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Wavelet-Based Moment-Matching Techniques for Inertial Sensor Calibration

Document Type

Article

Publication Date

4-8-2020

Abstract

The task of inertial sensor calibration has required the development of various techniques to take into account the sources of measurement error coming from such devices. The calibration of the stochastic errors of these sensors has been the focus of increasing amount of research in which the method of reference has been the so-called "Allan variance slope method" which, in addition to not having appropriate statistical properties, requires a subjective input which makes it prone to mistakes. To overcome this, recent research has started proposing "automatic" approaches where the parameters of the probabilistic models underlying the error signals are estimated by matching functions of the Allan variance or Wavelet Variance with their model-implied counterparts. However, given the increased use of such techniques, there has been no study or clear direction for practitioners on which approach is optimal for the purpose of sensor calibration. This paper formally defines the class of estimators based on this technique and puts forward theoretical and applied results that, comparing with estimators in this class, suggest the use of the Generalized Method of Wavelet Moments as an optimal choice.

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The "Link to Full Text" on this page directs to the arXiv e-print hosted at the arXiv.org repository.

The version of record for this article is published in volume 69 issue 10 (October 2020) of IEEE Transactions on Instrumentation and Measurement, as cited below, and is available by subscription via the main DOI link on this page. IEEE published the article online ahead of inclusion in the issue.

DOI

IEEE published version:10.1109/TIM.2020.2984820 ; arxiv:1911.07049

Source Publication

IEEE Transactions on Instrumentation and Measurement (ISSN 0018-9456 | e-ISSN 1557-9662)

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