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Self-adaptive loop for external disturbance reduction in differential measurement set-up

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arxiv 1803.03212 v5 pith:553LGD63 submitted 2018-03-08 physics.ins-det physics.app-phphysics.atom-ph

classification physics.ins-detphysics.app-phphysics.atom-ph
keywords differentialcommon-modedisturbancedisturbancesloopmagneticnoisereduction
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We present a method developed to actively compensate common-mode magnetic disturbances on a multi-sensor device devoted to differential measurements. The system uses a field-programmable-gated-array card, and operates in conjunction with a high sensitivity magnetometer: compensating the common-mode of magnetic disturbances results in a relevant reduction of the difference-mode noise. The digital nature of the compensation system allows for using a numerical approach aimed at automatically adapting the feedback loop filter response. A common mode disturbance attenuation exceeding 50 dB is achieved, resulting in a final improvement of the differential noise floor by a factor of 10 over the whole spectral interval of interest.

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  1. Sub-millimetric ultra-low-field MRI detected in situ by a dressed atomic magnetometer

    physics.app-ph 2019-08 conditional novelty 6.0 of 10

    A dressed atomic magnetometer detects in-situ ultra-low-field MRI signals from water phantoms, reaching sub-millimeter positional accuracy in one-dimensional images.

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