English

Probing Supersymmetric Dark Matter and the Electroweak Sector using Vector Boson Fusion Processes: A Snowmass Whitepaper

High Energy Physics - Phenomenology 2013-08-05 v1

Abstract

Vector boson fusion (VBF) processes at the Large Hadron Collider (LHC) provide a unique opportunity to search for new physics with electroweak couplings. Two studies are presented: (i) A search of supersymmetric dark matter in the final state of two VBF jets and large missing transverse energy is presented at 14 TeV. Prospects for determining the dark matter relic density are studied for the cases of Wino and Bino-Higgsino dark matter. The LHC could probe Wino dark matter with mass up to approximately 600 GeV with a luminosity of 1000 fb1^{-1}. (ii) A search for the chargino/neutralino system in the final state of two VBF jets, missing transverse energy and two τ\tau's (light stau case) and light lepton ee and μ\mu (light slepton case). The 5σ5 \sigma mass reach at 300 fb1^{-1} (1000 fb1^{-1}) of LHC14 for inclusive and opposite-sign τ\tau pairs are 250 GeV (300 GeV) and 200 GeV (250 GeV), respectively, for ΔM=mτ~1m\neu1=30\Delta M \, = \, m_{\tilde{\tau}_1} - m_{\neu{1}} \, = \, 30 GeV. For ΔM=15\Delta M \, = \, 15 GeV, the 3σ3 \sigma mass reach at 300 fb1^{-1} (1000 fb1^{-1}) of LHC14 for inclusive τ\tau pairs is 180 GeV. The 5σ5 \sigma mass reach at 300 fb1^{-1} (1000 fb1^{-1}) of LHC14 for inclusive and opposite-sign μ\mu pairs are approximately 350 GeV (400 GeV) and 300 GeV (350 GeV), respectively. The mass reaches in the same-sign final state cases are similar to those in the opposite-sign cases.

Keywords

Cite

@article{arxiv.1308.0355,
  title  = {Probing Supersymmetric Dark Matter and the Electroweak Sector using Vector Boson Fusion Processes: A Snowmass Whitepaper},
  author = {Andres G. Delannoy and Bhaskar Dutta and Alfredo Gurrola and Will Johns and Teruki Kamon and Eduardo Luiggi and Andrew Melo and Paul Sheldon and Kuver Sinha and Kechen Wang and Sean Wu},
  journal= {arXiv preprint arXiv:1308.0355},
  year   = {2013}
}

Comments

8 pages, 6 figures