Can large fermion chemical potentials suppress the electroweak phase transition ?
Carlos Quimbay, John Morales, Rafael Hurtado
Abstract
We calculate the critical temperature (Tc) of the electroweak phase transition in the minimal standard model considering simultaneously temperature (T) and fermion chemical potential (μf) effects over the effective potential. The calculation is performed in the one-loop approximation to the effective potential at non-zero temperature using the real time formalism of the thermal field theory. We show that it exists a fermion chemical potential critical value (μfc) for which the Higgs boson condensate vanishes at T=0. If T and μf effects are considered simultaneously, it is shown that for μf ≥ μfc then Tc2 ≤ 0, implying that the electroweak phase transition might not take place.
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