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3D printed biomimetic cochleae and machine learning co-modelling provides clinical informatics for cochlear implant patients.


ABSTRACT: Cochlear implants restore hearing in patients with severe to profound deafness by delivering electrical stimuli inside the cochlea. Understanding stimulus current spread, and how it correlates to patient-dependent factors, is hampered by the poor accessibility of the inner ear and by the lack of clinically-relevant in vitro, in vivo or in silico models. Here, we present 3D printing-neural network co-modelling for interpreting electric field imaging profiles of cochlear implant patients. With tuneable electro-anatomy, the 3D printed cochleae can replicate clinical scenarios of electric field imaging profiles at the off-stimuli positions. The co-modelling framework demonstrated autonomous and robust predictions of patient profiles or cochlear geometry, unfolded the electro-anatomical factors causing current spread, assisted on-demand printing for implant testing, and inferred patients' in vivo cochlear tissue resistivity (estimated mean = 6.6 kΩcm). We anticipate our framework will facilitate physical modelling and digital twin innovations for neuromodulation implants.

SUBMITTER: Lei IM 

PROVIDER: S-EPMC8556326 | biostudies-literature | 2021 Oct

REPOSITORIES: biostudies-literature

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3D printed biomimetic cochleae and machine learning co-modelling provides clinical informatics for cochlear implant patients.

Lei Iek Man IM   Jiang Chen C   Lei Chon Lok CL   de Rijk Simone Rosalie SR   Tam Yu Chuen YC   Swords Chloe C   Sutcliffe Michael P F MPF   Malliaras George G GG   Bance Manohar M   Huang Yan Yan Shery YYS  

Nature communications 20211029 1


Cochlear implants restore hearing in patients with severe to profound deafness by delivering electrical stimuli inside the cochlea. Understanding stimulus current spread, and how it correlates to patient-dependent factors, is hampered by the poor accessibility of the inner ear and by the lack of clinically-relevant in vitro, in vivo or in silico models. Here, we present 3D printing-neural network co-modelling for interpreting electric field imaging profiles of cochlear implant patients. With tun  ...[more]

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