Effect of Proximity to the Modiolus for the Cochlear CI532 Slim Modiolar Electrode Array on Evoked Compound Action Potentials and Programming Levels

Background: The first surgeries with CI532 showed an effect of the proximity of the electrode to the modiolus on the Evoked Compound Action Potentials (ECAPs). Objectives: Objectives of the study were to investigate the effect of the “pullback” procedure on intraoperative ECAP responses in three dif...

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Published inAudiology & neurotology Vol. 27; no. 5; pp. 397 - 405
Main Authors Greisiger, Ralf, Heldahl, Mariann Gjervik, Myhrum, Marte, Sørensen, Torquil Macdonald, Dammerud, Jens Jørgen, Rasmussen, Kjell, Korslund, Hilde, Bunne, Marie, Jablonski, Greg Eigner
Format Journal Article
LanguageEnglish
Published Basel, Switzerland 01.09.2022
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ISSN1420-3030
1421-9700
1421-9700
DOI10.1159/000524256

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Abstract Background: The first surgeries with CI532 showed an effect of the proximity of the electrode to the modiolus on the Evoked Compound Action Potentials (ECAPs). Objectives: Objectives of the study were to investigate the effect of the “pullback” procedure on intraoperative ECAP responses in three different electrode array positions and additionally to compare behavioral thresholds with the thresholds obtained in a group of patients using the standard insertion. The hypothesis of this study is that pullback will cause lower ECAPs and behavioral thresholds. Patients: The study included 40 patients, 20 in the pullback insertion group and 20 in the standard insertion group (without pullback). Method: During insertion of the CI532 electrode array, ECAP was performed in three different positions for the pullback group: at initial insertion, at over-insertion, and after pullback. Insertion was monitored by fluoroscopy. In the standard group, ECAP was performed at the initial position, which is also the final position. ECAP thresholds (T-ECAPs) were compared within subjects at the initial and the final position in the pullback group and between groups in the final positions of the pullback and standard groups. Programming levels (C- and T-levels) were compared between the two groups 1 year after switch-on. Results: Intraoperative measurements pullback shows lower average T-ECAPs after pullback compared to thresholds in initial position. Comparison of intraoperative T-ECAPs at the final positions showed no statistically significant difference between the pullback group and the standard insertion group. Furthermore, 1 year after switch-on there was no statistically significant difference in C- and T-levels between the two groups. Conclusion: The pullback maneuver of the CI532 electrode array after an over-insertion gave significantly lower T-ECAPs compared to the thresholds at the initial position. However, the between-groups analysis of pullback and standard insertion showed neither significantly different T-ECAPs nor different programming levels. Because T-ECAPs and programming levels vary considerably between subjects, large groups are required to detect differences between groups. Additionally, the effect pullback technique to preserving the residual hearing is not known yet.
AbstractList The first surgeries with CI532 showed an effect of the proximity of the electrode to the modiolus on the Evoked Compound Action Potentials (ECAPs). Objectives of the study were to investigate the effect of the "pullback" procedure on intraoperative ECAP responses in three different electrode array positions and additionally to compare behavioral thresholds with the thresholds obtained in a group of patients using the standard insertion. The hypothesis of this study is that pullback will cause lower ECAPs and behavioral thresholds. The study included 40 patients, 20 in the pullback insertion group and 20 in the standard insertion group (without pullback). During insertion of the CI532 electrode array, ECAP was performed in three different positions for the pullback group: at initial insertion, at over-insertion, and after pullback. Insertion was monitored by fluoroscopy. In the standard group, ECAP was performed at the initial position, which is also the final position. ECAP thresholds (T-ECAPs) were compared within subjects at the initial and the final position in the pullback group and between groups in the final positions of the pullback and standard groups. Programming levels (C- and T-levels) were compared between the two groups 1 year after switch-on. Intraoperative measurements pullback shows lower average T-ECAPs after pullback compared to thresholds in initial position. Comparison of intraoperative T-ECAPs at the final positions showed no statistically significant difference between the pullback group and the standard insertion group. Furthermore, 1 year after switch-on there was no statistically significant difference in C- and T-levels between the two groups. The pullback maneuver of the CI532 electrode array after an over-insertion gave significantly lower T-ECAPs compared to the thresholds at the initial position. However, the between-groups analysis of pullback and standard insertion showed neither significantly different T-ECAPs nor different programming levels. Because T-ECAPs and programming levels vary considerably between subjects, large groups are required to detect differences between groups. Additionally, the effect pullback technique to preserving the residual hearing is not known yet.
Background: The first surgeries with CI532 showed an effect of the proximity of the electrode to the modiolus on the Evoked Compound Action Potentials (ECAPs). Objectives: Objectives of the study were to investigate the effect of the “pullback” procedure on intraoperative ECAP responses in three different electrode array positions and additionally to compare behavioral thresholds with the thresholds obtained in a group of patients using the standard insertion. The hypothesis of this study is that pullback will cause lower ECAPs and behavioral thresholds. Patients: The study included 40 patients, 20 in the pullback insertion group and 20 in the standard insertion group (without pullback). Method: During insertion of the CI532 electrode array, ECAP was performed in three different positions for the pullback group: at initial insertion, at over-insertion, and after pullback. Insertion was monitored by fluoroscopy. In the standard group, ECAP was performed at the initial position, which is also the final position. ECAP thresholds (T-ECAPs) were compared within subjects at the initial and the final position in the pullback group and between groups in the final positions of the pullback and standard groups. Programming levels (C- and T-levels) were compared between the two groups 1 year after switch-on. Results: Intraoperative measurements pullback shows lower average T-ECAPs after pullback compared to thresholds in initial position. Comparison of intraoperative T-ECAPs at the final positions showed no statistically significant difference between the pullback group and the standard insertion group. Furthermore, 1 year after switch-on there was no statistically significant difference in C- and T-levels between the two groups. Conclusion: The pullback maneuver of the CI532 electrode array after an over-insertion gave significantly lower T-ECAPs compared to the thresholds at the initial position. However, the between-groups analysis of pullback and standard insertion showed neither significantly different T-ECAPs nor different programming levels. Because T-ECAPs and programming levels vary considerably between subjects, large groups are required to detect differences between groups. Additionally, the effect pullback technique to preserving the residual hearing is not known yet.
Author Jablonski, Greg Eigner
Greisiger, Ralf
Myhrum, Marte
Korslund, Hilde
Bunne, Marie
Sørensen, Torquil Macdonald
Dammerud, Jens Jørgen
Heldahl, Mariann Gjervik
Rasmussen, Kjell
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Issue 5
Keywords Objective measures
Evoked Compound Action Potential
CI532
Imaging
Programming levels
Pullback
Language English
License This article is licensed under the Creative Commons Attribution-NonCommercial 4.0 International License (CC BY-NC). Usage and distribution for commercial purposes requires written permission.
2022 The Author(s). Published by S. Karger AG, Basel.
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References DeVries L, Scheperle R, Bierer JA. Assessing the electrode-neuron interface with the electrically evoked compound action potential, electrode position, and behavioral thresholds. J Assoc Res Otolaryngol. 2016 Jun;17(3):237–52.
Risi F. Considerations and rationale for cochlear implant electrode design: past, present and future. J Int Adv Otol. 2018 Dec;14(3):382–91.
Basta D, Todt I, Ernst A. Audiological outcome of the pull-back technique in cochlear implantees. Laryngoscope. 2010 Jul;120(7):1391–6.
Saunders E, Cohen L, Aschendorff A, Shapiro W, Knight M, Stecker M, . Threshold, comfortable level and impedance changes as a function of electrode-modiolar distance. Ear Hear. 2002 Feb;23(1):28s–40s.
Ramos-Macias A, Borkoski-Barreiro SA, Falcon-Gonzalez JC, Ramos-de Miguel A. Hearing preservation with the slim modiolar electrode nucleus CI532(R) cochlear implant: a preliminary experience. Audiol Neuro Otol. 2017;22(6):317–25.
Aschendorff A, Briggs R, Brademann G, Helbig S, Hornung J, Lenarz T, . Clinical investigation of the nucleus slim modiolar electrode. Audiol Neuro Otol. 2017;22(3):169–79.
Jeong J, Kim M, Heo JH, Bang MY, Bae MR, Kim J, . Intraindividual comparison of psychophysical parameters between perimodiolar and lateral-type electrode arrays in patients with bilateral cochlear implants. Otol Neurotol. 2015 Feb;36(2):228–34.
Riemann C, Sudhoff H, Todt I. The pull-back technique for the 532 slim modiolar electrode. Biomed Res Int. 2019;2019:6917084.
Schvartz-Leyzac KC, Holden TA, Zwolan TA, Arts HA, Firszt JB, Buswinka CJ, . Effects of electrode location on estimates of neural health in humans with cochlear implants. J Assoc Res Otolaryngol. 2020 Jun;21(3):259–75.
van Weert S, Stokroos RJ, Rikers MM, van Dijk P. Effect of peri-modiolar cochlear implant positioning on auditory nerve responses: a neural response telemetry study. Acta Otolaryngol. 2005 Jul;125(7):725–31.
DeVries L, Arenberg JG. Psychophysical tuning curves as a correlate of electrode position in cochlear implant listeners. J Assoc Res Otolaryngol. 2018 Oct;19(5):571–87.
Gibson P, Boyd P. Optimal electrode design: straight versus perimodiolar. Eur Ann Otorhinolaryngol Head Neck Dis. 2016 Jun;133 Suppl 1:S63–5.
Todt I, Basta D, Ernst A. Helix electrode pull back: electrophysiology and surgical results. Cochlear Implants Int. 2011 May;12(Suppl 1):S73–5.
Hey M, Wesarg T, Mewes A, Helbig S, Hornung J, Lenarz T, . Objective, audiological and quality of life measures with the CI532 slim modiolar electrode. Cochlear Implants Int. 2019 Mar;20(2):80–90.
Cohen LT, Xu J, Xu SA, Clark GM. Improved and simplified methods for specifying positions of the electrode bands of a cochlear implant array. Am J Otol. 1996 Nov;17(6):859–65.
Avci E, Nauwelaers T, Lenarz T, Hamacher V, Kral A. Variations in microanatomy of the human cochlea. J Comp Neurol. 2014 Oct 1;522(14):3245–61.
Davis TJ, Zhang D, Gifford RH, Dawant BM, Labadie RF, Noble JH. Relationship between electrode-to-modiolus distance and current levels for adults with cochlear implants. Otol Neurotol. 2016 Jan;37(1):31–7.
Todt I, Basta D, Eisenschenk A, Ernst A. The “pull-back” technique for nucleus 24 perimodiolar electrode insertion. Otolaryngol Head Neck Surg. 2005 May;132(5):751–4.
Ramos de Miguel Á, Argudo AA, Borkoski Barreiro SA, Falcón González JC, Ramos Macías A. Imaging evaluation of electrode placement and effect on electrode discrimination on different cochlear implant electrode arrays. Eur Arch Otorhinolaryngol. 2018 Jun;275(6):1385–94.
Shaul C, Dragovic AS, Stringer AK, O’Leary SJ, Briggs RJ. Scalar localisation of peri-modiolar electrodes and speech perception outcomes. J Laryngol Otol. 2018 Nov;132(11):1000–6.
Shaul C, Weder S, Tari S, Gerard JM, O’Leary SJ, Briggs RJ. Slim, modiolar cochlear implant electrode: Melbourne experience and comparison with the contour perimodiolar electrode. Otol Neurotol. 2020 Jun;41(5):639–43.
Escude B, James C, Deguine O, Cochard N, Eter E, Fraysse B. The size of the cochlea and predictions of insertion depth angles for cochlear implant electrodes. Audiol Neuro Otol. 2006;11(Suppl 1):27–33.
Kawano A, Seldon HL, Clark GM. Computer-aided three-dimensional reconstruction in human cochlear maps: measurement of the lengths of organ of Corti, outer wall, inner wall, and Rosenthal’s canal. Ann Otol Rhinol Laryngol. 1996 Sep;105(9):701–9.
Wolfe J, Schafer EC. Programming cochlear implants. Plural Publishing, Incorporated; 2014.
Holden LK, Finley CC, Firszt JB, Holden TA, Brenner C, Potts LG, . Factors affecting open-set word recognition in adults with cochlear implants. Ear Hear. 2013 May–Jun;34(3):342–60.
Clark G. Cochlear implants: fundamentals and applications. New York: Springer; 2003.
Todt I, Basta D, Seidl R, Ernst A. Electrophysiological effects of electrode pull-back in cochlear implant surgery. Acta Otolaryngol. 2008;128(12):1314–21.
Xu J, Xu SA, Cohen LT, Clark GM. Cochlear view: postoperative radiography for cochlear implantation. Am J Otol. 2000 Jan;21(1):49–56.
References_xml – reference: Wolfe J, Schafer EC. Programming cochlear implants. Plural Publishing, Incorporated; 2014.
– reference: Cohen LT, Xu J, Xu SA, Clark GM. Improved and simplified methods for specifying positions of the electrode bands of a cochlear implant array. Am J Otol. 1996 Nov;17(6):859–65.
– reference: Saunders E, Cohen L, Aschendorff A, Shapiro W, Knight M, Stecker M, . Threshold, comfortable level and impedance changes as a function of electrode-modiolar distance. Ear Hear. 2002 Feb;23(1):28s–40s.
– reference: Todt I, Basta D, Ernst A. Helix electrode pull back: electrophysiology and surgical results. Cochlear Implants Int. 2011 May;12(Suppl 1):S73–5.
– reference: Shaul C, Dragovic AS, Stringer AK, O’Leary SJ, Briggs RJ. Scalar localisation of peri-modiolar electrodes and speech perception outcomes. J Laryngol Otol. 2018 Nov;132(11):1000–6.
– reference: Aschendorff A, Briggs R, Brademann G, Helbig S, Hornung J, Lenarz T, . Clinical investigation of the nucleus slim modiolar electrode. Audiol Neuro Otol. 2017;22(3):169–79.
– reference: Shaul C, Weder S, Tari S, Gerard JM, O’Leary SJ, Briggs RJ. Slim, modiolar cochlear implant electrode: Melbourne experience and comparison with the contour perimodiolar electrode. Otol Neurotol. 2020 Jun;41(5):639–43.
– reference: Kawano A, Seldon HL, Clark GM. Computer-aided three-dimensional reconstruction in human cochlear maps: measurement of the lengths of organ of Corti, outer wall, inner wall, and Rosenthal’s canal. Ann Otol Rhinol Laryngol. 1996 Sep;105(9):701–9.
– reference: Todt I, Basta D, Eisenschenk A, Ernst A. The “pull-back” technique for nucleus 24 perimodiolar electrode insertion. Otolaryngol Head Neck Surg. 2005 May;132(5):751–4.
– reference: Holden LK, Finley CC, Firszt JB, Holden TA, Brenner C, Potts LG, . Factors affecting open-set word recognition in adults with cochlear implants. Ear Hear. 2013 May–Jun;34(3):342–60.
– reference: Avci E, Nauwelaers T, Lenarz T, Hamacher V, Kral A. Variations in microanatomy of the human cochlea. J Comp Neurol. 2014 Oct 1;522(14):3245–61.
– reference: Basta D, Todt I, Ernst A. Audiological outcome of the pull-back technique in cochlear implantees. Laryngoscope. 2010 Jul;120(7):1391–6.
– reference: Hey M, Wesarg T, Mewes A, Helbig S, Hornung J, Lenarz T, . Objective, audiological and quality of life measures with the CI532 slim modiolar electrode. Cochlear Implants Int. 2019 Mar;20(2):80–90.
– reference: Escude B, James C, Deguine O, Cochard N, Eter E, Fraysse B. The size of the cochlea and predictions of insertion depth angles for cochlear implant electrodes. Audiol Neuro Otol. 2006;11(Suppl 1):27–33.
– reference: Riemann C, Sudhoff H, Todt I. The pull-back technique for the 532 slim modiolar electrode. Biomed Res Int. 2019;2019:6917084.
– reference: Schvartz-Leyzac KC, Holden TA, Zwolan TA, Arts HA, Firszt JB, Buswinka CJ, . Effects of electrode location on estimates of neural health in humans with cochlear implants. J Assoc Res Otolaryngol. 2020 Jun;21(3):259–75.
– reference: DeVries L, Arenberg JG. Psychophysical tuning curves as a correlate of electrode position in cochlear implant listeners. J Assoc Res Otolaryngol. 2018 Oct;19(5):571–87.
– reference: van Weert S, Stokroos RJ, Rikers MM, van Dijk P. Effect of peri-modiolar cochlear implant positioning on auditory nerve responses: a neural response telemetry study. Acta Otolaryngol. 2005 Jul;125(7):725–31.
– reference: Risi F. Considerations and rationale for cochlear implant electrode design: past, present and future. J Int Adv Otol. 2018 Dec;14(3):382–91.
– reference: Clark G. Cochlear implants: fundamentals and applications. New York: Springer; 2003.
– reference: Gibson P, Boyd P. Optimal electrode design: straight versus perimodiolar. Eur Ann Otorhinolaryngol Head Neck Dis. 2016 Jun;133 Suppl 1:S63–5.
– reference: Xu J, Xu SA, Cohen LT, Clark GM. Cochlear view: postoperative radiography for cochlear implantation. Am J Otol. 2000 Jan;21(1):49–56.
– reference: Davis TJ, Zhang D, Gifford RH, Dawant BM, Labadie RF, Noble JH. Relationship between electrode-to-modiolus distance and current levels for adults with cochlear implants. Otol Neurotol. 2016 Jan;37(1):31–7.
– reference: DeVries L, Scheperle R, Bierer JA. Assessing the electrode-neuron interface with the electrically evoked compound action potential, electrode position, and behavioral thresholds. J Assoc Res Otolaryngol. 2016 Jun;17(3):237–52.
– reference: Jeong J, Kim M, Heo JH, Bang MY, Bae MR, Kim J, . Intraindividual comparison of psychophysical parameters between perimodiolar and lateral-type electrode arrays in patients with bilateral cochlear implants. Otol Neurotol. 2015 Feb;36(2):228–34.
– reference: Ramos-Macias A, Borkoski-Barreiro SA, Falcon-Gonzalez JC, Ramos-de Miguel A. Hearing preservation with the slim modiolar electrode nucleus CI532(R) cochlear implant: a preliminary experience. Audiol Neuro Otol. 2017;22(6):317–25.
– reference: Ramos de Miguel Á, Argudo AA, Borkoski Barreiro SA, Falcón González JC, Ramos Macías A. Imaging evaluation of electrode placement and effect on electrode discrimination on different cochlear implant electrode arrays. Eur Arch Otorhinolaryngol. 2018 Jun;275(6):1385–94.
– reference: Todt I, Basta D, Seidl R, Ernst A. Electrophysiological effects of electrode pull-back in cochlear implant surgery. Acta Otolaryngol. 2008;128(12):1314–21.
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Snippet Background: The first surgeries with CI532 showed an effect of the proximity of the electrode to the modiolus on the Evoked Compound Action Potentials (ECAPs)....
The first surgeries with CI532 showed an effect of the proximity of the electrode to the modiolus on the Evoked Compound Action Potentials (ECAPs). Objectives...
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Title Effect of Proximity to the Modiolus for the Cochlear CI532 Slim Modiolar Electrode Array on Evoked Compound Action Potentials and Programming Levels
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