This investigation aims to quantify how well a person is able to neurally entrain to a continuous narrative using a temporal response function (TRF), then evaluate if that TRF measure is correlated with an individual’s performance on a selective attention and narrative comprehension task.
Abstract
Speech perception ability in a cocktail party environment is highly variable, even for people with clinically healthy hearing. The mechanisms of these differences are poorly understood. A possible reason for these differences could be due to the neural mechanisms of auditory attention. This investigation aims to quantify how well a person is able to neurally entrain to a continuous narrative using a temporal response function (TRF), then evaluate if that TRF measure is correlated with an individual’s performance on a selective attention and narrative comprehension task. This was accomplished using a cohort of twenty-five young and healthy listeners who completed speech-in-noise (SIN) perception tasks while their neural activity was recorded with EEG. This EEG data and regressors (speech envelope and gammatone spectrogram) of an auditory stimulus was used to train TRF models. TRF cross validation correlation coefficients were then used in multiple regression models to predict a participant’s SIN performance. Task performance had a significant positive relationship with the neural entrainment to an attended stimulus and a negative relationship with the neural entrainment to an unattended stimulus. This was observed with both the selective attention and narrative comprehension measures. The difference of the attended and unattended correlation coefficients were also significantly related to increased task performance. These measures could be a potential biomarker to predict an individual’s speech perception in a noisy environment.
Auditory attention detection (AAD) identifies which of several competing talkers a listener is attending to, a key step toward neuro-steered hearing devices for real-world listening environments with multiple speakers. Most AAD work to date has examined non-tonal languages, leaving tonal languages underexplored even th...
Neural encoding of acoustic and linguistic features of continuous speech is sensitive to cognitive factors, such as attention and comprehension. We investigated whether neural tracking is also sensitive to the predictability of speech. Participants were repeatedly exposed to intelligible or unintelligible versions of t...
Alexandra K. Emmendorfer, L. Riecke, Hendrik Kröger et al.· bioRxiv· 0 citations
The present results demonstrate the feasibility of objective, parallel measurement across this hierarchy and point to impaired language processing as a possible mechanism to LiD.
L. Petley, T. Wicks, L. M. Miller et al.· medRxiv· 0 citations
Findings show that Cheech-modified speech preserves intelligibility while yielding robust, multilevel neural recordings during sentence perception, offering a promising approach to examine hierarchical auditory processing under ecologically relevant speech-in-noise conditions.
May Chao, C. Holloway, L. Miller et al.· bioRxiv· 0 citations
The auditory brainstem plays a crucial role in speech-in-noise (SiN) listening, refining numerous acoustic features such as pitch and spatial location under continual descending influence from the cortex. However, the difficulty of characterizing brainstem activity during continuous speech listening has obscured its fu...
Kelsey Mankel, Daniel C. Comstock, B. M. Bormann et al.· eNeuro· 1 citation
Purpose: Speech comprehension performance in noisy environments is a complex process that cannot be fully predicted by standard audiometric assessments. The aim of this study is to use machine learning (ML) algorithms to predict individuals’ difficulties in understanding speech in noise based on clinical data.Methods:...