Cosmology - The farce of the doppler effect

The Farce of the Doppler Effect

By J.R. Silva Bittencourt

The Farce of the Doppler Effect *J.R. Silva Bittencourt Electromagnetic radiation (which includes the visible light range) is the only source of information available about distant stars, and about the galaxies they form. Therefore, astronomers place their full confidence in the Doppler Effect, especially when it comes to assessing the distances at which stars are supposed to be placed. Imagine the extent of the damage if someone could somehow show the world that the Doppler effect would be nothing more than an optical illusion, only related to the memory of who observes? It would be like pulling the rug under many people's feet. Do you think I know how to do it? Of course not. Neither is necessary, since many others already did it. This is the case of Einstein with his work on the Photoelectric Effect (1905), showing that electromagnetic radiation is quantized or, in other words, discontinuous. Planck, despite providing the subsidy and the novelty of the energy quantization of the oscillators, continued to treat the radiation as if it were an electromagnetic wave. That is, although he accepted that the light emitted by the source (for example, a star) was discontinuous, Planck believed that it would propagate in the space

like an electromagnetic wave. "Einstein's hypothesis suggests that light, as it traverses space, behaves not as a wave, but as a particle." (Physics 4, Halliday / Resnick p.281). The physicists and astronomers of our day, mimicking Planck, cling firmly to the postulates of classical wave theory, because they could not admit the hypothesis that they could no longer rely on the Doppler effect as a reliable tool.

Just do not see the truth, who does not want. In this article I tried to collect some existing evidence and to elaborate, on my own, some reasonings that are available to all. The first problem with the Doppler effect is that it has been borrowed from the behavior of sound waves. The reasoning is that if sound propagates in the form of waves and so does light, nothing is fairer than to take advantage of the properties of contraction and expansion of sound waves. A sound gets louder when the source comes in and lower when it goes away. In the case of stars, the light tends respectively to blue or red. For me, it is difficult to understand such borrowed resemblance, especially when it is known that light propagates in the vacuum without difficulty, which does not happen with sound. No use shouting in the void, because no one will listen to you. Sound needs matter to move in space, which does not extend to

light. Because it is a transverse wave or that oscillates in planes perpendicular to the direction of propagation, the light allows its polarization. This does not apply to sound waves, which are longitudinal. The quantization of energy brought some subsidies in this field, which could explain some incongruities. The first is that the quantization of light energy, which does not extend to sound waves, would be directly related to the principle of Uncertainty: "We see that the state of affairs described by the uncertainty principle is a direct result of quantization.

Quantization of electromagnetic radiation requires that at least one 'unit' of light (a quantum, of momentum p = h / Îť) be scattered over the particle or, therefore, that no light be scattered. (Fundamentals of Modern Physics, Eisberg, p.141).

To illustrate the uncertainty principle Bohr would have quoted in 1928 the example of a microscopist analyzing a sample: "Consider a measure taken to determine the instantaneous location of a particle by using a microscope. In such a measure the particle must be illuminated, for, after all, they are the quanta of light scattered by the particle that the microscopist sees."

This is one of the characteristics of our memory: particles can never be directly observed. What we see would be the result of the translation of information made available by the light scattered by the particle, and whose time for its decoding does not exist in practice. That is, the quantum scattered is delivered by nature ready, and the quantization of energy is a timeless process. When you can not measure any interval of time that separates us from a particle, however small it may be, so does the measure of the motion of that particle. That is, there is no motion in the absence of time, which concludes that particles in spacetime need to be in continuous (and relative) motion or will cease to exist, because they can not be remembered. This puts us in direct and continuous contact with our past, apparently reversing the direction of the arrow of time: although it continues to point in the direction of the future, it is only from our past that we can remember. We conclude that in this case the light and cosmic radiation emitted by the stars could only be coming from our past. Hence the term "cosmic background radiation".

Timelessness, inherent in the quantization phase of energy, would justify Einstein's thought that light would use its corpuscle-like appearance to move in

a vacuum, not a wave. This is due to the conclusion, already mentioned, that there is no movement in the absence of time, which would be fundamental for the survival of the electromagnetic waves. Similarly, Doppler and its red shifting could be rightly questioned because it can not be measured directly 'before' the photons scattering. Doppler could be considered an optical illusion if it had been conceived in the future (within the cone of light of any event) gaining meaning only "inside" spacetime, when we have already discovered ourselves by looking continuously at our own past , a dimension of time that no longer exists.

Another interesting feature of the quantization of energy would be that, since it would not depend on the existence of a measurable time, the process would 'level' the energetic extremes of the light spectrum of the galaxies, at least until the photons scattered. This means that the celestial vault would be 'crystallized' to our point of view, being evaluated in the form of isolated snapshots of our own past (snapshots). In the case of the visible light range it would not be possible to know, for example, if the ultraviolet would be reaching the front of the infrared or vice versa, since the zero time frame would have permanently fixed in the position of each

isolated observer. Because of the inexistence of measurable time for the quantization phase of energy, we would still have the feeling that light would have been retained in our future, assuming its limited and constant velocity only in the past when time became measurable. This would shield the direct access to space, since they are the quanta of light, scattered by the particles, that allow us to see them in an indirect way. Therefore, we should give greater importance to the behavior of light and its simple harmonic motion, in order to unlink it from space. This attitude would demystify the idea that light and space would form a whole, a single thing.

This thought would be behind the misuse of the Doppler Effect aiming at the evaluation of distances and velocities, either distant stars or subatomic particles. It is easy to conclude that if light and space formed a whole, there would be no uncertainty in the position of light sources, as in the case of stars. Our present behavior hurts this principle, for we usually treat the future as if it were an inverse image of our own past. For example, if a laser needs 1.2 seconds to reach the Moon, it is logical to conclude that it will take the same time to travel in the opposite direction. This really happens in practice, but it is still dependent on the existence of

the isolated observer. This observer, in turn, will continue to depend on the measurability of time, without which his memory would lose its meaning.

Santa Maria, RS, 11/21/2017

*Despite being a biochemist, J.R. Silva Bittencourt is a frequent reader of well-known authors in the field of Cosmology and, early on, realized that the role of the observer in translating information from our physical reality seemed to be placed on a secondary plane. If, for a brief moment, we left aside our obsessive preoccupation with directly measuring the physical phenomena on the outside, we would perceive the existence of a vast field to be explored in the opposite direction. Why can not any particle be directly observed, be it in the micro or the macrostructure of the Universe? Why, for us, is there only what can be remembered? Questions such as these find discussion in the author's book "Images of the Universe-Collecting Clues of Bidimensionality" of Editora Habilis (in portuguese). For those who like comics, the themes are also covered in the series "The Adventures of Ben-Hur and Padilha in Outer Space" (English version) published on the site Issuu.com/home. In the window provided by the site, put "The Adventures of ..." and enjoy.