Mathematical Generalization of Experimental Results on the Development of Single Twin Layers in Metal Materials

Authors

  • M.E. Bosin Municipal Institution “Kharkiv Humanitarian and Pedagogical Academy” of the Kharkiv Regional Council
  • T.G. Drygach Municipal Institution “Kharkiv Humanitarian and Pedagogical Academy” of the Kharkiv Regional Council
  • V.M. Russkin Municipal Institution “Kharkiv Humanitarian and Pedagogical Academy” of the Kharkiv Regional Council

DOI:

https://doi.org/10.15407/ujpe66.9.811

Keywords:

mathematical model, model parameters, twin, twin boundary, dislocation structure, creep mode, active load, pulsating load, alternating load, hardening, Bauschinger effect, forest dislocations, initial conditions

Abstract

A mathematical model has been proposed for the development of single twin layers in metal crystals under various loading regimes and various conditions. The model parameters depend on the geometric characteristics of the twin layer, the physical characteristics of the crystal, the Burgers vector, and the motion velocity of twin dislocations. Methods for the determination of the phenomenological parameters from experimental data were developed. In some cases, a comparison of the parameter values calculated in the framework of the proposed mathematical model with those obtained from experimental data was made, which demonstrated their satisfactory consistency. The proposed model can be useful for the development of a quantitative theory of twinning.

References

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Published

2021-10-04

How to Cite

Bosin, M., Drygach, T., & Russkin, V. (2021). Mathematical Generalization of Experimental Results on the Development of Single Twin Layers in Metal Materials. Ukrainian Journal of Physics, 66(9), 811. https://doi.org/10.15407/ujpe66.9.811

Issue

Section

Structure of materials