118619077
Recent electroweak results from the CCFR collaboration: Neutrino tridents and W-Z interference and the Lorentz structures of the weak current
119796065
Do present deep inelastic scattering data demonstrate R = RQCD?
Abstract Using recent measurements at SLAC and a simple model for higher twist effects, we argue that the present cumulative deep inelastic scattering data are consistent with but do not demonstrate R = R QCD .
121625417
A REVIEW OF NEUTRINO OSCILLATION SEARCH AT ACCELERATORS
126132968
Probing nucleon structure with neutrino - N experiments
122106908
Precision measurements and a high resolution near detector for Long-Baseline Neutrino program
117379418
A Study of Wrong Sign Muon and Trimuon Events in Neutrino - Nucleon Scattering
117007207
A Classification of Dark Matter Candidates with Primarily Spin-Dependent Interactions with Matter
We perform a model-independent classification of Weakly Interacting Massive Particle (WIMP) dark matter candidates that have the property that their scattering off nucleons is dominated by spin-dependent interactions. We study renormalizable theories where the scattering of dark matter is elastic and arises at tree-level. We show that if the WIMP-nucleon cross section is dominated by spin-dependent interactions the natural dark matter candidates are either Majorana fermions or real vector bosons, so that the dark matter particle is its own anti-particle. In such a scenario, scalar dark matter is disfavored. Dirac fermion and complex vector boson dark matter are also disfavored, except for very specific choices of quantum numbers. We further establish that any such theory must contain either new particles close to the weak scale with Standard Model quantum numbers, or alternatively, a $Z'$ gauge boson with mass at or below the TeV scale. In the region of parameter space that is of interest to current direct detection experiments, these particles naturally lie in a mass range that is kinematically accessible to the Large Hadron Collider (LHC).