Wireless powering of mm-scale fully-on-chip neural interfaces

Jiwoong Park, Chul Kim, Abraham Akinin, S. Ha, G. Cauwenberghs, P. Mercier
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引用次数: 15

Abstract

This paper presents guidelines for the design and optimization of on-chip coils used for wirelessly-powered mm-scale neural implants. Since available real estate is limited, on-chip coil design involves managing difficult trade-offs between the number of turns, trace width and spacing, proximity to other active circuits and metalization, quality factor, matching network performance/size, and load impedance conditions, all towards achieving high power transfer efficiency. To illustrate the design optimization procedure, a 3 × 3 mm2 on-chip coil is designed, and measurement results reveal a 3.82 % power transfer efficiency for a 1.6 kΩ load that mimics a 100 μW neural interface.
毫米级全片神经接口无线供电
本文提出了用于无线供电毫米级神经植入物的片上线圈的设计和优化指南。由于可用空间有限,片上线圈设计涉及管理匝数、走线宽度和间距、与其他有源电路的接近程度和金属化、质量因子、匹配网络性能/尺寸和负载阻抗条件之间的困难权衡,所有这些都是为了实现高功率传输效率。为了说明设计优化过程,设计了一个3 × 3 mm2的片上线圈,测量结果表明,在模拟100 μW神经接口的1.6 kΩ负载下,功率传输效率为3.82%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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