Literature DB >> 25165991

Conductive component after cochlear implantation in patients with residual hearing conservation.

Richard A Chole, Timothy E Hullar, Lisa G Potts.   

Abstract

PURPOSE: Changes in auditory thresholds following cochlear implantation are generally assumed to be due to damage to neural elements. Theoretical studies have suggested that placement of a cochlear implant can cause a conductive hearing loss. Identification of a conductive component following cochlear implantation could guide improvements in surgical techniques or device designs. The purpose of this study is to characterize new-onset conductive hearing losses after cochlear implantation.
METHOD: In a prospective study, air- and bone-conduction audiometric testing were completed on cochlear implant recipients. An air-bone gap equal to or greater than 15 dB HL at 2 frequencies determined the presence of a conductive component.
RESULTS: Of the 32 patients with preoperative bone-conduction hearing, 4 patients had a new-onset conductive component resulting in a mixed hearing loss, with air-conduction thresholds ranging from moderate to profound and an average air-bone gap of 30 dB HL. One had been implanted through the round window, 2 had an extended round window, and 1 had a separate cochleostomy.
CONCLUSIONS: Loss of residual hearing following cochlear implantation may be due in part to a conductive component. Identifying the mechanism for this conductive component may help minimize hearing loss. Postoperative hearing evaluation should measure both air- and bone-conduction thresholds.

Entities:  

Mesh:

Year:  2014        PMID: 25165991     DOI: 10.1044/2014_AJA-14-0018

Source DB:  PubMed          Journal:  Am J Audiol        ISSN: 1059-0889            Impact factor:   1.493


  15 in total

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3.  Wideband Acoustic Immittance in Cochlear Implant Recipients: Reflectance and Stapedial Reflexes.

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4.  Using Functional Outcomes to Predict Vestibular Loss in Children.

Authors:  Kristen L Janky; Megan LA Thomas; Jessie Patterson; Diane Givens
Journal:  Otol Neurotol       Date:  2022-03-01       Impact factor: 2.311

5.  A Preliminary Investigation of the Air-Bone Gap: Changes in Intracochlear Sound Pressure With Air- and Bone-conducted Stimuli After Cochlear Implantation.

Authors:  Renee M Banakis Hartl; Jameson K Mattingly; Nathaniel T Greene; Herman A Jenkins; Stephen P Cass; Daniel J Tollin
Journal:  Otol Neurotol       Date:  2016-10       Impact factor: 2.311

6.  Intracochlear Pressure Transients During Cochlear Implant Electrode Insertion.

Authors:  Nathaniel T Greene; Jameson K Mattingly; Renee M Banakis Hartl; Daniel J Tollin; Stephen P Cass
Journal:  Otol Neurotol       Date:  2016-12       Impact factor: 2.311

7.  Cochlear Implant Electrode Effect on Sound Energy Transfer Within the Cochlea During Acoustic Stimulation.

Authors:  Nathaniel T Greene; Jameson K Mattingly; Herman A Jenkins; Daniel J Tollin; James R Easter; Stephen P Cass
Journal:  Otol Neurotol       Date:  2015-09       Impact factor: 2.311

8.  Delayed loss of hearing after hearing preservation cochlear implantation: Human temporal bone pathology and implications for etiology.

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Journal:  Hear Res       Date:  2015-09-01       Impact factor: 3.208

9.  Effect of Cochlear Implantation on Vestibular Evoked Myogenic Potentials and Wideband Acoustic Immittance.

Authors:  Gabrielle R Merchant; Kyli M Schulz; Jessie N Patterson; Denis Fitzpatrick; Kristen L Janky
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10.  Direct Intracochlear Acoustic Stimulation Using a PZT Microactuator.

Authors:  Chuan Luo; Irina Omelchenko; Robert Manson; Carol Robbins; Elizabeth C Oesterle; Guo Zhong Cao; I Y Shen; Clifford R Hume
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