The first principle lattice QCD methods allow to calculate the thermodynamic observables at
finite temperature and imaginary chemical potential. These can be compared to the …

A cluster expansion model (CEM), representing a relativistic extension of Mayer's cluster
expansion, is constructed to study baryon number fluctuations in QCD. The temperature …

In typical statistical mechanical systems the grand canonical partition function at finite
volume is proportional to a polynomial of the fugacity e μ/T. The zero of this Lee-Yang …

We study different estimators of the radius of convergence of the Taylor series of the
pressure in finite density QCD. We adopt the approach in which the radius of convergence is …

In this review, we present of an overview of several interesting properties of QCD at finite
imaginary chemical potential and those applications to exploring the QCD phase diagram …

Abstract We report Lee-Yang zeros behavior at finite temperature and density. The quark
number densities,< n>, are calculated at the pure imaginary chemical potential i μ q I, where …

In this paper we study the universal properties of the baryon chemical potential Fourier
coefficients in quantum chromodynamics. We show that by following a well-defined strategy …

We study the Roberge-Weiss phase transition numerically. The phase transition is
associated with the discontinuities in the quark-number density at specific values of …

We discuss the possibility to consider quark matter as the topological material. We consider
hadronic phase (HP), the quark–gluon plasma phase (QGP), and the hypothetical color …

Thermodynamic properties of systems with repulsive interactions are considered in the
grand-canonical ensemble. The analytic structure of the excluded-volume model in the …