Comparison of SUSY spectra generators for natural SUSY and string landscape predictions
Models of natural supersymmetry give rise to a weak scale m weak ∼ m W , Z , h ∼ 100 GeV without any (implausible) finetuning of independent contributions to the weak scale. These models, which exhibit radiatively driven naturalness (RNS), are expected to arise from statistical analysis of the strin...
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Published in | The European physical journal. C, Particles and fields Vol. 82; no. 2; pp. 1 - 17 |
---|---|
Main Authors | , , |
Format | Journal Article |
Language | English |
Published |
Berlin/Heidelberg
Springer Berlin Heidelberg
01.02.2022
Springer Springer Nature B.V SpringerOpen |
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Abstract | Models of natural supersymmetry give rise to a weak scale
m
weak
∼
m
W
,
Z
,
h
∼
100
GeV without any (implausible) finetuning of independent contributions to the weak scale. These models, which exhibit radiatively driven naturalness (RNS), are expected to arise from statistical analysis of the string landscape wherein large soft terms are favored, but subject to a not-too-large value of the derived weak scale in each pocket universe of the greater multiverse. The string landscape picture then predicts, using the Isajet SUSY spectra generator Isasugra, a statistical peak at
m
h
∼
125
GeV with sparticles generally beyond current LHC search limits. In this paper, we investigate how well these conclusions hold up using other popular spectra generators: SOFTSUSY, SPHENO and SUSPECT (SSS). We built a computer code DEW4SLHA which operates on SUSY Les Houches Accord files to calculate the associated electroweak naturalness measure
Δ
EW
. The SSS generators tend to yield a Higgs mass peak
∼
125
–127 GeV with a superparticle mass spectra rather similar to that generated by Isasugra. In an Appendix, we include loop corrections to
Δ
EW
in a more standard notation. |
---|---|
AbstractList | Models of natural supersymmetry give rise to a weak scale mweak∼mW,Z,h∼100 GeV without any (implausible) finetuning of independent contributions to the weak scale. These models, which exhibit radiatively driven naturalness (RNS), are expected to arise from statistical analysis of the string landscape wherein large soft terms are favored, but subject to a not-too-large value of the derived weak scale in each pocket universe of the greater multiverse. The string landscape picture then predicts, using the Isajet SUSY spectra generator Isasugra, a statistical peak at mh∼125 GeV with sparticles generally beyond current LHC search limits. In this paper, we investigate how well these conclusions hold up using other popular spectra generators: SOFTSUSY, SPHENO and SUSPECT (SSS). We built a computer code DEW4SLHA which operates on SUSY Les Houches Accord files to calculate the associated electroweak naturalness measure ΔEW. The SSS generators tend to yield a Higgs mass peak ∼125–127 GeV with a superparticle mass spectra rather similar to that generated by Isasugra. In an Appendix, we include loop corrections to ΔEW in a more standard notation. Models of natural supersymmetry give rise to a weak scale m weak ∼ m W , Z , h ∼ 100 GeV without any (implausible) finetuning of independent contributions to the weak scale. These models, which exhibit radiatively driven naturalness (RNS), are expected to arise from statistical analysis of the string landscape wherein large soft terms are favored, but subject to a not-too-large value of the derived weak scale in each pocket universe of the greater multiverse. The string landscape picture then predicts, using the Isajet SUSY spectra generator Isasugra, a statistical peak at m h ∼ 125 GeV with sparticles generally beyond current LHC search limits. In this paper, we investigate how well these conclusions hold up using other popular spectra generators: SOFTSUSY, SPHENO and SUSPECT (SSS). We built a computer code DEW4SLHA which operates on SUSY Les Houches Accord files to calculate the associated electroweak naturalness measure Δ EW . The SSS generators tend to yield a Higgs mass peak ∼ 125 –127 GeV with a superparticle mass spectra rather similar to that generated by Isasugra. In an Appendix, we include loop corrections to Δ EW in a more standard notation. Models of natural supersymmetry give rise to a weak scale $$m_{weak}\sim m_{W,Z,h}\sim 100$$ m weak ∼ m W , Z , h ∼ 100 GeV without any (implausible) finetuning of independent contributions to the weak scale. These models, which exhibit radiatively driven naturalness (RNS), are expected to arise from statistical analysis of the string landscape wherein large soft terms are favored, but subject to a not-too-large value of the derived weak scale in each pocket universe of the greater multiverse. The string landscape picture then predicts, using the Isajet SUSY spectra generator Isasugra, a statistical peak at $$m_h\sim 125$$ m h ∼ 125 GeV with sparticles generally beyond current LHC search limits. In this paper, we investigate how well these conclusions hold up using other popular spectra generators: SOFTSUSY, SPHENO and SUSPECT (SSS). We built a computer code DEW4SLHA which operates on SUSY Les Houches Accord files to calculate the associated electroweak naturalness measure $$\Delta _{EW}$$ Δ EW . The SSS generators tend to yield a Higgs mass peak $$\sim 125$$ ∼ 125 –127 GeV with a superparticle mass spectra rather similar to that generated by Isasugra. In an Appendix, we include loop corrections to $$\Delta _{EW}$$ Δ EW in a more standard notation. Models of natural supersymmetry give rise to a weak scale [Formula omitted] GeV without any (implausible) finetuning of independent contributions to the weak scale. These models, which exhibit radiatively driven naturalness (RNS), are expected to arise from statistical analysis of the string landscape wherein large soft terms are favored, but subject to a not-too-large value of the derived weak scale in each pocket universe of the greater multiverse. The string landscape picture then predicts, using the Isajet SUSY spectra generator Isasugra, a statistical peak at [Formula omitted] GeV with sparticles generally beyond current LHC search limits. In this paper, we investigate how well these conclusions hold up using other popular spectra generators: SOFTSUSY, SPHENO and SUSPECT (SSS). We built a computer code DEW4SLHA which operates on SUSY Les Houches Accord files to calculate the associated electroweak naturalness measure [Formula omitted]. The SSS generators tend to yield a Higgs mass peak [Formula omitted]-127 GeV with a superparticle mass spectra rather similar to that generated by Isasugra. In an Appendix, we include loop corrections to [Formula omitted] in a more standard notation. Abstract Models of natural supersymmetry give rise to a weak scale $$m_{weak}\sim m_{W,Z,h}\sim 100$$ m weak ∼ m W , Z , h ∼ 100 GeV without any (implausible) finetuning of independent contributions to the weak scale. These models, which exhibit radiatively driven naturalness (RNS), are expected to arise from statistical analysis of the string landscape wherein large soft terms are favored, but subject to a not-too-large value of the derived weak scale in each pocket universe of the greater multiverse. The string landscape picture then predicts, using the Isajet SUSY spectra generator Isasugra, a statistical peak at $$m_h\sim 125$$ m h ∼ 125 GeV with sparticles generally beyond current LHC search limits. In this paper, we investigate how well these conclusions hold up using other popular spectra generators: SOFTSUSY, SPHENO and SUSPECT (SSS). We built a computer code DEW4SLHA which operates on SUSY Les Houches Accord files to calculate the associated electroweak naturalness measure $$\Delta _{EW}$$ Δ EW . The SSS generators tend to yield a Higgs mass peak $$\sim 125$$ ∼ 125 –127 GeV with a superparticle mass spectra rather similar to that generated by Isasugra. In an Appendix, we include loop corrections to $$\Delta _{EW}$$ Δ EW in a more standard notation. Models of natural supersymmetry give rise to a weak scale mweak ~ mW,Z,h ~ 100 GeV without any (implausible) finetuning of independent contributions to the weak scale. These models, which exhibit radiatively driven naturalness (RNS), are expected to arise from statistical analysis of the string landscape wherein large soft terms are favored, but subject to a not-too-large value of the derived weak scale in each pocket universe of the greater multiverse. The string landscape picture then predicts, using the Isajet SUSY spectra generator Isasugra, a statistical peak at mh ~ 125 GeV with sparticles generally beyond current LHC search limits. In this paper, we investigate how well these conclusions hold up using other popular spectra generators: SOFTSUSY, SPHENO and SUSPECT (SSS). We built a computer code DEW4SLHA which operates on SUSY Les Houches Accord files to calculate the associated electroweak naturalness measure ΔEW. The SSS generators tend to yield a Higgs mass peak ~125–127 GeV with a superparticle mass spectra rather similar to that generated by Isasugra. In an Appendix, we include loop corrections to ΔEW in a more standard notation. |
ArticleNumber | 172 |
Audience | Academic |
Author | Baer, Howard Barger, Vernon Martinez, Dakotah |
Author_xml | – sequence: 1 givenname: Howard surname: Baer fullname: Baer, Howard email: baer@ou.edu organization: Homer L. Dodge Department of Physics and Astronomy, University of Oklahoma, Department of Physics, University of Wisconsin – sequence: 2 givenname: Vernon surname: Barger fullname: Barger, Vernon organization: Department of Physics, University of Wisconsin – sequence: 3 givenname: Dakotah surname: Martinez fullname: Martinez, Dakotah organization: Homer L. Dodge Department of Physics and Astronomy, University of Oklahoma |
BackLink | https://www.osti.gov/servlets/purl/1865362$$D View this record in Osti.gov |
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Snippet | Models of natural supersymmetry give rise to a weak scale
m
weak
∼
m
W
,
Z
,
h
∼
100
GeV without any (implausible) finetuning of independent contributions to... Models of natural supersymmetry give rise to a weak scale $$m_{weak}\sim m_{W,Z,h}\sim 100$$ m weak ∼ m W , Z , h ∼ 100 GeV without any (implausible)... Models of natural supersymmetry give rise to a weak scale [Formula omitted] GeV without any (implausible) finetuning of independent contributions to the weak... Models of natural supersymmetry give rise to a weak scale mweak∼mW,Z,h∼100 GeV without any (implausible) finetuning of independent contributions to the weak... Models of natural supersymmetry give rise to a weak scale mweak ~ mW,Z,h ~ 100 GeV without any (implausible) finetuning of independent contributions to the... Abstract Models of natural supersymmetry give rise to a weak scale $$m_{weak}\sim m_{W,Z,h}\sim 100$$ m weak ∼ m W , Z , h ∼ 100 GeV without any (implausible)... |
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SubjectTerms | Astronomy Astrophysics and Cosmology Building codes Cosmology Elementary Particles Generators Hadrons Heavy Ions Large Hadron Collider LHC Mass spectra Measurement Science and Instrumentation Nuclear Energy Nuclear Physics Physics Physics and Astronomy PHYSICS OF ELEMENTARY PARTICLES AND FIELDS Quantum Field Theories Quantum Field Theory Regular Article - Theoretical Physics Statistical analysis string phenomenology String Theory Strings Supersymmetry |
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Title | Comparison of SUSY spectra generators for natural SUSY and string landscape predictions |
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