Observation and simulation of indentation damage in a  SiC-SiCfibre ceramic matrix composite

Luis Saucedo-Mora; Mahmoud Mostafavi; Danial Khoshkhou; Christina Reinhard; Robert Atwood; Shuang Zhao; Brian Connolly; Thomas James Marrow

doi:10.1016/j.finel.2015.11.003

Observation and simulation of indentation damage in a SiC-SiC_fibre ceramic matrix composite

Luis Saucedo-Mora^*, Mahmoud Mostafavi, Danial Khoshkhou, Christina Reinhard, Robert Atwood, Shuang Zhao, Brian Connolly, Thomas James Marrow

^*Corresponding author for this work

Research output: Contribution to journal › Article (Academic Journal) › peer-review

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Abstract

FEMME, a multi-scale Finite Element Microstructure MEshfree fracture model has been applied to simulate the effect of microstructure on the development of discontinuous cracking and damage coalescence during the Hertzian indentation of a SiC–SiC fibre composite. This was studied experimentally by digital volume correlation analysis of high-resolution synchrotron X-ray computed tomographs, which quantified the damage via measurement of the 3D displacement fields within the material. The experimental data are compared with the model simulations, and demonstrate the applicability of the modelling strategy to simulate damage development in a heterogeneous quasi-brittle material.

Original language	English
Pages (from-to)	11-19
Number of pages	9
Journal	Finite Elements in Analysis and Design
Volume	110
Early online date	9 Dec 2015
DOIs	https://doi.org/10.1016/j.finel.2015.11.003
Publication status	Published - Mar 2016

Keywords

X-ray computed tomography
Digital volume correlation
Hertzian indentation
Microstructure
SiC–SiC fibre composite
Finite elements
Meshfree
Multi-scale

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title = "Observation and simulation of indentation damage in a SiC-SiCfibre ceramic matrix composite",

abstract = "FEMME, a multi-scale Finite Element Microstructure MEshfree fracture model has been applied to simulate the effect of microstructure on the development of discontinuous cracking and damage coalescence during the Hertzian indentation of a SiC–SiC fibre composite. This was studied experimentally by digital volume correlation analysis of high-resolution synchrotron X-ray computed tomographs, which quantified the damage via measurement of the 3D displacement fields within the material. The experimental data are compared with the model simulations, and demonstrate the applicability of the modelling strategy to simulate damage development in a heterogeneous quasi-brittle material.",

keywords = "X-ray computed tomography, Digital volume correlation, Hertzian indentation, Microstructure, SiC–SiC fibre composite, Finite elements, Meshfree, Multi-scale",

author = "Luis Saucedo-Mora and Mahmoud Mostafavi and Danial Khoshkhou and Christina Reinhard and Robert Atwood and Shuang Zhao and Brian Connolly and Marrow, \{Thomas James\}",

year = "2016",

month = mar,

doi = "10.1016/j.finel.2015.11.003",

language = "English",

volume = "110",

pages = "11--19",

journal = "Finite Elements in Analysis and Design",

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publisher = "Elsevier B.V.",

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AU - Saucedo-Mora, Luis

AU - Mostafavi, Mahmoud

AU - Khoshkhou, Danial

AU - Reinhard, Christina

AU - Atwood, Robert

AU - Zhao, Shuang

AU - Connolly, Brian

AU - Marrow, Thomas James

PY - 2016/3

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AB - FEMME, a multi-scale Finite Element Microstructure MEshfree fracture model has been applied to simulate the effect of microstructure on the development of discontinuous cracking and damage coalescence during the Hertzian indentation of a SiC–SiC fibre composite. This was studied experimentally by digital volume correlation analysis of high-resolution synchrotron X-ray computed tomographs, which quantified the damage via measurement of the 3D displacement fields within the material. The experimental data are compared with the model simulations, and demonstrate the applicability of the modelling strategy to simulate damage development in a heterogeneous quasi-brittle material.

KW - X-ray computed tomography

KW - Digital volume correlation

KW - Hertzian indentation

KW - Microstructure

KW - SiC–SiC fibre composite

KW - Finite elements

KW - Meshfree

KW - Multi-scale

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U2 - 10.1016/j.finel.2015.11.003

DO - 10.1016/j.finel.2015.11.003

M3 - Article (Academic Journal)

AN - SCOPUS:84950123690

SN - 0168-874X

VL - 110

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EP - 19

JO - Finite Elements in Analysis and Design

JF - Finite Elements in Analysis and Design

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