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Thermodynamics, entropy, and stability of thin shells in 2+1 flat spacetimes

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arxiv 1309.1478 v1 pith:232PLV27 submitted 2013-09-05 gr-qc cond-mat.stat-mechhep-th

Thermodynamics, entropy, and stability of thin shells in 2+1 flat spacetimes

classification gr-qc cond-mat.stat-mechhep-th
keywords entropyflatshelldimensionalmassthinanalyzedconstant
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The thermodynamic equilibrium states of a static thin ring shell in a (2+1)-dimensional flat spacetime is analyzed. Inside the ring the spacetime is flat, whereas outside it is conical flat. The first law of thermodynamics applied to the thin shell leads to a shell's entropy which is a function of its mass alone. Two simple forms for this mass function are given leading to two different expressions for the entropy. The equations of thermodynamic stability are analyzed resulting in certain allowed regions for the free parameters. Contrary to the usual (3+1)-dimensional case this shell's entropy is purely classic, as the only fundamental constant that enters into the problem is the (2+1)-dimensional gravitational constant $G_3$, which has units of inverse mass.

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Cited by 1 Pith paper

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    Stable static dark-fluid shells separating two Schwarzschild–de Sitter spacetimes exist only for m_+/m_->1 and arise at three scales, imprinting observable black-hole shadow deviations.