Is the Lorentz Transformation responsible for Quantum Weirdness

In summary, the Lorentz Transformation is not solely responsible for Quantum Weirdness, but it does play a crucial role in understanding the behavior of particles at high speeds. This mathematical formula, developed by Hendrik Lorentz, explains the relationship between space and time in Einstein's theory of special relativity. It helps to explain phenomena such as time dilation and length contraction, which are essential in understanding the strange properties of quantum particles. However, other factors, such as the uncertainty principle and quantum entanglement, also contribute to the weirdness of quantum mechanics. Therefore, while the Lorentz Transformation is a significant component, it is not the only factor responsible for the bizarre behavior of particles in the quantum world.
  • #1
Aardwark
7
0
I visited this web site; http://www.electrodynamics-of-special-relativity.com that suggests that there is no contradiction between quantum mechanics and special relativity. The argument is that the full implications of the Lorentz Transformation have never been fully developed. The basic theory seems to say that events on spatially separated quantum systems become super-positioned in space-time if the proper interval of separation has zero magnitude. This allows quantum systems to interact directly without the need of an intermediary carrier particle; the “photon”. The site claims that this interpretation of the consequences of the Lorentz transformation generate a description of quantum electromagnetism which is fully consistent with the presence of the violation of Bell’s inequality, Heisenburg’s Uncertainty principle and interference and diffraction effects.


In General the conclusions are.


1 Quantum Systems become super-positioned where events are separated by a proper interval of zero magnitude and may interact directly without the need of a photon.

2.WRT HUP. Any event experienced by a quantum system cannot have an exact location on a conventional space-time diagram, it exists roughly on a light cone with the highest probability of interactions occurring close to the apex.

3. The state of any event on a space-time becomes a microcosm of the state of space-time as a whole

4.WRT the violation of Bell’s inequality; in light correlation experiments both sides of the experiment absorb momentum from a single event; in Aspects experiment the cascade of the calcium atom. It is only the state of the calcium atom at the moment of cascading that determines the outcome on either side of the experiment. There are no particles in flight during the experiment. This leaves the angle between the polarisers as the only factor influencing the degree of correlation between the two branches of the experiment. Hence Bell’s inequality will be violated whilst special relativity is not.

5. WRT interference; in let’s say Young’s double slit experiment there is more than one path linking the light source to any point on the screen. Since these paths are normally of different lengths this will lead to any event at a given position on the screen being super-positioned with the source at different times wrt the source! The multiple presences of the source on the screen interfere with each other to produce the interference of light.


6. The electrodynamics of this approach is equivalent to QED.


The maths associated with this approach seems pretty elementary and personally I can find no reason to dispute the logic of the argument, other than it appears to deny the existence of the photon. Perhaps the contradiction comes from trying to fit the photon into our description of the world and not from special relativity? Remove the photon and things get much simpler?


Anyway I would like to see your thoughts on the matter.
 
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  • #2
To me, this looks like typical crackpottery...

Daniel.
 
  • #3


I cannot say with certainty whether the Lorentz Transformation is responsible for quantum weirdness. There are many theories and interpretations in the field of quantum mechanics, and the idea presented on the website you visited is just one of them. It is important to approach any scientific theory with a critical and open mind, and to consider all available evidence before drawing a conclusion.

That being said, the idea that the Lorentz Transformation can explain quantum weirdness is an interesting one. The Lorentz Transformation is a fundamental concept in special relativity, which has been extensively tested and confirmed through experiments. However, it is primarily used to describe the behavior of objects in motion at high speeds, rather than quantum systems.

The statement that events on spatially separated quantum systems become super-positioned in space-time if the proper interval of separation has zero magnitude is not a widely accepted interpretation of the Lorentz Transformation. It is important to note that the Lorentz Transformation is a mathematical tool used to describe the behavior of objects in motion, and it is not meant to explain the underlying mechanisms of quantum systems.

Furthermore, the claim that this interpretation of the Lorentz Transformation generates a description of quantum electromagnetism that is fully consistent with the violation of Bell's inequality, Heisenberg's Uncertainty Principle, and interference and diffraction effects is a bold one. These are complex phenomena that have been extensively studied and debated by scientists, and it is unlikely that they can be fully explained by a single theory or interpretation.

In conclusion, while the idea presented on the website you visited is intriguing, it is important to approach it with a critical mindset and to consider all available evidence before drawing any conclusions. The relationship between special relativity and quantum mechanics is an ongoing area of research and debate, and it is unlikely that a single theory or interpretation can fully explain all of the phenomena observed in these fields.
 

1. What is the Lorentz Transformation?

The Lorentz Transformation is a set of equations developed by Hendrik Lorentz in the late 19th century that describe how the measurements of space and time change for an observer moving at a constant velocity relative to another observer.

2. How does the Lorentz Transformation relate to Quantum Weirdness?

The Lorentz Transformation is a fundamental concept in the theory of relativity, which has been incorporated into the foundations of quantum mechanics. It is used to describe how the laws of physics appear to be different for observers in different frames of reference, which is an essential aspect of quantum mechanics.

3. Is the Lorentz Transformation the cause of Quantum Weirdness?

No, the Lorentz Transformation is not the cause of Quantum Weirdness. Quantum Weirdness refers to the strange and counterintuitive behavior of particles at the quantum level, such as superposition and entanglement. These phenomena are a result of the probabilistic nature of quantum mechanics and cannot be explained solely by the Lorentz Transformation.

4. Can the Lorentz Transformation be used to explain Quantum Weirdness?

No, while the Lorentz Transformation is incorporated into the foundations of quantum mechanics, it is not sufficient to explain all aspects of Quantum Weirdness. Other principles and theories, such as the uncertainty principle and wave-particle duality, are also necessary to fully understand quantum phenomena.

5. Are there any other factors besides the Lorentz Transformation that contribute to Quantum Weirdness?

Yes, Quantum Weirdness is a complex phenomenon and cannot be attributed to a single factor. In addition to the Lorentz Transformation, other factors such as the uncertainty principle, wave-particle duality, and the observer effect all play a role in shaping the strange behavior of particles at the quantum level.

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