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doi:10.1103/physrevd.69.091503

Cited by 33 publications

(17 citation statements)

References 13 publications

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“…In the framework of perturbation theory, the origin of this strong coupling is the growth of the propagator and the wave functions of the longitudinal components of massive graviton with energy, much in common with the case of massive non-Abelian vector field. Consider the amplitude of the four-graviton scattering represented by the diagrams of The second diagram is of the same order, since two leading contributions in the propagator cancel out in the on-shell amplitude [63]. Thus, the scattering amplitude indeed becomes large at energies of order (53).…”

Section: Strong Couplingmentioning

confidence: 99%

Infrared-modified gravities and massive gravitons

2008

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We review some theoretical and phenomenological aspects of massive gravities in 4 dimensions. We start from the Fierz--Pauli theory with Lorentz-invariant mass terms and then proceed to Lorentz-violating masses. Unlike the former theory, some models with Lorentz-violation have no pathologies in the spectrum in flat and nearly flat backgrounds and lead to interesting phenomenology.Comment: 81 page, 2 postscript figure

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Section: Strong Couplingmentioning

confidence: 99%

Infrared-modified gravities and massive gravitons

2008

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“…Soon after that, the CLEO experiment confirmed the existence of D * s0 (2317) + along with the first observation of D s1 (2460) + decaying into D * + s π 0 [34]. The existence of D s1 (2460) + has been confirmed by Belle [35] and BaBar [36]. Belle also discovered the D s1 (2460) + decay modes of D + s γ and D + s π + π − [35].…”

Section: Spectroscopy Of D S Mesonsmentioning

confidence: 86%

Open charm hadron spectroscopy at B-factories

Kato

Iijima

2019

Progress in Particle and Nuclear Physics

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Open charm hadrons are excellent probes to study the dynamics of quarks and gluons inside hadrons. Because the mass of a charm quark is heavier than Λ QCD , so called heavy quark symmetry emerges in the hadron containing a charm quark and plays a central role in the classification and constraining the interactions. Belle and BaBar, which are B-factory experiments, have made significant advances in the field of open charm hadron spectroscopy in these 15 years. In this article, experimental advances on both open charm mesons and baryons by B-factory experiments are reviewed. Finally, the prospect of the open charm hadrons with the next generation B-factory experiment, Belle II is described.

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“…Another open question left for future research is to understand how the strong coupling of LV massive gravity manifests itself at the level of Feynman diagrams and how it is canceled by the new degrees of freedom appearing in our model (see [32,61] for related works in the Lorentz invariant context). This may shed light on possible generalizations of the mechanism proposed in this paper to other IR modifications of gravity, such as multi-metric theories and the Lorentz invariant setup of [7].…”

Section: Summary and Discussionmentioning

confidence: 99%

“…which precisely compensates (61). The expression (63) corresponds to the spatially non-local counterterms discussed above.…”

Section: Quantum Treatment Of Instantaneous Modesmentioning

confidence: 99%

Completing Lorentz violating massive gravity at high energies

Blas

Sibiryakov

2015

J. Exp. Theor. Phys.

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Theories with massive gravitons are interesting for a variety of physical applications, ranging from cosmological phenomena to holographic modeling of condensed matter systems. To date, they have been formulated as effective field theories with a cutoff proportional to a positive power of the graviton mass m_g and much smaller than that of the massless theory (M_P ~ 10^19 GeV in the case of general relativity). In this paper we present an ultraviolet completion for massive gravity valid up to a high energy scale independent of the graviton mass. The construction is based on the existence of a preferred time foliation combined with spontaneous condensation of vector fields. The perturbations of these fields are massive and below their mass the theory reduces to a model of Lorentz violating massive gravity. The latter theory possesses instantaneous modes whose consistent quantization we discuss in detail. We briefly study some modifications to gravitational phenomenology at low-energies. The homogeneous cosmological solutions are the same as in the standard cosmology. The gravitational potential of point sources agrees with the Newtonian one at distances small with respect to m_g^(-1). Interestingly, it becomes repulsive at larger distances.Comment: 33 pages, 3 figures; to appear in a special issue of JETP dedicated to the 60th birthday of Valery Rubakov; minor changes with respect to v1, references update

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Search for the decayB0→pp¯

Cited by 33 publications

References 13 publications

Infrared-modified gravities and massive gravitons

Infrared-modified gravities and massive gravitons

Open charm hadron spectroscopy at B-factories

Completing Lorentz violating massive gravity at high energies

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