1. Space Discretization in Quantum Physics and Precision Principle.
- Author
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Hopanchuk, Andrii
- Abstract
This paper explores the consequences of discretization of space in quantum mechanics. Specifically, I show that under normal conditions in space where the wave function is uniform across a quantum of space, Heisenberg’s uncertainty principle is identically satisfied, where the “normal conditions” are defined as p x Δ x / ħ ≪ 1 with Δ x characterizing the size of a quantum of position space or equivalently Δ p x x / ħ ≪ 1 with Δ p x characterizing the size of a quantum of momentum space (this limiting behavior is also at the core of Nyquist sampling theorem; see Jerri (1977); Vaidyanathan (IEEE Trans. Circ. Syst. I Fundam. Theory Appl. 48(9), 1094–1109, 2001); Ozaktas et al. (2001)). Moreover, I derive an equation similar to Heisenberg’s uncertainty principle which imposes a constraint on the minimum values of “precision” of space (i.e. the maximum values for Δ x and Δ p x ). Additionally, I show that in discretized space the simultaneous minimum position and minimum momentum uncertainties are unphysical. [ABSTRACT FROM AUTHOR]
- Published
- 2023
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