Editing Neutron diffraction (section)

=== Modern trends in neutron scattering information technology ===
Neutron diffraction technology is evolving rapidly, with a focus on improving beam intensity and instrument efficiency. Modern instruments are designed to produce smaller, more intense beams, enabling high-precision studies of smaller samples, which is particularly beneficial for new material research. Advanced detectors, such as [[boron]]-based alternatives to [[Helium|helium-3]], are being developed to address material shortages, while improved neutron spin manipulation enhances the study of magnetic and structural properties. Computational advancements, including [[Simulation|simulations]] and virtual instruments, are optimizing [[Neutron source|neutron sources]], streamlining experimental design, and integrating [[machine learning]] for data analysis. Multiplexing and event-based acquisition systems are enhancing data collection by capturing multiple datasets simultaneously. Additionally,next-generation spallation sources like the European Spallation Source (ESS) and Oak Ridge's Second Target Station (STS) are increasing neutron production efficiency. Lastly, the rise of remote-controlled experiments and automation is improving accessibility and precision in neutron diffraction research.<ref>{{Cite journal |last1=Ehlers |first1=Georg |last2=Crow |first2=Morris L. |last3=Diawara |first3=Yacouba |last4=Gallmeier |first4=Franz X. |last5=Geng |first5=Xiaosong |last6=Granroth |first6=Garrett E. |last7=Gregory |first7=Raymond D. |last8=Islam |first8=Fahima F. |last9=Knudson |first9=Robert O. |last10=Li |first10=Fankang |last11=Loyd |first11=Matthew S. |last12=Vacaliuc |first12=Bogdan |date=2022 |title=Modern Trends in Neutron Scattering Instrument Technologies |journal=Instruments |language=en |volume=6 |issue=3 |pages=22 |doi=10.3390/instruments6030022 |doi-access=free |issn=2410-390X}}</ref>