Random Forest Models for Accurate Identification of Coordination Environments from X-ray Absorption Near-Edge Structure. https://t.co/LCE2eTOa4o
Random Forest Models for Accurate Identification of Coordination Environments from X-Ray Absorption Near-Edge Structure.
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Nov 2019 – Jun 2021Where it's discussed
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What people are saying
The discussions reflect a positive reception, with users noting the innovative use of random forest models in spectral analysis, exemplified by phrases like 'accurately identify coordination environments' and 'more detailed understanding.' The tone is both curious and appreciative, emphasizing the scientific and practical significance of the research.
Most discussions recognize the value of combining machine learning with XANES analysis, indicating general support for the publication's approach.
Posts show moderate curiosity, with some exploring the technical aspects and potential applications of the models.
Many comments refer to specific methods and discuss implications, suggesting a decent level of engagement.
Discussions highlight the potential for these models to influence future research and practical analysis in material sciences.
Abstract in brief
- The study demonstrates that random forest models trained on a large dataset of X-ray absorption near-edge structure (XANES) spectra can accurately identify the atomic coordination environment in materials, achieving an accuracy of 85.4% for main environments and an 81.8% Jaccard score for all environments across 33 cation elements.
- Unlike previous methods, this approach describes coordination environments as probability distributions over 25 different motifs, with coordination numbers from 1 to 12, providing a more detailed understanding of atomic arrangements.
- The models perform well in real experimental conditions, with minimal loss in accuracy, and analysis shows that the pre-edge and main peak regions of the spectra are crucial for determining the coordination environments.]
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XAS也要結合Machine Learning是吧...? High Throughput XAS Calculations and Machine Learning: XAS Journal Club,... https://t.co/9w8fhnMw48 via @YouTube
Random Forest Models for Accurate Identification of Coordination Environments from X-ray Absorption Near-Edge Structure. https://t.co/LCE2eTOa4o