Abstract

The classical uncertainty principle inequalities are imposed over the general relativity geodesic equation as a mathematical constraint. In this way, the uncertainty principle is reformulated in terms of proper space–time length element, Planck length and a geodesic-derived scalar, leading to a geometric expression for the uncertainty principle (GeUP). This re-formulation confirms the need for a minimum length of space–time line element in the geodesic, which depends on a Lorentz-covariant geodesic-derived scalar. In agreement with quantum gravity theories, GeUP imposes a perturbation over the background Minkowski metric unrelated to classical gravity. When applied to the Schwarzschild metric, a geodesic exclusion zone is found around the singularity where uncertainty in space-time diverged to infinity.

Highlights

  • General Relativity (GR) describes gravitation as a dynamical space–time geometry in a pseudo-Riemannian manifold shaped by energy-momentum densities [1]

  • GR is largely incompatible with quantum mechanics

  • GR world-lines for particles are defined with infinite precision [1], while this is not allowed in quantum mechanics

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Summary

Introduction

General Relativity (GR) describes gravitation as a dynamical space–time geometry in a pseudo-Riemannian manifold shaped by energy-momentum densities [1]. Considering GUP in the framework of quantum geometry theory, any accelerating particle in the absence of gravity experiences a gravitational field [8] This field corresponds to a perturbation unrelated to classical gravitation over the background Minkowski metric. This approach recovers GUP in the p-quadratic form as a function of the particle mass, m, the proper acceleration, A, and the quadratic form of the space-time length element, δs [8]:. The signs of these metric components change in the interior of the black hole once the event horizon is crossed, with the radial-dependent metric behaving as time rather than space Despite these considerations, the singularity remains at R position 0 where the length of the space–time line element is undefined. When applied to geodesics in the Schwarzschild metric, the presence of an exclusion zone around the singularity was confirmed

Derivation of a Relativistic Tensor Expression for the Classical Uncertainty
Derivation of a Covariant Geometric Form of the Uncertainty Principle
Geometric Uncertainty Principle in Minkowski space
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