Rheological Burgers–Faraday Models and Rheological Dynamical Systems with Fractional Derivatives and Their Application in Biomechanics

Two rheological Burgers–Faraday models and rheological dynamical systems were created by using two new rheological models: Kelvin–Voigt–Faraday fractional-type model and Maxwell–Faraday fractional-type model. The Burgers–Faraday models described in the paper are new models that examine the dynamical...

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Main Authors: Katica R. (Stevanović) Hedrih, Andjelka N. Hedrih
Format: Article
Language:English
Published: MDPI AG 2024-12-01
Series:Fractal and Fractional
Subjects:
Online Access:https://www.mdpi.com/2504-3110/8/12/742
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author Katica R. (Stevanović) Hedrih
Andjelka N. Hedrih
author_facet Katica R. (Stevanović) Hedrih
Andjelka N. Hedrih
author_sort Katica R. (Stevanović) Hedrih
collection DOAJ
description Two rheological Burgers–Faraday models and rheological dynamical systems were created by using two new rheological models: Kelvin–Voigt–Faraday fractional-type model and Maxwell–Faraday fractional-type model. The Burgers–Faraday models described in the paper are new models that examine the dynamical behavior of materials with coupled fields: mechanical stress and strain and the electric field of polarization through the Faraday element. The analysis of the constitutive relation of the fractional order for Burgers–Faraday models is given. Two Burgers–Faraday fractional-type dynamical systems were created under certain approximations. Both rheological Burgers-Faraday dynamic systems have two internal degrees of freedom, which are introduced into the system by each standard light Burgers-Faraday bonding element. It is shown that the sequence of bonding elements in the structure of the standard light Burgers-Faraday bonding element changes the dynamic properties of the rheological dynamic system, so that in one case the system behaves as a fractional-type oscillator, while in the other case, it exhibits a creeping or pulsating behavior under the influence of an external periodic force. These models of rheological dynamic systems can be used to model new natural and synthetic biomaterials that possess both viscoelastic/viscoplastic and piezoelectric properties and have dynamical properties of stress relaxation.
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spelling doaj-art-4e4581ea61d849fc9055da9a2eb495752025-08-20T02:53:35ZengMDPI AGFractal and Fractional2504-31102024-12-0181274210.3390/fractalfract8120742Rheological Burgers–Faraday Models and Rheological Dynamical Systems with Fractional Derivatives and Their Application in BiomechanicsKatica R. (Stevanović) Hedrih0Andjelka N. Hedrih1Department of Mechanics, Mathematical Institute of Serbian Academy of Science and Arts, 11000 Belgrade, SerbiaDepartment of Mechanics, Mathematical Institute of Serbian Academy of Science and Arts, 11000 Belgrade, SerbiaTwo rheological Burgers–Faraday models and rheological dynamical systems were created by using two new rheological models: Kelvin–Voigt–Faraday fractional-type model and Maxwell–Faraday fractional-type model. The Burgers–Faraday models described in the paper are new models that examine the dynamical behavior of materials with coupled fields: mechanical stress and strain and the electric field of polarization through the Faraday element. The analysis of the constitutive relation of the fractional order for Burgers–Faraday models is given. Two Burgers–Faraday fractional-type dynamical systems were created under certain approximations. Both rheological Burgers-Faraday dynamic systems have two internal degrees of freedom, which are introduced into the system by each standard light Burgers-Faraday bonding element. It is shown that the sequence of bonding elements in the structure of the standard light Burgers-Faraday bonding element changes the dynamic properties of the rheological dynamic system, so that in one case the system behaves as a fractional-type oscillator, while in the other case, it exhibits a creeping or pulsating behavior under the influence of an external periodic force. These models of rheological dynamic systems can be used to model new natural and synthetic biomaterials that possess both viscoelastic/viscoplastic and piezoelectric properties and have dynamical properties of stress relaxation.https://www.mdpi.com/2504-3110/8/12/742rheological models of fractional type with piezo-electrical propertiesviscous fluidBurgers–Faraday fractional-type modelrheological Burgers–Faraday dynamical systemoscillator of fractional type with piezoelectric propertiescreeper of fractional type with piezoelectric properties
spellingShingle Katica R. (Stevanović) Hedrih
Andjelka N. Hedrih
Rheological Burgers–Faraday Models and Rheological Dynamical Systems with Fractional Derivatives and Their Application in Biomechanics
Fractal and Fractional
rheological models of fractional type with piezo-electrical properties
viscous fluid
Burgers–Faraday fractional-type model
rheological Burgers–Faraday dynamical system
oscillator of fractional type with piezoelectric properties
creeper of fractional type with piezoelectric properties
title Rheological Burgers–Faraday Models and Rheological Dynamical Systems with Fractional Derivatives and Their Application in Biomechanics
title_full Rheological Burgers–Faraday Models and Rheological Dynamical Systems with Fractional Derivatives and Their Application in Biomechanics
title_fullStr Rheological Burgers–Faraday Models and Rheological Dynamical Systems with Fractional Derivatives and Their Application in Biomechanics
title_full_unstemmed Rheological Burgers–Faraday Models and Rheological Dynamical Systems with Fractional Derivatives and Their Application in Biomechanics
title_short Rheological Burgers–Faraday Models and Rheological Dynamical Systems with Fractional Derivatives and Their Application in Biomechanics
title_sort rheological burgers faraday models and rheological dynamical systems with fractional derivatives and their application in biomechanics
topic rheological models of fractional type with piezo-electrical properties
viscous fluid
Burgers–Faraday fractional-type model
rheological Burgers–Faraday dynamical system
oscillator of fractional type with piezoelectric properties
creeper of fractional type with piezoelectric properties
url https://www.mdpi.com/2504-3110/8/12/742
work_keys_str_mv AT katicarstevanovichedrih rheologicalburgersfaradaymodelsandrheologicaldynamicalsystemswithfractionalderivativesandtheirapplicationinbiomechanics
AT andjelkanhedrih rheologicalburgersfaradaymodelsandrheologicaldynamicalsystemswithfractionalderivativesandtheirapplicationinbiomechanics