周围神经单面聚对二甲苯基束内多通道电极的研制

Matthias Müller, M. Ulloa, M. Schuettler, T. Stieglitz
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引用次数: 4

摘要

由于洁净室制造的聚酰亚胺基电极尺寸小,灵活性高,因此通常用于临床试验,我们希望将这些优势转化为无面罩制造技术和另一种获得FDA批准的基板材料:利用皮秒激光(355 nm Nd:YVO4)对现有的硅橡胶电极激光制备工艺(1064 nm Nd:YAG纳秒激光)进行了改进,以制备用于束内应用的薄聚对二甲苯C电极。该工艺利用25 μm厚的铂铱箔,将其放置在两个10 μm厚的聚对二甲苯基板层之间。利用激光削薄金属、增加活性表面和切割完整的电极阵列,开发了一种新的制造工艺。所涉及的材料的粘附参数进行测量和定制,以适应彼此。单电极阵列具有4个束内接触点以及一个接地电极和神经外的固定开口。测量了电极阵列的功能,并对其可用性进行了首次评估。其力学和电化学参数在周围神经的束内植入、成功刺激和记录应用方面具有广阔的前景。
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Development of a single-sided Parylene C based intrafascicular multichannel electrode for peripheral nerves
As cleanroom fabricated polyimide based electrodes are commonly used in clinical trials due to their small dimensions and high flexibility we want to translate these advantages to a maskless manufacturing technology and another substrate material with FDA approval: Parlyene C. Using a picosecond laser (355 nm Nd:YVO4) an established laser fabrication process (1064 nm Nd:YAG nansecond laser) for silicone rubber electrodes was modified to allow the fabrication of thin parylene C electrodes for intrafascicular application. The process utilizes a 25 μm thick platinum iridium foil that is placed between two 10 μm thick parylene C substrate layers. Using the laser for thinning down the metal, increasing the active surface and cutting the complete electrode array a new fabrication process is developed. Adhesion parameters of the involved materials are measured and tailored to fit each other. The single electrode arrays feature 4 intrafascicular contacts as well as a ground electrode and fixation openings outside the nerve. Functionality of the electrode array was measured and a first assessment of its usability has been performed. The mechanical and electrochemical parameters are promising for intrafascicular implantation, successful stimulation and recording application in a peripheral nerve.
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