QCD at High Energies
We have entered the fascinating era of the Large Hadron Collider.The microscopic theory describing the structure of protons and nuclei is the theory of strong interactions, known as Quantum ChromoDynamics (QCD). Even though the fundamental theory is known, it is extremely difficult to deduce results of collision processes from first principle QCD calculations. This is due to complexity of the theory involving mutual interactions between gluons, the "photons" of strong interactions

Fluid-Gravity Correspondence
Quark Ggluon Plasma (QGP) is created in Heavy Ion Collisions at the Relativistic Heavy Ion Collider (RHIC) and LHC. A striking discovery of RHIC is that QGP produced there is strongly coupled and behaves like a nearly perfect fluid with relativistic hydrodynamics being an appropriate description of the observed phenomena.Remarkably, hydrodynamical properties of QGP could be studied using gravitational theory of Black Holes in curved five-dimensional spaces. The fluid/gravity correspondence relates graviton`s absorption by a Black Hole to dissipation taking place in the QGP.
 
  

Research workshop at BGU (2015) -
Heavy Ion Collisions at LHC
 
Research workshop at BGU (2022) -
Physics of Saturation: precision and quasi-collectivity

Physics 2 for Physics Majors
Graduate Quantum Mechanics (3)
Quantum Field Theory
Gravitation 1

Electrodynamics

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