Interacting Plasmas: The Possibility of Field Emission and Entanglement

[Intuitive]

If we have two Plasmas, One Positive and one Negative.
Both Plasmas are Hydrogen based, One Electricaly Charged (Neg) and the other stripped of it's Electrons (Pos).
The Positive Plasma is contained in an ideal insulated Box #1.
The Negative Plasma is also contained in an ideal insulated Box #2.

The ideal Boxes are ideally 0 conductive.

both Boxes #1. and #2. containing both type of Plasmas are separated by a vacuum
of 1mm, ideally, the Boxes are never in contact with each other at any time.

The Question is, Will the Plasmas interact with each other at any level through field emission and or any type of entanglement?

 

[Astronuc]

If we have two Plasmas, One Positive and one Negative.
Both Plasmas are Hydrogen based, One Electricaly Charged (Neg) and the other stripped of it's Electrons (Pos).
The Positive Plasma is contained in an ideal insulated Box #1.
The Negative Plasma is also contained in an ideal insulated Box #2.

The ideal Boxes are ideally 0 conductive.

both Boxes #1. and #2. containing both type of Plasmas are separated by a vacuum
of 1mm, ideally, the Boxes are never in contact with each other at any time.

The Question is, Will the Plasmas interact with each other at any level through field emission and or any type of entanglement?

Presumably they would interact electrically (elctromagnetically) by virtue of the difference in potential and the established electric field. The negative charge in matter is carried by the electrons, and the positive change on the nucleus (or + ion). In a plasma, completely ionized, a negative charge implies an excess of free electrons, and a postive charge a deficiency of electrons, and in reality, that is not a very stable system. The electrons would try to diffuse from one vessel (with excess e's) to the other.

Problem would seem to be much like that of a capacitor with an applied potential difference.

 

[charng]

I find this question very interesting and thought-provoking. The concept of interacting plasmas and the possibility of field emission and entanglement is a complex and intriguing one.

Firstly, let's define what plasmas are. Plasmas are ionized gases, meaning they contain free electrons and positively charged ions. They are considered the fourth state of matter, after solid, liquid, and gas. Plasmas are known for their ability to conduct electricity and their unique properties such as self-organization and collective behavior.

Now, in this scenario, we have two plasmas, one positive and one negative, both containing hydrogen and separated by a vacuum. The positive plasma is contained in an ideal insulated box, as is the negative plasma. The question is, will these plasmas interact with each other through field emission and/or entanglement?

Field emission is the process by which electrons are emitted from a material due to the presence of a strong electric field. In this case, the positive plasma is electrically charged and the negative plasma is stripped of its electrons. This could potentially create a strong electric field between the two plasmas, leading to field emission. However, since the boxes are ideally insulated and not in contact with each other, it is unlikely that any significant field emission would occur.

Entanglement, on the other hand, is a quantum phenomenon where two or more particles become correlated, even when separated by large distances. It is a highly debated topic in the scientific community and its effects are still not fully understood. In this scenario, it is possible that the two plasmas could become entangled, but it would depend on various factors such as the distance between the plasmas, their properties, and the strength of their interaction.

Overall, the interaction between these two plasmas through field emission and entanglement is a complex and uncertain phenomenon. While it is possible that some level of interaction could occur, it would likely be minimal and difficult to detect. Further research and experimentation would be needed to fully understand the potential interactions between these two plasmas.