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This research aims to enhance the study of functional oxides through high-throughput x-ray diffraction techniques.

June 20, 2026Digital DiscoveryOpen Access

Wide-Surface Furnace for In Situ X-Ray Diffraction of Combinatorial Samples using a High-Throughput Approach

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Randomized trial demonstrates effective x-ray diffraction for combinatorial materials, suggesting improvements in material research.

This research aims to enhance the study of functional oxides through high-throughput x-ray diffraction techniques.
Developed a wide-surface furnace for in situ x-ray diffraction.
Utilized pulsed laser deposition to create material libraries with various compositions.
Employed a combinatorial approach to analyze a complete ternary diagram.
Successfully created a diverse range of functional oxide compositions.
Achieved efficient characterization via in situ x-ray diffraction methods.
Demonstrated potential for rapid material discovery and optimization.

Cordaro et al. (2026) studied this question.

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June 20, 2026Digital DiscoveryOpen Access

View Full Paper

Ask AI

Bookmark

Authors

Randomized trial demonstrates effective x-ray diffraction for combinatorial materials, suggesting improvements in material research.

This research aims to enhance the study of functional oxides through high-throughput x-ray diffraction techniques.
Developed a wide-surface furnace for in situ x-ray diffraction.
Utilized pulsed laser deposition to create material libraries with various compositions.
Employed a combinatorial approach to analyze a complete ternary diagram.
Successfully created a diverse range of functional oxide compositions.
Achieved efficient characterization via in situ x-ray diffraction methods.
Demonstrated potential for rapid material discovery and optimization.

Cordaro et al. (2026) studied this question.

View Full Paper

Ask AI

Bookmark