A brain-inspired algorithm improves “cocktail party” listening for individuals with hearing loss

Selective listening in competing-talker situations is an extraordinarily difficult task for many people. For individuals with hearing loss, this difficulty can be so extreme that it seriously impedes communication and participation in daily life. Directional filtering is one of few proven methods to improve speech understanding in competition, and most hearing devices now incorporate some kind of directional technology, although real-world benefits are modest, and many approaches fail in competing-talker situations. We recently developed a biologically inspired algorithm that is capable of very narrow spatial tuning and can isolate one talker from a mixture of talkers. The algorithm is based on a hierarchical network model of the auditory system, in which binaural sound inputs drive populations of neurons tuned to specific spatial locations and frequencies, and the spiking responses of neurons in the output layer are reconstructed into audible waveforms. Here we evaluated the algorithm in a group of adults with sensorineural hearing loss, using a challenging competing-talker task. The biologically inspired algorithm led to robust intelligibility gains under conditions in which a standard beamforming approach failed. The results provide compelling support for the potential benefits of biologically inspired algorithms for assisting individuals with hearing loss in "cocktail party" situations.

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Publication Details

Journal
Communications Engineering
Published
2025-04-22
DOI
https://doi.org/10.1038/s44172-025-00414-5
Citations
1
Primary Topic
Hearing Loss and Rehabilitation
Type
article
Field-Weighted Citation Impact
1.43

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article

A brain-inspired algorithm improves “cocktail party” listening for individuals with hearing loss

Alexander D. Boyd, Virginia Best, Kamal Sen
1 citations
Communications Engineering
Hearing Loss and Rehabilitation
1.43
article

A brain-inspired algorithm improves “cocktail party” listening for individuals with hearing loss

Alexander D. Boyd, Virginia Best, Kamal Sen
article en
1 citations

Abstract

Selective listening in competing-talker situations is an extraordinarily difficult task for many people. For individuals with hearing loss, this difficulty can be so extreme that it seriously impedes communication and participation in daily life. Directional filtering is one of few proven methods to improve speech understanding in competition, and most hearing devices now incorporate some kind of directional technology, although real-world benefits are modest, and many approaches fail in competing-talker situations. We recently developed a biologically inspired algorithm that is capable of very narrow spatial tuning and can isolate one talker from a mixture of talkers. The algorithm is based on a hierarchical network model of the auditory system, in which binaural sound inputs drive populations of neurons tuned to specific spatial locations and frequencies, and the spiking responses of neurons in the output layer are reconstructed into audible waveforms. Here we evaluated the algorithm in a group of adults with sensorineural hearing loss, using a challenging competing-talker task. The biologically inspired algorithm led to robust intelligibility gains under conditions in which a standard beamforming approach failed. The results provide compelling support for the potential benefits of biologically inspired algorithms for assisting individuals with hearing loss in "cocktail party" situations.

Communications EngineeringVol. 4(1)
Boston University (US)
National Science Foundation, Foundation for the National Institutes of Health, National Institutes of Health
Openalex Percentile: Top 20%
Hearing Loss and Rehabilitation
1.43
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