  General Relativity makes a distinction between mass and space. Mass tells
space how to curve and space tells mass how to move. Newtonian gravity equation
makes a distinction between them by having its numerator as mass effect and its
denominator as inverse square law space effect at macroscopic approximation. At
microscopic distances it makes sense to substitute surface-to-surface distance
between two nucleons for center-to-center distance between them to account for
the mass space distinction, keeping in mind the smallest distance between
coupled nucleons is Planck length. Any distance less than Planck makes no sense
in the classical world. When we calculate the force between two nucleons of one
femtometer diameter each, separated by a surface-to-surface distance of Planck
length, we get the force that matches well known nuclear force i.e. 10E40 times
the value of the force of gravitation ``g'' calculated by assuming the
Newtonian center-to-center distance of 1 femtometer. What we get is what is
described as the nuclear force in scientific literature. This leads to the
question: Is the nuclear force (well recognized secondary effect of color
force) high intensity gravitation?
