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Mitigation of mechanical cross-talk in resonant beam accelerometers
Resonant MEMS beam accelerometers have demonstrated remarkable sensitivity and stability, enabling applications in seismology and gravimetry while keeping a small footprint. However, mechanical cross-talk and resonance mode coupling have shown to be specially detrimental to the operation of this kin...
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Published in: | IEEE sensors journal 2024-11, p.1-1 |
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creator | Miani, Theo Verdot, Thierry Berthelot, Audrey Maspero, Federico Koumela, Alexandra Robert, Philippe Langfelder, Giacomo Arcamone, Julien Sansa, Marc |
description | Resonant MEMS beam accelerometers have demonstrated remarkable sensitivity and stability, enabling applications in seismology and gravimetry while keeping a small footprint. However, mechanical cross-talk and resonance mode coupling have shown to be specially detrimental to the operation of this kind of accelerometers, especially when employing nano-resonators as the transduction element. In this study, we investigate the mechanical cross-talk of nanoresonator-based accelerometers, through measurement, modelling and simulation of a pendulum accelerometer. We introduce a novel methodology for the early identification of cross-talk during the accelerometer design phase, facilitating proactive detection and mitigation of this issue. Finally, we propose an innovative technique that effectively minimizes mechanical cross-talk with a minimum impact on performance, applicable to a large number of structures. This involves the mechanical decoupling of vibrational modes within the beam resonator from the rest of the accelerometer structure. |
doi_str_mv | 10.1109/JSEN.2024.3487230 |
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However, mechanical cross-talk and resonance mode coupling have shown to be specially detrimental to the operation of this kind of accelerometers, especially when employing nano-resonators as the transduction element. In this study, we investigate the mechanical cross-talk of nanoresonator-based accelerometers, through measurement, modelling and simulation of a pendulum accelerometer. We introduce a novel methodology for the early identification of cross-talk during the accelerometer design phase, facilitating proactive detection and mitigation of this issue. Finally, we propose an innovative technique that effectively minimizes mechanical cross-talk with a minimum impact on performance, applicable to a large number of structures. 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subjects | accelerometer Accelerometers Couplings cross-talk Frequency measurement Mechanical sensors MEMS Micromechanical devices NEMS Resonance Resonant frequency resonator Resonators Sensors Stress |
title | Mitigation of mechanical cross-talk in resonant beam accelerometers |
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