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DOE OSTI · 1900467

Neutron Interferometric methods and quantum sensing

Wang, Zhehui·Demarteau, Marcel·Kamiya, Yoshio·Liu, Chen-yu·Makela, Mark F.·Morris, Christopher·Shih, Yanhua·Young, Albert
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Abstract

Advances in material science and engineering make it possible to access artificial materials or ‘metamaterial’ properties and structures on the length scale comparable to the wavelength of ultracold neutrons ~ 100 nm. Strong neutron scattering effects such as Anderson localization, resonance scattering may be studied in the laboratory according to our recent theoretical studies. UCN interferometry and high-resolution spectroscopy (sub-pico-electronvolt resolution) in neutronic metamaterials are examples of new experimental possibilities that can probe quantum gravitational states of neutrons, and quantum sensing based on ultracold neutrons.

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36 MATERIALS SCIENCE73 NUCLEAR PHYSICS AND RADIATION PHYSICSAtomic, Nuclear and Particle Physics

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Wang, Zhehui, Demarteau, Marcel, Kamiya, Yoshio, Liu, Chen-yu, Makela, Mark F., Morris, Christopher, Shih, Yanhua, Young, Albert. 2022-11-28. Neutron Interferometric methods and quantum sensing. https://doi.org/10.2172/1900467

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