6.11, 6.15, 8.5: summary:
"Gertsenshtein (1962) established theoretically
that EM waves in a magnetic or static field
would generate a gravitational wave (GWave)
and also hypothesized an “inverse Gertsenshtein effect,”
in which GWaves generate EM photons.
. the Gertsenshtein effect is interesting;
because, it relates to the
Hutchison effect:
in the presence of a electrostatic field
the interference of antiphase radio wave pairs
will produce gravitational waves (GWaves)
that can have profound effects in one of 2 ways:
# anti-gravity (causing objects to rise);
# cold fission (low-energy unlocking of
molecular and sometimes nuclear bonds).
. the only problem with the Hutchison effect
is that it was discovered by an amateur
who gets only chance results
using many possible means of action;
thus, the name "Hutchison Effect"
is not used much in peer-reviewed journals;
and furthermore,
the official USA studies of Hutchison effects
were considered classified;
so, while we have solid evidence of great power,
we have no solid documentation .
. that is, until the Gertsenshtein effect
which is both professionally accepted and Hutchison-like,
in that it deals with Tesla waves .
. it is claimed that what shows the most potential
is not the Gertsenshtein Effect,
but instead the Li-effect
"that utilizes a synchro-resonance EM beam
to create a very significant EM signal
that propagates not in the direction of
the synchro-resonance EM beam
and the gravitational waves (GWs)
but perpendicular to both the magnetic field
and the GWwave/EM beam directions;"
whereas the pure Gertsenshtein Effect
utilizes only a static magnetic field
and will generate as a second-order effect
a very slight EM radiation moving in
the same and in the opposite direction of the GWs .
. nevertheless,
what is significant to the Hutchison effect
is that there is, in the study of Gertsenshtein,
documentation of an aspect of Hutchison's,
that some sort of static field has an effect of
translating Gwaves into another form of energy .
. there are 5 fundamental energy forms:
# EM (transverse electromagnetic) waves,
# Gravitational wave (longitudinal EM pulses),
# molecular bonds,
# nuclear bonds
# thermal (submolecular kinetics) .
