Obviously, by applying a density factor to the volumes will give the mass equivalence of the spheres, and therefore in relation to the Earth/Moon system using North American Space Agency (nasa) data, we need to allow a factor of 1.6474 to the Earth. Therefore 197.72 x 1.6474 = 325.72.  sa/m = 161.6 / 325.72 = 0.496. If we compare this to the sa/m of the moon = 3, we have 3 / 0.496 = 6.048. This gives us the gravitational equivalence between the Earth and Moon which complies with the nasa figures of surface gravity of 1.62 m/s² (moon) and 9.80 m/s² (earth), ie 9.80 / 1.62 = 6.049.

This phenomenum of surface area to mass equivalence I believe explains the real reason why gravity seems to act about a sphere as if the mass were at its centre, and why its strength appears to be as much a product of its radius as its mass. It can also explain why a particle inside a hollow sphere is not subject to a gravitational force from the sphere. This is because the forces are acting in a similar way to those described in my earlier ‘hovercraft’ analysis, in that, the particle is represented by one of the craft, and the internal surface of the sphere represents the cannons around the perimeter of the lake. It can be understood that by virtue of the fact that the craft is firing and receiving shot, as are the perimeter cannons, the forces will be in equilibrium. It does not indicate however that a gravitational force, or the cannons are not present.

In considering the hypothesis further to include motion, I had also determined that the same gravitration could also propel the processes of motion, and conclude the following:

All matter constantly absorbs and emits gravitration, and therefore all matter is connected.

All matter is in motion and moving due to the action and reaction of gravitration.

It would also be reasonable to conclude that in fact, matter and gravitration are the same, in that matter is the condensed formation of gravitration and conforms to structures of, or almost of infinite scale. Gravitration could almost be considered to be as ‘mass vapour’.