Omer Albayrak, Tanmay Vachaspati
We study global vortex production in numerical scattering experiments where the scatterer and the vortex degrees of freedom interact solely through intermediary quantum variables. Working within a 2 + 1 dimensional framework, we employ a complex scalar field that enables global vortex formation and a real scalar field acting as the scatterer, coupled via a quantum field that mediates interactions. By simulating the scattering of relativistic Gaussian wave packets, we explore parameter space to identify regions favorable for vortex-antivortex pair production. Our results indicate a high sensitivity of vortex production to the initial parameters of the Gaussian wave packets, revealing a chaotic parameter space with distinct 'holes' and isolated areas of vortex generation. The findings suggest that the intricate interplay between classical and quantum elements in the scattering process facilitates the emergence of complex vortex dynamics, reminiscent of solitonic transitions in quantum field theory. This work enhances our understanding of the conditions under which global vortex phenomena can arise in quantum systems and opens avenues for further investigation into related processes in higher-dimensional field theories.
@article{25514514-b965-4d16-bed8-fec8c7ab8f8e,
title={Production of global vortices with quantum mediati},
author={Omer Albayrak and Tanmay Vachaspati},
year={2026},
language={en}
}TY - JOUR TI - Production of global vortices with quantum mediati AU - Omer Albayrak AU - Tanmay Vachaspati PY - 2026 LA - en ER -
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