Classical Equation of Gravity to Quantum Limit
Shantilal G. Goradia

TL;DR
This paper proposes a classical gravity equation that unifies general relativity and Newtonian gravity at subatomic scales, extending to the quantum realm and emphasizing nuclear theory's importance for understanding matter and gravity.
Contribution
It introduces a classical gravity equation valid down to the Planck length, bridging general relativity with quantum-scale phenomena and experimental findings.
Findings
Unifies gravity with quantum scales at the Planck length
Aligns classical gravity with nuclear and experimental data
Highlights importance of nuclear theory for cosmology
Abstract
The fact that mass has an effect on surrounding space is the first essential element of general relativity. This paper unifies this mass/space distinction of general relativity with Newtonian gravity at a subatomic scale and with reported experimental findings of the last century. The subatomic distinction of mass concentration mainly in nucleons surrounded by empty space as we know it now was not known when the general relativity was written. The author uses this distinction to set forth a consistent classical equation of gravity valid to the Planck length and peeps into the quantum world. It is difficult to exaggerate the importance of fundamental nuclear theory for the understanding of matter in the universe and its cosmological evaluation, and also for the inclusion of gravity in the unified family of all four forces.
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Taxonomy
TopicsRelativity and Gravitational Theory
