# Quantum gravitational applications of nuclear, atomic and astrophysical phenomena

## DOI:

https://doi.org/10.14419/ijaa.v4i1.5841## Published:

2016-03-11## Keywords:

Quantum Gravity, Strong Interaction, Electromagnetic Interaction, Newtonian Gravitational Constant, Schwarzschild Interaction Strength, Neutron Star, Avogadro number and Molar Mass Unit.## Abstract

By following the old concept of â€œgravity is having a strong coupling at nuclear scaleâ€ and considering the â€˜reduced Planckâ€™s constantâ€™ as a characteristic quantum gravitational constant, in this letter we suggest that: 1) There exists a gravitational constant associated with strong interaction, G_{s}~3.328x10^{28} m^{3}/kg/sec^{2}. 2) There also exists a gravitational constant associated with electromagnetic interaction, G_{e}~2.376x10^{37 }m^{3}/kg/sec^{2}.Based on these two assumptions, in a quantum gravitational approach, an attempt is made to understand the basics of final unification with various semi empirical applications like melting points of elementary particles, strong coupling constant, proton-electron mass ratio, proton-neutron stability, nuclear binding energy, neutron starâ€™s mass and radius, Newtonian gravitational constant, Avogadro number and molar mass unit. With further research and investigation, a practical model of â€˜quantum gravitational string theoryâ€™ can be developed.

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