Standard

3D atom probe investigation of the nanostructure of a commercial 6061 aluminum alloy processed by SPD. / Nurislamova, G.; Sauvage, X.; Murashkin, M.; Valiev, R.

Ultrafine Grained Materials IV. 2006. p. 41-45 (TMS Annual Meeting; Vol. 2006).

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution › Research

Harvard

Nurislamova, G, Sauvage, X, Murashkin, M & Valiev, R 2006, 3D atom probe investigation of the nanostructure of a commercial 6061 aluminum alloy processed by SPD. in Ultrafine Grained Materials IV. TMS Annual Meeting, vol. 2006, pp. 41-45, 2006 TMS Annual Meeting, San Antonio, Texas, United States, 12/03/06.

APA

Nurislamova, G., Sauvage, X., Murashkin, M., & Valiev, R. (2006). 3D atom probe investigation of the nanostructure of a commercial 6061 aluminum alloy processed by SPD. In Ultrafine Grained Materials IV (pp. 41-45). (TMS Annual Meeting; Vol. 2006).

Vancouver

Nurislamova G, Sauvage X, Murashkin M, Valiev R. 3D atom probe investigation of the nanostructure of a commercial 6061 aluminum alloy processed by SPD. In Ultrafine Grained Materials IV. 2006. p. 41-45. (TMS Annual Meeting).

Author

Nurislamova, G. ; Sauvage, X. ; Murashkin, M. ; Valiev, R. / 3D atom probe investigation of the nanostructure of a commercial 6061 aluminum alloy processed by SPD. Ultrafine Grained Materials IV. 2006. pp. 41-45 (TMS Annual Meeting).

BibTeX

@inproceedings{062c013948014c858f49e35f7a0471b1,
title = "3D atom probe investigation of the nanostructure of a commercial 6061 aluminum alloy processed by SPD",
abstract = "Aluminum alloys processed by severe plastic deformation (SPD) usually exhibit a significant increase of the mechanical strength and even superplasticity due to the strong grain size reduction. The 6061 commercial aluminum alloy is heat treatable and its remarkably high hardness after aging is due to a fine distribution of nanoscaled precipitates containing Mg and Si. It was shown however that its hardness could be significantly increased thanks to equal channel angular pressure (ECAP) processing before the aging treatment. The aim of this work is to investigate such nanostructure resulting from SPD to understand these unusual mechanical properties. A solutionized 6061 aluminum alloy was processed by ECAP and aged. Then, the distribution of alloying elements (Mg and Si) was mapped out in 3D at the atomic scale thanks to the three-dimensional atom probe (3D-AP) technique. In this paper, we discuss the precipitation kinetics induced by SPD and deformation mechanisms leading to high mechanical properties of these alloys.",
keywords = "Aging, Aluminum alloy 6061, Equal-channel angular pressing, Precipitates, Tensile tests, Three- dimensional atom probe",
author = "G. Nurislamova and X. Sauvage and M. Murashkin and R. Valiev",
year = "2006",
month = may,
day = "18",
language = "English",
isbn = "0873396286",
series = "TMS Annual Meeting",
pages = "41--45",
booktitle = "Ultrafine Grained Materials IV",
note = "2006 TMS Annual Meeting ; Conference date: 12-03-2006 Through 16-03-2006",
url = "http://www.tms.org/Meetings/Annual-06/AnnMtg06Home.html",

}

RIS

TY - GEN

T1 - 3D atom probe investigation of the nanostructure of a commercial 6061 aluminum alloy processed by SPD

AU - Nurislamova, G.

AU - Sauvage, X.

AU - Murashkin, M.

AU - Valiev, R.

PY - 2006/5/18

Y1 - 2006/5/18

N2 - Aluminum alloys processed by severe plastic deformation (SPD) usually exhibit a significant increase of the mechanical strength and even superplasticity due to the strong grain size reduction. The 6061 commercial aluminum alloy is heat treatable and its remarkably high hardness after aging is due to a fine distribution of nanoscaled precipitates containing Mg and Si. It was shown however that its hardness could be significantly increased thanks to equal channel angular pressure (ECAP) processing before the aging treatment. The aim of this work is to investigate such nanostructure resulting from SPD to understand these unusual mechanical properties. A solutionized 6061 aluminum alloy was processed by ECAP and aged. Then, the distribution of alloying elements (Mg and Si) was mapped out in 3D at the atomic scale thanks to the three-dimensional atom probe (3D-AP) technique. In this paper, we discuss the precipitation kinetics induced by SPD and deformation mechanisms leading to high mechanical properties of these alloys.

AB - Aluminum alloys processed by severe plastic deformation (SPD) usually exhibit a significant increase of the mechanical strength and even superplasticity due to the strong grain size reduction. The 6061 commercial aluminum alloy is heat treatable and its remarkably high hardness after aging is due to a fine distribution of nanoscaled precipitates containing Mg and Si. It was shown however that its hardness could be significantly increased thanks to equal channel angular pressure (ECAP) processing before the aging treatment. The aim of this work is to investigate such nanostructure resulting from SPD to understand these unusual mechanical properties. A solutionized 6061 aluminum alloy was processed by ECAP and aged. Then, the distribution of alloying elements (Mg and Si) was mapped out in 3D at the atomic scale thanks to the three-dimensional atom probe (3D-AP) technique. In this paper, we discuss the precipitation kinetics induced by SPD and deformation mechanisms leading to high mechanical properties of these alloys.

KW - Aging

KW - Aluminum alloy 6061

KW - Equal-channel angular pressing

KW - Precipitates

KW - Tensile tests

KW - Three- dimensional atom probe

UR - http://www.scopus.com/inward/record.url?scp=33646530942&partnerID=8YFLogxK

M3 - Conference contribution

AN - SCOPUS:33646530942

SN - 0873396286

SN - 9780873396288

T3 - TMS Annual Meeting

SP - 41

EP - 45

BT - Ultrafine Grained Materials IV

T2 - 2006 TMS Annual Meeting

Y2 - 12 March 2006 through 16 March 2006

ER -

ID: 42940874