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Original Article

Field Trials Using a Digital Hearing Aid with Active Noise Reduction and Dual-Microphone Directionality: Estudios de campo utilizando un audifono digital con reduccion activa del ruido y micrófono de direccionalidad dual

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Pages 260-268 | Received 21 Dec 1999, Accepted 03 Apr 2000, Published online: 07 Jul 2009

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Erik J. Jorgensen, Elizabeth Stangl, Octav Chipara, Helin Hernandez, Jacob Oleson & Yu-Hsiang Wu. (2021) GPS predicts stability of listening environment characteristics in one location over time among older hearing aid users. International Journal of Audiology 60:5, pages 328-340.
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Foong Yen Chong & Lorienne M. Jenstad. (2018) A critical review of hearing-aid single-microphone noise-reduction studies in adults and children. Disability and Rehabilitation: Assistive Technology 13:6, pages 600-608.
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José I. Alcántara, Brian C.J. Moore, Volker Kühnel & Stefan Launer. (2003) Evaluation of the noise reduction system in a commercial digital hearing aid: Evaluación del sistema de reducción de ruido en un auxiliar auditivo digital comercial. International Journal of Audiology 42:1, pages 34-42.
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Ruth BentlerLi-Kuei Chiou. (2016) Digital Noise Reduction: An Overview. Trends in Amplification 10:2, pages 67-82.
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Thomas A. Powers, Eric Branda, August Hernandez & Angela Pool. (2006) Study finds real-world benefit from digital noise reduction. The Hearing Journal 59:2, pages 26.
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H. Gustav Mueller & Todd A. Ricketts. (2005) Digital noise reduction. The Hearing Journal 58:1, pages 10-18.
Crossref
King Chung. (2016) Challenges and Recent Developments in Hearing Aids: Part I. Speech Understanding in Noise, Microphone Technologies and Noise Reduction Algorithms. Trends in Amplification 8:3, pages 83-124.
Crossref
Donald J. Schum. (2003) Noise-reduction circuitry in hearing aids. The Hearing Journal 56:6, pages 32.
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