Here is my first post on it:
The problem is self evident: if entanglement is what you say it is:
Then you cannot entangle non-identical particles.
Here is my first post on it:
The problem is self evident: if entanglement is what you say it is:
Then you cannot entangle non-identical particles.
I have asked for a link to an article on this topic. You are the first person ive ever heard discussing this as a āthingā.
Hmm, let me put it straight. Your proposal that:
Is not something that is considered seriously in physics. There is no article on its flaws because the flaw is apparent:
And I am the first person youāve ever heard discussing this problem exactly because this model of entangled particle being just one particle seen through different ends of a ācontactā wormhole is not something that is seriously considered in physics. Indeed, most probably because it cannot explain the entanglement of non-identical particles.
In any case, I donāt think one needs an article on the topic. Unless I am misunderstanding your model, the problem is pretty clear: if entangled particles are just one particle seen through two faces of a ācontactā wormhole, how can you explain the entanglement of say a proton and an electron? This throatless wormhole cannot turn a proton into an electron, so it does not matter which end of the wormhole you see this electron from, it cannot be a proton seen from one face of the wormhole and an electron in the other.
The model of entanglement=wormhole that IS seriously discussed in physics is called ER=EPR, as I mentioned in a previous post:
But this is not your theory, because
Carumba!
In the last 24 hours i have heard you twice assert that scientists have entangled mis-matched particles. I have never before heard this.
Is there an article you can point me to that describes this?
First of, entanglement happens all the time, one does not need scientists to specifically prepare it. For example, every time we make an observation, we entangle our measuring apparatus (and ourselves) with the system under study.
Here is just one example of entangled mis-matched particles: The hydrogen atom as an entangled electron-proton system - NASA/ADS
Thatās right, literally every hydrogen atoms.
Indeed, the entanglement of identical particles are the ones that are considered to be special cases of entanglement! So much so that some people wrote articles on this subfield of entanglement: [1403.3178] Entanglement of Identical Particles, [1709.05520] Remarks on entanglement and identical particles
Aside from the fact i dont have Harvard permissions to tead anything more than the abstractā¦ these are not mis-matched if Hydrogen atoms are being entangled with hydrogen atoms.
Click on the arxiv e-print link, thatās a preprint server where everything is free! Please read the abstract, these are not hydrogen-hydrogen entanglement, but that a hydrogen atom consists of an entangled electron-proton system.
Yesā¦ IDENTICAL electron-proton systems. This is not mis-matched entanglement.
It is matching system entanglements.
Lookā¦ you mentioned the opposite facings of a wormhole.
Now shorten the wormhole to one planckā¦
NO!!! It is entanglement of electron and proton. Electron and protons are not identical!
@PdotdQ
Is English your second language?
Of course electrons and protons are not identical.
But an electron/proton system IS potentially identical to another electron/proton system.
I clearly indicated the latterā¦ not the former.
Yes, I was exasperated which is why I emphasized this obvious thing. My apologies for losing my cool.
Electron-proton system is identical to another electron-proton system. But the article I linked is not talking about that.
It is talking about how an electron and a proton can be entangled, with the example of such entanglement forming a hydrogen atom.
Ahhhhā¦ i will see if i can access the link you specify. I have an obligation to attend toā¦so give me several hoursā¦
Here are a bunch of other experiments entangling different particles, in this case photon and electrons/atoms. You can find any of the manuscripts on arxiv, but their results are clear from their abstracts.
If youād rather read an article written for the lay audience, here is one such article:
That lay audience link should be a big help!
Interesting that this got bumped today with this discussion going on: