Mathematical modelling of mode I fracture in magnetoelastic medium

The influence of a Griffith fracture on magnetic fields and stress in an infinite piezomagnetic material under tension loading and magnetic has been explored using linear theory of piezomagnetic material and suitable boundary conditions. The solutions have been obtained in closed form for Mode I fra...

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Published in:Applied physics. A, Materials science & processing Materials science & processing, 2024-10, Vol.130 (10), Article 694
Main Authors: Baroi, Juhi, Biswas, Mahargha, Paswan, Brijendra, Yvaz, A.
Format: Article
Language:English
Subjects:
Boundary conditions
Characterization and Evaluation of Materials
Condensed Matter Physics
Crack tips
Griffith Irwin fracture
Machines
Magnetic fields
Manufacturing
Nanotechnology
Nonlinear phenomena
Optical and Electronic Materials
Physics
Physics and Astronomy
Processes
Surfaces and Interfaces
Thin Films
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Biswas, Mahargha
Paswan, Brijendra
Yvaz, A.
description The influence of a Griffith fracture on magnetic fields and stress in an infinite piezomagnetic material under tension loading and magnetic has been explored using linear theory of piezomagnetic material and suitable boundary conditions. The solutions have been obtained in closed form for Mode I fracture and external loading utilised to open the fracture. The rate of energy release has been determined for the non-zero magnetic field within the fracture at the crack tip. During computation of driving force, the magnetostatic energy has been taken into account and it has been observed that the rate of energy release is the cubic function of external loading. The findings could be utilised to explain various nonlinear phenomena in piezomagnetic ceramic for structural durability.
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subjects Boundary conditions
Characterization and Evaluation of Materials
Condensed Matter Physics
Crack tips
Griffith Irwin fracture
Machines
Magnetic fields
Manufacturing
Nanotechnology
Nonlinear phenomena
Optical and Electronic Materials
Physics
Physics and Astronomy
Processes
Surfaces and Interfaces
Thin Films
title Mathematical modelling of mode I fracture in magnetoelastic medium
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