Analytic (3+1)-dimensional gauged Skyrmions, Heun and Whittaker-Hill equations and resurgence
Fabrizio Canfora, Marcela Lagos, Seung Hun Oh, Julio Oliva, Aldo Vera

TL;DR
This paper analytically reduces the complex gauged Skyrme model equations to classical differential equations, enabling explicit solutions for gauged solitons and revealing quantization conditions and resurgence properties in (3+1) dimensions.
Contribution
It provides a novel reduction of the gauged Skyrme model to Heun and Whittaker-Hill equations, allowing complete analytic descriptions of gauged solitons and their quantization.
Findings
Explicit solutions for gauged Skyrmions and time-crystals.
Quantization conditions for period and volume derived from classical differential equations.
Identification of resurgence techniques applicable to gauged Skyrme model perturbations.
Abstract
We show that one can reduce the coupled system of seven field equations of the (3+1)-dimensional gauged Skyrme model to the Heun equation (which, for suitable choices of the parameters, can be further reduced to the Whittaker-Hill equation) in two non-trivial topological sectors. Hence, one can get a complete analytic description of gauged solitons in (3+1) dimensions living within a finite volume in terms of classic results in the theory of differential equations and Kummer's con uent functions. We consider here two types of gauged solitons: gauged Skyrmions and gauged time-crystals (namely, gauged solitons periodic in time, whose time-period is protected by a winding number). The dependence of the energy of the gauged Skyrmions on the Baryon charge can be determined explicitly. The theory of Kummer's confluent functions leads to a quantization condition for the period of the…
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