Deformation and failure in extreme regimes by high-energy pulsed lasers: A review. Remington, T. P., Remington, B. A., Hahn, E. N., & Meyers, M. A. Materials Science and Engineering: A, 688:429–458, March, 2017. ![Deformation and failure in extreme regimes by high-energy pulsed lasers: A review [link]](https://bibbase.org/img/filetypes/link.svg "link")
Paper doi abstract bibtex The use of high-power pulsed lasers to probe the response of materials at pressures of hundreds of GPa up to several TPa, time durations of nanoseconds, and strain rates of 106–101° s−1 is revealing novel mechanisms of plastic deformation, phase transformations, and even amorphization. This unique experimental tool, aided by advanced diagnostics, analysis, and characterization, allows us to explore these new regimes that simulate those encountered in the interiors of planets. Fundamental Materials Science questions such as dislocation velocity regimes, the transition between thermally-activated and phonon drag regimes, the slip-twinning transition, the ultimate tensile strength of metals, the dislocation mechanisms of void growth are being answered through this powerful tool. In parallel with experiments, molecular dynamics simulations provide modeling and visualization at comparable strain rates (108–1010 s−1) and time durations (hundreds of picoseconds). This powerful synergy is illustrated in our past and current work, using representative face-centered cubic (fcc) copper, body-centered cubic (bcc) tantalum and diamond cubic silicon as model structures.
@article{remington_deformation_2017,
title = {Deformation and failure in extreme regimes by high-energy pulsed lasers: {A} review},
volume = {688},
issn = {0921-5093},
shorttitle = {Deformation and failure in extreme regimes by high-energy pulsed lasers},
url = {http://www.sciencedirect.com/science/article/pii/S092150931730148X},
doi = {10.1016/j.msea.2017.01.114},
abstract = {The use of high-power pulsed lasers to probe the response of materials at pressures of hundreds of GPa up to several TPa, time durations of nanoseconds, and strain rates of 106–101° s−1 is revealing novel mechanisms of plastic deformation, phase transformations, and even amorphization. This unique experimental tool, aided by advanced diagnostics, analysis, and characterization, allows us to explore these new regimes that simulate those encountered in the interiors of planets. Fundamental Materials Science questions such as dislocation velocity regimes, the transition between thermally-activated and phonon drag regimes, the slip-twinning transition, the ultimate tensile strength of metals, the dislocation mechanisms of void growth are being answered through this powerful tool. In parallel with experiments, molecular dynamics simulations provide modeling and visualization at comparable strain rates (108–1010 s−1) and time durations (hundreds of picoseconds). This powerful synergy is illustrated in our past and current work, using representative face-centered cubic (fcc) copper, body-centered cubic (bcc) tantalum and diamond cubic silicon as model structures.},
urldate = {2017-05-17},
journal = {Materials Science and Engineering: A},
author = {Remington, Tane P. and Remington, Bruce A. and Hahn, Eric N. and Meyers, Marc A.},
month = mar,
year = {2017},
keywords = {Dislocations, Phase transitions, Shock waves, lasers, twins},
pages = {429--458},
}
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