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The Hydrodynamic Representation of the Quantum Relativistic Dynamics of the Electron

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arxiv 2309.04495 v1 pith:3BU5XVGJ submitted 2023-09-07 quant-ph

The Hydrodynamic Representation of the Quantum Relativistic Dynamics of the Electron

classification quant-ph
keywords electronhydrodynamicderiveddiracequationfieldrelativisticsecond
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In this work, the action of the relativistic electron is derived from the hydrodynamic formulation of the Dirac equation. In particular, in the hydrodynamic scenario, the four-velocity of the electron is regarded as an Eulerian field and the electron spin interacts with the corresponding vorticity field. In the second part of the work, it is shown how the second order Dirac equation can be derived from a principle of Minimum Fisher Information.

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Cited by 2 Pith papers

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  2. The Schrodinger Equation as a Gauge Theory

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    Schrödinger equation is locally equivalent to a non-relativistic gauge theory via one-form or two-form gauge fields on the probability current, with global topology from phase winding quantization.