xylophonic said:So if the first spiral represents the outward path of energy to the edge of the solar system, and the second spiral represents the inward path, then the spirals must be inverse to each other.
If the spirals represent the twisted electromagnetic field of the solar system, then the amount of energy where the spirals cross will be greater than where they don't. If the entire field is filled in with spirals, the points at which the inverse spirals intersect will form circles.
There is one logarithmic spiral that will generate a set of circles that match .9 ratio circles and so will therefore match the planetary orbits if the orbits were to be aligned dead center to the sun. They're not, and yet the logarithmic spiral still picks them out with precision.
Notably, the inner planets are plotted with only four spirals which may indicate main field lines within the system.
The spirals will be moving inward and outward respectively within their magnetic hemispheres while separated by the neutral balance sheet and this may give rise to an effect a bit like the rubbing of plasticene between the palms of the hands.
What does "outward path of energy" mean? I am unaware of anything such as this.
What? Are you referring to the Sun's magnetic field? That's the strongest EM field in the solar system.
How precise are we talking about here?
Field lines for what?
Can you elaborate?
xylophonic said:The sun's magnetosphere is divided into two hemispheres. In one, energy moves outwards to the heliopause while in the other, energy moves inward to the Sun. It is accepted that the EM field is twisted into a spiral by the Sun's rotation, known as the Parker field. There are some who base the shape of the spiral on the solar wind and there are others who suspect that there is an underlying spiral based more on planetary formation than solar wind disbursement.
xylophonic said:Around the outer edge I note unbroken multi-stranded twisted braid. Heliopause, I'm thinking. There is no overall spiral grid here though, and no set of circles. Instead, there is what appears to be a network of tubes which are running from the star to the edge with what appear to be inlet ports near the star. It looks then, as if the energy field has developed a transmission system from the star to the perimeter. A network of vortex tubes perhaps.
Upon examination of the end of this object, I note a coil of twisted tube like an ear on the end of a lemon. Unlike most of the planetary nebulae, this system does not appear to be blasted to bits so I conclude that here we have a solar system that has experienced an explosion but has not burst the outer electromagnetic bubble.
This is perhaps why the whitish emission at the center has not disbursed - it is sitting just underneath the canopy. If there were to be a further decent stella emission, I can imagine one might find corkscrew shaped emissions from the ears.
Sorry, I don't understand what you mean by "energy moves outwards" and "energy moves inwards", and what this has to do with planetary orbits.
What energy are we talking about and how is it moving anywhere?
xylophonic said:it looks to me as if Uranus is bridging two of the circles.
xylophonic said:If you were to draw a circle on a sheet of paper and place a dot at the center, then allow the circle to represent the equator of a planet, and the dot to represent a pole. If a spiral is drawn into the center, this will represent ingoing energy to the pole as per a spherical spiral. If a polar emission spiral is drawn emanating outwards from the pole, then the spherical spiral and the polar spiral will be inverse to each other.
In the image of the Mars pole attached, there are a set of inverse spirals contained within the shape of the rock. Conclusion: at the time of it's formation, the planet was a sphere of molten rock and what we see is the action of outgoing energy from the pole against ingoing energy coiling around the sphere which has been fossilized as the planet cooled. Molten rock
forms a powerful electromagnetic field which diminishes as the rock cools and it would appear that there was enough EM energy operating here to create this rock formation. The polar area is characterised by spiral shaped terraces further indicating the action of an out-bound polar spiral.
I don't know of any "electromagnetic bubble" that could burst. That doesn't really seem to make a lot of sense to me.
xylophonic said:The Catseye shows the bubble. Note the large uncoiling ends with ejecta. Looks to me like there's been a bang, the system has rotated and come forward a bit, and then a second bang.
Planetary formation. Click on the pic that looks like a pearl necklace.
the strange formations that are often seen in planetary nebula are, as far as I know, due to rotational or magnetic properties of the star that formed them
And I have no idea how a page with pictures of crop circles is related to this thread. Because they are vaguely similar in shape? Again, it's simply coincidence.
xylophonic said:Drakkith, I get the feeling you haven't clicked on the image that looks like a pearl necklace. If you do, you should see an explanation of planetary formation involving the accretion of bubbles.
The phrase "a monkey with a typewriter" is often used in discussions about probability and randomness. It refers to the famous thought experiment known as the Infinite Monkey Theorem, which suggests that given enough time, a monkey randomly typing on a typewriter will eventually produce the complete works of Shakespeare.
While it is theoretically possible for a monkey to randomly type out the works of Shakespeare, the chances of it actually happening are incredibly small. In reality, a monkey would most likely produce a jumbled mess of random letters rather than coherent sentences.
The Infinite Monkey Theorem highlights the concept of probability and how even extremely unlikely events can occur given enough time. It also demonstrates the importance of sample size in statistical analysis, as the more trials you have, the more likely it is to observe rare events.
The Infinite Monkey Theorem has been used to explain and explore concepts in fields such as mathematics, computer science, and philosophy. It has also been used to illustrate the concept of randomness in evolutionary biology and the search for extraterrestrial life.
While the original thought experiment involved a monkey and a typewriter, the concept of randomness and probability can be applied to various scenarios, such as generating random sequences of numbers or letters. The underlying principles of the Infinite Monkey Theorem can also be applied to the study of complex systems and their emergent properties.