Deformation behavior of copper upon loading by spherically converging shock waves: Low-intensity loading conditions

X-ray diffraction, optical metallography, transmission electron microscopy, and microhardness measurements were used to perform a layer-by-layer study of the structure of a copper sphere 70 mm in diameter after loading by spherically converging shock waves. It has been found that the high-rate plast...

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Published in:Physics of metals and metallography 2013-04, Vol.114 (4), p.358-366
Main Authors: Dobromyslov, A. V., Taluts, N. I., Kozlov, E. A., Petrovtsev, A. V., Yusupov, D. T.
Format: Article
Language:English
Subjects:
Chemistry and Materials Science
CONVERTERS
Copper
Copper converters
DEFORMATION
Diffraction
DISLOCATIONS
HARDNESS
Materials Science
Metallic Materials
METALLOGRAPHY
MICRO ORGANISMS
Microorganisms
Shock waves
Strength and Plasticity
Twinning
X RAYS
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cited_by cdi_FETCH-LOGICAL-c388t-882440f3f08b60b1565c6d7024580b16729b37824420259357d3fb11d78279623
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container_end_page 366
container_issue 4
container_start_page 358
container_title Physics of metals and metallography
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creator Dobromyslov, A. V.
Taluts, N. I.
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Petrovtsev, A. V.
Yusupov, D. T.
description X-ray diffraction, optical metallography, transmission electron microscopy, and microhardness measurements were used to perform a layer-by-layer study of the structure of a copper sphere 70 mm in diameter after loading by spherically converging shock waves. It has been found that the high-rate plastic deformation of copper proceeds mostly by slipping, rather than twinning under the used loading conditions. Shear bands are observed at the macrolevel, while a homogeneous dislocation structure, microbands, and microtwins are observed at the microlevel.
doi_str_mv 10.1134/S0031918X13040029
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subjects Chemistry and Materials Science
CONVERTERS
Copper
Copper converters
DEFORMATION
Diffraction
DISLOCATIONS
HARDNESS
Materials Science
Metallic Materials
METALLOGRAPHY
MICRO ORGANISMS
Microorganisms
Shock waves
Strength and Plasticity
Twinning
X RAYS
title Deformation behavior of copper upon loading by spherically converging shock waves: Low-intensity loading conditions
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