Visualization of synchronization of the uterine contraction signals: Running cross-correlation and wavelet running cross-correlation methods

In physiological research, we often study multivariate data sets, containing two or more simultaneously recorded time series. The aim of this paper is to present the cross-correlation and the wavelet cross-correlation methods to assess synchronization between contractions in different topographic re...

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Veröffentlicht in:Medical engineering & physics 2006, Vol.28 (1), p.75-81
Hauptverfasser: Oczeretko, Edward, Swiatecka, Jolanta, Kitlas, Agnieszka, Laudanski, Tadeusz, Pierzynski, Piotr
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container_issue 1
container_start_page 75
container_title Medical engineering & physics
container_volume 28
creator Oczeretko, Edward
Swiatecka, Jolanta
Kitlas, Agnieszka
Laudanski, Tadeusz
Pierzynski, Piotr
description In physiological research, we often study multivariate data sets, containing two or more simultaneously recorded time series. The aim of this paper is to present the cross-correlation and the wavelet cross-correlation methods to assess synchronization between contractions in different topographic regions of the uterus. From a medical point of view, it is important to identify time delays between contractions, which may be of potential diagnostic significance in various pathologies. The cross-correlation was computed in a moving window with a width corresponding to approximately two or three contractions. As a result, the running cross-correlation function was obtained. The propagation% parameter assessed from this function allows quantitative description of synchronization in bivariate time series. In general, the uterine contraction signals are very complicated. Wavelet transforms provide insight into the structure of the time series at various frequencies (scales). To show the changes of the propagation% parameter along scales, a wavelet running cross-correlation was used. At first, the continuous wavelet transforms as the uterine contraction signals were received and afterwards, a running cross-correlation analysis was conducted for each pair of transformed time series. The findings show that running functions are very useful in the analysis of uterine contractions.
doi_str_mv 10.1016/j.medengphy.2005.03.011
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The aim of this paper is to present the cross-correlation and the wavelet cross-correlation methods to assess synchronization between contractions in different topographic regions of the uterus. From a medical point of view, it is important to identify time delays between contractions, which may be of potential diagnostic significance in various pathologies. The cross-correlation was computed in a moving window with a width corresponding to approximately two or three contractions. As a result, the running cross-correlation function was obtained. The propagation% parameter assessed from this function allows quantitative description of synchronization in bivariate time series. In general, the uterine contraction signals are very complicated. Wavelet transforms provide insight into the structure of the time series at various frequencies (scales). To show the changes of the propagation% parameter along scales, a wavelet running cross-correlation was used. 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subjects Delay estimation
Dysmenorrhea - complications
Female
Humans
Image Processing, Computer-Assisted
Labor, Obstetric - physiology
Leiomyoma - complications
Models, Biological
Models, Statistical
Multivariate Analysis
Pregnancy
Propagation
Running cross-correlation
Running wavelet cross-correlation
Synchronization
Uterine contractility
Uterine Contraction - physiology
Uterine Monitoring
Uterus - pathology
Uterus - physiology
title Visualization of synchronization of the uterine contraction signals: Running cross-correlation and wavelet running cross-correlation methods
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