We present a new family of exact solutions of dissipative fireball hydrodynamics for arbitrary bulk and shear viscosities. The main property of these solutions is a spherically symmetric, Hubble flow field. The motivation of this paper is mostly academic: we apply non-relativistic kinematics for simplicity and clarity. In this limiting case, the theory is particularly clear: the non-relativistic Navier-Stokes equations describe the dissipation in a well-understood manner. From the asymptotic analysis of our new exact solutions of dissipative fireball hydrodynamics, we could draw a surprising conclusion: this new class of exact solutions of non-relativistic dissipative hydrodynamics is asymptotically perfect.Comment: 15 pages, 4 figures, pub...
In this paper, we describe classical problems of the relativistic hydrodynamics with dissipations an...
We present new, exact, finite solutions of relativistic hydrodynamics for longitudinally expanding f...
We argue that different formulations of hydrodynamics are related to uncertainties in the definition...
We present a new family of exact solutions of dissipative fireball hydrodynamics for arbitrary bulk ...
We present a new family of exact solutions of dissipative fireball hydrodynamics for arbitrary bulk ...
We present some exact solutions to the ideal hydrodynamics of a relativistic superfluid with an almo...
The equations governing dissipative relativistic hydrodynamics are formulated within the 3+1 approac...
New exact solutions of relativistic perfect-fluid hydrodynamics are presented, including the first f...
A new family of simple, analytic solutions of self-similarly expanding fireballs is found for system...
New solutions are found for the non-relativistic hydrodynamical equations. These solutions describe ...
Abstract: While conventional hydrodynamics incorporating dissipative effects is hard to derive from ...
We consider the relativistic hydrodynamics of non-perfect fluids with the goal of determining a form...
We show how causal relativistic Navier-Stokes equations arise from the relativistic Boltzmann equati...
Relativistic non-ideal fluid dynamics is formulated in 3+1 space--time dimensions. The equations gov...
We construct the theory of dissipative hydrodynamics of uncharged fluids living on embedded space-ti...
In this paper, we describe classical problems of the relativistic hydrodynamics with dissipations an...
We present new, exact, finite solutions of relativistic hydrodynamics for longitudinally expanding f...
We argue that different formulations of hydrodynamics are related to uncertainties in the definition...
We present a new family of exact solutions of dissipative fireball hydrodynamics for arbitrary bulk ...
We present a new family of exact solutions of dissipative fireball hydrodynamics for arbitrary bulk ...
We present some exact solutions to the ideal hydrodynamics of a relativistic superfluid with an almo...
The equations governing dissipative relativistic hydrodynamics are formulated within the 3+1 approac...
New exact solutions of relativistic perfect-fluid hydrodynamics are presented, including the first f...
A new family of simple, analytic solutions of self-similarly expanding fireballs is found for system...
New solutions are found for the non-relativistic hydrodynamical equations. These solutions describe ...
Abstract: While conventional hydrodynamics incorporating dissipative effects is hard to derive from ...
We consider the relativistic hydrodynamics of non-perfect fluids with the goal of determining a form...
We show how causal relativistic Navier-Stokes equations arise from the relativistic Boltzmann equati...
Relativistic non-ideal fluid dynamics is formulated in 3+1 space--time dimensions. The equations gov...
We construct the theory of dissipative hydrodynamics of uncharged fluids living on embedded space-ti...
In this paper, we describe classical problems of the relativistic hydrodynamics with dissipations an...
We present new, exact, finite solutions of relativistic hydrodynamics for longitudinally expanding f...
We argue that different formulations of hydrodynamics are related to uncertainties in the definition...