Nature's extreme and smallest liquid -- Quark Gluon Plasma
Relativistic heavy ion collisions have reproduced tiny droplets of more than two trillion degrees of hot liquid that filled the whole universe a few microseconds after the Big Bang -- called Quark Gluon Plasma (QGP).
The initial conditions of QGP are akin to inhomogeneities in the early universe that led to the formation of large-scale structures. The complex liquid expands, then cools and finally produces neutrons and protons and all the matter around us. In this talk, I will discuss on the novel properties of the quark-gluon plasma that we have learned from rigorous experimental and theoretical studies. I will emphasize on theoretical developments on collective flow of QGP and tomography of quark-gluon jets, and possible future directions on framing the nuclear matter phase diagram.
The initial conditions of QGP are akin to inhomogeneities in the early universe that led to the formation of large-scale structures. The complex liquid expands, then cools and finally produces neutrons and protons and all the matter around us. In this talk, I will discuss on the novel properties of the quark-gluon plasma that we have learned from rigorous experimental and theoretical studies. I will emphasize on theoretical developments on collective flow of QGP and tomography of quark-gluon jets, and possible future directions on framing the nuclear matter phase diagram.
All are cordially invited.
Share this: