AbstractIn this work, the NASA Glenn Research Center Broadband Aeroacoustic Stator Simulation (BASS) code is extended for use in the prediction of noise produced by realistic three dimensional rotor wakes impinging on a downstream stator row. In order to accurately simulate such a flow using a nonlinear time-accurate solver, the inflow and outflow boundary conditions must simultaneously maintain the desired mean flow, allow outgoing vortical, entropic, and acoustic waves to cleanly exit the domain, and accurately impose the desired incoming flow disturbances. This work validates a new method for the acoustics-free imposition of three-dimensional vortical disturbances using a benchmark test case
This work illustrates the use of artificial neural network modeling to study and characterize broadb...
The acoustic interaction of fan-rotor wakes with the downstream stator vanes is considered as an imp...
From this paper, there will be three studies that have been conducted. There are (1) Fan interaction...
AbstractIn this work, the NASA Glenn Research Center Broadband Aeroacoustic Stator Simulation (BASS)...
In this work, the NASA Glenn Research Center Broadband Aeroacoustic Stator Simulation (BASS) code is...
Progress towards the computational prediction of the turbulent flow and broadband noise generated du...
The focus of this paper is on the prediction of the discrete-frequency noise generated by the intera...
The BASS computational aeroacoustic code solves the fully nonlinear Euler equations in the time doma...
The BASS computational aeroacoustic code solves the fully nonlinear Euler equations in the time doma...
In this paper, numerical predictions of acoustic transmission through a 3D stator obtained using the...
In this paper a semi analytic model for rotor - stator broadband noise is presented. The work can be...
Noise generation due to the rotor wakes impinging the stator vanes is a dominant turbofan source at ...
As turbofan engine designs move towards bypass ratios \u3e12 and corresponding low pressure ratios, ...
The discrete-frequency noise generated by a rotor-stator interaction is computed by solving the full...
The current status of a Computational Aeroacoustics (CAA) approach to simulate broadband noise is ...
This work illustrates the use of artificial neural network modeling to study and characterize broadb...
The acoustic interaction of fan-rotor wakes with the downstream stator vanes is considered as an imp...
From this paper, there will be three studies that have been conducted. There are (1) Fan interaction...
AbstractIn this work, the NASA Glenn Research Center Broadband Aeroacoustic Stator Simulation (BASS)...
In this work, the NASA Glenn Research Center Broadband Aeroacoustic Stator Simulation (BASS) code is...
Progress towards the computational prediction of the turbulent flow and broadband noise generated du...
The focus of this paper is on the prediction of the discrete-frequency noise generated by the intera...
The BASS computational aeroacoustic code solves the fully nonlinear Euler equations in the time doma...
The BASS computational aeroacoustic code solves the fully nonlinear Euler equations in the time doma...
In this paper, numerical predictions of acoustic transmission through a 3D stator obtained using the...
In this paper a semi analytic model for rotor - stator broadband noise is presented. The work can be...
Noise generation due to the rotor wakes impinging the stator vanes is a dominant turbofan source at ...
As turbofan engine designs move towards bypass ratios \u3e12 and corresponding low pressure ratios, ...
The discrete-frequency noise generated by a rotor-stator interaction is computed by solving the full...
The current status of a Computational Aeroacoustics (CAA) approach to simulate broadband noise is ...
This work illustrates the use of artificial neural network modeling to study and characterize broadb...
The acoustic interaction of fan-rotor wakes with the downstream stator vanes is considered as an imp...
From this paper, there will be three studies that have been conducted. There are (1) Fan interaction...