Flow Stress of V, Mo, Ta, and W on Nanosecond Time Scales

The mechanisms and kinetics of plastic flow in body-centered cubic materials are of current interest in the development of fundamental theories of dynamic strength, applicable at high strain rates such as are found in high explosive and laser loading. We have performed dynamic loading experiments wi...

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Hauptverfasser: Swift, D C, Hawreliak, J A, El-Dasher, B S, McNaney, J M, Milathianaki, D, Lorenzana, H E, Kumar, M, Remington, B A, Tierney, T E
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creator Swift, D C
Hawreliak, J A
El-Dasher, B S
McNaney, J M
Milathianaki, D
Lorenzana, H E
Kumar, M
Remington, B A
Tierney, T E
description The mechanisms and kinetics of plastic flow in body-centered cubic materials are of current interest in the development of fundamental theories of dynamic strength, applicable at high strain rates such as are found in high explosive and laser loading. We have performed dynamic loading experiments with the Janus and Trident lasers, using tailored pulse shapes to induce shock or ramp loading. The response of the sample was investigated through the surface velocity history, and in some cases with in-situ x-ray diffraction. The velocity histories exhibited clear elastic waves, from which the flow stress was deduced and compared with the elastic strain as determined by diffraction. We compare the deduced flow stress with models calibrated to samples millimeters thick, and to theoretical studies.
doi_str_mv 10.1063/1.3294982
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subjects CHEMICAL EXPLOSIVES
COMPRESSION
CONDENSED MATTER PHYSICS, SUPERCONDUCTIVITY AND SUPERFLUIDITY
DIFFRACTION
FLOW STRESS
KINETICS
LASERS
PLASTICS
STRAIN RATE
STRAINS
VELOCITY
X-RAY DIFFRACTION
title Flow Stress of V, Mo, Ta, and W on Nanosecond Time Scales
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