一种用于脑神经调节的植入式超宽带收发器的功率预算分析

Sakib Reza, I. Mahbub
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引用次数: 1

摘要

生物信号监测的下一个进化步骤将由无线通信实现。低功耗和低成本的无线收发器目前被用于植入式医疗设备(imd),以及军事和民用应用,如监测、监视和家庭自动化。本文的主要目标是对工作在3-5 GHz超宽带频率下的植入式无线收发器进行全面而现实的链路预算分析,该收发器的链路距离为2 m(其中包括10 mm的脑组织层和1.99 m的空气介质),数据速率为100 Mbps,开关键控(OOK)调制,最小接收灵敏度为- 58.01 dBm。所提出的功率预算分析特别适合分布式脑植入应用,因为它模拟了包括组织层在内的路径损耗,而不会影响联邦通信委员会(FCC)对超宽带通信施加的频谱规定。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Power Budget Analysis for an Implantable UWB Transceiver for Brain Neuromodulation Application
The next evolutionary step in biological signal monitoring will be enabled by wireless communication. Low power and cost-efficient wireless transceivers are currently being employed for implantable medical devices (IMDs), in addition to military and civilian applications such as monitoring, surveillance, and home automation. The major goal of this paper is to do a thorough and realistic link budget analysis for an implantable wireless transceiver operating in the 3–5 GHz ultrawideband frequency with a link distance of 2 m (which includes 10 mm of brain tissue layer and 1.99 m of air medium), data rate of 100 Mbps with On-Off keying (OOK) modulation, and a minimum receiver sensitivity of −58.01 dBm. The proposed power budget analysis is particularly well suited for distributed brain implant applications as it models the path loss including the tissue layer without compromising the spectrum regulation imposed by the Federal Communications Commission (FCC) for UWB communication.
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