About the Lab
The Mazeliauskas Lab studies the complex, far-from-equilibrium dynamics of strongly interacting quantum systems—particularly the Quark-Gluon Plasma (QGP) created in ultra-relativistic heavy-ion collisions. By combining quantum field theory, relativistic hydrodynamics, and kinetic theory, the lab investigates how collective behavior emerges from microscopic interactions. Central themes include pre-equilibrium photon and dilepton production, minijet thermalization, hydrodynamic attractors, and nonthermal fixed points. The lab is also pioneering theoretical frameworks that bridge high-energy nuclear physics and cold atom experiments. Typical methods include large-scale numerical simulations (e.g., Langevin and 2PI dynamics), analytical modeling of QCD plasmas, and cross-disciplinary tools such as Bayesian inference and transseries analysis. Applications span from improving the interpretation of collider data (e.g., LHC and RHIC) to refining models of neutron stars and universal properties of quantum fluids. The group seeks curious and motivated students with a background in theoretical physics, computational modeling, or applied mathematics—especially those interested in the intersection of quantum theory, complex systems, and emergent phenomena.