Mass Eigenstates: Definite Mass States Explained

In summary, "states of definite mass" and "mass eigenstates" are equivalent terms when referring to neutrino oscillation, but it is important to cite the source of information for accurate answers.
  • #1
aveline de grandpre
10
1
Does saying "states of definite mass" is the same as saying "mass eigenstates"?
 
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  • #2
Usually yes, but it would be good form to reference the text you are reading to provide us with enough information to answer your question.
 
  • #3
Orodruin said:
Usually yes, but it would be good form to reference the text you are reading to provide us with enough information to answer your question.
Orodruin said:
Usually yes, but it would be good form to reference the text you are reading to provide us with enough information to answer your question.
I read this from Wikipedia

https://en.wikipedia.org/wiki/Neutrino_oscillation

" Neutrino oscillation arises from a mixture between the flavor and mass eigenstates of neutrinos. That is, the three neutrino states that interact with the charged leptons in weak interactions are each a different superposition of the three neutrino states of definite mass. "
 
  • #4
Yes, they are the same.
 

Related to Mass Eigenstates: Definite Mass States Explained

1. What are mass eigenstates?

Mass eigenstates are quantum states in which the mass of a particle is well-defined. In other words, a particle in a mass eigenstate has a definite mass and cannot be described as a mixture of different masses.

2. How are mass eigenstates different from other quantum states?

Unlike other quantum states, mass eigenstates are not subject to superposition, meaning they cannot exist as a combination of different states. They are also not affected by external forces, allowing them to maintain their definite mass.

3. What is the significance of mass eigenstates in particle physics?

Mass eigenstates play a crucial role in particle physics as they provide a consistent way to describe the masses of particles. They also help to explain the phenomenon of mass generation in the Standard Model of particle physics.

4. How are mass eigenstates related to quantum mechanics?

Mass eigenstates are a fundamental concept in quantum mechanics, as they represent the most basic and well-defined states of particles. They are described by the wave function, which is a central concept in quantum mechanics.

5. How are mass eigenstates measured in experiments?

In experiments, mass eigenstates are measured indirectly through their interactions with other particles. This can include measuring the energy and momentum of the particles or observing their decay products. The data collected from these experiments can then be used to determine the mass of the particle in its corresponding mass eigenstate.

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