Non-conservative Lagrangian method for half-dark solitons in spinor non-equilibrium Polariton condensates
Florian Pinsker

TL;DR
This paper introduces a non-conservative Lagrangian analytical method to describe dark and half-dark solitons in non-equilibrium polariton condensates, providing explicit solutions and extending to spinor systems.
Contribution
It develops a novel analytical framework based on non-conservative Lagrangian formalism for non-equilibrium polariton BECs, including spinor condensates and explicit soliton solutions.
Findings
Derived differential equations for dark soliton parameters
Extended method to spinor condensates for half-dark solitons
Provided explicit stationary solutions for non-equilibrium systems
Abstract
In this work I introduce a powerful analytical method to analyze states of non-equilibrium polariton Bose-Einstein condensates (BEC). It is shown that the condensate wave functions carrying dark solitons and half-dark solitons can be expressed in terms of the natural parameters of the non-equilibrium system, i.e. the growth and decay rates and the interaction parameters. The derivation is based on a non-conservative Lagrangian formalism, which provides ordinary differential equations for the parameters of the dark soliton solutions in their dynamic environment. Explicit expressions for the stationary solution are stated, which significantly differ from those observed in atomic BEC. Subsequently the method is extended to spinor condensates, which yields ordinary differential equations for the parameters of half-dark solitons. Finally a stationary case with explicit expressions for…
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Taxonomy
TopicsCold Atom Physics and Bose-Einstein Condensates · Strong Light-Matter Interactions · Nonlinear Photonic Systems
