Quantum revolution for hadrons: lessons from low-dimensions

ORAL  · Invited

Abstract

The universe we live in came to be through a succession of very violent, very out-of-equilibrium processes, starting from the big bang. The way we experimentally probe our theories—by accelerating particles and nuclei to very high energies to smash them together—is no less violent. Yet, robust first-principles computations of such real-time, non-equilibrium processes remain elusive. In this talk, I will review the perspectives brought by quantum computations to tackling these problems. I will also discuss how insights from quantum information theory—such as entanglement structure and computational complexity—can help us rethink fundamental aspects of our theories.

Publication: Entanglement asymmetry in gauge theories: chiral anomaly in the finite temperature massless Schwinger model
Adrien Florio (Bielefeld U.), Sara Murciano (Orsay, LPTMS)
e-Print: 2511.01966 [hep-th]

To break, or not to break: Symmetries in adaptive quantum simulations, a case study on the Schwinger model
Karunya Shailesh Shirali (Virginia Tech.), Kyle Sherbert, Yanzhu Chen, Adrien Florio, Andreas Weichselbaum (Brookhaven) et al.
e-Print: 2510.03083 [quant-ph]

Thermalization from quantum entanglement: jet simulations in the massive Schwinger model
Adrien Florio (Bielefeld U. and Brookhaven), David Frenklakh (Brookhaven), Sebastian Grieninger (Stony Brook U.), Dmitri E. Kharzeev (Stony Brook U. and Brookhaven), Andrea Palermo (Stony Brook U.) et al.
e-Print: 2506.14983 [hep-ph]

Two-fermion negativity and confinement in the Schwinger model
Adrien Florio (Brookhaven)
e-Print: 2312.05298 [hep-th]
DOI: 10.1103/PhysRevD.109.L071501 (publication)
Published in: Phys.Rev.D 109 (2024) 7, L071501

Presenters

  • Adrien Florio

    • Bielefeld

Authors

  • Adrien Florio

    • Bielefeld