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  • Matsumiya, Ryohei; Akatsuka, Hiroaki; Bidinosti, Chris P; Davis, Charles A; Franke, Beatrice; Fujimoto, Derek; Gericke, Michael T W; Giampa, Pietro; Golub, Robert; Hansen-Romu, Sean; Hatanaka, Kichiji; Hayamizu, Tomohiro; Higuchi, Takashi; Ichikawa, Go; Imajo, Sohei; Jamieson, Blair; Kawasaki, Shinsuke; Kitaguchi, Masaaki; Klassen, Wolfgang; Klemets, Emma; Konaka, Akira; Korkmaz, Elie; Korobkina, Ekaterina; Kuchler, Florian; Lavvaf, Maedeh; Lee, Larry; Lindner, Thomas; Madison, Kirk W; Makida, Yasuhiro; Mammei, Russell; Mammei, Juliette; Martin, Jeffery W; McCrea, Mark; Miller, Eric; Mishima, Kenji; Momose, Takamasa; Okamura, Takahiro; Hooi Jin Ong; Picker, Ruediger; Ramsay, William D; Schreyer, Wolfgang; Shimizu, Hirohiko M; Sidhu, Steve; Stargardter, Shawn; Tanihata, Isao; Vanbergen, Sean; Willem T H van Oers; Watanabe, Yutaka; Collaboration, TUCAN

    arXiv (Cornell University), 07/2022
    Paper, Journal Article

    The TRIUMF Ultra-Cold Advanced Neutron (TUCAN) collaboration aims at a precision neutron electric dipole moment (nEDM) measurement with an uncertainty of \(10^{-27}\,e\cdot\mathrm{cm}\), which is an order-of-magnitude better than the current nEDM upper limit and enables us to test Supersymmetry. To achieve this precision, we are developing a new high-intensity ultracold neutron (UCN) source using super-thermal UCN production in superfluid helium (He-II) and a nEDM spectrometer. The current development status of them is reported in this article.