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Decay Rate of Coherent Field Oscillation

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arxiv hep-ph/9603356 v1 pith:4ISQTZUC submitted 1996-03-20 hep-ph hep-th

classification hep-phhep-th
keywords fieldclassicaldecayratebosederivedlimitmany
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abstract

In recent studies it has become increasingly clear that presence of infinitely many instability bands of the parametric resonance plays crucial roles in the phenomenon of particle production under periodic classical field oscillation. We extend previous works to a general class of models including both the Yukawa and the quartic type of couplings of the classical field to quantum bose fields. Decay rate from the $n-$th band is derived in the small amplitude limit using the functional Schr$\stackrel{..}{{\rm o}}$dinger picture. It is then shown that this analytic result of the decay rate can also be derived as the zero momentum limit of a physical process, $n$ particles that comprise the classical homogeneous field decaying simultaneously into 2 bose particles. The latter approach uses ordinary perturbation theory, hence the former result is a novel resummation of many perturbative amplitudes, which usually becomes complicated for a large $n$ order.

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  1. Particle decay as asymptotic narrow parametric resonance

    hep-ph 2025-05 conditional novelty 6.0 of 10

    A Boltzmann equation with Gaussian momentum spread reproduces the asymptotic growth rate and number density of narrow parametric resonance to within about 20 percent.

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