Effect of the magnetic field on the thermomechanical flexural wave propagation of embedded sandwich nanobeams

Eroğlu, Mustafa; Esen, İsmail; Koç, Mehmet Akif

doi:10.1080/15397734.2024.2308659

Cited by 6 publications

(1 citation statement)

References 93 publications

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“…Research on the surface effects of anti-plane shear waves in magnetoelectro-elastic nanoplates has indicated that surface parameters strongly affect elastic wave propagation and dispersion properties [26]. Investigating the thermo-mechanical bending wave propagation in a sandwich nanobeam, the work utilizes the theories of advanced sandwich nanobeams and nanolocal strain gradient elasticity [27].…”

Section: Introductionmentioning

confidence: 99%

Managing the surface piezoelectricity effect of the smart ZnO sandwich nanoplates using metal foam core layer and GPRL reinforced rim layers

Eroğlu,

Esen,

Koç

2024

Preprint

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This work examines the vibration characteristics of a sandwich nanosensor plate. The plate comprises a core material of nickel foams, with zinc oxide layers on the top and bottom and a rim layer reinforced with graphene. The study takes into account the surface effect. The study employed the innovative sinusoidal higher-order deformation theory and nonlocal strain gradient elasticity theory. Hamilton's principle obtained the equations governing the motion of a sandwich nanoplate. The Navier method was employed to solve these equations. The sandwich nanosensor plate consists of three different foam variants: a uniform foam model and two symmetric foam models. The work focused on analyzing the sandwich nanoplate's dimensionless fundamental natural frequencies. This investigation examined the impact of three different types of foam, the volumetric ratio of graphene, variations in temperature, nonlocal factors, the ratio of foam void, and electric potential. Additionally, the effect of the presence or absence of surface effects of the sandwich nanoplate on the non-dimensional fundamental natural frequencies was analyzed. Within this context, it was established that the buckling temperature of the nanoplate exhibited an estimated increase of 0.7% due to the surface effect. The research is expected to produce useful discoveries concerning developing and applying nanosensors, transducers, and nanoelectromechanical systems designed to function in high-temperature conditions. It has been noted that the surface impact can be diminished by increasing the stiffness of the foam core layer and supporting rim layers.

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Section: Introductionmentioning

confidence: 99%

Managing the surface piezoelectricity effect of the smart ZnO sandwich nanoplates using metal foam core layer and GPRL reinforced rim layers

Eroğlu,

Esen,

Koç

2024

Preprint

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Thermal and Mechanical Vibration Response of Auxetic Core Sandwich Smart Nanoplate

Koç,

Esen,

Eroğlu

2024

Adv Eng Mater

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This study explores a new nanoplate design’s thermal and mechanical properties, including an auxetic core with a negative Poisson ratio. The core is between face plates made of Barium‐Cobalt, which possess magneto‐electroelastic properties. The analysis centers on the parameters θ, β 1 , and β 2 to clarify their influence on the nanoplate’s performance. The evaluations of the nanoplate’s thermal, electrical, and magnetic properties showcase its remarkable versatility and sensitivity. Incorporating magneto‐electroelastic face plates improves the multifunctionality of the nanoplate, making it a highly promising option for use in smart technologies. The findings offer valuable insights into the distinctive features of auxetic core structures, significantly enhancing the comprehension of these materials. This research emphasizes the potential for creating groundbreaking applications in fields like aerospace engineering and advanced electronics, where versatile and adaptable materials play a vital role. This study contributes to the broader knowledge of auxetic materials and their practical implementation in cutting‐edge technological solutions by exploring the interplay between thermal, mechanical, and magneto‐electroelastic properties.This article is protected by copyright. All rights reserved.

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Managing the surface piezoelectricity effect of the smart ZnO sandwich nanoplates using metal foam core layer and GPRL reinforced rim layers

Eroğlu,

Esen,

Koç

2024

Microsyst Technol

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Effect of the magnetic field on the thermomechanical flexural wave propagation of embedded sandwich nanobeams

Cited by 6 publications

References 93 publications

Managing the surface piezoelectricity effect of the smart ZnO sandwich nanoplates using metal foam core layer and GPRL reinforced rim layers

Managing the surface piezoelectricity effect of the smart ZnO sandwich nanoplates using metal foam core layer and GPRL reinforced rim layers

Thermal and Mechanical Vibration Response of Auxetic Core Sandwich Smart Nanoplate

Managing the surface piezoelectricity effect of the smart ZnO sandwich nanoplates using metal foam core layer and GPRL reinforced rim layers

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