2018
DOI: 10.1093/imrn/rny127
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Bochner-type Formulas for the Weyl Tensor on Four-dimensional Einstein Manifolds

Abstract: The very definition of an Einstein metric implies that all its geometry is encoded in the Weyl tensor. With this in mind, in this paper we derive higher-order Bochner type formulas for the Weyl tensor on a four dimensional Einstein manifold. In particular, we prove a second Bochner type formula which, formally, extends to the covariant derivative level the classical one for the Weyl tensor obtained by Derdzinski in 1983. As a consequence, we deduce some integral identities involving the Weyl tensor and its der… Show more

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Cited by 5 publications
(3 citation statements)
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“…the critical k-th order Lovelock term (4.1) has no explicit dependence on the coframe, implying that the equation (4.10) is trivially satisfied. A similar proof for critical Lovelock terms for arbitrary order in the metric formalism can be found in [37]. Consequently the only remaining equation is the one for the connection.…”
Section: Exploring Non-trivial Solutions Of the Critical Case Of Arbisupporting
confidence: 53%
“…the critical k-th order Lovelock term (4.1) has no explicit dependence on the coframe, implying that the equation (4.10) is trivially satisfied. A similar proof for critical Lovelock terms for arbitrary order in the metric formalism can be found in [37]. Consequently the only remaining equation is the one for the connection.…”
Section: Exploring Non-trivial Solutions Of the Critical Case Of Arbisupporting
confidence: 53%
“…Finally, the following identity holds (see [6]) Lemma 2.1. On every n-dimensional, n ≥ 4, Riemannian manifold one has…”
Section: Dimension Fourmentioning
confidence: 99%
“…There are many gap results for Einstein manifolds, Ricci solitons and closed manifolds; such as Catino and Mastrolia [11], Hebey and Vaugon [32], Li and Wang [38,39], Munteanu and Wang [43], Petersen and Wylie [47], Singer [51], Tran [52], Zhang [63] and their references. In this paper we provide a different gap criterion, which depends on the constant C(n) of Sobolev inequality.…”
Section: Introductionmentioning
confidence: 99%