A Primer on Noncommutative Classical Dynamics on Velocity Phase Space and Souriau Formalism

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    Abstract

    We present a comprehensive survey on dynamics of the motion of particles with noncommutative Poisson structure. We use Souriau’s method of orbit to study this exotic mechanics on the tangent bundle of the configuration space or velocity phase space. We consider Feynman-Dyson’s proof of Maxwell’s equations using Jacobi identity on the velocity phase space. In this review we generalize the Feynman-Dyson’s scheme by incorporating the non-commutativity between various spatial coordinates along with the velocity coordinates. This allows us to study a generalized class of Hamiltonian systems. We explore various dynamical flows associated to the Souriau form associated to this generalized Feynman-Dyson’s scheme. Moreover, using the Souriau form we show that these new classes of generalized systems are volume preserving mechanical systems.

    Original languageBritish English
    Title of host publicationSTEAM-H
    Subtitle of host publicationScience, Technology, Engineering, Agriculture, Mathematics and Health
    PublisherSpringer Nature
    Pages533-568
    Number of pages36
    DOIs
    StatePublished - 2023

    Publication series

    NameSTEAM-H: Science, Technology, Engineering, Agriculture, Mathematics and Health
    VolumePart F1836
    ISSN (Print)2520-193X
    ISSN (Electronic)2520-1948

    Keywords

    • Feynman-Dyson’s method
    • Generalized Hamiltonian dynamics
    • Kostant-Kirillov two form
    • Noncommutativity
    • Poisson manifolds
    • Schouten-Nijenhuis bracket
    • Souriau form

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