Fractional stochastic vibration system under recycling noise

The fractional stochastic vibration system is quite different from the traditional one, and its application potential is enormous if the noise can be deployed correctly and the connection between the fractional order and the noise property is unlocked. This article uses a fractional modification of...

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Main Authors: Jian-Gang Zhang, Fang Wang, Hui-Nan Wang
Format: Article
Language:English
Published: Frontiers Media S.A. 2023-08-01
Series:Frontiers in Physics
Subjects:
Online Access:https://www.frontiersin.org/articles/10.3389/fphy.2023.1238901/full
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author Jian-Gang Zhang
Fang Wang
Hui-Nan Wang
author_facet Jian-Gang Zhang
Fang Wang
Hui-Nan Wang
author_sort Jian-Gang Zhang
collection DOAJ
description The fractional stochastic vibration system is quite different from the traditional one, and its application potential is enormous if the noise can be deployed correctly and the connection between the fractional order and the noise property is unlocked. This article uses a fractional modification of the well-known van der Pol oscillator with multiplicative and additive recycling noises as an example to study its stationary response and its stochastic bifurcation. First, based on the principle of the minimum mean square error, the fractional derivative is equivalent to a linear combination of damping and restoring forces, and the original system is simplified into an equivalent integer order system. Second, the Itô differential equations and One-dimensional Markov process are obtained according to the stochastic averaging method, using Oseledec multiplicative ergodic theorem and maximal Lyapunov exponent to judge local stability, and judging global stability is done by using the singularity theory. Lastly, the stochastic D-bifurcation behavior of the model is analyzed by using the Lyapunov exponent of the dynamical system invariant measure, and the stationary probability density function of the system is solved according to the FPK equation. The results show that the fractional order and noise property can greatly affect the system’s dynamical properties. This paper offers a profound, original, and challenging window for investigating fractional stochastic vibration systems.
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spelling doaj.art-bcbec92277b84a8ea2fa75ebc2d5790f2023-08-02T13:05:10ZengFrontiers Media S.A.Frontiers in Physics2296-424X2023-08-011110.3389/fphy.2023.12389011238901Fractional stochastic vibration system under recycling noiseJian-Gang ZhangFang WangHui-Nan WangThe fractional stochastic vibration system is quite different from the traditional one, and its application potential is enormous if the noise can be deployed correctly and the connection between the fractional order and the noise property is unlocked. This article uses a fractional modification of the well-known van der Pol oscillator with multiplicative and additive recycling noises as an example to study its stationary response and its stochastic bifurcation. First, based on the principle of the minimum mean square error, the fractional derivative is equivalent to a linear combination of damping and restoring forces, and the original system is simplified into an equivalent integer order system. Second, the Itô differential equations and One-dimensional Markov process are obtained according to the stochastic averaging method, using Oseledec multiplicative ergodic theorem and maximal Lyapunov exponent to judge local stability, and judging global stability is done by using the singularity theory. Lastly, the stochastic D-bifurcation behavior of the model is analyzed by using the Lyapunov exponent of the dynamical system invariant measure, and the stationary probability density function of the system is solved according to the FPK equation. The results show that the fractional order and noise property can greatly affect the system’s dynamical properties. This paper offers a profound, original, and challenging window for investigating fractional stochastic vibration systems.https://www.frontiersin.org/articles/10.3389/fphy.2023.1238901/fullvan der Pol systemfractional derivativerecycling noisestochastic averaging methodstochastic bifurcation
spellingShingle Jian-Gang Zhang
Fang Wang
Hui-Nan Wang
Fractional stochastic vibration system under recycling noise
Frontiers in Physics
van der Pol system
fractional derivative
recycling noise
stochastic averaging method
stochastic bifurcation
title Fractional stochastic vibration system under recycling noise
title_full Fractional stochastic vibration system under recycling noise
title_fullStr Fractional stochastic vibration system under recycling noise
title_full_unstemmed Fractional stochastic vibration system under recycling noise
title_short Fractional stochastic vibration system under recycling noise
title_sort fractional stochastic vibration system under recycling noise
topic van der Pol system
fractional derivative
recycling noise
stochastic averaging method
stochastic bifurcation
url https://www.frontiersin.org/articles/10.3389/fphy.2023.1238901/full
work_keys_str_mv AT jiangangzhang fractionalstochasticvibrationsystemunderrecyclingnoise
AT fangwang fractionalstochasticvibrationsystemunderrecyclingnoise
AT huinanwang fractionalstochasticvibrationsystemunderrecyclingnoise