Interstellular mass movement

Consider a region that has quantized the magnetron. The region propagate forward moving magnetic energy curled by gravitational force, its dominate wave mode, and very low frequency.  It emits high energy, low frequency, highly quantized waves, the magneto gravitational wave .  One of these waves impinges on a neighboring regions that has quantized to the electron level. What happens?

The gravitational field, moving in a large forward spiral with a  forward  phase; encounter the low dimensional region as anti gravity, meeting a gravity field with backward phase. The magnetic force dequantized and and starts a spiral motion with forward phase.  All the forward momentum of this wave push mass and charge in the low dimension wave in the same direction.  Intense light, flowing matter, electrons nearly the speed of light all move in the same direction, the region is almost stripped of surface matter and charge and emits intense white light. Something like this:

Not saying, just a prediction based on the theory

Or consider a quasar:

 We would see this at our quantization level, but that burst could very be a massive pulse of a gravitational magneto wave.

In this model there is the quantization level and the phase level. An electron field has a forward  phase, but in out world gravity had backward phase. A proton lives in a world with no electron, but has a slight phase backward electron field, making is positive charged, and so on.  A world quantizing the magnetron contains a magnetic field with phase forward, unlike out world where all magnetism is phase backward. At a quantization level of any particle, thw particle is stable and slightly overfills relative to phase, hance phase delayed, and so on.

Understanding fields in our vacuum encoded environment

It is simple really, where we live the electron has been quantized, and our uncertainty is set for that. When electron charge moves along against the sample rate of the vacuum, they congest a little more and spill off is vertical from the lie of travel. But the spin off is now under quantized, but the sample rate is fixed. So a slight phase advance allows the system to coped, but causes the magnetic lines to curl.  This would be a standard result between the largest quantization , the side lobe becomes the next unquantized field up and would curl back on itself.

The nuclear charge, if it makes it out of the nucleus, is over quantized and become a particle with mass. The mass of an electron is measurable only by giving it kinetic energy. Gravity never reaches the first quantization level unless mass is packed. magnetism loops become large, electro magnetism becomes infra red or will not radiate  and the excess becomes gravitation. The system reaches the quantization limit of our world. Gravitation fields have severely advanced phase, and two bodies near each other will attract to restore the phase to normal. They never can, gravity is under quantized, but they accelerate in the effort. Positive charge would result from the attempt at nuclear electro propagation, which quantizes almost immediately and the esidual electo field attempts to requantize with the electronic charge in the vicinity.

Phase alignment in the vacuum encoder

A natural quation, does the vacuum encoder sample in  phase between samples? In this model direction is phase alignment, distance is quantization levels per sample.  Wave propagation causes phase alignment along the direction of propagation. OK, but what is the static gravitational field?  Likely that is caused by the occasional, and rare magnetic quantization which stabilizes phase a bit along the gravitional field.  That is why mass attracts, they tend to flow along the phase aligned field, and that is why waves curve slightly, it is affected by the minute phase alignment along the gravitational field. The universe is not completely encoded, that is why we have simultaneity. Thus the occasional nuclear emission and the occasional magnetic quantization. Then the large static fields and the occasional nuclear emissions are the side lobes of an incomplete encoding of our world, the vacuum is still trying to complete the incomplete standard model. What if our region never quantizes a magnetic disturbance? The gravitational field become phase random, increasing the probability of a magnetic field quantization, hence the system restored. So, I guess, quantization levels are eliminated when phase become random.

In the end, the vacuum completes the encoding, swapping waves with the various regions until everything is compact to the highest rank necessary.  The universe is cold and dark, but the disturbance completely quantized, the final uncertainty constant established,  and the standard model complete. We might think of the vacuum encoder as trying to eliminate wave propogation entirely. Phase alignment would be quantized.

What did the original disturbance look like? Unquantized random vibrations of th Higgs field. Where did it come from? I have no idea.  What made the vacuum have this property? I have no idea.

Using the encoder model to explain fusion

stellarator:

A stellarator is a device used to confine a hot plasma with magnetic fields in order to sustain a controlled nuclear fusion reaction. It is one of the earliest controlled fusion devices, first invented by Lyman Spitzer in 1950 and built the next year at what later became the Princeton Plasma Physics Laboratory. The name refers to the possibility of harnessing the power source of the sun, a stellar object.

Very simply, the new model says a controlled fusion reaction is one in which the planks constant is increased and there is not enough charge to quantize the electron, which then fuses with the nuclear field to propagate Nuclear-elector waves. The encode model says the dimensionality around the fusion is reduced. The intense straight line magnetic force is out of balance with the electron spin. The vacuum dequantizes the electron in an attempt to requantize it to a higher planks level and thus match the magnetic force. There is not enough charge to do so, and the deconstruction of the electron allow the nuclear force to uncurls and wave propagation with the electron field release quantization, the total amount of matter reduced. The vacuum, in this sense, is unable to find the optimum congestion and reduces rank, releasing wave propagation until the lower rank system can requantize to optimum congestion.

So the model assumes plank is only constant within the rank of the vacuum region. Heisenberg constant, the uncertainty constant, always restabilizes to the new rank and now matches, again, the apparent SNR of the system.

Thus, gravitional-magneto wave propagation from a high dimensional system in the universe will always be requantizes lower in our low dimensionality system.  The lower quantization levels cause the directionality to be reduced, and we see the propagation as randomly arriving particles, I would assume. The gravitional component barely noticed, and the magnetic component recoupling with the local environment.

And a low dimensional nuclear-electro propagation would be quantized more finely and appear as a proton with a charge dipole, likely.  Our environment would create matter from such a wave, explaining how a proton could leave a low dimensional environment, which this theory predicts is impossible. An electo-magnetic wave leaving our environment and appearing in a high dimensional environment would look like arriving electrons with magnetic spin.

Smashing protons in the hunt for the Higgs boson would be a double drop of rank. The wave created, momentarily, would be the  weak-strong nuclear, which is quickly quantize into a  strong-nuclear, which is quickly requantized and so on. In our standard model these appear as particle creation and decay.

Characteristic spectrum of differing dimensionality.  Our region is limits by the quantization levels measurable per sample in the vacuum.  Hence there is a lower limit to the frequency transmission of electo-magentic radiation.  There is a higher limit at which quantization levels must increase, raising the rank.

The size of our region is determined when the gravition field is too weak to be measured.

I would think that physicists on earth, assume the standard model is everywhere the same, could be quite confused.  But, likely, I could be completely wrong.

Parallelism and optimum congestion

The vacuum, in this model, by under sampling the disturbance insures optimum separation of the fields, nuclear, electro, magnetic and gravity. The nuclear force is well curled inward, the electron quantization is stable, and that makes electro magnetic propagation straight and gratiy a static field.  That resuts in a three dimensional world.  If the vacuum over sampled the disturbance, then wave propagation, in our world, would be a combination of the nuclear, electric and magnetic, and straight would be a three variable system. Thus, mostly three dimensional worlds should result regardless of the level of quantization. 

Propagation from higher level quantizations would appear directionless to us, having no relationship at all to our fields. Magneto-gavitational waves, from a higher encoded region, would look like they came from everywhere.

The multi-processing version of the vacuum and disturbance

The single processor version of the vacuum assumes the vacuum sees the entire disturbance, its coding is everywhere complete but simultaneity is impossible.

In the multi-processing version, the vacuum at any time looks only at a finite sequence of the disturbance., and thus  looks at many short sequences without overlap. But the encoders (many) are always incomplete in the knowledge of the complete sequence. Simultaneity has restored. But knowledge incomplete.

The encoding increasing makes the sequence more efficient by the collision between encoded versions, which cause the local dimensionality to increase via merging of adjacent encoders.

This is the rough version of encoder that atomic physicists currently use. Physicists in this version discover incomplete encoding, and add various properties to the quantizations to simulate the optimum congestion theorem. But the current standard model is always a bit skewed, its skewness decreasing as portions of the vacuum collide and must re-encode. Hence simultaneity decreases as the encoders collide  and merge. That fate of the universe is a decrease in the encoders as dimensionality increases.

Action at a distance, therefore, occurs because the physicist causes a long sequence to be observed, and they observe, unknown, an increase in dimensionality. A black hole arises because the encoder observes a longer sequence. This happens naturally because encoding increasing packing efficiency and  relative to vacuum density.  The vacuum thus measures encoded disturbance, seeing a greater sample of events.

Light is a disturbance to sparse for encoding, and is constant because the vacuum is still finite bandwidth.. 

Kinetic energy is the compression of encoding against the band limit of the vacuum. It causes an increase in encoding dimensionality. If the dimensionality of the disturbance is higher than the capability of the vacuum we get cyclic big bang behavior. If it is less, then we get steady state.

Light should always be effected by the local dimensionality of the vacuum.

Propagations from encoders of higher dimensionality.

When the disturbance is dense enough, the magnetic field is quantize. In this case we would expect the gravitational field to be curved about the surface and the dark matter field vertical out.  This encoder would emit gravitational magneto light, but electro magnetic light never escapes. This is likely the black hole.  All of the standard particles would be slightly requantized, having more complete properties than our physicists would expect.

Gravity, within our sun, is vertical out and static, magnetic highly curved, and charge leaving the sun makes standard light coming out. The dimensionality down from the Sun would be nuclear-electro propagation.  Very high frequency and appearing to us as particles coming from the nucleus of atoms.  So the frequency emissions decrease in wavelength as the dimensionality increases. We should expect there to be four or five major propagation modes in the universe. As the universe increases to maximum dimensionality, these propagations all curve around the surface and eventually collapse into the high dimensionality vacuum.

The model is based on the optimum congestion principle

I start with the unknown disturbance, and the fixed sample rate of the vacuum.  The encoding process needs no map, its goal is to create the spectrum of the disturbance with the maximum coverage. It under samples such that the uncertainty constant, it creates, and the implied signal to noise ratio of the encoding match.  Hence, I think, it measures the total disturbance with the minimum number of quantization levels. Thus it needs no map, and there is no predetermined standard model. It creates and refines  the standard model as it progresses.  

And, the disturbance is not expanding, it is becoming more efficiently packed and shrinking relative to the vacuum. And the vacuum reduces to restore density. If we think of the vacuum with no disturbance, it has infinite minimum maximum SNR and zero maximum quantization, it is trying to encode the minimum density of the disturbance. The vacuum always encodes the most dense first. so, wave propagation is energy below the minimum density of the disturbance and travels freely across the vacuum. But, I think, regions with high dimensionality (dense encodings) will absorb and quantize wave propagations from regions with lower dimensionality, and thus expand. The wave absorbtion causes continued collapse of the disturbance, and the continued increase in empty space. And, I think, waves from regions of high dimensionality acan excite regions of low dimensionality, which then emit lower dimensionality waves. Hence a net transfer of the disturbance to high dimensionality regions.

Economic units of accounts are coarse

Monetarists get confused because sales are counted in units of penny. There are five of six oil ports, they are counted in units of the oil tanker-port.  That is a coarse unit, bankers can do nothing about that. Monetarists are confused, they shoot the messenger.

Putin pays dearly for masterbating too much

SIMFEROPOL, Ukraine — Russian armed forces effectively seized control of Ukraine’s Crimean Peninsula on Saturday, as President Vladimir V. Putin had the Russian Parliament grant him broad authority to use military force in Ukraine in response to deepening instability there.

Russian troops stripped of identifying insignia and military vehicles bearing the black license plates of Russia’s Black Sea force swarmed the major thoroughfares of Crimea and occupied major government buildings, closing the main airport and solidifying what had been a covert effort to control the largely pro-Russian region of Ukraine.

Facebook still sucks

I am reading someone's blog on Facebook, then the blog disappears and a bunch of ads show up, I cannot find my place on the blog again. I get the shivers, pull out my hair. Crap.

But wait, you say, the universe is not a serial bitstream!

And you are probably right.  My model of the universe says the best we can do is  rearrange the bits within a short subsequence, and give ourselves the illusion that there is time and distance separability. Seems strange, the clock of the vacuum would have to be enormously fast relative to the periodic appearance of an electron in that model.  But the model is a sound beginning, take the model and add in the the folds and warps, so it is rational again. Perhaps consider the vacuum to be a series of hierarchical encoders.

But more importantly, to me, is the fact that in the economy it is not the vacuum that is making the serial bit stream, we are. And we do it deliberately. Consider the stock market, most traders make it appear to be a serial bit stream, and they submit serial bids, perfectly happy.  That is entirely possible because trades take place on a second by second basis, but oil discovery, factory deals and acquisitions take place on  a month by month basis, and quarterly data is deliberately quarterly.  Real events are much slower than the information events they become in the ticker. But we are the gods, in this situation, and we make the serial bit stream model on purpose, precisely because the model is so much simpler.

Here is another example. The WalMart executive wants to collect store sales from 1,000 stores. He can read and place the data for one store in 10 seconds. How often should he collect store data?  He should collect the data rarely enough so the volatility from collection time to collection time is sized to the mean value.  In other words, he collects the data every week so the chunks of data are large relative to the collection time. He is deliberately serializing the data.

How can we fix the serial bit stream model of the universe? Dunno, yet. I am not that smart.