Aperture extension for near-field acoustical holography of jet noise

It is generally true that larger measurement apertures (relative to the source size) produce more accurate reconstructions of sound fields in near-field acoustical holography (NAH) applications. When such apertures are infeasible, numerical extrapolation of the sound field can be implemented to reco...

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Hauptverfasser: Wall, Alan T., Gee, Kent L., Krueger, David W., Neilsen, Tracianne B., Sommerfeldt, Scott D., James, Michael M.
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Gee, Kent L.
Krueger, David W.
Neilsen, Tracianne B.
Sommerfeldt, Scott D.
James, Michael M.
description It is generally true that larger measurement apertures (relative to the source size) produce more accurate reconstructions of sound fields in near-field acoustical holography (NAH) applications. When such apertures are infeasible, numerical extrapolation of the sound field can be implemented to recover data, allowing a successful NAH reconstruction. When the limited aperture is due to a large standoff distance from the source, accurate recovery of data outside the measurement region becomes increasingly critical. In the present paper three data extrapolation methods are implemented on a simulated sound field from two extended, coherent sources. The methods are compared based on their relative accuracy of extrapolated data with distance from the measurement aperture.
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title Aperture extension for near-field acoustical holography of jet noise
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