Session 7 — Advances in biomedial sensor systems

Christophe Antoine, R. Muller
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Abstract

For Biomedical sensor systems, there are always a lot of challenges in four major areas, namely the design of the bio-sensors itself, the power management of the implantable devices, the communication with these devices and the signal processing within these devices. In this session, the first paper describes a large (512×576) CMOS ISFET sensor realized in 65nm CMOS technology targeted towards DNA sequencing. It achieves high readout gain (201 mV/ph) and fast readout speed (375 fps). To address the challenges in the power management of implants, a voltage doubling rectifier and regulator combined circuit is described in the second paper. Power conversion efficiency and voltage conversion efficiency are improved by utilizing the voltage regulation transistor also as a passive rectifier. To efficiently utilize the communication bandwidth as well as power available in the implants, compressed-sensing is a hot topic in the biomedical area. The third paper describes a signal processing technique that compresses and also extracts key statistics of the input signal at sampling time. With these statistics, the reconstruction of the signal can be significantly improved (9-18dB) at the receiver. The fourth paper describes a fully-integrated, full-duplex wireless transceiver to address the challenges for high rate data communication (100 Mbps downlink and 500 Mbps uplink) required in some implantable devices. Physical size requirement is reduced by avoiding the use of circulators/diplexers with the antenna for RX and TX being shared.
第七部分:生物医学传感器系统的进展
对于生物医学传感器系统来说,在生物传感器本身的设计、植入式设备的电源管理、与这些设备的通信以及这些设备内部的信号处理等四个主要领域总是面临着很多挑战。在本次会议上,第一篇论文介绍了一个大型(512×576) CMOS ISFET传感器实现65纳米CMOS技术针对DNA测序。它实现了高读出增益(201 mV/ph)和快速读出速度(375 fps)。为了解决植体电源管理的挑战,第二篇论文描述了一种倍压整流器和稳压器组合电路。利用调压晶体管作为无源整流器,提高了功率转换效率和电压转换效率。为了有效地利用植入物的通信带宽和功率,压缩传感是生物医学领域的研究热点。第三篇论文描述了一种信号处理技术,该技术在采样时压缩并提取输入信号的关键统计信息。有了这些统计数据,接收器处的信号重建可以得到显著改善(9-18dB)。第四篇论文描述了一种完全集成的全双工无线收发器,以解决一些可植入设备所需的高速率数据通信(100mbps下行链路和500mbps上行链路)的挑战。通过避免使用循环器/双工器来减少物理尺寸要求,RX和TX的天线被共享。
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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