Abstract:The main properties of the Levi-Civita solutions with the cosmological constant are studied. In particular, it is found that some of the solutions need to be extended beyond certain hypersurfaces in order to have geodesically complete spacetimes. Some extensions are considered and found to give rise to black hole structure but with plane symmetry. All the spacetimes that are not geodesically complete are Petrov type D, while in general the spacetimes are Petrov type I.
“…Since in the latter case the curvatures of the two spacelike surfaces t, r = Constant are identically zero, it is difficult to consider this spacetime as having cylindrical symmetry. Instead, one may extend the ϕ coordinate from the range [0, 2π] to the range (−∞, +∞), so the resulted spacetime has a plane symmetry, as in the vacuum case [124,332].…”
With the arrival of the era of gravitational wave astronomy, the strong gravitational field regime will be explored soon in various aspects. In this article, we provide a general review over cylindrical systems in Einstein's theory of general relativity. In particular, we first review the general properties, both local and global, of several important solutions of Einstein's field equations, including the Levi-Civita and Lewis solutions and their extensions to include the cosmological constant and matter fields, and pay particular attention to properties that represent the generic features of the theory, such as the formation of the observed extragalactic jets and gravitational Faraday rotation. We also review studies of cylindrical wormholes, gravitational collapse and Hoop conjecture, and polarizations of gravitational waves. In addition, by rigorously defining cylindrically symmetric spacetimes, we clarify various (incorrect) claims existing in the literature, regarding to the generality of such spacetimes.
“…Since in the latter case the curvatures of the two spacelike surfaces t, r = Constant are identically zero, it is difficult to consider this spacetime as having cylindrical symmetry. Instead, one may extend the ϕ coordinate from the range [0, 2π] to the range (−∞, +∞), so the resulted spacetime has a plane symmetry, as in the vacuum case [124,332].…”
With the arrival of the era of gravitational wave astronomy, the strong gravitational field regime will be explored soon in various aspects. In this article, we provide a general review over cylindrical systems in Einstein's theory of general relativity. In particular, we first review the general properties, both local and global, of several important solutions of Einstein's field equations, including the Levi-Civita and Lewis solutions and their extensions to include the cosmological constant and matter fields, and pay particular attention to properties that represent the generic features of the theory, such as the formation of the observed extragalactic jets and gravitational Faraday rotation. We also review studies of cylindrical wormholes, gravitational collapse and Hoop conjecture, and polarizations of gravitational waves. In addition, by rigorously defining cylindrically symmetric spacetimes, we clarify various (incorrect) claims existing in the literature, regarding to the generality of such spacetimes.
“…The solution has in general five free parameters, namely the cosmological constant Λ and the real constant parameters A, B, C = 0 and σ ≥ 0. The parameter A can be interpreted as a time rescaling, B and C are related to the conicity and σ is interpreted as the mass per unit length (see [27,26]). The case Λ > 0 is obtained by replacing the hyperbolic functions by trigonometric ones (see [23], [24]) and, for that case, the calculations in this section remain also valid.…”
Abstract. The Einstein field equations are derived for a static cylindrically symmetric spacetime with elastic matter. The equations can be reduced to a system of two nonlinear ordinary differential equations and we present analytical and numerical solutions satisfying the dominant energy conditions. Furthermore, we show that the solutions can be matched at a finite radius to suitable Λ-vacuum exteriors given by the Linet-Tian spacetime.
“…The analogous transformations for the cosmological Kasner case were considered by McIntosh [37]. The generalization of (3) to add a cosmological constant has been discussed by several authors [38][39][40], and electromagnetic generalizations have also been considered [41,42].…”
Section: This Suggests That Another Interpretation Is Needed Ifmentioning
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