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- W2020368418 abstract "The compression $(ensuremath{eta})$ of liquid deuterium between 45 and 220 GPa under laser-driven shock loading has been measured using impedance matching to an aluminum (Al) standard. An Al impedance-match model derived from a best fit to absolute Hugoniot data has been used to quantify and minimize the systematic errors caused by uncertainties in the high-pressure Al equation of state. In deuterium below 100 GPa results show that $ensuremath{eta}ensuremath{simeq}4.2$, in agreement with previous impedance-match data from magnetically driven flyer and convergent-explosive shock wave experiments; between 100 and 220 GPa $ensuremath{eta}$ reaches a maximum of $ensuremath{sim}5.0$, which is less than the sixfold compression observed on the earliest laser-shock experiments but greater than expected from simple extrapolations of lower-pressure data. Previous laser-driven double shock results are found to be in good agreement with these single shock measurements over the entire range under study. Both sets of laser-shock data indicate that deuterium undergoes an abrupt increase in compression at around 110 GPa." @default.
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- W2020368418 date "2009-01-26" @default.
- W2020368418 modified "2023-10-14" @default.
- W2020368418 title "Laser-driven single shock compression of fluid deuterium from 45 to 220 GPa" @default.
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- W2020368418 doi "https://doi.org/10.1103/physrevb.79.014112" @default.
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