Multi-Mbar Z Experiments and EOS Modeling of the Most Useful Titanium Alloy

Cutting edge shock compression research is moving towards ever increasing pressure or stress states into the Multi-Mbar range. The simple empirical material model approximations of the past are not adequate at these new pressure extremes. We extend the principal shock Hugoniot for Ti64 to more than...

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Main Authors: Kalita, P., Cochrane, K., Knudson, M., Ao, T., Hanshaw, H., Crockett, S., Swift, D.
Format: Conference Proceeding
Language:English
Subjects:
Earth Observing System
Electric shock
Mathematical models
Plasmas
Temperature distribution
Temperature measurement
Titanium alloys
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creator Kalita, P.
Cochrane, K.
Knudson, M.
Ao, T.
Hanshaw, H.
Crockett, S.
Swift, D.
description Cutting edge shock compression research is moving towards ever increasing pressure or stress states into the Multi-Mbar range. The simple empirical material model approximations of the past are not adequate at these new pressure extremes. We extend the principal shock Hugoniot for Ti64 to more than threefold compression, up to over 1.2 TPa with high-fidelity experimental shock compression data measured on Sandia's Z machine. A highly reliable multiphase Equation of State (EOS) for Ti64 is developed, spanning a broad range of temperature and pressures. Results demonstrate that the Hugoniot of the Ti64 alloy is stiffer than that of pure Ti and reveal that Ti64 melts on the Hugoniot at a significantly lower pressure and temperature than previously modelled.
doi_str_mv 10.1109/ICOPS45740.2023.10481182
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subjects Earth Observing System
Electric shock
Mathematical models
Plasmas
Temperature distribution
Temperature measurement
Titanium alloys
title Multi-Mbar Z Experiments and EOS Modeling of the Most Useful Titanium Alloy
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