Starquake.pdf

Figum 9. Two-way Time Machine
ment" the neutron star tides to keep the combined tides near zero. As is shown in Figure 8, this was
done with a two-mass tidal augmentor. This mass configuration gives no net gravity force at the point
between them, so the orbital parameters of the object between the masses are not changed, but the
accelerations at points away from the zero-force point increase in exactly the same way as the tidal
accelerations above a single mass. A full explanation of tidal forces and how they can be compensated
and augmented by arrangements of dense spheres can be found in an old paper on producing picogravity
regions near the Earth.5
The tidal forces of a neutron star, and the compensators and augmentors needed to cope with them,
could have been understood by Newton, although he would have been amazed that such ultra-dense
stars and machines could exist. The cheela have ultra-dense machines that are even more amazing. We
know that the cheela machines use technology that goes beyond the Einstein theory of gravity, especially
at the ultra-high densities, fields, and velocities that the highly advanced cheela are able to generate.
The secrets to the fabrication of the ultra-dense machines of the cheela are still locked up behind their
cryptographic code - in the HoloMem Crystals at the Smithsonian Museum. However, just as Newton's
laws of gravity are still valid at low mass densities, Einstein's laws of gravity are still valid at
high mass densities, and they can be used to give clues as to what might happen in the ultra-high density
regions where the Einstein laws fail.
The cheela had a time machine that allowed messages to be sent backward and forward in time. The
Einstein General Theory of Relativity can be used to show how such a machine might be built, despite the
paradoxes that such a machine would bring if itwere built. As is shown in Figure 9, if a long, ultra-dense
cylinder is somehow rotated about its long axis until the peripheral velocity of the cylinder is greater than
half the speed of light, then a simple analysis6shows that there should be a region near the middle of the
cylinder, but outside the surface of the cylinder, where space and time are mixed up. By choosing a
proper trajectory, an object or photon can be sent circling around the cylinder with or against the spin of
the cylinder to emerge either in the past or the future. How the cheela managed to make a spinning
ultra-dense cylinder and keep it elongated long enough to send messages is unknown.