Simple Chaotic Oscillator: From Mathematical Model to Practical Experiment

This paper shows the circuitry implementation and practical verification of the autonomous nonlinear oscillator. Since it is described by a single third-order differential equation, its state variables can be considered as the position, velocity and acceleration and thus have direct connection to a...

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Main Authors: S. Hanus, Z. Kolka, J. Petrzela
Format: Article
Language:English
Published: Spolecnost pro radioelektronicke inzenyrstvi 2006-04-01
Series:Radioengineering
Subjects:
Online Access:http://www.radioeng.cz/fulltexts/2006/06_01_06_12.pdf
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author S. Hanus
Z. Kolka
J. Petrzela
author_facet S. Hanus
Z. Kolka
J. Petrzela
author_sort S. Hanus
collection DOAJ
description This paper shows the circuitry implementation and practical verification of the autonomous nonlinear oscillator. Since it is described by a single third-order differential equation, its state variables can be considered as the position, velocity and acceleration and thus have direct connection to a real physical system. Moreover, for some specific configurations of internal system parameters, it can exhibit a period doubling bifurcation leading to chaos. Two different structures of the nonlinear element were verified by a comparison of numerically integrated trajectory with the oscilloscope screenshots .
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spelling doaj.art-26c9b6aa28b14cf6b0f67252eba9d85b2022-12-21T19:26:39ZengSpolecnost pro radioelektronicke inzenyrstviRadioengineering1210-25122006-04-01151612Simple Chaotic Oscillator: From Mathematical Model to Practical ExperimentS. HanusZ. KolkaJ. PetrzelaThis paper shows the circuitry implementation and practical verification of the autonomous nonlinear oscillator. Since it is described by a single third-order differential equation, its state variables can be considered as the position, velocity and acceleration and thus have direct connection to a real physical system. Moreover, for some specific configurations of internal system parameters, it can exhibit a period doubling bifurcation leading to chaos. Two different structures of the nonlinear element were verified by a comparison of numerically integrated trajectory with the oscilloscope screenshots .www.radioeng.cz/fulltexts/2006/06_01_06_12.pdfNonlinear oscillatorchaosLyapunov exponentscircuit realizationmeasurement
spellingShingle S. Hanus
Z. Kolka
J. Petrzela
Simple Chaotic Oscillator: From Mathematical Model to Practical Experiment
Radioengineering
Nonlinear oscillator
chaos
Lyapunov exponents
circuit realization
measurement
title Simple Chaotic Oscillator: From Mathematical Model to Practical Experiment
title_full Simple Chaotic Oscillator: From Mathematical Model to Practical Experiment
title_fullStr Simple Chaotic Oscillator: From Mathematical Model to Practical Experiment
title_full_unstemmed Simple Chaotic Oscillator: From Mathematical Model to Practical Experiment
title_short Simple Chaotic Oscillator: From Mathematical Model to Practical Experiment
title_sort simple chaotic oscillator from mathematical model to practical experiment
topic Nonlinear oscillator
chaos
Lyapunov exponents
circuit realization
measurement
url http://www.radioeng.cz/fulltexts/2006/06_01_06_12.pdf
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AT zkolka simplechaoticoscillatorfrommathematicalmodeltopracticalexperiment
AT jpetrzela simplechaoticoscillatorfrommathematicalmodeltopracticalexperiment