What Causes Craters to Center Themselves on Other Craters?

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SUMMARY

The discussion centers on the phenomenon of craters centering themselves on other craters, specifically referencing Olympus Mons' caldera. Plasma cosmologists attribute this to massive lightning events that create new craters by transferring energy from the lowest elevation to the highest point of the crater rim. Additional factors include atmospheric disturbances and electric phenomena, such as lightning and unclassified tornado-like structures, which contribute to the planet's geological features. The conversation also critiques existing solar models, highlighting inconsistencies like missing neutrinos and the temperature of the solar corona.

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  • Familiarity with planetary geology and crater formation
  • Knowledge of solar physics and solar wind interactions
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  • Research the principles of plasma cosmology and its implications for planetary science
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Astronomers, planetary geologists, and researchers interested in the electric universe theory and solar phenomena will benefit from this discussion.

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to center themselves on other craters?

http://i43.photobucket.com/albums/e397/Bigpappadiaz/050606omcaldera.jpg

That's the Olympus Mons cauldera. Plasma cosmologists say that this event occurred because the massive lightning bolt that created the "shield volcano" jumped from the lowest elevation (the center of the crater) to the highest elevation (the crater rim) and started making a new crater there. :biggrin:

There were other things going on in other parts of the planet, like massive spiraling currents that twisted the North Pole, raising it up on a 3 km high bulge and blasting the top 3000 feet of elevation off the northern hemisphere.

http://i43.photobucket.com/albums/e397/Bigpappadiaz/mars_topography.jpg

http://i43.photobucket.com/albums/e397/Bigpappadiaz/Mars_nth_pole.jpg

This resembles the following picture/experiment where an arc strikes some clay. The area around the arc has become moist and began sweating away from it. Likewise, the bolt struck the center of the crater, raised it, and caused the mud to sweat away.

http://i43.photobucket.com/albums/e397/Bigpappadiaz/crater2.jpg

http://i43.photobucket.com/albums/e397/Bigpappadiaz/an_arc.jpg

In some areas the wind pressure was varying wildly, as some of the planet's atmosphere was getting pulled off. There were lightning strikes, and there were powerful electric-vortex-tornadoe-things-we-haven't-named-yet. You can see the mixture of lightning and tornado touchdowns.:bugeye:

http://i43.photobucket.com/albums/e397/Bigpappadiaz/051111lavachannels.gif


The magnetic nature of our planets alludes to their electric nature and the electric nature of the solar system. Sprites and Elves show us that this energy is traveling high above our clouds. At the elevation that they exist, Elves show us that they ripple across our ionosphere.

http://i43.photobucket.com/albums/e397/Bigpappadiaz/discharge.gif

So how does the Sun and solar wind interact electrically with the planets? Well some of the problems with the current model of the sun as continuous fusion reaction, releasing energy from the core are:

Missing neutrinos
Temperature of the halo-like corona is 300 times that of surface
Rotates faster at equator, faster on surface
Solar wind accelerates upon leaving the Sun
Sunspots reveal cooler interior
Sunspots travel faster than surrounding surface
Sunspot penumbra (interior walls) reveal structured filaments

http://i43.photobucket.com/albums/e397/Bigpappadiaz/050617penumbra.jpg
http://i43.photobucket.com/albums/e397/Bigpappadiaz/sun.jpg
http://i43.photobucket.com/albums/e397/Bigpappadiaz/sun2.jpg


These are some of the most highly detailed pictures of the Sun you'll find out there, and what they show us are bright filaments with dark stripes down the back. Some have twists, and powerful magnetic fields come with them. The spots themselves show us the interior of the Sun is cooler than fusion would have it be. What could cause this hot, glowing gas to have brighter edges and a dark stripe down the middle? A firey tornado would do it.

http://i43.photobucket.com/albums/e397/Bigpappadiaz/firetube.jpg


This demonstration shows us that the firey material is pulled to the edges, and the vortex in the center is what causes it to appear darker. Since these currents are being pulled sideways and over the surface of the Sun (where they sink into the sunspot) the tornadoes are on their sides. They twist like tornadoes too.


Here you can see a couple of electric sunspot ropes.

http://i43.photobucket.com/albums/e397/Bigpappadiaz/050616sunspotropes.jpg

http://i43.photobucket.com/albums/e397/Bigpappadiaz/magcur.gif

Thoughts? Rebuttals?
 
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In that first photo, I see 6 craters, none of them concentric.

And plasma cosmology is high-end crackpottery.
 

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