A New Measure to Characterize the Self-Similarity of Binary Time Series and its Application

In this study, the branch-length similarity entropy profile is estimated by mapping the time-series signal to the circumference of the time circle, and the self-similarity is defined based on the profile. To explore the self-similarity property, the effect of the distance between two signals, &#...

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Main Authors: Sang-Hee Lee, Cheol-Min Park
Format: Article
Language:English
Published: IEEE 2021-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/9433597/
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author Sang-Hee Lee
Cheol-Min Park
author_facet Sang-Hee Lee
Cheol-Min Park
author_sort Sang-Hee Lee
collection DOAJ
description In this study, the branch-length similarity entropy profile is estimated by mapping the time-series signal to the circumference of the time circle, and the self-similarity is defined based on the profile. To explore the self-similarity property, the effect of the distance between two signals, “0” and “1”, on the entropy value for signal “1” is investigated. Furthermore, two application problems are addressed: quantification of the mixing state of fragments and clusters, and characterization of the behavioral trajectory of an organism. The results indicate that use of the self-similarity property solves both the problems. Additionally, the problems that must be addressed to broaden the applicability of self-similarity are discussed.
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spelling doaj.art-111a82cb0176480489f2832ef874c0362022-12-21T22:05:12ZengIEEEIEEE Access2169-35362021-01-019737997380710.1109/ACCESS.2021.30814009433597A New Measure to Characterize the Self-Similarity of Binary Time Series and its ApplicationSang-Hee Lee0https://orcid.org/0000-0003-2708-071XCheol-Min Park1https://orcid.org/0000-0001-5257-7723Division of Industrial Mathematics, National Institute for Mathematical Sciences, Daejeon, South KoreaDivision of Industrial Mathematics, National Institute for Mathematical Sciences, Daejeon, South KoreaIn this study, the branch-length similarity entropy profile is estimated by mapping the time-series signal to the circumference of the time circle, and the self-similarity is defined based on the profile. To explore the self-similarity property, the effect of the distance between two signals, “0” and “1”, on the entropy value for signal “1” is investigated. Furthermore, two application problems are addressed: quantification of the mixing state of fragments and clusters, and characterization of the behavioral trajectory of an organism. The results indicate that use of the self-similarity property solves both the problems. Additionally, the problems that must be addressed to broaden the applicability of self-similarity are discussed.https://ieeexplore.ieee.org/document/9433597/Animal behaviorclassificationdata structurediscrete transformsentropyenvironmental monitoring
spellingShingle Sang-Hee Lee
Cheol-Min Park
A New Measure to Characterize the Self-Similarity of Binary Time Series and its Application
IEEE Access
Animal behavior
classification
data structure
discrete transforms
entropy
environmental monitoring
title A New Measure to Characterize the Self-Similarity of Binary Time Series and its Application
title_full A New Measure to Characterize the Self-Similarity of Binary Time Series and its Application
title_fullStr A New Measure to Characterize the Self-Similarity of Binary Time Series and its Application
title_full_unstemmed A New Measure to Characterize the Self-Similarity of Binary Time Series and its Application
title_short A New Measure to Characterize the Self-Similarity of Binary Time Series and its Application
title_sort new measure to characterize the self similarity of binary time series and its application
topic Animal behavior
classification
data structure
discrete transforms
entropy
environmental monitoring
url https://ieeexplore.ieee.org/document/9433597/
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