On the implementation of a material point‐based arc‐length method

Summary The material point method is a versatile technique which can be used to solve various types of solid mechanics problems, especially those involving large deformations. However, the capability of the material point method to track a load‐displacement response can deteriorate once a limit poin...

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Veröffentlicht in:International journal for numerical methods in engineering 2024-05, Vol.125 (9), p.n/a
Hauptverfasser: Gavin, Nathan D., Pretti, Giuliano, Coombs, William M., Brigham, John C., Augarde, Charles E.
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container_issue 9
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container_title International journal for numerical methods in engineering
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creator Gavin, Nathan D.
Pretti, Giuliano
Coombs, William M.
Brigham, John C.
Augarde, Charles E.
description Summary The material point method is a versatile technique which can be used to solve various types of solid mechanics problems, especially those involving large deformations. However, the capability of the material point method to track a load‐displacement response can deteriorate once a limit point, such as snap‐through or snap‐back, in the response is encountered. One way of overcoming this is to use path following techniques, such as an arc‐length method. This technique is well established in finite element analysis but not within any material point method formulation. This paper provides for the first time an arc‐length controlled implicit, quasi‐static material point method. The modifications to the standard arc‐length scheme to allow for the stable execution of an arc‐length solver within the material point method are detailed. The capability of the material point‐based arc‐length method is demonstrated through a number of problems, which include linear elastic, non‐linear elastic, linear elastic‐perfectly plastic and linear elastic‐plastic softening material behaviour under large deformations. The techniques presented in this paper are essential for arc‐length techniques to be applied effectively to the material point method and the combination of these techniques makes the method suitable for new problems that cannot be solved with existing implicit material point approaches.
doi_str_mv 10.1002/nme.7438
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subjects arc‐length methods
Elastic deformation
elastoplasticity
Finite element method
large deformation mechanics
material point method
snap‐through
Solid mechanics
Trajectory planning
title On the implementation of a material point‐based arc‐length method
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