AtchleyBasinger29

In the quantum vacuum there are many temporary acceleration vectors of mean size a randomly oriented. If the vacuum is viewed from an frame, the vectors going with the frame appear diminished, and the vectors going against the frame appear improved, causing a net polarization of the vacuum. If the frame's acceleration g is small, the result is linear, and if the machine is filled up with vectors the coefficient of the polarization will be unity. The conventional exponential term for suppressing high-energy variations must also be employed. Hence the vacuum polarization is h exp (g/a). The conditions of the exponent when multiplied by the dipole moment have the dimensions of energy.

The rest frame of the galaxy, for instance, is accelerated with respect to local inertial frames that fall into the guts. In this rest frame the machine appears polarized and promotes the galaxy's gravitational field g. So we have

g= -GM/r2 + g exp (g/a)

where g is understood to be negative. For g much higher than a, the exponential is negligible and Newton's law benefits. But for g less than a, the exponential can be expanded to at least one + g/a and we get

g2 = aGM/r2

This is exactly the method found empirically by Milgrom to describe the motion of stars and galaxies in the weak-field region, except the law of gravity is changed, not the law of motion (Scientific American, August 2002). He sees that a is about one Angstrom per second squared, which will be near the "surface gravity" of an, the field of a mass at one meter, or the field of a galaxy in its outer parts. Also, the square of a is not far from the value of the cosmological constant, in units where c=1. In the saturated field strength of the quantum vacuum this type, a may be viewed.

The findings may be acceptably explained by using the proper quantum law of gravity and assuming a plausible amount of common matter M. There is no importance of dark matter.

As place accelerates from us, the resulting clear polarization could improve the acceleration, and indeed may cause the acceleration, after the process has begun, due probably with a disturbance sometime ago. The collapse would be enhanced by the same process, if space is collapsing in a few distant place. Therefore the cosmos might consist of interspersed regions of expansion and collapse. A large bang would result as virtual particles are ripped out from the machine, when growth becomes extreme. A area could create a big crunch, where matter is crushed back to the vacuum. The whole process is presumably infinite and eternal. more information