Reflections on the new monograph by M.A. Glazovskaya

Иванов, И. В.

doi:10.1134/s1064229311070076

Cited by 4 publications

(12 citation statements)

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“…In such the model, the Newton constant may be computed. The attractive force F 1 due to pressure of single gravitons in this model is equal to: 4 • G, that is of three order greater than the Newton constant, G. If single gravitons are elastically scattered, they create a repulsive force F ′ 1 which is equal to F 1 . But for black holes which absorb any particles and do not re-emit them, we will have F ′ 1 = 0.…”

Section: A Quantum Mechanism Of Classical Gravitymentioning

confidence: 90%

“…It was shown by the author [4,5] that screening the background of superstrong interacting gravitons creates for any pair of bodies both attractive and repulsive forces due to pressure of gravitons. For single gravitons, these forces are approximately equal.…”

Section: A Quantum Mechanism Of Classical Gravitymentioning

confidence: 99%

“…The inverse square law takes place in the model if the condition of big distances is fulfilled: σ(E, < ǫ >) ≪ 4πr 2 [4,5]. It leads to the necessity of some "atomic structure" of matter for working the described quantum mechanism; it is a unique demand for known models of gravity.…”

Section: A Quantum Mechanism Of Classical Gravitymentioning

confidence: 99%

“…It is clear that 0 ≤ b ≤ 2.137, and in a general case it should depend on a rest-frame spectrum and on a redshift. It is important that the Hubble diagram in the model is a multivalued function of a redshift: for a given z, b may have different values [9]. Using only the luminosity distance and a geometrical one as functions of a redshift in this model, theoretical predictions for galaxy/quasar number counts may be found [10].…”

Section: Interaction Of Photons With the Graviton Backgroundmentioning

confidence: 99%

“…It is important that the Hubble diagram in the model is a multivalued function of a redshift: for a given z, b may have different values [9]. Using only the luminosity distance and a geometrical one as functions of a redshift in this model, theoretical predictions for galaxy/quasar number counts may be found [10]. For example, galaxy number counts as a function of a redshift z may be characterized with the function f 2 (z) for which we have in this model: f 2 (z) = ln 2 (1 + z)/z 2 (1 + z).…”

Section: Interaction Of Photons With the Graviton Backgroundmentioning

confidence: 99%

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A non-geometrical approach to quantum gravity

Ivanov

2009

Preprint

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Some results of author's work in a non-geometrical approach to quantum gravity are reviewed here, among them: a quantum mechanism of classical gravity giving a possibility to compute the Newton constant; asymptotic freedom at short distances; interaction of photons with the graviton background leading to the important cosmological consequences; the time delay of photons due to interactions with gravitons; deceleration of massive bodies in the graviton background which may be connected with the Pioneer anomaly and with the problem of dark matter.

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Section: A Quantum Mechanism Of Classical Gravitymentioning

confidence: 90%

Section: A Quantum Mechanism Of Classical Gravitymentioning

confidence: 99%

Section: A Quantum Mechanism Of Classical Gravitymentioning

confidence: 99%

Section: Interaction Of Photons With the Graviton Backgroundmentioning

confidence: 99%

Section: Interaction Of Photons With the Graviton Backgroundmentioning

confidence: 99%

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A non-geometrical approach to quantum gravity

Ivanov

2009

Preprint

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Low-energy quantum gravity: new challenges for an experiment and observation

Ivanov

2009

Preprint

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Some new challenges for an experiment and observation, which are consequences of the model of low-energy quantum gravity by the author, are considered here. In particular, the property of asymptotic freedom of this model leads to the unexpected consequence: if a black hole arises due to a collapse of a matter with some characteristic mass of particles, its full mass should be restricted from the bottom. For usual baryonic matter, this limit of mass is of the order 10 7 M ⊙ .

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Lorentz symmetry violation due to interactions of photons with the graviton background

Ivanov

2009

Preprint

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The average time delay of photons due to multiple interactions with gravitons of the background is computed in a frame of the model of low-energy quantum gravity by the author. The two variants of evaluation of the lifetime of a virtual photon are considered: 1) on a basis of the uncertainties relation (it is a common place in physics of particles) and 2) using a conjecture about constancy of the proper lifetime of a virtual photon. It is shown that in the first case Lorentz violation is negligible: the ratio of the average time delay of photons to their propagation time is equal approximately to 10 −28 ; in the second one (with a new free parameter of the model), the time-lag is proportional to the difference, where E 01 , E 02 are initial energies of photons, and more energetic photons should arrive later, also as in the first case. The effect of graviton pairing is taken into account, too.

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Reflections on the new monograph by M.A. Glazovskaya

Cited by 4 publications

References 0 publications

A non-geometrical approach to quantum gravity

A non-geometrical approach to quantum gravity

Low-energy quantum gravity: new challenges for an experiment and observation

Lorentz symmetry violation due to interactions of photons with the graviton background

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