2006
DOI: 10.1007/s10714-006-0352-8
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Pure type I supergravity and DE 10

Abstract: We establish a dynamical equivalence between the bosonic part of pure type I supergravity in D = 10 and a D = 1 nonlinear σ-model on the Kac-Moody coset space DE 10 /K(DE 10 ) if both theories are suitably truncated. To this end we make use of a decomposition of DE 10 under its regular SO(9, 9) subgroup. Our analysis also deals partly with the fermionic fields of the supergravity theory and we define corresponding representations of the generalized spatial Lorentz group K(DE 10 ).

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Cited by 9 publications
(8 citation statements)
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“…At low energies this requires fitting the heterotic D = 10 supergravity with gauge groups SO(32) and E 8 ×E 8 into the E 10 σ-model or some more general model. As a first step it was shown in [19,31] that the pure type I supergravity (without any vector multiplets) can be interpreted as a subsector of the E 10 model. It would be gratifying to see a relation between the algebraic approach taken here and the issue of anomaly freedom.…”
Section: Discussionmentioning
confidence: 99%
“…At low energies this requires fitting the heterotic D = 10 supergravity with gauge groups SO(32) and E 8 ×E 8 into the E 10 σ-model or some more general model. As a first step it was shown in [19,31] that the pure type I supergravity (without any vector multiplets) can be interpreted as a subsector of the E 10 model. It would be gratifying to see a relation between the algebraic approach taken here and the issue of anomaly freedom.…”
Section: Discussionmentioning
confidence: 99%
“…Besides these interesting points regarding the correspondence for the bosonic sectors of various supergravity theories it would be worthwhile to extend our new cases also to the fermionic sector. It is known that the maximally supersymmetric theories in D = 11 and D = 10 have propagating fermionic degress of freedom which can be grouped into finitedimensional (unfaithful) representations of K(E 11 ) [33,34,70] and also the half-maximal case has been analysed [71]. We strongly expect that the compact subalgebras of the quotient algebras presented here will also admit finite-dimensional spinor representations which correspond to the fermionic degrees of freedom of the various N ≤ 2 theories they belong to.…”
Section: Discussionmentioning
confidence: 99%
“…These representations have been studied in [13] and [15]. We next analyze the spinor representations of K(DE 10 ), the involutory subalgebra of DE 10 which is related to the pure type I supergravity in 10 dimensions [36].…”
Section: The Simply-laced Casementioning
confidence: 99%