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Geometry of supergravity and the Batalin--Vilkovisky formulation of the mathcal N=1 theory in ten dimensions
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Geometry of supergravity and the Batalin--Vilkovisky formulation of the mathcal N=1 theory in ten dimensions
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We provide full details of a BV formulation of $\mathcal N=1$ supergravity in ten dimensions, to all orders in fermions, built from the generalised geometry description of the theory. In contrast to standard treatments, we introduce neither the degrees of freedom corresponding to orthonormal frames for the metric nor the local Lorentz symmetries that remove them again. Instead, we observe that the field space has a fibred structure, with the fermionic degrees of freedom spanning the fibres. We explain in detail how this geometric picture allows one to understand simultaneous variations of spinorial quantities and the metric with respect to which the spinor bundles are defined. This leads to additional terms in certain commutators on field space which account for the Lorentz transformation terms appearing in the calculation of the supersymmetry algebra. Unencumbered by the Lorentz degrees of freedom, we provide an efficient and full demonstration that our action satisfies the classical master equation.
Forward citations
Cited by 2 Pith papers
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Kodaira-Spencer theory for flux backgrounds
An explicit holomorphic theory is constructed for flux backgrounds in 10D N=1 supergravity, conjecturally realizing the supergravity twist and generalizing minimal type I BCOV theory via Courant algebroids.
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On the generalised Lie derivative of (s)pinor fields
The generalised Lie derivative of (s)pinor fields on Courant algebroids is constructed via a natural connection on the space of generalised metrics, yielding the formula L_u ψ = D_u ψ + (1/2)(D_u a^b)γ_{ab}ψ.
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