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Hayashi, Makoto*; Okido, Shinobu*; Suzuki, Hiroshi
Quantum Beam Science (Internet), 4(2), p.18_1 - 18_12, 2020/06
Hayashi, Makoto*; Root, J. H.*; Rogge, R. B.*; Xu, P. G.
Quantum Beam Science (Internet), 2(4), p.21_1 - 21_16, 2018/12
Onuki, Yusuke*; Hoshikawa, Akinori*; Sato, Shigeo*; Xu, P. G.; Ishigaki, Toru*; Saito, Yoichi*; Todoroki, Hidekazu*; Hayashi, Makoto*
Journal of Applied Crystallography, 49(5), p.1579 - 1584, 2016/10
Times Cited Count：28 Percentile：88.44(Chemistry, Multidisciplinary)Hino, Ryutaro; Yokomizo, Hideaki; Yamazaki, Yoshishige; Hasegawa, Kazuo; Suzuki, Hiromitsu; Soyama, Kazuhiko; Hayashi, Makoto*; Haga, Katsuhiro; Kaminaga, Masanori; Sudo, Yukio*; et al.
Nihon Kikai Gakkai-Shi, 107(1032), p.851 - 882, 2004/11
no abstracts in English
Hayashi, Makoto*; Okido, Shinobu*; Morii, Yukio; Minakawa, Nobuaki
Materials Science Research International, Special Technical Publication, 1, p.418 - 423, 2001/05
no abstracts in English
Okido, Shinobu*; Hayashi, Makoto*; Morii, Yukio; Minakawa, Nobuaki
Materials Science Research International, Special Technical Publication, 1, p.435 - 438, 2001/05
no abstracts in English
Minakawa, Nobuaki; Moriai, Atsushi; Saito, Toru; Tanaka, Keisuke*; Akiniwa, Yoshiaki*; Hayashi, Makoto*; Okido, Shinobu*
Nihon Zairyo Gakkai Dai-36-Kai X Sen Zairyo Kyodo Ni Kansuru Shimpojiumu Koen Rombunshu, p.263 - 265, 2000/09
no abstracts in English
Akiniwa, Yoshiaki*; Tanaka, Keisuke*; *; Hayashi, Makoto*; Morii, Yukio; Minakawa, Nobuaki
Zairyo, 47(7), p.755 - 761, 1998/07
no abstracts in English
Hayashi, Makoto*; *; Morii, Yukio; Minakawa, Nobuaki
Zairyo, 45(7), p.772 - 778, 1996/07
no abstracts in English
Hayashi, Makoto*; *; Minakawa, Nobuaki; Funahashi, Satoru
Zairyo, 44(507), p.1464 - 1469, 1995/12
no abstracts in English
Kusaka, Katsuhiro; Ohara, Takashi; Tanaka, Ichiro*; Niimura, Nobuo*; Kurihara, Kazuo; Hosoya, Takaaki; Ozeki, Tomoji*; Aizawa, Kazuya; Morii, Yukio; Arai, Masatoshi; et al.
no journal, ,
no abstracts in English
Kusaka, Katsuhiro; Ohara, Takashi; Tanaka, Ichiro*; Niimura, Nobuo*; Kurihara, Kazuo; Hosoya, Takaaki; Ozeki, Tomoji*; Aizawa, Kazuya; Morii, Yukio; Arai, Masatoshi; et al.
no journal, ,
Ibaraki prefecture has started to construct IBARAKI biological crystal diffractometer for industrial use at MLF, J-PARC. It is designed to achieve the efficiency which is more than 50 times larger than the present high performance diffractometer BIX-4. To realize this performance, the diffractometer will be installed on a coupled moderator has more intense peak but wider pulse shape than a decoupled one. It is expected that some neighbor Bragg spots will overlap partially each other along the time axis. We should develop the data reduction software system for the diffractometer including the program of peak de-convolution with fast algorism. The detector configuration should be also important to realize high performance for measurement speed and data accuracy. The strategy of data collection, the strategy of de-convoluting overlapped Bragg spots and its validity will be reported based on the results of the simulations with the original programs.
Saito, Toru; Hayashi, Makoto*; Kobayashi, Shinsho*; Morii, Yukio
no journal, ,
In the manufacturer, residual stress has been evaluated by X-ray stress measurement or by FEM etc. Although neutron is the only one probe to measure the lattice strain nondestructively at the deep inside of materials, very few industrial users actually attempt the neutron diffraction method. The promotion program of technology transfer on neutron application has been implementing in Japan since 2006. The experiments executed in this program are the residual stress evaluation in the welded boiler tube and welded sample that imitates the stress measurement in the large structure etc. In addition, the possible application of the oscillation method to the neutron stress measurement in coarse polycrystalline materials was discussed.
Saito, Toru; Hayashi, Makoto*; Morii, Yukio; Kobayashi, Shinsho*
no journal, ,
In the manufacturer, residual stress has been evaluated by X-ray stress measurement or by FEM etc. Although neutron is the only one probe to measure the lattice strain nondestructively at the deep inside of materials, very few industrial users actually attempt the neutron diffraction method. The promotion program of technology transfer on neutron application has been implementing in Japan since 2006. The experiments executed in this program are the residual stress evaluation in the welded boiler tube and welded sample that imitates the stress measurement in the large structure etc. In addition, the possible application of the oscillation method to the neutron stress measurement in coarse polycrystalline materials was discussed.
Igawa, Naoki; Nagasaki, Takanori*; Taguchi, Tomitsugu; Hoshikawa, Akinori*; Ishigaki, Toru*; Morii, Yukio*; Hayashi, Makoto*
no journal, ,
The temperature dependence of crystal structure of proton conductor, BaSn
InO
was analyzed in the temperature range from 10 to 790 K by in-situ neutron diffraction. We found that the crystal structure of the sample is cubic perovskite-type structure with the space group of 
-3
. Atomic displacement parameters of each atom were relatively large even at 10 K and those were increasing with the temperature. Those phenomena indicate the crystal structure had local static/dynamic disorders which influence the proton diffusion.
Xu, P. G.; Hoshikawa, Akinori*; Ishigaki, Toru*; Suzuki, Tetsuya*; Akita, Koichi; Morii, Yukio*; Hayashi, Makoto*; Lutterotti, L.*
no journal, ,
Xu, P. G.; Hoshikawa, Akinori*; Ishigaki, Toru*; Suzuki, Tetsuya*; Akita, Koichi; Morii, Yukio*; Hayashi, Makoto*; Lutterotti, L.*
no journal, ,
