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Net-baryon number variance and kurtosis within nonequilibrium chiral fluid dynamics

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arxiv 1407.8277 v2 pith:JCDOQLLD submitted 2014-07-31 hep-ph nucl-th

classification hep-phnucl-th
keywords numberchiralkurtosismodelcriticalfirst-orderfluctuationsfluid
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We study the variance and kurtosis of the net-baryon number in a fluid dynamical model for heavy-ion collisions. It is based on an effective chiral model with dilatons for the strong coupling regime of QCD. Taking into account spinodal instabilities, we demonstrate that this model exhibits a diverging quark number susceptibility and kurtosis all along the spinodal lines of the first-order phase transition, with a change of universality class at the critical end point. During the (3+1) dimensional expansion of a hot and dense fireball, instabilities are created by fluctuations in the explicitly propagated chiral and dilaton field. We find a clear enhancement of event-by-event fluctuations of the baryon number at the critical point and first-order phase transition in comparison with an evolution through the crossover region.

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