When it comes to classical versus quantum statistical mechanics the main difference is that quantum particles are fundamentally indistinguishable. You can't label them and you can't distinguish them by following their trajectory, because the notion of a trajectory becomes meaningless.
Step-by-step explanation:
More generally, the quantum statistics of highly unstable or even confined particles, such as quarks and gluons, plays an essential role in predicting and interpreting the results of scattering experiments, which are the bread-and-butter of experimental elementary particle physics.
Quantum statistical mechanics is statistical mechanics applied to quantum mechanical systems. In quantum mechanics a statistical ensemble is described by a density operator S, which is a non-negative, self-adjoint, trace-class operator of trace 1 on the Hilbert space H describing the quantum system.
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Answer:
When it comes to classical versus quantum statistical mechanics the main difference is that quantum particles are fundamentally indistinguishable. You can't label them and you can't distinguish them by following their trajectory, because the notion of a trajectory becomes meaningless.
Step-by-step explanation:
More generally, the quantum statistics of highly unstable or even confined particles, such as quarks and gluons, plays an essential role in predicting and interpreting the results of scattering experiments, which are the bread-and-butter of experimental elementary particle physics.
Verified answer
Answer:
Quantum statistical mechanics is statistical mechanics applied to quantum mechanical systems. In quantum mechanics a statistical ensemble is described by a density operator S, which is a non-negative, self-adjoint, trace-class operator of trace 1 on the Hilbert space H describing the quantum system.
Step-by-step explanation:
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