forked from Expander/FlexibleSUSY
/
FlexibleSUSY.m
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FlexibleSUSY.m
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BeginPackage["FlexibleSUSY`", {"SARAH`", "AnomalousDimension`", "BetaFunction`", "TextFormatting`", "CConversion`", "TreeMasses`", "EWSB`", "Traces`", "SelfEnergies`", "Vertices`", "Phases`", "LoopMasses`", "WriteOut`", "Constraint`", "ThresholdCorrections`", "ConvergenceTester`", "Utils`", "ThreeLoopSM`", "ThreeLoopMSSM`", "Observables`", "EffectiveCouplings`"}];
$flexiblesusyMetaDir = DirectoryName[FindFile[$Input]];
$flexiblesusyConfigDir = FileNameJoin[{ParentDirectory[$flexiblesusyMetaDir], "config"}];
$flexiblesusyTemplateDir = FileNameJoin[{ParentDirectory[$flexiblesusyMetaDir], "templates"}];
FS`Version = StringTrim[FSImportString[FileNameJoin[{$flexiblesusyConfigDir,"version"}]]];
FS`GitCommit = StringTrim[FSImportString[FileNameJoin[{$flexiblesusyConfigDir,"git_commit"}]]];
FS`Authors = {"P. Athron", "J.-h. Park", "D. Stöckinger", "A. Voigt"};
FS`Years = "2013-2015";
FS`References = Get[FileNameJoin[{$flexiblesusyConfigDir,"references"}]];
Print["==================================================================="];
Print[Style["FlexibleSUSY " <> FS`Version, Larger, Bold, Blue]];
Print[" by " <> Utils`StringJoinWithSeparator[FS`Authors, ", "] <> ", " <>
FS`Years];
Print[""];
Print[Style["References:", Blue]];
Print[" " <> #]& /@ FS`References;
Print[""];
Print[Style["Download and Documentation:", Blue]];
Print[" https://flexiblesusy.hepforge.org"];
Print["==================================================================="];
Print[""];
Print["meta code directory: ", $flexiblesusyMetaDir];
Print["config directory : ", $flexiblesusyConfigDir];
Print["templates directory: ", $flexiblesusyTemplateDir];
MakeFlexibleSUSY::usage="Creates a spectrum generator given a
FlexibleSUSY model file (FlexibleSUSY.m).
Example:
MakeFlexibleSUSY[
InputFile -> \"models/<model>/FlexibleSUSY.m\",
OutputDirectory -> \"models/<model>/\",
DebugOutput -> False];
Options:
InputFile: The name of the model file.
OutputDirectory: The output directory for the generated code.
DebugOutput (True|False): Enable/Disable debug output while running
the Mathematica meta code.
";
LowPrecision::usage="";
MediumPrecision::usage="";
HighPrecision::usage="";
GUTNormalization::usage="Returns GUT normalization of a given coupling";
FSModelName;
FSOutputDir = ""; (* directory for generated code *)
FSLesHouchesList;
FSUnfixedParameters;
EWSBOutputParameters = {};
SUSYScale;
SUSYScaleFirstGuess;
SUSYScaleInput = {};
SUSYScaleMinimum;
SUSYScaleMaximum;
HighScale;
HighScaleFirstGuess;
HighScaleInput = {};
HighScaleMinimum;
HighScaleMaximum;
LowScale;
LowScaleFirstGuess;
LowScaleInput = {};
LowScaleMinimum;
LowScaleMaximum;
InitialGuessAtLowScale = {};
InitialGuessAtHighScale = {};
OnlyLowEnergyFlexibleSUSY = False;
AutomaticInputAtMSUSY = True; (* input unfixed parameters at MSUSY *)
TreeLevelEWSBSolution = {};
Pole;
LowEnergyConstant;
LowEnergyGaugeCoupling;
FSMinimize;
FSFindRoot;
FSSolveEWSBFor;
FSSolveEWSBTreeLevelFor = {};
Temporary;
MZ;
MT;
MZDRbar;
MWDRbar;
EDRbar;
ThetaWDRbar;
SCALE;
THRESHOLD;
UseHiggs2LoopNMSSM;
EffectiveMu;
EffectiveMASqr;
UseSM3LoopRGEs = False;
UseMSSM3LoopRGEs = False;
UseHiggs2LoopSM;
UseHiggs3LoopSplit;
UseYukawa3LoopQCD = Automatic;
FSRGELoopOrder = 2; (* RGE loop order (0, 1 or 2) *)
PotentialLSPParticles = {};
ExtraSLHAOutputBlocks = {};
FSExtraInputParameters = {};
(* Standard Model input parameters (SLHA input parameters) *)
(* {parameter, {"block", entry}, type} *)
SMINPUTS = {
{AlphaEMInvInput , {"SMINPUTS", 1}, CConversion`ScalarType[CConversion`realScalarCType]},
{GFermiInput , {"SMINPUTS", 2}, CConversion`ScalarType[CConversion`realScalarCType]},
{AlphaSInput , {"SMINPUTS", 3}, CConversion`ScalarType[CConversion`realScalarCType]},
{MZPoleInput , {"SMINPUTS", 4}, CConversion`ScalarType[CConversion`realScalarCType]},
{MBottomMbottomInput, {"SMINPUTS", 5}, CConversion`ScalarType[CConversion`realScalarCType]},
{MTopPoleInput , {"SMINPUTS", 6}, CConversion`ScalarType[CConversion`realScalarCType]},
{MTauPoleInput , {"SMINPUTS", 7}, CConversion`ScalarType[CConversion`realScalarCType]},
{MNeutrino3PoleInput, {"SMINPUTS", 8}, CConversion`ScalarType[CConversion`realScalarCType]},
{MWPoleInput , {"SMINPUTS", 10}, CConversion`ScalarType[CConversion`realScalarCType]},
{MElectronPoleInput , {"SMINPUTS", 11}, CConversion`ScalarType[CConversion`realScalarCType]},
{MNeutrino1PoleInput, {"SMINPUTS", 12}, CConversion`ScalarType[CConversion`realScalarCType]},
{MMuonPoleInput , {"SMINPUTS", 13}, CConversion`ScalarType[CConversion`realScalarCType]},
{MNeutrino2PoleInput, {"SMINPUTS", 14}, CConversion`ScalarType[CConversion`realScalarCType]},
{MDown2GeVInput , {"SMINPUTS", 21}, CConversion`ScalarType[CConversion`realScalarCType]},
{MUp2GeVInput , {"SMINPUTS", 22}, CConversion`ScalarType[CConversion`realScalarCType]},
{MStrange2GeVInput , {"SMINPUTS", 23}, CConversion`ScalarType[CConversion`realScalarCType]},
{MCharmMCharm , {"SMINPUTS", 24}, CConversion`ScalarType[CConversion`realScalarCType]}
};
(* renormalization schemes *)
DRbar;
MSbar;
FSRenormalizationScheme = DRbar;
(* all model parameters are real by default *)
SARAH`RealParameters = { All };
(* precision of pole mass calculation *)
DefaultPoleMassPrecision = MediumPrecision;
HighPoleMassPrecision = {SARAH`HiggsBoson, SARAH`PseudoScalar, SARAH`ChargedHiggs};
MediumPoleMassPrecision = {};
LowPoleMassPrecision = {};
FSEigenstates = SARAH`EWSB;
FSSolveEWSBTimeConstraint = 120;
FSSimplifyBetaFunctionsTimeConstraint = 120;
FSSolveWeinbergAngleTimeConstraint = 120;
FSCheckPerturbativityOfDimensionlessParameters = True;
FSPerturbativityThreshold = N[Sqrt[4 Pi]];
FSMaximumExpressionSize = 100;
(* list of masses and parameters to check for convergence
Example:
FSConvergenceCheck = {
M[hh], g3, Yu, Yd[3,3], Ye, B[\[Mu]]
};
*)
FSConvergenceCheck = Automatic;
(* EWSB solvers *)
GSLHybrid; (* hybrid method *)
GSLHybridS; (* hybrid method with dynamic step size *)
GSLBroyden; (* Broyden method *)
GSLNewton; (* Newton method *)
FPIRelative; (* Fixed point iteration, convergence crit. relative step size *)
FPIAbsolute; (* Fixed point iteration, convergence crit. absolute step size *)
FPITadpole; (* Fixed point iteration, convergence crit. relative step size + tadpoles *)
FSEWSBSolvers = { FPIRelative, GSLHybridS, GSLBroyden };
(* input value for the calculation of the weak mixing angle *)
FSFermiConstant;
FSMassW;
{FSHiggs, FSHyperchargeCoupling,
FSLeftCoupling, FSStrongCoupling, FSVEVSM1, FSVEVSM2, FSNeutralino,
FSChargino, FSNeutralinoMM, FSCharginoMinusMM, FSCharginoPlusMM,
FSHiggsMM, FSSelectronL, FSSelectronNeutrinoL, FSSmuonL,
FSSmuonNeutrinoL, FSVectorW, FSVectorZ, FSElectronYukawa};
FSWeakMixingAngleOptions = {
FlexibleSUSY`FSWeakMixingAngleInput -> FSFermiConstant, (* or FSMassW *)
FlexibleSUSY`FSWeakMixingAngleExpr -> ArcSin[Sqrt[1 - Mass[SARAH`VectorW]^2/Mass[SARAH`VectorZ]^2]],
FlexibleSUSY`FSHiggs -> SARAH`HiggsBoson,
FlexibleSUSY`FSHyperchargeCoupling -> SARAH`hyperchargeCoupling,
FlexibleSUSY`FSLeftCoupling -> SARAH`leftCoupling,
FlexibleSUSY`FSStrongCoupling -> SARAH`strongCoupling,
FlexibleSUSY`FSVEVSM1 -> SARAH`VEVSM1,
FlexibleSUSY`FSVEVSM2 -> SARAH`VEVSM2,
FlexibleSUSY`FSNeutralino :> Parameters`GetParticleFromDescription["Neutralinos"],
FlexibleSUSY`FSChargino :> Parameters`GetParticleFromDescription["Charginos"],
FlexibleSUSY`FSNeutralinoMM -> SARAH`NeutralinoMM,
FlexibleSUSY`FSCharginoMinusMM -> SARAH`CharginoMinusMM,
FlexibleSUSY`FSCharginoPlusMM -> SARAH`CharginoPlusMM,
FlexibleSUSY`FSHiggsMM -> SARAH`HiggsMixingMatrix,
FlexibleSUSY`FSSelectronL :> Sum[Susyno`LieGroups`conj[SARAH`SleptonMM[Susyno`LieGroups`i,1]] SARAH`SleptonMM[Susyno`LieGroups`i,1] FlexibleSUSY`M[SARAH`Selectron[Susyno`LieGroups`i]], {Susyno`LieGroups`i,1,TreeMasses`GetDimension[SARAH`Selectron]}],
FlexibleSUSY`FSSelectronNeutrinoL :> Sum[Susyno`LieGroups`conj[SARAH`SneutrinoMM[Susyno`LieGroups`i,1]] SARAH`SneutrinoMM[Susyno`LieGroups`i,1] FlexibleSUSY`M[SARAH`Sneutrino[Susyno`LieGroups`i]], {Susyno`LieGroups`i,1,TreeMasses`GetDimension[SARAH`Sneutrino]}],
FlexibleSUSY`FSSmuonL :> Sum[Susyno`LieGroups`conj[SARAH`SleptonMM[Susyno`LieGroups`i,2]] SARAH`SleptonMM[Susyno`LieGroups`i,2] FlexibleSUSY`M[SARAH`Selectron[Susyno`LieGroups`i]], {Susyno`LieGroups`i,1,TreeMasses`GetDimension[SARAH`Selectron]}],
FlexibleSUSY`FSSmuonNeutrinoL :> Sum[Susyno`LieGroups`conj[SARAH`SneutrinoMM[Susyno`LieGroups`i,2]] SARAH`SneutrinoMM[Susyno`LieGroups`i,2] FlexibleSUSY`M[SARAH`Sneutrino[Susyno`LieGroups`i]], {Susyno`LieGroups`i,1,TreeMasses`GetDimension[SARAH`Sneutrino]}],
FlexibleSUSY`FSVectorW -> SARAH`VectorW,
FlexibleSUSY`FSVectorZ -> SARAH`VectorZ,
FlexibleSUSY`FSElectronYukawa -> SARAH`ElectronYukawa
};
ReadPoleMassPrecisions::ImpreciseHiggs="Warning: Calculating the Higgs pole mass M[`1`] with `2` will lead to an inaccurate result! Please select MediumPrecision or HighPrecision (recommended) for `1`.";
tadpole::usage="symbolic expression for a tadpole contribution in the
EWSB eqs. The index corresponds to the ordering of the tadpole
equations in SARAH`TadpoleEquations[] .";
NoScale::usage="placeholder indicating an SLHA block should not
have a scale associated with it.";
CurrentScale::usage="placeholder indicating the current renormalization
scale of the model.";
FSDebugOutput = False;
Begin["`Private`"];
allIndexReplacementRules = {};
GetIndexReplacementRules[] := allIndexReplacementRules;
allBetaFunctions = {};
GetBetaFunctions[] := allBetaFunctions;
allOutputParameters = {};
numberOfModelParameters = 0;
PrintHeadline[text_] :=
Block[{},
Print[""];
Print["---------------------------------"];
Print[text];
Print["---------------------------------"];
];
DecomposeVersionString[version_String] :=
ToExpression /@ StringSplit[version, "."];
ToVersionString[{major_Integer, minor_Integer, patch_Integer}] :=
ToString[major] <> "." <> ToString[minor] <> "." <> ToString[patch];
DebugPrint[msg___] :=
If[FlexibleSUSY`FSDebugOutput,
Print["Debug<FlexibleSUSY>: ", Sequence @@ InputFormOfNonStrings /@ {msg}]];
CheckSARAHVersion[] :=
Module[{minimRequired, minimRequiredVersionFile, sarahVersion},
Print["Checking SARAH version ..."];
minimRequiredVersionFile = FileNameJoin[{$flexiblesusyConfigDir,
"required_sarah_version.m"}];
(* reading minimum required SARAH version from config file *)
minimRequired = Get[minimRequiredVersionFile];
If[minimRequired === $Failed,
Print["Error: Cannot read required SARAH version from file ",
minimRequiredVersionFile];
Print[" Did you run configure?"];
Quit[1];
];
sarahVersion = DecomposeVersionString[SA`Version];
If[sarahVersion[[1]] < minimRequired[[1]] ||
(sarahVersion[[1]] == minimRequired[[1]] &&
sarahVersion[[2]] < minimRequired[[2]]) ||
(sarahVersion[[1]] == minimRequired[[1]] &&
sarahVersion[[2]] == minimRequired[[2]] &&
sarahVersion[[3]] < minimRequired[[3]]),
Print["Error: SARAH version ", SA`Version, " no longer supported!"];
Print["Please use version ", ToVersionString[minimRequired],
" or higher"];
Quit[1];
];
];
CheckFermiConstantInputRequirements[requiredSymbols_List, printout_:True] :=
Module[{resolvedSymbols, symbols, areDefined, availPars},
resolvedSymbols = requiredSymbols /. FlexibleSUSY`FSWeakMixingAngleOptions;
resolvedSymbols = resolvedSymbols /. {
a_[idx__] :> a /; And @@ (NumberQ /@ {idx})
};
symbols = DeleteDuplicates[Cases[resolvedSymbols, _Symbol, {0,Infinity}]];
availPars = Join[TreeMasses`GetParticles[],
Parameters`GetInputParameters[],
Parameters`GetModelParameters[],
Parameters`GetOutputParameters[]];
areDefined = MemberQ[availPars, #]& /@ symbols;
If[printout,
Print["Unknown symbol: ", #]& /@
Cases[Utils`Zip[areDefined, symbols], {False, p_} :> p];
];
And @@ areDefined
];
CheckFermiConstantInputRequirementsForSUSYModel[] :=
CheckFermiConstantInputRequirements[
{FSHiggs, FSHyperchargeCoupling,
FSLeftCoupling, FSStrongCoupling, FSVEVSM1, FSVEVSM2,
FSNeutralino, FSChargino, FSNeutralinoMM, FSCharginoMinusMM,
FSCharginoPlusMM, FSHiggsMM, FSSelectronL, FSSelectronNeutrinoL,
FSSmuonL, FSSmuonNeutrinoL, FSVectorW, FSVectorZ,
FSElectronYukawa}
];
CheckFermiConstantInputRequirementsForNonSUSYModel[] :=
CheckFermiConstantInputRequirements[
{FSHiggs, FSHyperchargeCoupling,
FSLeftCoupling, FSStrongCoupling, FSVectorW, FSVectorZ,
FSElectronYukawa}
];
CheckWeakMixingAngleInputRequirements[input_] :=
Switch[input,
FlexibleSUSY`FSFermiConstant,
Switch[SARAH`SupersymmetricModel,
True,
If[CheckFermiConstantInputRequirementsForSUSYModel[],
input
,
Print["Error: cannot use ", input, " because model"
" requirements are not fulfilled"];
Print[" Using default input: ", FlexibleSUSY`FSMassW];
FlexibleSUSY`FSMassW
],
False,
If[CheckFermiConstantInputRequirementsForNonSUSYModel[],
input
,
Print["Error: cannot use ", input, " because model"
" requirements are not fulfilled"];
Print[" Using default input: ", FlexibleSUSY`FSMassW];
FlexibleSUSY`FSMassW
],
_,
Print["Error: model type: ", SARAH`SupersymmetricModel];
Print[" Using default input: ", FlexibleSUSY`FSMassW];
FlexibleSUSY`FSMassW
],
FlexibleSUSY`FSMassW,
input,
_,
Print["Error: unknown input ", input];
Print[" Using default input: ", FlexibleSUSY`FSMassW];
FlexibleSUSY`FSMassW
];
CheckModelFileSettings[] :=
Module[{},
(* FlexibleSUSY model name *)
If[!ValueQ[FlexibleSUSY`FSModelName] || Head[FlexibleSUSY`FSModelName] =!= String,
Print["Warning: FlexibleSUSY`FSModelName not defined!",
" I'm using Model`Name from SARAH: ", Model`Name];
FlexibleSUSY`FSModelName = Model`Name;
];
(* Set OnlyLowEnergyFlexibleSUSY to False by default *)
If[!ValueQ[FlexibleSUSY`OnlyLowEnergyFlexibleSUSY] ||
(FlexibleSUSY`OnlyLowEnergyFlexibleSUSY =!= True &&
FlexibleSUSY`OnlyLowEnergyFlexibleSUSY =!= False),
FlexibleSUSY`OnlyLowEnergyFlexibleSUSY = False;
];
If[Head[FlexibleSUSY`InitialGuessAtLowScale] =!= List,
FlexibleSUSY`InitialGuessAtLowScale = {};
];
If[Head[FlexibleSUSY`InitialGuessAtHighScale] =!= List,
FlexibleSUSY`InitialGuessAtHighScale = {};
];
(* HighScale *)
If[!ValueQ[FlexibleSUSY`HighScale],
If[!FlexibleSUSY`OnlyLowEnergyFlexibleSUSY,
Print["Warning: FlexibleSUSY`HighScale should be",
" set in the model file!"];
];
FlexibleSUSY`HighScale := 2 10^16;
];
If[!ValueQ[FlexibleSUSY`HighScaleFirstGuess],
If[!FlexibleSUSY`OnlyLowEnergyFlexibleSUSY,
Print["Warning: FlexibleSUSY`HighScaleFirstGuess should be",
" set in the model file!"];
];
FlexibleSUSY`HighScaleFirstGuess = 2.0 10^16;
];
If[Head[FlexibleSUSY`HighScaleInput] =!= List,
FlexibleSUSY`HighScaleInput = {};
];
(* LowScale *)
If[!ValueQ[FlexibleSUSY`LowScale],
Print["Warning: FlexibleSUSY`LowScale should be",
" set in the model file!"];
FlexibleSUSY`LowScale := LowEnergyConstant[MZ];
];
If[!ValueQ[FlexibleSUSY`LowScaleFirstGuess],
Print["Warning: FlexibleSUSY`LowScaleFirstGuess should be",
" set in the model file!"];
FlexibleSUSY`LowScaleFirstGuess = LowEnergyConstant[MZ];
];
If[Head[FlexibleSUSY`LowScaleInput] =!= List,
FlexibleSUSY`LowScaleInput = {};
];
(* SUSYScale *)
If[!ValueQ[FlexibleSUSY`SUSYScale],
Print["Warning: FlexibleSUSY`SUSYScale should be",
" set in the model file!"];
FlexibleSUSY`SUSYScale := 1000;
];
If[!ValueQ[FlexibleSUSY`SUSYScaleFirstGuess],
Print["Warning: FlexibleSUSY`SUSYScaleFirstGuess should be",
" set in the model file!"];
FlexibleSUSY`SUSYScaleFirstGuess = 1000;
];
If[Head[FlexibleSUSY`SUSYScaleInput] =!= List,
FlexibleSUSY`SUSYScaleInput = {};
];
If[Head[SARAH`MINPAR] =!= List,
SARAH`MINPAR = {};
];
If[Head[SARAH`EXTPAR] =!= List,
SARAH`EXTPAR = {};
];
If[Head[FlexibleSUSY`TreeLevelEWSBSolution] =!= List,
FlexibleSUSY`TreeLevelEWSBSolution = {};
];
If[Head[FlexibleSUSY`ExtraSLHAOutputBlocks] =!= List,
FlexibleSUSY`ExtraSLHAOutputBlocks = {};
];
If[Head[FlexibleSUSY`EWSBOutputParameters] =!= List,
Print["Error: EWSBOutputParameters has to be set to a list",
" of model parameters chosen to be output of the EWSB eqs."];
Quit[1];
];
If[Head[FlexibleSUSY`FSExtraInputParameters] =!= List,
Print["Error: FSExtraInputParameters has to be set to a list!"];
Quit[1];
,
If[!(And @@ (MatchQ[#,{_,_,_}]& /@ FlexibleSUSY`FSExtraInputParameters)),
Print["Error: FSExtraInputParameters must be of the form",
" {{A, AInput, {3,3}}, ... }"];
];
];
];
ReplaceIndicesInUserInput[rules_] :=
Block[{},
FlexibleSUSY`InitialGuessAtLowScale = FlexibleSUSY`InitialGuessAtLowScale /. rules;
FlexibleSUSY`InitialGuessAtHighScale = FlexibleSUSY`InitialGuessAtHighScale /. rules;
FlexibleSUSY`HighScale = FlexibleSUSY`HighScale /. rules;
FlexibleSUSY`HighScaleFirstGuess = FlexibleSUSY`HighScaleFirstGuess /. rules;
FlexibleSUSY`HighScaleInput = FlexibleSUSY`HighScaleInput /. rules;
FlexibleSUSY`LowScale = FlexibleSUSY`LowScale /. rules;
FlexibleSUSY`LowScaleFirstGuess = FlexibleSUSY`LowScaleFirstGuess /. rules;
FlexibleSUSY`LowScaleInput = FlexibleSUSY`LowScaleInput /. rules;
FlexibleSUSY`SUSYScale = FlexibleSUSY`SUSYScale /. rules;
FlexibleSUSY`SUSYScaleFirstGuess = FlexibleSUSY`SUSYScaleFirstGuess /. rules;
FlexibleSUSY`SUSYScaleInput = FlexibleSUSY`SUSYScaleInput /. rules;
];
EvaluateUserInput[] :=
Block[{},
FlexibleSUSY`HighScaleInput = Map[Evaluate, FlexibleSUSY`HighScaleInput, {0,Infinity}];
FlexibleSUSY`LowScaleInput = Map[Evaluate, FlexibleSUSY`LowScaleInput , {0,Infinity}];
FlexibleSUSY`SUSYScaleInput = Map[Evaluate, FlexibleSUSY`SUSYScaleInput, {0,Infinity}];
];
GUTNormalization[coupling_] :=
Parameters`GetGUTNormalization[coupling];
GeneralReplacementRules[] :=
{ "@VectorZ@" -> ToValidCSymbolString[SARAH`VectorZ],
"@VectorP@" -> ToValidCSymbolString[SARAH`VectorP],
"@VectorW@" -> ToValidCSymbolString[SARAH`VectorW],
"@VectorG@" -> ToValidCSymbolString[SARAH`VectorG],
"@TopQuark@" -> ToValidCSymbolString[SARAH`TopQuark],
"@BottomQuark@" -> ToValidCSymbolString[SARAH`BottomQuark],
"@Electron@" -> ToValidCSymbolString[SARAH`Electron],
"@Neutrino@" -> ToValidCSymbolString[SARAH`Neutrino],
"@HiggsBoson@" -> ToValidCSymbolString[SARAH`HiggsBoson],
"@HiggsBoson_" ~~ num_ ~~ "@" /; IntegerQ[ToExpression[num]] :> ToValidCSymbolString[SARAH`HiggsBoson] <> If[TreeMasses`GetDimension[SARAH`HiggsBoson] > 1, "(" <> num <> ")", ""],
"@PseudoScalarBoson@" -> ToValidCSymbolString[SARAH`PseudoScalarBoson],
"@ChargedHiggs@" -> ToValidCSymbolString[SARAH`ChargedHiggs],
"@TopSquark@" -> ToValidCSymbolString[SARAH`TopSquark],
"@TopSquark_" ~~ num_ ~~ "@" /; IntegerQ[ToExpression[num]] :> ToValidCSymbolString[SARAH`TopSquark] <> If[TreeMasses`GetDimension[SARAH`TopSquark] > 1, "(" <> num <> ")", ""],
"@BottomSquark@" -> ToValidCSymbolString[SARAH`BottomSquark],
"@BottomSquark_" ~~ num_ ~~ "@" /; IntegerQ[ToExpression[num]] :> ToValidCSymbolString[SARAH`BottomSquark] <> If[TreeMasses`GetDimension[SARAH`BottomSquark] > 1, "(" <> num <> ")", ""],
"@Sneutrino@" -> ToValidCSymbolString[SARAH`Sneutrino],
"@Selectron@" -> ToValidCSymbolString[SARAH`Selectron],
"@Gluino@" -> ToValidCSymbolString[SARAH`Gluino],
"@UpYukawa@" -> ToValidCSymbolString[SARAH`UpYukawa],
"@DownYukawa@" -> ToValidCSymbolString[SARAH`DownYukawa],
"@ElectronYukawa@" -> ToValidCSymbolString[SARAH`ElectronYukawa],
"@LeftUpMixingMatrix@" -> ToValidCSymbolString[SARAH`UpMatrixL],
"@LeftDownMixingMatrix@" -> ToValidCSymbolString[SARAH`DownMatrixL],
"@RightUpMixingMatrix@" -> ToValidCSymbolString[SARAH`UpMatrixR],
"@RightDownMixingMatrix@"-> ToValidCSymbolString[SARAH`DownMatrixR],
"@hyperchargeCoupling@" -> ToValidCSymbolString[SARAH`hyperchargeCoupling],
"@leftCoupling@" -> ToValidCSymbolString[SARAH`leftCoupling],
"@strongCoupling@" -> ToValidCSymbolString[SARAH`strongCoupling],
"@hyperchargeCouplingGutNormalization@" -> RValueToCFormString[Parameters`GetGUTNormalization[SARAH`hyperchargeCoupling]],
"@leftCouplingGutNormalization@" -> RValueToCFormString[Parameters`GetGUTNormalization[SARAH`leftCoupling]],
"@hyperchargeCouplingInverseGutNormalization@" -> RValueToCFormString[1/Parameters`GetGUTNormalization[SARAH`hyperchargeCoupling]],
"@leftCouplingInverseGutNormalization@" -> RValueToCFormString[1/Parameters`GetGUTNormalization[SARAH`leftCoupling]],
"@perturbativityThreshold@" -> ToString[N[FlexibleSUSY`FSPerturbativityThreshold]],
"@ModelName@" -> FlexibleSUSY`FSModelName,
"@numberOfModelParameters@" -> ToString[numberOfModelParameters],
"@InputParameter_" ~~ num_ ~~ "@" /; IntegerQ[ToExpression[num]] :> CConversion`ToValidCSymbolString[
If[Parameters`GetInputParameters[] === {},
"",
Parameters`GetInputParameters[][[ToExpression[num]]]
]
],
"@setInputParameterTo[" ~~ num_ ~~ "," ~~ value__ ~~ "]@" /; IntegerQ[ToExpression[num]] :>
If[Parameters`GetInputParameters[] === {},
"",
IndentText[IndentText[
Parameters`SetInputParameter[
Parameters`GetInputParameters[][[ToExpression[num]]],
value,
"INPUTPARAMETER"
]
]]
],
"@DateAndTime@" -> DateString[],
"@SARAHVersion@" -> SA`Version,
"@FlexibleSUSYVersion@" -> FS`Version,
"@FlexibleSUSYGitCommit@" -> FS`GitCommit
};
WriteRGEClass[betaFun_List, anomDim_List, files_List,
templateFile_String, makefileModuleTemplates_List,
additionalTraces_List:{}, numberOfBaseClassParameters_:0] :=
Module[{beta, setter, getter, parameterDef, set,
display, parameterDefaultInit,
cCtorParameterList, parameterCopyInit, betaParameterList,
anomDimPrototypes, anomDimFunctions, printParameters, parameters,
numberOfParameters, clearParameters,
singleBetaFunctionsDecls, singleBetaFunctionsDefsFiles,
traceDefs, calcTraces, sarahTraces},
(* extract list of parameters from the beta functions *)
parameters = BetaFunction`GetName[#]& /@ betaFun;
(* count number of parameters *)
numberOfParameters = BetaFunction`CountNumberOfParameters[betaFun] + numberOfBaseClassParameters;
(* create C++ functions and parameter declarations *)
sarahTraces = Traces`ConvertSARAHTraces[additionalTraces];
beta = BetaFunction`CreateBetaFunction[betaFun, sarahTraces];
setter = BetaFunction`CreateSetters[betaFun];
getter = BetaFunction`CreateGetters[betaFun];
parameterDef = BetaFunction`CreateParameterDefinitions[betaFun];
set = BetaFunction`CreateSetFunction[betaFun, numberOfBaseClassParameters];
display = BetaFunction`CreateDisplayFunction[betaFun, numberOfBaseClassParameters];
parameterDefaultInit = BetaFunction`CreateParameterDefaultInitialization[betaFun];
cCtorParameterList = BetaFunction`CreateCCtorParameterList[betaFun];
parameterCopyInit = BetaFunction`CreateCCtorInitialization[betaFun];
betaParameterList = BetaFunction`CreateParameterList[betaFun, "beta_"];
clearParameters = BetaFunction`ClearParameters[betaFun];
anomDimPrototypes = AnomalousDimension`CreateAnomDimPrototypes[anomDim];
anomDimFunctions = AnomalousDimension`CreateAnomDimFunctions[anomDim];
printParameters = WriteOut`PrintParameters[parameters, "ostr"];
singleBetaFunctionsDecls = BetaFunction`CreateSingleBetaFunctionDecl[betaFun];
traceDefs = Traces`CreateTraceDefs[betaFun];
traceDefs = traceDefs <> Traces`CreateSARAHTraceDefs[sarahTraces];
calcTraces = {Traces`CreateSARAHTraceCalculation[sarahTraces, "TRACE_STRUCT"],
Sequence @@ Traces`CreateTraceCalculation[betaFun, "TRACE_STRUCT"] };
WriteOut`ReplaceInFiles[files,
{ "@beta@" -> IndentText[WrapLines[beta]],
"@clearParameters@" -> IndentText[WrapLines[clearParameters]],
"@parameterDefaultInit@" -> WrapLines[parameterDefaultInit],
"@display@" -> IndentText[display],
"@set@" -> IndentText[set],
"@cCtorParameterList@" -> WrapLines[cCtorParameterList],
"@parameterCopyInit@" -> WrapLines[parameterCopyInit],
"@betaParameterList@" -> betaParameterList,
"@parameterDef@" -> IndentText[parameterDef],
"@cCtorParameterList@" -> WrapLines[cCtorParameterList],
"@setter@" -> IndentText[setter],
"@getter@" -> IndentText[getter],
"@anomDimPrototypes@" -> IndentText[anomDimPrototypes],
"@anomDimFunctions@" -> WrapLines[anomDimFunctions],
"@numberOfParameters@" -> RValueToCFormString[numberOfParameters],
"@printParameters@" -> IndentText[printParameters],
"@singleBetaFunctionsDecls@" -> IndentText[singleBetaFunctionsDecls],
"@traceDefs@" -> IndentText[IndentText[traceDefs]],
"@calc1LTraces@" -> IndentText @ IndentText[WrapLines[calcTraces[[1]] <> "\n" <> calcTraces[[2]]]],
"@calc2LTraces@" -> IndentText @ IndentText[WrapLines[calcTraces[[3]]]],
"@calc3LTraces@" -> IndentText @ IndentText[WrapLines[calcTraces[[4]]]],
Sequence @@ GeneralReplacementRules[]
} ];
singleBetaFunctionsDefsFiles = BetaFunction`CreateSingleBetaFunctionDefs[betaFun, templateFile, sarahTraces];
Print["Creating makefile module for the two-scale method ..."];
WriteMakefileModule[singleBetaFunctionsDefsFiles,
makefileModuleTemplates];
];
WriteInputParameterClass[inputParameters_List, files_List] :=
Module[{defineInputParameters, defaultInputParametersInit, printInputParameters, get, set, inputPars},
inputPars = {First[#], #[[3]]}& /@ inputParameters;
defineInputParameters = Constraint`DefineInputParameters[inputPars];
defaultInputParametersInit = Constraint`InitializeInputParameters[inputPars];
printInputParameters = WriteOut`PrintInputParameters[inputPars,"ostr"];
get = Parameters`CreateInputParameterArrayGetter[inputPars];
set = Parameters`CreateInputParameterArraySetter[inputPars];
WriteOut`ReplaceInFiles[files,
{ "@defineInputParameters@" -> IndentText[defineInputParameters],
"@defaultInputParametersInit@" -> WrapLines[defaultInputParametersInit],
"@printInputParameters@" -> IndentText[printInputParameters],
"@get@" -> IndentText[get],
"@set@" -> IndentText[set],
Sequence @@ GeneralReplacementRules[]
} ];
];
WriteConstraintClass[condition_, settings_List, scaleFirstGuess_,
{minimumScale_, maximumScale_}, files_List] :=
Module[{applyConstraint = "", calculateScale, scaleGuess,
restrictScale,
temporarySetting = "", temporaryResetting = "",
setDRbarYukawaCouplings,
calculateDRbarMasses,
calculateDeltaAlphaEm, calculateDeltaAlphaS,
calculateGaugeCouplings,
calculateThetaW,
recalculateMWPole,
checkPerturbativityForDimensionlessParameters = "",
saveEwsbOutputParameters, restoreEwsbOutputParameters},
Constraint`SetBetaFunctions[GetBetaFunctions[]];
applyConstraint = Constraint`ApplyConstraints[settings];
calculateScale = Constraint`CalculateScale[condition, "scale"];
scaleGuess = Constraint`CalculateScale[scaleFirstGuess, "initial_scale_guess"];
restrictScale = Constraint`RestrictScale[{minimumScale, maximumScale}];
temporarySetting = Constraint`SetTemporarily[settings];
temporaryResetting = Constraint`ResetTemporarily[settings];
calculateDeltaAlphaEm = ThresholdCorrections`CalculateDeltaAlphaEm[FlexibleSUSY`FSRenormalizationScheme];
calculateDeltaAlphaS = ThresholdCorrections`CalculateDeltaAlphaS[FlexibleSUSY`FSRenormalizationScheme];
calculateThetaW = ThresholdCorrections`CalculateThetaW[FSWeakMixingAngleOptions,SARAH`SupersymmetricModel];
calculateGaugeCouplings = ThresholdCorrections`CalculateGaugeCouplings[];
recalculateMWPole = ThresholdCorrections`RecalculateMWPole[FSWeakMixingAngleOptions];
setDRbarYukawaCouplings = {
ThresholdCorrections`SetDRbarYukawaCouplingTop[settings],
ThresholdCorrections`SetDRbarYukawaCouplingBottom[settings],
ThresholdCorrections`SetDRbarYukawaCouplingElectron[settings]
};
calculateDRbarMasses = {
LoopMasses`CallCalculateDRbarMass["Up Quark" , "Up-Quarks" , 1, "upQuarksDRbar", "qedqcd.displayMass(softsusy::mUp)" ],
LoopMasses`CallCalculateDRbarMass["Charmed Quark" , "Up-Quarks" , 2, "upQuarksDRbar", "qedqcd.displayMass(softsusy::mCharm)" ],
LoopMasses`CallCalculateDRbarMass["Top Quark" , "Up-Quarks" , 3, "upQuarksDRbar", "qedqcd.displayPoleMt()" ],
LoopMasses`CallCalculateDRbarMass["Down Quark" , "Down-Quarks", 1, "downQuarksDRbar", "qedqcd.displayMass(softsusy::mDown)" ],
LoopMasses`CallCalculateDRbarMass["Strange Quark" , "Down-Quarks", 2, "downQuarksDRbar", "qedqcd.displayMass(softsusy::mStrange)" ],
LoopMasses`CallCalculateDRbarMass["Bottom Quark" , "Down-Quarks", 3, "downQuarksDRbar", "qedqcd.displayMass(softsusy::mBottom)" ],
LoopMasses`CallCalculateDRbarMass["Electron" , "Leptons" , 1, "downLeptonsDRbar", "qedqcd.displayMass(softsusy::mElectron)"],
LoopMasses`CallCalculateDRbarMass["Muon" , "Leptons" , 2, "downLeptonsDRbar", "qedqcd.displayMass(softsusy::mMuon)" ],
LoopMasses`CallCalculateDRbarMass["Tau" , "Leptons" , 3, "downLeptonsDRbar", "qedqcd.displayMass(softsusy::mTau)" ],
LoopMasses`CallCalculateDRbarMass["Electron Neutrino", "Neutrinos" , 1, "neutrinoDRbar", "qedqcd.displayNeutrinoPoleMass(1)" ],
LoopMasses`CallCalculateDRbarMass["Muon Neutrino" , "Neutrinos" , 2, "neutrinoDRbar", "qedqcd.displayNeutrinoPoleMass(2)" ],
LoopMasses`CallCalculateDRbarMass["Tau Neutrino" , "Neutrinos" , 3, "neutrinoDRbar", "qedqcd.displayNeutrinoPoleMass(3)" ]
};
saveEwsbOutputParameters = Parameters`SaveParameterLocally[FlexibleSUSY`EWSBOutputParameters, "old_", "MODELPARAMETER"];
restoreEwsbOutputParameters = Parameters`RestoreParameter[FlexibleSUSY`EWSBOutputParameters, "old_", "model"];
If[FSCheckPerturbativityOfDimensionlessParameters,
checkPerturbativityForDimensionlessParameters =
Constraint`CheckPerturbativityForParameters[
Parameters`GetModelParametersWithMassDimension[0],
FlexibleSUSY`FSPerturbativityThreshold
];
];
WriteOut`ReplaceInFiles[files,
{ "@applyConstraint@" -> IndentText[WrapLines[applyConstraint]],
"@calculateScale@" -> IndentText[WrapLines[calculateScale]],
"@scaleGuess@" -> IndentText[WrapLines[scaleGuess]],
"@restrictScale@" -> IndentText[WrapLines[restrictScale]],
"@temporarySetting@" -> IndentText[WrapLines[temporarySetting]],
"@temporaryResetting@" -> IndentText[WrapLines[temporaryResetting]],
"@calculateGaugeCouplings@" -> IndentText[WrapLines[calculateGaugeCouplings]],
"@calculateDeltaAlphaEm@" -> IndentText[WrapLines[calculateDeltaAlphaEm]],
"@calculateDeltaAlphaS@" -> IndentText[WrapLines[calculateDeltaAlphaS]],
"@calculateThetaW@" -> IndentText[WrapLines[calculateThetaW]],
"@recalculateMWPole@" -> IndentText[WrapLines[recalculateMWPole]],
"@calculateDRbarMassUp@" -> IndentText[IndentText[calculateDRbarMasses[[1]]]],
"@calculateDRbarMassCharm@" -> IndentText[IndentText[calculateDRbarMasses[[2]]]],
"@calculateDRbarMassTop@" -> IndentText[IndentText[calculateDRbarMasses[[3]]]],
"@calculateDRbarMassDown@" -> IndentText[IndentText[calculateDRbarMasses[[4]]]],
"@calculateDRbarMassStrange@" -> IndentText[IndentText[calculateDRbarMasses[[5]]]],
"@calculateDRbarMassBottom@" -> IndentText[IndentText[calculateDRbarMasses[[6]]]],
"@calculateDRbarMassElectron@"-> IndentText[IndentText[calculateDRbarMasses[[7]]]],
"@calculateDRbarMassMuon@" -> IndentText[IndentText[calculateDRbarMasses[[8]]]],
"@calculateDRbarMassTau@" -> IndentText[IndentText[calculateDRbarMasses[[9]]]],
"@calculateDRbarMassElectronNeutrino@"-> IndentText[IndentText[calculateDRbarMasses[[10]]]],
"@calculateDRbarMassMuonNeutrino@" -> IndentText[IndentText[calculateDRbarMasses[[11]]]],
"@calculateDRbarMassTauNeutrino@" -> IndentText[IndentText[calculateDRbarMasses[[12]]]],
"@setDRbarUpQuarkYukawaCouplings@" -> IndentText[WrapLines[setDRbarYukawaCouplings[[1]]]],
"@setDRbarDownQuarkYukawaCouplings@" -> IndentText[WrapLines[setDRbarYukawaCouplings[[2]]]],
"@setDRbarElectronYukawaCouplings@" -> IndentText[WrapLines[setDRbarYukawaCouplings[[3]]]],
"@saveEwsbOutputParameters@" -> IndentText[saveEwsbOutputParameters],
"@restoreEwsbOutputParameters@" -> IndentText[restoreEwsbOutputParameters],
"@checkPerturbativityForDimensionlessParameters@" -> IndentText[checkPerturbativityForDimensionlessParameters],
Sequence @@ GeneralReplacementRules[]
} ];
];
WriteInitialGuesserClass[lowScaleGuess_List, highScaleGuess_List, files_List] :=
Module[{initialGuessAtLowScale, initialGuessAtLowScaleGaugeCouplings = "",
initialGuessAtHighScale, setDRbarYukawaCouplings,
allSettings},
initialGuessAtLowScale = Constraint`ApplyConstraints[lowScaleGuess];
initialGuessAtLowScaleGaugeCouplings = Constraint`InitialGuessAtLowScaleGaugeCouplings[];
initialGuessAtHighScale = Constraint`ApplyConstraints[highScaleGuess];
allSettings = Join[lowScaleGuess, highScaleGuess];
setDRbarYukawaCouplings = {
ThresholdCorrections`SetDRbarYukawaCouplingTop[allSettings],
ThresholdCorrections`SetDRbarYukawaCouplingBottom[allSettings],
ThresholdCorrections`SetDRbarYukawaCouplingElectron[allSettings]
};
WriteOut`ReplaceInFiles[files,
{ "@initialGuessAtLowScale@" -> IndentText[WrapLines[initialGuessAtLowScale]],
"@initialGuessAtLowScaleGaugeCouplings@" -> IndentText[WrapLines[initialGuessAtLowScaleGaugeCouplings]],
"@initialGuessAtHighScale@" -> IndentText[WrapLines[initialGuessAtHighScale]],
"@setDRbarUpQuarkYukawaCouplings@" -> IndentText[WrapLines[setDRbarYukawaCouplings[[1]]]],
"@setDRbarDownQuarkYukawaCouplings@" -> IndentText[WrapLines[setDRbarYukawaCouplings[[2]]]],
"@setDRbarElectronYukawaCouplings@" -> IndentText[WrapLines[setDRbarYukawaCouplings[[3]]]],
Sequence @@ GeneralReplacementRules[]
} ];
];
WriteConvergenceTesterClass[parameters_, files_List] :=
Module[{compareFunction},
compareFunction = ConvergenceTester`CreateCompareFunction[parameters];
WriteOut`ReplaceInFiles[files,
{ "@compareFunction@" -> IndentText[WrapLines[compareFunction]],
Sequence @@ GeneralReplacementRules[]
} ];
];
FindVEV[gauge_] :=
Module[{result, vev},
vev = Cases[SARAH`DEFINITION[FlexibleSUSY`FSEigenstates][SARAH`VEVs],
{_,{v_,_},{gauge,_},{p_,_},___} | {_,{v_,_},{s_,_},{gauge,_},___} :> v];
If[vev === {},
Print["Error: could not find VEV for gauge eigenstate ", gauge];
Quit[1];
];
vev[[1]]
];
GetDimOfVEV[vev_] :=
Switch[SARAH`getDimParameters[vev],
{} , 1,
{0} , 1,
{1} , 1,
{idx_} , SARAH`getDimParameters[vev][[1]]
];
ExpandGaugeIndices[gauge_, number_] :=
Table[gauge[i], {i,1,number}];
ExpandGaugeIndices[gauge_List] :=
Flatten[ExpandGaugeIndices[#,GetDimOfVEV[FindVEV[#]]]& /@ gauge];
(* Returns a list of three-component lists where the information is
stored which Higgs corresponds to which EWSB eq. and whether the
corresponding tadpole is real or imaginary (only in models with CP
violation).
Example: MRSSM
In[] := CreateHiggsToEWSBEqAssociation[]
Out[] = {{hh, 1, Re}, {hh, 2, Re}, {hh, 4, Re}, {hh, 3, Re}}
This result means:
EWSB eq. 1 corresponds to hh[1], the 1L tadpole[1] is real
EWSB eq. 2 corresponds to hh[2], the 1L tadpole[2] is real
EWSB eq. 3 corresponds to hh[4], the 1L tadpole[3] is real
EWSB eq. 4 corresponds to hh[3], the 1L tadpole[4] is real
*)
CreateHiggsToEWSBEqAssociation[] :=
Module[{association = {}, v, phi, sigma, higgs, numberOfVEVs, numberOfHiggses, vevs,
vev, dimVev},
vevs = Cases[SARAH`DEFINITION[FlexibleSUSY`FSEigenstates][SARAH`VEVs],
{_,{v_,_},{s_,_},{p_,_},___} :> {v,s,p}];
If[Length[vevs] == 1,
Return[{{SARAH`HiggsBoson, 1, Re}}];
];
FindPositions[es_] :=
Module[{gaugeES, higgsGaugeES},
gaugeES = ExpandGaugeIndices[es];
(* list of gauge eigenstate fields, ordered according to Higgs mixing *)
higgsGaugeES = Cases[SARAH`DEFINITION[FlexibleSUSY`FSEigenstates][SARAH`MatterSector],
{gauge_List, {SARAH`HiggsBoson, _}} :> gauge][[1]];
higgsGaugeES = ExpandGaugeIndices[higgsGaugeES];
(* find positions of gaugeES in higgsGaugeES *)
{SARAH`HiggsBoson,#}& /@ (Flatten[Position[higgsGaugeES, #]& /@ gaugeES])
];
Join[Append[#,Re]& /@ FindPositions[Transpose[vevs][[3]]],
Append[#,Re]& /@ FindPositions[Transpose[vevs][[2]]]]
];
WriteModelSLHAClass[massMatrices_List, files_List] :=
Module[{k,
slhaYukawaDef = "",
slhaYukawaGetter = "",
convertYukawaCouplingsToSLHA = "",
slhaTrilinearCouplingsDef = "",
slhaTrilinearCouplingsGetter = "",
convertTrilinearCouplingsToSLHA = "",
slhaSoftSquaredMassesDef = "",
slhaSoftSquaredMassesGetter = "",
convertSoftSquaredMassesToSLHA = "",
slhaFerimonMixingMatricesDef = "",
slhaFerimonMixingMatricesGetters = "",
slhaPoleMassGetters = "",
slhaPoleMixingMatrixGetters = "",
calculateCKMMatrix = "",
calculatePMNSMatrix = ""
},
slhaYukawaDef = WriteOut`CreateSLHAYukawaDefinition[];
slhaYukawaGetter = WriteOut`CreateSLHAYukawaGetters[];
convertYukawaCouplingsToSLHA = WriteOut`ConvertYukawaCouplingsToSLHA[];
slhaTrilinearCouplingsDef = WriteOut`CreateSLHATrilinearCouplingDefinition[];
slhaTrilinearCouplingsGetter = WriteOut`CreateSLHATrilinearCouplingGetters[];
convertTrilinearCouplingsToSLHA = WriteOut`ConvertTrilinearCouplingsToSLHA[];
slhaSoftSquaredMassesDef = WriteOut`CreateSLHASoftSquaredMassesDefinition[];
slhaSoftSquaredMassesGetter = WriteOut`CreateSLHASoftSquaredMassesGetters[];
convertSoftSquaredMassesToSLHA = WriteOut`ConvertSoftSquaredMassesToSLHA[];
slhaFerimonMixingMatricesDef = WriteOut`CreateSLHAFermionMixingMatricesDef[];
slhaFerimonMixingMatricesGetters = WriteOut`CreateSLHAFermionMixingMatricesGetters[];
calculateCKMMatrix = WriteOut`CalculateCKMMatrix[];
calculatePMNSMatrix = WriteOut`CalculatePMNSMatrix[];
For[k = 1, k <= Length[massMatrices], k++,
slhaPoleMassGetters = slhaPoleMassGetters <> TreeMasses`CreateSLHAPoleMassGetter[massMatrices[[k]]];
slhaPoleMixingMatrixGetters = slhaPoleMixingMatrixGetters <> TreeMasses`CreateSLHAPoleMixingMatrixGetter[massMatrices[[k]]];
];
WriteOut`ReplaceInFiles[files,
{ "@slhaYukawaDef@" -> IndentText[slhaYukawaDef],
"@slhaYukawaGetter@" -> IndentText[slhaYukawaGetter],
"@convertYukawaCouplingsToSLHA@" -> IndentText[convertYukawaCouplingsToSLHA],
"@slhaFerimonMixingMatricesDef@" -> IndentText[slhaFerimonMixingMatricesDef],
"@slhaFerimonMixingMatricesGetters@" -> IndentText[slhaFerimonMixingMatricesGetters],
"@slhaTrilinearCouplingsDef@" -> IndentText[slhaTrilinearCouplingsDef],
"@slhaTrilinearCouplingsGetter@" -> IndentText[slhaTrilinearCouplingsGetter],
"@convertTrilinearCouplingsToSLHA@"-> IndentText[convertTrilinearCouplingsToSLHA],
"@slhaSoftSquaredMassesDef@" -> IndentText[slhaSoftSquaredMassesDef],
"@slhaSoftSquaredMassesGetter@" -> IndentText[slhaSoftSquaredMassesGetter],
"@convertSoftSquaredMassesToSLHA@" -> IndentText[convertSoftSquaredMassesToSLHA],
"@slhaPoleMassGetters@" -> IndentText[slhaPoleMassGetters],
"@slhaPoleMixingMatrixGetters@" -> IndentText[slhaPoleMixingMatrixGetters],
"@calculateCKMMatrix@" -> IndentText[calculateCKMMatrix],
"@calculatePMNSMatrix@" -> IndentText[calculatePMNSMatrix],
Sequence @@ GeneralReplacementRules[]
} ];
];
(* Returns a list of three-component lists where the information is
stored which VEV corresponds to which Tadpole eq.
Example: MRSSM
It[] := CreateVEVToTadpoleAssociation[]
Out[] = {{hh, 1, vd}, {hh, 2, vu}, {hh, 4, vS}, {hh, 3, vT}}
*)
CreateVEVToTadpoleAssociation[] :=
Module[{association, vev},
vevs = Cases[SARAH`DEFINITION[FlexibleSUSY`FSEigenstates][SARAH`VEVs],
{_,{v_,_},{s_,_},{p_,_},___} :> {v,s,p}];
association = CreateHiggsToEWSBEqAssociation[];
{#[[1]], #[[2]], vevs[[#[[2]],1]]}& /@ association
];
WriteModelClass[massMatrices_List, ewsbEquations_List,
parametersFixedByEWSB_List, ewsbSolution_List, freePhases_List,
nPointFunctions_List, vertexRules_List, phases_List,
files_List, diagonalizationPrecision_List] :=
Module[{ewsbEquationsTreeLevel, independentEwsbEquationsTreeLevel,
independentEwsbEquations,
massGetters = "", k,
mixingMatrixGetters = "",
slhaPoleMassGetters = "", slhaPoleMixingMatrixGetters = "",
higgsMassGetters = "",
tadpoleEqPrototypes = "", tadpoleEqFunctions = "",
numberOfEWSBEquations = Length[ewsbEquations],
numberOfIndependentEWSBEquations,
calculateTreeLevelTadpoles = "",
ewsbInitialGuess = "", physicalMassesDef = "", mixingMatricesDef = "",
physicalMassesInit = "", physicalMassesInitNoLeadingComma = "", mixingMatricesInit = "",
massCalculationPrototypes = "", massCalculationFunctions = "",
calculateAllMasses = "",
calculateOneLoopTadpoles = "", calculateTwoLoopTadpoles = "",
calculateOneLoopTadpolesNoStruct = "", calculateTwoLoopTadpolesNoStruct = "",
selfEnergyPrototypes = "", selfEnergyFunctions = "",
twoLoopTadpolePrototypes = "", twoLoopTadpoleFunctions = "",
twoLoopSelfEnergyPrototypes = "", twoLoopSelfEnergyFunctions = "",
threeLoopSelfEnergyPrototypes = "", threeLoopSelfEnergyFunctions = "",
thirdGenerationHelperPrototypes = "", thirdGenerationHelperFunctions = "",
phasesDefinition = "", phasesGetterSetters = "",
phasesInit = "",
loopMassesPrototypes = "", loopMassesFunctions = "",
runningDRbarMassesPrototypes = "", runningDRbarMassesFunctions = "",
callAllLoopMassFunctions = "",
callAllLoopMassFunctionsInThreads = "",
printMasses = "", printMixingMatrices = "",
getPhysical = "", setPhysical = "",
getMasses = "", setMasses = "",
masses, mixingMatrices, oneLoopTadpoles,
dependencePrototypes, dependenceFunctions,
clearOutputParameters = "", solveEwsbTreeLevel = "",
clearPhases = "",
saveEwsbOutputParameters, restoreEwsbOutputParameters,
softScalarMasses, treeLevelEWSBOutputParameters,
saveSoftHiggsMasses, restoreSoftHiggsMasses,
solveTreeLevelEWSBviaSoftHiggsMasses,
solveEWSBTemporarily,
copyDRbarMassesToPoleMasses = "",
reorderDRbarMasses = "", reorderPoleMasses = "",
checkPoleMassesForTachyons = "",
higgsToEWSBEqAssociation,
twoLoopHiggsHeaders = "", threeLoopHiggsHeaders = "",
lspGetters = "", lspFunctions = "",
EWSBSolvers = "",
setEWSBSolution = "",
fillArrayWithEWSBParameters = "",
solveEwsbWithTadpoles = "",
getEWSBParametersFromGSLVector = "",
setEWSBParametersFromLocalCopies = "",
ewsbParametersInitializationList = "",
setEWSBParametersFromGSLVector = "",
convertMixingsToSLHAConvention = "",
convertMixingsToHKConvention = "",
enablePoleMassThreads = True
},
convertMixingsToSLHAConvention = WriteOut`ConvertMixingsToSLHAConvention[massMatrices];
convertMixingsToHKConvention = WriteOut`ConvertMixingsToHKConvention[massMatrices];
independentEwsbEquations = Parameters`FilterOutLinearDependentEqs[ewsbEquations, parametersFixedByEWSB];
numberOfIndependentEWSBEquations = Length[independentEwsbEquations];
ewsbEquationsTreeLevel = ewsbEquations /. FlexibleSUSY`tadpole[_] -> 0;
independentEwsbEquationsTreeLevel = independentEwsbEquations /. FlexibleSUSY`tadpole[_] -> 0;
For[k = 1, k <= Length[massMatrices], k++,
massGetters = massGetters <> TreeMasses`CreateMassGetter[massMatrices[[k]]];
mixingMatrixGetters = mixingMatrixGetters <> TreeMasses`CreateMixingMatrixGetter[massMatrices[[k]]];
physicalMassesDef = physicalMassesDef <> TreeMasses`CreatePhysicalMassDefinition[massMatrices[[k]]];
mixingMatricesDef = mixingMatricesDef <> TreeMasses`CreateMixingMatrixDefinition[massMatrices[[k]]];
physicalMassesInit = physicalMassesInit <> TreeMasses`CreatePhysicalMassInitialization[massMatrices[[k]]];
physicalMassesInitNoLeadingComma = StringTrim[physicalMassesInit, StartOfString ~~ ","];
mixingMatricesInit = mixingMatricesInit <> TreeMasses`CreateMixingMatrixInitialization[massMatrices[[k]]];
clearOutputParameters = clearOutputParameters <> TreeMasses`ClearOutputParameters[massMatrices[[k]]];
copyDRbarMassesToPoleMasses = copyDRbarMassesToPoleMasses <> TreeMasses`CopyDRBarMassesToPoleMasses[massMatrices[[k]]];
massCalculationPrototypes = massCalculationPrototypes <> TreeMasses`CreateMassCalculationPrototype[massMatrices[[k]]];
massCalculationFunctions = massCalculationFunctions <> TreeMasses`CreateMassCalculationFunction[massMatrices[[k]]];
];
higgsMassGetters =
Utils`StringZipWithSeparator[
TreeMasses`CreateHiggsMassGetters[SARAH`HiggsBoson,""],
TreeMasses`CreateHiggsMassGetters[SARAH`ChargedHiggs,""],
TreeMasses`CreateHiggsMassGetters[SARAH`PseudoScalar,""],
"\n"
];
clearPhases = Phases`ClearPhases[phases];
calculateAllMasses = TreeMasses`CallMassCalculationFunctions[massMatrices];
tadpoleEqPrototypes = EWSB`CreateEWSBEqPrototype[SARAH`HiggsBoson];
tadpoleEqFunctions = EWSB`CreateEWSBEqFunction[SARAH`HiggsBoson, ewsbEquationsTreeLevel];
If[ewsbEquations =!= Table[0, {numberOfEWSBEquations}] &&
Length[parametersFixedByEWSB] != numberOfIndependentEWSBEquations,
Print["Error: There are ", numberOfIndependentEWSBEquations, " independent EWSB ",
"equations, but you want to fix ", Length[parametersFixedByEWSB],
" parameters: ", parametersFixedByEWSB];
];
higgsToEWSBEqAssociation = CreateHiggsToEWSBEqAssociation[];
oneLoopTadpoles = Cases[nPointFunctions, SelfEnergies`Tadpole[___]];
calculateOneLoopTadpoles = SelfEnergies`FillArrayWithOneLoopTadpoles[higgsToEWSBEqAssociation, "tadpole", "-"];
calculateOneLoopTadpolesNoStruct = SelfEnergies`FillArrayWithOneLoopTadpoles[higgsToEWSBEqAssociation, "tadpole", "+"];
If[SARAH`UseHiggs2LoopMSSM === True ||
FlexibleSUSY`UseHiggs2LoopNMSSM === True,
calculateTwoLoopTadpoles = SelfEnergies`FillArrayWithTwoLoopTadpoles[SARAH`HiggsBoson, "tadpole", "-"];
calculateTwoLoopTadpolesNoStruct = SelfEnergies`FillArrayWithTwoLoopTadpoles[SARAH`HiggsBoson, "tadpole", "+"];
{thirdGenerationHelperPrototypes, thirdGenerationHelperFunctions} = TreeMasses`CreateThirdGenerationHelpers[];
];
If[FlexibleSUSY`UseHiggs2LoopSM === True,
{twoLoopSelfEnergyPrototypes, twoLoopSelfEnergyFunctions} = SelfEnergies`CreateTwoLoopSelfEnergiesSM[{SARAH`HiggsBoson}];
twoLoopHiggsHeaders = "#include \"sm_twoloophiggs.hpp\"\n";
];
If[FlexibleSUSY`UseHiggs3LoopSplit === True,
{threeLoopSelfEnergyPrototypes, threeLoopSelfEnergyFunctions} = SelfEnergies`CreateThreeLoopSelfEnergiesSplit[{SARAH`HiggsBoson}];
threeLoopHiggsHeaders = "#include \"split_threeloophiggs.hpp\"\n";
];
If[SARAH`UseHiggs2LoopMSSM === True,
{twoLoopTadpolePrototypes, twoLoopTadpoleFunctions} = SelfEnergies`CreateTwoLoopTadpolesMSSM[SARAH`HiggsBoson];
{twoLoopSelfEnergyPrototypes, twoLoopSelfEnergyFunctions} = SelfEnergies`CreateTwoLoopSelfEnergiesMSSM[{SARAH`HiggsBoson, SARAH`PseudoScalar}];
twoLoopHiggsHeaders = "#include \"sfermions.hpp\"\n#include \"mssm_twoloophiggs.h\"\n";
];
If[FlexibleSUSY`UseHiggs2LoopNMSSM === True,
{twoLoopTadpolePrototypes, twoLoopTadpoleFunctions} = SelfEnergies`CreateTwoLoopTadpolesNMSSM[SARAH`HiggsBoson];
{twoLoopSelfEnergyPrototypes, twoLoopSelfEnergyFunctions} = SelfEnergies`CreateTwoLoopSelfEnergiesNMSSM[{SARAH`HiggsBoson, SARAH`PseudoScalar}];
twoLoopHiggsHeaders = "#include \"sfermions.hpp\"\n#include \"nmssm_twoloophiggs.h\"\n";
];
setEWSBParametersFromGSLVector = EWSB`SetEWSBParametersFromGSLVector[parametersFixedByEWSB, freePhases, "x"];
calculateTreeLevelTadpoles = EWSB`FillArrayWithEWSBEqs[SARAH`HiggsBoson, "tadpole"];
ewsbInitialGuess = EWSB`FillInitialGuessArray[parametersFixedByEWSB];
solveEwsbTreeLevel = EWSB`CreateTreeLevelEwsbSolver[ewsbSolution /. FlexibleSUSY`tadpole[_] -> 0];
{selfEnergyPrototypes, selfEnergyFunctions} = SelfEnergies`CreateNPointFunctions[nPointFunctions, vertexRules];
phasesDefinition = Phases`CreatePhasesDefinition[phases];
phasesGetterSetters = Phases`CreatePhasesGetterSetters[phases];
phasesInit = Phases`CreatePhasesInitialization[phases];
loopMassesPrototypes = LoopMasses`CreateOneLoopPoleMassPrototypes[];