Sensor and Instrumentation for Cable Tension Quantification

Pelgrims, Patrick; Cooman, Michel De; Puers, Robert

doi:10.1016/j.proeng.2014.11.728

Cited by 2 publications

(1 citation statement)

References 3 publications

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“…The obtained negative tension-impedance effect is very useful for the development of the tension-impedance sensors requiring a negative tension-impedance linear relationship. It is recently reported that a cable tension sensor has a large size of 5 mm in height and 4.5 mm in diameter [12], but our tension impedance sensor has a smaller size of 26 μm in diameter. Compared with the compensated tension sensor with a resolution of 20 gf [13], the tension-impedance sensor in this study has a higher resolution of about 0.1 gf.…”

Section: Experimental Details -A Soft Ferromagneticmentioning

confidence: 88%

Large negative tension-impedance effect in a soft ferromagnetic microwire

Wang¹,

Wang²,

Liu³

et al. 2020

EPL

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Large negative tension-impedance effect was found in a soft ferromagnetic FeCoNiBSiMo microwire, namely, the impedance of the microwire was greatly reduced by the presence of mechanical tensions at intermediate frequency. The impedance reductions could be attributed to the sharp declines of the cylindrical permeability induced by the mechanical tensions. High-frequency skin effect was decreased after stretching the microwire in the longitudinal direction, and the surface current of which redistributed due to the presence of mechanical tensions. A strong tension-resistance effect was found at high frequency, while a strong tension-inductance effect was found at low frequency. Significantly, the decreased skin effect in a stretched microwire is especially suitable for the development of high-frequency tension-impedance sensors requiring small impedance.

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Section: Experimental Details -A Soft Ferromagneticmentioning

confidence: 88%