A proof-of-principle event-driven Monte-Carlo framework samples XRTS events from differential cross sections and passes them through detector simulations to preserve kinematic information and support model-agnostic analysis.
The noiseless limit and improved-prior limit 54 of the maximum entropy method and their implica- tions for the analytic continuation problem
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The paper reviews the use of the imaginary-time correlation function to extract temperature, normalization, and Rayleigh weight from XRTS spectra without model dependence.
XRTS has become a leading diagnostic for extreme states of matter, and this review compiles prior experiments, analysis methods, and future directions.
Quantum effects govern behavior in warm dense matter and inertial fusion plasmas and are best modeled by combining quantum methods through downfolding from first-principles simulations.
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Monte-Carlo Event Generation for X-Ray Thomson Scattering Analysis
A proof-of-principle event-driven Monte-Carlo framework samples XRTS events from differential cross sections and passes them through detector simulations to preserve kinematic information and support model-agnostic analysis.
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Model-free interpretation of X-ray Thomson scattering measurements
The paper reviews the use of the imaginary-time correlation function to extract temperature, normalization, and Rayleigh weight from XRTS spectra without model dependence.
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Overview of X-ray Thomson scattering measurements of extreme states of matter
XRTS has become a leading diagnostic for extreme states of matter, and this review compiles prior experiments, analysis methods, and future directions.
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Quantum effects in plasmas
Quantum effects govern behavior in warm dense matter and inertial fusion plasmas and are best modeled by combining quantum methods through downfolding from first-principles simulations.