Physics, asked by QGP, 1 year ago

What are entangled particles? What is the difference between Anti-Particles and Entangled Particles?

Answers

Answered by ruchisr123
1
The interaction will simply destroy the entanglement, that is, measurements on the entangled partner will not be correlated with measurements on the destroyed particle (since it has been destroyed, obviously). Nothing will happen to the entangled partner itself.


ruchisr123: mark as abrinliest ans
QGP: What does it mean? Please simplify. I will mark your answer as brainliest then.
ruchisr123: Particles that are their own antiparticles must be electrically neutral, because .... You ask if the initial photon could annihilate and be replaced with a different one. .... The relationship between distant entangled particles
QGP: That's Okay, but then I don't understand the difference between the two types of particles.
Answered by Unknown000
1
Hell there :-) ###

What are entangled particles?


let's firstly understand what is quantum entanglement ##

# It is a type of physical phenomenon.

# It occurs when groups of particles are generated or shared spatial proximity in ways such that the quantum state of each particle cannot be described independently.

# when the particles are separated by a large distance,it must be described as for the system as a whole.

Measurements of physical properties like :-

#position

# momentum

#  spin,

# polarization

These physical properties performed on entangled particles which are found to be correlated.



What is the difference between Anti-Particles and Entangled Particles?



Entanglement occurs when a pair of particles, such as photons, interact physically. A laser beam fired through a certain type of crystal can cause individual photons to be split into pairs of entangled photons.


The difference is precisely that all of the physical charges of a particle are reversed in the antiparticle. (This includes not only electric charge, but also charges related to the strong and weak nuclear interactions as they may or may not apply to the particle under consideration).

hope you understand dear :-)

# Thanks
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