Effects of the Sun's time-retarded gravitational field on the orbital motions of Mercury and Halley's Comet
J. C. Hafele

TL;DR
This paper estimates the effects of a neoclassical causal gravitational theory on Mercury's and Halley's Comet's orbits, finding minimal impact that aligns with general relativity and does not explain observed anomalies.
Contribution
It applies a neoclassical causal gravitational theory to orbital motions, providing specific predictions that are consistent with established observations and relativistic effects.
Findings
Mercury's orbital period increases by about 1.86 ms per year.
Perihelion shift for Mercury is negligible at -0.032 arc seconds per century.
Halley's Comet's orbital period decreases by about 10 minutes.
Abstract
The neoclassical causal version for Newton's acausal gravitational theory explains exactly the anomalous speed-changes observed for six Earth flybys and an anomalous lunar orbital speed-change (arXiv:1105.3857v10). This article estimates the effects of the neoclassical causal theory on the orbital motions of two objects revolving around the Sun, Mercury and Halley's Comet. The change in the period for Mercury is predicted to be about +1.86 ms per year, and the predicted change in the angle for perihelion is -0.032 arc seconds per century, for which the magnitude is negligible compared with the relativistic advance of +43 arc seconds per century. The period for Halley's Comet, 75.3 years, is predicted to decrease by about 10 minutes. Therefore, the neoclassical causal theory does not conflict with general relativity theory, and it is not the cause for a delay of one or two weeks in the…
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Taxonomy
TopicsCosmology and Gravitation Theories · Pulsars and Gravitational Waves Research · Relativity and Gravitational Theory
