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Basic_definitions_for_a_non supersymmetric_model

Basic_definitions_for_a_non supersymmetric_model

Last edited by Martin Gabelmann Jun 28, 2019

Basic definitions for a non-supersymmetric model

In order to calculate the gauge eigenstates for a non-supersymmetric model, SARAH needs the following information as input:

Global Symmetries
Gauge Symmetries
Particle Content
Potential

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Index

Additional terms in Lagrangian
Advanced usage of FlavorKit
Advanced usage of FlavorKit to calculate new Wilson coefficients
Advanced usage of FlavorKit to define new observables
Already defined Operators in FlavorKit
Already defined observables in FlavorKit
Auto-generated templates for particles.m and parameters.m
Automatic index contraction
Basic definitions for a non-supersymmetric model
Basic definitions for a supersymmetric model
Basic usage of FlavorKit
Boundary conditions in SPheno
CalcHep CompHep
Calculation of flavour and precision observables with SPheno
Checking the particles and parameters within Mathematica
Checks of implemented models
Conventions
Decay calculation with SPheno
Defined FlavorKit parameters
Definition of the properties of different eigenstates
Delete Particles
Different sets of eigenstates
Diphoton and digluon vertices with SPheno
Dirac Spinors
FeynArts
Fine-Tuning calculations with SPheno
Flags for SPheno Output
Flags in SPheno LesHouches file
FlavorKit
FlavorKit Download and Installation
Flavour Decomposition
GUT scale condition in SPheno
Gauge Symmetries SUSY
Gauge Symmetries non-SUSY
Gauge fixing
Gauge group constants
General information about Field Properties
General information about model implementations
Generating files with particle properties
Generic RGE calculation
Global Symmetries SUSY
Global Symmetries non-SUSY
Handling of Tadpoles with SPheno
Handling of non-fundamental representations
HiggsBounds
Higher dimensionsal terms in superpotential
Input parameters of SPheno
Installation
Installing Vevacious
LHCP
LHPC
LaTeX
Lagrangian
Loop Masses
Loop calculations
Loop functions
Low or High scale SPheno version
Main Commands
Main Model File
Matching to the SM in SPheno
MicrOmegas
ModelOutput
Model files for Monte-Carlo tools
Model files for other tools
Models with Thresholds in SPheno
Models with another gauge group at the SUSY scale
Models with several generations of Higgs doublets
More precise mass spectrum calculation
No SPheno output possible
Nomenclature for fields in non-supersymmetric models
Nomenclature for fields in supersymmetric models
One-Loop Self-Energies and Tadpoles
One-Loop Threshold Corrections in Scalar Sectors
Options SUSY Models
Options non-SUSY Models
Parameters.m
Particle Content SUSY
Particle Content non-SUSY
Particles.m
Phases
Potential
Presence of super-heavy particles
RGE Running with Mathematica
RGEs
Renormalisation procedure of SPheno
Rotations angles in SPheno
Rotations in gauge sector
Rotations in matter sector
SARAH in a Nutshell
SARAH wiki
SLHA input for Vevacious
SPheno
SPheno Higgs production
SPheno Output
SPheno and Monte-Carlo tools
SPheno files
SPheno mass calculation
SPheno threshold corrections
Setting up SPheno.m
Setting up Vevacious
Setting up the SPheno properties
Special fields and parameters in SARAH
Superpotential
Support of Dirac Gauginos
Supported Models
Supported gauge sectors
Supported global symmetries
Supported matter sector
Supported options for symmetry breaking
Supported particle mixing
Tadpole Equations
The renormalisation scale in SPheno
Tree-level calculations
Tree Masses
Two-Loop Self-Energies and Tadpoles
UFO
Usage of tadpoles equations
Using SPheno for two-loop masses
Using auxiliary parameters in SPheno
VEVs
Vertices
Vevacious
WHIZARD