
arXiv: 2402.10976
handle: 11567/1179255
This article considers the Dirac field in polar formulation and shows that when torsion is taken in effective approximation the theory has the thermodynamic properties of a van der Waals gas. It is then shown that in the limit of zero chiral angle the van der Waals gas reduces to a Weyssenhoff fluid, and in spinlessness regime the Weyssenhoff fluid further reduces to a Newton particle. This nesting of approximations allows us to interpret the various spinor quantities. We will see that torsion will provide a form of negative pressure, while the chiral angle will be related to a type of temperature.
non-relativistic regime, Physics - General Physics, General Physics (physics.gen-ph), effective approximation, QA1-939, FOS: Physical sciences, classical limit, Mathematics, spinor field
non-relativistic regime, Physics - General Physics, General Physics (physics.gen-ph), effective approximation, QA1-939, FOS: Physical sciences, classical limit, Mathematics, spinor field
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