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AI-empowered X-ray and neutron studies in material science
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With the rapid advance in the X-ray and neutron characterizations in material science, there is an urgent need for techniques that can efficiently and effectively collect, process, and analyze large volumes of data. Recent efforts have integrated artificial intelligence (AI) techniques into experimental workflows to optimize instrument operations, enable automated error detection and troubleshooting, and enhance the throughput, quality, and speed of data collection and analysis. With this cross-journal Collection, the editors at Nature Communications, Communications Materials and Communications Physics will consider original Articles, Reviews and Perspectives that highlight the application of AI techniques to advance X-ray and neutron scattering and spectroscopy techniques in material science. Explore the latest research including AI-enabled approaches for instrument operation, data acquisition, and data analysis.
A reliable characterization of x-ray pulses is critical to optimally exploit advanced photon sources, such as free-electron lasers. The authors present a method based on machine learning which improves the resolution and signal-to-noise ratio of the non-invasive spectral diagnostics available at European XFEL, and streamlines its operation.
Editorial summary: Understanding non-equilibrium dynamics in materials is hindered by the difficulty of collecting and analyzing experimental data. Here, authors develop an machine learning framework for categorizing and tracking dynamics using time-resolved XPCS.
Crystal structure determination from powder X-ray diffraction is challenging but vital for materials research. Here, authors develop PXRDGen, an AI system that automatically solves crystal structures with 96% accuracy across thousands of compounds.