ZetaTalk: Precursor Drift
Mail this Pageto a Friend.
If pole shifts happen suddenly, to what extent does the magnetized core and the crust, with its various allegiances and
magnetized Atlantic Rift, attempt to adjust prior to this sudden shift? The Earth is held in its orbit by numerous forces,
only one of which is the Sweeping Arms of the Sun which whisk the planets in a counterclockwise orbit around the Sun’s middle. A second influence is the Ecliptic plane backwash of particles, returning to the Sun at its middle such
that the planets are drawn
and its avoidance of the Ecliptic backwash by diving below the Ecliptic to 32 Degrees below the Earth’s Ecliptic
plane.
Thus, the gravity of the Sun pulls Planet X forward, up toward the
Earth’s Ecliptic plane which it cannot avoid as the Sun lies at the
of this Ecliptic plane, while held away from the Sun by the Repulsion
Force so it moves slowly toward the Sun, and in a slight retrograde orbit
as a result of the influence of the sweeping arms. How does the Earth
react to this, as the two planets are forced toward each other? As we
have mentioned, as the Earth has moved to the place in its orbit where it
is Encountering Planet X, arriving from the direction of Orion/Taurus
and just under the Ecliptic somewhere within the Earth’s orbit. It has been noted that the Earth has Risen slightly in its Ecliptic plane, the Sun appearing too far south in both hemispheres, created a tilted plane that allowed the Earth at this
time to move its S Pole
their orbits, which are but a small fraction of the overall influences keeping them on their paths.
Both are magnets, both tending to align with the Sun’s magnetic
alignment, which is static despite what NASA has theorized on
magnetic reversals of the Sun every 11 years, disproved by their own
Ulysses probe. As Planet X moves to a position directly between the
Earth and Sun, its influence is closer than the influence of the Sun.
As we have stated, magnets prefer to align end to end, alternatively
preferring to align side by side, but if forced into other positions
temporarily, will tilt toward each other such that the flow of particles is Facilitated. In the case of Planet X, approaching at a 32 degree angle, it’s N Pole has been pulled toward the Sun’s S Pole, but as it passes the Sun, the N
Pole will tilt slightly toward the Sun’s S Pole. Later, as it achieves the passage and pierces the Ecliptic and zooms
quickly out of the solar system, it will return to align with the Sun. In the case of Earth, hapless as the lesser body in
these matters, it finds the increasingly closer proximity of Planet X the greater magnetic influence and likewise tilts,
magnetically, its S Pole already gripped by the N Pole of Planet X.
It has been noted that the compass is increasingly Erratic, swinging wildly both to the East and West. In that the magnetic poles swivel around the geographic poles, there has always been a slight tug in these directions as the
magnetic alignment wishes to stay with the Sun’s alignment, but the core does not adjust that rapidly in the span of a
day. With the N Pole of Planet X tugged toward the S Pole of the Sun, and the S Pole of the Earth pulled toward the N
http://www.zetatalk2.com/index/zeta60.htm[2/5/2012 11:54:43 AM]
ZetaTalk: Precursor Drift
Pole of Planet X, the S Pole of the Earth has
highly magnetized Atlantic Rift, in the southern part lying directly between S American and Africa, also wants to move toward the N Pole of Planet X, it likewise has
environment, can the red faced NASA cronies of the world go to stay ahead of this changing environment? Antarctica,
where the Sun, at least, can always be in view regardless of cloudy skies. Their mission? To gauge the trends, keep
accurate measure, and attempt to project what will be coming next!
http://www.zetatalk2.com/index/zeta60.htm[2/5/2012 11:54:43 AM]
ZetaTalk: What Magnets Do
Mail this Pageto a Friend.
An Analysis of the solar system and how the planets line up, as magnets, with the Sun shows a variety of positions.
Earth and Mercury, both with magnetic cores and in close proximity to the Sun, align alongside of the Sun attempting
to form one large magnet. Bar magnets, free to move, will snap together side by side to form one large magnet, but