Quantal theory of gravity two entity formalism

Title : Quantal theory of gravity two entity formalism

Abstract:

The Quantal Theory of Gravity (QTG) offers a novel framework for gravitational interactions, rooted directly in the law of energy conservation (C. Marchal et al. Ann. Phys. 454, 169346, 2023). In a manner that right away brings about the de Broglie wavelength relationship λB=h/p, QTG remains in full symbiosis with Quantum Mechanics (QM), inasmuch as being equally applicable to either light or ordinary matter in both wave-like (quantal) and the particle-like (corpuscular) limits. Such a framework leads to all of the results that were historically considered to validate the General Theory of Relativity (GTR) of Einstein. All the same, the conformance between GTR and QTG amazingly transpires only in QTG’s quantal case. In the present contribution, we advance QTG to its two-entity formalism level of development. This is where a wave-like behaving test object of relativitic mass γm0∞ near a host mass must get torn apart into i) an accelerating wavefront of energy hf=γm0∞c2 (written following de Broglie’s foundational premise) which operates locally, and this is precisely why the proper rest mass m0∞ appears in the latter equality, ii) a corpuscular constituent of overall relativistic energy c2=Constant, necessarily recoiling, where we call the core or kernel, as tracked by the distant observer; is the rest energy decrease factor of m0∞c2 in gravity. The energies hf and are the two different i) wave-like and ii) particle-like properties associated with the given object, in gravity. The splitting occurs through a rest mass exchange, between the straggling core of overall relativistic energy γm0∞e-c2 and the throttled wavefront of energy hf, in full conformity with the laws of energy and momentum conservation. We derive specifically the equations of motion for both the wavefront hf and the core m0∞e- vis-à-vis, respectively, a fixed local observer and a remote observer situated outside of gravity. If the test object at hand does not delineate any wave-like behavior in gravity, such as is the case of high-energy γ-quanta, QTG predicts the nullification of gravitational bending. This finding can be explained under neither GTR nor other purely metric theories of gravity, and engenders an important aspect in regards to experimentally testing of QTG against metric theories including GTR. QTG is moreover applicable to all bound fields, and provides an answer to the dark energy quandary in conformance with the empirically ascertained accelerated expansion rate of the universe, though getting weakened as 1/r2, where r is the distance from Earth, in full harmony with what is measured recently.

Biography:

Prof. Tolga Yarman is a graduate from Institut National des Sciences Appliquees de Lyon (France) in Energy Engineering, with a degree equivalent to B.Sc. and M.Sc. (1967) Institute of Nuclear Energy at Istanbul Technical University (ITU, Turkey), with a degree equivalent to M.Sc (1968); and Massachusetts Institute of Technology (MIT, United States) with a Ph.D. Degree in Nuclear Science & Engineering (1972). Worked at the Nuclear Engineering Department of Cekmece Nuclear Research and Training Center (Istanbul) between the periods 1972-73 and 1975-77. Became faculty member at the ITU Institute of Nuclear Energy as Associate Professor in 1977, and as Professor in 1982. Appointed as Dean to the Graduate School of Sciences of Anadolu University (Eskisehir) in 1983. Enrolled as a Visiting Professor in the Engineering & Applied Science Faculty of the California Institute of Technology (Caltech, USA) in 1984. Was a member of the Nuclear Regulatory Committee (1975-1982) and the Advisory Board (1978-1982) of the Turkish Atomic Energy Commission (TAEK, Ankara). Gave invited lectures atla Faculte des Sciences de l' Université Libre de Bruxelles (Belgium). Has taught several courses in Energy Engineering, Nuclear Engineering,Nuclear Sciences, Thermodynamics, Fundamentals of Physics, Quantum Mechanics, and Atomistic & Physical Chemistry at the ITU Department of Chemical Engineering, besides the Institute for Nuclear Energy of Middle East Technical University (ODTU/METU), as well as Bogazici University, Anadolu University, Istanbul University, Isik University and Galatasaray University. He moreover delivered advanced courses at the Armed Forces Academy (Istanbul) on Nuclear Arms Race, Defense Industry, Advanced & Critical Technologies and Technology Transfer. Is author or co-author of several publications in national and international journals, as well as numerous invited papers presented at national and international meetings. His academic life-time approach on bridging the end results of the General Theory of Relativity with Quantum Mechanics, thusly bridging the atomistic world and the celestial world, that he developed further with the participation of his colleagues through articles he published along this line in prestigious journals, continue to attract growing attention from the world scientific community. Is also author of numerous books on Energy, Nuclear Energy, Nuclear Reactor Theory, relativity, Quantum Mechanics, along with Nuclear Arms Race and Defense Strategies, as well as a paperback on universal ethics. Currently enrolled as a faculty member in the Department of Energy Systems Engineering of Istanbul Okan University (Turkey).