A 7-Channel Bio-Signal Analog Front End Employing Single-End Chopping Amplifier Achieving 1.48 NEF

This paper presents a high noise efficiency readout circuit for multi-channel bio-signal acquisition. The prototype is implemented in a 65 nm CMOS LP process, which achieves a power consumption of 2.06 \muW/channel, a noise efficiency factor (NEF) of1.48, a common-mode rejection ratio (CMRR) of 105...

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Published inESSCIRC 2023- IEEE 49th European Solid State Circuits Conference (ESSCIRC) pp. 5 - 8
Main Authors Gan, Renze, Lyu, Liangjian, Richard Shi, C.-J.
Format Conference Proceeding
LanguageEnglish
Published IEEE 11.09.2023
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Abstract This paper presents a high noise efficiency readout circuit for multi-channel bio-signal acquisition. The prototype is implemented in a 65 nm CMOS LP process, which achieves a power consumption of 2.06 \muW/channel, a noise efficiency factor (NEF) of1.48, a common-mode rejection ratio (CMRR) of 105 dB at 50 Hz, and a crosstalk of -65dB by employing these new techniques, including 1) the use of single-ended amplifiers as the unit of low noise amplifier (LNA) for lower NEF, 2) single-end chopping techniques for single-ended amplifiers for suppressing low-frequency noise and offset, 3) digital-assisted DC servo loop (DDSL) for fast settling.
AbstractList This paper presents a high noise efficiency readout circuit for multi-channel bio-signal acquisition. The prototype is implemented in a 65 nm CMOS LP process, which achieves a power consumption of 2.06 \muW/channel, a noise efficiency factor (NEF) of1.48, a common-mode rejection ratio (CMRR) of 105 dB at 50 Hz, and a crosstalk of -65dB by employing these new techniques, including 1) the use of single-ended amplifiers as the unit of low noise amplifier (LNA) for lower NEF, 2) single-end chopping techniques for single-ended amplifiers for suppressing low-frequency noise and offset, 3) digital-assisted DC servo loop (DDSL) for fast settling.
Author Gan, Renze
Richard Shi, C.-J.
Lyu, Liangjian
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  fullname: Richard Shi, C.-J.
  organization: University of Washington,Department of Electrical and Computer Engineering,Seattle,WA,USA,98195
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Snippet This paper presents a high noise efficiency readout circuit for multi-channel bio-signal acquisition. The prototype is implemented in a 65 nm CMOS LP process,...
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SubjectTerms Europe
Low-noise amplifiers
Modulation
Noise reduction
Power demand
Prototypes
Solid state circuits
Title A 7-Channel Bio-Signal Analog Front End Employing Single-End Chopping Amplifier Achieving 1.48 NEF
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