SN1987A cooling due to Plasmon-Plasmon scattering in the Randall-Sundrum Model

Abstract

The light braneworld radion, stabilized via the Goldberger-Wise mechanism in the Randall-Sundrum model, can be produced copiously inside the supernova core due to plasmon-plasmon annihilations. The radion, thus produced, subsequently decays to a neutrino-antineutrino pair and takes away the energy released in the SN1987A explosion. Assuming that the supernovae cooling rate for any new physics channel(Raffelt's criterion) $\dot{\epsilon }({\gamma }_P{\gamma }_P\stackrel{\varphi }{⟶}{\nu }_{\tau }{\overline{\nu }}_{\tau })\le 7.288\times 10^{-27}\mathrm{GeV}$, we find the lower bound on the radion vacuum expectation value $⟨\varphi ⟩\sim 3$~TeV for $m_{\varphi }=30$ MeV corresponding to the deformation parameter $q=1.17$ in the Tsallis statistics formalism. In the scenario with $q=1$, we find $⟨\varphi ⟩=178$ GeV for $m_{\varphi }=30$ MeV.

13 pages, 3 figures

References in corpus (7)

• Superstatistics in high energy physics: Application to cosmic ray energy spectra and e+e- annihilation
• The neutrino emission due to plasmon decay and neutrino luminosity of white dwarfs
• Robust measurement of supernova ${\nu }_e$ spectra with future neutrino detectors
• Plasmon Annihilation into Kaluza-Klein Graviton: New Astrophysical Constraints on Large Extra Dimensions
• Leakage of gravitational waves into an extra dimension in the DGP model
• Higgs potential in gauge-Higgs unification with a flat extra dimension
• eV-scale sterile neutrinos from an extra dimension