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The More Relaxed Supersymmetric Electroweak Baryogenesis
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abstract
We reanalyze the issue of generation of the baryon asymmetry at the electroweak phase transition in the MSSM and compute the baryon asymmetry assuming the presence of non-trivial CP-violating phases in the parameters associated with the left-right stop mixing term and the Higgsino mass $\mu$. Making use of the closed time-path (CTP) formalism of nonequilibrium field theory, we write down a set of quantum Boltzmann equations describing the local number density asymmetries of the particles involved in supersymmetric electroweak baryogenesis. CP-violating sources manifest ``memory'' effects which are typical of the quantum transport theory and are not present in the classical approach. Compared to previous estimates, these non-Markovian features enhance the final baryon asymmetry by at least two orders of magnitude. This means that a CP-violating phase $|\sin \phi_{\mu}|$ as small as $10^{-3}$ (or even smaller) is enough to generate the observed baryon asymmetry.
Forward citations
Cited by 2 Pith papers
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Systematic derivation of the Boltzmann equation for electroweak baryogenesis
A Kadanoff-Baym derivation yields Boltzmann equations with self-energy-corrected quasiparticle shells, adding a CP-violating velocity and force correction for fermions and none for bosons.
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The Discriminant Power of Bubble Wall Velocities: Gravitational Waves and Electroweak Baryogenesis
Using entropy conservation in local thermal equilibrium, the authors compute bubble wall velocities in singlet-extended models and find a near-universal relation between phase transition strength measures, with conseq...
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