I have a joint postdoctoral research position at Prof. Dr. Jürgen Berges and Dr. Stefan Flörchinger groups at the Institute for Theoretical Physics under the collaborative research project SFB 1225 ISOQUANT.
Previously I was a PhD student at Nuclear Theory group at Stony Brook University.
Dr. Aleksas Mazeliauskas
Postdoctoral Researcher
Institut für Theoretische Physik
Universität Heidelberg
Philosophenweg 12 / 110
69120 Heidelberg
e-mail: a.mazeliauskas at thphys.uni-heidelberg.de
office phone: +49-6221-54 9346
website: aleksas.eu
I am interested in high multiplicity particle collisions at LHC and RHIC, because they can create Quark Gluon Plasma — a new form of matter, where protons and neutrons melt into quarks and gluons. Astonishingly, these tiny droplets of matter interact so strongly, that they can be effectively described as a fluid — the perfect fluid. Understanding the properties of QCD matter at extreme conditions is the aim of my research. Click on figures below to find out more!
We use the hydro-kinetic equations developed previously to calculate the noise induced bulk visocity in non-conformal relativistic hydrodynamics.
NoiseWe develop a set of kinetic equations for hydrodynamic fluctuations which are equivalent to nonlinear hydrodynamics with noise. We use the hydro-kinetic equations to analyse thermal fluctuations for a Bjorken expansion, evaluating the contribution of thermal noise from the earliest moments and at late times.
NoiseWe use effective kinetic theory accurate in weak coupling to model system equilibration and smooth transition to hydrodynamics. We include two to two elastic gluon scatterings and one to two medium induced collinear splittings with LPM suppression. We obtain Green functions for equilibration of small energy and momentum perturbations around far-from-equilibrium background.
Initial stagesPCA is a statistical technique allowing to decompose multidimensional data into most significant components. We show that the subleading elliptic flow in peripheral collisions is dominated by the nonlinear mixing between the leading elliptic flow and radial flow fluctuations.
Collective dynamicsPCA is a statistical technique allowing to decompose multidimensional data into most significant components. We show that just two such components are sufficient to describe full two particle correlation matrix and relate the subleading component to radial excitation of initial geometry as shown above.
Collective dynamicsFor up to date publication list see inSpire
Department of Physics and Astronomy
Physics PhD• 2012 - 2017
Advisor Derek Teaney
Max Dresden Prize for outstanding theoretical thesis
St Catharine's College
Master of Mathematics with distinction • 2011 - 2012
BA (Hons) Mathematics, 1st class• 2008 - 2011
Head tutor • Wintersemesters 2017/18, 2018/19
Quantum Field Theory I
Seminar course • Summersemester 2018
Recitation instructor• Spring/Fall Semester 2014
Undergraduate electromagnetism and mechanics
Teaching assistant• Fall/Spring Semester 2012/13
Undergraduate mechanics laboratory
David Fox Prize for Outstanding Teaching Assistant