Magnets and Ferrofluids

The precise mechanism of what's going on inside magnets is impossible to know without detailed knowledge of their structure. However, there are nevertheless quite a few things that can be said about magnets in terms of the two orb Velcro model of photons.

What we know about metals is that they are not random collections of atoms. They are mega-structures. Treated the right way, they have orientation, like crystals.

A random zero-point photon finding its way into a magnet will find atoms structured in such a way that there are quick ways out of it, and lengthy ways out of it.

Bouncing about inside a magnet, many zero-point photon will find the quick exits. These are tunnels in the lattice going in the north-south direction.

This is not unique to magnets. All crystals have this feature, yet very few crystals, if any, are magnets. So the presence of quick exit routes do not in themselves explain magnets.

What makes magnets special is that the walls of their tunnels are lined with electrons that give the photons the required spin and direction to form sustainable polarization. The more coordinated and vigorous the electrons spin, the stronger is the magnet.

The tunnels are necessarily uniformly lined with spinning electrons throughout the metal, so photons come out spinning the same way whichever end they come out of.

However, they will come out with opposite direction. That means that the ones coming out of the north pole spin opposite of the ones coming out of the south pole, when viewed in the direction they are travelling.

Magnet inducing spin into photons streaming out of the south and north poles.

However, viewed from the north, all photons coming out of the magnet spin with their negative orbs rotating in a clockwise direction. This fact can be derived from Ampère's right-hand grip rule, and also from how current is induced into copper wires.

The fact that photons come streaming out in equal measure from both ends of a magnet tells us that there must be a lot of tunnels going through the metal, and that they must have entry points as well as exit points at the poles. Otherwise, there would be a permanent photon over-pressure at the poles and a corresponding under-pressure at the sides. This would violate the laws of thermodynamics, and is obviously not happening since it would produce a noticeable wind.

The way magnets allow for incoming photons at the poles is by setting them spinning in the same direction as the outgoing photons.

When outgoing photons meet incoming photons, they brush into them, sharing some of their spin. This polarize the incoming photons as they head towards the magnet. Even before they enter the magnet, they have a certain degree of polarization.

Photons entering and leaving both ends of a magnet.

Note that spin is transferred between opposite charge orbs. Like charge orbs do not react with each other since they cannot latch onto each other. Negative orbs communicate their spin to positive orbs and visa versa. The fact that the negative and positive orbs spin in opposite direction to each other allows for spin to be maintained and shared.

The sharing of spin from outgoing to incoming photons produces a pattern in which highly polarized outgoing photons are surrounded by progressively less polarized photons. Between each highly polarized outgoing photon, there is a valley, so to speak, of less polarized photons.

Interestingly enough, it is in fact possible to observe this pattern.

When a ferrofluid is placed on top of a magnet, it morphs into sharp peaks surrounded by shallow valleys. Highly polarized outgoing photons are producing the peaks, while less polarized incoming photons are producing the valleys.

Ferrofluid

By Steve Jurvetson - http://www.flickr.com/photos/jurvetson/136481113/, CC BY 2.0, https://commons.wikimedia.org/w/index.php?curid=906519