Exploring the use of time-sensitive sound quality metrics and related quantities for detecting crackle
Author(s) -
S. Hales Swift,
Kent L. Gee,
Tracianne B. Neilsen,
J. Micah Downing,
Michael M. James
Publication year - 2017
Publication title -
proceedings of meetings on acoustics
Language(s) - English
Resource type - Conference proceedings
ISSN - 1939-800X
DOI - 10.1121/2.0000544
Subject(s) - sound quality , metric (unit) , computer science , acoustics , loudness , speech recognition , noise (video) , time domain , time–frequency analysis , quality (philosophy) , bioacoustics , pattern recognition (psychology) , set (abstract data type) , signal (programming language) , artificial intelligence , engineering , computer vision , physics , filter (signal processing) , operations management , quantum mechanics , image (mathematics) , programming language
Crackling signals cannot be identified using any sound level or quality metric that relies solely on the long-term spectrum as input. In order to identify sound quality metrics that might succeed in modeling human perception of crackling and non-crackling sounds a set of metrics sensitive to temporal properties of signals is applied to a set of signals with equivalent spectra but exhibiting varying degrees of crackle. Several methods for altering signals including some that remove crackling sound quality from an acoustic signal were drawn from previous work [Swift, Gee, Neilsen, 2014, Swift, Gee, Neilsen, 2017]. In this paper, an additional alteration which can partially remove crackle—randomizing the Fourier phase of a crackling signal in the frequency domain in selected frequency ranges—is considered. Variables from time-varying sound quality metrics such as loudness and sharpness, as well as roughness to signals exhibiting varying degrees of crackle are explored and relationships between them that can ...
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