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Original Article

Using transposition to improve consonant discrimination and detection for listeners with severe high-frequency hearing loss

La utilización de la transposición para mejorar la discriminación consonántica y la detección en oyentes con hipoacusia severa para frecuencias agudas

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Pages 293-308 | Received 03 Oct 2006, Published online: 07 Jul 2009

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Read on this site (14)

Marc A. Brennan, Jenna M. Browning, Meredith Spratford, Benjamin J. Kirby & Ryan W. McCreery. (2021) Influence of aided audibility on speech recognition performance with frequency composition for children and adults. International Journal of Audiology 60:11, pages 849-857.
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Andrea Simpson, Alicia Bond, Michelle Loeliger & Sandy Clarke. (2018) Speech intelligibility benefits of frequency-lowering algorithms in adult hearing aid users: a systematic review and meta-analysis. International Journal of Audiology 57:4, pages 249-261.
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Marina Salorio-Corbetto, Thomas Baer & Brian C. J. Moore. (2017) Quality ratings of frequency-compressed speech by participants with extensive high-frequency dead regions in the cochlea. International Journal of Audiology 56:2, pages 106-120.
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Christi W. Miller, Emily Bates & Marc Brennan. (2016) The effects of frequency lowering on speech perception in noise with adult hearing-aid users. International Journal of Audiology 55:5, pages 305-312.
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Karolina K. Charaziak, Pamela E. Souza & Jonathan H. Siegel. (2015) Exploration of stimulus-frequency otoacoustic emission suppression tuning in hearing-impaired listeners. International Journal of Audiology 54:2, pages 96-105.
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Ann-Marie Dickinson, Richard Baker, Catherine Siciliano & Kevin J. Munro. (2014) Adaptation to nonlinear frequency compression in normal-hearing adults: A comparison of training approaches. International Journal of Audiology 53:10, pages 719-729.
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Kathryn Hopkins, Mumtaz Khanom, Ann-Marie Dickinson & Kevin J. Munro. (2014) Benefit from non-linear frequency compression hearing aids in a clinical setting: The effects of duration of experience and severity of high-frequency hearing loss. International Journal of Audiology 53:4, pages 219-228.
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Rachel J. Ellis & Kevin J. Munro. (2013) Does cognitive function predict frequency compressed speech recognition in listeners with normal hearing and normal cognition?. International Journal of Audiology 52:1, pages 14-22.
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Karolina K. Charaziak, Pamela Souza & Jonathan H. Siegel. (2012) Time-efficient measures of auditory frequency selectivity. International Journal of Audiology 51:4, pages 317-325.
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Christian Füllgrabe, Thomas Baer, Michael A. Stone & Brian C. J. Moore. (2010) Preliminary evaluation of a method for fitting hearing aids with extended bandwidth. International Journal of Audiology 49:10, pages 741-753.
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Christian Füllgrabe, Thomas Baer & Brian C.J. Moore. (2010) Effect of linear and warped spectral transposition on consonant identification by normal-hearing listeners with a simulated dead region. International Journal of Audiology 49:6, pages 420-433.
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Danielle Glista, Susan Scollie, Marlene Bagatto, Richard Seewald, Vijay Parsa & Andrew Johnson. (2009) Evaluation of nonlinear frequency compression: Clinical outcomes. International Journal of Audiology 48:9, pages 632-644.
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Joanna D. Robinson, Thomas H. Stainsby, Thomas Baer & Brian C.J. Moore. (2009) Evaluation of a frequency transposition algorithm using wearable hearing aids. International Journal of Audiology 48:6, pages 384-393.
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Deborah Vickers, Joanna D. Robinson, Christian Füllgrabe, Thomas Baer & Brian C.J. Moore. (2009) Relative importance of different spectral bands to consonant identification: Relevance for frequency transposition in hearing aids. International Journal of Audiology 48:6, pages 334-345.
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M. I. Porhun & M. I. Vashkevich. (2020) HEARING CORRECTION METHOD BASED ON PSYCHOACOUSTICALLY MOTIVATED FREQUENCY TRANSPOSITION IN A SPEECH SIGNAL. Doklady BGUIR:1, pages 43-51.
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Masayo Kamei, Hiroaki Sato, Kiyoshi Yonemoto & Youko Odashima. (2019) Study of frequency-lowering functions in hearing aids.補聴器の周波数変換処理機能の検討. AUDIOLOGY JAPAN 62:4, pages 307-314.
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Joshua M. Alexander. (2019) The S-SH Confusion Test and the Effects of Frequency Lowering. Journal of Speech, Language, and Hearing Research 62:5, pages 1486-1505.
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Baljeet Rana & Jörg M. Buchholz. (2018) Effect of improving audibility on better-ear glimpsing using non-linear amplification. The Journal of the Acoustical Society of America 144:6, pages 3465-3474.
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Baljeet Rana & Jörg M. Buchholz. (2018) Effect of audibility on better-ear glimpsing as a function of frequency in normal-hearing and hearing-impaired listeners. The Journal of the Acoustical Society of America 143:4, pages 2195-2206.
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Brent Edwards. (2016) A Model of Auditory-Cognitive Processing and Relevance to Clinical Applicability. Ear & Hearing 37:1, pages 85S-91S.
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Leijon Leijon, Gustav Eje Henter & Martin Dahlquist. (2016) Bayesian Analysis of Phoneme Confusion Matrices. IEEE/ACM Transactions on Audio, Speech, and Language Processing 24:3, pages 469-482.
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Yen-Teh Liu, Yu Tsao & Ronald Y. Chang. (2016) Nonnegative matrix factorization-based frequency lowering technology for Mandarin-speaking hearing aid users. Nonnegative matrix factorization-based frequency lowering technology for Mandarin-speaking hearing aid users.
Letícia Pimenta Costa-Guarisco, Francisco José Fraga & Maria Cecília Martinelli Iório. (2016) Índice Percentual de Identificação de Fonemas Fricativos: proposta para avaliação da compressão de frequências. Audiology - Communication Research 21:0.
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Martin Kirchberger & Frank A. Russo. (2016) Harmonic Frequency Lowering. Trends in Hearing 20, pages 233121651562613.
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Yen-Teh Liu, Ronald Y. Chang, Yu Tsao & Yi-ping Chang. (2015) A new frequency lowering technique for Mandarin-speaking hearing aid users. A new frequency lowering technique for Mandarin-speaking hearing aid users.
Suzanne Carr Levy, Daniel J. Freed, Michael Nilsson, Brian C. J. Moore & Sunil Puria. (2015) Extended High-Frequency Bandwidth Improves Speech Reception in the Presence of Spatially Separated Masking Speech. Ear & Hearing 36:5, pages e214-e224.
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Yen-Teh Liu, Yu Tsao & Ronald Y. Chang. (2015) A deep neural network based approach to mandarin consonant/vowel separation. A deep neural network based approach to mandarin consonant/vowel separation.
Umut Arıöz & Banu Günel. (2015) Optimization of Frequency Lowering Algorithms for Getting the Highest Speech Intelligibility Improvement by Hearing Loss Simulation. Journal of Medical Systems 39:6.
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Amanda Dal Piva Gresele, Maristela Julio Costa & Michele Vargas Garcia. (2015) Compressão de frequências no reconhecimento de fala de idosos com possíveis zonas mortas na cóclea. Revista CEFAC 17:1, pages 223-237.
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Mohammed Alnahwi & Zeinab A. AlQudehy. (2015) Comparison between frequency transposition and frequency compression hearing aids. The Egyptian Journal of Otolaryngology 31:1, pages 10-18.
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Sara M. K. Madsen & Brian C. J. Moore. (2014) Music and Hearing Aids. Trends in Hearing 18, pages 233121651455827.
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Amanda Dal Piva Gresele & Maristela Julio Costa. (2014) Compressão de frequências e reconhecimento de fala em idosos. Audiology - Communication Research 19:3, pages 310-320.
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Ying-Yee Kong, Ala Mullangi & Kostas Kokkinakis. (2014) Classification of Fricative Consonants for Speech Enhancement in Hearing Devices. PLoS ONE 9:4, pages e95001.
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Iman M.S. El Danasoury, Nagwa M.A. Hazzaa, Amal E. Saber & Rasha H. Elkabarity. (2013) Efficacy of frequency transposition on speech perception and production in hearing impaired Arabic-speaking children. Egyptian Journal of Ear, Nose, Throat and Allied Sciences 14:2, pages 129-135.
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Danielle Glista, Susan Scollie & Jacob Sulkers. (2012) Perceptual Acclimatization Post Nonlinear Frequency Compression Hearing Aid Fitting in Older Children. Journal of Speech, Language, and Hearing Research 55:6, pages 1765-1787.
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Pandurangarao N. Kulkarni, Prem C. Pandey & Dakshayani S. Jangamashetti. (2012) Multi-band frequency compression for improving speech perception by listeners with moderate sensorineural hearing loss. Speech Communication 54:3, pages 341-350.
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Ying-Yee Kong & Ala Mullangi. (2012) On the development of a frequency-lowering system that enhances place-of-articulation perception. Speech Communication 54:1, pages 147-160.
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Umut Arioz, Kemal Arda & Umit Tuncel. (2011) Preliminary results of a novel enhancement method for high-frequency hearing loss. Computer Methods and Programs in Biomedicine 102:3, pages 277-287.
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Brian C. J. Moore & Christian Füllgrabe. (2010) Evaluation of the CAMEQ2-HF Method for Fitting Hearing Aids With Multichannel Amplitude Compression. Ear & Hearing 31:5, pages 657-666.
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Brian C. J. Moore, Christian Füllgrabe & Michael A. Stone. (2010) Effect of spatial separation, extended bandwidth, and compression speed on intelligibility in a competing-speech task. The Journal of the Acoustical Society of America 128:1, pages 360-371.
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Hugh McDermott & Andrea Varsavsky. (2009) Better fitting of cochlear implants: modeling loudness for acoustic and electric stimuli. Journal of Neural Engineering 6:6, pages 065007.
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Andrea Simpson. (2009) Frequency-Lowering Devices for Managing High-Frequency Hearing Loss: A Review. Trends in Amplification 13:2, pages 87-106.
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