2016
DOI: 10.1103/physrevd.93.085022
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Lifshitz scaling to Lorentz-violating high derivative operator and gamma-ray bursts

Abstract: In this work we have used a Hořava-Lifshitz scaling to rewrite a Lorentz-violating higher-order derivative electrodynamics controlled by a background four-vector nµ. The photon propagator was obtained and we have analyzed the dispersion relation and the observational results of gammaray burst (GRB) experiments were used. The limits of the critical exponent were discussed in the light of the GRB data and the physical implications were compared with the current GRBLorentz-invariance-violation literature. We show… Show more

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Cited by 11 publications
(9 citation statements)
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“…This happens as the critical exponent assumes z ± = (3 ± √ 13)/2, or approximately, z − ≃ −0.3 or z + ≃ 3.3. Non integer critical exponents have appeared in previous studies, e.g., [33,[48][49][50][51] -and references therein. Specially in [48,49] the authors argue that although the Lifshitz critical exponents in the action of a quantum field theory developing Lifshitz symmetry are assumed to be integer, there is no such limitation indeed since the obtained dispersion relation in the Hamiltonian density associated with the quantized theory shows the exact analytic continuation to non integer values of z.…”
Section: Viscosity/entropy Density Ratiomentioning
confidence: 93%
“…This happens as the critical exponent assumes z ± = (3 ± √ 13)/2, or approximately, z − ≃ −0.3 or z + ≃ 3.3. Non integer critical exponents have appeared in previous studies, e.g., [33,[48][49][50][51] -and references therein. Specially in [48,49] the authors argue that although the Lifshitz critical exponents in the action of a quantum field theory developing Lifshitz symmetry are assumed to be integer, there is no such limitation indeed since the obtained dispersion relation in the Hamiltonian density associated with the quantized theory shows the exact analytic continuation to non integer values of z.…”
Section: Viscosity/entropy Density Ratiomentioning
confidence: 93%
“…Here R HLP = Λ HL M P with M P = 1.22 × 10 19 GeV , and Λ HL is the Horava-Lifshitz energy scale. As pointed in [18], this ratio can be considered as R HLP ≈ 10 −9 , unveiling a new route for explicitly breaking supersymmetry without reintroducing fine-tuning [18][19][20]. Therefore, the previous constraint lead us to investigate effects of the Horava-Lifshitz crossover scale at the order Λ HL ≈ 10 10 GeV , which follows the restrictions mentioned in [19].…”
Section: A Modified Dispersion Relationmentioning
confidence: 89%
“…The Lifshitz-scaling to modified dispersion relation is given by [18] where z is the Horava-Lifshitz critical exponent. Here R HLP = Λ HL M P with M P = 1.22 × 10 19 GeV , and Λ HL is the Horava-Lifshitz energy scale.…”
Section: A Modified Dispersion Relationmentioning
confidence: 99%
See 1 more Smart Citation
“…(2) and Eqs. (3a) -(3b) to address the specific problem of radiatively inducing some LIV effective actions such as CPT-odd Chern-Simons-like [17,18], CPT-even aether-like [42] and CPT-odd extensions with higher order derivatives [43][44][45][46], given respectively as…”
Section: Introductionmentioning
confidence: 99%