用于低功耗生物医学应用的65纳米CMOS新型延迟GFSK解调器

M. Fu, E. Skafidas, I. Mareels
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摘要

本文介绍了近年来随着微电子技术的发展,植入式电子器件在现代医学中发挥的重要作用。这种电子植入装置的例子是,例如,视网膜假体和大脑植入物。它给低功率射频(RF)和模拟设计带来了巨大挑战。本文介绍了一种用于医疗植入通信服务(MICS)频段接收机的低功耗高斯移频键控(GFSK)解调器。该解调器采用了一种新颖的结构,可以处理宽的中频范围,并在任何已发布的GFSK解调器中呈现最小的Δf/f比率。理论上,这种解调方法可以应用于任何射频频率。解调器从1v电源中抽取550uA。在MICS定义的300 KHz信道带宽内,最大数据速率可达400 Kbits/s。在AWGN信道下,仿真信噪比(SNR)为15.2dB,误码率为10-3。该解调器采用65纳米CMOS制作,硅面积为0.12mm2。
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A Novel Delay-Based GFSK Demodulator in 65 nm CMOS for Low Power Biomedical Applications
This article describes how, in recent years, with the development of microelectronics, implantable electronic devices have been playing a significant role in modem medicine. Examples of such electronic implant devices are, for instance, retinal prosthesis and brain implants. It brings great challenges in low power radio frequency (RF) and analog designs. This article presents a low power Gaussian frequency shift keying (GFSK) demodulator designed for Medical Implant Communications Service (MICS) band Receiver. This demodulator utilizes a novel structure that a wide IF range can be handled and presents the smallest Δf/f ratio in any published GFSK demodulators. In theory the demodulation method can be applied to any RF frequency. The demodulator draws 550uA from a 1 V power supply. A maximum data rate of 400 Kbits/s can be achieved within the 300 KHz channel bandwidth defined by MICS. A simulated signal-to-noise ratio (SNR) of 15.2dB at AWGN channel is obtained to achieve 10-3 bit error rate (BER). This demodulator is fabricated on 65-nm CMOS and occupies 0.12mm2 silicon area.
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