STATIC ELECTRIC DISCHARGES
TO A DUST COVERED CRT
PROVIDE INSIGHT INTO CRATER FORMATION
AND OTHER FEATURES
ON PLANETARY BODIES
Z. Dahlen Parker
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Static Discharge patterns, seen in a thin layer of dust on a CRT, have a
striking resemblance to many features seen on moons and asteroids. This low
tech experiment has revealed a reasonable alternative explanation for how
some planetary surface features were formed.
The intensity is not to be confused with other experiments, it is at lower levels of surface charge of the energized CRT's used to produce the following images, but the features are clearly from electric discharge.
CRT crater chain
Many features on moons and asteroids are hard to explain through the
mechanism of
an impact.
The anomalies are numerous but the most obvious challenge to that theory
comes from chains of craters that appear to overlap each other.
A unique and highly structured set of circumstances
would be required to form such features.
If an impact explanation was to be used several problems arise.
To get a chain of craters you’d need a chain of objects and they would need
to impact
in tight formation nearly on top of one another.
This was not observed with comet Shoemaker-Levy 9.
Are there any instances to support a tight chain of impactors?
Link to TPOD Image and article
How can this feature be explained by an impact?
If objects strike at an angle, other than a right angle, they would make
non-symmetrical circles. Also, a sequence of impacts would destroy the
clarity of the
previously formed features.
Considering the appearance of crater chains, there are too many problems
not answerable
by the impact theory for it to be valid.
This JPL image from Ganymede, one of Jupiter’s moons, is a perfect
example to compare to the CRT discharge-chains.
Another mechanism must be considered to explain the formation of crater
chains.
The following image shows what looks alot like crater chains.
Two possible causes will be suggested here and I will let the pictures make
the case of either an electric discharge by an object making a glancing pass
of the planet's surface or electric discharge from another source. There is
a wealth of evidence which suggests either of these two options to be
feasible.
But you might be saying; "What about an impact, isn't that an option?"
The need to present proof of crater-chains, from impacts, rests on the
shoulders of the astronomical theorists who have applied the impact theory
without any real evidence. Postulations of this sort are well practiced and
one of their tools that produce
many of their theories, but they don't hold up when real science is done, such as; on the nature of comets and why
they form tails, the history of the solar system and the nature of the sun.
A carefull look at the last two links will explain the shortcommings of
conventional theories on a number of subjects.
Even if these bodies, mysteriously hanging onto asteroid Itokawa,
were to be
stripped loose the debris is not likely to result in a straight line of
impact points.
Crater-chains will falsify their theory on impacts.
The patterns give us details to draw upon for comparison and if we let
the patterns
speak to our reasoning we may see through a fog created by an absence of eye
witnesses
and an abundance of speculation about impact events.
One detail to take note of in the CRT images is that a whole circle is
often at one end
and then a series of semi-circles are adjacent.
The first point of discharge can be
recognized.
TV Crater-chain Image
This pattern occurs with little variance!
When motion across the CRT’s surface is slow enough to get repeated
discharges in close
proximity the semi-circles get tighter, forming a weld-like bead.
These attributes give the mechanism of electric discharge an advantage
toward explaining
how planetary-type crater chains were made.
1. Direction of movement produces specific patterns which are
consistent in
repeated tests with electrical discharges.
2. Symmetry is very well preserved from one discharge point to the next.
The
previous patterns are nearly undisturbed by subsequent discharges.
link to CRT
image(side streams)
And hopefully this will be convincing.
In experiments, by Plasmatic of Thunderbolts forum, with
an ion air purifier the results are quite interesting.
This is cut from
a larger image.
The previous two images are some of the results from experiments conducted
by James St.Pe (Plasmatic MnemoHistory on Thunderbolts forum). They provide
an idea of discharge effects in deep material. Here the patterns hold to the
symmetry and many other details and are an improvement to the CRT results
due to the raised rims of the craters.
In regard to individual craters;
Craters that are not a part of a chain; share a common circular
symmetry and often
have concentrations of material in their centers or other signitures of
electrical activity.
Image from European Space agency's Stereo Camera
Look these over closely
for the interior features of the discharge patterns.
Internal radial features are frequently seen and in some cases
correlate with
a concentration of material which has Lichtenberg (lightening-like)
features.
At a glance you can see many similarities to planetary features
and as you look closer others become apparent
including miniature craters
adjacent to the path of the discharge chain, parallel rills and berme.
link to TV image
The CRT experiments have shown that direction of movement is revealed in
the crater-chain’s arrangement. When discharge-overlap occurs, the whole
circle marks the first
point of discharge and the semi-circles are subsequent discharges.
link to CRT image
From observations, the reason may be that at each point of discharge
the area becomes partially neutralized or polarized
so an adjacent discharge will only involve material
beyond the range of a previous discharges.
The possibility of a residual polarity signature is demonstrated by where
material is
deposited or repelled. There is more mentioned below as supporting
observations.
From an examination of many discharge patterns created in the dust on an
old CRT a
clear challenger has stepped into the ring as a possible mechanism which can
make
craters and crater chains but the patterns made by electricity do not stop
here.
Electric discharge
patterns on a CRT go way beyond craters
CRT Image
Material has been seen to collect in thin tendrils at the time of
discharge and more
importantly after the discharge has ceased at that location.
The image below shows material gathered electrically, with positive
relief.
CRT-pattern
Image
To get this degree of similarity the choices of potential mechanisms
grows ever slimmer.
link to image
(grouped spiders)
streaming deposit
Material was seen to stream off the probe (my finger) and attract
to the tendrils of spiders, avoiding other areas.
Subsequent discharges add or remove material depending on power settings of
the CRT.
Spiders Positive and
negative
These patterns occurred when two CRTs were passed in close proximity
screen to screen. One had powder on the surface and the other didn’t, at
first.
Link to image
of pass-over spider & cluster
The spiders below correlate to these craters. These features are one side
of the
discharges occurring while two CRT’s were passed in close proximity.
To Pass-Over
Craters
One powered-on the other powered-off. Three passes are represented
here.
link to
Pass-over Spiders
In summary
Electric discharge
can replicate many features seen on planetary bodies.
The list began with craters and crater chains
and has expanded to rills, positive-relief spiders and negative spiders.
Craters on the rims of other craters are also seen
in the CRT experiments.
Electric discharge
deserves careful consideration as the cause
of several types of features on celestial bodies.
At this time we may struggle to accept electricity at work in planetary
scale
but
the evidence will clear the way.
And we do have evidence in abundance
of the electric mechanism at work,
recorded from Io to Mars and beyond.
---------------------
To Jesus be the Glory
for where He's brought me.
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