Two Component Dark Matters in S_4 x Z_2 Flavor Symmetric Extra U(1) Model

Physics – High Energy Physics – High Energy Physics - Phenomenology

Scientific paper

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22 pages, 4 figures, 2 tables; version accepted for publication in Progress of Theoretical Physics

Scientific paper

10.1143/PTP.126.855

We study cosmic-ray anomaly observed by PAMELA based on E_6 inspired extra U(1) model with S_4 x Z_2 flavor symmetry. In our model, the lightest flavon has very long lifetime of O(10^{18)) second which is longer than the age of the universe, but not long enough to explain the PAMELA result ~ O(10^{26}) sec. Such a situation could be avoidable by considering that the flavon is not the dominant component of dark matters and the dominant one is the lightest neutralino. With appropriate parameter set, density parameter of dark matter and over-abundance of positron flux in cosmic-ray are realized at the same time. There is interesting correlation between spectrum of positron flux and V_{MNS}. No excess of anti-proton in cosmic-ray suggests that sfermions are heavier than 4 TeV and the masses of the light Higgs bosons are degenerated.

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