What is the phenomenon of synchronized electron orbits?

  • Thread starter Duster
  • Start date
  • Tags
    Phenomenon
In summary, the conversation discusses a phenomenon called quantum entanglement, where pairs of atoms with single valent electrons can have their orbits reversed by manipulating one of the electrons, regardless of distance. The implications of this phenomenon could have potential applications in quantum switching and communication. One person suggests that the phenomenon may be related to Bell's Theorem, but others argue that it doesn't concern particle physics specifically. The conversation ends with a request for clarification and a proposal for further research.
  • #1
Duster
4
0
I recall hearing about a phenomenon where atoms are somehow bound. The example went something like this:

Pairs of atoms are contained; both with a single valent electron that rotate opposite each other, (not sure what element it was) but the atoms do not share these electrons. The electrons operate in tandem and if one electrons orbit is reversed the other responds spontaneously by reversing its own orbit.
The atoms are then isolated and removed from one and other. Then, one of the electrons is bombarded and its rotation is reversed. The rotation of the other ‘bound’ electron spontaneously also alters it’s rotation to counteract the other atom. This experiment was done not only across a lab, but across the country. It also appears that the electrons reverse their orbits at exactly the same moment, not pending the distance.

Does anyone know what this phenomenon is called?

I would like to read up on any new information regarding this. I also have a few applications for something like this. By helping me track down this missing phenomenon, I would certainly be able to add more here.

Thanks in advance for any help provided.

Duster
 
Physics news on Phys.org
  • #2
I think the term you are looking for is "quantum entanglement"
 
  • #3
actionintegral said:
I think the term you are looking for is "quantum entanglement"
No. But close. I have a partner in thought that I (lucky me)spoke with about this issue. While "quantum entanglement" is an offshoot of the idea, I believe it's Bells Theorem. However, my source was not able to recall if this was dealing with electrons or photons. I have to believe it's electrons as photons hold no mass, and it's arguable if photons have motion other than linier.

Allow me to elaborate on why I am so interested.
A cousin of my wife is involved in a project that deals with quantum switching. This implies the use of electrons to act as a binary switch. By moving a valent electron or charging the atom with an additional electron, it can act as a binary switch. This implies that (in the right lab) electrons can be read.

If Bells theorem holds true, this implies reading electrons as binary bits, and the fact that they can be switched, and altered in real time(instantaneously), without regard to distance, would make interstellar, or coast to coast communication much faster then even before, and that is understated.. Combined with certain modulation principals, I will out do Bill Gates, At&T and anyone else who implies that they have our best interests at heart.

Then, Think of the big bang. If atoms are paired in their infancy, then blown apart to make up our universe, and they were boud in their creation, perhaps we already have the ability to communicate with other galaxys. This is only hard because you have to find 2 needles in diffrent hay stacks on a galactic sence. (obserd, but cool)


Thanks for all the reads.. maybe I'll get more now.
 
Last edited:
  • #4
Duster, Bell's theorem does not concern itself with which kind of particle, or whether there is mass or not, but rather just with local realistic systems with properties that can be varied over a small finite set (idealized as two-state). You'll get a lot of argument on this forum about just which assumptions Bell really made, but they do not include particle physics particulars.
 
  • #5
OK Understood, and my source, Rick, who holds patents in modulation methods, was sure he recalled that Bell's theorem concerned photons. I'm not sure I have hit on the correct answer yet, but I feel we are close.
 
  • #6
selfAdjoint said:
Duster, Bell's theorem does not concern itself with which kind of particle, or whether there is mass or not, but rather just with local realistic systems with properties that can be varied over a small finite set (idealized as two-state). You'll get a lot of argument on this forum about just which assumptions Bell really made, as they do not include particle physics particulars.
The theorem must state that alll matter is bound and that balence is only achieved when it becomes fixed, and observable.
.
I beleve there is another answer... but it is not easy and I am not smart enough to quantify it.
I then propsed a question that took 64 reads to be answered.
If electorns can be read, I have no breasking point and it WILL be true.

I am not finished




Who can tell what an electrons path will be. If the units are 'entagled" I Am happy.
Physics is always quantifiable. I a not he who quantifies. I am he who proposes.
I am not as smart as those whom help.
I am loyal to those who try
All I ask if to be defined.

Jerrod
 
Last edited:
  • #7
The theorem must state that alll matter is bound and that balence is only achieved when it becomes fixed, and observable.

As far as I can see this statement has no physical meaning. It certainly has nothing to do with Bell's Theorem.
 

FAQ: What is the phenomenon of synchronized electron orbits?

1. What is a "Missing Phenomenon"?

A "Missing Phenomenon" refers to any unexplained or unobserved event or occurrence that does not fit into current scientific theories or explanations.

2. How do scientists approach the study of "Missing Phenomena"?

Scientists approach the study of "Missing Phenomena" by first acknowledging that there are gaps in our current understanding of the natural world. They then use the scientific method to gather data, form hypotheses, and conduct experiments to try to explain the phenomenon.

3. What are some examples of "Missing Phenomena"?

Some examples of "Missing Phenomena" include dark matter, the placebo effect, and ball lightning. These are all phenomena that have been observed, but do not have a complete scientific explanation.

4. Why is it important to study "Missing Phenomena"?

Studying "Missing Phenomena" is important because it helps us expand our understanding of the natural world and can lead to new discoveries and advancements in science. It also challenges scientists to think critically and question existing theories.

5. Can "Missing Phenomena" ever be fully explained?

It is possible that some "Missing Phenomena" will never be fully explained, as our understanding of the natural world is constantly evolving. However, through continued research and advancements in technology, we may be able to uncover more information and develop more comprehensive explanations.

Similar threads

Replies
36
Views
3K
Replies
6
Views
2K
Replies
18
Views
1K
Replies
36
Views
4K
Replies
38
Views
2K
Replies
11
Views
1K
Replies
15
Views
2K
Replies
15
Views
3K
Back
Top