Quantum Field Theory of Meson Mixing
Michael Binger, Chueng-Ryong Ji
Abstract
We have developed a quantum field theoretic framework for scalar and pseudoscalar meson mixing and oscillations in time. The unitary inequivalence of the Fock space of base (unmixed) eigenstates and the physical mixed eigenstates is proven and shown to lead to a rich condensate structure. This is exploited to develop formulas for two flavor boson oscillations in systems of arbitrary boson occupation number. The mixing and oscillation can be understood in terms of vacuum condensate which interacts with the bare particles to induce non-trivial effects. We apply these formulas to analyze the mixing of η with η' and comment on the KL KS system. In addition, we consider the mixing of boson coherent states, which may have future applications in the construction of meson lasers.
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