AI Article Synopsis

  • A new setup for strain gauges was developed to reduce errors and enhance sensitivity in a six-axis force-moment sensor.
  • The calibration process used a least squares method along with error reduction techniques to create an effective decoupling matrix, essential for minimizing errors.
  • Experimental results showed significant improvements, with maximum calibration errors reduced to 3.91%, force-moment sensor measurement errors to 1.78%, and crosstalk readings to 4.78%.

Article Abstract

In this study, a novel strain gauge arrangement and error reduction techniques were proposed to minimize crosstalk reading and simultaneously increase sensitivity on a decoupled six-axis force-moment (F/M) sensor. The calibration process that comprises the least squares method and error reduction techniques was implemented to obtain a robust decoupling matrix. A decoupling matrix is very crucial for minimizing error and crosstalk. A novel strain gauge arrangement that comprised double parallel strain gauges in the decoupled six-axis force-moment sensor was implemented to obtain high sensitivity. The experimental results revealed that the maximum calibration error, F/M sensor measurement error, and crosstalk readings were reduced to 3.91%, 1.78%, and 4.78%, respectively.

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Source
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC6651882PMC
http://dx.doi.org/10.3390/s19133012DOI Listing

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