The multi-channel cochlear implant: Multi-disciplinary development of electrical stimulation of the cochlea and the resulting clinical benefit

被引:52
|
作者
Clark, Graeme M. [1 ]
机构
[1] Univ Melbourne, Ctr Neural Engn, Melbourne, Vic 3010, Australia
基金
澳大利亚研究理事会; 美国国家卫生研究院;
关键词
AUDITORY-NERVE FIBERS; SPEECH-PERCEPTION; INTRACOCHLEAR IMPLANT; CODING STRATEGIES; PITCH PERCEPTION; ACOUSTIC MODEL; HEARING; NUCLEUS; CAT; DISCRIMINATION;
D O I
10.1016/j.heares.2014.08.002
中图分类号
R36 [病理学]; R76 [耳鼻咽喉科学];
学科分类号
100104 ; 100213 ;
摘要
This multi-disciplinary research showed sound could be coded by electrical stimulation of the cochlea and peripheral auditory nervous system. But the temporal coding of frequency as seen in the experimental animal, was inadequate for the important speech frequencies. The data indicated the limitation was due in particular to deterministic firing of neurons and failure to reproduce the normal fine temporo-spatial pattern of neural responses seen with sound. However, the data also showed the need for the place coding of frequency, and this meant multi-electrodes inserted into the cochlea. Nevertheless, before this was evaluated on people we undertook biological safety studies to determine the effects of surgical trauma and electrical stimuli, and how to prevent infection. Then our research demonstrated place of stimulation had timbre and was perceived as vowels. This led to our discovery in 1978 of the formant-extraction speech code that first enabled severely-profoundly deaf people to understand running speech. This result in people who had hearing before becoming severely deaf was an outcome not previously considered possible. In 1985 it was the first multi-channel implant to be approved by the US Food and Drug Administration (FDA). It was also the fore runner of our advanced formant and fixed filter strategies When these codes were used from 1985 for those born deaf or deafened early in life we discovered there was a critical period when brain plasticity would allow speech perception and language to be developed near- normally, and this required in particular the acquisition of place coding. In 1990 this led to the first cochlear implant to be approved by the FDA for use in children. Finally, we achieved binaural hearing in 1989 with bilateral cochlear implants, followed by bimodal speech processing in 1990 with a hearing aid in one ear and implant in the other. The above research has been developed industrially, with for example 250,000 people worldwide receiving the Cochlear device in 2013, and as of December 2012 the NIH estimated that approximately 324,200 people worldwide had received this and other implants (NIH Publication No. 11-4798). This article is part of a Special Issue entitled <Lasker Award>. (C) 2014 The Author. Published by Elsevier B.V.
引用
收藏
页码:4 / 13
页数:10
相关论文
共 48 条
  • [31] Development and application of a novel multi-channel in vitro electrical stimulator for cellular research
    Jorge R. Cibrão
    Miguel Armada
    Marta F. Lima
    André Vidinha-Mira
    Jonas Campos
    Tiffany S. Pinho
    António J. Salgado
    Alar Ainla
    Nuna A. Silva
    BMC Biomedical Engineering, 7 (1):
  • [32] TELEPHONE USE BY A MULTI-CHANNEL COCHLEAR IMPLANT PATIENT - AN EVALUATION USING OPEN-SET CID SENTENCES
    BROWN, AM
    CLARK, GM
    DOWELL, RC
    MARTIN, LFA
    SELIGMAN, PM
    JOURNAL OF LARYNGOLOGY AND OTOLOGY, 1985, 99 (03): : 231 - 238
  • [33] Thin-Film PZT-Based Multi-Channel Acoustic MEMS Transducer for Cochlear Implant Applications
    Yuksel, Muhammed Berat
    Koyuncuoglu, Aziz
    Kulah, Haluk
    IEEE SENSORS JOURNAL, 2022, 22 (04) : 3052 - 3060
  • [34] CLINICAL-TRIAL OF A MULTI-CHANNEL COCHLEAR PROSTHESIS - RESULTS ON 10 POSTLINGUALLY DEAF PATIENTS
    CLARK, GM
    DOWELL, RC
    PYMAN, BC
    BROWN, AM
    WEBB, RL
    TONG, YC
    BAILEY, Q
    SELIGMAN, PM
    AUSTRALIAN AND NEW ZEALAND JOURNAL OF SURGERY, 1984, 54 (06): : 519 - 526
  • [35] Multi-channel electrical stimulation is more effective and efficient than single channel stimulation for the entrainment of gastric myoelectrical activity.
    Lin, X
    Ouyang, H
    Zhu, H
    Chen, J
    GASTROENTEROLOGY, 2000, 118 (04) : A393 - A393
  • [36] Multi-channel microelectrode recording of MUA in cat visual cortex by electrical stimulation in optic nerve
    Cai, Changsi
    Zhao, Ying
    Li, Liming
    Wu, Kaijie
    Chai, Xinyu
    Ren, Qiushi
    2007 IEEE/ICME INTERNATIONAL CONFERENCE ON COMPLEX MEDICAL ENGINEERING, VOLS 1-4, 2007, : 1302 - 1306
  • [37] FLEXIBLE MULTI-CHANNEL MUSCLE ELECTRODE FOR FUNCTIONAL ELECTRICAL STIMULATION AND IN-VIVO PH MONITORING
    Wang, Jiahui
    Xiang, Zhuolin
    Lee, Sanghoon
    Jegadeesan, Rangarajan
    Yen, Shih-Cheng
    Thakor, Nitish V.
    Lee, Chengkuo
    2016 IEEE 29TH INTERNATIONAL CONFERENCE ON MICRO ELECTRO MECHANICAL SYSTEMS (MEMS), 2016, : 371 - 374
  • [38] The role of psychologists in multi-disciplinary teams for intersex/diverse sex development: interviews with British and Swedish clinical specialists
    Liao, Lih-Mei
    Roen, Katrina
    PSYCHOLOGY & SEXUALITY, 2021, 12 (03) : 202 - 216
  • [39] Development of Multi-Channel Fast SiPM Readout Electronics for Clinical TOF PET Detector
    Xu, Tianpeng
    Wang, Shi
    Wei, Qingyang
    Liu, Wenli
    Gong, Guanghua
    Deng, Zhi
    Ma, Tianyu
    Liu, Yaqiang
    2014 IEEE NUCLEAR SCIENCE SYMPOSIUM AND MEDICAL IMAGING CONFERENCE (NSS/MIC), 2014,
  • [40] Energy-Efficient Fast-Transient Dynamic Reconfigurable Charge Pump for Multi-Channel Electrical Stimulation
    Kim, Myeong Woo
    Kim, Jae Joon
    IEEE TRANSACTIONS ON CIRCUITS AND SYSTEMS II-EXPRESS BRIEFS, 2023, 70 (06) : 2146 - 2150