A New Method of Calculating Gravity without the
Gravitational Constant
Author: Siepmann, JP <archive@journaloftheoretics.com>
Abstract: By using the Space Constant Equation it is possible to accurately
calculate the gravitational force of any celestial body and the "fudge factor"
of the gravitational constant is able to be discarded forever. This article expands upon
the underlying principles outline by Siepmann JP, Journal of Theoretics, Vol. 1 No. 1, The Laws of Space and Observation and demonstrates the
usage of the Space Constant Equation.
Keywords: gravity, gravitation, Observational Physics, Space, aether,
gravitational constant, Space Constant, general relativity, cosmology.
The "gravitational constant" is the number that determines the strength of
gravity and is the constant that is derived from Newton's law of universal gravitation and
is often referred to as "Newton's gravitational constant" or the "Newtonian
gravitational constant." Newton's law of gravitation can be simply expressed as
F=Gmm'/r^2 where F is the gravitational force between two bodies, m
and m' are the two masses, r is the radius or distance between the
two masses, and G is the gravitational constant which has be experimentally
calculated to be 6.6726E11 m^{3} kg^{1} s^{2}.^{1}
It is readily apparent that the current gravitational constant is not a tangible
physical concept as demonstrated by its units of measure which are currently mandatory for
the law of universal gravitation to yield the correct units for force. It is a constant
that grossly works in most instances but yet we have no understanding of why. This is
because we have had an erroneous understanding of gravity.
Gravity as detailed in the Laws of Space and Observation^{2} does not
exist as a direct force but rather as the result of the pressure exerted by
"Space" on the matter/energy that is displacing it. Gravity is equal to the
Relative Space Warp (the RSW = APD/360  sin(AGI) x APD/360 and is the corrected
angle of photon deviation at a certain radius around a mass divided by 360) multiplied by
the Space Constant (the SC is the pressure exerted by Space [gravity] at the
horizon of a black hole and is equal to 2.0E8 m/s^{2}).^{2} This
will yield a value for gravity in m/s^{2}. In the Laws of Space and Observation, G
does not exist. Some may say that the SC is still a constant, but unlike G,
it is a real value with meaning.
The table below is used to demonstrates the use of the Space Constant Equation^{2}
(g_{x }= SC x RSW_{x}) for some the bodies in our solar system.
The value of g in this table is in m/s^{2} and is based upon
current estimates found in the Handbook of Chemistry and Physics, 78th edition, while the
RSW is a ratio value that can be physically observed and verified (though for this purpose
only the RSW for the sun is an observed value while the rest are calculated values due to
lack of available data). The value of the SC is 2.0E8 m/s^{2}.
By using the Laws of Space and Observation and in particular the Space Constant
Equation, we can throw away the antiquated "fudge factor" of the gravitational
constant. It will also allow for the future calculation of gravity to yield more accurate
values than currently possible for celestial masses.
1. Schewe PF and Stein B, AIP Bulletin of Physics News, No. 223, April 24, 1995
2. Siepmann JP, Journal of Theoretics, Vol. 1 No. 1, The
Laws of Space and Observation.
