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Multiscale modeling of pure nickel

  • Shane A. Brauer
  • , Imran Aslam
  • , Andrew Bowman
  • , Bradley Huddleston
  • , Justin Huges
  • , Daniel Johnson
  • , William B. Lawrimore
  • , Luke A. Peterson
  • , William Shelton
  • , Mark F. Horstemeyer

Research output: Chapter in Book/Report/Conference proceedingChapterpeer-review

Abstract

This chapter explores how the multiscale methodology is applied, a “structural” scale three-point bend experiment under large deformation for pure nickel. It shows the schematic representation of Bridge 1 between the electron and atom length scales and Bridge 4 between the electron and the continuum element associated with the elastic moduli results for nickel. The chapter describes the schematic representation of Bridge 2 between atoms and dislocations length scales and Bridge 5 associated with temperature dependence between atoms and the continuum for nickel. It also shows the schematic representation of Bridge 3 between the dislocation and the single crystal length scales and Bridge 6 associated with dislocation motion between dislocations and the continuum for nickel. The Bridge 7 concept calibrates a macroscale continuum model for the prediction of a face-centered cubic nickel material’s mechanical response to deformation. The chapter explains the schematic representation of Bridge 8 between the macroscale model calibration and the structural simulation.

Original languageEnglish
Title of host publicationIntegrated Computational Materials Engineering (ICME) for Metals
Subtitle of host publicationConcepts and Case Studies
Publisherwiley
Pages465-511
Number of pages47
ISBN (Electronic)9781119018377
ISBN (Print)9781119018360
DOIs
StatePublished - Jan 1 2017
Externally publishedYes

Keywords

  • Dislocation motion
  • Elastic moduli
  • Face-centered cubic nickel
  • Macroscale continuum model
  • Multiscale methodology
  • Single crystal

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