On fixing the magnitudes of gravitational constant and strong coupling constant

  • Authors

    • Satya Seshavatharam UV I-SERVE, Hyderabad, AP, India.Sr. Engineer, QA-DIP, Lanco Industries Ltd, Tirupati, AP, India.
    • Lakshminarayana S Andhra university, India
    2015-02-21
    https://doi.org/10.14419/ijaa.v3i1.3788
  • Gravitational constant, Schwarzschild’s interaction, Astrophysical force limit, Avogadro number, Particle rest masses, Strong interaction, nuclear binding energy, and Electron’s (n2) quantum states.

  • Abstract

    In the earlier published papers the authors suggested that, “Magnitude of the unified force can be assumed to be equal to the classical or astrophysical force limit . Strength of any interaction can be defined as the ratio of the operating force magnitude and the magnitude of . If strength of the Schwarzschild interaction is assumed to be unity, then weak interaction strength seems to be ‘squared Avogadro number’ times less than the Schwarzschild interaction. The characteristic atomic force can be represented by â€. Thinking in this way, atomic gravitational constant can be expressed as  With current atomic physical constants and with the assumed two new grand unified back ground numbers analytically - value of  can be fixed for 10 digits and can be verified. Inverse of the strong coupling constant can be considered as the ‘natural logarithm of square root of ratio of gravitational and electromagnetic force ratio of down quark mass where the operating gravitational constant is squared Avogadro number times the gravitational constant’. Finally an attempt is made to fit and understand the mystery of Up and Down quarks, nuclear stability, and nuclear binding energy. For medium and heavy atomic nuclides, at the stable mass number, nuclear binding energy seems to be equal to the sum of rest energy of  up quarks and  down quarks.

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  • How to Cite

    UV, S. S., & S, L. (2015). On fixing the magnitudes of gravitational constant and strong coupling constant. International Journal of Advanced Astronomy, 3(1), 17-23. https://doi.org/10.14419/ijaa.v3i1.3788

    Received date: 2014-11-01

    Accepted date: 2014-12-02

    Published date: 2015-02-21