Fractional Moore–Gibson–Thompson Heat Conduction for Vibration Analysis of Non-Local Thermoelastic Micro-Beams on a Viscoelastic Pasternak Foundation

This study aims to investigate the behavior of viscoelastic materials exhibiting complex mechanical behavior characterized by both elastic and viscous properties. They are widely used in various engineering applications, such as structural components, transportation systems, energy storage devices,...

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Main Authors: Yahya Ahmed, Adam Zakria, Osman Abdalla Adam Osman, Muntasir Suhail, Mohammed Nour A. Rabih
Format: Article
Language:English
Published: MDPI AG 2025-02-01
Series:Fractal and Fractional
Subjects:
Online Access:https://www.mdpi.com/2504-3110/9/2/118
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author Yahya Ahmed
Adam Zakria
Osman Abdalla Adam Osman
Muntasir Suhail
Mohammed Nour A. Rabih
author_facet Yahya Ahmed
Adam Zakria
Osman Abdalla Adam Osman
Muntasir Suhail
Mohammed Nour A. Rabih
author_sort Yahya Ahmed
collection DOAJ
description This study aims to investigate the behavior of viscoelastic materials exhibiting complex mechanical behavior characterized by both elastic and viscous properties. They are widely used in various engineering applications, such as structural components, transportation systems, energy storage devices, microelectromechanical systems (MEMS), and earthquake research and detection. Accurate modeling of viscoelastic behavior is crucial for predicting its performance under dynamic loading conditions. In this study, we modify the equations governing the thermoelastic resistance to describe the thermal variables of a thermoelastic micro-beam supported by a two-parameter Pasternak viscoelastic foundation by using a fractional Moore–Gibson–Thompson (MGT) model in the context of non-locality. The temperature, bending displacement, and moment were computed and graphically displayed using the Laplace transform method. Different theoretical approaches have been compared in order to explain how the phase delay affects physical phenomena. Numerical results show that the wave fluctuations of variables in thermoelastic micro-beams are slightly smaller for the studied model and that the speed of these plane waves depends on fractional and non-local parameters.
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series Fractal and Fractional
spelling doaj-art-2fbbe50fcac3432ba459787f31db7d892025-08-20T02:44:42ZengMDPI AGFractal and Fractional2504-31102025-02-019211810.3390/fractalfract9020118Fractional Moore–Gibson–Thompson Heat Conduction for Vibration Analysis of Non-Local Thermoelastic Micro-Beams on a Viscoelastic Pasternak FoundationYahya Ahmed0Adam Zakria1Osman Abdalla Adam Osman2Muntasir Suhail3Mohammed Nour A. Rabih4Department of Mathematics, College of Science, Jouf University, Sakaka 2014, Saudi ArabiaDepartment of Mathematics, College of Science, Jouf University, Sakaka 2014, Saudi ArabiaDepartment of Mathematics, College of Science, Qassim University, Buraydah 51452, Saudi ArabiaDepartment of Mathematics, College of Science, Qassim University, Buraydah 51452, Saudi ArabiaDepartment of Mathematics, College of Science, Qassim University, Buraydah 51452, Saudi ArabiaThis study aims to investigate the behavior of viscoelastic materials exhibiting complex mechanical behavior characterized by both elastic and viscous properties. They are widely used in various engineering applications, such as structural components, transportation systems, energy storage devices, microelectromechanical systems (MEMS), and earthquake research and detection. Accurate modeling of viscoelastic behavior is crucial for predicting its performance under dynamic loading conditions. In this study, we modify the equations governing the thermoelastic resistance to describe the thermal variables of a thermoelastic micro-beam supported by a two-parameter Pasternak viscoelastic foundation by using a fractional Moore–Gibson–Thompson (MGT) model in the context of non-locality. The temperature, bending displacement, and moment were computed and graphically displayed using the Laplace transform method. Different theoretical approaches have been compared in order to explain how the phase delay affects physical phenomena. Numerical results show that the wave fluctuations of variables in thermoelastic micro-beams are slightly smaller for the studied model and that the speed of these plane waves depends on fractional and non-local parameters.https://www.mdpi.com/2504-3110/9/2/118thermoelasticnon-localmicro-beamsnumerical resultsfoundationPasternak
spellingShingle Yahya Ahmed
Adam Zakria
Osman Abdalla Adam Osman
Muntasir Suhail
Mohammed Nour A. Rabih
Fractional Moore–Gibson–Thompson Heat Conduction for Vibration Analysis of Non-Local Thermoelastic Micro-Beams on a Viscoelastic Pasternak Foundation
Fractal and Fractional
thermoelastic
non-local
micro-beams
numerical results
foundation
Pasternak
title Fractional Moore–Gibson–Thompson Heat Conduction for Vibration Analysis of Non-Local Thermoelastic Micro-Beams on a Viscoelastic Pasternak Foundation
title_full Fractional Moore–Gibson–Thompson Heat Conduction for Vibration Analysis of Non-Local Thermoelastic Micro-Beams on a Viscoelastic Pasternak Foundation
title_fullStr Fractional Moore–Gibson–Thompson Heat Conduction for Vibration Analysis of Non-Local Thermoelastic Micro-Beams on a Viscoelastic Pasternak Foundation
title_full_unstemmed Fractional Moore–Gibson–Thompson Heat Conduction for Vibration Analysis of Non-Local Thermoelastic Micro-Beams on a Viscoelastic Pasternak Foundation
title_short Fractional Moore–Gibson–Thompson Heat Conduction for Vibration Analysis of Non-Local Thermoelastic Micro-Beams on a Viscoelastic Pasternak Foundation
title_sort fractional moore gibson thompson heat conduction for vibration analysis of non local thermoelastic micro beams on a viscoelastic pasternak foundation
topic thermoelastic
non-local
micro-beams
numerical results
foundation
Pasternak
url https://www.mdpi.com/2504-3110/9/2/118
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