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Shlachter, Jack S.

Publications and source records attributed to Shlachter, Jack S..

Cyber Science Capability Strategy

This document outlines LANL’s cyber science capability strategy, working in tandem with the IS&T strategy, to focus internal investments utilizing our unique skill sets, capabilities and facilities supporting national scientific priorities to address emerging challenges to national security. This strategy identifies LANL’s strengths as they relate to cyber science and is intended to guide internal investments to increase the strength, focus, and impact of LANL’s cyber capability building innovative scientific leadership. Subsequent documents (human capital development, implementation, capabilities, infrastructure, etc.) will develop plans targeting specific program areas including weapons, energy, and strategic partnership programs.

97 MATHEMATICS AND COMPUTING↗

2018 Capabilities Awareness Workshop Presentations

Established in 2010, this award recognizes the positive contributions that a mentor makes during a postdoctoral researcher’s appointment. The mentor’s accomplishments often make a difference in the postdoc’s life, going the extra mile beyond science, such as career development, and make a positive impact on a number of postdocs.

99 GENERAL AND MISCELLANEOUS↗

Lightning Talks 2015: Theoretical Division

This document is a compilation of slides from a number of student presentations given to LANL Theoretical Division members. The subjects cover the range of activities of the Division, including plasma physics, environmental issues, materials research, bacterial resistance to antibiotics, and computational methods.

36 MATERIALS SCIENCE↗

MaRIE 1.0: The Matter-Radiation Interactions in Extremes Project, and the Challenge of Dynamic Mesoscale Imaging

The Matter-Radiation Interactions in Extremes project will build the experimental facility for the time-dependent control of dynamic material performance. An x-ray free electron laser at up to 42-keV fundamental energy and with photon pulses down to sub-nanosecond spacing, MaRIE 1.0 is designed to meet the challenges of time-dependent mesoscale materials science. Those challenges will be outlined, the techniques of coherent diffractive imaging and dynamic polycrystalline diffraction described, and the resulting requirements defined for a coherent x-ray source. The talk concludes with the role of the MaRIE project and science in the future.

36 MATERIALS SCIENCE↗