Deformation behavior and spall fracture of the Hadfield steel under shock-wave loading

Bibliographic Details
Parent link:Russian Physics Journal
Vol. 53, iss. 10.— 2011.— [P. 1046–1052]
Other Authors: Gnyusov S. F. Sergey Fedorovich, Rotshtein V. P., Polevin S. D., Polevin S. A.
Summary:Title screen
Comparative studies of regularities in plastic deformation and fracture of the Hadfield polycrystalline steel upon quasi-static tension, impact failure, and shock-wave loading with rear spall are performed. The SINUS-7 accelerator was used as a shock-wave generator. The electron beam parameters of the accelerator were the following: maximum electron energy was 1.35 MeV, pulse duration at half-maximum was 45 ns, maximum energy density on a target was 3.4·1010 W/cm2, shock-wave amplitude was ~20 GPa, and strain rate was ~106 s–1. It is established that the failure mechanism changes from ductile transgranular to mixed ductile-brittle intergranular one when going from quasi-static tensile and Charpy impact tests to shock-wave loading. It is demonstrated that a reason for the intergranular spallation is the strain localization near the grain boundaries containing a carbide interlayer.
Режим доступа: по договору с организацией-держателем ресурса
Language:English
Published: 2011
Subjects:
Online Access:https://link.springer.com/article/10.1007%2Fs11182-011-9529-z?LI=true
Format: Electronic Book Chapter
KOHA link:https://koha.lib.tpu.ru/cgi-bin/koha/opac-detail.pl?biblionumber=655673

MARC

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200 1 |a Deformation behavior and spall fracture of the Hadfield steel under shock-wave loading  |f S. F. Gnyusov [et al.] 
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300 |a Title screen 
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330 |a Comparative studies of regularities in plastic deformation and fracture of the Hadfield polycrystalline steel upon quasi-static tension, impact failure, and shock-wave loading with rear spall are performed. The SINUS-7 accelerator was used as a shock-wave generator. The electron beam parameters of the accelerator were the following: maximum electron energy was 1.35 MeV, pulse duration at half-maximum was 45 ns, maximum energy density on a target was 3.4·1010 W/cm2, shock-wave amplitude was ~20 GPa, and strain rate was ~106 s–1. It is established that the failure mechanism changes from ductile transgranular to mixed ductile-brittle intergranular one when going from quasi-static tensile and Charpy impact tests to shock-wave loading. It is demonstrated that a reason for the intergranular spallation is the strain localization near the grain boundaries containing a carbide interlayer. 
333 |a Режим доступа: по договору с организацией-держателем ресурса 
461 |t Russian Physics Journal 
463 |t Vol. 53, iss. 10  |v [P. 1046–1052]  |d 2011 
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