Florian Lindenbauer

Postdoctoral Fellow at MIT, trying to understand the nonequilibrium Quark-Gluon plasma in heavy-ion collisions.
PhD | TU Wien

[Florian Lindenbauer @FLindenbauer]

studying this universal behavior may provide useful insights into the equilibration of the quark-gluon plasma. Many thanks to my collaborators Lucas Hörl and Kirill Boguslavski!

Check it out here: https://t.co/ORXYb9gRg3

[Florian Lindenbauer @FLindenbauer]

Excited to share that our paper ‘Jet energy loss in anisotropic plasmas meets limiting attractors’ is now published in Physical Review D: https://t.co/ORXYb9gRg3

This paper is set in the world of

[Florian Lindenbauer @FLindenbauer]

this phenomenon in a numerical computation of the gluon emission probability. Since this quantity enters the modeling of jet quenching simulations,

[Florian Lindenbauer @FLindenbauer]

hard-probe evolution in heavy-ion collisions, opening new avenues for understanding QCD matter under extreme conditions.

Thanks a lot to my collaborators João Barata, Kirill Boguslavski and Andrey V. Sadofyev!

Check out the paper at https://t.co/Y1TH2rHuDk

[Florian Lindenbauer @FLindenbauer]

Excited to share that our paper “Jet quenching in out-of-equilibrium QCD matter” is now published in Physical Review D.

When heavy ions collide at large energies, they create a rapidly evolving, out-of-equilibrium plasma of quarks and gluons, the quark-gluon plasma. Most

[Florian Lindenbauer @FLindenbauer]

using the Improved Opacity Expansion, taking into account the medium evolution during the emission process.

We find that the nonequilibrium early stages imprint a signature on the substructure within the jet. These results provide a foundation for more accurate descriptions of

[Florian Lindenbauer @FLindenbauer]

Many thanks to my collaborators Kirill Boguslavski, Aleksas Mazeliauskas, Adam Takacs and Fabian Zhou!

Check out the paper at https://t.co/bJ0QNJMJvr

[Florian Lindenbauer @FLindenbauer]

I'm thrilled to share that our paper "Minijet thermalization and jet transport coefficients in QCD kinetic theory" is now published open-access in the Journal of High Energy Physics (JHEP).

Heavy-ion collisions produce a hot, dense state of matter known as

[Florian Lindenbauer @FLindenbauer]

We find that the thermalization time scales remarkably well with these transport coefficients, enabling a phenomenological estimate of the minijet quenching time in heavy-ion collisions.

[Florian Lindenbauer @FLindenbauer]

Since this quantity enters the modeling of jet quenching simulations, studying this universal behavior may provide useful insights into the equilibration of the quark-gluon plasma.

Many thanks to my collaborators Lucas Hörl and Kirill Boguslavski!

[Florian Lindenbauer @FLindenbauer]

I’m excited to share our latest paper ‘Jet energy loss in anisotropic plasmas meets limiting attractors’, which you can check out here: https://t.co/hiPQNMvBvi

This paper is set in the world of heavy-ion collisions, where atomic nuclei are brought to collision at high energies,

[Florian Lindenbauer @FLindenbauer]

a universal curve. A similar phenomenon occurs for larger couplings with a different time scale. This phenomenon has been previously called ‘limiting attractors’, and here we see the first instance of this phenomenon in a numerical computation of the gluon emission probability.