Numerical study of the relativistic three-body quantization condition in the isotropic approximation

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Abstract

We present numerical results showing how our recently proposed relativistic three-particle quantization condition can be used in practice. Using the isotropic (generalized s-wave) approximation, and keeping only the leading terms in the effective range expansion, we show how the quantization condition can be solved numerically in a straightforward manner. In addition, we show how the integral equations that relate the intermediate three-particle infinite-volume scattering quantity, Kdf,3, to the physical scattering amplitude can be solved at and below threshold. We test our methods by reproducing known analytic results for the 1/L expansion of the threshold state, the volume dependence of three-particle bound-state energies, and the Bethe-Salpeter wave functions for these bound states. We also find that certain values of Kdf,3 lead to unphysical finite-volume energies, and give a preliminary analysis of these artifacts.

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Briceño, R. A., Hansen, M. T., & Sharpe, S. R. (2018). Numerical study of the relativistic three-body quantization condition in the isotropic approximation. Physical Review D, 98(1). https://doi.org/10.1103/PhysRevD.98.014506

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