Gravitation and Cogravitation: Developing Newton's Theory of Gravitation to Its Physical and Mathematical Conclusion

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Electret Scientific Company, Dec 1, 2006 - Science - 367 pages
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Newtons theory of gravitation is the grandest and the most enduring physical theory ever created. Today, more than 300 years after it was first conceived, Newton''s theory of gravitation is still the basic working theory of astronomers and of all the scientists dealing with space exploration and celestial mechanics. However, Newton''s theory of gravitation has serious defects: it is incapable of accounting for certain fine details of planetary motion; it does not provide any information on the temporal aspect of gravitational interactions; it cannot be reconciled with the principle of causality and with the law of conservation of momentum when it is applied to time-dependent gravitational systems.This book extends and generalizes Newton''s theory of gravitation, makes it free from the above defects, makes it fully applicable to all possible gravitational systems, and provides a large variety of methods for calculating gravitational interactions between moving or stationary bodies of all shapes, sizes and configurations.The starting point of the generalization of Newton''s theory of gravitation developed in this book is the idea that gravitational interactions are mediated by two force fields: the gravitational field proper created by all masses and acting upon all masses, and the "cogravitational" field created by moving masses only and acting upon moving masses only. In accordance with the principle of causality, the two fields are represented by retarded field integrals, which, for static or slowly-varying gravitational systems, yield the ordinary Newtonian gravitational field.An immediate consequence of the generalized Newtonian theory of gravitation developed on this basis is that gravitational interactions normally involve at least five different forces associated with velocities, accelerations and rotations of interacting bodies. The effects of these forces are quite remarkable. Some examples: a fast-moving mass passing a spherically-symmetric body causes the latter to rotate; a mass moving with rapidly-decreasing velocity exerts both an attractive and a repulsive force on neighboring bodies; a rotating mass that is suddenly stopped causes neighboring bodies to rotate; the differential rotation of the Sun is caused by the planets orbiting around it.The generalized theory of gravitation is fully compatible with the laws of conservation of energy and momentum. A very important result of this compatibility is the definitive explanation of the process of conversion of gravitational field energy into the kinetic energy of bodies moving under the action of gravitational fields.The generalized theory of gravitation predicts the existence of gravitation-cogravitational waves and explains how such waves can be generated.The generalized theory of gravitation also indicates the existence of antigravitational (repulsive) fields and mass formations. A cosmological consequence of such fields and mass formations is a periodic expansion and contraction of the Universe. Another consequence is that the actual mass of the Universe may be much larger than the mass revealed by an analysis of gravitational attraction in the galaxies.It is natural to compare the various consequences of the generalized theory of gravitation with the consequences of the general relativity theory. In this regard the following three remarks should be made.First, there are no observable gravitational effects revealed by the general relativity theory that do not have their counterparts in the generalized theory of gravitation.Second, the generalized theory of gravitation describes a vastly larger number of gravitational effects than those described by the general relativity theory.Third, numerical values for gravitational effects predicted by the general relativity theory are usually different from the corresponding values predicted by the generalized theory of gravitation; the difference is almost always a consequence of greater complexity and depth of gravitational interactions revealed by the generalized theory of gravitation.Although this book presents the results of original research, it is written in the style of a textbook and contains numerous illustrative examples demonstrating various applications of the generalized Newtonian theory of gravitation developed in the book.

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References and Remarks for Chapter 1
Equations in Terms of Volume Integrals

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acceleration According to Eq angular acceleration angular momentum angular velocity arc seconds axis boundary layer calculations causal celestial mechanics centripetal force Chapter cogravitational dipole cogravitational vector potential component conservation law conservation of momentum constant velocity coordinates cross product cylinder derivative differential rotation dipole moment direction disk distance Einstein's field equation Electret Scientific electric charge electric field electromagnetic equations Electromagnetic Induction electromagnetic interactions electromagnetic theory energy density equivalence principle Example expression field energy field g field produced fields and potentials find the gravitational force exerted Gauss's theorem given by Eq gravikinetic field gravitational and cogravitational gravitational energy gravitational field gravitational force gravitational interactions gravitational potential gravitational theory gravitational waves gravitational-cogravitational Gravity Probe However index of refraction inertial reference frame integral in Eq integral sign integrand Jefimenko kinetic energy Larmor Precession Lenz's law line integral Lorentz transformation equations Mach's principle magnetic magnetic field magnetic vector potential mass current mass density mass moves mass-current Maxwellian mechanical momentum Mercury's motion moving mass distribution moving point mass moving with constant Newton's gravitational Newton's gravitational law Newton's theory Newtonian Newtonian gravitational obtain Oleg D Oliver Heaviside orbit perihelion precession photon physical quantities plane wave planet point of observation position vector precession present position prism quantities radius relativistic relativistic electromagnetic relativity theory replace retarded position retrograde motion ring rotating scalar potential second body Since Solar system space special relativity spherical Star City stationary mass stationary point surface integral surface layer symmetry theory of gravitation Theory of Relativity Therefore torque transformation unit vector vector analysis vector identity velocity of light volume volume element volume integral wave propagating wblk x axis

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