author_facet Nayak, Sumeru
Ravinder, R
Krishnan, N M Anoop
Das, Sumanta
Nayak, Sumeru
Ravinder, R
Krishnan, N M Anoop
Das, Sumanta
author Nayak, Sumeru
Ravinder, R
Krishnan, N M Anoop
Das, Sumanta
spellingShingle Nayak, Sumeru
Ravinder, R
Krishnan, N M Anoop
Das, Sumanta
Materials
A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
General Materials Science
author_sort nayak, sumeru
spelling Nayak, Sumeru Ravinder, R Krishnan, N M Anoop Das, Sumanta 1996-1944 MDPI AG General Materials Science http://dx.doi.org/10.3390/ma13061298 <jats:p>This paper presents a peridynamics-based micromechanical analysis framework that can efficiently handle material failure for random heterogeneous structural materials. In contrast to conventional continuum-based approaches, this method can handle discontinuities such as fracture without requiring supplemental mathematical relations. The framework presented here generates representative unit cells based on microstructural information on the material and assigns distinct material behavior to the constituent phases in the random heterogenous microstructures. The framework incorporates spontaneous failure initiation/propagation based on the critical stretch criterion in peridynamics and predicts effective constitutive response of the material. The current framework is applied to a metallic particulate-reinforced cementitious composite. The simulated mechanical responses show excellent match with experimental observations signifying efficacy of the peridynamics-based micromechanical framework for heterogenous composites. Thus, the multiscale peridynamics-based framework can efficiently facilitate microstructure guided material design for a large class of inclusion-modified random heterogenous materials.</jats:p> A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials Materials
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title A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
title_unstemmed A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
title_full A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
title_fullStr A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
title_full_unstemmed A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
title_short A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
title_sort a peridynamics-based micromechanical modeling approach for random heterogeneous structural materials
topic General Materials Science
url http://dx.doi.org/10.3390/ma13061298
publishDate 2020
physical 1298
description <jats:p>This paper presents a peridynamics-based micromechanical analysis framework that can efficiently handle material failure for random heterogeneous structural materials. In contrast to conventional continuum-based approaches, this method can handle discontinuities such as fracture without requiring supplemental mathematical relations. The framework presented here generates representative unit cells based on microstructural information on the material and assigns distinct material behavior to the constituent phases in the random heterogenous microstructures. The framework incorporates spontaneous failure initiation/propagation based on the critical stretch criterion in peridynamics and predicts effective constitutive response of the material. The current framework is applied to a metallic particulate-reinforced cementitious composite. The simulated mechanical responses show excellent match with experimental observations signifying efficacy of the peridynamics-based micromechanical framework for heterogenous composites. Thus, the multiscale peridynamics-based framework can efficiently facilitate microstructure guided material design for a large class of inclusion-modified random heterogenous materials.</jats:p>
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author Nayak, Sumeru, Ravinder, R, Krishnan, N M Anoop, Das, Sumanta
author_facet Nayak, Sumeru, Ravinder, R, Krishnan, N M Anoop, Das, Sumanta, Nayak, Sumeru, Ravinder, R, Krishnan, N M Anoop, Das, Sumanta
author_sort nayak, sumeru
container_issue 6
container_start_page 0
container_title Materials
container_volume 13
description <jats:p>This paper presents a peridynamics-based micromechanical analysis framework that can efficiently handle material failure for random heterogeneous structural materials. In contrast to conventional continuum-based approaches, this method can handle discontinuities such as fracture without requiring supplemental mathematical relations. The framework presented here generates representative unit cells based on microstructural information on the material and assigns distinct material behavior to the constituent phases in the random heterogenous microstructures. The framework incorporates spontaneous failure initiation/propagation based on the critical stretch criterion in peridynamics and predicts effective constitutive response of the material. The current framework is applied to a metallic particulate-reinforced cementitious composite. The simulated mechanical responses show excellent match with experimental observations signifying efficacy of the peridynamics-based micromechanical framework for heterogenous composites. Thus, the multiscale peridynamics-based framework can efficiently facilitate microstructure guided material design for a large class of inclusion-modified random heterogenous materials.</jats:p>
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spelling Nayak, Sumeru Ravinder, R Krishnan, N M Anoop Das, Sumanta 1996-1944 MDPI AG General Materials Science http://dx.doi.org/10.3390/ma13061298 <jats:p>This paper presents a peridynamics-based micromechanical analysis framework that can efficiently handle material failure for random heterogeneous structural materials. In contrast to conventional continuum-based approaches, this method can handle discontinuities such as fracture without requiring supplemental mathematical relations. The framework presented here generates representative unit cells based on microstructural information on the material and assigns distinct material behavior to the constituent phases in the random heterogenous microstructures. The framework incorporates spontaneous failure initiation/propagation based on the critical stretch criterion in peridynamics and predicts effective constitutive response of the material. The current framework is applied to a metallic particulate-reinforced cementitious composite. The simulated mechanical responses show excellent match with experimental observations signifying efficacy of the peridynamics-based micromechanical framework for heterogenous composites. Thus, the multiscale peridynamics-based framework can efficiently facilitate microstructure guided material design for a large class of inclusion-modified random heterogenous materials.</jats:p> A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials Materials
spellingShingle Nayak, Sumeru, Ravinder, R, Krishnan, N M Anoop, Das, Sumanta, Materials, A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials, General Materials Science
title A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
title_full A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
title_fullStr A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
title_full_unstemmed A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
title_short A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
title_sort a peridynamics-based micromechanical modeling approach for random heterogeneous structural materials
title_unstemmed A Peridynamics-Based Micromechanical Modeling Approach for Random Heterogeneous Structural Materials
topic General Materials Science
url http://dx.doi.org/10.3390/ma13061298