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Closing up on Dark Sectors at Colliders: from 14 to 100 TeV

We investigate the reach of the LHC Run 2 and that of a future circular hadron collider with up to 100 TeV centre of mass energy for the exploration of potential Dark Matter sectors. These dark sectors are conveniently and broadly described by simplified models. The simplified models we consider pro...

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Autores principales: Harris, Philip, Khoze, Valentin V., Spannowsky, Michael, Williams, Ciaran
Lenguaje:eng
Publicado: 2015
Materias:
Acceso en línea:https://dx.doi.org/10.1103/PhysRevD.93.054030
http://cds.cern.ch/record/2051680
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author Harris, Philip
Khoze, Valentin V.
Spannowsky, Michael
Williams, Ciaran
author_facet Harris, Philip
Khoze, Valentin V.
Spannowsky, Michael
Williams, Ciaran
author_sort Harris, Philip
collection CERN
description We investigate the reach of the LHC Run 2 and that of a future circular hadron collider with up to 100 TeV centre of mass energy for the exploration of potential Dark Matter sectors. These dark sectors are conveniently and broadly described by simplified models. The simplified models we consider provide microscopic descriptions of interactions between the Standard Model partons and the dark sector particles mediated by the four basic types of messenger fields: scalar, pseudo-scalar, vector or axial-vector. Our analysis extends and updates the previously available results for the LHC at 8 and 14 TeV to 100 TeV for models with all four messenger types. We revisit and improve the analysis at 14 TeV, by studying a variety of analysis techniques, concluding that the most discriminating variables correspond to the missing transverse energy and the azimuthal angle between jets in the final state. Going to 100 TeV, the limits on simplified models of Dark Matter are enhanced significantly, in particular for heavier mediators and dark sector particles, for which the available phase space at the LHC is restricted. The possibility of a 100 TeV collider provides an unprecedented coverage of the dark sector basic parameters and a unique opportunity to pin down the particle nature of Dark Matter and its interactions with the Standard Model.
id cern-2051680
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2015
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spelling cern-20516802022-08-10T10:05:38Zdoi:10.1103/PhysRevD.93.054030http://cds.cern.ch/record/2051680engHarris, PhilipKhoze, Valentin V.Spannowsky, MichaelWilliams, CiaranClosing up on Dark Sectors at Colliders: from 14 to 100 TeVParticle Physics - PhenomenologyWe investigate the reach of the LHC Run 2 and that of a future circular hadron collider with up to 100 TeV centre of mass energy for the exploration of potential Dark Matter sectors. These dark sectors are conveniently and broadly described by simplified models. The simplified models we consider provide microscopic descriptions of interactions between the Standard Model partons and the dark sector particles mediated by the four basic types of messenger fields: scalar, pseudo-scalar, vector or axial-vector. Our analysis extends and updates the previously available results for the LHC at 8 and 14 TeV to 100 TeV for models with all four messenger types. We revisit and improve the analysis at 14 TeV, by studying a variety of analysis techniques, concluding that the most discriminating variables correspond to the missing transverse energy and the azimuthal angle between jets in the final state. Going to 100 TeV, the limits on simplified models of Dark Matter are enhanced significantly, in particular for heavier mediators and dark sector particles, for which the available phase space at the LHC is restricted. The possibility of a 100 TeV collider provides an unprecedented coverage of the dark sector basic parameters and a unique opportunity to pin down the particle nature of Dark Matter and its interactions with the Standard Model.We investigate the reach of the LHC Run 2 and that of a future circular hadron collider with up to 100 TeV center of mass energy for the exploration of potential dark matter sectors. These dark sectors are conveniently and broadly described by simplified models. The simplified models we consider provide microscopic descriptions of interactions between the standard model partons and the dark sector particles mediated by the four basic types of (s-channel) messenger fields: scalar, pseudoscalar, vector or axial-vector. Our analysis extends and updates the previously available results for the LHC at 8 and 14 TeV to 100 TeV for models with all four messenger types. We revisit and improve the analysis at 14 TeV, by studying a variety of analysis techniques, concluding that the most discriminating variables correspond to the missing transverse energy and the azimuthal angle between jets in the final state. Going to 100 TeV, the limits on simplified models of dark matter are enhanced significantly, in particular for heavier mediators and dark sector particles, for which the available phase space at the LHC is restricted. The possibility of a 100 TeV collider provides an unprecedented coverage of the dark sector basic parameters and a unique opportunity to pin down the particle nature of dark matter and its interactions with the standard model.We investigate the reach of the LHC Run 2 and that of a future circular hadron collider with up to 100 TeV centre of mass energy for the exploration of potential Dark Matter sectors. These dark sectors are conveniently and broadly described by simplified models. The simplified models we consider provide microscopic descriptions of interactions between the Standard Model partons and the dark sector particles mediated by the four basic types of messenger fields: scalar, pseudo-scalar, vector or axial-vector. Our analysis extends and updates the previously available results for the LHC at 8 and 14 TeV to 100 TeV for models with all four messenger types. We revisit and improve the analysis at 14 TeV, by studying a variety of analysis techniques, concluding that the most discriminating variables correspond to the missing transverse energy and the azimuthal angle between jets in the final state. Going to 100 TeV, the limits on simplified models of Dark Matter are enhanced significantly, in particular for heavier mediators and dark sector particles, for which the available phase space at the LHC is restricted. The possibility of a 100 TeV collider provides an unprecedented coverage of the dark sector basic parameters and a unique opportunity to pin down the particle nature of Dark Matter and its interactions with the Standard Model.arXiv:1509.02904IPPP-15-20DCPT-15-36IPPP-15-20DCPT-15-36oai:cds.cern.ch:20516802015-09-09
spellingShingle Particle Physics - Phenomenology
Harris, Philip
Khoze, Valentin V.
Spannowsky, Michael
Williams, Ciaran
Closing up on Dark Sectors at Colliders: from 14 to 100 TeV
title Closing up on Dark Sectors at Colliders: from 14 to 100 TeV
title_full Closing up on Dark Sectors at Colliders: from 14 to 100 TeV
title_fullStr Closing up on Dark Sectors at Colliders: from 14 to 100 TeV
title_full_unstemmed Closing up on Dark Sectors at Colliders: from 14 to 100 TeV
title_short Closing up on Dark Sectors at Colliders: from 14 to 100 TeV
title_sort closing up on dark sectors at colliders: from 14 to 100 tev
topic Particle Physics - Phenomenology
url https://dx.doi.org/10.1103/PhysRevD.93.054030
http://cds.cern.ch/record/2051680
work_keys_str_mv AT harrisphilip closingupondarksectorsatcollidersfrom14to100tev
AT khozevalentinv closingupondarksectorsatcollidersfrom14to100tev
AT spannowskymichael closingupondarksectorsatcollidersfrom14to100tev
AT williamsciaran closingupondarksectorsatcollidersfrom14to100tev