Newton’s Law of Universal Gravitation Explained by the Theory of Informatons
Newton’s Law of Universal Gravitation Explained by the Theory of Informatons作者机构:Retired Professor Kaho Sint-Lieven Now Faculty of Engineering Technology KU Leuven Ghent Campus Gent Belgium
出 版 物:《Journal of High Energy Physics, Gravitation and Cosmology》 (高能物理(英文))
年 卷 期:2024年第10卷第3期
页 面:918-929页
学科分类:07[理学] 070202[理学-粒子物理与原子核物理] 0702[理学-物理学]
主 题:Gravity Gravitational Field Gravitational Interaction Informatons
摘 要:In the context of classical physics, Newton’s law of universal gravitation describes the attraction between two mass particles separated in space. In the same context a vector field Eg, that is not associated with anything substantial, has been introduced as the entity that mediates in the gravitational interactions. In this article, we will show that Egis the mathematical quantity that—at the macroscopic level—fully characterizes the medium that makes the interaction between particles at rest possible. We identify that medium as “the gravitational field. To define the nature of the gravitational field, we will start from the hypothesis that a material object manifests itself in space by the emission—at a rate proportional to its rest mass—of mass and energy less granular entities that—relative to an inertial reference frame—are rushing away with the speed of light and that are carriers of information referring to the position of their emitter (“g-information). Because they transport nothing else than information, we call these entities “informatons. We will show that the expanding cloud of g-information created by the continuous emission of informatons by a mass particle at rest can be fully characterized by the vector field Eg, which implies that that cloud can be identified as the gravitational field of the particle. We will also show that the gravitational interaction between mass particles can be explained as the response of a particle to the disturbance of the symmetry of its “proper gravitational field by the field that, in its direct vicinity, is created and maintained by other mass particles.