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The Construction of Spinors in Geometric Algebra

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arxiv math-ph/0403040 v2 pith:L7Y2ODRD submitted 2004-03-20 math-ph math.MP

classification math-phmath.MP
keywords spinorsgeometricalgebraapproachesconstructiondefineddiracfound
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abstract

The relationship between spinors and Clifford (or geometric) algebra has long been studied, but little consistency may be found between the various approaches. However, when spinors are defined to be elements of the even subalgebra of some real geometric algebra, the gap between algebraic, geometric, and physical methods is closed. Spinors are developed in any number of dimensions from a discussion of spin groups, followed by the specific cases of $\text{U}(1)$, $\SU(2)$, and $\text{SL}(2,\mathbb{C})$ spinors. The physical observables in Schr\"{o}dinger-Pauli theory and Dirac theory are found, and the relationship between Dirac, Lorentz, Weyl, and Majorana spinors is made explicit. The use of a real geometric algebra, as opposed to one defined over the complex numbers, provides a simpler construction and advantages of conceptual and theoretical clarity not available in other approaches.

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  1. Real spinors and real Dirac equation

    math-ph 2019-08 conditional novelty 4.0 of 10

    The real-spinor form of the Dirac equation, under a two-sided local Lorentz transformation rule, yields a non-Abelian bivector gauge field that generalizes electromagnetism.

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