Lorentz and gauge invariance of quantum space
Ahmed Farag Ali, Barun Majumder, Prabir Rudra

TL;DR
This paper proposes a discrete model of space that maintains Lorentz and gauge invariance, linking generalized uncertainty principles to electromagnetic interactions, and suggests this discreteness could explain natural crystal structures.
Contribution
It introduces a Lorentz and gauge invariant discrete space model derived from GUP and electromagnetic interaction equivalence in the Dirac equation.
Findings
Derived a wavefunction solution satisfying the equivalence
Proposed a discrete space model consistent with Lorentz and gauge symmetry
Suggested a connection between space discreteness and natural crystal structures
Abstract
Motivated by generalized uncertainty principle, we derive a discrete picture of the space that respects Lorentz symmetry as well as gauge symmetry through setting an equivalency between linear GUP correction term and electromagnetic interaction term in Dirac equation. We derived a wavefunction solution that satisfies this equivalency. This discreteness may explain the crystal and quasicrystal structures observed in nature at different energy scales.
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Taxonomy
TopicsNoncommutative and Quantum Gravity Theories · Relativity and Gravitational Theory · Advanced Mathematical Theories and Applications
