2021
DOI: 10.48550/arxiv.2110.12305
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Homotopy momentum sections on multisymplectic manifolds

Abstract: We introduce a notion of a homotopy momentum section on a Lie algebroid over a pre-multisymplectic manifold. A homotopy momentum section is a generalization of the momentum map with a Lie group action and the momentum section on a pre-symplectic manifold, and is also regarded as a generalization of the homotopy momentum map on a multisymplectic manifold. We show that a gauged nonlinear sigma model with Wess-Zumino term with Lie algebroid gauging has the homotopy momentum section structure.

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Cited by 1 publication
(7 citation statements)
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“…Moreover we claim that the condition is unified with the twisted Poisson structure, and generalized to higher algebroids and multisymplectic settings. A generalization of the momentum section to a (pre)-multisymplectic manifold called a homotopy momentum section has be proposed in [20]. Our condition for an E-n-form in this paper is consistent with the definition of the homotopy momentum section.…”
Section: Introductionsupporting
confidence: 58%
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“…Moreover we claim that the condition is unified with the twisted Poisson structure, and generalized to higher algebroids and multisymplectic settings. A generalization of the momentum section to a (pre)-multisymplectic manifold called a homotopy momentum section has be proposed in [20]. Our condition for an E-n-form in this paper is consistent with the definition of the homotopy momentum section.…”
Section: Introductionsupporting
confidence: 58%
“…for e, e 1 , e 2 ∈ g. Here −, − is the pairing of g * and g. As explained in Example 2.3, the Lie group action induces an action Lie algebroid structure on a trivial bundle E = M × g. The anchor map is induced from the map of the Lie algebra action as ρ : M × g → T M. The momentum map is regarded as a section of the dual trivial bundle µ ∈ Γ(M × g * ). Under the condition (20), Equation ( 21) is changed to [5] E dµ(e 1 , e 2 ) = −ι 2 ρ ω(e 1 , e 2 ), (22) i.e., E dµ = −ι 2 ρ ω. Here E d is a Lie algebroid differential with respect to the action Lie algebroid.…”
Section: Next Let Us Analyze Gauge Equivalence a Gauge Transformation...mentioning
confidence: 99%
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