Does the ubiquitousness of EM fields explain single particle

In summary, The assumption of ubiquitousness of EM fields may explain single particle interference better than other explanations. However, this is still a personal theory and has not been discussed on the forum.
  • #1
sanpkl
80
1
Does the (assumption of) ubiquitousness of EM fields explain single particle interference well/better?

Below is a rough logic, however it maybe need modifications.

The double slit or the mach-zehnder or any object changes the configuration of time-space and EM fields.

The photon may not know in advance what it will encounter in it's path however the EM fields might change instantaneously to reflect any changes in the configuration.

Thus the photon may appear to "know" things in advance, however it is due to the change in the EM field that reflect the change in obstacles in the path of the photon.

The photon may appear to take the shortest path because of the way the configuration of time-space (and EM fields) is.
 
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  • #2
sanpkl said:
The double slit or the mach-zehnder or any object changes the configuration of time-space and EM fields.

Can you elaborate what you mean here because as it stands it doesn't really make any sense.

It is true that at the beginner level the view of Quantum Field Theory may be a better way to come to grips with the weirdness of QM:
https://www.amazon.com/dp/0473179768/?tag=pfamazon01-20

Thanks
Bill
 
  • #3
sanpkl said:
Does the (assumption of) ubiquitousness of EM fields explain single particle interference well/better?

Below is a rough logic, however it maybe need modifications.

The double slit or the mach-zehnder or any object changes the configuration of time-space and EM fields.

The photon may not know in advance what it will encounter in it's path however the EM fields might change instantaneously to reflect any changes in the configuration.

Thus the photon may appear to "know" things in advance, however it is due to the change in the EM field that reflect the change in obstacles in the path of the photon.

In addition to what bhobaa asked (I'm curious as well as what it means for an object to change the configuration of time-space and EM fields), do you think you can also explain interference effect using electrons, neutrons, buckyballs, supercurrents, etc... etc. In other words, does it generalize to the Schrodinger Cat-type superposition and interference? Because if it doesn't, then your explanation loses generality that had already been described via QM. So what possible advantage does your explanation have over that?

Zz.
 
  • #4
I don't know what you are saying: "ubiquitousness" is a property of all fields, by definition, I don't understand what you mean by "Changes the configuration of time-space" - if you mean these words as they are conventionally used, this doesn't happen.

If this is a personal theory, please remember that these are not discussed on PF.
 

1. What are EM fields and why are they ubiquitous?

EM (electromagnetic) fields are a type of energy field that is created by electrically charged particles. These fields are ubiquitous, meaning they are present everywhere, because they are produced by a wide range of natural and man-made sources, such as the sun, Earth's magnetic field, and electronic devices.

2. How do EM fields affect single particles?

EM fields can exert a force on single particles, causing them to move or change direction. This is because charged particles interact with EM fields, either by being attracted to or repelled by them.

3. Can EM fields explain single particle behavior?

While EM fields can certainly influence and affect single particles, they do not fully explain their behavior. Other factors, such as the particle's mass, velocity, and interactions with other particles, also play a role in determining its behavior.

4. Are there any experiments that demonstrate the influence of EM fields on single particles?

Yes, there have been several experiments conducted that demonstrate the effects of EM fields on single particles. For example, the Stern-Gerlach experiment showed that the path of a single particle can be altered by a magnetic field.

5. How does the ubiquitousness of EM fields impact our daily lives?

EM fields are an integral part of our daily lives, as they are responsible for many natural phenomena and are also used in various technologies. For example, they play a crucial role in wireless communication, electricity generation and distribution, and medical imaging technologies.

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