Jordan-Wigner transformations and their generalizations for multidimensional systems
Martin S. Kochman'ski

TL;DR
This paper introduces new nonlinear Jordan-Wigner transformations for multidimensional systems, enabling the expression of multi-index Pauli operators in terms of Fermi operators, with applications in statistical mechanics and graph theory.
Contribution
The paper presents novel nonlinear Jordan-Wigner transformations for multidimensional systems, expanding the algebraic framework and applications beyond previous linear forms.
Findings
Developed two- and three-dimensional JW-type transformations
Analyzed algebraic properties and transposition relations
Applied transformations to lattice models and graph theory problems
Abstract
In the paper nonlinear transformations of the Jordan-Wigner (JW) type are introduced in the form different from the ones known previously, for the purpose of expressing multi-index Pauli operators in terms of multi-index Fermi creation and annihilation operators. These JW transformations in the general case being a subject of a rather complicated algebra of transposition relations between various sets of Fermi creation and annihilation operators, depending on the common multiindex of the latter, is shown. As an example, the two- and three- dimensional transformations of the JW type are investigated, their properties and possible applications in analysis of a couple of lattice models of statistical mechanics and also an example of application of these transformations to problems of self-avoiding walks in graph theory, are discussed. The relation of the obtained transformations to the…
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Taxonomy
TopicsQuantum Mechanics and Applications · Nonlinear Dynamics and Pattern Formation · Quantum optics and atomic interactions
