This paper is devoted to the theoretical and the numerical studies of the radiation 4 of an acoustic source in a general homentropic flow. As a linearized model, we consider Goldstein's 5 Equations, which extend the usual potential model to vortical flows. The equivalence between 6 Linearized Euler's Equations with general source terms and Goldstein's Equations is established, 7 and the relations between unknowns, in each model, are analysed. A closed-form relation between 8 the hydrodynamic phenomena and the acoustics is derived. Finally, numerical results are presented 9 and the relevance of using Goldstein's Equations compared to the potential model is illustrated
An extremely interesting problem in aero-hydrodynamics is the sound radiation of a single vortical s...
AbstractThis work deals with the numerical simulation, by means of a finite element method, of the t...
Turbulent boundary layersgenerate broadband noise as the effect of vortical‐disturbances scattering ...
The effects of vortices on the propagation of acoustic waves are numerous, from simple convection ef...
This work deals with the numerical simulation, by means of a finite element method, of the time-harm...
The problem of modeling of acoustic wave propagation in inhomogeneous flow is considered. There is a...
The mathematical description of acoustic wave propagation within a time- and space-varying, and movi...
The propagation of small perturbations in complex geometries can involve hydrodynamic-acoustic inter...
An axisymmetric finite element model is presented for the prediction of radiation patterns generated...
In this paper we discuss the potential structure of the evolution equations, in particular Navier-St...
A linear mechanism for the emergence of acoustic waves from aperiodic vorticity disturbances is pres...
Some numerical solutions of acoustic propagation problems using linearized Euler equations are studi...
We study the propagation of an acoustic wave in a moving fluid in the high frequency regime. We calc...
We derive a closed system of equations that relates the acoustically radiating flow variables to the...
Five eigenvectors of the linear thermoviscous flow over the homogeneous background derived for the q...
An extremely interesting problem in aero-hydrodynamics is the sound radiation of a single vortical s...
AbstractThis work deals with the numerical simulation, by means of a finite element method, of the t...
Turbulent boundary layersgenerate broadband noise as the effect of vortical‐disturbances scattering ...
The effects of vortices on the propagation of acoustic waves are numerous, from simple convection ef...
This work deals with the numerical simulation, by means of a finite element method, of the time-harm...
The problem of modeling of acoustic wave propagation in inhomogeneous flow is considered. There is a...
The mathematical description of acoustic wave propagation within a time- and space-varying, and movi...
The propagation of small perturbations in complex geometries can involve hydrodynamic-acoustic inter...
An axisymmetric finite element model is presented for the prediction of radiation patterns generated...
In this paper we discuss the potential structure of the evolution equations, in particular Navier-St...
A linear mechanism for the emergence of acoustic waves from aperiodic vorticity disturbances is pres...
Some numerical solutions of acoustic propagation problems using linearized Euler equations are studi...
We study the propagation of an acoustic wave in a moving fluid in the high frequency regime. We calc...
We derive a closed system of equations that relates the acoustically radiating flow variables to the...
Five eigenvectors of the linear thermoviscous flow over the homogeneous background derived for the q...
An extremely interesting problem in aero-hydrodynamics is the sound radiation of a single vortical s...
AbstractThis work deals with the numerical simulation, by means of a finite element method, of the t...
Turbulent boundary layersgenerate broadband noise as the effect of vortical‐disturbances scattering ...