Standard

COLLECTIVE MIGRATION OF LOW-ANGLE TILT BOUNDARIES IN NANOCRYSTALLINE METALS UNDER FATIGUE LOADING. / Konakov, Ya. V.; Ovid'ko, I. A.; Sheinerman, A. G.; Skiba, N. V.

In: Reviews on Advanced Materials Science, Vol. 52, No. 1-2, 2017, p. 113-120.

Research output: Contribution to journal › Article › peer-review

Harvard

Konakov, YV, Ovid'ko, IA, Sheinerman, AG & Skiba, NV 2017, 'COLLECTIVE MIGRATION OF LOW-ANGLE TILT BOUNDARIES IN NANOCRYSTALLINE METALS UNDER FATIGUE LOADING', Reviews on Advanced Materials Science, vol. 52, no. 1-2, pp. 113-120.

APA

Konakov, Y. V., Ovid'ko, I. A., Sheinerman, A. G., & Skiba, N. V. (2017). COLLECTIVE MIGRATION OF LOW-ANGLE TILT BOUNDARIES IN NANOCRYSTALLINE METALS UNDER FATIGUE LOADING. Reviews on Advanced Materials Science, 52(1-2), 113-120.

Vancouver

Konakov YV, Ovid'ko IA, Sheinerman AG, Skiba NV. COLLECTIVE MIGRATION OF LOW-ANGLE TILT BOUNDARIES IN NANOCRYSTALLINE METALS UNDER FATIGUE LOADING. Reviews on Advanced Materials Science. 2017;52(1-2):113-120.

Author

Konakov, Ya. V. ; Ovid'ko, I. A. ; Sheinerman, A. G. ; Skiba, N. V. / COLLECTIVE MIGRATION OF LOW-ANGLE TILT BOUNDARIES IN NANOCRYSTALLINE METALS UNDER FATIGUE LOADING. In: Reviews on Advanced Materials Science. 2017 ; Vol. 52, No. 1-2. pp. 113-120.

BibTeX

@article{0d7a0bbc8dc94559a5a630329963fccf,
title = "COLLECTIVE MIGRATION OF LOW-ANGLE TILT BOUNDARIES IN NANOCRYSTALLINE METALS UNDER FATIGUE LOADING",
abstract = "A model is suggested that describes collective migration of two neighboring low-angle tilt boundaries in nanocrystalline metals under fatigue loading. Within the model, low-angle tilt boundaries are considered as the walls of edge lattice dislocations, while the triple junctions that terminate these boundaries contain wedge disclinations that accommodate the stress fields created by the dislocation walls. The simulation using the method of two-dimensional dislocation dynamics for the case of nanocrystalline Fe, revealed various migration modes of tilt boundaries under fatigue loading. These include the reversible migration of tilt boundaries, their split as well as their motion to adjacent high-angle grain boundaries and subsequent coalescence with these boundaries. The simulations demonstrate that the mode of boundary migration is determined by the level of the applied load and explain the recent observations of the reversible grain lattice reorientation near a crack tip in a nanocrystalline Ni-Fe alloy under fatigue loading.",
keywords = "STRESS-DRIVEN MIGRATION, INDUCED GRAIN-GROWTH, ROOM-TEMPERATURE, DISLOCATION DYNAMICS, PLASTIC-DEFORMATION, THIN-FILMS, AL, NANOINDENTATION, PARTICLES, BEHAVIOR",
author = "Konakov, {Ya. V.} and Ovid'ko, {I. A.} and Sheinerman, {A. G.} and Skiba, {N. V.}",
year = "2017",
language = "Английский",
volume = "52",
pages = "113--120",
journal = "Reviews on Advanced Materials Science",
issn = "1606-5131",
publisher = "Институт проблем машиноведения РАН",
number = "1-2",

}

RIS

TY - JOUR

T1 - COLLECTIVE MIGRATION OF LOW-ANGLE TILT BOUNDARIES IN NANOCRYSTALLINE METALS UNDER FATIGUE LOADING

AU - Konakov, Ya. V.

AU - Ovid'ko, I. A.

AU - Sheinerman, A. G.

AU - Skiba, N. V.

PY - 2017

Y1 - 2017

N2 - A model is suggested that describes collective migration of two neighboring low-angle tilt boundaries in nanocrystalline metals under fatigue loading. Within the model, low-angle tilt boundaries are considered as the walls of edge lattice dislocations, while the triple junctions that terminate these boundaries contain wedge disclinations that accommodate the stress fields created by the dislocation walls. The simulation using the method of two-dimensional dislocation dynamics for the case of nanocrystalline Fe, revealed various migration modes of tilt boundaries under fatigue loading. These include the reversible migration of tilt boundaries, their split as well as their motion to adjacent high-angle grain boundaries and subsequent coalescence with these boundaries. The simulations demonstrate that the mode of boundary migration is determined by the level of the applied load and explain the recent observations of the reversible grain lattice reorientation near a crack tip in a nanocrystalline Ni-Fe alloy under fatigue loading.

AB - A model is suggested that describes collective migration of two neighboring low-angle tilt boundaries in nanocrystalline metals under fatigue loading. Within the model, low-angle tilt boundaries are considered as the walls of edge lattice dislocations, while the triple junctions that terminate these boundaries contain wedge disclinations that accommodate the stress fields created by the dislocation walls. The simulation using the method of two-dimensional dislocation dynamics for the case of nanocrystalline Fe, revealed various migration modes of tilt boundaries under fatigue loading. These include the reversible migration of tilt boundaries, their split as well as their motion to adjacent high-angle grain boundaries and subsequent coalescence with these boundaries. The simulations demonstrate that the mode of boundary migration is determined by the level of the applied load and explain the recent observations of the reversible grain lattice reorientation near a crack tip in a nanocrystalline Ni-Fe alloy under fatigue loading.

KW - STRESS-DRIVEN MIGRATION

KW - INDUCED GRAIN-GROWTH

KW - ROOM-TEMPERATURE

KW - DISLOCATION DYNAMICS

KW - PLASTIC-DEFORMATION

KW - THIN-FILMS

KW - AL

KW - NANOINDENTATION

KW - PARTICLES

KW - BEHAVIOR

M3 - статья

VL - 52

SP - 113

EP - 120

JO - Reviews on Advanced Materials Science

JF - Reviews on Advanced Materials Science

SN - 1606-5131

IS - 1-2

ER -

ID: 26266471