Consistent formulations of relativistic viscous hydrodynamics involve short-lived modes, leading to asymptotic rather than convergent gradient expansions. In this Letter we consider the Muller-Israel-Stewart theory applied to a longitudinally expanding quark-gluon plasma system and identify hydrodynamics as a universal attractor without invoking the gradient expansion. We give strong evidence for the existence of this attractor and then show that it can be recovered from the divergent gradient expansion by Borel summation. This requires careful accounting for the short-lived modes which leads to an intricate mathematical structure known from the theory of resurgence
There is growing evidence that the hydrodynamic gradient expansion is factorially divergent. We advo...
Numerical simulations of expanding plasma based on the AdS/CFT correspondence as well as kinetic the...
Relativistic hydrodynamics simulations of quark-gluon plasma play a pivotal role in our understandin...
We explore the transition to hydrodynamics in a weakly coupled model of quark-gluon plasma given by ...
We explore the transition to hydrodynamics in a weakly-coupled model of quark-gluon plasma given by ...
We explore the transition to hydrodynamics in a weakly coupled model of quark-gluon plasma given by ...
We explore the transition to hydrodynamics in a weakly coupled model of quark-gluon plasma given by ...
It has recently been understood that the hydrodynamic series generated by the M\"uller-Israel-Stewar...
We explore the transition to hydrodynamics in a weakly-coupled model of quark-gluon plasma given by ...
A foundational question in relativistic fluid mechanics concerns the properties of the hydrodynamic ...
There is growing evidence that the hydrodynamic gradient expansion is factorially divergent. We advo...
A foundational question in relativistic fluid mechanics concerns the properties of the hydrodynamic ...
The gradient expansion is the fundamental organizing principle underlying relativistic hydrodynamics...
Relativistic hydrodynamics simulations of quark-gluon plasma play a pivotal role in our understandin...
We investigate the phenomenology of freely expanding fluids, with different material properties, evo...
There is growing evidence that the hydrodynamic gradient expansion is factorially divergent. We advo...
Numerical simulations of expanding plasma based on the AdS/CFT correspondence as well as kinetic the...
Relativistic hydrodynamics simulations of quark-gluon plasma play a pivotal role in our understandin...
We explore the transition to hydrodynamics in a weakly coupled model of quark-gluon plasma given by ...
We explore the transition to hydrodynamics in a weakly-coupled model of quark-gluon plasma given by ...
We explore the transition to hydrodynamics in a weakly coupled model of quark-gluon plasma given by ...
We explore the transition to hydrodynamics in a weakly coupled model of quark-gluon plasma given by ...
It has recently been understood that the hydrodynamic series generated by the M\"uller-Israel-Stewar...
We explore the transition to hydrodynamics in a weakly-coupled model of quark-gluon plasma given by ...
A foundational question in relativistic fluid mechanics concerns the properties of the hydrodynamic ...
There is growing evidence that the hydrodynamic gradient expansion is factorially divergent. We advo...
A foundational question in relativistic fluid mechanics concerns the properties of the hydrodynamic ...
The gradient expansion is the fundamental organizing principle underlying relativistic hydrodynamics...
Relativistic hydrodynamics simulations of quark-gluon plasma play a pivotal role in our understandin...
We investigate the phenomenology of freely expanding fluids, with different material properties, evo...
There is growing evidence that the hydrodynamic gradient expansion is factorially divergent. We advo...
Numerical simulations of expanding plasma based on the AdS/CFT correspondence as well as kinetic the...
Relativistic hydrodynamics simulations of quark-gluon plasma play a pivotal role in our understandin...