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arxiv: 1807.10343 · v1 · pith:DU7ZHHK2new · submitted 2018-07-26 · 🌀 gr-qc

Fate of a Thin-Shell Wormhole Powered by Morris-Thorne Wormhole

classification 🌀 gr-qc
keywords wormholethin-shellmorris-thorneasymmetricdifferentenergyfateoriginal
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Asymmetric thin-shell wormholes from two traversable Morris-Thorne wormhole spacetimes, with identical shape but different redshift functions, are constructed. Energy density of the thin-shell wormhole derives its power from a Morris-Thorne wormhole which is already exotic. By choice, the weak energy condition for the thin-shell wormhole is satisfied. A linear barotropic equation of state is assumed to hold after the radial perturbations. The fate of our thin-shell wormhole, after the perturbation, is striking: the asymmetric thin-shell wormhole is destined either to collapse to the original Morris-Thorne wormhole or expand indefinitely along with the radius of the throat. In case it collapses to the original wormhole, the result is an asymmetric Morris-Thorne wormhole. Although this asymmetry does not reflect into the embedding diagram of the wormhole, passing across the throat, the wormhole adventurer feels a different redshift function.

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Cited by 1 Pith paper

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  1. Wormhole Modeling Supported by Non-Exotic Matter

    gr-qc 2019-07 unverdicted novelty 3.0

    Applies the f(R) = R - μ Rc (R/Rc)^p model and shape function b(r) = r log(r+1)/log(r0+1) to Morris-Thorne wormholes and analyzes energy conditions for non-exotic matter support.