This post is a reaction to the NewScientist article of the same name. By AWT the Universe is behaving like interior of very dense star, where the energy spreads along surfaces of foamy density fluctuations, similar to those, which we can observe during condensation of every dense particle system. Now we can start to think:
"If such environment would be completely homogeneous, could we see something from it?"
Of course not - our ability to see some matter or phenomena is given by the fact, the randomness of system is violated in certain space and/or time. For example, we can see a laser ray in atmosphere just because such atmosphere is a bit inhomogeneous. The laser ray on the picture bellow is FASOR used at the Starfire Optical Range for LIDAR and laser guide star experiments is tuned to the sodium D2a line and used to excite sodium atoms in the upper atmosphere. In vacuum we could never see some ray from outside.
But the very same reason, which enables us to see the stars, red shift or expansion of Universe means, it's related to some dispersion and divergence in less or more distant perspective. It's tic for tat: if you want to see at least something predictable and regular, such regularity and symmetry would be always broken in less or more distant perspective (compare the geometry of density blog interactions, as described herein). It means, when we can see a light of distant stars, it's just because the vacuum contains some inhomogeneities, which can serve for causal energy spreading in transversal waves. But just these inhomogeneities are the very reason, why such causality is violated in less or more distant perspective, because you cannot separate causal fluctuations of vacuum from these random ones.
Therefore the light of distant stars appears reddish, and the speed of this redness is accelerated with distance (and the speed of its speed as well). This is because the same reason, which serves for light spreading is the reason of its dispersion, which we can perceive as a red shift and expansion of space-time. We can observe it as a omni-directional Universe expansion. And this expansion even proceeds the faster, the farther is the distance, from which we are observing it. We are calling it a dark energy. By AWT our ability to see at least something is always connected with nonlinearity of this observation in less or more global perspective. Of course, this cannot serve as an evidence of geocentric model, because it's merely an observational illusion, which is relative to each observer in Universe. We can compare to keeping of lantern inside of dense fog: after then our Universe would appear like spherical zone of iluminated fog symmetric to our location, no matter when we are staying right now.
In fact, we should observe the very same effects even at the water surface, when we would use the surface water waves as the only source of information about our neigbourhood, because water surface is never quite homogeneous, as it always contains a Brownian noise fluctuations. But these density fluctuations cannot be seen from surface wave perspective directly, they would appear like quantum chaos instead by deforming the images of other objects at proximity.
"If such environment would be completely homogeneous, could we see something from it?"
Of course not - our ability to see some matter or phenomena is given by the fact, the randomness of system is violated in certain space and/or time. For example, we can see a laser ray in atmosphere just because such atmosphere is a bit inhomogeneous. The laser ray on the picture bellow is FASOR used at the Starfire Optical Range for LIDAR and laser guide star experiments is tuned to the sodium D2a line and used to excite sodium atoms in the upper atmosphere. In vacuum we could never see some ray from outside.
But the very same reason, which enables us to see the stars, red shift or expansion of Universe means, it's related to some dispersion and divergence in less or more distant perspective. It's tic for tat: if you want to see at least something predictable and regular, such regularity and symmetry would be always broken in less or more distant perspective (compare the geometry of density blog interactions, as described herein). It means, when we can see a light of distant stars, it's just because the vacuum contains some inhomogeneities, which can serve for causal energy spreading in transversal waves. But just these inhomogeneities are the very reason, why such causality is violated in less or more distant perspective, because you cannot separate causal fluctuations of vacuum from these random ones.
Therefore the light of distant stars appears reddish, and the speed of this redness is accelerated with distance (and the speed of its speed as well). This is because the same reason, which serves for light spreading is the reason of its dispersion, which we can perceive as a red shift and expansion of space-time. We can observe it as a omni-directional Universe expansion. And this expansion even proceeds the faster, the farther is the distance, from which we are observing it. We are calling it a dark energy. By AWT our ability to see at least something is always connected with nonlinearity of this observation in less or more global perspective. Of course, this cannot serve as an evidence of geocentric model, because it's merely an observational illusion, which is relative to each observer in Universe. We can compare to keeping of lantern inside of dense fog: after then our Universe would appear like spherical zone of iluminated fog symmetric to our location, no matter when we are staying right now.
In fact, we should observe the very same effects even at the water surface, when we would use the surface water waves as the only source of information about our neigbourhood, because water surface is never quite homogeneous, as it always contains a Brownian noise fluctuations. But these density fluctuations cannot be seen from surface wave perspective directly, they would appear like quantum chaos instead by deforming the images of other objects at proximity.
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