB)
|
|
C--CALCULATION OF PSEUDOSCALAR HIGGS MASS FROM HIGGS MASS MH
|
|
C--ICASE=0: MH=PSEUDOSCALAR MASS
|
|
C--ICASE=1: MH=LIGHT SCALAR MASS
|
|
C--ICASE=2: MH=HEAVY SCALAR MASS
|
|
C--ICASE=3: MH=CHARGED HIGGS MASS
|
|
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
IMPLICIT REAL*8(A-H,L,M,O-Z)
|
|
DIMENSION VH(2,2),M2(2,2),M2P(2,2)
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AML,AMH,AMCH,AMAR
|
|
COMMON/MODEL_HDEC/IMODEL
|
|
COMMON/HMSSM_HDEC/AMHL10
|
|
IF(IMODEL.EQ.10)THEN
|
|
CALL SUSYCP_HDEC(TANB)
|
|
RETURN
|
|
ENDIF
|
|
IF(ICASE.EQ.0)THEN
|
|
MA = MH
|
|
ELSE
|
|
DEL0 = 1.D-4
|
|
MA0 = 1.D0
|
|
MA1 = 1.D4
|
|
1 MA = (MA0+MA1)/2
|
|
C CALL SUBH1_HDEC(MA,TANB,MQ,MUR,MD,MTOP,AU,AD,MU,MCHI0,
|
|
C * MHP,HMP,MCH,SA,CA,TANBA)
|
|
AMA = MA
|
|
CALL SUSYCP_HDEC(TANB)
|
|
IF(ICASE.EQ.1)THEN
|
|
MX = AML
|
|
ELSEIF(ICASE.EQ.2)THEN
|
|
MX = AMH
|
|
ELSEIF(ICASE.EQ.3)THEN
|
|
MX = AMCH
|
|
ENDIF
|
|
DEL = DABS(MA1 - MA0)/MA
|
|
IF(DEL.GT.DEL0) THEN
|
|
IF(MX.GT.MH) MA1 = MA
|
|
IF(MX.LT.MH) MA0 = MA
|
|
GOTO 1
|
|
ENDIF
|
|
FAC = 1
|
|
MAX = DINT(FAC*MA+0.5D0)/FAC
|
|
C CALL SUBH1_HDEC(MAX,TANB,MQ,MUR,MD,MTOP,AU,AD,MU,MCHI0,
|
|
C * MHP,HMP,MCH,SA,CA,TANBA)
|
|
AMA = MAX
|
|
CALL SUSYCP_HDEC(TANB)
|
|
IF(ICASE.EQ.1)THEN
|
|
MX = AML
|
|
ELSEIF(ICASE.EQ.2)THEN
|
|
MX = AMH
|
|
ELSEIF(ICASE.EQ.3)THEN
|
|
MX = AMCH
|
|
ENDIF
|
|
IF(MX.EQ.MH)THEN
|
|
MA = MAX
|
|
ELSE
|
|
DEL0 = 1.D-8
|
|
2 MA = (MA0+MA1)/2
|
|
C CALL SUBH1_HDEC(MA,TANB,MQ,MUR,MD,MTOP,AU,AD,MU,MCHI0,
|
|
C * MHP,HMP,MCH,SA,CA,TANBA)
|
|
AMA = MA
|
|
CALL SUSYCP_HDEC(TANB)
|
|
IF(ICASE.EQ.1)THEN
|
|
MX = AML
|
|
ELSEIF(ICASE.EQ.2)THEN
|
|
MX = AMH
|
|
ELSEIF(ICASE.EQ.3)THEN
|
|
MX = AMCH
|
|
ENDIF
|
|
DEL = DABS(MA1 - MA0)/MA
|
|
IF(DEL.GT.DEL0) THEN
|
|
IF(MX.GT.MH) MA1 = MA
|
|
IF(MX.LT.MH) MA0 = MA
|
|
GOTO 2
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
AMA = MA
|
|
CALL SUSYCP_HDEC(TANB)
|
|
RETURN
|
|
END
|
|
C
|
|
C ****************************************************************
|
|
C CHARGINO AND NEUTRALINO MASS MATRICES AND COUPLINGS
|
|
C ****************************************************************
|
|
SUBROUTINE GAUGINO_HDEC(MU,M20,B,A,MC,MN,XMN,AC1,AC2,AC3,AN1,AN2
|
|
. ,AN3,ACNL,ACNR,AGDL,AGDA,AGDH,AGDC)
|
|
IMPLICIT REAL*8(A-H,K-Z)
|
|
COMPLEX*16 CXA,CXB,CXC,CXD,CX1,CX2,CX3
|
|
DIMENSION MC(2),MN(4),XMN(4),Z(4,4),ZX(4,4),U(2,2),V(2,2),
|
|
. QQ(4,4),SS(4,4),S(2,2),Q(2,2),AC1(2,2),AC2(2,2),
|
|
. AC3(2,2),AN1(4,4),AN2(4,4),AN3(4,4),ACNL(2,4),
|
|
. ACNR(2,4),IORD(4),IREM(2)
|
|
DIMENSION X(2,2)
|
|
DIMENSION YMN(4),YZ(4,4),XMC(2),BU(2),BV(2)
|
|
DIMENSION AGDL(4),AGDA(4),AGDH(4),AGDC(2)
|
|
DIMENSION slhaneut(4),slhaxneut(4),slhachar(2),slhau(2,2),
|
|
. slhav(2,2),slhaz(4,4),slhaxchar(2)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,MZ,MW
|
|
COMMON/GAUGINOMIX_HDEC/ZX,U,V
|
|
COMMON/SLHA_vals_HDEC/islhai,islhao
|
|
COMMON/SLHA_m1_HDEC/am1
|
|
COMMON/M1_HDEC/am10,igut
|
|
COMMON/SLHA_gaug_HDEC/slhaneut,slhaxneut,slhachar,slhau,slhav,
|
|
. slhaz,slhaxchar
|
|
M2 = DABS(M20)
|
|
CW=MW/MZ
|
|
SW=DSQRT(1-CW**2)
|
|
PI=4.D0*DATAN(1.D0)
|
|
SB=DSIN(B)
|
|
CB=DCOS(B)
|
|
TW=SW/CW
|
|
if(islhai.eq.0) then
|
|
if(igut.ne.0)then
|
|
M1=5.D0/3.D0*TW**2*M2
|
|
else
|
|
M1 = am10
|
|
endif
|
|
else
|
|
M1 = am1
|
|
endif
|
|
C ************ NEUTRALINO MASSES AND MATRIX ELEMENTS ***********
|
|
EPS=-1.D-10
|
|
XC2=(M1*M2-MZ**2-MU**2)-3.D0/8.D0*(M1+M2)**2
|
|
XC3=-1.D0/8.D0*(M1+M2)**3+1.D0/2.D0*(M1+M2)*(M1*M2-MZ**2
|
|
. -MU**2)+(M1+M2)*MU**2+(M1*CW**2+M2*SW**2)*MZ**2
|
|
. -MU*MZ**2*DSIN(2.D0*B)
|
|
XC4=+(M1*CW**2+M2*SW**2)*MU*MZ**2*DSIN(2.D0*B)-M1*M2*MU**2
|
|
. +1.D0/4.D0*(M1+M2)*( (M1+M2)*MU**2+(M1*CW**2+M2*SW**2)
|
|
. *MZ**2-MU*MZ**2*DSIN(2.D0*B) )+1.D0/16.D0*(M1+M2)**2*
|
|
. (M1*M2-MZ**2-MU**2)-3.D0/256.D0*(M1+M2)**4
|
|
XS=-XC3**2-2.D0/27.D0*XC2**3+8.D0/3.D0*XC2*XC4
|
|
XU=-1.D0/3.D0*XC2**2-4.D0*XC4
|
|
CXD=(-4*XU**3-27*XS**2)*DCMPLX(1.D0,EPS)
|
|
CXC=1.D0/2.D0*(-XS+DCMPLX(0.D0,1.D0)*CDSQRT(CXD/27.D0))
|
|
CXA=DREAL(CXC**(1.D0/3.D0))*DCMPLX(1.D0,-EPS)
|
|
CXB=8.D0*CXA-8.D0/3.D0*XC2*DCMPLX(1.D0,-EPS)
|
|
C *********** MASSES AND COUPLINGS:
|
|
if(islhai.eq.0) then
|
|
X0=(M1+M2)/4.D0
|
|
CX1= CXA/2.D0-XC2/6.D0*DCMPLX(1.D0,-EPS)
|
|
CX2=-CXA/2.D0-XC2/3.D0*DCMPLX(1.D0,-EPS)
|
|
CX3=XC3*DCMPLX(1.D0,-EPS)/CDSQRT(CXB)
|
|
XMN(1)=X0-CDABS(CDSQRT(CX1))+CDABS(CDSQRT(CX2+CX3))
|
|
XMN(2)=X0+CDABS(CDSQRT(CX1))-CDABS(CDSQRT(CX2-CX3))
|
|
XMN(3)=X0-CDABS(CDSQRT(CX1))-CDABS(CDSQRT(CX2+CX3))
|
|
XMN(4)=X0+CDABS(CDSQRT(CX1))+CDABS(CDSQRT(CX2-CX3))
|
|
DO 10 I=1,4
|
|
MN(I)=DABS(XMN(I))
|
|
YMN(I)=XMN(I)
|
|
ZX(I,2)=-CW/SW*(M1-XMN(I))/(M2-XMN(I))
|
|
ZX(I,3)=(MU*(M2-XMN(I))*
|
|
. (M1-XMN(I))-MZ**2*SB*CB*((M1-M2)*CW**2
|
|
. +M2-XMN(I)))/MZ/(M2-XMN(I))/SW/(MU*CB+XMN(I)*SB)
|
|
ZX(I,4)=(-XMN(I)*(M2-XMN(I))*(M1-XMN(I))-MZ**2*CB*CB*
|
|
. ((M1-M2)*CW**2+M2-XMN(I)))/MZ/(M2-XMN(I))
|
|
. /SW/(MU*CB+XMN(I)*SB)
|
|
ZX(I,1)=1.D0/DSQRT(1.D0+ZX(I,2)**2+ZX(I,3)**2+ZX(I,4)**2)
|
|
YZ(I,1)=ZX(I,1)
|
|
YZ(I,2)=ZX(I,2)*ZX(I,1)
|
|
YZ(I,3)=ZX(I,3)*ZX(I,1)
|
|
YZ(I,4)=ZX(I,4)*ZX(I,1)
|
|
10 CONTINUE
|
|
else
|
|
do i=1,4,1
|
|
xmn(i) = slhaxneut(i)
|
|
mn(i) = dabs(xmn(i))
|
|
ymn(i) = xmn(i)
|
|
do j=1,4,1
|
|
zx(i,j) = slhaz(i,j)
|
|
end do
|
|
yz(i,1)=zx(i,1)
|
|
yz(i,2)=zx(i,2)
|
|
yz(i,3)=zx(i,3)
|
|
yz(i,4)=zx(i,4)
|
|
end do
|
|
endif
|
|
C ************* ORDERING THE DISORDER ******************
|
|
XX0 = DMIN1(MN(1),MN(2),MN(3),MN(4))
|
|
XX1 = DMAX1(MN(1),MN(2),MN(3),MN(4))
|
|
IDUMMY = 1
|
|
ILOW = 0
|
|
IHIGH = 0
|
|
DO I = 1,4
|
|
IF(MN(I).EQ.XX0.AND.ILOW.EQ.0)THEN
|
|
IORD(1) = I
|
|
ILOW = 1
|
|
ELSEIF(MN(I).EQ.XX1.AND.IHIGH.EQ.0)THEN
|
|
IORD(4) = I
|
|
IHIGH = 1
|
|
ELSE
|
|
IREM(IDUMMY) = I
|
|
IDUMMY = IDUMMY+1
|
|
ENDIF
|
|
ENDDO
|
|
IF(MN(IREM(1)).LE.MN(IREM(2)))THEN
|
|
IORD(2) = IREM(1)
|
|
IORD(3) = IREM(2)
|
|
ELSE
|
|
IORD(2) = IREM(2)
|
|
IORD(3) = IREM(1)
|
|
ENDIF
|
|
C
|
|
DO 98 J=1,4
|
|
I=IORD(J)
|
|
XMN(J)=YMN(I)
|
|
MN(J) =DABS(YMN(I))
|
|
DO I1=1,4
|
|
Z(J,I1)=YZ(I,I1)
|
|
ENDDO
|
|
98 CONTINUE
|
|
C ************ NEUTRALINO COUPLINGS TO HIGGS BOSONS ***********
|
|
DO 11 I=1,4
|
|
DO 11 J=1,4
|
|
QQ(I,J)=1.D0/2.D0*(Z(I,3)*(Z(J,2)-TW*Z(J,1))+Z(J,3)*
|
|
. (Z(I,2)-TW*Z(I,1)))
|
|
SS(I,J)=1.D0/2.D0*(Z(I,4)*(Z(J,2)-TW*Z(J,1))+Z(J,4)*
|
|
. (Z(I,2)-TW*Z(I,1)))
|
|
11 CONTINUE
|
|
DO 21 I=1,4
|
|
DO 21 J=1,4
|
|
AN1(I,J)= QQ(I,J)*DCOS(A)-SS(I,J)*DSIN(A)
|
|
AN2(I,J)=-QQ(I,J)*DSIN(A)-SS(I,J)*DCOS(A)
|
|
AN3(I,J)=-QQ(I,J)*DSIN(B)+SS(I,J)*DCOS(B)
|
|
21 CONTINUE
|
|
|
|
C ************* CHARGINO MASSES AND MATRIX ELEMENTS ***********
|
|
if(islhai.eq.0) then
|
|
DELTA=DABS(B-.25*PI)
|
|
DDD=MU*DCOS(B)+M2*DSIN(B)
|
|
CCC=MU*DSIN(B)+M2*DCOS(B)
|
|
IF(DELTA.LT.0.01D0) THEN
|
|
PHIM=PI/4.D0-.5D0*DATAN((M2-MU)/(2.D0*MW))
|
|
PHIP=PHIM
|
|
ELSE IF (DABS(CCC).LT.1.D-5) THEN
|
|
PHIM=0.D0
|
|
PHIP=DATAN(DSQRT(2.D0)*MW*DSIN(B)/(M2+1.D-5))
|
|
ELSE IF (DABS(DDD).LT.1.D-5) THEN
|
|
PHIP=0.D0
|
|
PHIM=DATAN(DSQRT(2.D0)*MW*DCOS(B)/(M2+1.D-5))
|
|
ELSE
|
|
RAD=DSQRT((M2**2-MU**2)**2+4.D0*MW**4*DCOS(2.D0*B)**2
|
|
+ +4.D0*MW**2*(M2**2+MU**2+2.D0*M2*MU*DSIN(2.D0*B)))
|
|
PHIP=DATAN((RAD-(M2**2-MU**2+2.D0*MW**2*DCOS(2.D0*B)))
|
|
+ /(2.D0*DSQRT(2.D0)*MW*(MU*DCOS(B)+M2*DSIN(B))))
|
|
PHIM=DATAN((RAD-(M2**2-MU**2-2.D0*MW**2*DCOS(2.D0*B)))
|
|
+ /(2.D0*DSQRT(2.D0)*MW*(MU*DSIN(B)+M2*DCOS(B))))
|
|
ENDIF
|
|
CP=DCOS(PHIP)
|
|
SP=DSIN(PHIP)
|
|
CM=DCOS(PHIM)
|
|
SM=DSIN(PHIM)
|
|
C MY CONVENTION
|
|
U(2,2)=CM
|
|
U(2,1)=-SM
|
|
U(1,2)=SM
|
|
U(1,1)=CM
|
|
V(1,1)=CP
|
|
V(1,2)=SP
|
|
V(2,1)=-SP
|
|
V(2,2)=CP
|
|
X(1,1)=M2
|
|
X(1,2)=DSQRT(2.D0)*MW*DSIN(B)
|
|
X(2,1)=DSQRT(2.D0)*MW*DCOS(B)
|
|
X(2,2)=MU
|
|
555 CONTINUE
|
|
XMC(1)=(U(1,1)*X(1,1)+U(1,2)*X(2,1))*V(1,1)
|
|
. +(U(1,1)*X(1,2)+U(1,2)*X(2,2))*V(1,2)
|
|
XMC(2)=(U(2,1)*X(1,1)+U(2,2)*X(2,1))*V(2,1)
|
|
. +(U(2,1)*X(1,2)+U(2,2)*X(2,2))*V(2,2)
|
|
IF(XMC(1).LT.0.D0) THEN
|
|
V(1,1)=-CP
|
|
V(1,2)=-SP
|
|
V(2,1)=-SP
|
|
V(2,2)=CP
|
|
GOTO 555
|
|
ENDIF
|
|
IF(XMC(2).LT.0.D0) THEN
|
|
V(1,1)=CP
|
|
V(1,2)=SP
|
|
V(2,1)=SP
|
|
V(2,2)=-CP
|
|
GOTO 555
|
|
ENDIF
|
|
IF(XMC(1).GT.XMC(2)) THEN
|
|
MTEMP=XMC(1)
|
|
XMC(1)=XMC(2)
|
|
XMC(2)=MTEMP
|
|
DO J=1,2
|
|
BU(J)=U(1,J)
|
|
U(1,J)=U(2,J)
|
|
U(2,J)=BU(J)
|
|
BV(J)=V(1,J)
|
|
V(1,J)=V(2,J)
|
|
V(2,J)=BV(J)
|
|
ENDDO
|
|
ENDIF
|
|
MC(1)=DABS(XMC(1))
|
|
MC(2)=DABS(XMC(2))
|
|
slhaxchar(1) = mc(1)
|
|
slhaxchar(2) = mc(2)
|
|
else
|
|
mc(1) = slhachar(1)
|
|
mc(2) = slhachar(2)
|
|
do i=1,2,1
|
|
do j=1,2,1
|
|
u(i,j) = slhau(i,j)
|
|
v(i,j) = slhav(i,j)
|
|
end do
|
|
end do
|
|
endif
|
|
|
|
C ************ CHARGINO COUPLINGS TO HIGGS BOSONS ***********
|
|
DO 12 I=1,2
|
|
DO 12 J=1,2
|
|
Q(I,J)=DSQRT(1.D0/2.D0)*U(J,2)*V(I,1)
|
|
S(I,J)=DSQRT(1.D0/2.D0)*U(J,1)*V(I,2)
|
|
12 CONTINUE
|
|
DO 22 I=1,2
|
|
DO 22 J=1,2
|
|
AC1(I,J)= Q(I,J)*DCOS(A)+S(I,J)*DSIN(A)
|
|
AC2(I,J)=-Q(I,J)*DSIN(A)+S(I,J)*DCOS(A)
|
|
AC3(I,J)=-Q(I,J)*DSIN(B)-S(I,J)*DCOS(B)
|
|
22 CONTINUE
|
|
C **** CHARGINO-NEUTRALINO COUPLINGS TO CHARGED HIGGS BOSONS
|
|
DO 13 I=1,2
|
|
DO 13 J=1,4
|
|
ACNL(I,J)=DCOS(B)*(Z(J,4)*V(I,1)+(Z(J,2)+Z(J,1)*TW)
|
|
. *V(I,2)/DSQRT(2.D0))
|
|
ACNR(I,J)=DSIN(B)*(Z(J,3)*U(I,1)-(Z(J,2)+Z(J,1)*TW)
|
|
. *U(I,2)/DSQRT(2.D0))
|
|
13 CONTINUE
|
|
|
|
C ************* HIGGS--NEUTRALINO--GOLDSTINO COUPLINGS
|
|
DO 51 I=1,4
|
|
AGDL(I)=Z(I,3)*DSIN(A)-Z(I,4)*DCOS(A)
|
|
AGDH(I)=Z(I,3)*DCOS(A)+Z(I,4)*DSIN(A)
|
|
AGDA(I)=Z(I,3)*DSIN(B)+Z(I,4)*DCOS(B)
|
|
51 CONTINUE
|
|
C
|
|
C ************* CHARGED HIGGS--CHARGINO--GOLDSTINO COUPLINGS
|
|
AGDC(1)=DSQRT( V(1,2)**2*DCOS(B)**2+ U(1,2)**2*DSIN(B)**2 )
|
|
AGDC(2)=DSQRT( V(2,2)**2*DCOS(B)**2+ U(2,2)**2*DSIN(B)**2 )
|
|
|
|
RETURN
|
|
END
|
|
|
|
C ****************************************************************
|
|
C SUBROUTINE FOR SFERMION MASSES, MIXING AND COUPLINGS
|
|
C ****************************************************************
|
|
|
|
SUBROUTINE SFERMION_HDEC(TSC,BSC,MQL,MUR,MDR,MEL,MER,AL,AT,AB,MU,
|
|
. MST,MSB,MSL,MSU,MSD,MSE,MSN,MSN1,
|
|
. GLEE,GLTT,GLBB,GHEE,GHTT,GHBB,
|
|
. GAEE,GATT,GABB,GCEN,GCTB)
|
|
|
|
IMPLICIT REAL*8(A-H,K-Z)
|
|
DIMENSION MST(2),MSB(2),MSL(2),MSU(2),MSD(2),MSE(2),MSN(2),
|
|
. MSN1(2),
|
|
. GCEN(2,2),GCTB(2,2),GLEE(2,2),GLTT(2,2),GLBB(2,2),
|
|
. GHEE(2,2),GHTT(2,2),GHBB(2,2)
|
|
DIMENSION slhast(2),slhasb(2),slhasu(2),slhasd(2),slhase(2),
|
|
. slhasl(2),slhasn(2),slhasnl(2)
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,MZ,MW
|
|
COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,GHHH,GLLL,GHLL,
|
|
. GLHH,GHAA,GLAA,GLVV,GHVV,GLPM,GHPM,B,A
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AML,AMH,AMCH,AMAR
|
|
COMMON/SFER1ST_HDEC/MQL1,MUR1,MDR1,MEL1,MER1
|
|
COMMON/GLUINO_HDEC/AMGLUINO,XMSB1,XMSB2,STHB,CTHB,
|
|
. XLBB(2,2),XHBB(2,2),XABB(2,2),
|
|
. XMST1,XMST2,STHT,CTHT,
|
|
. XLTT(2,2),XHTT(2,2),XATT(2,2)
|
|
COMMON/TAUMIX_HDEC/CL,SL
|
|
COMMON/SLHA_vals_HDEC/islhai,islhao
|
|
COMMON/SLHA_sfer_HDEC/slhast,slhasb,slhasu,slhasd,slhase,slhasl,
|
|
. slhasn,slhasnl,slhacot,slhasit,slhacob,slhasib,
|
|
. slhacol,slhasil
|
|
COMMON/SQUARKHIGGS_HDEC/THEB,AMG,JONSH,JDTH
|
|
COMMON/QTBNLO_HDEC/SMTOP,SMBOT
|
|
COMMON/SQNLO_HDEC/YMSB(2),YSTHB,YCTHB,YLBB(2,2),YHBB(2,2),YABB,
|
|
. YMST(2),YSTHT,YCTHT,YLTT(2,2),YHTT(2,2),YATT
|
|
COMMON/HHSSNLO_HDEC/ZLLTT(2,2),ZHHTT(2,2),ZLHTT(2,2)
|
|
COMMON/HHSS_HDEC/FLLTT(2,2),FHHTT(2,2),FLHTT(2,2)
|
|
COMMON/BREAKSCALE_HDEC/SUSYSCALE
|
|
COMMON/TRILINEAR_HDEC/AT00,AB00,AT1,AB1
|
|
PMSQ1(QQ,AM,AMG,ALS) = 4*ALS/3/PI*(AMG**2*DLOG(QQ**2/AMG**2)
|
|
. + AM**2/2*DLOG(AMG**2/AM**2) + AM**2/2 + 3*AMG**2/2
|
|
. + (AMG**2-AM**2)**2/2/AM**2*DLOG(DABS(AMG**2-AM**2)/AMG**2))
|
|
PMSQ10(QQ,AM,ALS) = 4*ALS/3/PI*(AM**2*DLOG(QQ**2/AM**2)
|
|
. + AM**2/2 + 3*AM**2/2)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c-- comparison with Luminita
|
|
c PMSQ1(QQ,AM,AMG,ALS) = 0
|
|
c PMSQ10(QQ,AM,ALS) = 0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
C
|
|
PI = 4*DATAN(1.D0)
|
|
SW2=1.D0-MW**2/MZ**2
|
|
TB=DTAN(B)
|
|
AMG = AMGLUINO
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
MT = AMT
|
|
MB = AMB
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c MT = RUNM_HDEC(TSC,6,0)
|
|
c MB = RUNM_HDEC(BSC,5,0)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c MT = RUNM_HDEC(AMT,6,0)
|
|
c MB = RUNM_HDEC(AMT,5,0)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ML = AMTAU
|
|
C FIRST TWO GENERATIONS: NO MIXING INCLUDED
|
|
if(islhai.eq.0) then
|
|
C UP SQUARKS:
|
|
MSQ0=DSQRT(MQL1**2+(0.5D0-2.D0/3.D0*SW2)*MZ**2*DCOS(2.D0*B))
|
|
IF(AMG.NE.MSQ0)THEN
|
|
MSTL2=MSQ0**2
|
|
. +PMSQ1(SUSYSCALE,MSQ0,AMG,ALPHAS_HDEC(SUSYSCALE,3))
|
|
ELSE
|
|
MSTL2=MSQ0**2
|
|
. + PMSQ10(SUSYSCALE,MSQ0,ALPHAS_HDEC(SUSYSCALE,3))
|
|
ENDIF
|
|
MSQ0=DSQRT(MUR1**2+2.D0/3.D0*SW2*MZ**2*DCOS(2.D0*B))
|
|
IF(AMG.NE.MSQ0)THEN
|
|
MSTR2=MSQ0**2
|
|
. + PMSQ1(SUSYSCALE,MSQ0,AMG,ALPHAS_HDEC(SUSYSCALE,3))
|
|
ELSE
|
|
MSTR2=MSQ0**2
|
|
. + PMSQ10(SUSYSCALE,MSQ0,ALPHAS_HDEC(SUSYSCALE,3))
|
|
ENDIF
|
|
MSU(1)=DSQRT(MSTL2)
|
|
MSU(2)=DSQRT(MSTR2)
|
|
C DOWN SQUARKS
|
|
MSQ0=DSQRT(MQL1**2+(-0.5D0+1.D0/3.D0*SW2)*MZ**2*DCOS(2.D0*B))
|
|
IF(AMG.NE.MSQ0)THEN
|
|
MSBL2=MSQ0**2
|
|
. + PMSQ1(SUSYSCALE,MSQ0,AMG,ALPHAS_HDEC(SUSYSCALE,3))
|
|
ELSE
|
|
MSBL2=MSQ0**2
|
|
. + PMSQ10(SUSYSCALE,MSQ0,ALPHAS_HDEC(SUSYSCALE,3))
|
|
ENDIF
|
|
MSQ0=DSQRT(MDR1**2-1.D0/3.D0*SW2*MZ**2*DCOS(2.D0*B))
|
|
IF(AMG.NE.MSQ0)THEN
|
|
MSBR2=MSQ0**2
|
|
. + PMSQ1(SUSYSCALE,MSQ0,AMG,ALPHAS_HDEC(SUSYSCALE,3))
|
|
ELSE
|
|
MSBR2=MSQ0**2
|
|
. + PMSQ10(SUSYSCALE,MSQ0,ALPHAS_HDEC(SUSYSCALE,3))
|
|
ENDIF
|
|
MSD(1)=DSQRT(MSBL2)
|
|
MSD(2)=DSQRT(MSBR2)
|
|
C SLEPTONS
|
|
MSEL2=MEL1**2+(-0.5D0+SW2)*MZ**2*DCOS(2.D0*B)
|
|
MSER2=MER1**2- SW2*MZ**2*DCOS(2.D0*B)
|
|
MSNL2=MEL1**2+0.5D0*MZ**2*DCOS(2.D0*B)
|
|
MSE(1)=DSQRT(MSEL2)
|
|
MSE(2)=DSQRT(MSER2)
|
|
MSN1(1)=DSQRT(MSNL2)
|
|
MSN1(2)=1.D+15
|
|
|
|
C NOW THE THIRD GENERATION
|
|
C
|
|
C STOP MASSES/MIXING
|
|
C
|
|
MSTL2=MQL**2+(0.5D0-2.D0/3.D0*SW2)*MZ**2*DCOS(2.D0*B)
|
|
MSTR2=MUR**2+2.D0/3.D0*SW2*MZ**2*DCOS(2.D0*B)
|
|
MLRT=AT-MU/TB
|
|
DELT=(MSTL2-MSTR2)**2+4*MT**2*MLRT**2
|
|
MST12=MT**2+0.5D0*(MSTL2+MSTR2-DSQRT(DELT))
|
|
MST22=MT**2+0.5D0*(MSTL2+MSTR2+DSQRT(DELT))
|
|
c IF(MST12.LT.0.D0)THEN
|
|
c PRINT *, 'MSTOP**2 is negative!!!!'
|
|
c GOTO 111
|
|
c ELSE
|
|
MST(1)=DSQRT(MST12)
|
|
MST(2)=DSQRT(MST22)
|
|
IF(MSTL2.EQ.MSTR2) THEN
|
|
THET = PI/4
|
|
ELSE
|
|
THET=0.5D0*DATAN(2.D0*MT*MLRT / (MSTL2-MSTR2) )
|
|
IF(MSTL2.GT.MSTR2) THET = THET + PI/2
|
|
ENDIF
|
|
c ENDIF
|
|
CT= DCOS(THET)
|
|
ST= DSIN(THET)
|
|
c write(6,*)'stop_LO: ',MST(1),MST(2)
|
|
c write(6,*)'stop_LO: ',CT,ST
|
|
C
|
|
C SBOTTOM MASSES/MIXING
|
|
C
|
|
MSBL2=MQL**2+(-0.5D0+1.D0/3.D0*SW2)*MZ**2*DCOS(2.D0*B)
|
|
MSBR2=MDR**2-1.D0/3.D0*SW2*MZ**2*DCOS(2.D0*B)
|
|
MLRB=AB-MU*TB
|
|
DELB=(MSBL2-MSBR2)**2+4*MB**2*MLRB**2
|
|
MSB12=MB**2+0.5D0*(MSBL2+MSBR2-DSQRT(DELB))
|
|
MSB22=MB**2+0.5D0*(MSBL2+MSBR2+DSQRT(DELB))
|
|
c IF(MSB12.LT.0.D0)THEN
|
|
c PRINT *, 'MSBOT**2 is negative!!!!'
|
|
c GOTO 111
|
|
c ELSE
|
|
MSB(1)=DSQRT(MSB12)
|
|
MSB(2)=DSQRT(MSB22)
|
|
IF(MSBL2.EQ.MSBR2) THEN
|
|
THEB = PI/4
|
|
ELSE
|
|
THEB=0.5D0*DATAN(2.D0*MB*MLRB / (MSBL2-MSBR2) )
|
|
IF(MSBL2.GT.MSBR2) THEB = THEB + PI/2
|
|
ENDIF
|
|
c ENDIF
|
|
CB= DCOS(THEB)
|
|
SB= DSIN(THEB)
|
|
c write(6,*)'sbot_LO: ',MSB(1),MSB(2),MQL,MDR,AB
|
|
c write(6,*)'MAT_SB: ',MSBL2,MB*(AB-MU*TB),MSBR2
|
|
c write(6,*)'CTH, STH: ',CB,SB
|
|
C
|
|
C STAU MASSES/MIXING
|
|
C
|
|
MSEL2=MEL**2+(-0.5D0+SW2)*MZ**2*DCOS(2.D0*B)
|
|
MSER2=MER**2- SW2*MZ**2*DCOS(2.D0*B)
|
|
MSNL2=MEL**2+0.5D0*MZ**2*DCOS(2.D0*B)
|
|
MLRE=AL-MU*TB
|
|
DELE=(MSEL2-MSER2)**2+4*ML**2*MLRE**2
|
|
MSE12=ML**2+0.5D0*(MSEL2+MSER2-DSQRT(DELE))
|
|
MSE22=ML**2+0.5D0*(MSEL2+MSER2+DSQRT(DELE))
|
|
IF(MSE12.LT.0.D0)THEN
|
|
PRINT *, 'MSTAU**2 is negative!!!!'
|
|
GOTO 111
|
|
ELSE
|
|
MSL(1)=DSQRT(MSE12)
|
|
MSL(2)=DSQRT(MSE22)
|
|
MSN(1)=DSQRT(MSNL2)
|
|
MSN(2)=1.D+15
|
|
IF(MSEL2.EQ.MSER2) THEN
|
|
THEL = PI/4
|
|
ELSE
|
|
THEL=0.5D0*DATAN(2.D0*ML*MLRE / (MSEL2-MSER2) )
|
|
IF(MSEL2.GT.MSER2) THEL = THEL + PI/2
|
|
ENDIF
|
|
ENDIF
|
|
CL= DCOS(THEL)
|
|
SL= DSIN(THEL)
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
cf = 4.d0/3
|
|
c write(6,*)
|
|
c write(6,*)'theta: ',2*st*ct,2*sb*cb,2*sl*cl
|
|
thet = dasin(2*st*ct)/2
|
|
if(ct**2-st**2.lt.0.d0) thet = pi/2-thet
|
|
ct= dcos(thet)
|
|
st= dsin(thet)
|
|
theb = dasin(2*sb*cb)/2
|
|
if(cb**2-sb**2.lt.0.d0) theb = pi/2-theb
|
|
cb= dcos(theb)
|
|
sb= dsin(theb)
|
|
thel = dasin(2*sl*cl)/2
|
|
if(cl**2-sl**2.lt.0.d0) thel = pi/2-thel
|
|
cl= dcos(thel)
|
|
sl= dsin(thel)
|
|
c write(6,*)'theta: ',2*st*ct,2*sb*cb,2*sl*cl
|
|
delta_b = 2*amg*mu*dtan(b)*t_hdec(msb(1),msb(2),amg)
|
|
alsscb = (msb(1)+msb(2)+dabs(amg))/3
|
|
alssct = (mst(1)+mst(2)+dabs(amg))/3
|
|
rmb = runm_hdec(susyscale,5,0)
|
|
. / (1+cf/4*alphas_hdec(alsscb,3)/pi*delta_b)
|
|
rmt = runm_hdec(susyscale,6,0)
|
|
mstl2=mql**2+(0.5d0-2.d0/3.d0*sw2)*mz**2*dcos(2.d0*b)
|
|
mstr2=mur**2+2.d0/3.d0*sw2*mz**2*dcos(2.d0*b)
|
|
msbl2=mql**2+(-0.5d0+1.d0/3.d0*sw2)*mz**2*dcos(2.d0*b)
|
|
msbr2=mdr**2-1.d0/3.d0*sw2*mz**2*dcos(2.d0*b)
|
|
msel2=mel**2+(-0.5d0+sw2)*mz**2*dcos(2.d0*b)
|
|
mser2=mer**2-sw2*mz**2*dcos(2.d0*b)
|
|
s2t = 2*rmt*(at-mu/dtan(b))/(mst(1)**2-mst(2)**2)
|
|
c c2t = (mstl2-mstr2)/(mst(1)**2-mst(2)**2)
|
|
c2t = dsqrt(1-s2t**2)
|
|
if(mstl2.gt.mstr2) c2t = -c2t
|
|
s2b = 2*rmb*(ab-mu*dtan(b))/(msb(1)**2-msb(2)**2)
|
|
c c2b = (msbl2-msbr2)/(msb(1)**2-msb(2)**2)
|
|
c2b = dsqrt(1-s2b**2)
|
|
if(msbl2.gt.msbr2) c2b = -c2b
|
|
c s2l = 2* ml*(al-mu*dtan(b))/(msl(1)**2-msl(2)**2)
|
|
c c2l = (msel2-mser2)/(msl(1)**2-msl(2)**2)
|
|
c c2l = dsqrt(1-s2l**2)
|
|
c if(msel2.gt.mser2) c2l = -c2l
|
|
thet = datan(s2t/c2t)/2
|
|
if(c2t.lt.0.d0) thet = pi/2+thet
|
|
ct= dcos(thet)
|
|
st= dsin(thet)
|
|
theb = datan(s2b/c2b)/2
|
|
if(c2b.lt.0.d0) theb = pi/2+theb
|
|
cb= dcos(theb)
|
|
sb= dsin(theb)
|
|
c thel = datan(s2l/c2l)/2
|
|
c if(c2l.lt.0.d0) thel = pi/2+thel
|
|
c cl= dcos(thel)
|
|
c sl= dsin(thel)
|
|
c write(6,*)'theta: ',2*st*ct,2*sb*cb,2*sl*cl
|
|
c write(6,*)'theta: ',s2t,s2b
|
|
c write(6,*)'theta: ',st**2+ct**2,sb**2+cb**2,sl**2+cl**2
|
|
c write(6,*)'theta: ',s2t**2+c2t**2,s2b**2+c2b**2
|
|
c write(6,*)'theta: ',rmt,rmb,ml
|
|
c . ,cf/4*alphas_hdec(alsscb,3)/pi*delta_b
|
|
c write(6,*)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
else
|
|
do i=1,2,1
|
|
msu(i) = slhasu(i)
|
|
msd(i) = slhasd(i)
|
|
mse(i) = slhase(i)
|
|
msn1(i) = slhasnl(i)
|
|
mst(i) = slhast(i)
|
|
msb(i) = slhasb(i)
|
|
msl(i) = slhasl(i)
|
|
msn(i) = slhasn(i)
|
|
end do
|
|
ct = slhacot
|
|
st = slhasit
|
|
cb = slhacob
|
|
sb = slhasib
|
|
cl = slhacol
|
|
sl = slhasil
|
|
endif
|
|
|
|
C2T = CT**2-ST**2
|
|
C2B = CB**2-SB**2
|
|
C2L = CL**2-SL**2
|
|
C
|
|
C LIGHT CP--EVEN HIGGS COUPLINGS TO STOPS
|
|
C
|
|
GLTT(1,1)=-DSIN(B+A)*(0.5D0*CT**2-2.D0/3.D0*SW2*C2T)
|
|
. + MT**2/MZ**2*GLT + MT*ST*CT/MZ**2*(AT*GLT+MU*GHT)
|
|
GLTT(2,2)=-DSIN(B+A)*(0.5D0*ST**2+2.D0/3.D0*SW2*C2T)
|
|
. + MT**2/MZ**2*GLT - MT*ST*CT/MZ**2*(AT*GLT+MU*GHT)
|
|
GLTT(1,2)=-2*DSIN(B+A)*ST*CT*(2.D0/3.D0*SW2-0.25D0)
|
|
. + MT*C2T/2.D0/MZ**2*(AT*GLT+MU*GHT)
|
|
GLTT(2,1)=-2*DSIN(B+A)*ST*CT*(2.D0/3.D0*SW2-0.25D0)
|
|
. + MT*C2T/2.D0/MZ**2*(AT*GLT+MU*GHT)
|
|
C
|
|
C LIGHT CP--EVEN HIGGS COUPLINGS TO SBOTTOMS
|
|
C
|
|
GLBB(1,1)=-DSIN(B+A)*(-0.5D0*CB**2+1.D0/3.D0*SW2*C2B)
|
|
. + MB**2/MZ**2*GLB + MB*SB*CB/MZ**2*(AB*GLB-MU*GHB)
|
|
GLBB(2,2)=-DSIN(B+A)*(-0.5D0*SB**2-1.D0/3.D0*SW2*C2B)
|
|
. + MB**2/MZ**2*GLB - MB*SB*CB/MZ**2*(AB*GLB-MU*GHB)
|
|
GLBB(1,2)=-2*DSIN(B+A)*SB*CB*(-1.D0/3.D0*SW2+0.25D0)
|
|
. + MB*C2B/2.D0/MZ**2*(AB*GLB-MU*GHB)
|
|
GLBB(2,1)=-2*DSIN(B+A)*SB*CB*(-1.D0/3.D0*SW2+0.25D0)
|
|
. + MB*C2B/2.D0/MZ**2*(AB*GLB-MU*GHB)
|
|
|
|
C
|
|
C LIGHT CP--EVEN HIGGS COUPLINGS TO STAU'S
|
|
C
|
|
GLEE(1,1)=-DSIN(B+A)*(-0.5D0*CL**2+SW2*C2L)
|
|
. + ML**2/MZ**2*GLB + ML*SL*CL/MZ**2*(AL*GLB-MU*GHB)
|
|
GLEE(2,2)=-DSIN(B+A)*(-0.5D0*SL**2-SW2*C2L)
|
|
. + ML**2/MZ**2*GLB - ML*SL*CL/MZ**2*(AL*GLB-MU*GHB)
|
|
GLEE(1,2)=-2*DSIN(B+A)*SL*CL*(-SW2+0.25D0)
|
|
. + ML*C2L/2.D0/MZ**2*(AL*GLB-MU*GHB)
|
|
GLEE(2,1)=-2*DSIN(B+A)*SL*CL*(-SW2+0.25D0)
|
|
. + ML*C2L/2.D0/MZ**2*(AL*GLB-MU*GHB)
|
|
C
|
|
C HEAVY CP--EVEN HIGGS COUPLINGS TO STOPS
|
|
C
|
|
GHTT(1,1)=DCOS(B+A)*(0.5D0*CT**2-2.D0/3.D0*SW2*C2T)
|
|
. + MT**2/MZ**2*GHT + MT*ST*CT/MZ**2*(AT*GHT-MU*GLT)
|
|
GHTT(2,2)= DCOS(B+A)*(0.5D0*ST**2+2.D0/3.D0*SW2*C2T)
|
|
. + MT**2/MZ**2*GHT - MT*ST*CT/MZ**2*(AT*GHT-MU*GLT)
|
|
GHTT(1,2)=2*DCOS(B+A)*ST*CT*(2.D0/3.D0*SW2-0.25D0)
|
|
. + MT*C2T/2.D0/MZ**2*(AT*GHT-MU*GLT)
|
|
GHTT(2,1)=2*DCOS(B+A)*ST*CT*(2.D0/3.D0*SW2-0.25D0)
|
|
. + MT*C2T/2.D0/MZ**2*(AT*GHT-MU*GLT)
|
|
C
|
|
C HEAVY CP--EVEN HIGGS COUPLINGS TO SBOTTOMS
|
|
C
|
|
GHBB(1,1)= DCOS(B+A)*(-0.5D0*CB**2+1.D0/3.D0*SW2*C2B)
|
|
. + MB**2/MZ**2*GHB + MB*SB*CB/MZ**2*(AB*GHB+MU*GLB)
|
|
GHBB(2,2)= DCOS(B+A)*(-0.5D0*SB**2-1.D0/3.D0*SW2*C2B)
|
|
. + MB**2/MZ**2*GHB - MB*SB*CB/MZ**2*(AB*GHB+MU*GLB)
|
|
GHBB(1,2)=2*DCOS(B+A)*SB*CB*(-1.D0/3.D0*SW2+0.25D0)
|
|
. + MB*C2B/2.D0/MZ**2*(AB*GHB+MU*GLB)
|
|
GHBB(2,1)=2*DCOS(B+A)*SB*CB*(-1.D0/3.D0*SW2+0.25D0)
|
|
. + MB*C2B/2.D0/MZ**2*(AB*GHB+MU*GLB)
|
|
C
|
|
C HEAVY CP--EVEN HIGGS COUPLINGS TO STAU'S
|
|
C
|
|
GHEE(1,1)= DCOS(B+A)*(-0.5D0*CL**2+SW2*C2L)
|
|
. + ML**2/MZ**2*GHB + ML*SL*CL/MZ**2*(AL*GHB+MU*GLB)
|
|
GHEE(2,2)= DCOS(B+A)*(-0.5D0*SL**2-SW2*C2L)
|
|
. + ML**2/MZ**2*GHB - ML*SL*CL/MZ**2*(AL*GHB+MU*GLB)
|
|
GHEE(1,2)=2*DCOS(B+A)*SL*CL*(-SW2+0.25D0)
|
|
. + ML*C2L/2.D0/MZ**2*(AL*GHB+MU*GLB)
|
|
GHEE(2,1)=2*DCOS(B+A)*SL*CL*(-SW2+0.25D0)
|
|
. + ML*C2L/2.D0/MZ**2*(AL*GHB+MU*GLB)
|
|
|
|
C
|
|
C PSEUDOSCALAR COUPLINGS
|
|
C
|
|
GATT=MT/2.D0/MZ**2*(MU+AT*GAT)
|
|
GABB=MB/2.D0/MZ**2*(MU+AB*GAB)
|
|
GAEE=ML/2.D0/MZ**2*(MU+AL*GAB)
|
|
C
|
|
C CHARGED HIGGS COUPLINGS STOPS/SBOTTOMS
|
|
C
|
|
CLL=(MW**2*DSIN(2*B)-MT**2*GAT-MB**2*GAB)/DSQRT(2.D0)/MW**2
|
|
CRR=-MT*MB*(GAT+GAB)/DSQRT(2.D0)/MW**2
|
|
CLR=-MB*(MU+AB*GAB)/DSQRT(2.D0)/MW**2
|
|
CRL=-MT*(MU+AT*GAT)/DSQRT(2.D0)/MW**2
|
|
GCTB(1,1)=+CT*CB*CLL+ST*SB*CRR+CT*SB*CLR+ST*CB*CRL
|
|
GCTB(1,2)=-CT*SB*CLL+ST*CB*CRR+CT*CB*CLR-ST*SB*CRL
|
|
GCTB(2,1)=-ST*CB*CLL+CT*SB*CRR-ST*SB*CLR+CT*CB*CRL
|
|
GCTB(2,2)=+ST*SB*CLL+CT*CB*CRR-ST*CB*CLR-CT*SB*CRL
|
|
|
|
C
|
|
C CHARGED HIGGS COUPLINGS TAU'S AND NEUTRINOS
|
|
C
|
|
CLL=(MW**2*DSIN(2*B)-ML**2*GAB)/DSQRT(2.D0)/MW**2
|
|
CLR=-ML*(MU+AL*GAB)/DSQRT(2.D0)/MW**2
|
|
GCEN(1,1)=CL*CLL+SL*CLR
|
|
GCEN(1,2)=-SL*CLL+CL*CLR
|
|
GCEN(2,1)=0.D0
|
|
GCEN(2,2)=0.D0
|
|
C
|
|
C CP--EVEN HIGGS PAIR COUPLINGS STOPS
|
|
C
|
|
FLLTT(1,1)=DCOS(2*A)*(0.5D0*CT**2-2.D0/3.D0*SW2*C2T)
|
|
. + MT**2/MZ**2*GLT**2
|
|
FLLTT(2,2)=DCOS(2*A)*(0.5D0*ST**2+2.D0/3.D0*SW2*C2T)
|
|
. + MT**2/MZ**2*GLT**2
|
|
FLLTT(1,2)=2*DCOS(2*A)*ST*CT*(2.D0/3.D0*SW2-0.25D0)
|
|
FLLTT(2,1)=2*DCOS(2*A)*ST*CT*(2.D0/3.D0*SW2-0.25D0)
|
|
|
|
FHHTT(1,1)=DCOS(2*A)*(0.5D0*CT**2-2.D0/3.D0*SW2*C2T)
|
|
. + MT**2/MZ**2*GHT**2
|
|
FHHTT(2,2)= DCOS(2*A)*(0.5D0*ST**2+2.D0/3.D0*SW2*C2T)
|
|
. + MT**2/MZ**2*GHT**2
|
|
FHHTT(1,2)=2*DCOS(2*A)*ST*CT*(2.D0/3.D0*SW2-0.25D0)
|
|
FHHTT(2,1)=2*DCOS(2*A)*ST*CT*(2.D0/3.D0*SW2-0.25D0)
|
|
|
|
FLHTT(1,1)=DSIN(2*A)*(0.5D0*CT**2-2.D0/3.D0*SW2*C2T)
|
|
FLHTT(2,2)=DSIN(2*A)*(0.5D0*ST**2+2.D0/3.D0*SW2*C2T)
|
|
FLHTT(1,2)=2*DSIN(2*A)*ST*CT*(2.D0/3.D0*SW2-0.25D0)
|
|
FLHTT(2,1)=2*DSIN(2*A)*ST*CT*(2.D0/3.D0*SW2-0.25D0)
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'mst: ',MST(1),MST(2)
|
|
c write(6,*)'msb: ',MSB(1),MSB(2)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
AT1 = AT00
|
|
AB1 = AB00
|
|
c goto 1357
|
|
IF(ISLHAI.EQ.0)THEN
|
|
CALL SFERMHO_HDEC(MQL,MUR,MDR,AT,AB,MU,TB,MW,MZ)
|
|
ST = YSTHT
|
|
CT = YCTHT
|
|
SB = YSTHB
|
|
CB = YCTHB
|
|
GATT = YATT
|
|
GABB = YABB
|
|
DO I = 1,2
|
|
MST(I) = YMST(I)
|
|
MSB(I) = YMSB(I)
|
|
DO J = 1,2
|
|
GLTT(I,J) = YLTT(I,J)
|
|
GHTT(I,J) = YHTT(I,J)
|
|
GLBB(I,J) = YLBB(I,J)
|
|
GHBB(I,J) = YHBB(I,J)
|
|
FLLTT(I,J) = ZLLTT(I,J)
|
|
FHHTT(I,J) = ZHHTT(I,J)
|
|
FLHTT(I,J) = ZLHTT(I,J)
|
|
ENDDO
|
|
ENDDO
|
|
ENDIF
|
|
1357 continue
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
YSTHT = ST
|
|
YCTHT = CT
|
|
YSTHB = SB
|
|
YCTHB = CB
|
|
YATT = GATT
|
|
YABB = GABB
|
|
DO I = 1,2
|
|
YMST(I) = MST(I)
|
|
YMSB(I) = MSB(I)
|
|
DO J = 1,2
|
|
YLTT(I,J) = GLTT(I,J)
|
|
YHTT(I,J) = GHTT(I,J)
|
|
YLBB(I,J) = GLBB(I,J)
|
|
YHBB(I,J) = GHBB(I,J)
|
|
ZLLTT(I,J) = FLLTT(I,J)
|
|
ZHHTT(I,J) = FHHTT(I,J)
|
|
ZLHTT(I,J) = FLHTT(I,J)
|
|
ENDDO
|
|
ENDDO
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'stop_NLO: ',CT,ST
|
|
|
|
C--FILL COMMON BLOCK GLUINO_HDEC FOR SUSY-QCD CORRECTIONS TO
|
|
C HIGGS -> BB, SQUARKS
|
|
XMST1 = MST(1)
|
|
XMST2 = MST(2)
|
|
XMSB1 = MSB(1)
|
|
XMSB2 = MSB(2)
|
|
STHT = ST
|
|
CTHT = CT
|
|
STHB = SB
|
|
CTHB = CB
|
|
DO I=1,2
|
|
DO J=1,2
|
|
XLBB(I,J) = GLBB(I,J)
|
|
XHBB(I,J) = GHBB(I,J)
|
|
XABB(I,J) = 0
|
|
XLTT(I,J) = GLTT(I,J)
|
|
XHTT(I,J) = GHTT(I,J)
|
|
XATT(I,J) = 0
|
|
ENDDO
|
|
ENDDO
|
|
XABB(1,2) = GABB
|
|
XABB(2,1) = -GABB
|
|
XATT(1,2) = GATT
|
|
XATT(2,1) = -GATT
|
|
|
|
c write(6,*)'stop: ',mst(1),mst(2),glt,st,ct,
|
|
c . gltt(1,1)*mz**2,gltt(1,2)*mz**2,
|
|
c . gltt(2,1)*mz**2,gltt(2,2)*mz**2
|
|
c write(6,*)'sbottom: ',msb(1),msb(2),glb,sb,cb,
|
|
c . glbb(1,1)*mz**2,glbb(1,2)*mz**2,
|
|
c . glbb(2,1)*mz**2,glbb(2,2)*mz**2
|
|
|
|
c write(6,*)'stop_NLO: ',MST(1),MST(2)
|
|
c write(6,*)'sbot_NLO: ',MSB(1),MSB(2)
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'mst: ',MST(1),MST(2)
|
|
c write(6,*)'msb: ',MSB(1),MSB(2)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
QQS = (MSB(1)+MSB(2)+DABS(AMG))/3
|
|
ALPSB = ALPHAS_HDEC(QQS,3)
|
|
QQS = (MST(1)+MST(2)+DABS(AMG))/3
|
|
ALPST = ALPHAS_HDEC(QQS,3)
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
goto 117
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
write(6,*)'light scalar:'
|
|
write(6,*)'============:'
|
|
write(6,*)
|
|
QB = (msb(1)+msb(2))/2
|
|
XX = SQSUSY_HDEC(1,1,1,1,QB,0,1)
|
|
CALL SQMBAPP_HDEC(QB)
|
|
write(6,*)'sbottom:'
|
|
write(6,*)'--------'
|
|
write(6,*)'M_H = ',aml
|
|
write(6,*)'M_Q = ',amb
|
|
write(6,*)'M_G = ',amgluino
|
|
write(6,*)'TG(BETA) = ',tb
|
|
write(6,*)'MU = ',mu
|
|
write(6,*)'FACTOR = ',-1+glt/glb
|
|
write(6,*)'QQ = ',QB
|
|
write(6,*)'M_Q(QQ) = ',smbot
|
|
write(6,*)'A_b(QQ) = ',AB00
|
|
write(6,*)'A_b = ',sb*cb*(msb(1)**2-msb(2)**2)/smbot+mu*tb
|
|
write(6,*)'M_S1 = ',msb(1)
|
|
write(6,*)'M_S2 = ',msb(2)
|
|
write(6,*)'G_Q^H = ',glb
|
|
write(6,*)'ALPHAS(QQ) = ',ALPSB
|
|
write(6,*)'SIN(THETA) = ',sb
|
|
write(6,*)'COS(THETA) = ',cb
|
|
write(6,*)'GHQQ(1,1) = ',ylbb(1,1)*mz**2
|
|
write(6,*)'GHQQ(1,2) = ',ylbb(1,2)*mz**2
|
|
write(6,*)'GHQQ(2,1) = ',ylbb(2,1)*mz**2
|
|
write(6,*)'GHQQ(2,2) = ',ylbb(2,2)*mz**2
|
|
write(6,*)
|
|
QT = (mst(1)+mst(2))/2
|
|
XX = SQSUSY_HDEC(1,1,1,1,QT,0,1)
|
|
CALL SQMBAPP_HDEC(QT)
|
|
write(6,*)'stop:'
|
|
write(6,*)'-----'
|
|
write(6,*)'M_H = ',aml
|
|
write(6,*)'M_Q = ',amt
|
|
write(6,*)'M_G = ',amgluino
|
|
write(6,*)'TG(BETA) = ',tb
|
|
write(6,*)'MU = ',mu
|
|
write(6,*)'FACTOR = ',-1+glt/glb
|
|
write(6,*)'QQ = ',QT
|
|
write(6,*)'M_Q(QQ) = ',smtop
|
|
write(6,*)'A_t(QQ) = ',AT00
|
|
write(6,*)'A_t = ',st*ct*(mst(1)**2-mst(2)**2)/smtop+mu/tb
|
|
write(6,*)'M_S1 = ',mst(1)
|
|
write(6,*)'M_S2 = ',mst(2)
|
|
write(6,*)'G_Q^H = ',glt
|
|
write(6,*)'ALPHAS(QQ) = ',ALPST
|
|
write(6,*)'SIN(THETA) = ',st
|
|
write(6,*)'COS(THETA) = ',ct
|
|
write(6,*)'GHQQ(1,1) = ',yltt(1,1)*mz**2
|
|
write(6,*)'GHQQ(1,2) = ',yltt(1,2)*mz**2
|
|
write(6,*)'GHQQ(2,1) = ',yltt(2,1)*mz**2
|
|
write(6,*)'GHQQ(2,2) = ',yltt(2,2)*mz**2
|
|
write(6,*)
|
|
117 continue
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
goto 118
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
write(6,*)'heavy scalar:'
|
|
write(6,*)'============:'
|
|
write(6,*)
|
|
QB = (msb(1)+msb(2))/2
|
|
XX = SQSUSY_HDEC(1,1,1,1,QB,0,1)
|
|
CALL SQMBAPP_HDEC(QB)
|
|
write(6,*)'sbottom:'
|
|
write(6,*)'--------'
|
|
write(7,*)'M_H = ',amh
|
|
write(7,*)'M_Q = ',amb
|
|
write(7,*)'M_G = ',amgluino
|
|
write(7,*)'TG(BETA) = ',tb
|
|
write(7,*)'MU = ',mu
|
|
write(7,*)'FACTOR = ',-1+ght/ghb
|
|
write(7,*)'QQ = ',QB
|
|
write(7,*)'M_Q(QQ) = ',smbot
|
|
write(7,*)'A_b(QQ) = ',AB00
|
|
write(7,*)'A_b = ',sb*cb*(msb(1)**2-msb(2)**2)/smbot+mu*tb
|
|
write(7,*)'M_S1 = ',msb(1)
|
|
write(7,*)'M_S2 = ',msb(2)
|
|
write(7,*)'G_Q^H = ',ghb
|
|
write(7,*)'ALPHAS(QQ) = ',ALPSB
|
|
write(7,*)'SIN(THETA) = ',sb
|
|
write(7,*)'COS(THETA) = ',cb
|
|
write(7,*)'GHQQ(1,1) = ',yhbb(1,1)*mz**2
|
|
write(7,*)'GHQQ(1,2) = ',yhbb(1,2)*mz**2
|
|
write(7,*)'GHQQ(2,1) = ',yhbb(2,1)*mz**2
|
|
write(7,*)'GHQQ(2,2) = ',yhbb(2,2)*mz**2
|
|
write(7,*)
|
|
QT = (mst(1)+mst(2))/2
|
|
XX = SQSUSY_HDEC(1,1,1,1,QT,0,1)
|
|
CALL SQMBAPP_HDEC(QT)
|
|
write(6,*)'stop:'
|
|
write(6,*)'-----'
|
|
write(8,*)'M_H = ',amh
|
|
write(8,*)'M_Q = ',amt
|
|
write(8,*)'M_G = ',amgluino
|
|
write(8,*)'TG(BETA) = ',tb
|
|
write(8,*)'MU = ',mu
|
|
write(8,*)'FACTOR = ',-1+ght/ghb
|
|
write(8,*)'QQ = ',QT
|
|
write(8,*)'M_Q(QQ) = ',smtop
|
|
write(8,*)'A_t(QQ) = ',AT00
|
|
write(8,*)'A_t = ',st*ct*(mst(1)**2-mst(2)**2)/smtop+mu/tb
|
|
write(8,*)'M_S1 = ',mst(1)
|
|
write(8,*)'M_S2 = ',mst(2)
|
|
write(8,*)'G_Q^H = ',ght
|
|
write(8,*)'ALPHAS(QQ) = ',ALPST
|
|
write(8,*)'SIN(THETA) = ',st
|
|
write(8,*)'COS(THETA) = ',ct
|
|
write(8,*)'GHQQ(1,1) = ',yhtt(1,1)*mz**2
|
|
write(8,*)'GHQQ(1,2) = ',yhtt(1,2)*mz**2
|
|
write(8,*)'GHQQ(2,1) = ',yhtt(2,1)*mz**2
|
|
write(8,*)'GHQQ(2,2) = ',yhtt(2,2)*mz**2
|
|
write(8,*)
|
|
close(7)
|
|
close(8)
|
|
118 continue
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
goto 119
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'pseudoscalar:'
|
|
c write(6,*)'============:'
|
|
c write(6,*)
|
|
QB = (msb(1)+msb(2))/2
|
|
XX = SQSUSY_HDEC(1,1,1,1,QB,0,1)
|
|
CALL SQMBAPP_HDEC(QB)
|
|
c write(6,*)'sbottom:'
|
|
c write(6,*)'--------'
|
|
write(9,*)'M_A = ',ama
|
|
write(9,*)'M_Q = ',amb
|
|
write(9,*)'M_G = ',amgluino
|
|
write(9,*)'TG(BETA) = ',tb
|
|
write(9,*)'MU = ',mu
|
|
write(9,*)'FACTOR = ',-1-gat/gab
|
|
write(9,*)'QQ = ',QB
|
|
write(9,*)'M_Q(QQ) = ',smbot
|
|
write(9,*)'A_b(QQ) = ',AB00
|
|
write(9,*)'A_b = ',sb*cb*(msb(1)**2-msb(2)**2)/smbot+mu*tb
|
|
write(9,*)'A_b = ',AB1
|
|
write(9,*)'M_S1 = ',msb(1)
|
|
write(9,*)'M_S2 = ',msb(2)
|
|
write(9,*)'G_Q^A = ',gab
|
|
write(9,*)'ALPHAS(QQ) = ',ALPSB
|
|
write(9,*)'SIN(THETA) = ',sb
|
|
write(9,*)'COS(THETA) = ',cb
|
|
write(9,*)'GAQQ(1,1) = ',0.d0
|
|
write(9,*)'GAQQ(1,2) = ',yabb*mz**2
|
|
write(9,*)'GAQQ(2,1) = ',-yabb*mz**2
|
|
write(9,*)'GAQQ(2,2) = ',0.d0
|
|
write(9,*)
|
|
QT = (mst(1)+mst(2))/2
|
|
XX = SQSUSY_HDEC(1,1,1,1,QT,0,1)
|
|
CALL SQMBAPP_HDEC(QT)
|
|
c write(6,*)'stop:'
|
|
c write(6,*)'-----'
|
|
write(10,*)'M_A = ',ama
|
|
write(10,*)'M_Q = ',amt
|
|
write(10,*)'M_G = ',amgluino
|
|
write(10,*)'TG(BETA) = ',tb
|
|
write(10,*)'MU = ',mu
|
|
write(10,*)'FACTOR = ',-1-gat/gab
|
|
write(10,*)'QQ = ',QT
|
|
write(10,*)'M_Q(QQ) = ',smtop
|
|
write(10,*)'A_t(QQ) = ',AT00
|
|
write(10,*)'A_t = ',
|
|
. st*ct*(mst(1)**2-mst(2)**2)/smtop+mu/tb
|
|
write(10,*)'A_t = ',AT1
|
|
write(10,*)'M_S1 = ',mst(1)
|
|
write(10,*)'M_S2 = ',mst(2)
|
|
write(10,*)'G_Q^A = ',gat
|
|
write(10,*)'ALPHAS(QQ) = ',ALPST
|
|
write(10,*)'SIN(THETA) = ',st
|
|
write(10,*)'COS(THETA) = ',ct
|
|
write(10,*)'GAQQ(1,1) = ',0.d0
|
|
write(10,*)'GAQQ(1,2) = ',yatt*mz**2
|
|
write(10,*)'GAQQ(2,1) = ',-yatt*mz**2
|
|
write(10,*)'GAQQ(2,2) = ',0.d0
|
|
write(10,*)
|
|
close(9)
|
|
close(10)
|
|
|
|
119 continue
|
|
|
|
c write(6,*)'Stops:'
|
|
c write(6,*)'======'
|
|
c write(6,*)'COS(THETA) = ',ct
|
|
c write(6,*)'SIN(THETA) = ',st
|
|
c write(6,*)'M_ST1 = ',mst(1)
|
|
c write(6,*)'M_ST2 = ',mst(2)
|
|
c write(6,*)
|
|
c write(6,*)'Sbottoms:'
|
|
c write(6,*)'========='
|
|
c write(6,*)'COS(THETA) = ',cb
|
|
c write(6,*)'SIN(THETA) = ',sb
|
|
c write(6,*)'M_SB1 = ',msb(1)
|
|
c write(6,*)'M_SB2 = ',msb(2)
|
|
c write(6,*)
|
|
|
|
RETURN
|
|
111 STOP
|
|
END
|
|
|
|
C ******************************************************************
|
|
|
|
C DOUBLE PRECISION FUNCTION RUNP_HDEC(Q,NF)
|
|
C IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
C COMMON/RUN_HDEC/XMSB,XMHAT,XKFAC
|
|
C RUNP_HDEC = RUNM_HDEC(Q,NF,0)
|
|
C RUNP_HDEC = RUNM_HDEC(Q/2.D0,NF,0)*XKFAC
|
|
C RETURN
|
|
C END
|
|
|
|
DOUBLE PRECISION FUNCTION RUNM_HDEC(Q,NF0,IIF)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
PARAMETER (NN=8)
|
|
PARAMETER (ZETA3 = 1.202056903159594D0)
|
|
DIMENSION AM(NN),YMSB(NN)
|
|
COMMON/ALS_HDEC/XLAMBDA,AMCA,AMBA,AMTA,N0A
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/STRANGE_HDEC/AMSB
|
|
COMMON/MSBAR_HDEC/AMCB,AMBB
|
|
COMMON/RUN_HDEC/XMSB,XMHAT,XKFAC
|
|
COMMON/FLAG_HDEC/IHIGGS,NNLO,IPOLE
|
|
COMMON/SM4_HDEC/AMTP,AMBP,AMNUP,AMEP,ISM4,IGGELW
|
|
SAVE ISTRANGE
|
|
B0(NF)=(33.D0-2.D0*NF)/12D0
|
|
B1(NF) = (102D0-38D0/3D0*NF)/16D0
|
|
B2(NF) = (2857D0/2D0-5033D0/18D0*NF+325D0/54D0*NF**2)/64D0
|
|
G0(NF) = 1D0
|
|
G1(NF) = (202D0/3D0-20D0/9D0*NF)/16D0
|
|
G2(NF) = (1249D0-(2216D0/27D0+160D0/3D0*ZETA3)*NF
|
|
. - 140D0/81D0*NF**2)/64D0
|
|
C1(NF) = G1(NF)/B0(NF) - B1(NF)*G0(NF)/B0(NF)**2
|
|
C2(NF) = ((G1(NF)/B0(NF) - B1(NF)*G0(NF)/B0(NF)**2)**2
|
|
. + G2(NF)/B0(NF) + B1(NF)**2*G0(NF)/B0(NF)**3
|
|
. - B1(NF)*G1(NF)/B0(NF)**2 - B2(NF)*G0(NF)/B0(NF)**2)/2D0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c C1(NF) = 1.175d0
|
|
c C2(NF) = 1.501d0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
TRAN(X,XK,XK2)=1D0+4D0/3D0*ALPHAS_HDEC(X,3)/PI
|
|
. +XK*(ALPHAS_HDEC(X,3)/PI)**2
|
|
. +XK2*(ALPHAS_HDEC(X,3)/PI)**3
|
|
CQ(X,NF)=(2D0*B0(NF)*X)**(G0(NF)/B0(NF))
|
|
. *(1D0+LOOP2*C1(NF)*X+LOOP3*C2(NF)*X**2)
|
|
DATA ISTRANGE/0/
|
|
NF = NF0
|
|
LOOP = 3
|
|
LOOP2 = 1
|
|
LOOP3 = 1
|
|
IF(LOOP.LE.2)LOOP3 = 0
|
|
IF(LOOP.LE.1)LOOP2 = 0
|
|
PI=4D0*DATAN(1D0)
|
|
ACC = 1.D-8
|
|
AM(1) = 0
|
|
AM(2) = 0
|
|
C--SCALE OF STRANGE AND CHARM MSBAR-MASS
|
|
c QQS = 1.D0
|
|
QQS = 2.D0
|
|
QQC = 3.D0
|
|
C--------------------------------------------
|
|
IMSBAR = 0
|
|
IF(IMSBAR.EQ.1)THEN
|
|
IF(ISTRANGE.EQ.0)THEN
|
|
C--STRANGE POLE MASS FROM MSBAR-MASS AT QQS
|
|
AMSD = XLAMBDA
|
|
AMSU = 1.D8
|
|
123 AMS = (AMSU+AMSD)/2
|
|
AM(3) = AMS
|
|
XMSB = AMS/CQ(ALPHAS_HDEC(AMS,3)/PI,3)
|
|
. *CQ(ALPHAS_HDEC(QQS,3)/PI,3)/TRAN(AMS,0D0,0D0)
|
|
DD = (XMSB-AMSB)/AMSB
|
|
IF(DABS(DD).GE.ACC)THEN
|
|
IF(DD.LE.0.D0)THEN
|
|
AMSD = AM(3)
|
|
ELSE
|
|
AMSU = AM(3)
|
|
ENDIF
|
|
GOTO 123
|
|
ENDIF
|
|
ISTRANGE=1
|
|
ENDIF
|
|
AM(3) = AMSB
|
|
ELSE
|
|
AMS=AMSB
|
|
AM(3) = AMS
|
|
ENDIF
|
|
C--------------------------------------------
|
|
AM(3) = AMSB
|
|
AM(4) = AMC
|
|
AM(5) = AMB
|
|
c write(6,*)'masses: ',AMSB,AMC,AMB
|
|
AM(6) = AMT
|
|
AM(7) = 100*AMT
|
|
AM(8) = 200*AMT
|
|
IF(ISM4.NE.0)THEN
|
|
IF(AMBP.LE.AMTP)THEN
|
|
AM(7) = AMBP
|
|
AM(8) = AMTP
|
|
ELSE
|
|
AM(7) = AMTP
|
|
AM(8) = AMBP
|
|
IF(NF0.EQ.7)THEN
|
|
NF = 8
|
|
ENDIF
|
|
IF(NF0.EQ.8)THEN
|
|
NF = 7
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
XK = 16.11D0
|
|
DO 1 I=1,NF-1
|
|
XK = XK - 1.0414D0*(1.D0-AM(I)/AM(NF))
|
|
1 CONTINUE
|
|
C--ON-SHELL MASS AS SCALE OF ALPHA_S
|
|
XK2 = 0.65269D0*(NF-1)**2 - 29.7010D0*(NF-1) + 239.2966D0
|
|
C--MSBAR MASS AS SCALE OF ALPHA_S
|
|
c XK2 = 0.65269D0*(NF-1)**2 - 26.655D0*(NF-1) + 190.595D0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c XK = 0
|
|
c XK2 = 0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
IF(NF.GE.4)THEN
|
|
c XMSB = AM(NF)/TRAN(AM(NF),0D0,0D0)
|
|
c XMSB = AM(NF)/TRAN(AM(NF),XK,0D0)
|
|
XMSB = AM(NF)/TRAN(AM(NF),XK,XK2)
|
|
XMHAT = XMSB/CQ(ALPHAS_HDEC(AM(NF),3)/PI,NF)
|
|
ELSE
|
|
XMSB = 0
|
|
XMHAT = 0
|
|
ENDIF
|
|
YMSB(3) = AMSB
|
|
IF(NF.EQ.3)THEN
|
|
IF(QQS.LT.AMC)THEN
|
|
YMSB(4) = YMSB(3)*CQ(ALPHAS_HDEC(AM(4),3)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(QQS,3)/PI,3)
|
|
ELSE
|
|
YMSB(4) = AMSB*CQ(ALPHAS_HDEC(AM(4),3)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(QQS,3)/PI,4)
|
|
YMSB(3) = YMSB(4)
|
|
ENDIF
|
|
YMSB(5) = YMSB(4)*CQ(ALPHAS_HDEC(AM(5),3)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(4),3)/PI,4)
|
|
YMSB(6) = YMSB(5)*CQ(ALPHAS_HDEC(AM(6),3)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(5),3)/PI,5)
|
|
YMSB(7) = YMSB(6)*CQ(ALPHAS_HDEC(AM(7),3)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(6),3)/PI,6)
|
|
YMSB(8) = YMSB(7)*CQ(ALPHAS_HDEC(AM(8),3)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(7),3)/PI,7)
|
|
ELSEIF(NF.EQ.4)THEN
|
|
YMSB(4) = AMCB*CQ(ALPHAS_HDEC(AM(4),3)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(QQC,3)/PI,4)
|
|
YMSB(3) = YMSB(4)*CQ(ALPHAS_HDEC(QQS,3)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(AM(4),3)/PI,3)
|
|
YMSB(5) = YMSB(4)*CQ(ALPHAS_HDEC(AM(5),3)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(4),3)/PI,4)
|
|
YMSB(6) = YMSB(5)*CQ(ALPHAS_HDEC(AM(6),3)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(5),3)/PI,5)
|
|
YMSB(7) = YMSB(6)*CQ(ALPHAS_HDEC(AM(7),3)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(6),3)/PI,6)
|
|
YMSB(8) = YMSB(7)*CQ(ALPHAS_HDEC(AM(8),3)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(7),3)/PI,7)
|
|
ELSEIF(NF.EQ.5)THEN
|
|
YMSB(5) = XMSB
|
|
YMSB(4) = YMSB(5)*CQ(ALPHAS_HDEC(AM(4),3)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(5),3)/PI,4)
|
|
YMSB(3) = YMSB(4)*CQ(ALPHAS_HDEC(QQS,3)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(AM(4),3)/PI,3)
|
|
YMSB(6) = YMSB(5)*CQ(ALPHAS_HDEC(AM(6),3)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(5),3)/PI,5)
|
|
YMSB(7) = YMSB(6)*CQ(ALPHAS_HDEC(AM(7),3)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(6),3)/PI,6)
|
|
YMSB(8) = YMSB(7)*CQ(ALPHAS_HDEC(AM(8),3)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(7),3)/PI,7)
|
|
ELSEIF(NF.EQ.6)THEN
|
|
YMSB(6) = XMSB
|
|
YMSB(5) = YMSB(6)*CQ(ALPHAS_HDEC(AM(5),3)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(6),3)/PI,5)
|
|
YMSB(4) = YMSB(5)*CQ(ALPHAS_HDEC(AM(4),3)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(5),3)/PI,4)
|
|
YMSB(3) = YMSB(4)*CQ(ALPHAS_HDEC(QQS,3)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(AM(4),3)/PI,3)
|
|
YMSB(7) = YMSB(6)*CQ(ALPHAS_HDEC(AM(7),3)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(6),3)/PI,6)
|
|
YMSB(8) = YMSB(7)*CQ(ALPHAS_HDEC(AM(8),3)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(7),3)/PI,7)
|
|
ELSEIF(NF.EQ.7)THEN
|
|
YMSB(7) = XMSB
|
|
YMSB(6) = YMSB(7)*CQ(ALPHAS_HDEC(AM(6),3)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(7),3)/PI,6)
|
|
YMSB(5) = YMSB(6)*CQ(ALPHAS_HDEC(AM(5),3)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(6),3)/PI,5)
|
|
YMSB(4) = YMSB(5)*CQ(ALPHAS_HDEC(AM(4),3)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(5),3)/PI,4)
|
|
YMSB(3) = YMSB(4)*CQ(ALPHAS_HDEC(QQS,3)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(AM(4),3)/PI,3)
|
|
YMSB(8) = YMSB(7)*CQ(ALPHAS_HDEC(AM(8),3)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(7),3)/PI,7)
|
|
ELSEIF(NF.EQ.8)THEN
|
|
YMSB(8) = XMSB
|
|
YMSB(7) = YMSB(8)*CQ(ALPHAS_HDEC(AM(7),3)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(8),3)/PI,7)
|
|
YMSB(6) = YMSB(7)*CQ(ALPHAS_HDEC(AM(6),3)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(7),3)/PI,6)
|
|
YMSB(5) = YMSB(6)*CQ(ALPHAS_HDEC(AM(5),3)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(6),3)/PI,5)
|
|
YMSB(4) = YMSB(5)*CQ(ALPHAS_HDEC(AM(4),3)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(5),3)/PI,4)
|
|
YMSB(3) = YMSB(4)*CQ(ALPHAS_HDEC(QQS,3)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(AM(4),3)/PI,3)
|
|
ENDIF
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c IF(Q.LT.AMC)THEN
|
|
c N0=3
|
|
c IF(QQS.LT.AMC)THEN
|
|
c Q0 = QQS
|
|
c ELSE
|
|
c Q0 = AMC
|
|
c ENDIF
|
|
c ELSEIF(Q.LE.AMB)THEN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c IF(Q.LT.AMB)THEN
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
IF(IIF.EQ.0)THEN
|
|
IF(Q.LT.AMC)THEN
|
|
N0=3
|
|
Q0 = QQS
|
|
ELSEIF(Q.LE.AMB)THEN
|
|
N0=4
|
|
Q0 = AMC
|
|
ELSEIF(Q.LE.AMT)THEN
|
|
N0=5
|
|
Q0 = AMB
|
|
ELSE
|
|
N0=6
|
|
Q0 = AMT
|
|
IF(ISM4.NE.0)THEN
|
|
IF(Q.GT.AM(7))THEN
|
|
IF(Q.LE.AM(8))THEN
|
|
N0=7
|
|
Q0 = AM(7)
|
|
ELSE
|
|
N0=8
|
|
Q0 = AM(8)
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
ELSE
|
|
YMSB(3) = AMSB
|
|
N0 = NF0
|
|
IF(N0.EQ.3)Q0 = QQS
|
|
IF(N0.EQ.4)Q0 = AMC
|
|
IF(N0.EQ.5)Q0 = AMB
|
|
IF(N0.EQ.6)Q0 = AMT
|
|
IF(ISM4.NE.0)THEN
|
|
IF(N0.EQ.7)Q0 = AM(7)
|
|
IF(N0.EQ.8)Q0 = AM(8)
|
|
ENDIF
|
|
ENDIF
|
|
IF(NNLO.EQ.1.AND.NF.GT.3)THEN
|
|
XKFAC = TRAN(AM(NF),0D0,0D0)/TRAN(AM(NF),XK,XK2)
|
|
ELSE
|
|
XKFAC = 1D0
|
|
ENDIF
|
|
RUNM_HDEC = YMSB(N0)*CQ(ALPHAS_HDEC(Q,3)/PI,N0)/
|
|
. CQ(ALPHAS_HDEC(Q0,3)/PI,N0)
|
|
c . * XKFAC
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'runm: ',YMSB(N0),CQ(ALPHAS_HDEC(Q,3)/PI,N0),
|
|
c . CQ(ALPHAS_HDEC(Q0,3)/PI,N0)
|
|
c write(6,*)
|
|
c write(6,*)'runm1: ',AM(NF),TRAN(AM(NF),XK,XK2),RUNM_HDEC
|
|
c write(6,*)'runm2: ',AM(NF),XK,XK2
|
|
c write(6,*)'runm3: ',AM(1),AM(2),AM(3),AM(4),AM(5),AM(6)
|
|
c x1 = TRAN(AM(NF),XK,XK2)
|
|
c IF(NF.EQ.6)XK = 10.941443211264351D0
|
|
c x1 = x1/TRAN(AM(NF),XK,XK2)
|
|
c write(6,*)'runm4: ',Q,Q0,ALPHAS_HDEC(Q,3),ALPHAS_HDEC(Q0,3)
|
|
c write(6,*)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION RUNM0_HDEC(Q,NF0)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
PARAMETER (NN=8)
|
|
PARAMETER (ZETA3 = 1.202056903159594D0)
|
|
DIMENSION AM(NN),YMSB(NN)
|
|
COMMON/ALS_HDEC/XLAMBDA,AMCA,AMBA,AMTA,N0A
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/STRANGE_HDEC/AMSB
|
|
COMMON/RUN_HDEC/XMSB,XMHAT,XKFAC
|
|
COMMON/FLAG_HDEC/IHIGGS,NNLO,IPOLE
|
|
COMMON/SM4_HDEC/AMTP,AMBP,AMNUP,AMEP,ISM4,IGGELW
|
|
SAVE ISTRANGE
|
|
B0(NF)=(33.D0-2.D0*NF)/12D0
|
|
B1(NF) = (102D0-38D0/3D0*NF)/16D0
|
|
B2(NF) = (2857D0/2D0-5033D0/18D0*NF+325D0/54D0*NF**2)/64D0
|
|
G0(NF) = 1D0
|
|
G1(NF) = (202D0/3D0-20D0/9D0*NF)/16D0
|
|
G2(NF) = (1249D0-(2216D0/27D0+160D0/3D0*ZETA3)*NF
|
|
. - 140D0/81D0*NF**2)/64D0
|
|
C1(NF) = G1(NF)/B0(NF) - B1(NF)*G0(NF)/B0(NF)**2
|
|
C2(NF) = ((G1(NF)/B0(NF) - B1(NF)*G0(NF)/B0(NF)**2)**2
|
|
. + G2(NF)/B0(NF) + B1(NF)**2*G0(NF)/B0(NF)**3
|
|
. - B1(NF)*G1(NF)/B0(NF)**2 - B2(NF)*G0(NF)/B0(NF)**2)/2D0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c C1(NF) = 1.175d0
|
|
c C2(NF) = 1.501d0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
TRAN(X,XK)=1D0+4D0/3D0*ALPHAS_HDEC(X,2)/PI
|
|
. +XK*(ALPHAS_HDEC(X,2)/PI)**2
|
|
CQ(X,NF)=(2D0*B0(NF)*X)**(G0(NF)/B0(NF))
|
|
. *(1D0+LOOP2*C1(NF)*X+LOOP3*C2(NF)*X**2)
|
|
DATA ISTRANGE/0/
|
|
NF = NF0
|
|
LOOP = 3
|
|
LOOP2 = 1
|
|
LOOP3 = 1
|
|
IF(LOOP.LE.2)LOOP3 = 0
|
|
IF(LOOP.LE.1)LOOP2 = 0
|
|
PI=4D0*DATAN(1D0)
|
|
ACC = 1.D-8
|
|
AM(1) = 0
|
|
AM(2) = 0
|
|
C--SCALE OF STRANGE MSBAR-MASS
|
|
c QQS = 1.D0
|
|
QQS = 2.D0
|
|
C--------------------------------------------
|
|
IMSBAR = 0
|
|
IF(IMSBAR.EQ.1)THEN
|
|
IF(ISTRANGE.EQ.0)THEN
|
|
C--STRANGE POLE MASS FROM MSBAR-MASS AT QQS
|
|
AMSD = XLAMBDA
|
|
AMSU = 1.D8
|
|
123 AMS = (AMSU+AMSD)/2
|
|
AM(3) = AMS
|
|
XMSB = AMS/CQ(ALPHAS_HDEC(AMS,2)/PI,3)
|
|
. *CQ(ALPHAS_HDEC(QQS,2)/PI,3)/TRAN(AMS,0D0)
|
|
DD = (XMSB-AMSB)/AMSB
|
|
IF(DABS(DD).GE.ACC)THEN
|
|
IF(DD.LE.0.D0)THEN
|
|
AMSD = AM(3)
|
|
ELSE
|
|
AMSU = AM(3)
|
|
ENDIF
|
|
GOTO 123
|
|
ENDIF
|
|
ISTRANGE=1
|
|
ENDIF
|
|
AM(3) = AMSB
|
|
ELSE
|
|
AMS=AMSB
|
|
AM(3) = AMS
|
|
ENDIF
|
|
C--------------------------------------------
|
|
AM(3) = AMSB
|
|
AM(4) = AMC
|
|
AM(5) = AMB
|
|
AM(6) = AMT
|
|
AM(7) = 100*AMT
|
|
AM(8) = 200*AMT
|
|
IF(ISM4.NE.0)THEN
|
|
IF(AMBP.LE.AMTP)THEN
|
|
AM(7) = AMBP
|
|
AM(8) = AMTP
|
|
ELSE
|
|
AM(7) = AMTP
|
|
AM(8) = AMBP
|
|
IF(NF0.EQ.7)THEN
|
|
NF = 8
|
|
ELSE
|
|
NF = 7
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
XK = 16.11D0
|
|
DO 1 I=1,NF-1
|
|
XK = XK - 1.04D0*(1.D0-AM(I)/AM(NF))
|
|
1 CONTINUE
|
|
IF(NF.GE.4)THEN
|
|
XMSB = AM(NF)/TRAN(AM(NF),0D0)
|
|
XMHAT = XMSB/CQ(ALPHAS_HDEC(AM(NF),2)/PI,NF)
|
|
ELSE
|
|
XMSB = 0
|
|
XMHAT = 0
|
|
ENDIF
|
|
YMSB(3) = AMSB
|
|
IF(NF.EQ.3)THEN
|
|
IF(QQS.LT.AMC)THEN
|
|
YMSB(4) = YMSB(3)*CQ(ALPHAS_HDEC(AM(4),2)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(QQS,2)/PI,3)
|
|
ELSE
|
|
YMSB(4) = AMSB*CQ(ALPHAS_HDEC(AM(4),2)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(QQS,2)/PI,4)
|
|
YMSB(3) = YMSB(4)
|
|
ENDIF
|
|
YMSB(5) = YMSB(4)*CQ(ALPHAS_HDEC(AM(5),2)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(4),2)/PI,4)
|
|
YMSB(6) = YMSB(5)*CQ(ALPHAS_HDEC(AM(6),2)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(5),2)/PI,5)
|
|
YMSB(7) = YMSB(6)*CQ(ALPHAS_HDEC(AM(7),2)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(6),2)/PI,6)
|
|
YMSB(8) = YMSB(7)*CQ(ALPHAS_HDEC(AM(8),2)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(7),2)/PI,7)
|
|
ELSEIF(NF.EQ.4)THEN
|
|
YMSB(4) = XMSB
|
|
YMSB(3) = YMSB(4)*CQ(ALPHAS_HDEC(QQS,2)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(AM(4),2)/PI,3)
|
|
YMSB(5) = YMSB(4)*CQ(ALPHAS_HDEC(AM(5),2)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(4),2)/PI,4)
|
|
YMSB(6) = YMSB(5)*CQ(ALPHAS_HDEC(AM(6),2)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(5),2)/PI,5)
|
|
YMSB(7) = YMSB(6)*CQ(ALPHAS_HDEC(AM(7),2)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(6),2)/PI,6)
|
|
YMSB(8) = YMSB(7)*CQ(ALPHAS_HDEC(AM(8),2)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(7),2)/PI,7)
|
|
ELSEIF(NF.EQ.5)THEN
|
|
YMSB(5) = XMSB
|
|
YMSB(4) = YMSB(5)*CQ(ALPHAS_HDEC(AM(4),2)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(5),2)/PI,4)
|
|
YMSB(3) = YMSB(4)*CQ(ALPHAS_HDEC(QQS,2)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(AM(4),2)/PI,3)
|
|
YMSB(6) = YMSB(5)*CQ(ALPHAS_HDEC(AM(6),2)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(5),2)/PI,5)
|
|
YMSB(7) = YMSB(6)*CQ(ALPHAS_HDEC(AM(7),2)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(6),2)/PI,6)
|
|
YMSB(8) = YMSB(7)*CQ(ALPHAS_HDEC(AM(8),2)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(7),2)/PI,7)
|
|
ELSEIF(NF.EQ.6)THEN
|
|
YMSB(6) = XMSB
|
|
YMSB(5) = YMSB(6)*CQ(ALPHAS_HDEC(AM(5),2)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(6),2)/PI,5)
|
|
YMSB(4) = YMSB(5)*CQ(ALPHAS_HDEC(AM(4),2)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(5),2)/PI,4)
|
|
YMSB(3) = YMSB(4)*CQ(ALPHAS_HDEC(QQS,2)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(AM(4),2)/PI,3)
|
|
YMSB(7) = YMSB(6)*CQ(ALPHAS_HDEC(AM(7),2)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(6),2)/PI,6)
|
|
YMSB(8) = YMSB(7)*CQ(ALPHAS_HDEC(AM(8),2)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(7),2)/PI,7)
|
|
ELSEIF(NF.EQ.7)THEN
|
|
YMSB(7) = XMSB
|
|
YMSB(6) = YMSB(7)*CQ(ALPHAS_HDEC(AM(6),2)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(7),2)/PI,6)
|
|
YMSB(5) = YMSB(6)*CQ(ALPHAS_HDEC(AM(5),2)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(6),2)/PI,5)
|
|
YMSB(4) = YMSB(5)*CQ(ALPHAS_HDEC(AM(4),2)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(5),2)/PI,4)
|
|
YMSB(3) = YMSB(4)*CQ(ALPHAS_HDEC(QQS,2)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(AM(4),2)/PI,3)
|
|
YMSB(8) = YMSB(7)*CQ(ALPHAS_HDEC(AM(8),2)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(7),2)/PI,7)
|
|
ELSEIF(NF.EQ.8)THEN
|
|
YMSB(8) = XMSB
|
|
YMSB(7) = YMSB(8)*CQ(ALPHAS_HDEC(AM(7),2)/PI,7)/
|
|
. CQ(ALPHAS_HDEC(AM(8),2)/PI,7)
|
|
YMSB(6) = YMSB(7)*CQ(ALPHAS_HDEC(AM(6),2)/PI,6)/
|
|
. CQ(ALPHAS_HDEC(AM(7),2)/PI,6)
|
|
YMSB(5) = YMSB(6)*CQ(ALPHAS_HDEC(AM(5),2)/PI,5)/
|
|
. CQ(ALPHAS_HDEC(AM(6),2)/PI,5)
|
|
YMSB(4) = YMSB(5)*CQ(ALPHAS_HDEC(AM(4),2)/PI,4)/
|
|
. CQ(ALPHAS_HDEC(AM(5),2)/PI,4)
|
|
YMSB(3) = YMSB(4)*CQ(ALPHAS_HDEC(QQS,2)/PI,3)/
|
|
. CQ(ALPHAS_HDEC(AM(4),2)/PI,3)
|
|
ENDIF
|
|
IF(Q.LT.AMC)THEN
|
|
N0=3
|
|
c IF(QQS.LT.AMC)THEN
|
|
Q0 = QQS
|
|
c ELSE
|
|
c Q0 = AMC
|
|
c ENDIF
|
|
ELSEIF(Q.LE.AMB)THEN
|
|
N0=4
|
|
Q0 = AMC
|
|
ELSEIF(Q.LE.AMT)THEN
|
|
N0=5
|
|
Q0 = AMB
|
|
ELSE
|
|
N0=6
|
|
Q0 = AMT
|
|
IF(ISM4.NE.0)THEN
|
|
IF(Q.GT.AM(7))THEN
|
|
IF(Q.LE.AM(8))THEN
|
|
N0=7
|
|
Q0 = AM(7)
|
|
ELSE
|
|
N0=8
|
|
Q0 = AM(8)
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
IF(NNLO.EQ.1.AND.NF.GT.3)THEN
|
|
XKFAC = TRAN(AM(NF),0D0)/TRAN(AM(NF),XK)
|
|
ELSE
|
|
XKFAC = 1D0
|
|
ENDIF
|
|
RUNM0_HDEC = YMSB(N0)*CQ(ALPHAS_HDEC(Q,2)/PI,N0)/
|
|
. CQ(ALPHAS_HDEC(Q0,2)/PI,N0)
|
|
c . * XKFAC
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION ALPHAS_HDEC(Q,N)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DIMENSION XLB(6)
|
|
COMMON/ALSLAM_HDEC/XLB1(6),XLB2(6),XLB3(6)
|
|
COMMON/ALS_HDEC/XLAMBDA,AMC,AMB,AMT,N0
|
|
B0(NF)=33.D0-2.D0*NF
|
|
B1(NF)=6.D0*(153.D0-19.D0*NF)/B0(NF)**2
|
|
B2(NF)=27/2.D0*(2857-5033/9.D0*NF+325/27.D0*NF**2)/B0(NF)**3
|
|
ALS1(NF,X)=12.D0*PI/(B0(NF)*DLOG(X**2/XLB(NF)**2))
|
|
ALS2(NF,X)=12.D0*PI/(B0(NF)*DLOG(X**2/XLB(NF)**2))
|
|
. *(1.D0-B1(NF)*DLOG(DLOG(X**2/XLB(NF)**2))
|
|
. /DLOG(X**2/XLB(NF)**2))
|
|
ALS3(NF,X)=12.D0*PI/(B0(NF)*DLOG(X**2/XLB(NF)**2))
|
|
. *(1.D0-B1(NF)*DLOG(DLOG(X**2/XLB(NF)**2))
|
|
. /DLOG(X**2/XLB(NF)**2)
|
|
. +(B1(NF)**2*(DLOG(DLOG(X**2/XLB(NF)**2))**2
|
|
. -DLOG(DLOG(X**2/XLB(NF)**2))-1)+B2(NF))
|
|
. /DLOG(X**2/XLB(NF)**2)**2)
|
|
PI=4.D0*DATAN(1.D0)
|
|
c write(6,*)'ALS param: ',XLAMBDA,AMC,AMB,AMT,N0
|
|
IF(N.EQ.1)THEN
|
|
DO 1 I=1,6
|
|
XLB(I)=XLB1(I)
|
|
1 CONTINUE
|
|
ELSEIF(N.EQ.2)THEN
|
|
DO 2 I=1,6
|
|
XLB(I)=XLB2(I)
|
|
2 CONTINUE
|
|
ELSE
|
|
DO 3 I=1,6
|
|
XLB(I)=XLB3(I)
|
|
3 CONTINUE
|
|
ENDIF
|
|
IF(Q.LT.AMC)THEN
|
|
NF=3
|
|
ELSEIF(Q.LE.AMB)THEN
|
|
NF=4
|
|
ELSEIF(Q.LE.AMT)THEN
|
|
NF=5
|
|
ELSE
|
|
NF=6
|
|
ENDIF
|
|
IF(N.EQ.1)THEN
|
|
ALPHAS_HDEC=ALS1(NF,Q)
|
|
ELSEIF(N.EQ.2)THEN
|
|
ALPHAS_HDEC=ALS2(NF,Q)
|
|
ELSE
|
|
ALPHAS_HDEC=ALS3(NF,Q)
|
|
c ALPHAS_HDEC=ALS2(NF,Q)
|
|
ENDIF
|
|
c write(6,*)'ALS: ',ALPHAS_HDEC,ALS3(NF,Q)
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE ALSINI_HDEC(ACC)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DIMENSION XLB(6)
|
|
COMMON/ALSLAM_HDEC/XLB1(6),XLB2(6),XLB3(6)
|
|
COMMON/ALS_HDEC/XLAMBDA,AMC,AMB,AMT,N0
|
|
PI=4.D0*DATAN(1.D0)
|
|
XLB1(1)=0D0
|
|
XLB1(2)=0D0
|
|
XLB2(1)=0D0
|
|
XLB2(2)=0D0
|
|
IF(N0.EQ.3)THEN
|
|
XLB(3)=XLAMBDA
|
|
XLB(4)=XLB(3)*(XLB(3)/AMC)**(2.D0/25.D0)
|
|
XLB(5)=XLB(4)*(XLB(4)/AMB)**(2.D0/23.D0)
|
|
XLB(6)=XLB(5)*(XLB(5)/AMT)**(2.D0/21.D0)
|
|
ELSEIF(N0.EQ.4)THEN
|
|
XLB(4)=XLAMBDA
|
|
XLB(5)=XLB(4)*(XLB(4)/AMB)**(2.D0/23.D0)
|
|
XLB(3)=XLB(4)*(XLB(4)/AMC)**(-2.D0/27.D0)
|
|
XLB(6)=XLB(5)*(XLB(5)/AMT)**(2.D0/21.D0)
|
|
ELSEIF(N0.EQ.5)THEN
|
|
XLB(5)=XLAMBDA
|
|
XLB(4)=XLB(5)*(XLB(5)/AMB)**(-2.D0/25.D0)
|
|
XLB(3)=XLB(4)*(XLB(4)/AMC)**(-2.D0/27.D0)
|
|
XLB(6)=XLB(5)*(XLB(5)/AMT)**(2.D0/21.D0)
|
|
ELSEIF(N0.EQ.6)THEN
|
|
XLB(6)=XLAMBDA
|
|
XLB(5)=XLB(6)*(XLB(6)/AMT)**(-2.D0/23.D0)
|
|
XLB(4)=XLB(5)*(XLB(5)/AMB)**(-2.D0/25.D0)
|
|
XLB(3)=XLB(4)*(XLB(4)/AMC)**(-2.D0/27.D0)
|
|
ENDIF
|
|
DO 1 I=3,6
|
|
XLB1(I)=XLB(I)
|
|
1 CONTINUE
|
|
IF(N0.EQ.3)THEN
|
|
XLB(3)=XLAMBDA
|
|
XLB(4)=XLB(3)*(XLB(3)/AMC)**(2.D0/25.D0)
|
|
. *(2.D0*DLOG(AMC/XLB(3)))**(-107.D0/1875.D0)
|
|
XLB(4)=XITER_HDEC(AMC,XLB(3),3,XLB(4),4,ACC)
|
|
XLB(5)=XLB(4)*(XLB(4)/AMB)**(2.D0/23.D0)
|
|
. *(2.D0*DLOG(AMB/XLB(4)))**(-963.D0/13225.D0)
|
|
XLB(5)=XITER_HDEC(AMB,XLB(4),4,XLB(5),5,ACC)
|
|
XLB(6)=XLB(5)*(XLB(5)/AMT)**(2.D0/21.D0)
|
|
. *(2.D0*DLOG(AMT/XLB(5)))**(-321.D0/3381.D0)
|
|
XLB(6)=XITER_HDEC(AMT,XLB(5),5,XLB(6),6,ACC)
|
|
ELSEIF(N0.EQ.4)THEN
|
|
XLB(4)=XLAMBDA
|
|
XLB(5)=XLB(4)*(XLB(4)/AMB)**(2.D0/23.D0)
|
|
. *(2.D0*DLOG(AMB/XLB(4)))**(-963.D0/13225.D0)
|
|
XLB(5)=XITER_HDEC(AMB,XLB(4),4,XLB(5),5,ACC)
|
|
XLB(3)=XLB(4)*(XLB(4)/AMC)**(-2.D0/27.D0)
|
|
. *(2.D0*DLOG(AMC/XLB(4)))**(107.D0/2025.D0)
|
|
XLB(3)=XITER_HDEC(AMC,XLB(4),4,XLB(3),3,ACC)
|
|
XLB(6)=XLB(5)*(XLB(5)/AMT)**(2.D0/21.D0)
|
|
. *(2.D0*DLOG(AMT/XLB(5)))**(-321.D0/3381.D0)
|
|
XLB(6)=XITER_HDEC(AMT,XLB(5),5,XLB(6),6,ACC)
|
|
ELSEIF(N0.EQ.5)THEN
|
|
XLB(5)=XLAMBDA
|
|
XLB(4)=XLB(5)*(XLB(5)/AMB)**(-2.D0/25.D0)
|
|
. *(2.D0*DLOG(AMB/XLB(5)))**(963.D0/14375.D0)
|
|
XLB(4)=XITER_HDEC(AMB,XLB(5),5,XLB(4),4,ACC)
|
|
XLB(3)=XLB(4)*(XLB(4)/AMC)**(-2.D0/27.D0)
|
|
. *(2.D0*DLOG(AMC/XLB(4)))**(107.D0/2025.D0)
|
|
XLB(3)=XITER_HDEC(AMC,XLB(4),4,XLB(3),3,ACC)
|
|
XLB(6)=XLB(5)*(XLB(5)/AMT)**(2.D0/21.D0)
|
|
. *(2.D0*DLOG(AMT/XLB(5)))**(-321.D0/3381.D0)
|
|
XLB(6)=XITER_HDEC(AMT,XLB(5),5,XLB(6),6,ACC)
|
|
ELSEIF(N0.EQ.6)THEN
|
|
XLB(6)=XLAMBDA
|
|
XLB(5)=XLB(6)*(XLB(6)/AMT)**(-2.D0/23.D0)
|
|
. *(2.D0*DLOG(AMT/XLB(6)))**(321.D0/3703.D0)
|
|
XLB(5)=XITER_HDEC(AMT,XLB(6),6,XLB(5),5,ACC)
|
|
XLB(4)=XLB(5)*(XLB(5)/AMB)**(-2.D0/25.D0)
|
|
. *(2.D0*DLOG(AMB/XLB(5)))**(963.D0/14375.D0)
|
|
XLB(4)=XITER_HDEC(AMB,XLB(5),5,XLB(4),4,ACC)
|
|
XLB(3)=XLB(4)*(XLB(4)/AMC)**(-2.D0/27.D0)
|
|
. *(2.D0*DLOG(AMC/XLB(4)))**(107.D0/2025.D0)
|
|
XLB(3)=XITER_HDEC(AMC,XLB(4),4,XLB(3),3,ACC)
|
|
ENDIF
|
|
DO 2 I=3,6
|
|
XLB2(I)=XLB(I)
|
|
2 CONTINUE
|
|
IF(N0.EQ.3)THEN
|
|
XLB(3)=XLAMBDA
|
|
XLB(4)=XLB(3)*(XLB(3)/AMC)**(2.D0/25.D0)
|
|
. *(2.D0*DLOG(AMC/XLB(3)))**(-107.D0/1875.D0)
|
|
XLB(4)=XITER3_HDEC(AMC,XLB(3),3,XLB(4),4,ACC)
|
|
XLB(5)=XLB(4)*(XLB(4)/AMB)**(2.D0/23.D0)
|
|
. *(2.D0*DLOG(AMB/XLB(4)))**(-963.D0/13225.D0)
|
|
XLB(5)=XITER3_HDEC(AMB,XLB(4),4,XLB(5),5,ACC)
|
|
XLB(6)=XLB(5)*(XLB(5)/AMT)**(2.D0/21.D0)
|
|
. *(2.D0*DLOG(AMT/XLB(5)))**(-321.D0/3381.D0)
|
|
XLB(6)=XITER3_HDEC(AMT,XLB(5),5,XLB(6),6,ACC)
|
|
ELSEIF(N0.EQ.4)THEN
|
|
XLB(4)=XLAMBDA
|
|
XLB(5)=XLB(4)*(XLB(4)/AMB)**(2.D0/23.D0)
|
|
. *(2.D0*DLOG(AMB/XLB(4)))**(-963.D0/13225.D0)
|
|
XLB(5)=XITER3_HDEC(AMB,XLB(4),4,XLB(5),5,ACC)
|
|
XLB(3)=XLB(4)*(XLB(4)/AMC)**(-2.D0/27.D0)
|
|
. *(2.D0*DLOG(AMC/XLB(4)))**(107.D0/2025.D0)
|
|
XLB(3)=XITER3_HDEC(AMC,XLB(4),4,XLB(3),3,ACC)
|
|
XLB(6)=XLB(5)*(XLB(5)/AMT)**(2.D0/21.D0)
|
|
. *(2.D0*DLOG(AMT/XLB(5)))**(-321.D0/3381.D0)
|
|
XLB(6)=XITER3_HDEC(AMT,XLB(5),5,XLB(6),6,ACC)
|
|
ELSEIF(N0.EQ.5)THEN
|
|
XLB(5)=XLAMBDA
|
|
XLB(4)=XLB(5)*(XLB(5)/AMB)**(-2.D0/25.D0)
|
|
. *(2.D0*DLOG(AMB/XLB(5)))**(963.D0/14375.D0)
|
|
XLB(4)=XITER3_HDEC(AMB,XLB(5),5,XLB(4),4,ACC)
|
|
XLB(3)=XLB(4)*(XLB(4)/AMC)**(-2.D0/27.D0)
|
|
. *(2.D0*DLOG(AMC/XLB(4)))**(107.D0/2025.D0)
|
|
XLB(3)=XITER3_HDEC(AMC,XLB(4),4,XLB(3),3,ACC)
|
|
XLB(6)=XLB(5)*(XLB(5)/AMT)**(2.D0/21.D0)
|
|
. *(2.D0*DLOG(AMT/XLB(5)))**(-321.D0/3381.D0)
|
|
XLB(6)=XITER3_HDEC(AMT,XLB(5),5,XLB(6),6,ACC)
|
|
ELSEIF(N0.EQ.6)THEN
|
|
XLB(6)=XLAMBDA
|
|
XLB(5)=XLB(6)*(XLB(6)/AMT)**(-2.D0/23.D0)
|
|
. *(2.D0*DLOG(AMT/XLB(6)))**(321.D0/3703.D0)
|
|
XLB(5)=XITER3_HDEC(AMT,XLB(6),6,XLB(5),5,ACC)
|
|
XLB(4)=XLB(5)*(XLB(5)/AMB)**(-2.D0/25.D0)
|
|
. *(2.D0*DLOG(AMB/XLB(5)))**(963.D0/14375.D0)
|
|
XLB(4)=XITER3_HDEC(AMB,XLB(5),5,XLB(4),4,ACC)
|
|
XLB(3)=XLB(4)*(XLB(4)/AMC)**(-2.D0/27.D0)
|
|
. *(2.D0*DLOG(AMC/XLB(4)))**(107.D0/2025.D0)
|
|
XLB(3)=XITER3_HDEC(AMC,XLB(4),4,XLB(3),3,ACC)
|
|
ENDIF
|
|
DO 3 I=3,6
|
|
XLB3(I)=XLB(I)
|
|
3 CONTINUE
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION XITER_HDEC(Q,XLB1,NF1,XLB,NF2,ACC)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
B0(NF)=33.D0-2.D0*NF
|
|
B1(NF)=6.D0*(153.D0-19.D0*NF)/B0(NF)**2
|
|
ALS2(NF,X,XLB)=12.D0*PI/(B0(NF)*DLOG(X**2/XLB**2))
|
|
. *(1.D0-B1(NF)*DLOG(DLOG(X**2/XLB**2))
|
|
. /DLOG(X**2/XLB**2))
|
|
AA(NF)=12D0*PI/B0(NF)
|
|
BB(NF)=B1(NF)/AA(NF)
|
|
XIT(A,B,X)=A/2.D0*(1D0+DSQRT(1D0-4D0*B*DLOG(X)))
|
|
PI=4.D0*DATAN(1.D0)
|
|
XLB2=XLB
|
|
II=0
|
|
1 II=II+1
|
|
X=DLOG(Q**2/XLB2**2)
|
|
ALP=ALS2(NF1,Q,XLB1)
|
|
A=AA(NF2)/ALP
|
|
B=BB(NF2)*ALP
|
|
XX=XIT(A,B,X)
|
|
XLB2=Q*DEXP(-XX/2.D0)
|
|
Y1=ALS2(NF1,Q,XLB1)
|
|
Y2=ALS2(NF2,Q,XLB2)
|
|
DY=DABS(Y2-Y1)/Y1
|
|
IF(DY.GE.ACC) GOTO 1
|
|
XITER_HDEC=XLB2
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION XITER3_HDEC(Q,XLB1,NF1,XLB,NF2,ACC)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
B0(NF)=33.D0-2.D0*NF
|
|
B1(NF)=6.D0*(153.D0-19.D0*NF)/B0(NF)**2
|
|
B2(NF)=27/2.D0*(2857-5033/9.D0*NF+325/27.D0*NF**2)/B0(NF)**3
|
|
ALS3(NF,X,XLB)=12.D0*PI/(B0(NF)*DLOG(X**2/XLB**2))
|
|
. *(1.D0-B1(NF)*DLOG(DLOG(X**2/XLB**2))
|
|
. /DLOG(X**2/XLB**2)
|
|
. +(B1(NF)**2*(DLOG(DLOG(X**2/XLB**2))**2
|
|
. -DLOG(DLOG(X**2/XLB**2))-1)+B2(NF))
|
|
. /DLOG(X**2/XLB**2)**2)
|
|
AA(NF)=12D0*PI/B0(NF)
|
|
BB(NF)=B1(NF)/AA(NF)
|
|
CC(NF)=B2(NF)/AA(NF)
|
|
XIT(A,B,C,X)=A/2.D0*(1D0+DSQRT(1D0-4D0*B*DLOG(X)
|
|
. *(1-(A*B*(DLOG(X)**2-DLOG(X)-1)+C/B)/X/DLOG(X))))
|
|
PI=4.D0*DATAN(1.D0)
|
|
XLB2=XLB
|
|
II=0
|
|
1 II=II+1
|
|
X=DLOG(Q**2/XLB2**2)
|
|
IF(NF1.LT.NF2)THEN
|
|
DELTA = 7*ALS3(NF1,Q,XLB1)**2/PI**2/24
|
|
ALP=ALS3(NF1,Q,XLB1)*(1+DELTA)
|
|
ELSE
|
|
DELTA = 7*ALS3(NF1,Q,XLB1)**2/PI**2/24
|
|
ALP=ALS3(NF1,Q,XLB1)/(1+DELTA)
|
|
ENDIF
|
|
A=AA(NF2)/ALP
|
|
B=BB(NF2)*ALP
|
|
C=CC(NF2)*ALP
|
|
XX=XIT(A,B,C,X)
|
|
XLB2=Q*DEXP(-XX/2.D0)
|
|
IF(NF1.LT.NF2)THEN
|
|
DELTA = 7*ALS3(NF1,Q,XLB1)**2/PI**2/24
|
|
Y1=ALS3(NF1,Q,XLB1)*(1+DELTA)
|
|
Y2=ALS3(NF2,Q,XLB2)
|
|
ELSE
|
|
DELTA = 7*ALS3(NF1,Q,XLB1)**2/PI**2/24
|
|
Y1=ALS3(NF1,Q,XLB1)/(1+DELTA)
|
|
Y2=ALS3(NF2,Q,XLB2)
|
|
ENDIF
|
|
DY=DABS(Y2-Y1)/Y1
|
|
IF(DY.GE.ACC) GOTO 1
|
|
XITER3_HDEC=XLB2
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION FINT_HDEC(Z,XX,YY)
|
|
C--ONE-DIMENSIONAL CUBIC INTERPOLATION
|
|
C--Z = WANTED POINT
|
|
C--XX = ARRAY OF 4 DISCRETE X-VALUES AROUND Z
|
|
C--YY = ARRAY OF 4 DISCRETE FUNCTION-VALUES AROUND Z
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DIMENSION XX(4),YY(4)
|
|
X = DLOG(Z)
|
|
X0=DLOG(XX(1))
|
|
X1=DLOG(XX(2))
|
|
X2=DLOG(XX(3))
|
|
X3=DLOG(XX(4))
|
|
Y0=DLOG(YY(1))
|
|
Y1=DLOG(YY(2))
|
|
Y2=DLOG(YY(3))
|
|
Y3=DLOG(YY(4))
|
|
A0=(X-X1)*(X-X2)*(X-X3)/(X0-X1)/(X0-X2)/(X0-X3)
|
|
A1=(X-X0)*(X-X2)*(X-X3)/(X1-X0)/(X1-X2)/(X1-X3)
|
|
A2=(X-X0)*(X-X1)*(X-X3)/(X2-X0)/(X2-X1)/(X2-X3)
|
|
A3=(X-X0)*(X-X1)*(X-X2)/(X3-X0)/(X3-X1)/(X3-X2)
|
|
FINT_HDEC=DEXP(A0*Y0+A1*Y1+A2*Y2+A3*Y3)
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION SP_HDEC(X)
|
|
C--REAL DILOGARITHM (SPENCE-FUNCTION)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
COMPLEX*16 CX,LI2_HDEC
|
|
CX = DCMPLX(X,0.D0)
|
|
SP_HDEC = DREAL(LI2_HDEC(CX))
|
|
RETURN
|
|
END
|
|
|
|
COMPLEX*16 FUNCTION LI2_HDEC(X)
|
|
C--COMPLEX DILOGARITHM (SPENCE-FUNCTION)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
COMPLEX*16 X,Y,CLI2_HDEC
|
|
COMMON/CONST_HDEC/ZETA2,ZETA3
|
|
ZERO=1.D-16
|
|
XR=DREAL(X)
|
|
XI=DIMAG(X)
|
|
R2=XR*XR+XI*XI
|
|
LI2_HDEC=0
|
|
IF(R2.LE.ZERO)THEN
|
|
LI2_HDEC=X
|
|
RETURN
|
|
ENDIF
|
|
RR=XR/R2
|
|
IF(R2.EQ.1.D0.AND.XI.EQ.0.D0)THEN
|
|
IF(XR.EQ.1.D0)THEN
|
|
LI2_HDEC=DCMPLX(ZETA2)
|
|
ELSE
|
|
LI2_HDEC=-DCMPLX(ZETA2/2.D0)
|
|
ENDIF
|
|
RETURN
|
|
ELSEIF(R2.GT.1.D0.AND.RR.GT.0.5D0)THEN
|
|
Y=(X-1.D0)/X
|
|
LI2_HDEC=CLI2_HDEC(Y)+ZETA2-CDLOG(X)*CDLOG(1.D0-X)
|
|
. +0.5D0*CDLOG(X)**2
|
|
RETURN
|
|
ELSEIF(R2.GT.1.D0.AND.RR.LE.0.5D0)THEN
|
|
Y=1.D0/X
|
|
LI2_HDEC=-CLI2_HDEC(Y)-ZETA2-0.5D0*CDLOG(-X)**2
|
|
RETURN
|
|
ELSEIF(R2.LE.1.D0.AND.XR.GT.0.5D0)THEN
|
|
Y=1.D0-X
|
|
LI2_HDEC=-CLI2_HDEC(Y)+ZETA2-CDLOG(X)*CDLOG(1.D0-X)
|
|
RETURN
|
|
ELSEIF(R2.LE.1.D0.AND.XR.LE.0.5D0)THEN
|
|
Y=X
|
|
LI2_HDEC=CLI2_HDEC(Y)
|
|
RETURN
|
|
ENDIF
|
|
END
|
|
|
|
COMPLEX*16 FUNCTION CLI2_HDEC(X)
|
|
C--TAYLOR-EXPANSION FOR COMPLEX DILOGARITHM (SPENCE-FUNCTION)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
COMPLEX*16 X,Z
|
|
COMMON/BERNOULLI_HDEC/B2(18),B12(18),B3(18)
|
|
COMMON/POLY_HDEC/NBER
|
|
N=NBER-1
|
|
Z=-CDLOG(1.D0-X)
|
|
CLI2_HDEC=B2(NBER)
|
|
DO 111 I=N,1,-1
|
|
CLI2_HDEC=Z*CLI2_HDEC+B2(I)
|
|
111 CONTINUE
|
|
CLI2_HDEC=Z**2*CLI2_HDEC+Z
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION FACTRL_HDEC(N)
|
|
C--DOUBLE PRECISION VERSION OF FACTORIAL
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
FACTRL_HDEC=1.D0
|
|
IF(N.EQ.0)RETURN
|
|
DO 999 I=1,N
|
|
FACTRL_HDEC=FACTRL_HDEC*DFLOAT(I)
|
|
999 CONTINUE
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE BERNINI_HDEC(N)
|
|
C--INITIALIZATION OF COEFFICIENTS FOR POLYLOGARITHMS
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DIMENSION B(18),PB(19)
|
|
COMMON/BERNOULLI_HDEC/B2(18),B12(18),B3(18)
|
|
COMMON/CONST_HDEC/ZETA2,ZETA3
|
|
COMMON/POLY_HDEC/NBER
|
|
|
|
NBER=N
|
|
PI=4.D0*DATAN(1.D0)
|
|
|
|
B(1)=-1.D0/2.D0
|
|
B(2)=1.D0/6.D0
|
|
B(3)=0.D0
|
|
B(4)=-1.D0/30.D0
|
|
B(5)=0.D0
|
|
B(6)=1.D0/42.D0
|
|
B(7)=0.D0
|
|
B(8)=-1.D0/30.D0
|
|
B(9)=0.D0
|
|
B(10)=5.D0/66.D0
|
|
B(11)=0.D0
|
|
B(12)=-691.D0/2730.D0
|
|
B(13)=0.D0
|
|
B(14)=7.D0/6.D0
|
|
B(15)=0.D0
|
|
B(16)=-3617.D0/510.D0
|
|
B(17)=0.D0
|
|
B(18)=43867.D0/798.D0
|
|
ZETA2=PI**2/6.D0
|
|
ZETA3=1.202056903159594D0
|
|
|
|
DO 995 I=1,18
|
|
B2(I)=B(I)/FACTRL_HDEC(I+1)
|
|
B12(I)=DFLOAT(I+1)/FACTRL_HDEC(I+2)*B(I)/2.D0
|
|
PB(I+1)=B(I)
|
|
B3(I)=0.D0
|
|
995 CONTINUE
|
|
PB(1)=1.D0
|
|
DO 996 I=1,18
|
|
DO 996 J=0,I
|
|
B3(I)=B3(I)+PB(J+1)*PB(I-J+1)/FACTRL_HDEC(I-J)/FACTRL_HDEC(J+1)
|
|
. /DFLOAT(I+1)
|
|
996 CONTINUE
|
|
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION QQINT_HDEC(RAT,H1,H2)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
N1 = 2
|
|
N2 = 4
|
|
c N = 2
|
|
N = 4
|
|
DUM2 = RAT**N1 * H1 + (1-RAT**N1) * H2
|
|
DUM4 = RAT**N2 * H1 + (1-RAT**N2) * H2
|
|
DUM = RAT**N * DUM2 + (1-RAT**N) * DUM4
|
|
c QQINT_HDEC = DUM2
|
|
c QQINT_HDEC = DUM4
|
|
QQINT_HDEC = DUM
|
|
RETURN
|
|
END
|
|
|
|
DOUBLE PRECISION FUNCTION XITLA_HDEC(NO,ALP,ACC,ISC,SCALE)
|
|
C--ITERATION ROUTINE TO DETERMINE IMPROVED LAMBDAS
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
B0(NF)=33.D0-2.D0*NF
|
|
B1(NF)=6.D0*(153.D0-19.D0*NF)/B0(NF)**2
|
|
B2(NF)=27/2.D0*(2857-5033/9.D0*NF+325/27.D0*NF**2)/B0(NF)**3
|
|
ALS2(NF,X,XLB)=12.D0*PI/(B0(NF)*DLOG(X**2/XLB**2))
|
|
. *(1.D0-B1(NF)*DLOG(DLOG(X**2/XLB**2))
|
|
. /DLOG(X**2/XLB**2))
|
|
ALS3(NF,X,XLB)=12.D0*PI/(B0(NF)*DLOG(X**2/XLB**2))
|
|
. *(1.D0-B1(NF)*DLOG(DLOG(X**2/XLB**2))
|
|
. /DLOG(X**2/XLB**2)
|
|
. +(B1(NF)**2*(DLOG(DLOG(X**2/XLB**2))**2
|
|
. -DLOG(DLOG(X**2/XLB**2))-1)+B2(NF))
|
|
. /DLOG(X**2/XLB**2)**2)
|
|
AA(NF)=12D0*PI/B0(NF)
|
|
BB(NF)=B1(NF)/AA(NF)
|
|
CC(NF)=B2(NF)/AA(NF)
|
|
XIT(A,B,X)=A/2.D0*(1D0+DSQRT(1D0-4D0*B*DLOG(X)))
|
|
XIT3(A,B,C,X)=A/2.D0*(1D0+DSQRT(1D0-4D0*B*DLOG(X)
|
|
. *(1-(A*B*(DLOG(X)**2-DLOG(X)-1)+C/B)/X/DLOG(X))))
|
|
PI=4.D0*DATAN(1.D0)
|
|
NF=5
|
|
IF(ISC.EQ.0)THEN
|
|
Q=AMZ
|
|
ELSE
|
|
Q=SCALE
|
|
ENDIF
|
|
XLB=Q*DEXP(-AA(NF)/ALP/2.D0)
|
|
IF(NO.EQ.1)GOTO 111
|
|
II=0
|
|
1 II=II+1
|
|
X=DLOG(Q**2/XLB**2)
|
|
A=AA(NF)/ALP
|
|
B=BB(NF)*ALP
|
|
C=CC(NF)*ALP
|
|
IF(NO.EQ.2)THEN
|
|
XX=XIT(A,B,X)
|
|
ELSE
|
|
XX=XIT3(A,B,C,X)
|
|
ENDIF
|
|
XLB=Q*DEXP(-XX/2.D0)
|
|
Y1=ALP
|
|
IF(NO.EQ.2)THEN
|
|
Y2=ALS2(NF,Q,XLB)
|
|
ELSE
|
|
Y2=ALS3(NF,Q,XLB)
|
|
ENDIF
|
|
DY=DABS(Y2-Y1)/Y1
|
|
IF(DY.GE.ACC) GOTO 1
|
|
111 XITLA_HDEC=XLB
|
|
RETURN
|
|
END
|
|
|
|
C%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
|
|
|
|
DOUBLE PRECISION FUNCTION COFSUSY_HDEC(IHIGGS,AMB,RMB,QQ)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
COMPLEX*16 C03_HDEC
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AMHL,AMHH,AMCH,AMAR
|
|
COMMON/GLUINO_HDEC/AMG,AMSB1,AMSB2,STH0,CTH0,
|
|
. GLBB(2,2),GHBB(2,2),GABB(2,2),
|
|
. AMST1,AMST2,STHT,CTHT,
|
|
. GLTT(2,2),GHTT(2,2),GATT(2,2)
|
|
COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,
|
|
. GHHH,GLLL,GHLL,GLHH,GHAA,GLAA,GLVV,GHVV,
|
|
. GLPM,GHPM,B,A
|
|
COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
|
|
COMMON/TRILINEAR_HDEC/AT00,AB00,AT1,AB1
|
|
COMMON/SLHA_vals_HDEC/islhai,islhao
|
|
FC1(VI,VJ,AI,AJ,BI,BJ,BIJ,CIJ,AMI,AMJ) = -1.D0/4*
|
|
. ((VI*VJ+AI*AJ)/(AMH**2-4*AMB**2)*(BI+BJ-2*BIJ
|
|
. +(AMI**2+AMJ**2-2*AMG**2-2*AMB**2)*CIJ)
|
|
. + AMG/RMB*(VI*VJ-AI*AJ)*CIJ)
|
|
FCA(VI,VJ,AI,AJ,BI,BJ,BIJ,CIJ,AMI,AMJ) = -1.D0/4*(
|
|
. (VI*AJ+AI*VJ)/AMH**2*(BJ-BI+(AMI**2-AMJ**2)*CIJ)
|
|
. + AMG/RMB*(AI*VJ-VI*AJ)*CIJ
|
|
. )
|
|
FC2(VI,AI,A0I,A0G,BI,BPI,AMI) = -1.D0/8*(
|
|
. (VI**2+AI**2)/2/AMB**2*(A0G-A0I+(AMB**2-AMG**2+AMI**2)*BI
|
|
. +2*(AMB**2+AMG**2-AMI**2)*AMB**2*BPI)
|
|
. + 2*AMG*AMB*(VI**2-AI**2)*BPI
|
|
. )
|
|
FC3(VI,AI,A0I,A0G,BI,AMI,Q2) = 1.D0/8*(
|
|
. (VI**2+AI**2)/2/Q2*(A0I-A0G+(Q2+AMG**2-AMI**2)*BI)
|
|
c . +AMG/RMB*(VI**2-AI**2)*BI
|
|
. )
|
|
FC4(VI,AI,A0I,A0G,BI,BPI,AMI) = 1.D0/8*(
|
|
. (VI**2+AI**2)/2*((A0G-A0I)/(AMG**2-AMI**2)
|
|
. +(AMG**2-AMI**2)*BPI)
|
|
c . +AMG/RMB*(VI**2-AI**2)*BI
|
|
. )
|
|
CF = 4.D0/3.D0
|
|
PI = 4*DATAN(1.D0)
|
|
ADD = AB1
|
|
FAC = 1.D0
|
|
c write(6,*)
|
|
IF(IHIGGS.EQ.1)THEN
|
|
AMH = FAC*AMHL
|
|
GLO = GLB/AMZ**2
|
|
G11 = GLBB(1,1)/GLO
|
|
G12 = GLBB(1,2)/GLO
|
|
G21 = GLBB(2,1)/GLO
|
|
G22 = GLBB(2,2)/GLO
|
|
c write(6,*)'h:'
|
|
ELSEIF(IHIGGS.EQ.2)THEN
|
|
AMH = FAC*AMHH
|
|
GLO = GHB/AMZ**2
|
|
G11 = GHBB(1,1)/GLO
|
|
G12 = GHBB(1,2)/GLO
|
|
G21 = GHBB(2,1)/GLO
|
|
G22 = GHBB(2,2)/GLO
|
|
c write(6,*)'H:'
|
|
ELSEIF(IHIGGS.EQ.3)THEN
|
|
AMH = FAC*AMA
|
|
GLO = GAB/AMZ**2
|
|
G11 = GABB(1,1)/GLO
|
|
G12 = GABB(1,2)/GLO
|
|
G21 = GABB(2,1)/GLO
|
|
G22 = GABB(2,2)/GLO
|
|
c write(6,*)'A:'
|
|
ENDIF
|
|
c write(6,*)'=='
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
sth = sth0
|
|
cth = cth0
|
|
s2t = 2*sth*cth
|
|
c2t = cth**2-sth**2
|
|
goto 9876
|
|
if(islhai.eq.0)then
|
|
c sth = sth0
|
|
c cth = cth0
|
|
c s2t = 2*sth*cth
|
|
c c2t = cth**2-sth**2
|
|
s2t = 2*rmb*(add-amu*dtan(b))/(amsb1**2-amsb2**2)
|
|
c2t = dsqrt(1-s2t**2)
|
|
if(cth0**2-sth0**2.lt.0.d0)c2t = -dsqrt(1-s2t**2)
|
|
thet = datan(s2t/c2t)/2
|
|
if(c2t.lt.0.d0) thet = pi/2+thet
|
|
sth = dsin(thet)
|
|
cth = dcos(thet)
|
|
s2t = 2*sth*cth
|
|
c2t = cth**2-sth**2
|
|
c write(6,*)'s2t: ',rmb,add,amu,dtan(b),amsb1,amsb2
|
|
c write(6,*)'s2t = ',2*sth0*cth0,cth0**2-sth0**2
|
|
c write(6,*)'s2t = ',s2t,c2t
|
|
glrl = rmb/2*(add*glb-amu*ghb)
|
|
glrh = rmb/2*(add*ghb+amu*glb)
|
|
g11l = rmb**2*glb + glrl*s2t
|
|
g22l = rmb**2*glb - glrl*s2t
|
|
g12l = glrl*c2t
|
|
g21l = g12l
|
|
g11h = rmb**2*ghb + glrh*s2t
|
|
g22h = rmb**2*ghb - glrh*s2t
|
|
g12h = glrh*c2t
|
|
g21h = g12h
|
|
g11a = 0
|
|
g22a = 0
|
|
g12a = rmb/2*(add*gab+amu)
|
|
g21a = -g12a
|
|
if(ihiggs.eq.1)then
|
|
g11 = g11l/glo/amz**2
|
|
g12 = g12l/glo/amz**2
|
|
g21 = g21l/glo/amz**2
|
|
g22 = g22l/glo/amz**2
|
|
c write(6,*)'sum: ',(g11-g22)/2*s2t+g12*c2t-glrl/glo/amz**2
|
|
elseif(ihiggs.eq.2)then
|
|
g11 = g11h/glo/amz**2
|
|
g12 = g12h/glo/amz**2
|
|
g21 = g21h/glo/amz**2
|
|
g22 = g22h/glo/amz**2
|
|
c write(6,*)'sum: ',(g11-g22)/2*s2t+g12*c2t-glrh/glo/amz**2
|
|
elseif(ihiggs.eq.3)then
|
|
g11 = g11a/glo/amz**2
|
|
g12 = g12a/glo/amz**2
|
|
g21 = g21a/glo/amz**2
|
|
g22 = g22a/glo/amz**2
|
|
endif
|
|
endif
|
|
9876 continue
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
XMU = AMH
|
|
V1 = CTH-STH
|
|
V2 = -CTH-STH
|
|
A1 = CTH+STH
|
|
A2 = CTH-STH
|
|
CC11 = DREAL(C03_HDEC(AMB**2,AMB**2,AMH**2,AMSB1,AMG,AMSB1))
|
|
CC12 = DREAL(C03_HDEC(AMB**2,AMB**2,AMH**2,AMSB1,AMG,AMSB2))
|
|
CC21 = DREAL(C03_HDEC(AMB**2,AMB**2,AMH**2,AMSB2,AMG,AMSB1))
|
|
CC22 = DREAL(C03_HDEC(AMB**2,AMB**2,AMH**2,AMSB2,AMG,AMSB2))
|
|
BB1 = B02_HDEC(AMB**2,AMG,AMSB1,XMU**2)
|
|
BB2 = B02_HDEC(AMB**2,AMG,AMSB2,XMU**2)
|
|
BB11 = B02_HDEC(AMH**2,AMSB1,AMSB1,XMU**2)
|
|
BB12 = B02_HDEC(AMH**2,AMSB1,AMSB2,XMU**2)
|
|
BB21 = B02_HDEC(AMH**2,AMSB2,AMSB1,XMU**2)
|
|
BB22 = B02_HDEC(AMH**2,AMSB2,AMSB2,XMU**2)
|
|
BP1 = BP02_HDEC(AMB**2,AMG,AMSB1,XMU**2)
|
|
BP2 = BP02_HDEC(AMB**2,AMG,AMSB2,XMU**2)
|
|
AA1 = AMSB1**2*(1+DLOG(XMU**2/AMSB1**2))
|
|
AA2 = AMSB2**2*(1+DLOG(XMU**2/AMSB2**2))
|
|
AAG = AMG**2*(1+DLOG(XMU**2/AMG**2))
|
|
BCT1 = B02_HDEC(QQ**2,AMG,AMSB1,XMU**2)
|
|
BCT2 = B02_HDEC(QQ**2,AMG,AMSB2,XMU**2)
|
|
BPCT1 = BP02_HDEC(QQ**2,AMG,AMSB1,XMU**2)
|
|
BPCT2 = BP02_HDEC(QQ**2,AMG,AMSB2,XMU**2)
|
|
c write(6,*)'A0: m1, m2, mg: ',AA1,AA2,AAG
|
|
c write(6,*)'B0: g1, g2, 11, 12, 21, 22: ',BB1,BB2,BB11,BB12,BB21,
|
|
c . BB22
|
|
c write(6,*)'B''0: g1, g2: ',BP1,BP2
|
|
c write(6,*)'B''0: g1, g2: ',BPCT1,BPCT2
|
|
c write(6,*)'C0: 11, 12, 21, 22: ',CC11,CC12,CC21,CC22
|
|
IF(IHIGGS.EQ.3)THEN
|
|
COF1 = G11*FCA(V1,V1,A1,A1,BB1,BB1,BB11,CC11,AMSB1,AMSB1)
|
|
. + G12*FCA(V1,V2,A1,A2,BB1,BB2,BB12,CC12,AMSB1,AMSB2)
|
|
. + G21*FCA(V2,V1,A2,A1,BB2,BB1,BB21,CC21,AMSB2,AMSB1)
|
|
. + G22*FCA(V2,V2,A2,A2,BB2,BB2,BB22,CC22,AMSB2,AMSB2)
|
|
ELSE
|
|
COF1 = G11*FC1(V1,V1,A1,A1,BB1,BB1,BB11,CC11,AMSB1,AMSB1)
|
|
. + G12*FC1(V1,V2,A1,A2,BB1,BB2,BB12,CC12,AMSB1,AMSB2)
|
|
. + G21*FC1(V2,V1,A2,A1,BB2,BB1,BB21,CC21,AMSB2,AMSB1)
|
|
. + G22*FC1(V2,V2,A2,A2,BB2,BB2,BB22,CC22,AMSB2,AMSB2)
|
|
ENDIF
|
|
COF2 = FC2(V1,A1,AA1,AAG,BB1,BP1,AMSB1)
|
|
. + FC2(V2,A2,AA2,AAG,BB2,BP2,AMSB2)
|
|
IF(QQ.EQ.0.D0)THEN
|
|
COF3 = FC4(V1,A1,AA1,AAG,BCT1,BPCT1,AMSB1)
|
|
. + FC4(V2,A2,AA2,AAG,BCT2,BPCT2,AMSB2)
|
|
. - (AD-AMU*DTAN(B))/2/(AMSB1**2-AMSB2**2)*AMG*(BCT1-BCT2)
|
|
ELSE
|
|
COF3 = FC3(V1,A1,AA1,AAG,BCT1,AMSB1,QQ**2)
|
|
. + FC3(V2,A2,AA2,AAG,BCT2,AMSB2,QQ**2)
|
|
. - (AD-AMU*DTAN(B))/2/(AMSB1**2-AMSB2**2)*AMG*(BCT1-BCT2)
|
|
c write(6,*)'cof: ',AD,AMU,DTAN(B),AMSB1,AMSB2,AMG,BCT1,BCT2
|
|
c write(6,*) (AD-AMU*DTAN(B))/2/(AMSB1**2-AMSB2**2)*AMG*(BCT1-BCT2)
|
|
ENDIF
|
|
COF1 = 2*CF*COF1
|
|
COF2 = 2*CF*COF2
|
|
COF3 = 2*CF*COF3
|
|
COFSUSY_HDEC = COF1 + COF2 + COF3
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c xlogg = dlog(xmu**2/amg**2)
|
|
c xl1g = dlog(amsb1**2/amg**2)
|
|
c xl2g = dlog(amsb2**2/amg**2)
|
|
c tgb = dtan(b)
|
|
c ab = add
|
|
c ff = amg/(amsb1**2-amsb2**2)/(amsb2**2-amg**2)/(amsb1**2-amg**2)
|
|
c . * (amsb1**2*amsb2**2*(xl1g-xl2g)+amsb2**2*amg**2*xl2g
|
|
c . -amsb1**2*amg**2*xl1g)
|
|
c xf2=((((amsb2**4-2*amg**4)*xl2g-2*(amsb2**2-amg**2)**2*xlogg)
|
|
c . *(amsb1**2-amg**2)-(5*amsb1**2*amsb2**2-6*amsb1**2*amg**2
|
|
c . -6*amsb2**2*amg**2+7*amg**4)*(amsb2**2-amg**2))*(amsb1**2
|
|
c . -amg**2)+(amsb1**4-2*amg**4)*(amsb2**2-amg**2)**2*xl1g)
|
|
c . /(4*(amsb1**2-amg**2)**2*(amsb2**2-amg**2)**2)
|
|
c xf3=(((5*amsb1**2*amsb2**2-6*amsb1**2*amg**2-6*amsb2**2*amg**2
|
|
c . +7*amg**4+2*(amsb1**2-amg**2)*(amsb2**2-amg**2)*xlogg)
|
|
c . *(amsb1**2-amsb2**2)*(amsb2**2-amg**2)-(amsb1**2*amsb2**2**2
|
|
c . -2*amsb1**2*amg**4-amsb2**6-4*amsb2**2**2*amg*amu*tgb
|
|
c . +4*amsb2**2*amg*amg**2*amu*tgb+2*amsb2**2*amg**4)*(amsb1**2-
|
|
c . amg**2)*xl2g-4*((amsb1**2-amg**2)*xl2g*amsb2**2-(amsb2**2-amg**2)
|
|
c . *xl1g*amsb1**2)*(amsb2**2-amg**2)*ab*amg)*(amsb1**2-amg**2)
|
|
c . +((2*(2*amg*amu*tgb+amg**2)*amg**2-amsb1**4)*amsb1**2
|
|
c . -2*amsb2**2*amg**4+(amsb2**2-4*amg*amu*tgb)*amsb1**4)
|
|
c . *(amsb2**2-amg**2)**2*xl1g)/(4*(amsb1**2-amsb2**2)*(
|
|
c . amsb1**2-amg**2)**2*(amsb2**2-amg**2)**2)
|
|
c xf2 = (xf2-0.60d0)*cf
|
|
c xf3 = (xf3+0.60d0)*cf
|
|
c if(ihiggs.eq.1)then
|
|
c x1 = -add+ghb/glb*amu
|
|
c x2 = add-amu*dtan(b)
|
|
c elseif(ihiggs.eq.2)then
|
|
c x1 = -add-glb/ghb*amu
|
|
c x2 = add-amu*dtan(b)
|
|
c else
|
|
c x1 = -add-amu/dtan(b)
|
|
c x2 = add-amu*dtan(b)
|
|
c endif
|
|
c x1 = x1*ff*cf
|
|
c x2 = x2*ff*cf
|
|
c write(6,*)'cofsusy: ',COF1,COF2+COF3,COF2,COF3
|
|
c write(6,*)'approx: ',x1,x2,xf2,xf3
|
|
c write(6,*)'approx: ',x1,xf2+xf3,xf2,xf3
|
|
c write(6,*)
|
|
c COFSUSY_HDEC = COF2 + COF3
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c s2th0 = 2*rmb*(au-amu*dtan(b))/(amsb1**2-amsb2**2)
|
|
c s2th1 = 2*sth*cth
|
|
c s2th2 = 2*rmb*(-amu*dtan(b))/(amsb1**2-amsb2**2)
|
|
c write(6,*)
|
|
c write(6,*)'s2th: ',s2th0,s2th1,s2th2
|
|
c write(6,*)'s2th: ',rmb,au,amu,dtan(b),amsb1,amsb2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)
|
|
c write(6,*)'SUSY-QCD: ',AMH,cof1,cof2,cof3,COFSUSY_HDEC
|
|
c write(6,*)'SUSY-QCD: ',COFSUSY_HDEC
|
|
c write(1,*)'SUSY-QCD: ',
|
|
c . 2*CF*FC3(V1,A1,AA1,AAG,BCT1,AMSB1,QQ**2)
|
|
c write(1,*)'SUSY-QCD: ',
|
|
c . 2*CF*FC3(V2,A2,AA2,AAG,BCT2,AMSB2,QQ**2)
|
|
c write(1,*)'SUSY-QCD: ',
|
|
c . V1**2-A1**2,V2**2-A2**2,4*STH*CTH
|
|
c . ,4*RMB*(AD-AMU*DTAN(B))/(AMSB1**2-AMSB2**2),AD,AMU,DTAN(B)
|
|
c write(1,*)'SUSY-QCD: ',
|
|
c . -1.D0/4*2*CF*G11*
|
|
c . (V1*V1+A1*A1)/(AMH**2-4*AMB**2)*(BB1+BB1-2*BB11
|
|
c . +(AMSB1**2+AMSB1**2-2*AMG**2-2*AMB**2)*CC11)
|
|
c write(1,*)'SUSY-QCD: ',
|
|
c . -1.D0/4*2*CF*G11*
|
|
c . AMG/RMB*(V1*V1-A1*A1)*CC11
|
|
c write(1,*)'SUSY-QCD: ',
|
|
c . -1.D0/4*2*CF*G12*
|
|
c . (V1*V2+A1*A2)/(AMH**2-4*AMB**2)*(BB1+BB2-2*BB12
|
|
c . +(AMSB1**2+AMSB2**2-2*AMG**2-2*AMB**2)*CC12)
|
|
c write(1,*)'SUSY-QCD: ',
|
|
c . -1.D0/4*2*CF*G12*
|
|
c . AMG/RMB*(V1*V2-A1*A2)*CC12
|
|
c XC12 = DREAL(C03_HDEC(0.D0,0.D0,AMH**2,AMSB1,AMG,AMSB2))
|
|
c ZC12 = DREAL(C03_HDEC(0.D0,0.D0,100.D0,AMSB1,AMG,AMSB2))
|
|
c YC12 = DREAL(C03_HDEC(100.D0,100.D0,AMH**2,AMSB1,AMG,AMSB2))
|
|
c ZC12 = DREAL(C03_HDEC(2500.D0,2500.D0,AMH**2,AMSB1,AMG,AMSB2))
|
|
c write(1,*)'SUSY-QCD: ',CC12
|
|
c write(1,*)'SUSY-QCD: ',XC12
|
|
c write(1,*)'SUSY-QCD: ',YC12
|
|
c write(1,*)'SUSY-QCD: ',ZC12
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)
|
|
c write(6,*)AMSB1,AMSB2,G11,G12,G22
|
|
c write(6,*)
|
|
c write(6,*)2*CF*G11*FC1(V1,V1,A1,A1,BB1,BB1,BB11,CC11,AMSB1,AMSB1)
|
|
c . , 2*CF*G12*FC1(V1,V2,A1,A2,BB1,BB2,BB12,CC12,AMSB1,AMSB2)
|
|
c . , 2*CF*G21*FC1(V2,V1,A2,A1,BB2,BB1,BB21,CC21,AMSB2,AMSB1)
|
|
c . , 2*CF*G22*FC1(V2,V2,A2,A2,BB2,BB2,BB22,CC22,AMSB2,AMSB2)
|
|
c write(6,*)FC1(V1,V1,A1,A1,BB1,BB1,BB11,CC11,AMSB1,AMSB1)
|
|
c . , FC1(V1,V2,A1,A2,BB1,BB2,BB12,CC12,AMSB1,AMSB2)
|
|
c . , FC1(V2,V1,A2,A1,BB2,BB1,BB21,CC21,AMSB2,AMSB1)
|
|
c . , FC1(V2,V2,A2,A2,BB2,BB2,BB22,CC22,AMSB2,AMSB2)
|
|
c write(6,*)
|
|
c write(6,*)2*CF*G11*FC1(V1,V1,A1,A1,BB1,BB1,0.D0,0.D0,AMSB1,AMSB1),
|
|
c . 2*CF*G11*FC1(V1,V1,A1,A1,0.D0,0.D0,BB11,0.D0,AMSB1,AMSB1),
|
|
c . 2*CF*G11*FC1(V1,V1,A1,A1,0.D0,0.D0,0.D0,CC11,AMSB1,AMSB1),
|
|
c . -2*CF*G11*(V1*V1+A1*A1)/(AMH**2-4*AMB**2)*
|
|
c . (AMSB1**2+AMSB1**2-2*AMG**2-2*AMB**2)*CC11/4,
|
|
c . -2*CF*G11*AMG/RMB*(V1*V1-A1*A1)*CC11/4,
|
|
c . RMB,AMB,(V1*V1-A1*A1),(V1*V1+A1*A1),V1,A1
|
|
c FC1(VI,VJ,AI,AJ,BI,BJ,BIJ,CIJ,AMI,AMJ) = -1.D0/4*
|
|
c . ((VI*VJ+AI*AJ)/(AMH**2-4*AMB**2)*(BI+BJ-2*BIJ
|
|
c . +(AMI**2+AMJ**2-2*AMG**2-2*AMB**2)*CIJ)
|
|
c . + AMG/RMB*(VI*VJ-AI*AJ)*CIJ)
|
|
c write(6,*)
|
|
RETURN
|
|
END
|
|
|
|
C%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
|
|
|
|
SUBROUTINE BOTSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,SCALE,IL)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
ICASE = 0
|
|
CALL DMBAPP_HDEC(ICASE,DGLB,DGHB,DGAB,SCALE,IL)
|
|
XGLB = GLB*(1+DGLB)
|
|
XGHB = GHB*(1+DGHB)
|
|
XGAB = GAB*(1+DGAB)
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE DMBAPP_HDEC(ICASE,DGLB,DGHB,DGAB,SCALE,IL)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DIMENSION AMCHAR(2),AMNEUT(4),XMNEUT(4),
|
|
. XMST(2),XMSB(2),AMSL(2),
|
|
. AMSU(2),AMSD(2),AMSE(2),AMSN(2),AMSN1(2)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AMHL,AMHH,AMCH,AMAR
|
|
COMMON/GLUINO_HDEC/AMG,AMSB1,AMSB2,STH,CTH,
|
|
. GLBB(2,2),GHBB(2,2),GABB(2,2),
|
|
. AMST1,AMST2,STHT,CTHT,
|
|
. GLTT(2,2),GHTT(2,2),GATT(2,2)
|
|
COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,
|
|
. GHHH,GLLL,GHLL,GLHH,GHAA,GLAA,GLVV,GHVV,
|
|
. GLPM,GHPM,B,A
|
|
COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
|
|
COMMON/SMASS_HDEC/AMNEUT,XMNEUT,AMCHAR,XMST,XMSB,AMSL,
|
|
. AMSU,AMSD,AMSE,AMSN,AMSN1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
COMMON/DAVID/QSUSY1,QSUSY2,LOOP
|
|
COMMON/ALSLAM_HDEC/XLB1(6),XLB2(6),XLB3(6)
|
|
COMMON/TRILINEAR_HDEC/AT00,AB00,AT1,AB1
|
|
COMMON/M1_HDEC/am10,igut
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
DELTA(AM1,AM2) = (DABS(AM1)-DABS(AM2))/(DABS(AM1)+DABS(AM2))
|
|
PI = 4*DATAN(1.D0)
|
|
V = 1/DSQRT(2*DSQRT(2D0)*GF)
|
|
TANB = DTAN(B)
|
|
TANA = DTAN(A)
|
|
SB = TANB/DSQRT(1+TANB**2)
|
|
c AT = AU
|
|
c AB = AD
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
SCALELW = QSUSY2*(AMST1+AMST2+DABS(AMU))/3
|
|
SCALQCD = QSUSY1*(AMSB1+AMSB2+DABS(AMG))/3
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
DUMMY = SQSUSY_HDEC(1,1,1,1,SCALQCD,0,1)
|
|
c AT = AT00
|
|
c AB = AB00
|
|
AT = AT1
|
|
AB = AB1
|
|
RMTOP = RUNM_HDEC(SCALELW,6,0)
|
|
HT = RMTOP/V/SB
|
|
STOP1 = AMST1
|
|
STOP2 = AMST2
|
|
SBOT1 = AMSB1
|
|
SBOT2 = AMSB2
|
|
CW = AMW**2/AMZ**2
|
|
SW = 1-CW
|
|
AL2 = (2*AMW/V/DSQRT(2D0))**2/4/PI
|
|
AL1 = AL2*SW/CW
|
|
if(igut.ne.0)then
|
|
AM1=5.D0/3.D0*SW/CW*AM2
|
|
else
|
|
AM1=AM10
|
|
endif
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
SCALELW1 = QSUSY2*(AMSB1+AMSB2+DABS(AM1)+DABS(AMU))/4
|
|
SCALELW21 = QSUSY2*(AMSB1+AMSB2+DABS(AM2)+DABS(AMU))/4
|
|
SCALELW22 = QSUSY2*(AMST1+AMST2+DABS(AM2)+DABS(AMU))/4
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
FELW = 1
|
|
FELW1 = 1
|
|
FELW21 = 1
|
|
FELW22 = 1
|
|
FQCD = 1
|
|
IF(IL.EQ.2)THEN
|
|
c--alpha_1
|
|
ASH = ALPHAS_HDEC(SCALELW1,3)
|
|
CELW1 = FAL1_HDEC(AM1,AMU,AMG,SBOT1,SBOT2,STH,CTH)
|
|
FELW1 = 1+ASH/PI*CELW1
|
|
c--alpha_2
|
|
ASH1 = ALPHAS_HDEC(SCALELW21,3)
|
|
ASH2 = ALPHAS_HDEC(SCALELW22,3)
|
|
IC = 1
|
|
CELW21 = FAL2_HDEC(AM2,AMU,AMG,SBOT1,SBOT2,STH,CTH,
|
|
. STOP1,STOP2,STHT,CTHT,AMT,IC)
|
|
IC = 2
|
|
CELW22 = FAL2_HDEC(AM2,AMU,AMG,SBOT1,SBOT2,STH,CTH,
|
|
. STOP1,STOP2,STHT,CTHT,AMT,IC)
|
|
IC = 0
|
|
FELW21 = 1+ASH1/PI*CELW21
|
|
FELW22 = 1+ASH2/PI*CELW22
|
|
c--alpha_t
|
|
ASH = ALPHAS_HDEC(SCALELW,3)
|
|
CELW = FELW_HDEC(SCALELW,AMU,AMG,SBOT1,SBOT2,STOP1,STOP2,AMT)
|
|
CUT = 0.01D0
|
|
IF(DABS(DELTA(STOP1,STOP2)).LT.CUT.OR.
|
|
. DABS(DELTA(STOP1,AMG)).LT.CUT.OR.
|
|
. DABS(DELTA(STOP2,AMG)).LT.CUT.OR.
|
|
. DABS(DELTA(SBOT1,SBOT2)).LT.CUT.OR.
|
|
. DABS(DELTA(SBOT1,AMG)).LT.CUT.OR.
|
|
. DABS(DELTA(SBOT2,AMG)).LT.CUT)THEN
|
|
DEL = 2*CUT
|
|
IF(STOP1.LE.AMG)THEN
|
|
IF(STOP2.LE.AMG)THEN
|
|
ST1 = STOP1*(1-2*DEL)
|
|
ST2 = STOP2*(1-DEL)
|
|
ELSE
|
|
ST1 = STOP1*(1-DEL)
|
|
ST2 = STOP2*(1+DEL)
|
|
ENDIF
|
|
ELSE
|
|
ST1 = STOP1*(1+DEL)
|
|
ST2 = STOP2*(1+2*DEL)
|
|
ENDIF
|
|
IF(SBOT1.LE.AMG)THEN
|
|
IF(SBOT2.LE.AMG)THEN
|
|
SB1 = SBOT1*(1-2*DEL)
|
|
SB2 = SBOT2*(1-DEL)
|
|
ELSE
|
|
SB1 = SBOT1*(1-DEL)
|
|
SB2 = SBOT2*(1+DEL)
|
|
ENDIF
|
|
ELSE
|
|
SB1 = SBOT1*(1+DEL)
|
|
SB2 = SBOT2*(1+2*DEL)
|
|
ENDIF
|
|
C1 = FELW_HDEC(SCALELW,AMU,AMG,SB1,SB2,ST1,ST2,AMT)
|
|
DEL = CUT
|
|
IF(STOP1.LE.AMG)THEN
|
|
IF(STOP2.LE.AMG)THEN
|
|
ST1 = STOP1*(1-2*DEL)
|
|
ST2 = STOP2*(1-DEL)
|
|
ELSE
|
|
ST1 = STOP1*(1-DEL)
|
|
ST2 = STOP2*(1+DEL)
|
|
ENDIF
|
|
ELSE
|
|
ST1 = STOP1*(1+DEL)
|
|
ST2 = STOP2*(1+2*DEL)
|
|
ENDIF
|
|
IF(SBOT1.LE.AMG)THEN
|
|
IF(SBOT2.LE.AMG)THEN
|
|
SB1 = SBOT1*(1-2*DEL)
|
|
SB2 = SBOT2*(1-DEL)
|
|
ELSE
|
|
SB1 = SBOT1*(1-DEL)
|
|
SB2 = SBOT2*(1+DEL)
|
|
ENDIF
|
|
ELSE
|
|
SB1 = SBOT1*(1+DEL)
|
|
SB2 = SBOT2*(1+2*DEL)
|
|
ENDIF
|
|
C2 = FELW_HDEC(SCALELW,AMU,AMG,SB1,SB2,ST1,ST2,AMT)
|
|
CELW = C2 + (C2-C1)
|
|
c write(6,*)'elw: ',c1,c2,celw
|
|
ENDIF
|
|
FELW = 1+ASH/PI*CELW
|
|
c--alpha_s
|
|
ASH = ALPHAS_HDEC(SCALQCD,3)
|
|
XXT = AU - AMU/TANB
|
|
CQCD = FQCD_HDEC(SCALQCD,AMT,AMG,SBOT1,SBOT2,STOP1,STOP2,
|
|
. AMSU(1),AMSU(2),AMSD(1),AMSD(2),XXT)
|
|
CUT = 0.01D0
|
|
IF(DABS(DELTA(STOP1,STOP2)).LT.CUT.OR.
|
|
. DABS(DELTA(STOP1,AMG)).LT.CUT.OR.
|
|
. DABS(DELTA(STOP2,AMG)).LT.CUT.OR.
|
|
. DABS(DELTA(SBOT1,SBOT2)).LT.CUT.OR.
|
|
. DABS(DELTA(SBOT1,AMG)).LT.CUT.OR.
|
|
. DABS(DELTA(SBOT2,AMG)).LT.CUT)THEN
|
|
DEL = 2*CUT
|
|
IF(STOP1.LE.AMG)THEN
|
|
IF(STOP2.LE.AMG)THEN
|
|
ST1 = STOP1*(1-2*DEL)
|
|
ST2 = STOP2*(1-DEL)
|
|
ELSE
|
|
ST1 = STOP1*(1-DEL)
|
|
ST2 = STOP2*(1+DEL)
|
|
ENDIF
|
|
ELSE
|
|
ST1 = STOP1*(1+DEL)
|
|
ST2 = STOP2*(1+2*DEL)
|
|
ENDIF
|
|
IF(SBOT1.LE.AMG)THEN
|
|
IF(SBOT2.LE.AMG)THEN
|
|
SB1 = SBOT1*(1-2*DEL)
|
|
SB2 = SBOT2*(1-DEL)
|
|
ELSE
|
|
SB1 = SBOT1*(1-DEL)
|
|
SB2 = SBOT2*(1+DEL)
|
|
ENDIF
|
|
ELSE
|
|
SB1 = SBOT1*(1+DEL)
|
|
SB2 = SBOT2*(1+2*DEL)
|
|
ENDIF
|
|
C1 = FQCD_HDEC(SCALQCD,AMT,AMG,SB1,SB2,ST1,ST2,
|
|
. AMSU(1),AMSU(2),AMSD(1),AMSD(2),XXT)
|
|
DEL = CUT
|
|
IF(STOP1.LE.AMG)THEN
|
|
IF(STOP2.LE.AMG)THEN
|
|
ST1 = STOP1*(1-2*DEL)
|
|
ST2 = STOP2*(1-DEL)
|
|
ELSE
|
|
ST1 = STOP1*(1-DEL)
|
|
ST2 = STOP2*(1+DEL)
|
|
ENDIF
|
|
ELSE
|
|
ST1 = STOP1*(1+DEL)
|
|
ST2 = STOP2*(1+2*DEL)
|
|
ENDIF
|
|
IF(SBOT1.LE.AMG)THEN
|
|
IF(SBOT2.LE.AMG)THEN
|
|
SB1 = SBOT1*(1-2*DEL)
|
|
SB2 = SBOT2*(1-DEL)
|
|
ELSE
|
|
SB1 = SBOT1*(1-DEL)
|
|
SB2 = SBOT2*(1+DEL)
|
|
ENDIF
|
|
ELSE
|
|
SB1 = SBOT1*(1+DEL)
|
|
SB2 = SBOT2*(1+2*DEL)
|
|
ENDIF
|
|
C2 = FQCD_HDEC(SCALQCD,AMT,AMG,SB1,SB2,ST1,ST2,
|
|
. AMSU(1),AMSU(2),AMSD(1),AMSD(2),XXT)
|
|
CQCD = C2 + (C2-C1)
|
|
c write(6,*)'qcd: ',c1,c2,cqcd
|
|
ENDIF
|
|
FQCD = 1+ASH/PI*CQCD
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c--comparison with luminita
|
|
c xmg = 1000
|
|
c xmsb1 = 600.7326590270438d0
|
|
c xmsb2 = 960.8906796048134d0
|
|
c xlphas = 0.088374016132112168d0
|
|
c xmg = amg
|
|
c xmsb1 = amsb1
|
|
c xmsb2 = amsb2
|
|
c xscalqcd = (xmsb1+xmsb2+xmg)/3
|
|
c xlphas = alphas_hdec(xscalqcd,3)
|
|
c xxt = au - amu/tanb
|
|
c xfac = fqcd_hdec(scalqcd,amt,xmg,xmsb1,xmsb2,stop1,stop2,
|
|
c . amsu(1),amsu(2),amsd(1),amsd(2),xxt)
|
|
c xfac = 1 + xfac*xlphas/pi
|
|
c xdeltamb = 2*xlphas/3/pi*xmg*amu*tanb*t_hdec(xmsb1,xmsb2,xmg)
|
|
c write(6,*)'alpha_s: ',xlphas
|
|
c write(6,*)'scale: ',xscalqcd
|
|
c write(6,*)'gluino: ',xmg
|
|
c write(6,*)'sbottom: ',xmsb1,xmsb2
|
|
c write(6,*)'stop: ',stop1,stop2
|
|
c write(6,*)'sup: ',amsu(1),amsu(2)
|
|
c write(6,*)'sdown: ',amsd(1),amsd(2)
|
|
c write(6,*)'NLO, NNLO: ',xdeltamb,xdeltamb*xfac
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'QCD: ',CQCD,FQCD-1,
|
|
c . 2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)
|
|
c write(6,*)'elw: ',CELW,FELW-1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c Equal masses
|
|
c EP = 1.D-2
|
|
c CA = 3
|
|
c CF = 4/3.D0
|
|
c TR = 1/2.D0
|
|
c NF = 5
|
|
c BETAL = (11*CA-4*TR*NF)/12.D0
|
|
c SB1 = AMG*(1+EP)
|
|
c SB2 = AMG*(1-EP)
|
|
c ST1 = AMG*(1+EP)
|
|
c ST2 = AMG*(1-EP)
|
|
c SU1 = AMG*(1+EP)
|
|
c SU2 = AMG*(1-EP)
|
|
c SD1 = AMG*(1+EP)
|
|
c SD2 = AMG*(1-EP)
|
|
c XMU = AMG
|
|
c SQ1 = AMG
|
|
c XMT = AMT/100
|
|
c XNN = 1/2.D0
|
|
c XN0 = T_HDEC(SB1,SB2,AMG)*AMG**2
|
|
c write(6,*)
|
|
c write(6,*)'Equal masses'
|
|
c write(6,*)'============'
|
|
c write(6,*)'LO = ',XN0
|
|
c write(6,*)' ',XNN,XNN/XN0
|
|
c write(6,*)'CA = ',CA/3+11*CA/12*DLOG(SQ1**2/AMG**2)
|
|
c write(6,*)'CF = ',CF
|
|
c write(6,*)'TR = ',TR*((NF+1)/2.D0 + 1/3.D0*DLOG(AMG**2/XMT**2)
|
|
c . -4*NF/12.D0*DLOG(SQ1**2/AMG**2))
|
|
c write(6,*)
|
|
c XXT = AU - AMU/TANB
|
|
c XQCD = FQCD_HDEC(SQ1,XMT,AMG,SB1,SB2,ST1,ST2,
|
|
c . SU1,SU2,SD1,SD2,XXT)
|
|
c TQ = CA/3 + CF + TR*((NF+1)/2.D0 + 1/3.D0*DLOG(AMG**2/XMT**2))
|
|
c . + BETAL*DLOG(SQ1**2/AMG**2)
|
|
c write(6,*)
|
|
c write(6,*)'QCD: ',XQCD
|
|
c write(6,*)' ',TQ,TQ/XQCD
|
|
c write(6,*)'full: ',CQCD
|
|
c write(6,*)' ',TQ,TQ/CQCD
|
|
c write(6,*)
|
|
c XELW = FELW_HDEC(SQ1,XMU,AMG,SB1,SB2,ST1,ST2,XMT)
|
|
c TE = CF * (7/4.D0 + 3/2.D0*DLOG(SQ1**2/XMT/AMG))
|
|
c write(6,*)'elw: ',XELW
|
|
c write(6,*)' ',TE,TE/XELW
|
|
c write(6,*)'full: ',CELW
|
|
c write(6,*)' ',TE,TE/CELW
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c Large gluino mass
|
|
c FAC = 100
|
|
c CA = 3
|
|
c CF = 4/3.D0
|
|
c TR = 1/2.D0
|
|
c NU = 2
|
|
c ND = 2
|
|
c NF = NU+ND+1
|
|
c BETAL = (11*CA-4*TR*NF)/12.D0
|
|
c XMG = AMG*FAC
|
|
c SB1 = SBOT1
|
|
c SB2 = SBOT2
|
|
c ST1 = STOP1
|
|
c ST2 = STOP2
|
|
c SU1 = AMSU(1)
|
|
c SU2 = AMSU(2)
|
|
c SD1 = AMSD(1)
|
|
c SD2 = AMSD(2)
|
|
c XMU = AMU
|
|
c SQ1 = XMG
|
|
c XMT = AMT
|
|
c ZETA2 = PI**2/6
|
|
c XNN = DLOG(XMG**2/SB2**2)
|
|
c . - SB1**2*DLOG(SB2**2/SB1**2)/(SB2**2-SB1**2)
|
|
c XN0 = T_HDEC(SB1,SB2,XMG)*XMG**2
|
|
c write(6,*)
|
|
c write(6,*)'Large gluino mass'
|
|
c write(6,*)'================='
|
|
c write(6,*)'LO = ',XN0
|
|
c write(6,*)' ',XNN,XNN/XN0
|
|
c write(6,*)'CA = ',4*CA/3+11*CA/12*DLOG(SQ1**2/XMG**2)
|
|
c . + 0*(ZETA2-1)/2/XNN
|
|
c write(6,*)'CF = ',CF*(XNN+5/2.D0 + 0*(1-4*ZETA2)/4/XNN)
|
|
c write(6,*)'TR = ',TR*(-(NF+1) + 1/3.D0*DLOG(XMG**2/XMT**2)
|
|
c . + NU/12.D0*DLOG(XMG**4/SU1**2/SU2**2)
|
|
c . + ND/12.D0*DLOG(XMG**4/SD1**2/SD2**2)
|
|
c . + 1/12.D0*DLOG(XMG**4/SB1**2/SB2**2)
|
|
c . + 1/12.D0*DLOG(XMG**4/ST1**2/ST2**2)
|
|
c . -4*NF/12.D0*DLOG(SQ1**2/XMG**2))
|
|
c write(6,*)
|
|
c XXT = AU - AMU/TANB
|
|
c XQCD = FQCD_HDEC(SQ1,XMT,XMG,SB1,SB2,ST1,ST2,
|
|
c . SU1,SU2,SD1,SD2,XXT)
|
|
c TQ = 4*CA/3 + CF*(XNN+5/2.D0)
|
|
c . + TR*(-(NF+1) + 1/3.D0*DLOG(XMG**2/XMT**2)
|
|
c . + NU/12.D0*DLOG(XMG**4/SU1**2/SU2**2)
|
|
c . + ND/12.D0*DLOG(XMG**4/SD1**2/SD2**2)
|
|
c . + 1/12.D0*DLOG(XMG**4/SB1**2/SB2**2)
|
|
c . + 1/12.D0*DLOG(XMG**4/ST1**2/ST2**2))
|
|
c . + BETAL*DLOG(SQ1**2/XMG**2)
|
|
c write(6,*)
|
|
c write(6,*)'QCD: ',XQCD
|
|
c write(6,*)' ',TQ,TQ/XQCD
|
|
c write(6,*)'full: ',CQCD
|
|
c write(6,*)' ',TQ,TQ/CQCD
|
|
c write(6,*)
|
|
c XELW = FELW_HDEC(SQ1,XMU,XMG,SB1,SB2,ST1,ST2,XMT)
|
|
c TE = CF * (23/8.D0 + 3/2.D0*DLOG(SQ1**2/XMT/XMG))
|
|
c write(6,*)'elw: ',XELW
|
|
c write(6,*)' ',TE,TE/XELW
|
|
c write(6,*)'full: ',CELW
|
|
c write(6,*)' ',TE,TE/CELW
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ENDIF
|
|
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c FQCD = 1
|
|
c FELW = 1
|
|
c FELW21 = 1
|
|
c FELW22 = 1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ASH = ALPHAS_HDEC(SCALQCD,3)
|
|
IF(ICASE.EQ.0)THEN
|
|
DELTAMB = (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD
|
|
. + HT**2/(4*PI)**2*AT*AMU*TANB*T_HDEC(STOP1,STOP2,AMU)*FELW
|
|
. - AL1/12/PI*AM1*AMU*TANB*(T_HDEC(SBOT1,SBOT2,AM1)/3
|
|
. + (CTH**2/2+STH**2)*T_HDEC(SBOT1,AM1,AMU)
|
|
. + (STH**2/2+CTH**2)*T_HDEC(SBOT2,AM1,AMU))*FELW1
|
|
. - AL2/4/PI*AM2*AMU*TANB*((CTHT**2*T_HDEC(STOP1,AM2,AMU)
|
|
. +STHT**2*T_HDEC(STOP2,AM2,AMU))*FELW22
|
|
. +(CTH**2*T_HDEC(SBOT1,AM2,AMU)+STH**2*T_HDEC(SBOT2,AM2,AMU))/2
|
|
. *FELW21)
|
|
. )
|
|
. /(1-2*ASH/3/PI*AMG*AB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD)
|
|
DGLB = -DELTAMB/(1+DELTAMB)*(1+1/TANA/TANB)
|
|
DGHB = -DELTAMB/(1+DELTAMB)*(1-TANA/TANB)
|
|
DGAB = -DELTAMB/(1+DELTAMB)*(1+1/TANB**2)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
DELTAMB0= (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)
|
|
. + HT**2/(4*PI)**2*AT*AMU*TANB*T_HDEC(STOP1,STOP2,AMU)
|
|
. - AL1/12/PI*AM1*AMU*TANB*(T_HDEC(SBOT1,SBOT2,AM1)/3
|
|
. + (CTH**2/2+STH**2)*T_HDEC(SBOT1,AM1,AMU)
|
|
. + (STH**2/2+CTH**2)*T_HDEC(SBOT2,AM1,AMU))
|
|
. - AL2/4/PI*AM2*AMU*TANB*((CTHT**2*T_HDEC(STOP1,AM2,AMU)
|
|
. +STHT**2*T_HDEC(STOP2,AM2,AMU))
|
|
. +(CTH**2*T_HDEC(SBOT1,AM2,AMU)+STH**2*T_HDEC(SBOT2,AM2,AMU))/2
|
|
. )
|
|
. )
|
|
. /(1-2*ASH/3/PI*AMG*AB*T_HDEC(SBOT1,SBOT2,AMG))
|
|
write(6,*)
|
|
write(6,*)'delta_b: LO/NLO ',DELTAMB0,DELTAMB
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'Del_b: ',DELTAMB,
|
|
c . 2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD,
|
|
c . HT**2/(4*PI)**2*AT*AMU*TANB*T_HDEC(STOP1,STOP2,AMU)*FELW,
|
|
c . - AL1/12/PI*AM1*AMU*TANB*(T_HDEC(SBOT1,SBOT2,AM1)/3
|
|
c . + (CTH**2/2+STH**2)*T_HDEC(SBOT1,AM1,AMU)
|
|
c . + (STH**2/2+CTH**2)*T_HDEC(SBOT2,AM1,AMU))*FELW1,
|
|
c . - AL2/4/PI*AM2*AMU*TANB*((CTHT**2*T_HDEC(STOP1,AM2,AMU)
|
|
c . +STHT**2*T_HDEC(STOP2,AM2,AMU))*FELW22
|
|
c . +(CTH**2*T_HDEC(SBOT1,AM2,AMU)+STH**2*T_HDEC(SBOT2,AM2,AMU))/2
|
|
c . *FELW21)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c dmb0 = (2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)
|
|
c . + ht**2/(4*pi)**2*at*amu*tanb*t_hdec(stop1,stop2,amu)
|
|
c . - al1/12/pi*am1*amu*tanb*(t_hdec(sbot1,sbot2,am1)/3
|
|
c . + (cth**2/2+sth**2)*t_hdec(sbot1,am1,amu)
|
|
c . + (sth**2/2+cth**2)*t_hdec(sbot2,am1,amu))
|
|
c . - al2/4/pi*am2*amu*tanb*((ctht**2*t_hdec(stop1,am2,amu)
|
|
c . +stht**2*t_hdec(stop2,am2,amu))
|
|
c . +(cth**2*t_hdec(sbot1,am2,amu)+sth**2*t_hdec(sbot2,am2,amu))/2
|
|
c . ))
|
|
c . /(1-2*ash/3/pi*amg*ab*t_hdec(sbot1,sbot2,amg))
|
|
c dmb1 = (2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)*fqcd
|
|
c . + ht**2/(4*pi)**2*at*amu*tanb*t_hdec(stop1,stop2,amu)*felw
|
|
c . - al1/12/pi*am1*amu*tanb*(t_hdec(sbot1,sbot2,am1)/3
|
|
c . + (cth**2/2+sth**2)*t_hdec(sbot1,am1,amu)
|
|
c . + (sth**2/2+cth**2)*t_hdec(sbot2,am1,amu))*felw1
|
|
c . - al2/4/pi*am2*amu*tanb*((ctht**2*t_hdec(stop1,am2,amu)
|
|
c . +stht**2*t_hdec(stop2,am2,amu))*felw22
|
|
c . +(cth**2*t_hdec(sbot1,am2,amu)+sth**2*t_hdec(sbot2,am2,amu))/2
|
|
c . *felw21))
|
|
c . /(1-2*ash/3/pi*amg*ab*t_hdec(sbot1,sbot2,amg)*fqcd)
|
|
c dmbqcds = 2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)
|
|
c dmbqcdsa = 2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)
|
|
c * /(1-2*ash/3/pi*amg*ab*t_hdec(sbot1,sbot2,amg))
|
|
c dmbqcd1s = 2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)*fqcd
|
|
c dmbqcd1sa = 2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)*fqcd
|
|
c * /(1-2*ash/3/pi*amg*ab*t_hdec(sbot1,sbot2,amg)*fqcd)
|
|
c dmbqcdt = ht**2/(4*pi)**2*at*amu*tanb*t_hdec(stop1,stop2,amu)
|
|
c dmbqcd1t = ht**2/(4*pi)**2*at*amu*tanb*t_hdec(stop1,stop2,amu)
|
|
c . * felw
|
|
c dmbqcd1 = - al1/12/pi*am1*amu*tanb*(t_hdec(sbot1,sbot2,am1)/3
|
|
c . + (cth**2/2+sth**2)*t_hdec(sbot1,am1,amu)
|
|
c . + (sth**2/2+cth**2)*t_hdec(sbot2,am1,amu))
|
|
c dmbqcd11 = -al1/12/pi*am1*amu*tanb*(t_hdec(sbot1,sbot2,am1)/3
|
|
c . + (cth**2/2+sth**2)*t_hdec(sbot1,am1,amu)
|
|
c . + (sth**2/2+cth**2)*t_hdec(sbot2,am1,amu))*felw1
|
|
c dmbqcd2 =-al2/4/pi*am2*amu*tanb*((ctht**2*t_hdec(stop1,am2,amu)
|
|
c . +stht**2*t_hdec(stop2,am2,amu))
|
|
c . +(cth**2*t_hdec(sbot1,am2,amu)+sth**2*t_hdec(sbot2,am2,amu))/2
|
|
c . )
|
|
c dmbqcd21 =-al2/4/pi*am2*amu*tanb*((ctht**2*t_hdec(stop1,am2,amu)
|
|
c . +stht**2*t_hdec(stop2,am2,amu))*felw22
|
|
c . +(cth**2*t_hdec(sbot1,am2,amu)+sth**2*t_hdec(sbot2,am2,amu))/2
|
|
c . *felw21)
|
|
c write(70,'(g15.7,1x,g15.7,1x,g15.7,1x,g15.7)')
|
|
c . tanb,dmb0,dmb1,dmb1/dmb0
|
|
c write(71,'(g15.7,1x,g15.7,1x,g15.7,1x,g15.7)')
|
|
c . tanb,dmbqcds,dmbqcd1s,fqcd
|
|
c write(72,'(g15.7,1x,g15.7,1x,g15.7,1x,g15.7)')
|
|
c . tanb,dmbqcdsa,dmbqcd1sa,fqcd
|
|
c write(73,'(g15.7,1x,g15.7,1x,g15.7,1x,g15.7)')
|
|
c . tanb,dmbqcdt,dmbqcd1t,felw
|
|
c write(74,'(g15.7,1x,g15.7,1x,g15.7,1x,g15.7)')
|
|
c . tanb,dmbqcd1,dmbqcd11,felw1
|
|
c write(75,'(g15.7,1x,g15.7,1x,g15.7,1x,g15.7)')
|
|
c . tanb,dmbqcd2,dmbqcd21,dmbqcd21/dmbqcd2
|
|
c close(70)
|
|
c close(71)
|
|
c close(72)
|
|
c close(73)
|
|
c close(74)
|
|
c close(75)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'TGBET =',tanb
|
|
c write(6,*)'M_SB1 =',sbot1
|
|
c write(6,*)'M_SB2 =',sbot2
|
|
c write(6,*)'SB =',sth
|
|
c write(6,*)'CB =',cth
|
|
c write(6,*)'M_ST1 =',stop1
|
|
c write(6,*)'M_ST2 =',stop2
|
|
c write(6,*)'ST =',stht
|
|
c write(6,*)'CT =',ctht
|
|
c write(6,*)'MG =',amg
|
|
c write(6,*)'M1 =',am1
|
|
c write(6,*)'M2 =',am2
|
|
c write(6,*)'MU =',amu
|
|
c write(6,*)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(1,*)'Delta_b: ',CTH,STH
|
|
c write(1,*)'Delta_b: ',DELTAMB,DGLB,DGHB,DGAB
|
|
c write(1,*)'Delta_b: ',FQCD,FELW,DGLB,DGHB,DGAB
|
|
c write(1,*)'Delta_b: ',DELTAMB,SBOT1,SBOT2,STOP1,STOP2,AMG
|
|
c . ,2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG),FQCD
|
|
c . ,HT**2/(4*PI)**2*AT*AMU*TANB*T_HDEC(STOP1,STOP2,AMU),FELW
|
|
c write(1,*)'Delta_b: ',AT
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c sb1 = sbot1 * (1-4*ash/pi/3)
|
|
c sb2 = sbot2 * (1-4*ash/pi/3)
|
|
c st1 = stop1 * (1-4*ash/pi/3)
|
|
c st2 = stop2 * (1-4*ash/pi/3)
|
|
c atp = at - 4*ash/pi/3*amg*dlog(4.d0)
|
|
c write(6,*)'Approx_b: ',SBOT1,SBOT2,sb1,sb2,
|
|
c . sb1/SBOT1,sb2/SBOT2,T_HDEC(SB1,SB2,AMG)/T_HDEC(SBOT1,SBOT2,AMG)
|
|
c write(6,*)'Approx_t: ',STOP1,STOP2,st1,st2,
|
|
c . st1/STOP1,st2/STOP2,T_HDEC(ST1,ST2,AMU)/T_HDEC(STOP1,STOP2,AMU)
|
|
c write(6,*)'A_t: ',at,atp,atp/at
|
|
c write(6,*)'als: ',ash/pi
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)SBOT1,SBOT2,AMG,AMU,TANB,ASH,
|
|
c . 2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG),
|
|
c . 2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD,
|
|
c . 2*ASH/3/PI*AMG*AMU*TANB,T_HDEC(SBOT1,SBOT2,AMG)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'b: ',QSUSY1,
|
|
c write(51,*)QSUSY1,
|
|
c . (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)
|
|
c . + 0*HT**2/(4*PI)**2*AT*AMU*TANB*T_HDEC(STOP1,STOP2,AMU)
|
|
c . )/(1-2*ASH/3/PI*AMG*AB*T_HDEC(SBOT1,SBOT2,AMG)),
|
|
c . (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD
|
|
c . + 0*HT**2/(4*PI)**2*AT*AMU*TANB*T_HDEC(STOP1,STOP2,AMU)*FELW
|
|
c . )/(1-2*ASH/3/PI*AMG*AB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD)
|
|
c write(52,*)QSUSY1,
|
|
c . (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)
|
|
c . + 0*HT**2/(4*PI)**2*AT*AMU*TANB*T_HDEC(STOP1,STOP2,AMU)),
|
|
c . (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD
|
|
c . + 0*HT**2/(4*PI)**2*AT*AMU*TANB*T_HDEC(STOP1,STOP2,AMU)*FELW)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c sbot1 = 600.733d0
|
|
c sbot2 = 960.891d0
|
|
c amsb1 = sbot1
|
|
c amsb2 = sbot2
|
|
c sc1 = 0.1d0
|
|
c sc2 = 10
|
|
c nsc = 101
|
|
c open(77,file='fort.77')
|
|
c open(78,file='fort.78')
|
|
c do i = 1,nsc
|
|
c scfac = sc1*(sc2/sc1)**((i-1)/(nsc-1.d0))
|
|
c scalelw = scfac*(amst1+amst2+amu)/3
|
|
c scalqcd = scfac*(amsb1+amsb2+amg)/3
|
|
|
|
c ash = alphas_hdec(scalqcd,3)
|
|
c dmbqcd = 2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)
|
|
c * /(1-2*ash/3/pi*amg*ab*t_hdec(sbot1,sbot2,amg))
|
|
c xxt = au - amu/tanb
|
|
c cqcd = fqcd_hdec(scalqcd,amt,amg,sbot1,sbot2,stop1,stop2,
|
|
c . amsu(1),amsu(2),amsd(1),amsd(2),xxt)
|
|
c fqcd = 1+ash/pi*cqcd
|
|
c write(6,*)scfac,scalqcd,ash
|
|
c write(6,*)sbot1,sbot2,stop1,stop2
|
|
c write(6,*)amsu,amsd
|
|
c write(6,*)
|
|
c dmbqcd1 = dmbqcd*fqcd
|
|
c rmtop = runm_hdec(scalelw,6,0)
|
|
c ht = rmtop/v/sb
|
|
c dmbelw = ht**2/(4*pi)**2*at*amu*tanb*t_hdec(stop1,stop2,amu)
|
|
c ash = alphas_hdec(scalelw,3)
|
|
c celw = felw_hdec(scalelw,amu,amg,sbot1,sbot2,stop1,stop2,amt)
|
|
c felw = 1+ash/pi*celw
|
|
c dmbelw1 = dmbelw*felw
|
|
c write(77,*)scfac,dmbqcd,dmbqcd1
|
|
c write(78,*)scfac,dmbelw,dmbelw1
|
|
c enddo
|
|
c close(77)
|
|
c close(78)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ELSE
|
|
ASH = ALPHAS_HDEC(SCALE,3)
|
|
DELTAMB = 2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)
|
|
DGLB = -DELTAMB*(1+1/TANA/TANB)
|
|
DGHB = -DELTAMB*(1-TANA/TANB)
|
|
DGAB = -DELTAMB*(1+1/TANB**2)
|
|
c write(51,*)SCALE,ASH
|
|
c write(6,*)'sub: ',DELTAMB,DGLB,DGHB,DGAB
|
|
c write(6,*)'sub: ',ASH,AMG,AMU,TANB,T_HDEC(SBOT1,SBOT2,AMG)
|
|
c write(6,*)'sub: ',SBOT1,SBOT2,AMG
|
|
ENDIF
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c DGLB = 0
|
|
c DGHB = 0
|
|
c DGAB = 0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'delta_b: ',deltamb, ash
|
|
|
|
RETURN
|
|
END
|
|
|
|
C%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
|
|
|
|
SUBROUTINE STAUSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,SCALE,IL)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
ICASE = 0
|
|
CALL DMTAUAPP_HDEC(ICASE,DGLB,DGHB,DGAB,SCALE,IL)
|
|
XGLB = GLB*(1+DGLB)
|
|
XGHB = GHB*(1+DGHB)
|
|
XGAB = GAB*(1+DGAB)
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE DMTAUAPP_HDEC(ICASE,DGLB,DGHB,DGAB,SCALE,IL)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DIMENSION AMCHAR(2),AMNEUT(4),XMNEUT(4),
|
|
. XMST(2),XMSB(2),AMSL(2),
|
|
. AMSU(2),AMSD(2),AMSE(2),AMSN(2),AMSN1(2)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AMHL,AMHH,AMCH,AMAR
|
|
COMMON/GLUINO_HDEC/AMG,AMSB1,AMSB2,STH0,CTH0,
|
|
. GLBB(2,2),GHBB(2,2),GABB(2,2),
|
|
. AMST1,AMST2,STHT0,CTHT0,
|
|
. GLTT(2,2),GHTT(2,2),GATT(2,2)
|
|
COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,
|
|
. GHHH,GLLL,GHLL,GLHH,GHAA,GLAA,GLVV,GHVV,
|
|
. GLPM,GHPM,B,A
|
|
COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
|
|
COMMON/SMASS_HDEC/AMNEUT,XMNEUT,AMCHAR,XMST,XMSB,AMSL,
|
|
. AMSU,AMSD,AMSE,AMSN,AMSN1
|
|
COMMON/TAUMIX_HDEC/CL,SL
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
COMMON/DAVID/QSUSY1,QSUSY2,LOOP
|
|
COMMON/ALSLAM_HDEC/XLB1(6),XLB2(6),XLB3(6)
|
|
COMMON/M1_HDEC/am10,igut
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
PI = 4*DATAN(1.D0)
|
|
V = 1/DSQRT(2*DSQRT(2D0)*GF)
|
|
TANB = DTAN(B)
|
|
TANA = DTAN(A)
|
|
SB = TANB/DSQRT(1+TANB**2)
|
|
AT = AU
|
|
AB = AD
|
|
IF(IL.EQ.0)THEN
|
|
STAU1 = AMSE(1)
|
|
STAU2 = AMSE(2)
|
|
SNEUT = AMSN1(1)
|
|
CTH = 1
|
|
STH = 0
|
|
ELSE
|
|
STAU1 = AMSL(1)
|
|
STAU2 = AMSL(2)
|
|
SNEUT = AMSN(1)
|
|
CTH = CL
|
|
STH = SL
|
|
ENDIF
|
|
CW = AMW**2/AMZ**2
|
|
SW = 1-CW
|
|
AL2 = (2*AMW/V/DSQRT(2D0))**2/4/PI
|
|
AL1 = AL2*SW/CW
|
|
if(igut.ne.0)then
|
|
AM1=5.D0/3.D0*SW/CW*AM2
|
|
else
|
|
AM1=AM10
|
|
endif
|
|
|
|
IF(ICASE.EQ.0)THEN
|
|
DELTAMB = AL1/4/PI*AM1*AMU*TANB*(T_HDEC(STAU1,STAU2,AM1)
|
|
. + (CTH**2/2-STH**2)*T_HDEC(STAU1,AM1,AMU)
|
|
. + (STH**2/2-CTH**2)*T_HDEC(STAU2,AM1,AMU))
|
|
. - AL2/4/PI*AM2*AMU*TANB*(T_HDEC(SNEUT,AM2,AMU)
|
|
. +(CTH**2*T_HDEC(STAU1,AM2,AMU)+STH**2*T_HDEC(STAU2,AM2,AMU))/2)
|
|
DGLB = -DELTAMB/(1+DELTAMB)*(1+1/TANA/TANB)
|
|
DGHB = -DELTAMB/(1+DELTAMB)*(1-TANA/TANB)
|
|
DGAB = -DELTAMB/(1+DELTAMB)*(1+1/TANB**2)
|
|
c write(6,*)'Delta_tau: ',DELTAMB
|
|
ELSE
|
|
DELTAMB = AL1/4/PI*AM1*AMU*TANB*T_HDEC(STAU1,STAU2,AM1)
|
|
. - AL2/4/PI*AM2*AMU*TANB*T_HDEC(SNEUT,AM2,AMU)
|
|
DGLB = -DELTAMB*(1+1/TANA/TANB)
|
|
DGHB = -DELTAMB*(1-TANA/TANB)
|
|
DGAB = -DELTAMB*(1+1/TANB**2)
|
|
ENDIF
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE STRSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,SCALE,IL)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
ICASE = 0
|
|
CALL DMSAPP_HDEC(ICASE,DGLB,DGHB,DGAB,SCALE,IL)
|
|
XGLB = GLB*(1+DGLB)
|
|
XGHB = GHB*(1+DGHB)
|
|
XGAB = GAB*(1+DGAB)
|
|
c write(1,*)'xgls: ',xglb,glb,dglb
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE DMSAPP_HDEC(ICASE,DGLB,DGHB,DGAB,SCALE,IL)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DIMENSION AMCHAR(2),AMNEUT(4),XMNEUT(4),
|
|
. XMST(2),XMSB(2),AMSL(2),
|
|
. AMSU(2),AMSD(2),AMSE(2),AMSN(2),AMSN1(2)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AMHL,AMHH,AMCH,AMAR
|
|
COMMON/GLUINO_HDEC/AMG,AMSB1,AMSB2,STH0,CTH0,
|
|
. GLBB(2,2),GHBB(2,2),GABB(2,2),
|
|
. AMST1,AMST2,STHT0,CTHT0,
|
|
. GLTT(2,2),GHTT(2,2),GATT(2,2)
|
|
COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,
|
|
. GHHH,GLLL,GHLL,GLHH,GHAA,GLAA,GLVV,GHVV,
|
|
. GLPM,GHPM,B,A
|
|
COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
|
|
COMMON/SMASS_HDEC/AMNEUT,XMNEUT,AMCHAR,XMST,XMSB,AMSL,
|
|
. AMSU,AMSD,AMSE,AMSN,AMSN1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
COMMON/DAVID/QSUSY1,QSUSY2,LOOP
|
|
COMMON/ALSLAM_HDEC/XLB1(6),XLB2(6),XLB3(6)
|
|
COMMON/TRILINEAR_HDEC/AT00,AB00,AT1,AB1
|
|
COMMON/M1_HDEC/am10,igut
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
PI = 4*DATAN(1.D0)
|
|
V = 1/DSQRT(2*DSQRT(2D0)*GF)
|
|
TANB = DTAN(B)
|
|
TANA = DTAN(A)
|
|
SB = TANB/DSQRT(1+TANB**2)
|
|
c AT = AU
|
|
c AB = AD
|
|
SBOT1 = AMSD(1)
|
|
SBOT2 = AMSD(2)
|
|
STOP1 = AMSU(1)
|
|
STOP2 = AMSU(2)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c SBOT1 = 1543.82128907082D0
|
|
c SBOT2 = 1542.83910162862D0
|
|
c STOP1 = 1541.64844566679D0
|
|
c STOP2 = 1542.21598713965D0
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
CTHT = 1
|
|
STHT = 0
|
|
CTH = 1
|
|
STH = 0
|
|
CW = AMW**2/AMZ**2
|
|
SW = 1-CW
|
|
AL2 = (2*AMW/V/DSQRT(2D0))**2/4/PI
|
|
AL1 = AL2*SW/CW
|
|
if(igut.ne.0)then
|
|
AM1=5.D0/3.D0*SW/CW*AM2
|
|
else
|
|
AM1=AM10
|
|
endif
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
SCALELW1 = QSUSY2*(AMSB1+AMSB2+DABS(AM1)+DABS(AMU))/4
|
|
SCALELW21 = QSUSY2*(AMSB1+AMSB2+DABS(AM2)+DABS(AMU))/4
|
|
SCALELW22 = QSUSY2*(AMST1+AMST2+DABS(AM2)+DABS(AMU))/4
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
FELW1 = 1
|
|
FELW21 = 1
|
|
FELW22 = 1
|
|
FQCD = 1
|
|
SCALQCD = QSUSY1*(AMSD(1)+AMSD(2)+DABS(AMG))/3
|
|
DUMMY = SQSUSY_HDEC(1,1,1,1,SCALQCD,0,1)
|
|
c AT = AT00
|
|
c AB = AB00
|
|
AT = AT1
|
|
AB = AB1
|
|
ASH = ALPHAS_HDEC(SCALQCD,3)
|
|
AMTX = 1.D-1
|
|
IF(IL.EQ.2)THEN
|
|
c--alpha_1
|
|
ASH = ALPHAS_HDEC(SCALELW1,3)
|
|
CELW1 = FAL1_HDEC(AM1,AMU,AMG,SBOT1,SBOT2,STH,CTH)
|
|
FELW1 = 1+ASH/PI*CELW1
|
|
c--alpha_2
|
|
ASH1 = ALPHAS_HDEC(SCALELW21,3)
|
|
ASH2 = ALPHAS_HDEC(SCALELW22,3)
|
|
IC = 1
|
|
CELW21 = FAL2_HDEC(AM2,AMU,AMG,SBOT1,SBOT2,STH,CTH,
|
|
. STOP1,STOP2,STHT,CTHT,AMTX,IC)
|
|
IC = 2
|
|
CELW22 = FAL2_HDEC(AM2,AMU,AMG,SBOT1,SBOT2,STH,CTH,
|
|
. STOP1,STOP2,STHT,CTHT,AMTX,IC)
|
|
IC = 0
|
|
FELW21 = 1+ASH1/PI*CELW21
|
|
FELW22 = 1+ASH2/PI*CELW22
|
|
c write(6,*)'alpha_1: ',celw1
|
|
c write(6,*)'alpha_21: ',celw21
|
|
c write(6,*)'alpha_22: ',celw22
|
|
c write(6,*)
|
|
c--alpha_s
|
|
ASH = ALPHAS_HDEC(SCALQCD,3)
|
|
CQCD = FSQCD_HDEC(SCALQCD,AMT,AMG,SBOT1,SBOT2,STOP1,STOP2,
|
|
. AMSU(1),AMSU(2),AMSD(1),AMSD(2))
|
|
FQCD = 1+ASH/PI*CQCD
|
|
ENDIF
|
|
IF(ICASE.EQ.0)THEN
|
|
c DELTAMB = 2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD
|
|
c * /(1-2*ASH/3/PI*AMG*AB*T_HDEC(SBOT1,SBOT2,AMG))
|
|
DELTAMB = (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD
|
|
. - AL1/12/PI*AM1*AMU*TANB*(T_HDEC(SBOT1,SBOT2,AM1)/3
|
|
. + (CTH**2/2+STH**2)*T_HDEC(SBOT1,AM1,AMU)
|
|
. + (STH**2/2+CTH**2)*T_HDEC(SBOT2,AM1,AMU))*FELW1
|
|
. - AL2/4/PI*AM2*AMU*TANB*((CTHT**2*T_HDEC(STOP1,AM2,AMU)
|
|
. +STHT**2*T_HDEC(STOP2,AM2,AMU))*FELW22
|
|
. +(CTH**2*T_HDEC(SBOT1,AM2,AMU)+STH**2*T_HDEC(SBOT2,AM2,AMU))/2
|
|
. *FELW21))
|
|
. /(1-2*ASH/3/PI*AMG*AB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD)
|
|
DGLB = -DELTAMB/(1+DELTAMB)*(1+1/TANA/TANB)
|
|
DGHB = -DELTAMB/(1+DELTAMB)*(1-TANA/TANB)
|
|
DGAB = -DELTAMB/(1+DELTAMB)*(1+1/TANB**2)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'TGBET =',tanb
|
|
c write(6,*)'M_SB1 =',sbot1
|
|
c write(6,*)'M_SB2 =',sbot2
|
|
c write(6,*)'SB =',sth
|
|
c write(6,*)'CB =',cth
|
|
c write(6,*)'M_ST1 =',stop1
|
|
c write(6,*)'M_ST2 =',stop2
|
|
c write(6,*)'ST =',stht
|
|
c write(6,*)'CT =',ctht
|
|
c write(6,*)'MG =',amg
|
|
c write(6,*)'M1 =',am1
|
|
c write(6,*)'M2 =',am2
|
|
c write(6,*)'MU =',amu
|
|
c write(6,*)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(1,*)'Delta_s: ',DELTAMB,DGLB
|
|
c write(1,*)'Delta_s: ',SBOT1,SBOT2,AMG
|
|
c write(1,*)'Delta_s: ',DELTAMB,FQCD,
|
|
c . (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)
|
|
c . - AL1/12/PI*AM1*AMU*TANB*(T_HDEC(SBOT1,SBOT2,AM1)/3
|
|
c . + (CTH**2/2+STH**2)*T_HDEC(SBOT1,AM1,AMU)
|
|
c . + (STH**2/2+CTH**2)*T_HDEC(SBOT2,AM1,AMU))
|
|
c . - AL2/4/PI*AM2*AMU*TANB*(CTHT**2*T_HDEC(STOP1,AM2,AMU)
|
|
c . +STHT**2*T_HDEC(STOP2,AM2,AMU)
|
|
c . +(CTH**2*T_HDEC(SBOT1,AM2,AMU)+STH**2*T_HDEC(SBOT2,AM2,AMU))/2))
|
|
c * /(1-2*ASH/3/PI*AMG*AB*T_HDEC(SBOT1,SBOT2,AMG))
|
|
c write(6,*)'Delta_s: ',DELTAMB
|
|
c . ,2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c write(6,*)'s: ',QSUSY1,
|
|
c write(53,*)QSUSY1,
|
|
c . (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG))
|
|
c . /(1-2*ASH/3/PI*AMG*AB*T_HDEC(SBOT1,SBOT2,AMG)),
|
|
c . (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD)
|
|
c . /(1-2*ASH/3/PI*AMG*AB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD)
|
|
c write(54,*)QSUSY1,
|
|
c . (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)),
|
|
c . (2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c dmb0 = (2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)
|
|
c . - al1/12/pi*am1*amu*tanb*(t_hdec(sbot1,sbot2,am1)/3
|
|
c . + (cth**2/2+sth**2)*t_hdec(sbot1,am1,amu)
|
|
c . + (sth**2/2+cth**2)*t_hdec(sbot2,am1,amu))
|
|
c . - al2/4/pi*am2*amu*tanb*((ctht**2*t_hdec(stop1,am2,amu)
|
|
c . +stht**2*t_hdec(stop2,am2,amu))
|
|
c . +(cth**2*t_hdec(sbot1,am2,amu)+sth**2*t_hdec(sbot2,am2,amu))/2
|
|
c . ))
|
|
c . /(1-2*ash/3/pi*amg*ab*t_hdec(sbot1,sbot2,amg))
|
|
c dmb1 = (2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)*fqcd
|
|
c . - al1/12/pi*am1*amu*tanb*(t_hdec(sbot1,sbot2,am1)/3
|
|
c . + (cth**2/2+sth**2)*t_hdec(sbot1,am1,amu)
|
|
c . + (sth**2/2+cth**2)*t_hdec(sbot2,am1,amu))*felw1
|
|
c . - al2/4/pi*am2*amu*tanb*((ctht**2*t_hdec(stop1,am2,amu)
|
|
c . +stht**2*t_hdec(stop2,am2,amu))*felw22
|
|
c . +(cth**2*t_hdec(sbot1,am2,amu)+sth**2*t_hdec(sbot2,am2,amu))/2
|
|
c . *felw21))
|
|
c . /(1-2*ash/3/pi*amg*ab*t_hdec(sbot1,sbot2,amg)*fqcd)
|
|
c dmbqcds = 2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)
|
|
c dmbqcdsa = 2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)
|
|
c * /(1-2*ash/3/pi*amg*ab*t_hdec(sbot1,sbot2,amg))
|
|
c dmbqcd1s = 2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)*fqcd
|
|
c dmbqcd1sa = 2*ash/3/pi*amg*amu*tanb*t_hdec(sbot1,sbot2,amg)*fqcd
|
|
c * /(1-2*ash/3/pi*amg*ab*t_hdec(sbot1,sbot2,amg)*fqcd)
|
|
c dmbqcd1 = - al1/12/pi*am1*amu*tanb*(t_hdec(sbot1,sbot2,am1)/3
|
|
c . + (cth**2/2+sth**2)*t_hdec(sbot1,am1,amu)
|
|
c . + (sth**2/2+cth**2)*t_hdec(sbot2,am1,amu))
|
|
c dmbqcd11 = -al1/12/pi*am1*amu*tanb*(t_hdec(sbot1,sbot2,am1)/3
|
|
c . + (cth**2/2+sth**2)*t_hdec(sbot1,am1,amu)
|
|
c . + (sth**2/2+cth**2)*t_hdec(sbot2,am1,amu))*felw1
|
|
c dmbqcd2 =-al2/4/pi*am2*amu*tanb*((ctht**2*t_hdec(stop1,am2,amu)
|
|
c . +stht**2*t_hdec(stop2,am2,amu))
|
|
c . +(cth**2*t_hdec(sbot1,am2,amu)+sth**2*t_hdec(sbot2,am2,amu))/2
|
|
c . )
|
|
c dmbqcd21 =-al2/4/pi*am2*amu*tanb*((ctht**2*t_hdec(stop1,am2,amu)
|
|
c . +stht**2*t_hdec(stop2,am2,amu))*felw22
|
|
c . +(cth**2*t_hdec(sbot1,am2,amu)+sth**2*t_hdec(sbot2,am2,amu))/2
|
|
c . *felw21)
|
|
c write(70,'(g15.7,1x,g15.7,1x,g15.7,1x,g15.7)')
|
|
c . tanb,dmb0,dmb1,dmb1/dmb0
|
|
c write(71,'(g15.7,1x,g15.7,1x,g15.7,1x,g15.7)')
|
|
c . tanb,dmbqcds,dmbqcd1s,fqcd
|
|
c write(72,'(g15.7,1x,g15.7,1x,g15.7,1x,g15.7)')
|
|
c . tanb,dmbqcdsa,dmbqcd1sa,fqcd
|
|
c write(74,'(g15.7,1x,g15.7,1x,g15.7,1x,g15.7)')
|
|
c . tanb,dmbqcd1,dmbqcd11,felw1
|
|
c write(75,'(g15.7,1x,g15.7,1x,g15.7,1x,g15.7)')
|
|
c . tanb,dmbqcd2,dmbqcd21,dmbqcd21/dmbqcd2
|
|
c close(70)
|
|
c close(71)
|
|
c close(72)
|
|
c close(74)
|
|
c close(75)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
ELSE
|
|
ASH = ALPHAS_HDEC(SCALE,3)
|
|
DELTAMB = 2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)
|
|
DGLB = -DELTAMB*(1+1/TANA/TANB)
|
|
DGHB = -DELTAMB*(1-TANA/TANB)
|
|
DGAB = -DELTAMB*(1+1/TANB**2)
|
|
ENDIF
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE TOPSUSY_HDEC(GLB,GHB,GAB,XGLB,XGHB,XGAB,SCALE,IL)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
ICASE = 0
|
|
CALL DMTAPP_HDEC(ICASE,DGLB,DGHB,DGAB,SCALE,IL)
|
|
XGLB = GLB*(1+DGLB)
|
|
XGHB = GHB*(1+DGHB)
|
|
XGAB = GAB*(1+DGAB)
|
|
RETURN
|
|
END
|
|
|
|
SUBROUTINE DMTAPP_HDEC(ICASE,DGLB,DGHB,DGAB,SCALE,IL)
|
|
IMPLICIT DOUBLE PRECISION (A-H,O-Z)
|
|
DIMENSION AMCHAR(2),AMNEUT(4),XMNEUT(4),
|
|
. XMST(2),XMSB(2),AMSL(2),
|
|
. AMSU(2),AMSD(2),AMSE(2),AMSN(2),AMSN1(2)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/MASSES_HDEC/AMS,AMC,AMB,AMT
|
|
COMMON/HMASS_HDEC/AMSM,AMA,AMHL,AMHH,AMCH,AMAR
|
|
COMMON/GLUINO_HDEC/AMG,AMSB1,AMSB2,STH0,CTH0,
|
|
. GLBB(2,2),GHBB(2,2),GABB(2,2),
|
|
. AMST1,AMST2,STHT0,CTHT0,
|
|
. GLTT(2,2),GHTT(2,2),GATT(2,2)
|
|
COMMON/COUP_HDEC/GAT,GAB,GLT,GLB,GHT,GHB,GZAH,GZAL,
|
|
. GHHH,GLLL,GHLL,GLHH,GHAA,GLAA,GLVV,GHVV,
|
|
. GLPM,GHPM,B,A
|
|
COMMON/BREAK_HDEC/AMEL,AMER,AMSQ,AMUR,AMDR,AL,AU,AD,AMU,AM2
|
|
COMMON/SMASS_HDEC/AMNEUT,XMNEUT,AMCHAR,XMST,XMSB,AMSL,
|
|
. AMSU,AMSD,AMSE,AMSN,AMSN1
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
COMMON/DAVID/QSUSY1,QSUSY2,LOOP
|
|
COMMON/ALSLAM_HDEC/XLB1(6),XLB2(6),XLB3(6)
|
|
COMMON/TRILINEAR_HDEC/AT00,AB00,AT1,AB1
|
|
COMMON/M1_HDEC/am10,igut
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
PI = 4*DATAN(1.D0)
|
|
V = 1/DSQRT(2*DSQRT(2D0)*GF)
|
|
TANB = DTAN(B)
|
|
TANA = DTAN(A)
|
|
SB = TANB/DSQRT(1+TANB**2)
|
|
c AT = AD
|
|
c AB = AU
|
|
SBOT1 = AMST1
|
|
SBOT2 = AMST2
|
|
STOP1 = AMSB1
|
|
STOP2 = AMSB2
|
|
CTHT = CTH0
|
|
STHT = STH0
|
|
CTH = CTHT0
|
|
STH = STHT0
|
|
CW = AMW**2/AMZ**2
|
|
SW = 1-CW
|
|
AL2 = (2*AMW/V/DSQRT(2D0))**2/4/PI
|
|
AL1 = AL2*SW/CW
|
|
if(igut.ne.0)then
|
|
AM1=5.D0/3.D0*SW/CW*AM2
|
|
else
|
|
AM1=AM10
|
|
endif
|
|
|
|
FELW = 1
|
|
FQCD = 1
|
|
SCALQCD = (SBOT1+SBOT2+DABS(AMG))/3
|
|
DUMMY = SQSUSY_HDEC(1,1,1,1,SCALQCD,0,1)
|
|
c AT = AB00
|
|
c AB = AT00
|
|
AT = AB1
|
|
AB = AT1
|
|
ASH = ALPHAS_HDEC(SCALQCD,3)
|
|
IF(ICASE.EQ.0)THEN
|
|
c DELTAMB = 2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD
|
|
c * /(1-2*ASH/3/PI*AMG*AB*T_HDEC(SBOT1,SBOT2,AMG))
|
|
DELTAMB = (2*ASH/3/PI*AMG*AMU/TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD
|
|
. - AL1/12/PI*AM1*AMU/TANB*(T_HDEC(SBOT1,SBOT2,AM1)/3
|
|
. + (CTH**2/2+STH**2)*T_HDEC(SBOT1,AM1,AMU)
|
|
. + (STH**2/2+CTH**2)*T_HDEC(SBOT2,AM1,AMU))
|
|
. - AL2/4/PI*AM2*AMU/TANB*(CTHT**2*T_HDEC(STOP1,AM2,AMU)
|
|
. +STHT**2*T_HDEC(STOP2,AM2,AMU)
|
|
. +(CTH**2*T_HDEC(SBOT1,AM2,AMU)+STH**2*T_HDEC(SBOT2,AM2,AMU))/2))
|
|
* /(1-2*ASH/3/PI*AMG*AB*T_HDEC(SBOT1,SBOT2,AMG))
|
|
DGLB = -DELTAMB/(1+DELTAMB)*(1+1*TANA*TANB)
|
|
DGHB = -DELTAMB/(1+DELTAMB)*(1-TANB/TANA)
|
|
DGAB = -DELTAMB/(1+DELTAMB)*(1+1*TANB**2)
|
|
c write(6,*)'Delta_s: ',DELTAMB
|
|
c . ,2*ASH/3/PI*AMG*AMU*TANB*T_HDEC(SBOT1,SBOT2,AMG)*FQCD
|
|
ELSE
|
|
DELTAMB = 2*ASH/3/PI*AMG*AMU/TANB*T_HDEC(SBOT1,SBOT2,AMG)
|
|
DGLB = -DELTAMB*(1+1*TANA*TANB)
|
|
DGHB = -DELTAMB*(1-TANB/TANA)
|
|
DGAB = -DELTAMB*(1+1*TANB**2)
|
|
ENDIF
|
|
RETURN
|
|
END
|
|
|
|
C%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
|
|
|
|
***********************************************************************
|
|
FUNCTION ETA_HDEC(C1,C2)
|
|
***********************************************************************
|
|
* COMPLEX ETA-FUNKTION
|
|
*---------------------------------------------------------------------*
|
|
* 8.06.90 ANSGAR DENNER
|
|
***********************************************************************
|
|
IMPLICIT LOGICAL(A-Z)
|
|
COMPLEX*16 ETA_HDEC,C1,C2
|
|
REAL*8 PI,IM1,IM2,IM12
|
|
|
|
PI = 4D0*DATAN(1D0)
|
|
IM1 = DIMAG(C1)
|
|
IM2 = DIMAG(C2)
|
|
IM12 = DIMAG(C1*C2)
|
|
|
|
IF(IM1.LT.0D0.AND.IM2.LT.0D0.AND.IM12.GT.0D0) THEN
|
|
ETA_HDEC = DCMPLX(0D0,2D0*PI)
|
|
ELSE IF (IM1.GT.0D0.AND.IM2.GT.0D0.AND.IM12.LT.0D0) THEN
|
|
ETA_HDEC = DCMPLX(0D0,-2D0*PI)
|
|
ELSE
|
|
ETA_HDEC = DCMPLX(0D0)
|
|
END IF
|
|
END
|
|
|
|
***********************************************************************
|
|
FUNCTION ETAS_HDEC(Y,R,RS)
|
|
***********************************************************************
|
|
* MODIFIED ETA-FUNKTION
|
|
*---------------------------------------------------------------------*
|
|
* 18.1.94 SD
|
|
***********************************************************************
|
|
IMPLICIT LOGICAL(A-Z)
|
|
COMPLEX*16 ETA_HDEC,ETAS_HDEC,Y,R,RS
|
|
REAL*8 PI,IMY,IMRS
|
|
|
|
PI = 4D0*DATAN(1D0)
|
|
|
|
IF( DIMAG(R).NE.0D0 ) THEN
|
|
ETAS_HDEC = ETA_HDEC(Y,R)
|
|
ELSE
|
|
IF( DREAL(R).GT.0D0 ) THEN
|
|
ETAS_HDEC = DCMPLX(0D0,0D0)
|
|
ELSE
|
|
IMY = DIMAG(Y)
|
|
IMRS = DIMAG(RS)
|
|
ETAS_HDEC = 2D0*DCMPLX(0D0,PI)*(
|
|
* (1D0+SIGN(1D0,-IMY))*(1D0+SIGN(1D0,-IMRS))-
|
|
* (1D0+SIGN(1D0, IMY))*(1D0+SIGN(1D0, IMRS))
|
|
* )/4D0
|
|
ENDIF
|
|
ENDIF
|
|
END
|
|
|
|
***********************************************************************
|
|
FUNCTION SQE_HDEC(A,B,C)
|
|
***********************************************************************
|
|
* SOLUTION OF QUADRATIC EQUATION *
|
|
*---------------------------------------------------------------------*
|
|
* 13.1.92 SD *
|
|
***********************************************************************
|
|
IMPLICIT REAL*8 (A-Z)
|
|
COMPLEX*16 A,B,C,SQE_HDEC,X1,X2
|
|
|
|
X1=(-B+SQRT(B**2-4D0*A*C))/2D0/A
|
|
X2=(-B-SQRT(B**2-4D0*A*C))/2D0/A
|
|
|
|
IF (ABS(X1).GT.ABS(X2)) THEN
|
|
SQE_HDEC=X1
|
|
ELSE
|
|
SQE_HDEC=X2
|
|
ENDIF
|
|
|
|
END
|
|
|
|
************************************************************************
|
|
FUNCTION D04_HDEC(P1,P2,P3,P4,P12,P23,M1,M2,M3,M4)
|
|
************************************************************************
|
|
* SCALAR 4-POINT FUNCTION WITH AT LEAST ONE MASS ZERO *
|
|
* P1,P2,P3,P4 = SQUARED EXTERNAL MOMENTA *
|
|
* P12 = (p1+p2)**2, P23 = (p2+p3)**2 *
|
|
*----------------------------------------------------------------------*
|
|
* 2.1.92 SD *
|
|
************************************************************************
|
|
IMPLICIT REAL*8 (A-Z)
|
|
REAL*8 M(4),P(4,4),K(4,4)
|
|
COMPLEX*16 A1,A2,A3,A4,SWAP
|
|
COMPLEX*16 SS(4), XX(2), X(2,4),RS(4,4)
|
|
COMPLEX*16 S0(4),XX0(2),X0(2,4), R(4,4),G(2)
|
|
COMPLEX*16 C04,D04_HDEC,CSPEN_HDEC,ETA_HDEC,SQE_HDEC,ETAS_HDEC
|
|
COMPLEX*16 AA,BB,CC,DD,IEPS,H,HH,L1,L2,L3,L4
|
|
COMPLEX*16 Z2,B,SC,TC,WP,WM,BS,XS
|
|
INTEGER GEN,I,J
|
|
|
|
PI = 4*DATAN(1.D0)
|
|
|
|
MM1=M1
|
|
MM2=M2
|
|
MM3=M3
|
|
MM4=M4
|
|
M12=M1*M1
|
|
M22=M2*M2
|
|
M32=M3*M3
|
|
M42=M4*M4
|
|
Q1=P1
|
|
Q2=P2
|
|
Q3=P3
|
|
Q4=P4
|
|
Q12=P12
|
|
Q23=P23
|
|
|
|
C IS AT LEAST ONE MASS ZERO ???
|
|
IF (MM1*MM2*MM3*MM4.NE.0D0) GOTO 130
|
|
|
|
C PERMUTATE UNTIL MM3=0D0
|
|
GOTO 20
|
|
10 CONTINUE
|
|
MM0=MM1
|
|
MM1=MM2
|
|
MM2=MM3
|
|
MM3=MM4
|
|
MM4=MM0
|
|
M02=M12
|
|
M12=M22
|
|
M22=M32
|
|
M32=M42
|
|
M42=M02
|
|
Q00=Q12
|
|
Q12=Q23
|
|
Q23=Q00
|
|
Q0=Q1
|
|
Q1=Q2
|
|
Q2=Q3
|
|
Q3=Q4
|
|
Q4=Q0
|
|
20 IF (MM3.NE.0D0) GOTO 10
|
|
C ONLY MM3 IS ZERO
|
|
IF (MM1*MM2*MM4.NE.0D0) GOTO 30
|
|
C ONLY MM3 AND MM4 ARE ZERO ==> 3->2, 4->3...
|
|
IF ((MM1*MM2.NE.0D0).AND.(MM4.EQ.0D0)) GOTO 10
|
|
C ONLY MM2 AND MM3 ARE ZERO
|
|
IF ((MM1*MM4.NE.0D0).AND.(MM2.EQ.0D0)) GOTO 40
|
|
WRITE(*,*)'CASE OF THIS SPECIAL D0-FUNCTION NOT IMPLEMENTED!'
|
|
STOP
|
|
|
|
C ****** NO MASS EQUAL TO ZERO ******
|
|
130 CONTINUE
|
|
EPS=1D-18
|
|
IEPS=DCMPLX(0D0,EPS)
|
|
|
|
IF( ABS((MM1**2+MM3**2-Q12)/MM1/MM3).LT.2D0 ) THEN
|
|
C R13 WOULD BE NOT REAL. -> PERMUTATION! -> R(2,4) IS NOT REAL.
|
|
M(1)=MM2
|
|
M(2)=MM3
|
|
M(3)=MM4
|
|
M(4)=MM1
|
|
P(1,2)=Q2
|
|
P(1,3)=Q23
|
|
P(1,4)=Q1
|
|
P(2,3)=Q3
|
|
P(2,4)=Q12
|
|
P(3,4)=Q4
|
|
ELSE
|
|
C R(1,3) IS REAL.
|
|
M(1)=MM1
|
|
M(2)=MM2
|
|
M(3)=MM3
|
|
M(4)=MM4
|
|
P(1,2)=Q1
|
|
P(1,3)=Q12
|
|
P(1,4)=Q4
|
|
P(2,3)=Q2
|
|
P(2,4)=Q23
|
|
P(3,4)=Q3
|
|
ENDIF
|
|
|
|
DO 11 J=2,4
|
|
DO 11 I=1,J-1
|
|
K(I,J)=(M(I)**2+M(J)**2-P(I,J))/M(I)/M(J)
|
|
R(I,J) =SQE_HDEC(DCMPLX(1D0,0D0),DCMPLX(-K(I,J),0D0),
|
|
* DCMPLX(1D0,0D0))
|
|
IF( DIMAG(R(I,J)).EQ.0D0 ) THEN
|
|
RS(I,J)=SQE_HDEC(DCMPLX(1D0,0D0),DCMPLX(-K(I,J),EPS),
|
|
* DCMPLX(1D0,0D0))
|
|
ELSE
|
|
RS(I,J)=R(I,J)
|
|
ENDIF
|
|
11 CONTINUE
|
|
|
|
SS(1)=RS(1,2)
|
|
SS(2)=RS(2,3)
|
|
SS(3)=RS(3,4)
|
|
SS(4)=RS(1,4)
|
|
S0(1)=R(1,2)
|
|
S0(2)=R(2,3)
|
|
S0(3)=R(3,4)
|
|
S0(4)=R(1,4)
|
|
AA=K(3,4)/R(2,4)+R(1,3)*K(1,2)-K(1,4)*R(1,3)/R(2,4)-K(2,3)
|
|
BB=(R(2,4)-1D0/R(2,4))*(R(1,3)-1D0/R(1,3))
|
|
* +K(1,2)*K(3,4)-K(1,4)*K(2,3)
|
|
CC=K(1,2)/R(1,3)+R(2,4)*K(3,4)-K(1,4)*R(2,4)/R(1,3)-K(2,3)
|
|
DD=K(2,3)-R(1,3)*K(1,2)-R(2,4)*K(3,4)+R(1,3)*R(2,4)*K(1,4)
|
|
XX(1)=SQE_HDEC(AA,BB,CC+IEPS*DD)
|
|
XX(2)=(CC+IEPS*DD)/AA/XX(1)
|
|
XX0(1)=SQE_HDEC(AA,BB,CC)
|
|
XX0(2)=CC/AA/XX0(1)
|
|
c IF (ABS(DREAL(XX0(1)-XX(2))).LT.ABS(DREAL(XX0(1)-XX(1)))) THEN
|
|
IF (ABS(XX0(1)-XX(2)).LT.ABS(XX0(1)-XX(1))) THEN
|
|
SWAP =XX0(1)
|
|
XX0(1)=XX0(2)
|
|
XX0(2)=SWAP
|
|
ENDIF
|
|
|
|
DO 12 I=1,2
|
|
G(I) =SIGN( 1D0,DREAL(AA*(XX(I)-XX(3-I))) )
|
|
X(I,1)= XX(I)/R(2,4)
|
|
X0(I,1)=XX0(I)/R(2,4)
|
|
X(I,2)= XX(I)/R(2,4)*R(1,3)
|
|
X0(I,2)=XX0(I)/R(2,4)*R(1,3)
|
|
X(I,3)= XX(I)*R(1,3)
|
|
X0(I,3)=XX0(I)*R(1,3)
|
|
X(I,4)= XX(I)
|
|
X0(I,4)=XX0(I)
|
|
12 CONTINUE
|
|
|
|
D04_HDEC = DCMPLX(0D0,0D0)
|
|
DO 13 I=1,2
|
|
DO 13 J=1,4
|
|
A1 = 1D0+X0(I,J)*S0(J) + ABS(1D0+X0(I,J)*S0(J))*IEPS*
|
|
* SIGN(1D0,DIMAG(X(I,J)*SS(J)))
|
|
A2 = 1D0+X0(I,J)/S0(J) + ABS(1D0+X0(I,J)/S0(J))*IEPS*
|
|
* SIGN(1D0,DIMAG(X(I,J)/SS(J)))
|
|
D04_HDEC = D04_HDEC + (-1D0)**(I+J)*(
|
|
* CSPEN_HDEC(A1)+ETA_HDEC(-X(I,J),SS(J))*LOG(A1)
|
|
* +CSPEN_HDEC(A2)+ETA_HDEC(-X(I,J),1D0/SS(J))*LOG(A2))
|
|
13 CONTINUE
|
|
|
|
IF( DIMAG(R(1,3)).EQ.0D0 ) THEN
|
|
DO 14 I=1,2
|
|
A1 = (K(1,3)-2D0*R(1,3))/XX0(I)
|
|
* -R(1,3)*K(1,4)+K(3,4)
|
|
A2 = ((K(2,4)-2D0*R(2,4))*R(1,3)*XX0(I)
|
|
* -R(2,4)*K(3,4)+K(2,3))/DD
|
|
A3 = (K(1,3)-2D0*R(1,3))*R(2,4)/XX0(I)
|
|
* -R(1,3)*K(1,2)+K(2,3)
|
|
A4 = ((K(2,4)-2D0*R(2,4))*XX0(I)
|
|
* -R(2,4)*K(1,4)+K(1,2))/DD
|
|
L1 = LOG( A1-ABS(A1)*IEPS )
|
|
L2 = LOG( A2+ABS(A2)*IEPS*G(I)*SIGN(1D0,DREAL(R(1,3))
|
|
* *DIMAG(RS(2,4))) )
|
|
L3 = LOG( A3-ABS(A3)*IEPS )
|
|
L4 = LOG( A4+ABS(A4)*IEPS*G(I)*SIGN(1D0,DIMAG(RS(2,4))) )
|
|
|
|
D04_HDEC = D04_HDEC + (3D0-2D0*I)*(
|
|
* ETAS_HDEC(-XX(I),R(1,3),RS(1,3))
|
|
* *( LOG(R(1,3)*XX(I)) + L1 + L2 )
|
|
* +ETAS_HDEC(-XX(I),1D0/R(2,4),1D0/RS(2,4))
|
|
* *( LOG(XX(I)/R(2,4)) + L3 + L4 )
|
|
* -( ETAS_HDEC(-XX(I),R(1,3)/R(2,4),RS(1,3)/RS(2,4))
|
|
* +ETA_HDEC(RS(1,3),1D0/RS(2,4)) )
|
|
* *( LOG(XX(I)*R(1,3)/R(2,4)) + L3 + L2 )
|
|
* +ETA_HDEC(RS(1,3),1D0/RS(2,4))
|
|
* *ETAS_HDEC(-XX(I),-R(1,3)/R(2,4),-RS(1,3)/RS(2,4)) )
|
|
14 CONTINUE
|
|
ELSE
|
|
DO 15 I=1,2
|
|
L1 = LOG( R(2,4)/XX0(I)+XX0(I)/R(2,4)+K(1,2)
|
|
* -XX0(I)/R(2,4)*EPS*BB*G(I) )
|
|
L2 = LOG( R(1,3)*XX0(I)+1D0/XX0(I)/R(1,3)+K(3,4)
|
|
* -XX0(I)*R(1,3)*EPS*BB*G(I) )
|
|
L3 = LOG( R(1,3)/R(2,4)*XX0(I)+R(2,4)/XX0(I)/R(1,3)+K(2,3)
|
|
* -XX0(I)*R(1,3)/R(2,4)*EPS*BB*G(I) )
|
|
|
|
D04_HDEC = D04_HDEC + (3D0-2D0*I)*(
|
|
* +ETA_HDEC(-XX(I),1D0/R(2,4))
|
|
* *( LOG(XX(I)/R(2,4)) + L1 )
|
|
* +ETA_HDEC(-XX(I),R(1,3))
|
|
* *( LOG(R(1,3)*XX(I)) + L2 )
|
|
* -( ETA_HDEC(-XX(I),R(1,3)/R(2,4))
|
|
* +ETA_HDEC(R(1,3),1D0/R(2,4)) )
|
|
* *( LOG(XX(I)*R(1,3)/R(2,4)) + L3 )
|
|
* +ETA_HDEC(R(1,3),1D0/R(2,4))
|
|
* *ETA_HDEC(-XX(I),-R(1,3)/R(2,4))
|
|
* *(1D0-G(I)*SIGN(1D0,DREAL(BB))) )
|
|
15 CONTINUE
|
|
ENDIF
|
|
|
|
D04_HDEC = D04_HDEC/M(1)/M(2)/M(3)/M(4)/AA/(XX(1)-XX(2))
|
|
RETURN
|
|
|
|
|
|
C---> ***************** SPEZIELL ( --> T.SACK-PROMOTION )
|
|
C D1=Q12-M12
|
|
C D2=Q2 -M22
|
|
C D3=Q3 -M42
|
|
C IF ((D1*D2.LE.0D0).OR.(D2*D3.LE.0D0)) THEN
|
|
C WRITE(*,*) 'THE CASE OF DIFFERENT SIGNS OF THE D1,D2,D3'
|
|
C WRITE(*,*) 'IN D04(...) IS NOT IMPLEMENTED !!!'
|
|
C STOP
|
|
C ENDIF
|
|
C NM1=ABS(MM1/D1)
|
|
C NM2=ABS(MM2/D2)
|
|
C NM3=ABS(MM4/D3)
|
|
C NP1=Q2/D2**2+Q12/D1**2+(Q1-Q2-Q12)/D1/D2
|
|
C NP2=Q2/D2**2+ Q3/D3**2+(Q23-Q2-Q3)/D2/D3
|
|
C NP3=Q3/D3**2+Q12/D1**2+(Q4-Q3-Q12)/D1/D3
|
|
C D04_HDEC=C04(NP1,NP2,NP3,NM1,NM2,NM3)/D1/D2/D3
|
|
|
|
C *************** ALLGEMEIN
|
|
|
|
|
|
C ****** ONLY MM3 IS ZERO ******
|
|
30 CONTINUE
|
|
EPS=1D-17
|
|
IEPS=DCMPLX(0D0,EPS)
|
|
M(1)=MM1
|
|
M(2)=MM2
|
|
M(3)=10D0
|
|
M(4)=MM4
|
|
P(1,2)=Q1
|
|
P(1,3)=Q12
|
|
P(1,4)=Q4
|
|
P(2,3)=Q2
|
|
P(2,4)=Q23
|
|
P(3,4)=Q3
|
|
DO 1 J=2,4
|
|
DO 1 I=1,J-1
|
|
K(I,J)=(M(I)**2+M(J)**2-P(I,J))/M(I)/M(J)
|
|
IF (I.EQ.3) K(I,J)=K(I,J)-M(I)/M(J)
|
|
IF (J.EQ.3) K(I,J)=K(I,J)-M(J)/M(I)
|
|
R(I,J) =SQE_HDEC(DCMPLX(1D0,0D0),DCMPLX(-K(I,J),0D0),
|
|
* DCMPLX(1D0,0D0))
|
|
IF( DIMAG(R(I,J)).EQ.0D0 ) THEN
|
|
RS(I,J)=SQE_HDEC(DCMPLX(1D0,0D0),DCMPLX(-K(I,J),EPS),
|
|
* DCMPLX(1D0,0D0))
|
|
ELSE
|
|
RS(I,J)=R(I,J)
|
|
ENDIF
|
|
1 CONTINUE
|
|
SS(1)=RS(1,2)
|
|
SS(2)=RS(2,3)
|
|
SS(3)=RS(3,4)
|
|
SS(4)=RS(1,4)
|
|
AA=K(3,4)/R(2,4)-K(2,3)
|
|
BB=K(1,3)*(1D0/R(2,4)-R(2,4))+K(1,2)*K(3,4)-K(1,4)*K(2,3)
|
|
CC=K(1,2)*K(1,3)-K(1,3)*K(1,4)*R(2,4)+R(2,4)*K(3,4)-K(2,3)
|
|
DD=K(2,3)-R(2,4)*K(3,4)
|
|
XX(1)=SQE_HDEC(AA,BB,CC+IEPS*DD)
|
|
XX(2)=(CC+IEPS*DD)/AA/XX(1)
|
|
DO 2 I=1,2
|
|
X(I,1)=XX(I)/R(2,4)
|
|
X(I,2)=XX(I)/R(2,4)*R(1,3)
|
|
X(I,3)=XX(I)*R(1,3)
|
|
X(I,4)=XX(I)
|
|
2 CONTINUE
|
|
D04_HDEC = DCMPLX(0D0,0D0)
|
|
DO 3 I=1,2
|
|
D04_HDEC = D04_HDEC + (2D0*I-3D0)*(
|
|
* CSPEN_HDEC(1D0+SS(4)*X(I,4))
|
|
* -CSPEN_HDEC(1D0+SS(1)*X(I,1))
|
|
* +CSPEN_HDEC(1D0+X(I,4)/SS(4))
|
|
* -CSPEN_HDEC(1D0+X(I,1)/SS(1))
|
|
* +ETA_HDEC(-X(I,4),SS(4))*LOG(1D0+SS(4)*X(I,4))
|
|
* -ETA_HDEC(-X(I,1),SS(1))*LOG(1D0+SS(1)*X(I,1))
|
|
* +ETA_HDEC(-X(I,4),1D0/SS(4))*LOG(1D0+X(I,4)/SS(4))
|
|
* -ETA_HDEC(-X(I,1),1D0/SS(1))*LOG(1D0+X(I,1)/SS(1))
|
|
* -CSPEN_HDEC(1D0+X(I,4)*(K(3,4)-IEPS)/(K(1,3)-IEPS))
|
|
* +CSPEN_HDEC(1D0+X(I,1)*(K(2,3)-IEPS)/(K(1,3)-IEPS))
|
|
* -ETA_HDEC(-X(I,4),(K(3,4)-IEPS)/(K(1,3)-IEPS))
|
|
* *LOG(1D0+X(I,4)*(K(3,4)-IEPS)/(K(1,3)-IEPS))
|
|
* +ETA_HDEC(-X(I,1),(K(2,3)-IEPS)/(K(1,3)-IEPS))
|
|
* *LOG(1D0+X(I,1)*(K(2,3)-IEPS)/(K(1,3)-IEPS)) )
|
|
IF (DIMAG(R(2,4)).NE.0D0) THEN
|
|
H=ETA_HDEC(-1D0/XX(I),R(2,4))
|
|
ELSE
|
|
H=DCMPLX(0D0,0D0)
|
|
IF (DREAL(R(2,4)).LT.0D0) THEN
|
|
HH=-1D0/XX(I)
|
|
IM1=DIMAG(HH)
|
|
IM2=DIMAG(RS(2,4))
|
|
IF ((IM1.GT.0D0).AND.(IM2.GT.0D0)) THEN
|
|
H=-DCMPLX(0D0,2D0*PI)
|
|
ENDIF
|
|
IF ((IM1.LT.0D0).AND.(IM2.LT.0D0)) THEN
|
|
H=+DCMPLX(0D0,2D0*PI)
|
|
ENDIF
|
|
ENDIF
|
|
ENDIF
|
|
D04_HDEC = D04_HDEC + (2D0*I-3D0)*
|
|
* H*( LOG( (K(1,2)-R(2,4)*K(1,4)
|
|
* +XX(I)*(1D0/R(2,4)-R(2,4)))/DD )
|
|
* +LOG(K(1,3)-IEPS) )
|
|
3 CONTINUE
|
|
D04_HDEC = D04_HDEC/M(1)/M(2)/M(3)/M(4)/AA/(XX(1)-XX(2))
|
|
RETURN
|
|
|
|
C ****** ONLY MM2 AND MM3 ARE ZERO ******
|
|
40 CONTINUE
|
|
EPS=1D-17
|
|
IEPS=DCMPLX(0D0,EPS)
|
|
|
|
M(1)=MM1
|
|
M(2)=10D0
|
|
M(3)=10D0
|
|
M(4)=MM4
|
|
P(1,2)=Q1
|
|
P(1,3)=Q12
|
|
P(1,4)=Q4
|
|
P(2,3)=Q2
|
|
P(2,4)=Q23
|
|
P(3,4)=Q3
|
|
DO 4 J=2,4
|
|
DO 4 I=1,J-1
|
|
K(I,J)=(M(I)**2+M(J)**2-P(I,J))/M(I)/M(J)
|
|
IF (I.EQ.2) K(I,J)=K(I,J)-M(I)/M(J)
|
|
IF (J.EQ.2) K(I,J)=K(I,J)-M(J)/M(I)
|
|
IF (I.EQ.3) K(I,J)=K(I,J)-M(I)/M(J)
|
|
IF (J.EQ.3) K(I,J)=K(I,J)-M(J)/M(I)
|
|
R(I,J) =SQE_HDEC(DCMPLX(1D0,0D0),DCMPLX(-K(I,J),0D0),
|
|
* DCMPLX(1D0,0D0))
|
|
IF( DIMAG(R(I,J)).EQ.0D0 ) THEN
|
|
RS(I,J)=SQE_HDEC(DCMPLX(1D0,0D0),DCMPLX(-K(I,J),EPS),
|
|
* DCMPLX(1D0,0D0))
|
|
ELSE
|
|
RS(I,J)=R(I,J)
|
|
ENDIF
|
|
4 CONTINUE
|
|
SS(1)=RS(1,2)
|
|
SS(2)=RS(2,3)
|
|
SS(3)=RS(3,4)
|
|
SS(4)=RS(1,4)
|
|
AA=K(2,4)*K(3,4)-K(2,3)
|
|
BB=K(1,3)*K(2,4)+K(1,2)*K(3,4)-K(1,4)*K(2,3)
|
|
CC=K(1,2)*K(1,3)-K(2,3)
|
|
DD=K(2,3)
|
|
XX(1)=SQE_HDEC(AA,BB,CC+IEPS*DD)
|
|
XX(2)=(CC+IEPS*DD)/AA/XX(1)
|
|
DO 5 I=1,2
|
|
X(I,1)=XX(I)/R(2,4)
|
|
X(I,2)=XX(I)/R(2,4)*R(1,3)
|
|
X(I,3)=XX(I)*R(1,3)
|
|
X(I,4)=XX(I)
|
|
5 CONTINUE
|
|
D04_HDEC = DCMPLX(0D0,0D0)
|
|
DO 6 I=1,2
|
|
D04_HDEC = D04_HDEC + (2D0*I-3D0)*(
|
|
* CSPEN_HDEC(1D0+SS(4)*X(I,4))
|
|
* +CSPEN_HDEC(1D0+X(I,4)/SS(4))
|
|
* +ETA_HDEC(-X(I,4),SS(4))*LOG(1D0+SS(4)*X(I,4))
|
|
* +ETA_HDEC(-X(I,4),1D0/SS(4))*LOG(1D0+X(I,4)/SS(4))
|
|
* -CSPEN_HDEC(1D0+XX(I)*(K(3,4)-IEPS)/(K(1,3)-IEPS))
|
|
* -CSPEN_HDEC(1D0+XX(I)*(K(2,4)-IEPS)/(K(1,2)-IEPS))
|
|
* -ETA_HDEC(-XX(I),(K(3,4)-IEPS)/(K(1,3)-IEPS))
|
|
* *LOG(1D0+XX(I)*(K(3,4)-IEPS)/(K(1,3)-IEPS))
|
|
* -ETA_HDEC(-XX(I),(K(2,4)-IEPS)/(K(1,2)-IEPS))
|
|
* *LOG(1D0+XX(I)*(K(2,4)-IEPS)/(K(1,2)-IEPS))
|
|
* +LOG(-XX(I))*( LOG(K(1,2)-IEPS)
|
|
* +LOG(K(1,3)-IEPS)-LOG(K(2,3)-IEPS) ) )
|
|
6 CONTINUE
|
|
D04_HDEC = D04_HDEC/M(1)/M(2)/M(3)/M(4)/AA/(XX(1)-XX(2))
|
|
|
|
RETURN
|
|
|
|
END
|
|
|
|
************************************************************************
|
|
FUNCTION C03_HDEC(P1,P2,P3,M1,M2,M3)
|
|
************************************************************************
|
|
* SCALAR 3-POINT FUNCTION *
|
|
* P1,P2,P3 = SQUARED EXTERNAL MOMENTA *
|
|
*----------------------------------------------------------------------*
|
|
* 5.12.96 M. SPIRA *
|
|
************************************************************************
|
|
IMPLICIT REAL*8 (A-H,O-Z)
|
|
REAL*8 M1,M2,M3
|
|
REAL*8 R(0:2)
|
|
COMPLEX*16 C03_HDEC,CSPEN_HDEC,ETA_HDEC,IEPS,IM
|
|
COMPLEX*16 ALP(0:2),X(0:2,2),Y0(0:2),Y(0:2,2)
|
|
COMPLEX*16 CDUM
|
|
C REAL*8 KAPPA
|
|
COMPLEX*16 KAPPA
|
|
C KAPPA(A,B,C) = DSQRT(A**2+B**2+C**2-2*(A*B+A*C+B*C))
|
|
C KAPPA(A,B,C) = DSQRT(DABS(A**2+B**2+C**2-2*(A*B+A*C+B*C)))
|
|
c KAPPA(A,B,C) = CDSQRT(DCMPLX(A**2+B**2+C**2-2*(A*B+A*C+B*C)))
|
|
KAPPA(A,B,C,D) = CDSQRT((A**2+B**2+C**2-2*(A*B+A*C+B*C))
|
|
. * (1+IEPS*D))
|
|
EPS = 1.D-8*(P1+P2+P3)
|
|
IM = DCMPLX(0.D0,1.D0)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
IEPS = DCMPLX(0.D0,1.D-17)
|
|
C IEPS = DCMPLX(0.D0,1.D-20)
|
|
PI = 4*DATAN(1.D0)
|
|
XX = 0.D0
|
|
C IF(P1.LT.0.D0.OR.P2.LT.0.D0.OR.P3.LT.0.D0) XX=1.D0
|
|
IF(P1.NE.0.D0.OR.XX.NE.0.D0)THEN
|
|
Q10 = P1
|
|
ELSE
|
|
Q10 = EPS
|
|
ENDIF
|
|
IF(P3.NE.0.D0.OR.XX.NE.0.D0)THEN
|
|
Q20 = P3
|
|
ELSE
|
|
Q20 = EPS
|
|
ENDIF
|
|
IF(P2.NE.0.D0.OR.XX.NE.0.D0)THEN
|
|
Q21 = P2
|
|
ELSE
|
|
Q21 = EPS
|
|
ENDIF
|
|
R(0) = P2
|
|
R(1) = P3
|
|
R(2) = P1
|
|
SM0 = M1**2
|
|
SM1 = M2**2
|
|
SM2 = M3**2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
c ALPHA = KAPPA(Q10,Q21,Q20)
|
|
c ALP(0) = KAPPA(Q21,SM1,SM2)*(1+IEPS*Q21)
|
|
c ALP(1) = KAPPA(Q20,SM2,SM0)*(1+IEPS*Q20)
|
|
c ALP(2) = KAPPA(Q10,SM0,SM1)*(1+IEPS*Q10)
|
|
ALPHA = KAPPA(Q10,Q21,Q20,1.D0)
|
|
ALP(0) = KAPPA(Q21,SM1,SM2,DSIGN(1.D0,Q21))
|
|
ALP(1) = KAPPA(Q20,SM2,SM0,DSIGN(1.D0,Q20))
|
|
ALP(2) = KAPPA(Q10,SM0,SM1,DSIGN(1.D0,Q10))
|
|
X(0,1) = (Q21 - SM1 + SM2 + ALP(0))/2/Q21
|
|
X(0,2) = (Q21 - SM1 + SM2 - ALP(0))/2/Q21
|
|
X(1,1) = (Q20 - SM2 + SM0 + ALP(1))/2/Q20
|
|
X(1,2) = (Q20 - SM2 + SM0 - ALP(1))/2/Q20
|
|
X(2,1) = (Q10 - SM0 + SM1 + ALP(2))/2/Q10
|
|
X(2,2) = (Q10 - SM0 + SM1 - ALP(2))/2/Q10
|
|
Y0(0) = (Q21*(Q21-Q20-Q10+2*SM0-SM1-SM2) - (Q20-Q10)*(SM1-SM2)
|
|
. + ALPHA*(Q21-SM1+SM2))/2/ALPHA/Q21
|
|
Y0(1) = (Q20*(Q20-Q10-Q21+2*SM1-SM2-SM0) - (Q10-Q21)*(SM2-SM0)
|
|
. + ALPHA*(Q20-SM2+SM0))/2/ALPHA/Q20
|
|
Y0(2) = (Q10*(Q10-Q21-Q20+2*SM2-SM0-SM1) - (Q21-Q20)*(SM0-SM1)
|
|
. + ALPHA*(Q10-SM0+SM1))/2/ALPHA/Q10
|
|
Y(0,1) = Y0(0) - X(0,1)
|
|
Y(0,2) = Y0(0) - X(0,2)
|
|
Y(1,1) = Y0(1) - X(1,1)
|
|
Y(1,2) = Y0(1) - X(1,2)
|
|
Y(2,1) = Y0(2) - X(2,1)
|
|
Y(2,2) = Y0(2) - X(2,2)
|
|
CDUM=0.D0
|
|
DO I=0,2
|
|
DO J=1,2
|
|
CDUM = CDUM + CSPEN_HDEC((Y0(I)-1)/Y(I,J))
|
|
. - CSPEN_HDEC(Y0(I)/Y(I,J))
|
|
CX = ETA_HDEC(1-X(I,J),1/Y(I,J))
|
|
IF(CX.NE.0.D0)THEN
|
|
CDUM = CDUM + CX*CDLOG((Y0(I)-1)/Y(I,J))
|
|
ENDIF
|
|
CY = ETA_HDEC(-X(I,J),1/Y(I,J))
|
|
IF(CY.NE.0.D0)THEN
|
|
CDUM = CDUM - CY*CDLOG(Y0(I)/Y(I,J))
|
|
ENDIF
|
|
ENDDO
|
|
CX = ETA_HDEC(-X(I,1),-X(I,2))
|
|
IF(CX.NE.0.D0)THEN
|
|
CDUM = CDUM - CX*CDLOG((1-Y0(I))/(-Y0(I)))
|
|
ENDIF
|
|
CY = ETA_HDEC(Y(I,1),Y(I,2))
|
|
IF(CY.NE.0.D0)THEN
|
|
CDUM = CDUM + CY*CDLOG((1-Y0(I))/(-Y0(I)))
|
|
ENDIF
|
|
A = -R(I)
|
|
B = -DIMAG(Y(I,1)*Y(I,2))
|
|
IF(A.GT.0.D0.AND.B.GT.0.D0) THEN
|
|
CDUM = CDUM + 2*PI*IM*CDLOG((1-Y0(I))/(-Y0(I)))
|
|
ENDIF
|
|
ENDDO
|
|
C03_HDEC = CDUM/ALPHA
|
|
RETURN
|
|
END
|
|
|
|
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
C C
|
|
C SUBROUTINE CALCULATING THE FINITE REAL PART OF THE C
|
|
C GENERAL MASSIVE TWO POINT FUNCTION C
|
|
C C
|
|
C B02(P.P,M1,M2,MU**2) C
|
|
C BP02(P.P,M1,M2,MU**2) C
|
|
C C
|
|
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
|
|
c ---------------------------------------------------------------------
|
|
real*8 function B02_HDEC(s,m1,m2,mu2)
|
|
|
|
implicit none
|
|
|
|
real*8 s,m1,m2,mu2,m12,m22
|
|
complex*16 zkappa,x1,x2
|
|
|
|
m12 = m1**2
|
|
m22 = m2**2
|
|
|
|
zkappa=cdsqrt(dcmplx(s**2+m12**2+m22**2
|
|
& -2.D0*(s*m12+s*m22+m12*m22)))
|
|
|
|
if (s.eq.0.D0) then
|
|
if (m12.eq.m22) then
|
|
B02_HDEC=-dlog(m12/mu2)
|
|
else
|
|
if (m22.eq.0.D0) then
|
|
if (m12.eq.0.D0) then
|
|
B02_HDEC=1.D0
|
|
else
|
|
B02_HDEC=1.D0 - m12/(m12-m22)*dlog(m12/mu2)
|
|
endif
|
|
else
|
|
if (m12.eq.0.D0) then
|
|
B02_HDEC=1.D0 + m22/(m12-m22)*dlog(m22/mu2)
|
|
else
|
|
B02_HDEC=1.D0 - m12/(m12-m22)*dlog(m12/mu2)
|
|
& + m22/(m12-m22)*dlog(m22/mu2)
|
|
endif
|
|
endif
|
|
endif
|
|
else
|
|
if ((m12.eq.0.D0).and.(m22.eq.0.D0)) then
|
|
B02_HDEC=2.D0 - dlog(s/mu2)
|
|
elseif ((m12.eq.s).and.(m22.eq.0.D0)) then
|
|
B02_HDEC=2.D0 - dlog(m12/mu2)
|
|
elseif ((m22.eq.s).and.(m12.eq.0.D0)) then
|
|
B02_HDEC=2.D0 - dlog(m22/mu2)
|
|
elseif (m12.eq.0.D0) then
|
|
B02_HDEC=2.D0 - (s-m22)/s*dlog( dabs(m22-s)/m22 )
|
|
& - dlog(m22/mu2)
|
|
elseif (m22.eq.0.D0) then
|
|
B02_HDEC=2.D0 - (s-m12)/s*dlog( dabs(m12-s)/m12 )
|
|
& - dlog(m12/mu2)
|
|
else
|
|
x1=dcmplx( (s-m22+m12+zkappa)/(2.D0*s) )
|
|
x2=dcmplx( (s-m22+m12-zkappa)/(2.D0*s) )
|
|
B02_HDEC=dreal( 2.D0+ dlog(mu2/m22)
|
|
& + x1*cdlog(1.D0-1.D0/x1)
|
|
& + x2*cdlog(1.D0-1.D0/x2))
|
|
if(x1.eq.0.d0)then
|
|
B02_HDEC=dreal( 2.D0+ dlog(mu2/m22)
|
|
& + x2*cdlog(1.D0-1.D0/x2))
|
|
endif
|
|
if(x2.eq.0.d0)then
|
|
B02_HDEC=dreal( 2.D0+ dlog(mu2/m22)
|
|
& + x1*cdlog(1.D0-1.D0/x1))
|
|
endif
|
|
endif
|
|
endif
|
|
|
|
return
|
|
end
|
|
|
|
|
|
|
|
|
|
c ---------------------------------------------------------------------
|
|
real*8 function BP02_HDEC(s,m1,m2,mu2)
|
|
|
|
implicit none
|
|
|
|
real*8 s,m1,m2,mu2,m12,m22
|
|
complex*16 zkappa,x1,x2
|
|
|
|
m12 = m1**2
|
|
m22 = m2**2
|
|
|
|
zkappa=cdsqrt(dcmplx(s**2+m12**2+m22**2
|
|
& -2.D0*(s*m12+s*m22+m12*m22)))
|
|
|
|
if (s.eq.0.D0) then
|
|
if (m12.eq.m22) then
|
|
BP02_HDEC=1.D0/(6.D0*m12)
|
|
elseif(m12.eq.0.d0) then
|
|
BP02_HDEC=1/m22/2
|
|
elseif(m22.eq.0.d0) then
|
|
BP02_HDEC=1/m12/2
|
|
else
|
|
BP02_HDEC=( (m12+m22)/2.D0
|
|
& - m12*m22/(m12-m22)*dlog(m12/m22) )/(m12-m22)**2
|
|
endif
|
|
elseif ((s.eq.m12).and.(m22.eq.0.D0)) then
|
|
BP02_HDEC=( -1.D0 + dlog(m12/mu2)/2.D0 )/m12
|
|
elseif ((s.eq.m22).and.(m12.eq.0.D0)) then
|
|
BP02_HDEC=( -1.D0 + dlog(m22/mu2)/2.D0 )/m22
|
|
elseif (m12.eq.0.D0.and.m22.eq.0.D0) then
|
|
BP02_HDEC=( -1.D0 )/s
|
|
elseif (m22.eq.0.D0) then
|
|
BP02_HDEC=( -1.D0 - m12/s*dlog((m12-s)/m12) )/s
|
|
elseif (m12.eq.0.D0) then
|
|
BP02_HDEC=( -1.D0 - m22/s*dlog((m22-s)/m22) )/s
|
|
else
|
|
x1=dcmplx( (s-m22+m12+zkappa)/(2.D0*s) )
|
|
x2=dcmplx( (s-m22+m12-zkappa)/(2.D0*s) )
|
|
BP02_HDEC=dreal( -1.D0 + ( x1*(1.D0-x1)*cdlog(1.D0-1.D0/x1)
|
|
& - x2*(1.D0-x2)*cdlog(1.D0-1.D0/x2) )
|
|
& /(x1-x2) )/s
|
|
if(x1.eq.0.d0)then
|
|
BP02_HDEC=dreal( -1.D0 + (
|
|
& - x2*(1.D0-x2)*cdlog(1.D0-1.D0/x2) )
|
|
& /(x1-x2) )/s
|
|
endif
|
|
if(x2.eq.0.d0)then
|
|
BP02_HDEC=dreal( -1.D0 + ( x1*(1.D0-x1)*cdlog(1.D0-1.D0/x1) )
|
|
& /(x1-x2) )/s
|
|
endif
|
|
endif
|
|
|
|
return
|
|
end
|
|
|
|
C%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
|
|
|
|
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
FUNCTION CSPEN_HDEC(Z)
|
|
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
C SPENCE-FUNKTION KOMPLEX, FREI NACH HOLLIK C
|
|
C---------------------------------------------------------------------C
|
|
C 20.07.83 LAST CHANGED 10.05.89 ANSGAR DENNER C
|
|
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
COMPLEX*16 CSPEN_HDEC,W,SUM,Z,U
|
|
REAL*8 RZ,AZ,A1
|
|
REAL*8 B(9)/
|
|
1 0.1666666666666666666666666667D0,
|
|
2 -0.0333333333333333333333333333D0,
|
|
3 0.0238095238095238095238095238D0,
|
|
4 -0.0333333333333333333333333333D0,
|
|
5 0.0757575757575757575757575758D0,
|
|
6 -0.2531135531135531135531135531D0,
|
|
7 1.1666666666666666666666666667D0,
|
|
8 -7.09215686274509804D0 ,
|
|
9 54.97117794486215539D0 /
|
|
C BEACHTE: B(N)=B2N
|
|
C B(1)=1./6.
|
|
C B(2)=-1./30.
|
|
C B(3)=1./42.
|
|
C B(4)=-1./30.
|
|
C B(5)=5./66.
|
|
C B(6)=-691./2730.
|
|
C B(7)=7./6.
|
|
C B(8)=-3617./510.
|
|
C B(9)=43867./798.
|
|
C B(10)=-174611./330.
|
|
C B(11)=854513./138.
|
|
C PI=3.1415926535897932384
|
|
C PI*PI/6.=1.6449..., PI*PI/3=3.28986...
|
|
C
|
|
c write(*,*) 'z:',z
|
|
Z =Z*DCMPLX(1D0)
|
|
RZ=DREAL(Z)
|
|
AZ=CDABS(Z)
|
|
A1=CDABS(1D0-Z)
|
|
c write(*,*)'z, rz, az, a1:',z,rz,az,a1
|
|
C IF((SNGL(RZ) .EQ. 0.0) .AND. (SNGL(DIMAG(Z)) .EQ. 0.0)) THEN
|
|
C ---> CHANGED 10.5.89
|
|
IF(AZ .LT. 1D-20) THEN
|
|
CSPEN_HDEC=-CDLOG(1D0-Z)
|
|
c write(*,*) 'cspen:', cspen_HDEC
|
|
RETURN
|
|
END IF
|
|
IF((SNGL(RZ) .EQ. 1.0) .AND. (SNGL(DIMAG(Z)) .EQ. 0.0)) THEN
|
|
CSPEN_HDEC=1.64493406684822643D0
|
|
c write(*,*) 'cspen:', cspen_HDEC
|
|
RETURN
|
|
END IF
|
|
IF(RZ.GT.5D-1) GOTO 20
|
|
IF(AZ.GT.1D0) GOTO 10
|
|
W=-CDLOG(1D0-Z)
|
|
SUM=W-0.25D0*W*W
|
|
U=W
|
|
IF(CDABS(U).LT.1D-10) GOTO 2
|
|
c write(*,*) 'u:',u
|
|
c write(*,*) 'sum:',sum
|
|
DO 1 K=1,9
|
|
U=U*W*W/DFLOAT(2*K*(2*K+1))
|
|
IF(CDABS(U*B(K)/SUM).LT.1D-20) GOTO 2
|
|
SUM=SUM+U*B(K)
|
|
1 CONTINUE
|
|
2 CSPEN_HDEC=SUM
|
|
c write(*,*) 'cspen:', cspen_HDEC
|
|
RETURN
|
|
10 W=-CDLOG(1D0-1D0/Z)
|
|
SUM=W-0.25D0*W*W
|
|
U=W
|
|
IF(CDABS(U).LT.1D-10) GOTO 12
|
|
|
|
DO 11 K=1,9
|
|
U=U*W*W/DFLOAT(2*K*(2*K+1))
|
|
IF(CDABS(B(K)*U/SUM).LT.1D-20) GOTO 12
|
|
SUM=SUM+U*B(K)
|
|
11 CONTINUE
|
|
12 CSPEN_HDEC=-SUM-1.64493406684822643D0-.5D0*CDLOG(-Z)**2
|
|
c write(*,*) 'cspen:', cspen_HDEC
|
|
RETURN
|
|
20 IF(A1.GT.1D0) GOTO 30
|
|
W=-CDLOG(Z)
|
|
SUM=W-0.25D0*W*W
|
|
U=W
|
|
IF(CDABS(U).LT.1D-10) GOTO 22
|
|
DO 21 K=1,9
|
|
U=U*W*W/DFLOAT(2*K*(2*K+1))
|
|
IF(CDABS(U*B(K)/SUM).LT.1D-20) GOTO 22
|
|
SUM=SUM+U*B(K)
|
|
21 CONTINUE
|
|
22 CSPEN_HDEC=-SUM+1.64493406684822643D0-CDLOG(Z)*CDLOG(1D0-Z)
|
|
c write(*,*) 'cspen:', cspen_HDEC
|
|
RETURN
|
|
30 W=CDLOG(1D0-1D0/Z)
|
|
SUM=W-0.25D0*W*W
|
|
U=W
|
|
IF(CDABS(U).LT.1D-10) GOTO 32
|
|
DO 31 K=1,9
|
|
U=U*W*W/DFLOAT(2*K*(2*K+1))
|
|
IF(CDABS(U*B(K)/SUM).LT.1D-20) GOTO 32
|
|
SUM=SUM+U*B(K)
|
|
31 CONTINUE
|
|
32 CSPEN_HDEC=SUM+3.28986813369645287D0
|
|
* +.5D0*CDLOG(Z-1D0)**2-CDLOG(Z)*CDLOG(1D0-Z)
|
|
50 CONTINUE
|
|
c write(*,*) 'cspen:', cspen_HDEC
|
|
END
|
|
|
|
C%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
|
|
|
|
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
C THIS PROGRAM COMPUTES THE RENORMALIZATION GROUP IMPROVED
|
|
C VALUES OF HIGGS MASSES AND COUPLINGS IN THE MSSM.
|
|
C
|
|
C INPUT: MA,TANB = TAN(BETA),MQ,MUR,MDR,MTOP,AU,AD,MU,MCHI
|
|
C
|
|
C ALL MASSES IN GEV UNITS. MA IS THE CP-ODD HIGGS MASS,
|
|
C MTOP IS THE PHYSICAL TOP MASS, MQ AND MUR/MDR ARE THE SOFT
|
|
C SUPERSYMMETRY BREAKING MASS PARAMETERS OF LEFT HANDED
|
|
C AND RIGHT HANDED STOPS RESPECTIVELY, AU AND AD ARE THE
|
|
C STOP AND SBOTTOM TRILINEAR SOFT BREAKING TERMS,
|
|
C RESPECTIVELY, AND MU IS THE SUPERSYMMETRIC
|
|
C HIGGS MASS PARAMETER. WE USE THE CONVENTIONS FROM
|
|
C THE PHYSICS REPORT OF HABER AND KANE: LEFT RIGHT
|
|
C STOP MIXING TERM PROPORTIONAL TO (AU - MU/TANB).
|
|
C MCHI IS THE HEAVIEST CHARGINO MASS.
|
|
C WE USE AS INPUT TANB DEFINED AT THE SCALE MTOP.
|
|
|
|
C OUTPUT: MH,HM,MCH, SA = SIN(ALPHA), CA= COS(ALPHA), TANBA
|
|
C WHERE MHP AND HPM ARE THE LIGHTEST AND HEAVIEST CP-EVEN
|
|
C HIGGS MASSES, MHCH IS THE CHARGED HIGGS MASS AND
|
|
C ALPHA IS THE HIGGS MIXING ANGLE.
|
|
C TANBA IS THE ANGLE TANB AT THE CP-ODD HIGGS MASS SCALE.
|
|
|
|
ccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccc
|
|
c
|
|
c Program based on the work by M. Carena, M. Quiros
|
|
c and C.E.M. Wagner, "Effective potential methods and
|
|
c the Higgs mass spectrum in the MSSM", Nucl. Phys.
|
|
c B461 (1996) 407.
|
|
c
|
|
cccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccc
|
|
|
|
SUBROUTINE SUBH1_HDEC(MA,TANB,MUL,MDL,MUR,MD,MTOP,AU,AD,MU,MCHI0,
|
|
* MHP,HMP,MCH,SA,CA,TANBA,MGLU)
|
|
|
|
IMPLICIT REAL*8(A-H,L,M,O-Z)
|
|
DIMENSION VH(2,2),M2(2,2),M2P(2,2)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/HSELF_HDEC/LAMBDA1,LAMBDA2,LAMBDA3,LAMBDA4,LAMBDA5,
|
|
. LAMBDA6,LAMBDA7
|
|
|
|
MCHI = MCHI0
|
|
TANBA = TANB
|
|
TANBT = TANB
|
|
|
|
PI = 4*DATAN(1D0)
|
|
MZ = AMZ
|
|
MW = AMW
|
|
V = 1/DSQRT(2*DSQRT(2D0)*GF)
|
|
CW = AMW**2/AMZ**2
|
|
SW = 1-CW
|
|
ALPHA2 = (2*AMW/V/DSQRT(2D0))**2/4/PI
|
|
ALPHA1 = ALPHA2*SW/CW
|
|
ALPHA3Z = ALPHAS_HDEC(AMZ,3)
|
|
ALPHA3 = ALPHAS_HDEC(MTOP,3)
|
|
MB = RUNM_HDEC(MTOP,5,0)
|
|
RMTOP = RUNM_HDEC(MTOP,6,0)
|
|
|
|
TUL = LOG((MUL**2+MTOP**2)/MTOP**2)
|
|
TDL = LOG((MDL**2+MTOP**2)/MTOP**2)
|
|
TU = LOG((MUR**2 + MTOP**2)/MTOP**2)
|
|
TD = LOG((MD**2 + MTOP**2)/MTOP**2)
|
|
SINB = TANB/DSQRT(1.D0 + TANB**2)
|
|
COSB = SINB/TANB
|
|
|
|
IF(MA.GT.MTOP)
|
|
* TANBA = TANB*(1.D0-3.D0/32.D0/PI**2*
|
|
* (RMTOP**2/V**2/SINB**2-MB**2/V**2/COSB**2)*
|
|
* DLOG(MA**2/MTOP**2))
|
|
IF(MA.LT.MTOP.OR.MA.EQ.MTOP) TANBT = TANBA
|
|
|
|
SINB = TANBT/DSQRT(1.D0 + TANBT**2)
|
|
COSB = 1.D0/DSQRT(1.D0 + TANBT**2)
|
|
COS2B = (TANBT**2 - 1.D0)/(TANBT**2 + 1.D0)
|
|
G1 = DSQRT(ALPHA1*4.D0*PI)
|
|
G2 = DSQRT(ALPHA2*4.D0*PI)
|
|
G3 = DSQRT(ALPHA3*4.D0*PI)
|
|
HU = RMTOP/V/SINB
|
|
HD = MB/V/COSB
|
|
C
|
|
|
|
IF(MUL.GT.MUR) TP = TUL - TU
|
|
IF(MUL.LT.MUR.OR.MUL.EQ.MUR) TP = TU - TUL
|
|
IF(MUL.GT.MUR) TDP = TU
|
|
IF(MUL.LT.MUR.OR.MUL.EQ.MUR) TDP = TUL
|
|
IF(MDL.GT.MD) TPD = TDL - TD
|
|
IF(MDL.LT.MD.OR.MDL.EQ.MD) TPD = TD - TDL
|
|
IF(MDL.GT.MD) TDPD = TD
|
|
IF(MDL.LT.MD.OR.MDL.EQ.MD) TDPD = TDL
|
|
|
|
IF(MDL.GT.MD) DLAMBDA1 = 6./96./PI**2*G1**2*HD**2*TPD
|
|
IF(MDL.LT.MD.OR.MDL.EQ.MD) DLAMBDA1 = 3./32./PI**2*
|
|
* HD**2*(G1**2/3.+G2**2)*TPD
|
|
|
|
IF(MUL.GT.MUR) DLAMBDA2 =12./96./PI**2*G1**2*HU**2*TP
|
|
IF(MUL.LT.MUR.OR.MUL.EQ.MUR) DLAMBDA2 = 3./32./PI**2*
|
|
* HU**2*(-G1**2/3.+G2**2)*TP
|
|
|
|
cccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccc
|
|
c
|
|
c dlambdap1 and dlambdap2 are the new log corrections due to
|
|
c the presence of the gluino mass. They are in general very small,
|
|
c and only present if there is a hierarchy of masses between the
|
|
c two stops.
|
|
c
|
|
c
|
|
cccccccccccccccccccccccccccccccccccccccccccccccccccccccccc
|
|
|
|
dlambdap2 = 0
|
|
tglu = log(mglu**2/mtop**2)
|
|
|
|
if(mglu.lt.mur.or.mglu.lt.mul) then
|
|
if(mul.gt.mur.and.mglu.gt.mur) then
|
|
dlambdap2 = -4./(16.*pi**2)**2*hu**4*(tul**2-tglu**2)
|
|
endif
|
|
|
|
if(mul.gt.mur.and.mglu.lt.mur) then
|
|
dlambdap2 = -4./(16.*pi**2)**2*hu**4*(tul**2-tu**2)
|
|
endif
|
|
|
|
if(mul.gt.mur.and.mglu.eq.mur) then
|
|
dlambdap2 = -4./(16.*pi**2)**2*hu**4*(tul**2-tu**2)
|
|
endif
|
|
|
|
if(mur.gt.mul.and.mglu.gt.mul) then
|
|
dlambdap2 = -4./(16.*pi**2)**2*hu**4*(tu**2-tglu**2)
|
|
endif
|
|
|
|
if(mur.gt.mul.and.mglu.lt.mul) then
|
|
dlambdap2 = -4./(16.*pi**2)**2*hu**4*(tu**2-tul**2)
|
|
endif
|
|
|
|
if(mur.gt.mul.and.mglu.eq.mul) then
|
|
dlambdap2 = -4./(16.*pi**2)**2*hu**4*(tu**2-tul**2)
|
|
endif
|
|
endif
|
|
|
|
DLAMBDA3 = 0.
|
|
DLAMBDA4 = 0.
|
|
|
|
IF(MDL.GT.MD) DLAMBDA3 = -1./32./PI**2*G1**2*HD**2*TPD
|
|
IF(MDL.LT.MD.OR.MDL.EQ.MD) DLAMBDA3 = 3./64./PI**2*HD**2*
|
|
*(G2**2-G1**2/3.)*TPD
|
|
|
|
IF(MUL.GT.MUR) DLAMBDA3 = DLAMBDA3 -
|
|
*1./16./PI**2*G1**2*HU**2*TP
|
|
IF(MUL.LT.MUR.OR.MUL.EQ.MUR) DLAMBDA3 = DLAMBDA3 +
|
|
* 3./64./PI**2*HU**2*(G2**2+G1**2/3.)*TP
|
|
|
|
IF(MUL.LT.MUR) DLAMBDA4 = -3./32./PI**2*G2**2*HU**2*TP
|
|
IF(MDL.LT.MD) DLAMBDA4 = DLAMBDA4 - 3./32./PI**2*G2**2*
|
|
* HD**2*TPD
|
|
C
|
|
LAMBDA1 = ((G1**2 + G2**2)/4.)*
|
|
*(1.-3.*HD**2*(TPD + TDPD)/8./PI**2)
|
|
*+(3.*HD**4./16./PI**2) *TPD*(1.
|
|
*+ (3.*HD**2/2. + HU**2/2.
|
|
*- 8.*G3**2) * (TPD + 2.*TDPD)/16./PI**2)
|
|
*+(3.*HD**4./8./PI**2) *TDPD*(1. + (3.*HD**2/2. + HU**2/2.
|
|
*- 8.*G3**2) * TDPD/16./PI**2) + DLAMBDA1
|
|
C
|
|
LAMBDA2 = ((G1**2 + G2**2)/4.)*(1.-3.*HU**2*
|
|
*(TP + TDP)/8./PI**2)
|
|
*+(3.*HU**4./16./PI**2) *TP*(1.
|
|
*+ (3.*HU**2/2. + HD**2/2.
|
|
*- 8.*G3**2) * (TP + 2.*TDP)/16./PI**2)
|
|
*+(3.*HU**4./8./PI**2) *TDP*(1. + (3.*HU**2/2. + HD**2/2.
|
|
*- 8.*G3**2) * TDP/16./PI**2) + DLAMBDA2 + DLAMBDAP2
|
|
C
|
|
LAMBDA3 = ((G2**2 - G1**2)/4.)*(1.-3.*
|
|
*(HU**2)*(TP + TDP)/16./PI**2 -3.*
|
|
*(HD**2)*(TPD + TDPD)/16./PI**2) +DLAMBDA3
|
|
C
|
|
LAMBDA4 = (- G2**2/2.)*(1.
|
|
*-3.*(HU**2)*(TP + TDP)/16./PI**2
|
|
*-3.*(HD**2)*(TPD + TDPD)/16./PI**2) +DLAMBDA4
|
|
C
|
|
LAMBDA5 = 0.
|
|
LAMBDA6 = 0.
|
|
LAMBDA7 = 0.
|
|
|
|
C
|
|
C THIS IS THE CONTRIBUTION FROM LIGHT CHARGINOS/NEUTRALINOS
|
|
C CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
MSSUSY=DSQRT(0.5D0*(MUL**2+MUR**2)+MTOP**2)
|
|
IF(MCHI.GT.MSSUSY)GOTO 3790
|
|
IF(MCHI.LT.MTOP) MCHI=MTOP
|
|
TCHAR=LOG(MSSUSY**2/MCHI**2)
|
|
DELTAL12=(9./64./PI**2*G2**4+5./192./PI**2*G1**4)*TCHAR
|
|
DELTAL3P4=(3./64./PI**2*G2**4+7./192./PI**2*G1**4
|
|
* +4./32/PI**2*G1**2*G2**2)*TCHAR
|
|
DELTAM112=2.*DELTAL12*V**2*COSB**2
|
|
DELTAM222=2.*DELTAL12*V**2*SINB**2
|
|
DELTAM122=2.*DELTAL3P4*V**2*SINB*COSB
|
|
C--EXTENSION OF CARENA ET AL.: TRAFO MASS MATRIX -> LAMBDA_I
|
|
DLAM1 = DELTAM112/2.D0/V**2/COSB**2
|
|
DLAM2 = DELTAM222/2.D0/V**2/SINB**2
|
|
DLAM3 = DELTAM122/2.D0/V**2/SINB/COSB
|
|
. *(G1**2-G2**2)/(G1**2+G2**2)
|
|
DLAM4 = DELTAM122/2.D0/V**2/SINB/COSB
|
|
. *(2*G2**2)/(G1**2+G2**2)
|
|
LAMBDA1 = LAMBDA1+DLAM1
|
|
LAMBDA2 = LAMBDA2+DLAM2
|
|
LAMBDA3 = LAMBDA3+DLAM3
|
|
LAMBDA4 = LAMBDA4+DLAM4
|
|
C--END OF EXTENSION
|
|
3790 CONTINUE
|
|
CCCCCCCCCCCCCCC END OF CHARGINOS AND NEUTRALINOS CCCCCCCCCCCC
|
|
|
|
|
|
C--EXTENSION OF CARENA ET AL.: TRAFO MASS MATRIX -> LAMBDA_I
|
|
CALL GFUN_HDEC(MA,TANBA,MUL,MDL,MUR,MD,MTOP,AU,AD,MU,MGLU,
|
|
* DLAM1,DLAM2,DLAM3,DLAM4,DLAM5,DLAM6,DLAM7)
|
|
|
|
LAMBDA1 = LAMBDA1+DLAM1
|
|
LAMBDA2 = LAMBDA2+DLAM2
|
|
LAMBDA3 = LAMBDA3+DLAM3
|
|
LAMBDA4 = LAMBDA4+DLAM4
|
|
LAMBDA5 = LAMBDA5+DLAM5
|
|
LAMBDA6 = LAMBDA6+DLAM6
|
|
LAMBDA7 = LAMBDA7+DLAM7
|
|
c write(6,*)'l4,l5: ',LAMBDA1,LAMBDA2,LAMBDA3,LAMBDA4,LAMBDA5,
|
|
c . LAMBDA6,LAMBDA7
|
|
|
|
M2(1,1) = 2.*V**2*(LAMBDA1*COSB**2+2.*LAMBDA6*
|
|
*COSB*SINB + LAMBDA5*SINB**2) + MA**2*SINB**2
|
|
M2(2,2) = 2.*V**2*(LAMBDA5*COSB**2+2.*LAMBDA7*
|
|
*COSB*SINB + LAMBDA2*SINB**2) + MA**2*COSB**2
|
|
M2(1,2) = 2.*V**2*(LAMBDA6*COSB**2+(LAMBDA3+LAMBDA4)*
|
|
*COSB*SINB + LAMBDA7*SINB**2) - MA**2*SINB*COSB
|
|
M2(2,1) = M2(1,2)
|
|
|
|
M2P(1,1) = M2(1,1)
|
|
M2P(2,2) = M2(2,2)
|
|
M2P(1,2) = M2(1,2)
|
|
M2P(2,1) = M2(2,1)
|
|
|
|
C--END OF EXTENSION
|
|
|
|
TRM2P = M2P(1,1) + M2P(2,2)
|
|
DETM2P = M2P(1,1)*M2P(2,2) - M2P(1,2)*M2P(2,1)
|
|
|
|
MH2P = (TRM2P - DSQRT(TRM2P**2 - 4.D0* DETM2P))/2.D0
|
|
HM2P = (TRM2P + DSQRT(TRM2P**2 - 4.D0* DETM2P))/2.D0
|
|
C !!!!!!!!!!!!!!!!!!!
|
|
MCH2=MA**2+(LAMBDA5-LAMBDA4)*V**2
|
|
C !!!!!!!!!!!!!!!!!!!
|
|
MCH=DSQRT(MCH2)
|
|
HMP = DSQRT(HM2P)
|
|
IF(MH2P.LT.0.)GOTO 5555
|
|
MHP = DSQRT(MH2P)
|
|
C
|
|
SIN2ALPHA = 2.*M2P(1,2)/DSQRT(TRM2P**2-4.D0*DETM2P)
|
|
COS2ALPHA = (M2P(1,1)-M2P(2,2))/DSQRT(TRM2P**2-4.D0*DETM2P)
|
|
IF(COS2ALPHA.GT.0.) ALPHA = DASIN(SIN2ALPHA)/2.D0
|
|
IF(COS2ALPHA.LT.0.) ALPHA = -PI/2.D0-DASIN(SIN2ALPHA)/2.D0
|
|
SA = DSIN(ALPHA)
|
|
CA = DCOS(ALPHA)
|
|
SQBMA = (SINB*CA - COSB*SA)**2
|
|
|
|
5555 RETURN
|
|
END
|
|
C
|
|
CCCCCCCCCCCCCCCCCCCCCCCC NON DEGENERATE STOP/SBOTTOM EFFECTS CCCCCCCCC
|
|
C
|
|
SUBROUTINE GFUN_HDEC(MA,TANB,MUL,MDL,MUR,MD,MTOP,AT,AB,MU,MGLU,
|
|
* DLAM1,DLAM2,DLAM3,DLAM4,DLAM5,DLAM6,DLAM7)
|
|
IMPLICIT REAL*8 (A-H,L,M,O-Z)
|
|
DIMENSION VH(2,2),VH1(2,2),VH2(2,2),
|
|
* VH3T(2,2),VH3B(2,2),AL(2,2)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
G(X,Y) = 2.D0 - (X+Y)/(X-Y)*DLOG(X/Y)
|
|
|
|
IF(DABS(MU).LT.0.000001) MU = 0.000001
|
|
MUL2 = MUL**2
|
|
MDL2 = MDL**2
|
|
MUR2 = MUR**2
|
|
MD2 = MD**2
|
|
TANBA = TANB
|
|
SINBA = TANBA/DSQRT(TANBA**2+1.D0)
|
|
COSBA = SINBA/TANBA
|
|
SINB = TANB/DSQRT(TANB**2+1.D0)
|
|
COSB = SINB/TANB
|
|
|
|
MB = RUNM_HDEC(MTOP,5,0)
|
|
PI = 4*DATAN(1D0)
|
|
MZ = AMZ
|
|
MW = AMW
|
|
V = 1/DSQRT(2*DSQRT(2D0)*GF)
|
|
CW = AMW**2/AMZ**2
|
|
SW = 1-CW
|
|
ALPHA2 = (2*AMW/V/DSQRT(2D0))**2/4/PI
|
|
ALPHA1 = ALPHA2*SW/CW
|
|
ALPHA3Z = ALPHAS_HDEC(AMZ,3)
|
|
ALPHA3 = ALPHAS_HDEC(MTOP,3)
|
|
|
|
G1 = DSQRT(ALPHA1*4.*PI)
|
|
G2 = DSQRT(ALPHA2*4.*PI)
|
|
G3 = DSQRT(ALPHA3*4.*PI)
|
|
|
|
IF(MUL.GT.MUR) MST = MUL
|
|
IF(MUR.GT.MUL.OR.MUR.EQ.MUL) MST = MUR
|
|
MSUSYT = DSQRT(MST**2 + MTOP**2)
|
|
|
|
IF(MDL.GT.MD) MSB = MDL
|
|
IF(MD.GT.MDL.OR.MD.EQ.MDL) MSB = MD
|
|
MSUSYB = DSQRT(MSB**2 + MB**2)
|
|
|
|
TT = LOG(MSUSYT**2/MTOP**2)
|
|
TB = LOG(MSUSYB**2/MTOP**2)
|
|
|
|
RMTOP = RUNM_HDEC(MTOP,6,0)
|
|
|
|
HT = RMTOP/V/SINB
|
|
HTST = RMTOP/V
|
|
HB = MB/V/COSB
|
|
G32 = ALPHA3*4.*PI
|
|
|
|
BT2 = -(8.*G32 - 9.*HT**2/2. - HB**2/2.)/(4.*PI)**2
|
|
BB2 = -(8.*G32 - 9.*HB**2/2. - HT**2/2.)/(4.*PI)**2
|
|
AL2 = 3./8./PI**2*HT**2
|
|
BT2ST = -(8.*G32 - 9.*HTST**2/2.)/(4.*PI)**2
|
|
ALST = 3./8./PI**2*HTST**2
|
|
AL1 = 3./8./PI**2*HB**2
|
|
|
|
AL(1,1) = AL1
|
|
AL(1,2) = (AL2+AL1)/2.
|
|
AL(2,1) = (AL2+AL1)/2.
|
|
AL(2,2) = AL2
|
|
|
|
IF(MA.GT.MTOP) THEN
|
|
VI = V*(1. + 3./32./PI**2*HTST**2*LOG(MTOP**2/MA**2))
|
|
H1I = VI*COSBA
|
|
H2I = VI*SINBA
|
|
H1T = H1I*(1.+3./8./PI**2*HB**2*LOG(MA**2/MSUSYT**2))**.25
|
|
H2T = H2I*(1.+3./8./PI**2*HT**2*LOG(MA**2/MSUSYT**2))**.25
|
|
H1B = H1I*(1.+3./8./PI**2*HB**2*LOG(MA**2/MSUSYB**2))**.25
|
|
H2B = H2I*(1.+3./8./PI**2*HT**2*LOG(MA**2/MSUSYB**2))**.25
|
|
ELSE
|
|
VI = V
|
|
H1I = VI*COSB
|
|
H2I = VI*SINB
|
|
H1T = H1I*(1.+3./8./PI**2*HB**2*LOG(MTOP**2/MSUSYT**2))**.25
|
|
H2T = H2I*(1.+3./8./PI**2*HT**2*LOG(MTOP**2/MSUSYT**2))**.25
|
|
H1B = H1I*(1.+3./8./PI**2*HB**2*LOG(MTOP**2/MSUSYB**2))**.25
|
|
H2B = H2I*(1.+3./8./PI**2*HT**2*LOG(MTOP**2/MSUSYB**2))**.25
|
|
END IF
|
|
|
|
TANBST = H2T/H1T
|
|
SINBT = TANBST/(1.+TANBST**2)**.5
|
|
COSBT = SINBT/TANBST
|
|
|
|
TANBSB = H2B/H1B
|
|
SINBB = TANBSB/(1.+TANBSB**2)**.5
|
|
COSBB = SINBB/TANBSB
|
|
|
|
CALL DELMB_HDEC(MA,TANB,MUL,MDL,MUR,MD,AT,AB,MU,MGLU,
|
|
. MTOP,DELTAMT,DELTAMB,STOP12,STOP22,SBOT12,SBOT22)
|
|
|
|
IF(STOP22.LT.0.) GOTO 4237
|
|
IF(SBOT22.LT.0.) GOTO 4237
|
|
|
|
STOP1 = STOP12**.5
|
|
STOP2 = STOP22**.5
|
|
SBOT1 = SBOT12**.5
|
|
SBOT2 = SBOT22**.5
|
|
|
|
mtop4 = rmtop**4.*(1.+2.*bt2*tt- al2*tt - 4.*deltamt)
|
|
c * /(1.+deltamt)**4.
|
|
mbot4 = mb**4.*(1.+2.*bb2*tb - al1*tb)
|
|
* /(1.+deltamb)**4.
|
|
MTOP2 = DSQRT(MTOP4)
|
|
MBOT2 = DSQRT(MBOT4)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
mtop2 = rmtop**2*(1+bt2*tt- al2*tt/2 - 2*deltamt)
|
|
c * /(1+deltamt)**2
|
|
mbot2 = mb**2*(1+bb2*tb - al1*tb/2)
|
|
* /(1+deltamb)**2
|
|
mtop4 = mtop2**2
|
|
mbot4 = mbot2**2
|
|
c write(6,*)'gfun: ',mbot2,mb,bb2,tb,al1,deltamb
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
mb = mb/(1+deltamb)
|
|
|
|
VH1(1,1) = 1./TANBST
|
|
VH1(2,1) = -1.
|
|
VH1(1,2) = -1.
|
|
VH1(2,2) = TANBST
|
|
VH2(1,1) = TANBST
|
|
VH2(1,2) = -1.
|
|
VH2(2,1) = -1.
|
|
VH2(2,2) = 1./TANBST
|
|
|
|
C CCCCCCCCCCCCCCCCCCCCCCCCCCC D-terms CCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
STW=SW
|
|
|
|
F1T=(MUL2-MUR2)/(STOP12-STOP22)*(.5-4./3.*STW)*
|
|
* LOG(STOP1/STOP2)
|
|
* +(.5-2./3.*STW)*LOG(STOP1*STOP2/(MUL2+MTOP2))
|
|
* + 2./3.*STW*LOG(STOP1*STOP2/(MUR2+MTOP2))
|
|
|
|
F1B=(MDL2-MD2)/(SBOT12-SBOT22)*(-.5+2./3.*STW)*
|
|
* LOG(SBOT1/SBOT2)
|
|
* +(-.5+1./3.*STW)*LOG(SBOT1*SBOT2/(MDL2+MBOT2))
|
|
* - 1./3.*STW*LOG(SBOT1*SBOT2/(MD2+MBOT2))
|
|
|
|
F2T=1/(STOP12-STOP22)*
|
|
* (-.5*LOG(STOP12/STOP22)
|
|
* +(4./3.*STW-.5)*(MUL2-MUR2)/(STOP12-STOP22)*
|
|
* G(STOP12,STOP22))
|
|
|
|
F2B=1/(SBOT12-SBOT22)*
|
|
* (.5*LOG(SBOT12/SBOT22)
|
|
* +(-2./3.*STW+.5)*(MDL2-MD2)/(SBOT12-SBOT22)*
|
|
* G(SBOT12,SBOT22))
|
|
|
|
C*************************************************************
|
|
C
|
|
C--EXTENSION OF CARENA ET AL.: TRAFO MASS MATRIX -> LAMBDA_I
|
|
C
|
|
C TRAFOS APPROXIMATE -> EXACT:
|
|
C
|
|
C (i) 1/M_{SUSY}^2 -> LOG(M1^2/M2^2) / (M1^2-M2^2)
|
|
C
|
|
C (ii) 1/M_{SUSY}^4 -> -6 G(M1^2,M2^2) / (M1^2-M2^2)^2
|
|
C
|
|
C Then use results of Phys. Lett. B355 (1995) 209 in order to
|
|
C obtain the results for lambda_1 - lambda_7 according to
|
|
C Nucl. Phys. B461 (1996) 407. Perform a full evolution from
|
|
C M_SUSY -> m_t for lambdas (anomalous dimensions, v_i).
|
|
C
|
|
C - ht^2*hb^2 terms neglected in lambda_3,4 (according to
|
|
C Nucl. Phys. B461 (1996) 407)
|
|
C
|
|
C*************************************************************
|
|
|
|
DLAM1T = MTOP4/(SINBT**4)*(MU**2/(STOP1**2
|
|
* -STOP2**2))**2*G(STOP12,STOP22)
|
|
* - MZ**2*MTOP2*MU**2/TANBST**2*F2T/COSBT**2
|
|
|
|
DLAM1B = MBOT4/(COSBB**4)*(LOG(SBOT1**2*SBOT2**2/
|
|
* (MDL2+MBOT2)/(MD2+MBOT2))
|
|
* + 2*AB**2/(SBOT1**2-SBOT2**2)*LOG(SBOT1**2/SBOT2**2))
|
|
* + MBOT4/(COSBB**4)*(AB**2/
|
|
* (SBOT1**2-SBOT2**2))**2*G(SBOT12,SBOT22)
|
|
* + MZ**2*(2*MBOT2*F1B-MBOT2*AB**2*F2B)/COSBB**2
|
|
c write(6,*)'dlam1b: ',dlam1b,mbot4,mbot2,sbot1,sbot2
|
|
|
|
DLAM2T = MTOP4/(SINBT**4)*(LOG(STOP1**2*STOP2**2/
|
|
* (MUL2+MTOP2)/(MUR2+MTOP2))
|
|
* + 2*AT**2/(STOP1**2-STOP2**2)*LOG(STOP1**2/STOP2**2))
|
|
* + MTOP4/(SINBT**4)*(AT**2/
|
|
* (STOP1**2-STOP2**2))**2*G(STOP12,STOP22)
|
|
* + MZ**2*(-2*MTOP2*F1T+MTOP2*AT**2*F2T)/SINBT**2
|
|
|
|
DLAM2B = MBOT4/(COSBB**4)*MU**4/(SBOT1**2
|
|
* -SBOT2**2)**2*G(SBOT12,SBOT22)
|
|
* + MZ**2*MBOT2*MU**2*TANBSB**2*F2B/SINBB**2
|
|
|
|
DLAM3T = MTOP4/(SINBT**4)*
|
|
* MU**2/(STOP1**2-STOP2**2)*(LOG(STOP1**2/STOP2**2)/2.D0
|
|
* + AT**2/(STOP1**2-STOP2**2)*G(STOP12,STOP22))
|
|
* + MZ**2*(MTOP2/TANBST*F1T-MTOP2*(AT**2-MU**2)/TANBST/2.*F2T)
|
|
* /SINBT/COSBT/2
|
|
c * + MTOP2*MBOT2/(SINBT**2*COSBB**2)*(
|
|
c * LOG(STOP1**2*STOP2**2/(MQ2+MTOP2)/(MUR2+MTOP2))
|
|
c * + LOG(SBOT1**2*SBOT2**2/(MQ2+MBOT2)/(MD2+MBOT2))
|
|
c * + ((AT+AB)**2/2-MU**2)*(
|
|
c * 1.D0/(STOP1**2-SBOT1**2)*LOG(STOP1**2/SBOT1**2)
|
|
c * + 1.D0/(STOP2**2-SBOT2**2)*LOG(STOP2**2/SBOT2**2))
|
|
c * - (MU**2-AT*AB)**2*(
|
|
c * - 1.D0/(STOP1**2-SBOT1**2)**2*G(STOP12,SBOT12)
|
|
c * - 1.D0/(STOP2**2-SBOT2**2)**2*G(STOP22,SBOT22)))
|
|
|
|
DLAM3B = MBOT4/(COSBB**4)*MU**2/(SBOT1**2-SBOT2**2)*(
|
|
* LOG(SBOT1**2/SBOT2**2)/2.D0
|
|
* + AB**2/(SBOT1**2-SBOT2**2)*G(SBOT12,SBOT22))
|
|
* + MZ**2*(-MBOT2*TANBSB*F1B+MBOT2*(AB**2-MU**2)*TANBSB/2.*F2B)
|
|
* /SINBB/COSBB/2
|
|
|
|
DLAM4T = MTOP4/(SINBT**4)*
|
|
* MU**2/(STOP1**2-STOP2**2)*(LOG(STOP1**2/STOP2**2)/2.D0
|
|
* + AT**2/(STOP1**2-STOP2**2)*G(STOP12,STOP22))
|
|
* + MZ**2*(MTOP2/TANBST*F1T-MTOP2*(AT**2-MU**2)/TANBST/2.*F2T)
|
|
* /SINBT/COSBT/2
|
|
c * - MTOP2*MBOT2/(SINBT**2*COSBB**2)*(
|
|
c * LOG(STOP1**2*STOP2**2/(MQ2+MTOP2)/(MUR2+MTOP2))
|
|
c * + LOG(SBOT1**2*SBOT2**2/(MQ2+MBOT2)/(MD2+MBOT2))
|
|
c * + ((AT+AB)**2/2-MU**2)*(
|
|
c * 1.D0/(STOP1**2-SBOT1**2)*LOG(STOP1**2/SBOT1**2)
|
|
c * + 1.D0/(STOP2**2-SBOT2**2)*LOG(STOP2**2/SBOT2**2))
|
|
c * - (MU**2-AT*AB)**2*(
|
|
c * - 1.D0/(STOP1**2-SBOT1**2)**2*G(STOP12,SBOT12)
|
|
c * - 1.D0/(STOP2**2-SBOT2**2)**2*G(STOP22,SBOT22)))
|
|
|
|
DLAM4B = MBOT4/(COSBB**4)*MU**2/(SBOT1**2-SBOT2**2)*(
|
|
* LOG(SBOT1**2/SBOT2**2)/2.D0
|
|
* + AB**2/(SBOT1**2-SBOT2**2)*G(SBOT12,SBOT22))
|
|
* + MZ**2*(-MBOT2*TANBSB*F1B+MBOT2*(AB**2-MU**2)*TANBSB/2.*F2B)
|
|
* /SINBB/COSBB/2
|
|
|
|
DLAM5T = MTOP4/(SINBT**4)*
|
|
* (MU**2*AT**2)/(STOP1**2-STOP2**2)**2*G(STOP12,STOP22)
|
|
|
|
DLAM5B = MBOT4/(COSBB**4)*
|
|
* (MU**2*AB**2)/(SBOT1**2-SBOT2**2)**2*G(SBOT12,SBOT22)
|
|
|
|
DLAM6T = MTOP4/(SINBT**4)*
|
|
* (-MU**3*AT)/(STOP1**2-STOP2**2)**2*G(STOP12,STOP22)
|
|
* + MZ**2*MTOP2*MU*AT/TANBST*F2T/(2*SINBT*COSBT)
|
|
|
|
DLAM6B = MBOT4/(COSBB**4)*MU*AB*
|
|
* (-1.D0/(SBOT1**2-SBOT2**2)*LOG(SBOT1**2/SBOT2**2)
|
|
* -AB**2/(SBOT1**2-SBOT2**2)**2*G(SBOT12,SBOT22))
|
|
* - MZ**2*(-MBOT2*AB*MU*TANBSB*F2B)/(2*SINBB*COSBB)
|
|
|
|
DLAM7T = MTOP4/(SINBT**4)*MU*AT*
|
|
* (-1.D0/(STOP1**2-STOP2**2)*LOG(STOP1**2/STOP2**2)
|
|
* -AT**2/(STOP1**2-STOP2**2)**2*G(STOP12,STOP22))
|
|
* - MZ**2*MTOP2*AT*MU/TANBST*F2T/(2*SINBT*COSBT)
|
|
|
|
DLAM7B = MBOT4/(COSBB**4)*
|
|
* (-MU**3*AB)/(SBOT1**2-SBOT2**2)**2*G(SBOT12,SBOT22)
|
|
* - MZ**2*MBOT2*MU*AB*TANBSB*F2B/(2*SINBB*COSBB)
|
|
|
|
TQ = LOG((MUL2 + MTOP2)/MTOP2)
|
|
TU = LOG((MUR2+MTOP2)/MTOP2)
|
|
TQD = LOG((MDL2 + MB**2)/MB**2)
|
|
TD = LOG((MD2+MB**2)/MB**2)
|
|
|
|
FACT = 3.D0/(16.D0*PI**2*(H1T**2+H2T**2)**2)
|
|
FACB = 3.D0/(16.D0*PI**2*(H1B**2+H2B**2)**2)
|
|
|
|
DLAM1 = FACT*DLAM1T*(1.-AL1*TT) + FACB*DLAM1B*(1.-AL1*TB)
|
|
|
|
DLAM2 = FACT*DLAM2T*(1.-AL2*TT) + FACB*DLAM2B*(1.-AL2*TB)
|
|
|
|
DLAM3 = FACT*DLAM3T*(1.-(AL1+AL2)/2*TT)
|
|
* + FACB*DLAM3B*(1.-(AL1+AL2)/2*TB)
|
|
|
|
DLAM4 = FACT*DLAM4T*(1.-(AL1+AL2)/2*TT)
|
|
* + FACB*DLAM4B*(1.-(AL1+AL2)/2*TB)
|
|
|
|
DLAM5 = FACT*DLAM5T*(1.-(AL1+AL2)/2*TT)
|
|
* + FACB*DLAM5B*(1.-(AL1+AL2)/2*TB)
|
|
|
|
DLAM6 = FACT*DLAM6T*(1.-(3*AL1+AL2)/4*TT)
|
|
* + FACB*DLAM6B*(1.-(3*AL1+AL2)/4*TB)
|
|
|
|
DLAM7 = FACT*DLAM7T*(1.-(AL1+3*AL2)/4*TT)
|
|
* + FACB*DLAM7B*(1.-(AL1+3*AL2)/4*TB)
|
|
|
|
FACTOR = 1.D0
|
|
DLAM1 = DLAM1 * FACTOR
|
|
DLAM2 = DLAM2 * FACTOR
|
|
DLAM3 = DLAM3 * FACTOR
|
|
DLAM4 = DLAM4 * FACTOR
|
|
DLAM5 = DLAM5 * FACTOR
|
|
DLAM6 = DLAM6 * FACTOR
|
|
DLAM7 = DLAM7 * FACTOR
|
|
c write(6,*)'lambda1: ',DLAM1T,DLAM1B
|
|
c write(6,*)'lambda2: ',DLAM2T,DLAM2B
|
|
c write(6,*)'lambda3: ',DLAM3T,DLAM3B
|
|
c write(6,*)'lambda4: ',DLAM4T,DLAM4B
|
|
c write(6,*)'lambda5: ',DLAM5T,DLAM5B
|
|
c write(6,*)'lambda6: ',DLAM6T,DLAM6B
|
|
c write(6,*)'lambda7: ',DLAM7T,DLAM7B
|
|
c write(6,*)'param: ',AL1,AL2,FACT,FACB,TT,TB
|
|
|
|
C--END OF EXTENSION
|
|
|
|
GOTO 4236
|
|
4237 CONTINUE
|
|
|
|
DLAM1 = -1.D+15
|
|
DLAM2 = -1.D+15
|
|
DLAM3 = -1.D+15
|
|
DLAM4 = -1.D+15
|
|
DLAM5 = -1.D+15
|
|
DLAM6 = -1.D+15
|
|
DLAM7 = -1.D+15
|
|
|
|
4236 RETURN
|
|
END
|
|
ccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccc
|
|
c End of program from M. Carena, M. Quiros and C.E.M. Wagner.
|
|
cccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccc
|
|
|
|
FUNCTION T_HDEC(X,Y,Z)
|
|
implicit real*8(a-h,l,m,o-z)
|
|
delta(a,b) = dabs((a-b)/(a+b))
|
|
cut = 0.0001d0
|
|
c if(x.eq.y) x = x - 0.00001
|
|
c if(x.eq.z) x = x - 0.00002
|
|
c if(y.eq.z) y = y - 0.00003
|
|
if(delta(x,y).lt.cut) then
|
|
if(delta(x,z).lt.cut) then
|
|
t_hdec = 1/x**2/2
|
|
else
|
|
t_hdec = (x**2-z**2+z**2*log(z**2/x**2))/(x**2-z**2)**2
|
|
endif
|
|
elseif(delta(x,z).lt.cut) then
|
|
if(delta(x,y).lt.cut) then
|
|
t_hdec = 1/x**2/2
|
|
else
|
|
t_hdec = (x**2-y**2+y**2*log(y**2/x**2))/(x**2-y**2)**2
|
|
endif
|
|
elseif(delta(y,z).lt.cut) then
|
|
if(delta(x,y).lt.cut) then
|
|
t_hdec = 1/x**2/2
|
|
else
|
|
t_hdec = (x**2-y**2+y**2*log(y**2/x**2))/(x**2-y**2)**2
|
|
endif
|
|
else
|
|
t_hdec = (x**2*y**2*log(x**2/y**2) + x**2*z**2*log(z**2/x**2)
|
|
* + y**2*z**2*log(y**2/z**2))/((x**2-y**2)*(y**2-z**2)*(x**2-z**2))
|
|
endif
|
|
return
|
|
end
|
|
|
|
SUBROUTINE DELMB_HDEC(MA,TANB,MUL,MDL,MUR,MD,AT,AB,MU,MGLU,
|
|
. MTOP,DELTAMT,DELTAMB,STOP12,STOP22,SBOT12,SBOT22)
|
|
IMPLICIT REAL*8 (A-H,L,M,O-Z)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
|
|
IF(DABS(MU).LT.0.000001) MU = 0.000001
|
|
MUL2 = MUL**2
|
|
MDL2 = MDL**2
|
|
MUR2 = MUR**2
|
|
MD2 = MD**2
|
|
TANBA = TANB
|
|
SINBA = TANBA/DSQRT(TANBA**2+1.D0)
|
|
COSBA = SINBA/TANBA
|
|
SINB = TANB/DSQRT(TANB**2+1.D0)
|
|
COSB = SINB/TANB
|
|
|
|
RMTOP = RUNM_HDEC(MTOP,6,0)
|
|
MB = RUNM_HDEC(MTOP,5,0)
|
|
PI = 4*DATAN(1D0)
|
|
MZ = AMZ
|
|
MW = AMW
|
|
V = 1/DSQRT(2*DSQRT(2D0)*GF)
|
|
CW = AMW**2/AMZ**2
|
|
SW = 1-CW
|
|
ALPHA2 = (2*AMW/V/DSQRT(2D0))**2/4/PI
|
|
ALPHA1 = ALPHA2*SW/CW
|
|
ALPHA3Z = ALPHAS_HDEC(AMZ,3)
|
|
ALPHA3 = ALPHAS_HDEC(MTOP,3)
|
|
|
|
G1 = DSQRT(ALPHA1*4.*PI)
|
|
G2 = DSQRT(ALPHA2*4.*PI)
|
|
G3 = DSQRT(ALPHA3*4.*PI)
|
|
|
|
IF(MUL.GT.MUR) MST = MUL
|
|
IF(MUR.GT.MUL.OR.MUR.EQ.MUL) MST = MUR
|
|
MSUSYT = DSQRT(MST**2 + MTOP**2)
|
|
|
|
IF(MDL.GT.MD) MSB = MDL
|
|
IF(MD.GT.MDL.OR.MD.EQ.MDL) MSB = MD
|
|
MSUSYB = DSQRT(MSB**2 + MB**2)
|
|
|
|
TT = LOG(MSUSYT**2/MTOP**2)
|
|
TB = LOG(MSUSYB**2/MTOP**2)
|
|
|
|
HT = RMTOP/V/SINB
|
|
HTST = RMTOP/V
|
|
HB = MB/V/COSB
|
|
G32 = ALPHA3*4.*PI
|
|
|
|
BT2 = -(8.*G32 - 9.*HT**2/2. - HB**2/2.)/(4.*PI)**2
|
|
BB2 = -(8.*G32 - 9.*HB**2/2. - HT**2/2.)/(4.*PI)**2
|
|
AL2 = 3./8./PI**2*HT**2
|
|
BT2ST = -(8.*G32 - 9.*HTST**2/2.)/(4.*PI)**2
|
|
ALST = 3./8./PI**2*HTST**2
|
|
AL1 = 3./8./PI**2*HB**2
|
|
|
|
IF(MA.GT.MTOP) THEN
|
|
VI = V*(1. + 3./32./PI**2*HTST**2*LOG(MTOP**2/MA**2))
|
|
H1I = VI*COSBA
|
|
H2I = VI*SINBA
|
|
H1T = H1I*(1.+3./8./PI**2*HB**2*LOG(MA**2/MSUSYT**2))**.25
|
|
H2T = H2I*(1.+3./8./PI**2*HT**2*LOG(MA**2/MSUSYT**2))**.25
|
|
H1B = H1I*(1.+3./8./PI**2*HB**2*LOG(MA**2/MSUSYB**2))**.25
|
|
H2B = H2I*(1.+3./8./PI**2*HT**2*LOG(MA**2/MSUSYB**2))**.25
|
|
ELSE
|
|
VI = V
|
|
H1I = VI*COSB
|
|
H2I = VI*SINB
|
|
H1T = H1I*(1.+3./8./PI**2*HB**2*LOG(MTOP**2/MSUSYT**2))**.25
|
|
H2T = H2I*(1.+3./8./PI**2*HT**2*LOG(MTOP**2/MSUSYT**2))**.25
|
|
H1B = H1I*(1.+3./8./PI**2*HB**2*LOG(MTOP**2/MSUSYB**2))**.25
|
|
H2B = H2I*(1.+3./8./PI**2*HT**2*LOG(MTOP**2/MSUSYB**2))**.25
|
|
END IF
|
|
|
|
TANBST = H2T/H1T
|
|
SINBT = TANBST/(1.+TANBST**2)**.5
|
|
COSBT = SINBT/TANBST
|
|
c write(6,*)'delmb: ',h1t,h2t,tanbst,ma,h2i,ht,msusyt,
|
|
c . 3./8./PI**2*HT**2*LOG(MTOP**2/MSUSYT**2)
|
|
|
|
TANBSB = H2B/H1B
|
|
SINBB = TANBSB/(1.+TANBSB**2)**.5
|
|
COSBB = SINBB/TANBSB
|
|
|
|
deltamt = 0
|
|
deltamb = 0
|
|
|
|
mtop4 = rmtop**4.*(1.+2.*bt2*tt- al2*tt - 4.*deltamt)
|
|
c * /(1.+deltamt)**4.
|
|
mbot4 = mb**4.*(1.+2.*bb2*tb - al1*tb)
|
|
* /(1.+deltamb)**4.
|
|
MTOP2 = DSQRT(MTOP4)
|
|
MBOT2 = DSQRT(MBOT4)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
mtop2 = rmtop**2*(1+bt2*tt- al2*tt/2 - 2*deltamt)
|
|
c * /(1+deltamt)**2
|
|
mbot2 = mb**2*(1+bb2*tb - al1*tb/2)
|
|
* /(1+deltamb)**2
|
|
mtop4 = mtop2**2
|
|
mbot4 = mbot2**2
|
|
c write(6,*)'delmb: ',mbot2,mbot4,deltamb
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
STOP12 = (MUL2 + MUR2)*.5 + MTOP2
|
|
* +1./8.*(G2**2+G1**2)*(H1T**2-H2T**2)
|
|
* +(((G2**2-5.*G1**2/3.)/4.*(H1T**2-H2T**2) +
|
|
* MUL2 - MUR2)**2*0.25 + MTOP2*(AT-MU/TANBST)**2)**.5
|
|
|
|
STOP22 = (MUL2 + MUR2)*.5 + MTOP2
|
|
* +1./8.*(G2**2+G1**2)*(H1T**2-H2T**2)
|
|
* - (((G2**2-5.*G1**2/3.)/4.*(H1T**2-H2T**2) +
|
|
* MUL2 - MUR2)**2*0.25
|
|
* + MTOP2*(AT-MU/TANBST)**2)**.5
|
|
|
|
IF(STOP22.LT.0.) GOTO 4237
|
|
|
|
SBOT12 = (MDL2 + MD2)*.5
|
|
* - 1./8.*(G2**2+G1**2)*(H1B**2-H2B**2)
|
|
* + (((G1**2/3.-G2**2)/4.*(H1B**2-H2B**2) +
|
|
* MDL2 - MD2)**2*0.25 + MBOT2*(AB-MU*TANBSB)**2)**.5
|
|
|
|
SBOT22 = (MDL2 + MD2)*.5
|
|
* - 1./8.*(G2**2+G1**2)*(H1B**2-H2B**2)
|
|
* - (((G1**2/3.-G2**2)/4.*(H1B**2-H2B**2) +
|
|
* MDL2 - MD2)**2*0.25 + MBOT2*(AB-MU*TANBSB)**2)**.5
|
|
|
|
IF(SBOT22.LT.0.) GOTO 4237
|
|
|
|
STOP1 = STOP12**.5
|
|
STOP2 = STOP22**.5
|
|
SBOT1 = SBOT12**.5
|
|
SBOT2 = SBOT22**.5
|
|
|
|
ccccccccccccccccccccccccccccccccccccccccccccccccccccccccc
|
|
c
|
|
c Here is the definition of deltamb and deltamt, which
|
|
c are the vertex corrections to the bottom and top quark
|
|
c mass, keeping the dominant QCD and top Yukawa coupling
|
|
c induced corrections.
|
|
c
|
|
cccccccccccccccccccccccccccccccccccccccccccccccccccccccccc
|
|
|
|
deltamb = -2*alpha3/3./pi*mglu*(ab-mu*tanb)*
|
|
* T_HDEC(sbot1,sbot2,mglu)
|
|
* + ht**2/(4.*pi)**2*(at-mu/tanb)*mu*tanb*
|
|
* T_HDEC(stop1,stop2,mu)
|
|
|
|
deltamt = -2.*alpha3/3./pi*(at-mu/tanb)*mglu*
|
|
* T_HDEC(stop1,stop2,mglu)
|
|
|
|
ccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccc
|
|
c
|
|
c Here the new values of the top and bottom quark masses at
|
|
c the scale MS are defined, to be used in the effective
|
|
c potential approximation. They are just the old ones, but
|
|
c including the finite corrections deltamt and deltamb.
|
|
c The deltamb corrections can become large and are resummed
|
|
c to all orders, as suggested in the two recent works by M. Carena,
|
|
c S. Mrenna and C.E.M. Wagner, as well as in the work by M. Carena,
|
|
c D. Garcia, U. Nierste and C.E.M. Wagner, to appear. The top
|
|
c quark mass corrections are small and are kept in the perturbative
|
|
c formulation. The function T(X,Y,Z) is necessary for the calculation.
|
|
c the entries are masses and NOT their squares !
|
|
c
|
|
c
|
|
ccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccccc
|
|
|
|
|
|
mtop4 = rmtop**4.*(1.+2.*bt2*tt- al2*tt - 4.*deltamt)
|
|
c * /(1.+deltamt)**4.
|
|
mbot4 = mb**4.*(1.+2.*bb2*tb - al1*tb)
|
|
* /(1.+deltamb)**4.
|
|
MTOP2 = DSQRT(MTOP4)
|
|
MBOT2 = DSQRT(MBOT4)
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
mtop2 = rmtop**2*(1+bt2*tt- al2*tt/2 - 2*deltamt)
|
|
c * /(1+deltamt)**2
|
|
mbot2 = mb**2*(1+bb2*tb - al1*tb/2)
|
|
* /(1+deltamb)**2
|
|
mtop4 = mtop2**2
|
|
mbot4 = mbot2**2
|
|
c>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
STOP12 = (MUL2 + MUR2)*.5 + MTOP2
|
|
* +1./8.*(G2**2+G1**2)*(H1T**2-H2T**2)
|
|
* +(((G2**2-5.*G1**2/3.)/4.*(H1T**2-H2T**2) +
|
|
* MUL2 - MUR2)**2*0.25 + MTOP2*(AT-MU/TANBST)**2)**.5
|
|
|
|
STOP22 = (MUL2 + MUR2)*.5 + MTOP2
|
|
* +1./8.*(G2**2+G1**2)*(H1T**2-H2T**2)
|
|
* - (((G2**2-5.*G1**2/3.)/4.*(H1T**2-H2T**2) +
|
|
* MUL2 - MUR2)**2*0.25
|
|
* + MTOP2*(AT-MU/TANBST)**2)**.5
|
|
|
|
IF(STOP22.LT.0.) GOTO 4237
|
|
|
|
SBOT12 = (MDL2 + MD2)*.5
|
|
* - 1./8.*(G2**2+G1**2)*(H1B**2-H2B**2)
|
|
* + (((G1**2/3.-G2**2)/4.*(H1B**2-H2B**2) +
|
|
* MDL2 - MD2)**2*0.25 + MBOT2*(AB-MU*TANBSB)**2)**.5
|
|
|
|
SBOT22 = (MDL2 + MD2)*.5
|
|
* - 1./8.*(G2**2+G1**2)*(H1B**2-H2B**2)
|
|
* - (((G1**2/3.-G2**2)/4.*(H1B**2-H2B**2) +
|
|
* MDL2 - MD2)**2*0.25 + MBOT2*(AB-MU*TANBSB)**2)**.5
|
|
|
|
4237 RETURN
|
|
END
|
|
|
|
C%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
|
|
|
|
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
C THIS PROGRAM COMPUTES THE RENORMALIZATION GROUP IMPROVED
|
|
C VALUES OF HIGGS MASSES AND COUPLINGS IN THE MSSM.
|
|
C
|
|
C INPUT: MA,TANB = TAN(BETA),MQ,MUR,MTOP,AU,AD,MU.
|
|
C
|
|
C ALL MASSES IN GEV UNITS. MA IS THE CP-ODD HIGGS MASS,
|
|
C MTOP IS THE PHYSICAL TOP MASS, MQ AND MUR ARE THE SOFT
|
|
C SUPERSYMMETRY BREAKING MASS PARAMETERS OF LEFT HANDED
|
|
C AND RIGHT HANDED STOPS RESPECTIVELY, AU AND AD ARE THE
|
|
C STOP AND SBOTTOM TRILINEAR SOFT BREAKING TERMS,
|
|
C RESPECTIVELY, AND MU IS THE SUPERSYMMETRIC
|
|
C HIGGS MASS PARAMETER. WE USE THE CONVENTIONS FROM
|
|
C THE PHYSICS REPORT OF HABER AND KANE: LEFT RIGHT
|
|
C STOP MIXING TERM PROPORTIONAL TO (AU - MU/TANB).
|
|
C
|
|
C WE USE AS INPUT TANB DEFINED AT THE SCALE MTOP.
|
|
C
|
|
C OUTPUT: MH,HM,MHCH, SA = SIN(ALPHA), CA= COS(ALPHA), TANBA
|
|
C
|
|
C WHERE MH AND HM ARE THE LIGHTEST AND HEAVIEST CP-EVEN
|
|
C HIGGS MASSES, MHCH IS THE CHARGED HIGGS MASS AND
|
|
C ALPHA IS THE HIGGS MIXING ANGLE.
|
|
C
|
|
C TANBA IS THE ANGLE TANB AT THE CP-ODD HIGGS MASS SCALE.
|
|
C
|
|
C RANGE OF VALIDITY:
|
|
C
|
|
C (STOP1**2 - STOP2**2)/(STOP2**2 + STOP1**2) < 0.5
|
|
C (SBOT1**2 - SBOT2**2)/(SBOT2**2 + SBOT2**2) < 0.5
|
|
C
|
|
C WHERE STOP1, STOP2, SBOT1 AND SBOT2 ARE THE STOP AND
|
|
C ARE THE SBOTTOM MASS EIGENVALUES, RESPECTIVELY. THIS
|
|
C RANGE AUTOMATICALLY EXCLUDES THE EXISTENCE OF TACHYONS.
|
|
C
|
|
C
|
|
C FOR THE CHARGED HIGGS MASS COMPUTATION, THE METHOD IS
|
|
C VALID IF
|
|
C
|
|
C 2 * |MB * AD* TANB| < M_SUSY**2, 2 * |MTOP * AU| < M_SUSY**2
|
|
C
|
|
C 2 * |MB * MU * TANB| < M_SUSY**2, 2 * |MTOP * MU| < M_SUSY**2
|
|
C
|
|
C WHERE M_SUSY**2 IS THE AVERAGE OF THE SQUARED STOP MASS
|
|
C EIGENVALUES, M_SUSY**2 = (STOP1**2 + STOP2**2)/2. THE SBOTTOM
|
|
C MASSES HAVE BEEN ASSUMED TO BE OF ORDER OF THE STOP ONES.
|
|
C
|
|
C M_SUSY**2 = (MQ**2 + MUR**2)*0.5 + MTOP**2
|
|
C
|
|
C PROGRAM BASED ON THE WORK BY M. CARENA, J.R. ESPINOSA,
|
|
C M. QUIROS AND C.E.M. WAGNER, PHYS. LETT. B355 (1995) 209
|
|
C
|
|
CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC
|
|
|
|
SUBROUTINE SUBH2_HDEC(MA,TANB,MQ,MUR,MTOP,AU,AD,MU,MH,HM,
|
|
* MHCH,SA,CA,TANBA)
|
|
IMPLICIT REAL*8(A-H,L,M,O-Z)
|
|
COMMON/PARAM_HDEC/GF,ALPH,AMTAU,AMMUON,AMZ,AMW
|
|
COMMON/HSELF_HDEC/LAMBDA1,LAMBDA2,LAMBDA3,LAMBDA4,LAMBDA5,
|
|
. LAMBDA6,LAMBDA7
|
|
C MZ = 91.18
|
|
C ALPHA1 = 0.0101
|
|
C ALPHA2 = 0.0337
|
|
C ALPHA3Z = 0.12
|
|
C V = 174.1
|
|
C PI = 3.14159
|
|
TANBA = TANB
|
|
TANBT = TANB
|
|
|
|
C MBOTTOM(MTOP) = 3. GEV
|
|
C MB = 3.
|
|
C ALPHA3 = ALPHA3Z/(1. +(11. - 10./3.)/4./PI*ALPHA3Z*
|
|
C *LOG(MTOP**2/MZ**2))
|
|
|
|
C RMTOP= RUNNING TOP QUARK MASS
|
|
C RMTOP = MTOP/(1.+4.*ALPHA3/3./PI)
|
|
C>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
MB = RUNM_HDEC(MTOP,5,0)
|
|
PI = 4*DATAN(1D0)
|
|
MZ = AMZ
|
|
V = 1/DSQRT(2*DSQRT(2D0)*GF)
|
|
CW = AMW**2/AMZ**2
|
|
SW = 1-CW
|
|
ALPHA2 = (2*AMW/V/DSQRT(2D0))**2/4/PI
|
|
ALPHA1 = ALPHA2*SW/CW
|
|
ALPHA3Z = ALPHAS_HDEC(AMZ,3)
|
|
ALPHA3 = ALPHAS_HDEC(MTOP,3)
|
|
RMTOP = RUNM_HDEC(MTOP,6,0)
|
|
C>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
C RMTOP=MTOP
|
|
C>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
MS = ((MQ**2 + MUR**2)/2. + MTOP**2)**.5
|
|
T = LOG(MS**2/MTOP**2)
|
|
SINB = TANB/((1. + TANB**2)**.5)
|
|
COSB = SINB/TANB
|
|
C IF(MA.LE.MTOP) TANBA = TANBT
|
|
IF(MA.GT.MTOP)
|
|
*TANBA = TANBT*(1.-3./32./PI**2*
|
|
*(RMTOP**2/V**2/SINB**2-MB**2/V**2/COSB**2)*
|
|
*LOG(MA**2/MTOP**2))
|
|
|
|
SINBT = TANBT/((1. + TANBT**2)**.5)
|
|
COSBT = 1./((1. + TANBT**2)**.5)
|
|
COS2BT = (TANBT**2 - 1.)/(TANBT**2 + 1.)
|
|
G1 = (ALPHA1*4.*PI)**.5
|
|
G2 = (ALPHA2*4.*PI)**.5
|
|
G3 = (ALPHA3*4.*PI)**.5
|
|
HU = RMTOP/V/SINBT
|
|
HD = MB/V/COSBT
|
|
|
|
C>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
C G3=0
|
|
C HU=0
|
|
C HD=0
|
|
C>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>>
|
|
|
|
XAU = (2.*AU**2/MS**2)*(1. - AU**2/12./MS**2)
|
|
XAD = (2.*AD**2/MS**2)*(1. - AD**2/12./MS**2)
|
|
AUD = (-6.*MU**2/MS**2 - ( MU**2- AD*AU)**2/MS**4.
|
|
*+ 3.*(AU + AD)**2/MS**2)/6.
|
|
LAMBDA1 = ((G1**2 + G2**2)/4.)*(1.-3.*HD**2*T/8./PI**2)
|
|
*+(3.*HD**4/8./PI**2) * (T + XAD/2. + (3.*HD**2/2. + HU**2/2.
|
|
*- 8.*G3**2) * (XAD*T + T**2)/16./PI**2)
|
|
*-(3.*HU**4* MU**4/96./PI**2/MS**4) * (1+ (9.*HU**2 -5.* HD**2
|
|
*- 16.*G3**2) *T/16./PI**2)
|
|
LAMBDA2 = ((G1**2 + G2**2)/4.)*(1.-3.*HU**2*T/8./PI**2)
|
|
*+(3.*HU**4/8./PI**2) * (T + XAU/2. + (3.*HU**2/2. + HD**2/2.
|
|
*- 8.*G3**2) * (XAU*T + T**2)/16./PI**2)
|
|
*-(3.*HD**4* MU**4/96./PI**2/MS**4) * (1+ (9.*HD**2 -5.* HU**2
|
|
*- 16.*G3**2) *T/16./PI**2)
|
|
LAMBDA3 = ((G2**2 - G1**2)/4.)*(1.-3.*
|
|
*(HU**2 + HD**2)*T/16./PI**2)
|
|
*+(6.*HU**2*HD**2/16./PI**2) * (T + AUD/2. + (HU**2 + HD**2
|
|
*- 8.*G3**2) * (AUD*T + T**2)/16./PI**2)
|
|
*+(3.*HU**4/96./PI**2) * (3.*MU**2/MS**2 - MU**2*AU**2/
|
|
*MS**4)* (1.+ (6.*HU**2 -2.* HD**2/2.
|
|
*- 16.*G3**2) *T/16./PI**2)
|
|
*+(3.*HD**4/96./PI**2) * (3.*MU**2/MS**2 - MU**2*AD**2/
|
|
*MS**4)*(1.+ (6.*HD**2 -2.* HU**2
|
|
*- 16.*G3**2) *T/16./PI**2)
|
|
LAMBDA4 = (- G2**2/2.)*(1.-3.*(HU**2 + HD**2)*T/16./PI**2)
|
|
*-(6.*HU**2*HD**2/16./PI**2) * (T + AUD/2. + (HU**2 + HD**2
|
|
*- 8.*G3**2) * (AUD*T + T**2)/16./PI**2)
|
|
*+(3.*HU**4/96./PI**2) * (3.*MU**2/MS**2 - MU**2*AU**2/
|
|
*MS**4)*
|
|
*(1+ (6.*HU**2 -2.* HD**2
|
|
*- 16.*G3**2) *T/16./PI**2)
|
|
*+(3.*HD**4/96./PI**2) * (3.*MU**2/MS**2 - MU**2*AD**2/
|
|
*MS**4)*
|
|
*(1+ (6.*HD**2 -2.* HU**2/2.
|
|
*- 16.*G3**2) *T/16./PI**2)
|
|
LAMBDA5 = -(3.*HU**4* MU**2*AU**2/96./PI**2/MS**4) *
|
|
* (1- (2.*HD**2 -6.* HU**2 + 16.*G3**2) *T/16./PI**2)
|
|
*-(3.*HD**4* MU**2*AD**2/96./PI**2/MS**4) *
|
|
* (1- (2.*HU**2 -6.* HD**2 + 16.*G3**2) *T/16./PI**2)
|
|
LAMBDA6 = (3.*HU**4* MU**3*AU/96./PI**2/MS**4) *
|
|
* (1- (7.*HD**2/2. -15.* HU**2/2. + 16.*G3**2) *T/16./PI**2)
|
|
*+(3.*HD**4* MU *(AD**3/MS**3 - 6.*AD/MS )/96./PI**2/MS) *
|
|
* (1- (HU**2/2. -9.* HD**2/2. + 16.*G3**2) *T/16./PI**2)
|
|
LAMBDA7 = (3.*HD**4* MU**3*AD/96./PI**2/MS**4) *
|
|
* (1- (7.*HU**2/2. -15.* HD**2/2. + 16.*G3**2) *T/16./PI**2)
|
|
*+(3.*HU**4* MU *(AU**3/MS**3 - 6.*AU/MS )/96./PI**2/MS) *
|
|
* (1- (HD**2/2. -9.* HU**2/2. + 16.*G3**2) *T/16./PI**2)
|
|
TRM2 = MA**2 + 2.*V**2* (LAMBDA1* COSBT**2 +
|
|
*2.* LAMBDA6*SINBT*COSBT
|
|
*+ LAMBDA5*SINBT**2 + LAMBDA2* SINBT**2 + 2.* LAMBDA7*SINBT*COSBT
|
|
*+ LAMBDA5*COSBT**2)
|
|
DETM2 = 4.*V**4*(-(SINBT*COSBT*(LAMBDA3 + LAMBDA4) +
|
|
*LAMBDA6*COSBT**2
|
|
*+ LAMBDA7* SINBT**2)**2 + (LAMBDA1* COSBT**2 +
|
|
*2.* LAMBDA6* COSBT*SINBT
|
|
*+ LAMBDA5*SINBT**2)*(LAMBDA2* SINBT**2 +2.* LAMBDA7* COSBT*SINBT
|
|
*+ LAMBDA5*COSBT**2)) + MA**2*2.*V**2 *
|
|
*((LAMBDA1* COSBT**2 +2.*
|
|
*LAMBDA6* COSBT*SINBT + LAMBDA5*SINBT**2)*COSBT**2 +
|
|
*(LAMBDA2* SINBT**2 +2.* LAMBDA7* COSBT*SINBT + LAMBDA5*COSBT**2)
|
|
**SINBT**2
|
|
* +2.*SINBT*COSBT* (SINBT*COSBT*(LAMBDA3
|
|
* + LAMBDA4) + LAMBDA6*COSBT**2
|
|
*+ LAMBDA7* SINBT**2))
|
|
|
|
MH2 = (TRM2 - (TRM2**2 - 4.* DETM2)**.5)/2.
|
|
HM2 = (TRM2 + (TRM2**2 - 4.* DETM2)**.5)/2.
|
|
HM = HM2**.5
|
|
MH = MH2**.5
|
|
MHCH2 = MA**2 + (LAMBDA5 - LAMBDA4)* V**2
|
|
MHCH = MHCH2**.5
|
|
MHCH = MHCH2**.5
|
|
|
|
SINALPHA = SQRT(((TRM2**2 - 4.* DETM2)**.5) -
|
|
* ((2.*V**2*(LAMBDA1* COSBT**2 + 2.*
|
|
*LAMBDA6* COSBT*SINBT
|
|
*+ LAMBDA5*SINBT**2) + MA**2*SINBT**2)
|
|
*- (2.*V**2*(LAMBDA2* SINBT**2 +2.* LAMBDA7* COSBT*SINBT
|
|
*+ LAMBDA5*COSBT**2) + MA**2*COSBT**2)))/
|
|
*SQRT(((TRM2**2 - 4.* DETM2)**.5))/2.**.5
|
|
|
|
COSALPHA = (2.*(2.*V**2*(SINBT*COSBT*(LAMBDA3 + LAMBDA4) +
|
|
*LAMBDA6*COSBT**2 + LAMBDA7* SINBT**2) -
|
|
*MA**2*SINBT*COSBT))/2.**.5/
|
|
*SQRT(((TRM2**2 - 4.* DETM2)**.5)*
|
|
*(((TRM2**2 - 4.* DETM2)**.5) -
|
|
* ((2.*V**2*(LAMBDA1* COSBT**2 + 2.*
|
|
*LAMBDA6* COSBT*SINBT
|
|
*+ LAMBDA5*SINBT**2) + MA**2*SINBT**2)
|
|
*- (2.*V**2*(LAMBDA2* SINBT**2 +2.* LAMBDA7* COSBT*SINBT
|
|
*+ LAMBDA5*COSBT**2) + MA**2*COSBT**2))))
|
|
|
|
SA = -SINALPHA
|
|
CA = -COSALPHA
|
|
|
|
2242 RETURN
|
|
END
|
|
|
|
double precision function elwfull_hdec(amh,amf,amfp,qf,ai3f,xmu)
|
|
implicit double precision (a-h,o-z)
|
|
elwfull_hdec = dhffloop_hdec(amh,amf,amfp,qf,ai3f,xmu)
|
|
. + dhffct_hdec(amh,amf,amfp,qf,ai3f,xmu)
|
|
. - delta_r_hdec(amh,xmu)
|
|
return
|
|
end
|
|
|
|
double precision function dhffloop_hdec(amh,amf,amfp,qf,ai3f,xmu)
|
|
implicit double precision (a-h,o-z)
|
|
complex*16 c03_hdec
|
|
common/param_hdec/gf,alph,amtau,ammuon,amz,amw
|
|
common/masses_hdec/ams,amc,amb,amt
|
|
c03(p1,p2,p3,am1,am2,am3) = dreal(c03_hdec(p1,p2,p3,am1,am2,am3))
|
|
bb1(s,am1,am2,amu2) = (am2**2-am1**2)/2/s
|
|
. * (b02_hdec(s,am1,am2,amu2)
|
|
. -b02_hdec(0.d0,am1,am2,amu2))
|
|
. - b02_hdec(s,am1,am2,amu2)/2
|
|
cc1p(s,am,am3,amu2) = (b02_hdec(s,am,am,amu2)
|
|
. -b02_hdec(amf2,am,am3,amu2)
|
|
. + (amf2+am3**2-am**2)
|
|
. *c03(s,amf2,amf2,am,am,am3))
|
|
. / (4*amf2-amh2)
|
|
cc20(s,am,am3,amu2) = (b02_hdec(s,am,am,amu2)
|
|
. + 2*(am**2-am3**2-amf2)*cc1p(s,am,am3,amu2)
|
|
. + 2*am3**2*c03(s,amf2,amf2,am,am,am3)+1) /4
|
|
cc2p(s,am,am3,amu2) = ((bb1(amf2,am3,am,amu2)
|
|
. +b02_hdec(s,am,am,amu2)
|
|
. + 2*(am3**2-am**2+amf2)*cc1p(s,am,am3,amu2))/2
|
|
. - cc20(s,am,am3,amu2)) /(4*amf2-amh2)
|
|
cc2m(s,am,am3,amu2) = (-bb1(amf2,am3,am,amu2)/2
|
|
. - cc20(s,am,am3,amu2)) /s
|
|
pi = 4*datan(1.d0)
|
|
cw2 = amw**2/amz**2
|
|
sw2 = 1-cw2
|
|
cw = dsqrt(cw2)
|
|
sw = dsqrt(sw2)
|
|
xmu2 = xmu**2
|
|
amf2 = amf**2
|
|
amfp2 = amfp**2
|
|
amh2 = amh**2
|
|
amz2 = amz**2
|
|
amw2 = amw**2
|
|
af = ai3f/sw/cw/2
|
|
vf = (ai3f-2*qf*sw2)/sw/cw/2
|
|
alph0 = dsqrt(2.d0)*gf*amw**2*sw2/pi
|
|
c--dT_1
|
|
dt1 = 0
|
|
c--dT_2
|
|
c0 = c03(amh2,amf2,amf2,amf,amf,amz)
|
|
c1p = cc1p(amh2,amf,amz,xmu2)
|
|
c20 = cc20(amh2,amf,amz,xmu2)
|
|
c2p = cc2p(amh2,amf,amz,xmu2)
|
|
c2m = cc2m(amh2,amf,amz,xmu2)
|
|
dt2 = 4*(vf**2-af**2)*(4*c20-1+(4*amf2-amh2)*c2p+amh2*c2m
|
|
. +(amh2-4*amf2)*c1p+(2*amf2-amh2/2)*c0)
|
|
. + 4*amf2*(vf**2+af**2)*(2*c1p-c0)
|
|
c--dT_6
|
|
c dt6 = amf2/amw2/4/sw2*(4*c20-1/2.d0+(4*amf2-amh2)*c2p+amh2*c2m)
|
|
dt6 =-amf2/amw2/4/sw2*(4*c20-1/2.d0+(4*amf2-amh2)*c2p+amh2*c2m)
|
|
c--dT_3
|
|
c0 = c03(amh2,amf2,amf2,amfp,amfp,amw)
|
|
c1p = cc1p(amh2,amfp,amw,xmu2)
|
|
c20 = cc20(amh2,amfp,amw,xmu2)
|
|
c2p = cc2p(amh2,amfp,amw,xmu2)
|
|
c2m = cc2m(amh2,amfp,amw,xmu2)
|
|
c dt3 = amfp**2/sw2*(c0-2*c1p)
|
|
dt3 =-amfp**2/sw2*(c0-2*c1p)
|
|
c--dT_4
|
|
c dt4 =-amfp2/amw2/2/sw2*(4*c20-1/2.d0+(4*amf2-amh2)*c2p+amh2*c2m
|
|
dt4 = amfp2/amw2/2/sw2*(4*c20-1/2.d0+(4*amf2-amh2)*c2p+amh2*c2m
|
|
. + 2*(amfp2-amf2)*c1p)
|
|
c--dT_5
|
|
c0 = c03(amh2,amf2,amf2,amf,amf,amh)
|
|
c1p = cc1p(amh2,amf,amh,xmu2)
|
|
c20 = cc20(amh2,amf,amh,xmu2)
|
|
c2p = cc2p(amh2,amf,amh,xmu2)
|
|
c2m = cc2m(amh2,amf,amh,xmu2)
|
|
c dt5 =-amf2/amw2/4/sw2*(4*c20-1/2.d0+(4*amf2-amh2)*c2p+amh2*c2m
|
|
dt5 = amf2/amw2/4/sw2*(4*c20-1/2.d0+(4*amf2-amh2)*c2p+amh2*c2m
|
|
. + 4*amf2*c0-8*amf2*c1p)
|
|
c--dT_7
|
|
c0 = c03(amh2,amf2,amf2,amw,amw,amfp)
|
|
c1p = cc1p(amh2,amw,amfp,xmu2)
|
|
c20 = cc20(amh2,amw,amfp,xmu2)
|
|
c2p = cc2p(amh2,amw,amfp,xmu2)
|
|
c2m = cc2m(amh2,amw,amfp,xmu2)
|
|
dt7 = -2*amw2/sw2*c1p
|
|
c--dT_9
|
|
dt9 = -amh2/2/sw2/amw2*((amf2+amfp2)*c1p-amfp2*c0)
|
|
c--dT_10+11
|
|
dt10 = 1/sw2/2*(4*c20-1/2.d0+(4*amf2-amh2)*c2p+amh2*c2m
|
|
c . + 2*(amh2-amf2)*c1p-amfp2*(c0-2*c1p))
|
|
. + 2*(amh2-amf2)*c1p+amfp2*(c0-2*c1p))
|
|
c--dT_8
|
|
c0 = c03(amh2,amf2,amf2,amz,amz,amf)
|
|
c1p = cc1p(amh2,amz,amf,xmu2)
|
|
c20 = cc20(amh2,amz,amf,xmu2)
|
|
c2p = cc2p(amh2,amz,amf,xmu2)
|
|
c2m = cc2m(amh2,amz,amf,xmu2)
|
|
dt8 = -8*amz2*((vf**2+af**2)*c1p-(vf**2-af**2)*c0)
|
|
c--dT_12+13
|
|
dt12 = 1/sw2/cw2/4*(4*c20-1/2.d0+(4*amf2-amh2)*c2p+amh2*c2m
|
|
c . + 2*(amh2-amf2)*c1p+amfp2*(c0-2*c1p))
|
|
. + 2*(amh2-amf2)*c1p+amf2*(c0-2*c1p))
|
|
c--dT_14
|
|
dt14 = amh2/4/sw2/amw2*amf2*(c0-2*c1p)
|
|
c--dT_15
|
|
c0 = c03(amh2,amf2,amf2,amh,amh,amf)
|
|
c1p = cc1p(amh2,amh,amf,xmu2)
|
|
dt15 = -3*amh2/4/sw2/amw2*amf2*(c0+2*c1p)
|
|
dhffloop_hdec = alph0/4/pi*2*(dt1+dt2+dt3+dt4+dt5+dt6+dt7+dt8+dt9
|
|
. +dt10+dt12+dt14+dt15)
|
|
return
|
|
end
|
|
|
|
double precision function dhffct_hdec(amh,amf,amfp,qf,ai3f,xmu)
|
|
implicit double precision (a-h,o-z)
|
|
common/param_hdec/gf,alph,amtau,ammuon,amz,amw
|
|
common/masses_hdec/ams,amc,amb,amt
|
|
pi = 4*datan(1.d0)
|
|
cw2 = amw**2/amz**2
|
|
sw2 = 1-cw2
|
|
cw = dsqrt(cw2)
|
|
sw = dsqrt(sw2)
|
|
alph0 = dsqrt(2.d0)*gf*amw**2*sw2/pi
|
|
add = -7*b02_hdec(0.d0,amw,amw,xmu**2)-2/3.d0
|
|
call elwself_hdec(amh,amf,amfp,qf,ai3f,xmu,sigw0,deltamw2,
|
|
. deltamz2,siggz0,pigam0,pigamf0,sigph,sigfs,sigpfs,sigpfv)
|
|
c--del v/v
|
|
dummy = pigamf0 - deltamz2/amz**2
|
|
. - (cw2-sw2)/sw2*(deltamz2/amz**2-deltamw2/amw**2)
|
|
. - sigph + add
|
|
dvbv = alph0/4/pi * dummy/2
|
|
c--del Z^f_V + del m_f/m_f
|
|
dummy = sigfs-2*amf**2*(sigpfs+sigpfv)
|
|
dzpdmbm = alph0/4/pi * dummy
|
|
c--CT_tot
|
|
dhffct_hdec = 2*(dzpdmbm + dvbv)
|
|
return
|
|
end
|
|
|
|
double precision function delta_r_hdec(amh,xmu0)
|
|
implicit double precision (a-h,o-z)
|
|
common/param_hdec/gf,alph,amtau,ammuon,amz,amw
|
|
common/masses_hdec/ams,amc,amb,amt
|
|
pi = 4*datan(1.d0)
|
|
cw2 = amw**2/amz**2
|
|
sw2 = 1-cw2
|
|
cw = dsqrt(cw2)
|
|
sw = dsqrt(sw2)
|
|
alph0 = dsqrt(2.d0)*gf*amw**2*sw2/pi
|
|
xmu = xmu0
|
|
c----------------------------
|
|
c--dummy parameters
|
|
amf = amb
|
|
amfp = amt
|
|
qf = -1/3.d0
|
|
ai3f = -1/2.d0
|
|
c----------------------------
|
|
boxes = (6+(7-4*sw2)/2/sw2*dlog(cw2))/sw2
|
|
call elwself_hdec(amh,amf,amfp,qf,ai3f,xmu,
|
|
. sigw0,deltamw2,deltamz2,siggz0,pigam0,
|
|
. pigamf0,sigph,sigfs,sigpfs,sigpfv)
|
|
c--Total sum
|
|
hatsigw0 = sigw0 - deltamw2
|
|
. + amw**2*(cw2/sw2*(deltamw2/amw**2-deltamz2/amz**2)
|
|
. +2*cw/sw*siggz0/amz**2+pigam0)
|
|
dummy = hatsigw0/amw**2 + boxes
|
|
delta_r_hdec = alph0/4/pi * dummy
|
|
return
|
|
end
|
|
|
|
subroutine elwself_hdec(amh,amf0,amfp,qf0,ai3f0,xmu,
|
|
. sigw0,deltamw2,deltamz2,siggz0,pigam0,
|
|
. pigamf0,sigph,sigfs,sigpfs,sigpfv)
|
|
implicit double precision (a-h,o-z)
|
|
common/param_hdec/gf,alph,amtau,ammuon,amz,amw
|
|
common/masses_hdec/ams,amc,amb,amt
|
|
bb1(s,am1,am2,xmu2) = (am2**2-am1**2)/2/s
|
|
. * (b02_hdec(s,am1,am2,xmu2)
|
|
. -b02_hdec(0.d0,am1,am2,xmu2))
|
|
. - b02_hdec(s,am1,am2,xmu2)/2
|
|
bb1p(s,am1,am2,xmu2) = (am1**2-am2**2)/2/s**2
|
|
. * (b02_hdec(s,am1,am2,xmu2)
|
|
. -b02_hdec(0.d0,am1,am2,xmu2))
|
|
. + (am2**2-am1**2-s)/2/s
|
|
. * bp02_hdec(s,am1,am2,xmu2)
|
|
amel = 0.510998910d-3
|
|
amup = 0.066d0
|
|
amdo = 0.066d0
|
|
ams0 = 0.150d0
|
|
amc0 = 1.20d0
|
|
amb0 = 4.30d0
|
|
pi = 4*datan(1.d0)
|
|
cw2 = amw**2/amz**2
|
|
sw2 = 1-cw2
|
|
cw = dsqrt(cw2)
|
|
sw = dsqrt(sw2)
|
|
c--sigma^W(0)
|
|
c leptons
|
|
amf = amel
|
|
dume =-(1/sw2/3*(amf**2/2*b02_hdec(0.d0,0.d0,amf,xmu**2)
|
|
. +amf**2*b02_hdec(0.d0,amf,amf,xmu**2)
|
|
. +amf**4/2*bp02_hdec(0.d0,0.d0,amf,xmu**2)))
|
|
c dume = 0
|
|
amf = ammuon
|
|
dumm =-(1/sw2/3*(amf**2/2*b02_hdec(0.d0,0.d0,amf,xmu**2)
|
|
. +amf**2*b02_hdec(0.d0,amf,amf,xmu**2)
|
|
. +amf**4/2*bp02_hdec(0.d0,0.d0,amf,xmu**2)))
|
|
amf = amtau
|
|
dumt =-(1/sw2/3*(amf**2/2*b02_hdec(0.d0,0.d0,amf,xmu**2)
|
|
. +amf**2*b02_hdec(0.d0,amf,amf,xmu**2)
|
|
. +amf**4/2*bp02_hdec(0.d0,0.d0,amf,xmu**2)))
|
|
duml = dume+dumm+dumt
|
|
c quarks
|
|
amp = amup
|
|
amm = amdo
|
|
dum1 =-(1/sw2/3*((amp**2+amm**2)/2*b02_hdec(0.d0,amp,amm,xmu**2)
|
|
. +amp**2*b02_hdec(0.d0,amp,amp,xmu**2)
|
|
. +amm**2*b02_hdec(0.d0,amm,amm,xmu**2)
|
|
. +(amp**2-amm**2)**2/2*bp02_hdec(0.d0,amp,amm,xmu**2)))
|
|
amp = amc
|
|
amm = ams
|
|
dum2 =-(1/sw2/3*((amp**2+amm**2)/2*b02_hdec(0.d0,amp,amm,xmu**2)
|
|
. +amp**2*b02_hdec(0.d0,amp,amp,xmu**2)
|
|
. +amm**2*b02_hdec(0.d0,amm,amm,xmu**2)
|
|
. +(amp**2-amm**2)**2/2*bp02_hdec(0.d0,amp,amm,xmu**2)))
|
|
amp = amt
|
|
amm = amb
|
|
dum3 =-(1/sw2/3*((amp**2+amm**2)/2*b02_hdec(0.d0,amp,amm,xmu**2)
|
|
. +amp**2*b02_hdec(0.d0,amp,amp,xmu**2)
|
|
. +amm**2*b02_hdec(0.d0,amm,amm,xmu**2)
|
|
. +(amp**2-amm**2)**2/2*bp02_hdec(0.d0,amp,amm,xmu**2)))
|
|
dumq = 3*(dum1+dum2+dum3)
|
|
c bosons
|
|
dumb =-(2/3.d0*(2*amw**2*b02_hdec(0.d0,amw,0.d0,xmu**2)
|
|
. -2*amw**2*b02_hdec(0.d0,amw,amw,xmu**2)
|
|
. -amw**4*bp02_hdec(0.d0,amw,0.d0,xmu**2))
|
|
. +1/sw2/12*(((16*cw2+54-10/cw2)*amw**2)
|
|
. *b02_hdec(0.d0,amw,amz,xmu**2)
|
|
. -(16*cw2+2)*(amw**2*b02_hdec(0.d0,amw,amw,xmu**2)
|
|
. +amz**2*b02_hdec(0.d0,amz,amz,xmu**2))
|
|
. -(8*cw2+1)*(amw**2-amz**2)**2
|
|
. *bp02_hdec(0.d0,amw,amz,xmu**2))
|
|
. +1/sw2/12*((2*amh**2-10*amw**2)*b02_hdec(0.d0,amw,amh,xmu**2)
|
|
. -2*amw**2*b02_hdec(0.d0,amw,amw,xmu**2)
|
|
. -2*amh**2*b02_hdec(0.d0,amh,amh,xmu**2)
|
|
. -(amw**2-amh**2)**2
|
|
. *bp02_hdec(0.d0,amw,amh,xmu**2)))
|
|
sigw0 = duml+dumq+dumb
|
|
c--delta M_W^2
|
|
s = amw**2
|
|
c leptons
|
|
amf = amel
|
|
dume =-(1/sw2/3*(-(s-amf**2/2)*b02_hdec(s,0.d0,amf,xmu**2)+s/3
|
|
. +amf**2*b02_hdec(0.d0,amf,amf,xmu**2)
|
|
. +amf**4/2/s*(b02_hdec(s,0.d0,amf,xmu**2)
|
|
. -b02_hdec(0.d0,0.d0,amf,xmu**2))))
|
|
amf = ammuon
|
|
dumm =-(1/sw2/3*(-(s-amf**2/2)*b02_hdec(s,0.d0,amf,xmu**2)+s/3
|
|
. +amf**2*b02_hdec(0.d0,amf,amf,xmu**2)
|
|
. +amf**4/2/s*(b02_hdec(s,0.d0,amf,xmu**2)
|
|
. -b02_hdec(0.d0,0.d0,amf,xmu**2))))
|
|
amf = amtau
|
|
dumt =-(1/sw2/3*(-(s-amf**2/2)*b02_hdec(s,0.d0,amf,xmu**2)+s/3
|
|
. +amf**2*b02_hdec(0.d0,amf,amf,xmu**2)
|
|
. +amf**4/2/s*(b02_hdec(s,0.d0,amf,xmu**2)
|
|
. -b02_hdec(0.d0,0.d0,amf,xmu**2))))
|
|
duml = dume+dumm+dumt
|
|
c write(6,*)dume,dumm,dumt
|
|
c quarks
|
|
amp = amup
|
|
amm = amdo
|
|
dum1 =-(1/sw2/3*(-(s-(amp**2+amm**2)/2)*b02_hdec(s,amp,amm,xmu**2)
|
|
. +s/3+amp**2*b02_hdec(0.d0,amp,amp,xmu**2)
|
|
. +amm**2*b02_hdec(0.d0,amm,amm,xmu**2)
|
|
. +(amp**2-amm**2)**2/2/s
|
|
. *(b02_hdec(s,amp,amm,xmu**2)
|
|
. -b02_hdec(0.d0,amp,amm,xmu**2))))
|
|
amp = amc
|
|
amm = ams
|
|
dum2 =-(1/sw2/3*(-(s-(amp**2+amm**2)/2)*b02_hdec(s,amp,amm,xmu**2)
|
|
. +s/3+amp**2*b02_hdec(0.d0,amp,amp,xmu**2)
|
|
. +amm**2*b02_hdec(0.d0,amm,amm,xmu**2)
|
|
. +(amp**2-amm**2)**2/2/s
|
|
. *(b02_hdec(s,amp,amm,xmu**2)
|
|
. -b02_hdec(0.d0,amp,amm,xmu**2))))
|
|
amp = amt
|
|
amm = amb
|
|
dum3 =-(1/sw2/3*(-(s-(amp**2+amm**2)/2)*b02_hdec(s,amp,amm,xmu**2)
|
|
. +s/3+amp**2*b02_hdec(0.d0,amp,amp,xmu**2)
|
|
. +amm**2*b02_hdec(0.d0,amm,amm,xmu**2)
|
|
. +(amp**2-amm**2)**2/2/s
|
|
. *(b02_hdec(s,amp,amm,xmu**2)
|
|
. -b02_hdec(0.d0,amp,amm,xmu**2))))
|
|
dumq = 3*(dum1+dum2+dum3)
|
|
c bosons
|
|
dumb =-(2/3.d0*((2*amw**2+5*s)*b02_hdec(s,amw,0.d0,xmu**2)
|
|
. -2*amw**2*b02_hdec(0.d0,amw,amw,xmu**2)
|
|
. -amw**4/s*(b02_hdec(s,amw,0.d0,xmu**2)
|
|
. -b02_hdec(0.d0,amw,0.d0,xmu**2))+s/3)
|
|
. +1/sw2/12*(((40*cw2-1)*s+(16*cw2+54-10/cw2)*amw**2)
|
|
. *b02_hdec(s,amw,amz,xmu**2)
|
|
. -(16*cw2+2)*(amw**2*b02_hdec(0.d0,amw,amw,xmu**2)
|
|
. +amz**2*b02_hdec(0.d0,amz,amz,xmu**2))
|
|
. +(4*cw2-1)*2*s/3
|
|
. -(8*cw2+1)*(amw**2-amz**2)**2/s
|
|
. *(b02_hdec(s,amw,amz,xmu**2)
|
|
. -b02_hdec(0.d0,amw,amz,xmu**2)))
|
|
. +1/sw2/12*((2*amh**2-10*amw**2-s)*b02_hdec(s,amw,amh,xmu**2)
|
|
. -2*amw**2*b02_hdec(0.d0,amw,amw,xmu**2)
|
|
. -2*amh**2*b02_hdec(0.d0,amh,amh,xmu**2)
|
|
. -(amw**2-amh**2)**2/s
|
|
. *(b02_hdec(s,amw,amh,xmu**2)
|
|
. -b02_hdec(0.d0,amw,amh,xmu**2))-2*s/3))
|
|
deltamw2 = duml+dumq+dumb
|
|
c--delta M_Z^2
|
|
s = amz**2
|
|
c leptons
|
|
ef = -1
|
|
ai3f = -1/2.d0
|
|
af = ai3f/sw/cw/2
|
|
vf = (ai3f-2*ef*sw2)/sw/cw/2
|
|
amf = amel
|
|
dume = 4/3.d0*(2*af**2*(s*b02_hdec(s,0.d0,0.d0,xmu**2)-s/3)
|
|
. +(vf**2+af**2)*((s+2*amf**2)*b02_hdec(s,amf,amf,xmu**2)
|
|
. -2*amf**2*b02_hdec(0.d0,amf,amf,xmu**2)-s/3)
|
|
. -3/sw2/cw2/8*amf**2*b02_hdec(s,amf,amf,xmu**2))
|
|
amf = ammuon
|
|
dumm = 4/3.d0*(2*af**2*(s*b02_hdec(s,0.d0,0.d0,xmu**2)-s/3)
|
|
. +(vf**2+af**2)*((s+2*amf**2)*b02_hdec(s,amf,amf,xmu**2)
|
|
. -2*amf**2*b02_hdec(0.d0,amf,amf,xmu**2)-s/3)
|
|
. -3/sw2/cw2/8*amf**2*b02_hdec(s,amf,amf,xmu**2))
|
|
amf = amtau
|
|
dumt = 4/3.d0*(2*af**2*(s*b02_hdec(s,0.d0,0.d0,xmu**2)-s/3)
|
|
. +(vf**2+af**2)*((s+2*amf**2)*b02_hdec(s,amf,amf,xmu**2)
|
|
. -2*amf**2*b02_hdec(0.d0,amf,amf,xmu**2)-s/3)
|
|
. -3/sw2/cw2/8*amf**2*b02_hdec(s,amf,amf,xmu**2))
|
|
duml = dume+dumm+dumt
|
|
c quarks
|
|
ef = 2/3.d0
|
|
ai3f = 1/2.d0
|
|
af = ai3f/sw/cw/2
|
|
vf = (ai3f-2*ef*sw2)/sw/cw/2
|
|
amf = amup
|
|
dumu = 4/3.d0*((vf**2+af**2)*(
|
|
. (s+2*amf**2)*b02_hdec(s,amf,amf,xmu**2)
|
|
. -2*amf**2*b02_hdec(0.d0,amf,amf,xmu**2)-s/3)
|
|
. -3/sw2/cw2/8*amf**2*b02_hdec(s,amf,amf,xmu**2))
|
|
amf = amc
|
|
dumc = 4/3.d0*((vf**2+af**2)*(
|
|
. (s+2*amf**2)*b02_hdec(s,amf,amf,xmu**2)
|
|
. -2*amf**2*b02_hdec(0.d0,amf,amf,xmu**2)-s/3)
|
|
. -3/sw2/cw2/8*amf**2*b02_hdec(s,amf,amf,xmu**2))
|
|
amf = amt
|
|
dumt = 4/3.d0*((vf**2+af**2)*(
|
|
. (s+2*amf**2)*b02_hdec(s,amf,amf,xmu**2)
|
|
. -2*amf**2*b02_hdec(0.d0,amf,amf,xmu**2)-s/3)
|
|
. -3/sw2/cw2/8*amf**2*b02_hdec(s,amf,amf,xmu**2))
|
|
ef = -1/3.d0
|
|
ai3f = -1/2.d0
|
|
af = ai3f/sw/cw/2
|
|
vf = (ai3f-2*ef*sw2)/sw/cw/2
|
|
amf = amdo
|
|
dumd = 4/3.d0*((vf**2+af**2)*(
|
|
. (s+2*amf**2)*b02_hdec(s,amf,amf,xmu**2)
|
|
. -2*amf**2*b02_hdec(0.d0,amf,amf,xmu**2)-s/3)
|
|
. -3/sw2/cw2/8*amf**2*b02_hdec(s,amf,amf,xmu**2))
|
|
amf = ams
|
|
dums = 4/3.d0*((vf**2+af**2)*(
|
|
. (s+2*amf**2)*b02_hdec(s,amf,amf,xmu**2)
|
|
. -2*amf**2*b02_hdec(0.d0,amf,amf,xmu**2)-s/3)
|
|
. -3/sw2/cw2/8*amf**2*b02_hdec(s,amf,amf,xmu**2))
|
|
amf = amb
|
|
dumb = 4/3.d0*((vf**2+af**2)*(
|
|
. (s+2*amf**2)*b02_hdec(s,amf,amf,xmu**2)
|
|
. -2*amf**2*b02_hdec(0.d0,amf,amf,xmu**2)-s/3)
|
|
. -3/sw2/cw2/8*amf**2*b02_hdec(s,amf,amf,xmu**2))
|
|
dumq = 3*(dumu+dumd+dumc+dums+dumt+dumb)
|
|
c bosons
|
|
dumb =-(2*(((18*cw2**2+2*cw2-1/2.d0)*s
|
|
. +(24*cw2**2+16*cw2-10)*amw**2)*b02_hdec(s,amw,amw,xmu**2)
|
|
. -(24*cw2**2-8*cw2+2)*amw**2*b02_hdec(0.d0,amw,amw,xmu**2)
|
|
. +(4*cw2-1)*s/3)
|
|
. +(2*amh**2-10*amz**2-s)*b02_hdec(s,amz,amh,xmu**2)
|
|
. -2*amz**2*b02_hdec(0.d0,amz,amz,xmu**2)
|
|
. -2*amh**2*b02_hdec(0.d0,amh,amh,xmu**2)
|
|
. -(amz**2-amh**2)**2/s
|
|
. *(b02_hdec(s,amz,amh,xmu**2)-b02_hdec(0.d0,amz,amh,xmu**2))
|
|
. -2*s/3)/12/cw2/sw2
|
|
deltamz2 = duml+dumq+dumb
|
|
c--Sigma^gamma^Z(0)
|
|
siggz0 = 2*amw**2/sw/cw*b02_hdec(0.d0,amw,amw,xmu**2)
|
|
c--Pi^gamma(0)
|
|
c leptons
|
|
ef = -1
|
|
amf = amel
|
|
dume = 4/3.d0*ef**2*(-1/3.d0 + b02_hdec(0.D0,amf,amf,xmu**2)
|
|
. + 2*amf**2*bp02_hdec(0.d0,amf,amf,xmu**2))
|
|
amf = ammuon
|
|
dumm = 4/3.d0*ef**2*(-1/3.d0 + b02_hdec(0.D0,amf,amf,xmu**2)
|
|
. + 2*amf**2*bp02_hdec(0.d0,amf,amf,xmu**2))
|
|
amf = amtau
|
|
dumt = 4/3.d0*ef**2*(-1/3.d0 + b02_hdec(0.D0,amf,amf,xmu**2)
|
|
. + 2*amf**2*bp02_hdec(0.d0,amf,amf,xmu**2))
|
|
duml = dume+dumm+dumt
|
|
c quarks
|
|
ef = 2/3.d0
|
|
amf = amup
|
|
dumu = 4/3.d0*ef**2*(-1/3.d0 + b02_hdec(0.D0,amf,amf,xmu**2)
|
|
. + 2*amf**2*bp02_hdec(0.d0,amf,amf,xmu**2))
|
|
amf = amc0
|
|
dumc = 4/3.d0*ef**2*(-1/3.d0 + b02_hdec(0.D0,amf,amf,xmu**2)
|
|
. + 2*amf**2*bp02_hdec(0.d0,amf,amf,xmu**2))
|
|
amf = amt
|
|
dumt = 4/3.d0*ef**2*(-1/3.d0 + b02_hdec(0.D0,amf,amf,xmu**2)
|
|
. + 2*amf**2*bp02_hdec(0.d0,amf,amf,xmu**2))
|
|
ef = -1/3.d0
|
|
amf = amdo
|
|
dumd = 4/3.d0*ef**2*(-1/3.d0 + b02_hdec(0.D0,amf,amf,xmu**2)
|
|
. + 2*amf**2*bp02_hdec(0.d0,amf,amf,xmu**2))
|
|
amf = ams0
|
|
dums = 4/3.d0*ef**2*(-1/3.d0 + b02_hdec(0.D0,amf,amf,xmu**2)
|
|
. + 2*amf**2*bp02_hdec(0.d0,amf,amf,xmu**2))
|
|
amf = amb0
|
|
dumb = 4/3.d0*ef**2*(-1/3.d0 + b02_hdec(0.D0,amf,amf,xmu**2)
|
|
. + 2*amf**2*bp02_hdec(0.d0,amf,amf,xmu**2))
|
|
dumq = 3*(dumu+dumd+dumc+dums+dumt+dumb)
|
|
c bosons
|
|
dumb =-3*b02_hdec(0.d0,amw,amw,xmu**2)
|
|
. - 4*amw**2*bp02_hdec(0.d0,amw,amw,xmu**2)
|
|
pigam0 = duml+dumq+dumb
|
|
pigamf0 = duml+dumq
|
|
c--Sig'_H(MH^2)
|
|
s = amh**2
|
|
c leptons
|
|
amf = amel
|
|
if(s.eq.4*amf**2)then
|
|
dume = 1/sw2/amw**2*amf**2*b02_hdec(s,amf,amf,xmu**2)/2
|
|
else
|
|
dume = 1/sw2/amw**2*amf**2*(b02_hdec(s,amf,amf,xmu**2)/2
|
|
. + (s/2-2*amf**2)*bp02_hdec(s,amf,amf,xmu**2))
|
|
endif
|
|
amf = ammuon
|
|
if(s.eq.4*amf**2)then
|
|
dumm = 1/sw2/amw**2*amf**2*b02_hdec(s,amf,amf,xmu**2)/2
|
|
else
|
|
dumm = 1/sw2/amw**2*amf**2*(b02_hdec(s,amf,amf,xmu**2)/2
|
|
. + (s/2-2*amf**2)*bp02_hdec(s,amf,amf,xmu**2))
|
|
endif
|
|
amf = amtau
|
|
if(s.eq.4*amf**2)then
|
|
dumt = 1/sw2/amw**2*amf**2*b02_hdec(s,amf,amf,xmu**2)/2
|
|
else
|
|
dumt = 1/sw2/amw**2*amf**2*(b02_hdec(s,amf,amf,xmu**2)/2
|
|
. + (s/2-2*amf**2)*bp02_hdec(s,amf,amf,xmu**2))
|
|
endif
|
|
duml = dume+dumm+dumt
|
|
c quarks
|
|
amf = amup
|
|
if(s.eq.4*amf**2)then
|
|
dumu = 1/sw2/amw**2*amf**2*b02_hdec(s,amf,amf,xmu**2)/2
|
|
else
|
|
dumu = 1/sw2/amw**2*amf**2*(b02_hdec(s,amf,amf,xmu**2)/2
|
|
. + (s/2-2*amf**2)*bp02_hdec(s,amf,amf,xmu**2))
|
|
endif
|
|
amf = amdo
|
|
if(s.eq.4*amf**2)then
|
|
dumd = 1/sw2/amw**2*amf**2*b02_hdec(s,amf,amf,xmu**2)/2
|
|
else
|
|
dumd = 1/sw2/amw**2*amf**2*(b02_hdec(s,amf,amf,xmu**2)/2
|
|
. + (s/2-2*amf**2)*bp02_hdec(s,amf,amf,xmu**2))
|
|
endif
|
|
amf = amc
|
|
if(s.eq.4*amf**2)then
|
|
dumc = 1/sw2/amw**2*amf**2*b02_hdec(s,amf,amf,xmu**2)/2
|
|
else
|
|
dumc = 1/sw2/amw**2*amf**2*(b02_hdec(s,amf,amf,xmu**2)/2
|
|
. + (s/2-2*amf**2)*bp02_hdec(s,amf,amf,xmu**2))
|
|
endif
|
|
amf = ams
|
|
if(s.eq.4*amf**2)then
|
|
dums = 1/sw2/amw**2*amf**2*b02_hdec(s,amf,amf,xmu**2)/2
|
|
else
|
|
dums = 1/sw2/amw**2*amf**2*(b02_hdec(s,amf,amf,xmu**2)/2
|
|
. + (s/2-2*amf**2)*bp02_hdec(s,amf,amf,xmu**2))
|
|
endif
|
|
amf = amb
|
|
if(s.eq.4*amf**2)then
|
|
dumb = 1/sw2/amw**2*amf**2*b02_hdec(s,amf,amf,xmu**2)/2
|
|
else
|
|
dumb = 1/sw2/amw**2*amf**2*(b02_hdec(s,amf,amf,xmu**2)/2
|
|
. + (s/2-2*amf**2)*bp02_hdec(s,amf,amf,xmu**2))
|
|
endif
|
|
amf = amt
|
|
if(s.eq.4*amf**2)then
|
|
dumt = 1/sw2/amw**2*amf**2*b02_hdec(s,amf,amf,xmu**2)/2
|
|
else
|
|
dumt = 1/sw2/amw**2*amf**2*(b02_hdec(s,amf,amf,xmu**2)/2
|
|
. + (s/2-2*amf**2)*bp02_hdec(s,amf,amf,xmu**2))
|
|
endif
|
|
dumq = 3*(dumu+dumd+dumc+dums+dumt+dumb)
|
|
c bosons
|
|
dumb = 1/sw2/amw**2*(-amw**2*b02_hdec(s,amw,amw,xmu**2)
|
|
. + (-amw**2*s+3*amw**4+amh**4/4)*bp02_hdec(s,amw,amw,xmu**2)
|
|
. - amz**2/2*b02_hdec(s,amz,amz,xmu**2)
|
|
. + (-amz**2*s+3*amz**4+amh**4/4)/2*bp02_hdec(s,amz,amz,xmu**2)
|
|
. + 9*amh**4/8*bp02_hdec(s,amh,amh,xmu**2))
|
|
sigph = duml+dumq+dumb
|
|
c--Sig_fS(mf^2) (without QED)
|
|
amf = amf0
|
|
qf = qf0
|
|
ai3f = ai3f0
|
|
af = ai3f/sw/cw/2
|
|
vf = (ai3f-2*qf*sw2)/sw/cw/2
|
|
s = amf**2
|
|
dum1 = -((vf**2-af**2)*(4*b02_hdec(s,amf,amz,xmu**2)-2)
|
|
. +amfp**2/2/sw2/amw**2*b02_hdec(s,amfp,amw,xmu**2)
|
|
. +amf**2/4/sw2/amw**2*(b02_hdec(s,amf,amz,xmu**2)
|
|
. -b02_hdec(s,amf,amh,xmu**2)))
|
|
dum2 = 0
|
|
sigfs = dum1+dum2
|
|
dum1 = -((vf**2-af**2)*4*bp02_hdec(s,amf,amz,xmu**2)
|
|
. +amfp**2/2/sw2/amw**2*bp02_hdec(s,amfp,amw,xmu**2)
|
|
. +amf**2/4/sw2/amw**2*(bp02_hdec(s,amf,amz,xmu**2)
|
|
. -bp02_hdec(s,amf,amh,xmu**2)))
|
|
dum2 = 0
|
|
sigpfs = dum1+dum2
|
|
bp11 = bb1p(s,amf,amz,xmu**2)
|
|
bp12 = bb1p(s,amfp,amw,xmu**2)
|
|
bp13 = bb1p(s,amf,amh,xmu**2)
|
|
dum1 = -((vf**2+af**2)*2*bp11+(amf**2+amfp**2)/sw2/amw**2/4*bp12
|
|
. +1/sw2/4*2*bp12 + amf**2/4/sw2/amw**2*(bp13+bp11))
|
|
dum2 = 0
|
|
sigpfv = dum1+dum2
|
|
return
|
|
end
|
|
|