Investigation of Linear and Nonlinear Properties of a Heartbeat Time Series Using Multiscale Rényi Entropy

The time series of interbeat intervals of the heart reveals much information about disease and disease progression. An area of intense research has been associated with cardiac autonomic neuropathy (CAN). In this work we have investigated the value of additional information derived from the magnitud...

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Main Authors: Herbert F. Jelinek, David J. Cornforth, Mika P. Tarvainen, Kinda Khalaf
Format: Article
Language:English
Published: MDPI AG 2019-07-01
Series:Entropy
Subjects:
Online Access:https://www.mdpi.com/1099-4300/21/8/727
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spelling doaj-b8667897351747b380a4f8b5c0e5cc772020-11-25T01:57:18ZengMDPI AGEntropy1099-43002019-07-0121872710.3390/e21080727e21080727Investigation of Linear and Nonlinear Properties of a Heartbeat Time Series Using Multiscale Rényi EntropyHerbert F. Jelinek0David J. Cornforth1Mika P. Tarvainen2Kinda Khalaf3Australian School of Advanced Medicine, Macquarie University, Sydney 2109, AustraliaSchool of Design, Communication and IT, University of Newcastle, Newcastle 2308, AustraliaDepartment of Applied Physics, University of Eastern Finland, 70210 Kuopio, FinlandDepartment of Biomedical Engineering, Khalifa University, Abu Dhabi 127788, UAEThe time series of interbeat intervals of the heart reveals much information about disease and disease progression. An area of intense research has been associated with cardiac autonomic neuropathy (CAN). In this work we have investigated the value of additional information derived from the magnitude, sign and acceleration of the <i>RR</i> intervals. When quantified using an entropy measure, these time series show statistically significant differences between disease classes of Normal, Early CAN and Definite CAN. In addition, pathophysiological characteristics of heartbeat dynamics provide information not only on the change in the system using the first difference but also the magnitude and direction of the change measured by the second difference (acceleration) with respect to sequence length. These additional measures provide disease categories to be discriminated and could prove useful for non-invasive diagnosis and understanding changes in heart rhythm associated with CAN.https://www.mdpi.com/1099-4300/21/8/727heart rate variabilityentropynonlinear dynamicscardiac autonomic neuropathydiabetes
collection DOAJ
language English
format Article
sources DOAJ
author Herbert F. Jelinek
David J. Cornforth
Mika P. Tarvainen
Kinda Khalaf
spellingShingle Herbert F. Jelinek
David J. Cornforth
Mika P. Tarvainen
Kinda Khalaf
Investigation of Linear and Nonlinear Properties of a Heartbeat Time Series Using Multiscale Rényi Entropy
Entropy
heart rate variability
entropy
nonlinear dynamics
cardiac autonomic neuropathy
diabetes
author_facet Herbert F. Jelinek
David J. Cornforth
Mika P. Tarvainen
Kinda Khalaf
author_sort Herbert F. Jelinek
title Investigation of Linear and Nonlinear Properties of a Heartbeat Time Series Using Multiscale Rényi Entropy
title_short Investigation of Linear and Nonlinear Properties of a Heartbeat Time Series Using Multiscale Rényi Entropy
title_full Investigation of Linear and Nonlinear Properties of a Heartbeat Time Series Using Multiscale Rényi Entropy
title_fullStr Investigation of Linear and Nonlinear Properties of a Heartbeat Time Series Using Multiscale Rényi Entropy
title_full_unstemmed Investigation of Linear and Nonlinear Properties of a Heartbeat Time Series Using Multiscale Rényi Entropy
title_sort investigation of linear and nonlinear properties of a heartbeat time series using multiscale rényi entropy
publisher MDPI AG
series Entropy
issn 1099-4300
publishDate 2019-07-01
description The time series of interbeat intervals of the heart reveals much information about disease and disease progression. An area of intense research has been associated with cardiac autonomic neuropathy (CAN). In this work we have investigated the value of additional information derived from the magnitude, sign and acceleration of the <i>RR</i> intervals. When quantified using an entropy measure, these time series show statistically significant differences between disease classes of Normal, Early CAN and Definite CAN. In addition, pathophysiological characteristics of heartbeat dynamics provide information not only on the change in the system using the first difference but also the magnitude and direction of the change measured by the second difference (acceleration) with respect to sequence length. These additional measures provide disease categories to be discriminated and could prove useful for non-invasive diagnosis and understanding changes in heart rhythm associated with CAN.
topic heart rate variability
entropy
nonlinear dynamics
cardiac autonomic neuropathy
diabetes
url https://www.mdpi.com/1099-4300/21/8/727
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