Information Transmission Concept Based Model of Wave Propagation in Discrete Excitable Media

A new information transmission concept based model of excitable media with continuous outputs of the model’s cells and variable excitation time is proposed. Continuous character of the outputs instigates infinitesimal inaccuracies in calculations. It generates countless number of the cells’ excitat...

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Main Author: Š. Raudys
Format: Article
Language:English
Published: Vilnius University Press 2004-07-01
Series:Nonlinear Analysis
Subjects:
Online Access:http://www.zurnalai.vu.lt/nonlinear-analysis/article/view/15158
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spelling doaj-08df75fc64ee421ab606af2ad04b55ff2020-11-24T21:50:31ZengVilnius University PressNonlinear Analysis1392-51132335-89632004-07-019310.15388/NA.2004.9.3.15158Information Transmission Concept Based Model of Wave Propagation in Discrete Excitable MediaŠ. Raudys0Institute of Mathematics and Informatics, Lithuania A new information transmission concept based model of excitable media with continuous outputs of the model’s cells and variable excitation time is proposed. Continuous character of the outputs instigates infinitesimal inaccuracies in calculations. It generates countless number of the cells’ excitation variants that occur in front of the wave even in the homogenous and isotropic grid. New approach allows obtain many wave propagation patterns observed in real world experiments and known simulation studies. The model suggests a new spiral breakup mechanism based on tensions and gradually deepening clefts that appear in front of the wave caused by uneven propagation speed of curved and planar segments of the wave. The analysis hints that the wave breakdown and daughter wavelet bursting behavior possibly is inherent peculiarity of excitable media with weak ties between the cells, short refractory period and granular structure. The model suggested is located between cellular automaton with discrete outputs and differential equation based models and gives a new tool to simulate wave propagation patterns in applied disciplines. It is also a new line of attack aimed to understand wave bursting, propagation and annihilation processes in isotropic homogenous media. http://www.zurnalai.vu.lt/nonlinear-analysis/article/view/15158arrhythmiaburstingcellular automatonschaosdaughter waveletsspirals
collection DOAJ
language English
format Article
sources DOAJ
author Š. Raudys
spellingShingle Š. Raudys
Information Transmission Concept Based Model of Wave Propagation in Discrete Excitable Media
Nonlinear Analysis
arrhythmia
bursting
cellular automatons
chaos
daughter wavelets
spirals
author_facet Š. Raudys
author_sort Š. Raudys
title Information Transmission Concept Based Model of Wave Propagation in Discrete Excitable Media
title_short Information Transmission Concept Based Model of Wave Propagation in Discrete Excitable Media
title_full Information Transmission Concept Based Model of Wave Propagation in Discrete Excitable Media
title_fullStr Information Transmission Concept Based Model of Wave Propagation in Discrete Excitable Media
title_full_unstemmed Information Transmission Concept Based Model of Wave Propagation in Discrete Excitable Media
title_sort information transmission concept based model of wave propagation in discrete excitable media
publisher Vilnius University Press
series Nonlinear Analysis
issn 1392-5113
2335-8963
publishDate 2004-07-01
description A new information transmission concept based model of excitable media with continuous outputs of the model’s cells and variable excitation time is proposed. Continuous character of the outputs instigates infinitesimal inaccuracies in calculations. It generates countless number of the cells’ excitation variants that occur in front of the wave even in the homogenous and isotropic grid. New approach allows obtain many wave propagation patterns observed in real world experiments and known simulation studies. The model suggests a new spiral breakup mechanism based on tensions and gradually deepening clefts that appear in front of the wave caused by uneven propagation speed of curved and planar segments of the wave. The analysis hints that the wave breakdown and daughter wavelet bursting behavior possibly is inherent peculiarity of excitable media with weak ties between the cells, short refractory period and granular structure. The model suggested is located between cellular automaton with discrete outputs and differential equation based models and gives a new tool to simulate wave propagation patterns in applied disciplines. It is also a new line of attack aimed to understand wave bursting, propagation and annihilation processes in isotropic homogenous media.
topic arrhythmia
bursting
cellular automatons
chaos
daughter wavelets
spirals
url http://www.zurnalai.vu.lt/nonlinear-analysis/article/view/15158
work_keys_str_mv AT sraudys informationtransmissionconceptbasedmodelofwavepropagationindiscreteexcitablemedia
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