AutoAudio: Deep Learning for Automatic Audiogram Interpretation.

Published online

Journal Article

Hearing loss is the leading human sensory system loss, and one of the leading causes for years lived with disability with significant effects on quality of life, social isolation, and overall health. Coupled with a forecast of increased hearing loss burden worldwide, national and international health organizations have urgently recommended that access to hearing evaluation be expanded to meet demand. The objective of this study was to develop 'AutoAudio' - a novel deep learning proof-of-concept model that accurately and quickly interprets diagnostic audiograms. Adult audiogram reports representing normal, conductive, mixed and sensorineural morphologies were used to train different neural network architectures. Image augmentation techniques were used to increase the training image set size. Classification accuracy on a separate test set was used to assess model performance. The architecture with the highest out-of-training set accuracy was ResNet-101 at 97.5%. Neural network training time varied between 2 to 7 h depending on the depth of the neural network architecture. Each neural network architecture produced misclassifications that arose from failures of the model to correctly label the audiogram with the appropriate hearing loss type. The most commonly misclassified hearing loss type were mixed losses. Re-engineering the process of hearing testing with a machine learning innovation may help enhance access to the growing worldwide population that is expected to require audiologist services. Our results suggest that deep learning may be a transformative technology that enables automatic and accurate audiogram interpretation.

Full Text

Duke Authors

Cited Authors

  • Crowson, MG; Lee, JW; Hamour, A; Mahmood, R; Babier, A; Lin, V; Tucci, DL; Chan, TCY

Published Date

  • August 7, 2020

Published In

Volume / Issue

  • 44 / 9

Start / End Page

  • 163 -

PubMed ID

  • 32770269

Pubmed Central ID

  • 32770269

Electronic International Standard Serial Number (EISSN)

  • 1573-689X

Digital Object Identifier (DOI)

  • 10.1007/s10916-020-01627-1

Language

  • eng

Conference Location

  • United States