Geometrical and physical interpretation of the Levi-Civita spacetime in terms of the Komar mass density
Bence Racsk\'o, L\'aszl\'o \'A. Gergely

TL;DR
This paper reinterprets the Levi-Civita spacetime using the Komar mass density, revealing its physical meaning, geometric deformation, and the transition from Newtonian gravity to acceleration effects as the mass density varies.
Contribution
It introduces a new interpretation of the Levi-Civita spacetime based on the Komar mass density, clarifying its physical and geometric properties.
Findings
Komar mass density eliminates parameter ambiguities.
Gravity is attractive and increases with mass density.
At =1/2, tidal forces peak and then diminish.
Abstract
We revisit the interpretation of the cylindrically symmetric, static vacuum Levi-Civita metric, known in either Weyl, Einstein-Rosen, or Kasner-like coordinates. Despite the infinite axis source, we derive its Komar mass density through a compactification and subsequent blowing up of the compactification radius. We show that, the Komar mass density calculated in the Einstein-Rosen frame, when employed as the metric parameter, has a number of advantages. It eliminates double coverages of the parameter space, vanishes in flat spacetime and when small, it corresponds to the mass density of an infinite string. After a comprehensive analysis of the local and global geometry, we proceed with the physical interpretation of the Levi-Civita spacetime. First we show that the Newtonian gravitational force is attractive and its magnitude increases monotonically with all positive ,…
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Taxonomy
TopicsAdvanced Differential Geometry Research · Relativity and Gravitational Theory · Cosmology and Gravitation Theories
