David Vasak
Frankfurt Institute for Advanced Studies
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Publication
Featured researches published by David Vasak.
Journal of Physics G | 2016
Horst Stoecker; Kai Zhou; Stefan Schramm; Florian Senzel; Carsten Greiner; Maxim Beitel; Kai Gallmeister; Mark I. Gorenstein; Igor Mishustin; David Vasak; Jan Steinheimer; Juergen Struckmeier; V. Vovchenko; L. M. Satarov; Zhe Xu; Pengfei Zhuang; L. P. Csernai; Bikash Sinha; Sibaji Raha; T.S. Biró; Marco Panero
The early stage of high multiplicity pp, pA and AA collider is represented by a nearly quarkless, hot, deconfined pure gluon plasma. According to pure Yang-Mills Lattice Gauge Theory, this hot pure glue matter undergoes, at a high temperature,
European Physical Journal A | 2018
Xin-li Sheng; Dirk H. Rischke; David Vasak; Qun Wang
T_c = 270
International Journal of Modern Physics E-nuclear Physics | 2016
Adrian Koenigstein; Johannes Kirsch; Horst Stoecker; Juergen Struckmeier; David Vasak; Matthias Hanauske
MeV, a first order phase transition into a confined Hagedorn-GlueBall fluid. These new scenario should be characterized by a suppression of high
arXiv: Mathematical Physics | 2017
Jürgen Struckmeier; Horst Stöcker; David Vasak
p_T
arXiv: High Energy Physics - Phenomenology | 2017
Xin-li Sheng; Dirk H. Rischke; David Vasak; Qun Wang
photons and dileptons, baryon suppression and enhanced strange meson production. We propose to observe this newly predicted class of events at LHC and RHIC.
arXiv: General Relativity and Quantum Cosmology | 2018
David Benisty; David Vasak; E. I. Guendelman; Jürgen Struckmeier
Abstract.We compute the covariant Wigner function for spin-(1/2) fermions in an arbitrarily strong magnetic field by exactly solving the Dirac equation at non-zero fermion-number and chiral-charge densities. The Landau energy levels as well as a set of orthonormal eigenfunctions are found as solutions of the Dirac equation. With these orthonormal eigenfunctions we construct the fermion field operators and the corresponding Wigner-function operator. The Wigner function is obtained by taking the ensemble average of the Wigner-function operator in global thermodynamical equilibrium, i.e., at constant temperature T and non-zero fermion-number and chiral-charge chemical potentials
arXiv: General Relativity and Quantum Cosmology | 2018
David Benisty; E. I. Guendelman; David Vasak; Jürgen Struckmeier; Horst Stoecker
\mu
arXiv: General Relativity and Quantum Cosmology | 2018
David Vasak; Jürgen Struckmeier; J. Kirsch; Horst Stoecker
μ and
arXiv: General Relativity and Quantum Cosmology | 2017
Jürgen Struckmeier; L. Satarov; Horst Stoecker; Matthias Hanauske; J. Muench; P. Liebrich; David Vasak; J. Kirsch
\mu_5
arXiv: General Relativity and Quantum Cosmology | 2017
Jürgen Struckmeier; J. Muench; P. Liebrich; Matthias Hanauske; J. Kirsch; David Vasak; Horst Stoecker
μ5, respectively. Extracting the vector and axial-vector components of the Wigner function, we reproduce the currents of the chiral magnetic and separation effect in an arbitrarily strong magnetic field.