“…Our goal is to examine corrections to this lowest order potential due to two-graviton exchange and thereby to define a higher order gravitational potential. This problem has been previously studied by Iwasaki using noncovariant perturbation theory [28], and by Khriplovich and Kirilin [29], [30] and by Bjerrum-Bohr, Donoghue, and Holstein [31] using conventional Feynman diagrams. Our approach will be similar to that used in [29], [30] and [31].…”
Section: Spin 0-spin 0 Scatteringmentioning
confidence: 99%
“…This problem has been previously studied by Iwasaki using noncovariant perturbation theory [28], and by Khriplovich and Kirilin [29], [30] and by Bjerrum-Bohr, Donoghue, and Holstein [31] using conventional Feynman diagrams. Our approach will be similar to that used in [29], [30] and [31]. The diagrams utilized are shown in Figure 3 and the various interaction vertices are derived in Appendix A so it is merely a matter [32], which have finally been corrected [31].…”
In this survey, we review some of the low energy quantum predictions of General Relativity which are independent of details of the yet unknown high-energy completion of the gravitational interaction. Such predictions can be extracted using the techniques of effective field theory.
“…Our goal is to examine corrections to this lowest order potential due to two-graviton exchange and thereby to define a higher order gravitational potential. This problem has been previously studied by Iwasaki using noncovariant perturbation theory [28], and by Khriplovich and Kirilin [29], [30] and by Bjerrum-Bohr, Donoghue, and Holstein [31] using conventional Feynman diagrams. Our approach will be similar to that used in [29], [30] and [31].…”
Section: Spin 0-spin 0 Scatteringmentioning
confidence: 99%
“…This problem has been previously studied by Iwasaki using noncovariant perturbation theory [28], and by Khriplovich and Kirilin [29], [30] and by Bjerrum-Bohr, Donoghue, and Holstein [31] using conventional Feynman diagrams. Our approach will be similar to that used in [29], [30] and [31]. The diagrams utilized are shown in Figure 3 and the various interaction vertices are derived in Appendix A so it is merely a matter [32], which have finally been corrected [31].…”
In this survey, we review some of the low energy quantum predictions of General Relativity which are independent of details of the yet unknown high-energy completion of the gravitational interaction. Such predictions can be extracted using the techniques of effective field theory.
“…which implements the condition of a spherical horizon. With this definition of states, the value γ = 0.274 for the BI-parameter is obtained [5,6,15]. When a brute force analysis of states is performed, what it is being counted, roughly speaking, is all the different ways to combine the labels (j, m) (for any possible total number of punctures) that are consistent with the above constraints and with the distinguishability of punctures as it is explained in [6].…”
Section: Isolated Horizon Canonical Quantization and Explicit Stamentioning
Recent detailed analysis within the Loop Quantum Gravity calculation of black hole entropy shows a stair-like structure in the behavior of entropy as a function of horizon area. The non-trivial distribution of the degeneracy of the black hole horizon area eigenstates is at the origin of this behavior. This degeneracy distribution is analyzed and a phenomenological model is put forward to study the implications of this distribution in the black hole radiation spectrum. Some qualitative quantum effects are obtained within the Isolated Horizon framework. This result provides us with a possible observational test of this model for quantum black holes.
“…In this way the discontinuity of one-loop corrections to the gravitational scattering of spinless systems can be straightforwardly found to be [27], [26]. The imaginary piece of the scattering amplitude arises from the second Born approximation, which is subtracted when defining the second order potential…”
Abstract. The study of Compton scattering-S + γ → S + γ-at MAMI and elsewhere has led to a relatively successful understanding of proton structure via its polarizabilities. The recent observation of gravitational radiation observed by LIGO has raised the need for a parallel understanding of gravitational Compton scattering-S + g → S + g-and we show here how it can be obtained from ordinary Compton scattering by use of the double copy theorem.
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