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Classical probabilities for Majorana and Weyl spinors

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arxiv 1102.3586 v1 pith:5SVEFHP3 submitted 2011-02-17 hep-th hep-latquant-ph

classification hep-thhep-latquant-ph
keywords isingclassicalfermionsmajoranamodelprobabilityquantumweyl
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abstract

We construct a map between the quantum field theory of free Weyl or Majorana fermions and the probability distribution of a classical statistical ensemble for Ising spins or discrete bits. More precisely, a Grassmann functional integral based on a real Grassmann algebra specifies the time evolution of the real wave function $q_\tau(t)$ for the Ising states $\tau$. The time dependent probability distribution of a generalized Ising model obtains as $p_\tau(t)=q^2_\tau(t)$. The functional integral employs a lattice regularization for single Weyl or Majorana spinors. We further introduce the complex structure characteristic for quantum mechanics. Probability distributions of the Ising model which correspond to one or many propagating fermions are discussed explicitly. Expectation values of observables can be computed equivalently in the classical statistical Ising model or in the quantum field theory for fermions.

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  1. Quantum field theory for classical fields

    quant-ph 2026-03 conditional novelty 4.0 of 10

    A classical Klein-Gordon field with random initial conditions, described through specially defined fluctuating observables, obeys the functional-integral rules of a quantum field theory.

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