Skip Ribbon Commands
Skip to main content
Navigate Up
Sign In

Advanced X-ray Methods & Instrumentation for LCLS-II-HE Science, 16-17 October 2018


SLAC Conferences, Workshops & Symposiums > Advanced X-ray Methods & Instrumentation for LCLS-II-HE Science, 16-17 October 2018

Advanced X-ray Methods & Instrumentation
for LCLS-II-HE Science

October 16-17, 2018
Plenary: B53 Panofsky Auditorium
Breakouts: Building 48 (Redwood)

SLAC National Accelerator Laboratory - Menlo Park, CA

The LCLS-II Project now underway at SLAC represents a major advance in X-ray laser capabilities that will enable compelling new science opportunities as identified by the user community [1]. When it becomes operational in 2020 this next-generation facility will exploit advanced superconducting accelerator technology (CW-SCRF) and tunable undulators to provide ultrafast coherent X-rays in a uniformly-spaced train of pulses with programmable repetition rates of up to 1 MHz and tunable photon energies from 0.25 to 5 keV.

Looking to the future, the proposed energy upgrade of LCLS-II to 8 GeV (LCLS-II-HE) promises to open entirely new areas of science as further identified by the user community [2]. LCLS-II-HE will provide X-ray energies extending beyond 12 keV to enable high repetition-rate studies of atomic, electronic, and chemical dynamics at the atomic scale. DOE Mission Need (CD-0) has been establised for the LCLS-II-HE upgrade, the conceptual design is now under review, and we hope to acheive CD-1 approval soon.

The objective of this workshop is to further engage the science community in helpting to identify the most compelling X-ray methods and instrumentation that will exploit the unique capabilities of LCLS-II-HE for the greatest scientific impact. The results of this workshop will help guide the design, performance capabilities, and priorities for new future scientific instrumentation for LCLS-II-HE.

[1] LCLS-II Science Opportunities Document
[2] LCLS-II-HE Science Case

Breakout Sessions
AMO and Gas-Phase Chemistry:
  • Fundamental molecular dynamics
  • Strong-field physics
  • Chemical-dynamics (imaging/scattering)
  • Chemical dynamics, coordination- and photo-chemistry
  • Photo-catalysis, natural and artificial photosynthesis
  • Catalysis and environmental chemistry
Biological Function & Structural Dynamics:
  • Spontaneous (stochastic) dynamics and conformational heterogeneity
  • Triggered dynamics - pump/probe, rapid mixing
  • Advanced algorithms to provide new insight to biological function
Quantum Materials:
  • Correlated Materials
  • Low-dimensional Materials and Heterostructures
  • Exotic magnetism and spin phenomena
Materials Physics:
  • Heterogeneity and spontaneous fluctuations
  • Nonequilibrium dynamics
  • Tailored, or extreme environments

SLAC SLAC National Accelerator Laboratory, Menlo Park, CA
Operated by Stanford University for the U.S. Dept. of Energy