Generalized time-dependent SIS Hamiltonian models: Exact solutions and quantum deformations
Eduardo Fernandez-Saiz, Rutwig Campoamor-Stursberg, Francisco J., Herranz

TL;DR
This paper develops exact solutions for generalized time-dependent SIS epidemic models using Lie-Hamilton systems, including quantum deformations, providing new analytical tools for understanding complex epidemic dynamics.
Contribution
It introduces a framework for exact solutions of time-dependent SIS models with quantum deformations, expanding the analytical understanding of epidemic Hamiltonians.
Findings
Exact solutions for generalized SIS Hamiltonians derived
Quantum deformations interpreted as perturbations of known systems
Explicit solutions obtained for deformed models
Abstract
The theory of Lie-Hamilton systems is used to construct generalized time-dependent SIS epidemic Hamiltonians with a variable infection rate from the 'book' Lie algebra. Although these are characterized by a set of non-autonomous nonlinear and coupled differential equations, their corresponding exact solution is explicitly found. Moreover, the quantum deformation of the book algebra is also considered, from which the corresponding deformed SIS Hamiltonians are obtained and interpreted as perturbations in terms of the quantum deformation parameter of previously known SIS systems. The exact solutions for these deformed systems are also obtained.
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Taxonomy
TopicsProtein Structure and Dynamics · Molecular spectroscopy and chirality · Nonlinear Waves and Solitons
