The application of the neutron time‐of‐flight technique for real‐time diffraction studies | Zendy

Balagurov A. M. | Zendy; Mironova G. M. | Zendy; Novozchilov V. E. | Zendy; Ostrovnoy A. I. | Zendy; Simkin V. G. | Zendy; Zlokazov V. B. | Zendy

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The application of the neutron time‐of‐flight technique for real‐time diffraction studies

Author(s) -

Balagurov A. M.,

Mironova G. M.,

Novozchilov V. E.,

Ostrovnoy A. I.,

Simkin V. G.,

Zlokazov V. B.

Publication year - 1991

Publication title -

journal of applied crystallography

Language(s) - English

Resource type - Journals

SCImago Journal Rank - 1.429

H-Index - 162

ISSN - 1600-5767

DOI - 10.1107/s0021889891006982

Subject(s) - neutron , time of flight , neutron diffraction , diffractometer , diffraction , neutron detection , neutron scattering , resolution (logic) , powder diffractometer , neutron flux , materials science , detector , optics , sample (material) , nuclear physics , physics , computer science , scanning electron microscope , artificial intelligence , thermodynamics

Real‐time neutron powder diffraction and small‐angle scattering techniques have been developed on the TOF diffractometer DN‐2 at the IBR‐2 pulsed reactor at JINR (Dubna) with a total flux on the sample of 10 7 neutrons cm −2 s −1 and a resolution of about 1%. A special arrangement of the detector system ensures a high counting rate of diffracted neutrons. Depending upon sample type and experimental conditions, the measuring time t s of one neutron pattern varies from a few minutes to several seconds. The performance of the diffractometer is discussed and typical data are shown to demonstrate current achievements using real‐time techniques at a pulsed reactor.

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