A Beginner's View of Our Electric Universe - New
A Beginner's View of Our Electric Universe - New
A Beginner's View of Our Electric Universe - New
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We can closely inspect many craters and have even had our hands on some <strong>of</strong> them. Should it not then be<br />
reasonable to expect that our ability to deduce their cause through common sense and reference to laboratory<br />
evidence might triumph? Sadly no, this does not seem to be the case, for the existence <strong>of</strong> electricity in space<br />
is denied and so the blinkers <strong>of</strong> gravitational and mechanical forces stubbornly still hold sway. Astro-scientists<br />
just refuse to consider the electrical theories that go well beyond those <strong>of</strong> gravity to provide many <strong>of</strong> the answers<br />
they seek. Their collective lack <strong>of</strong> education in electrical and plasma science is holding them and science back<br />
while also doing nothing to enhance the knowledge <strong>of</strong> the interested public. I expand further here on common<br />
features <strong>of</strong> craters and cratering that generally go unnoticed or are taken for granted without thinking.<br />
More on the question <strong>of</strong>, why do craters always appear round?<br />
Experiments claimed to reproduce convincing circular craters no<br />
matter the angle <strong>of</strong> trajectory <strong>of</strong> the projectile go against the apparent<br />
logic <strong>of</strong> the situation where one would think that a shallow angle<br />
strike would result in an elongated surface scar. This idea seems<br />
to me to be reasonable and would appear at the very least to be a<br />
possibility, yes? No, astro-scientists do not place much weight on<br />
this obvious aspect and tend only to <strong>of</strong>fer their standard impact,<br />
volcanism and surface collapse models to explain crater creation.<br />
One <strong>of</strong> their lines <strong>of</strong> explanation is that small, fast moving bodies<br />
on course to strike large bodies with atmospheres will heat up and<br />
explode at the surface with enough force to produce a circular crater directly beneath the blast. An assumption<br />
<strong>of</strong> this model is that none <strong>of</strong> the significant fragments <strong>of</strong> the incoming projectile would actually remain –<br />
i.e. the power <strong>of</strong> the explosion would be significant enough to ensure that the whole projectile is completely<br />
disintegrated.<br />
It is also interesting to note that with impact being claimed as the cause, it could never be the case that the<br />
various materials <strong>of</strong> which rocky projectiles will consist would always react to impact and heating in the way<br />
typically described. Every object would have its own speed, angle <strong>of</strong> entry, material construction and chemical<br />
make-up that would ensure at least some <strong>of</strong> them were not completely destroyed with zero debris and no telltale<br />
signs left lying around on the surface. So what we are being asked to believe is that all projectiles no matter<br />
their size, composition, speed and angle <strong>of</strong> trajectory will disintegrate totally to leave round craters and no<br />
debris or other visual clues in the surrounding area. I leave you to ponder this!<br />
145 | The <strong>Electric</strong> <strong>Universe</strong> answers I see<br />
Timocharis crater on the Moon - Credit NASA LRO