利用片上校正dac对多通道神经记录放大器的低截止频率进行调谐

P. Kmon, P. Grybos, R. Szczygiel, M. Zoladz
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摘要

本文介绍了一种用于记录神经生物学信号的多通道集成电路的设计和测量方法。采用市售的CMOS 180纳米工艺,在单个芯片上实现了64个记录通道。单个记录放大器在1.8 V电源下仅消耗25µW,占用0.13 mm2的硅面积。它的主要参数,如低/高截止频率和电压增益是由片上寄存器控制的。用户可以在每个通道中独立更改60 mHz - 100 Hz范围内的低截止频率,而高截止频率和电压增益可分别设置为4.7 kHz / 12 kHz和139 V/V / 1100 V/V。输入参考噪声取决于记录通道的带宽,等于3.7µV (100 Hz - 12 kHz)或7.6µV (3 Hz - 12 kHz)。本文讨论了用于神经生物学实验的多通道集成记录电子学中存在的问题,例如:记录频率范围低于1赫兹的输入信号的能力,以及在这种系统中从信道到信道的截止频率的传播。据我们所知,本文提出的解决方案是第一个报告多通道IC的解决方案,该解决方案能够在每个通道中记录极低频信号,并且该参数在通道之间的传播很小。
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Tuning the low cut-off frequency in multichannel neural recording amplifiers by the on-chip correction DACs
This paper presents a design and measurements of multichannel integrated circuits dedicated to recording of neurobiological signals. 64 recording channels have been implemented in a single chip using a commercially available CMOS 180 nm process. A single recording amplifier consumes only 25 µW from 1.8 V supply and occupies 0.13 mm2 of the silicon area. Its main parameters such as the low/high cut off frequencies and the voltage gain are controlled thanks to the on-chip register. User is able to change the low cut off frequency in the 60 mHz – 100 Hz range in each channel independently while the high cut off frequency and the voltage gain can be set to 4.7 kHz / 12 kHz and 139 V/V / 1100 V/V respectively. The input referred noise depends on the bandwidth of the recording channel and is equal to 3.7 µV (100 Hz – 12 kHz) or to 7.6 µV (3 Hz – 12 kHz). This paper deals with problems that are present in a multichannel integrated recording electronics for neurobiology experiments such as: ability to record input signals in the frequency range below a single Hz, and the spread of the cut off frequencies from channel to channel in such systems. Up to our knowledge the solution presented in this paper is the first one reporting the multichannel IC that is able both to record extremely low frequency signals in each channel with a small spread of this parameter from channel to channel.
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