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Furutaka, Kazuyoshi
JAEA-Data/Code 2014-027, 32 Pages, 2015/02
A suite of software tools has been developed to facilitate the development of apparatus using a radiation transport simulation code PHITS by enabling 4D visualization (3D space and time) and quantitative analysis of so-called dieaway plots. To deliver useable tools as soon as possible, the existing software was utilized as much as possible; ParaView will be used for the 4D visualization of the results, whereas the analyses of dieaway plots will be done with ROOT toolkit with a tool named "diana". To enable 4D visualization using ParaView, a suite of tools (angel2vtk, DispDCAS1, CamPos) have been developed for the conversion of the data format to the one which can be read from ParaView and to ease the visualization.
Nakamura, Hiroo; Takemura, Morio*; Yamauchi, Michinori*; Fischer, U.*; Ida, Mizuho*; Mori, Seiji*; Nishitani, Takeo; Simakov, S.*; Sugimoto, Masayoshi
Fusion Engineering and Design, 75-79, p.1169 - 1172, 2005/11
Times Cited Count:6 Percentile:39.52(Nuclear Science & Technology)In the IFMIF, activated erosion/corrosion materials of Li target back wall deposits on a surface of the Li loop. Therefore, accessibility during maintenance of the Li loop pipings will depend on the activation level of the deposition materials. This paper evaluates effect of target activation on the accessibility of the Li loop pipings. Activation level is calculated by the ACT-4 code. High energy cross section above 15 MeV is introduced using IEAF-2001 data. In this calculation, target material is stainless steel 316. Area of the erosion/corrosion in the back wall is 100 cm. The erosion/corrosion rate is 1 micron/y. Dose rate around the Li loop after one year IFMIF operation is evaluated assuming 1% deposition of the erosion/corrosion materials and uniform deposition on surface area of 33 m
. Permissible level for hands-on maintenance is 10 microSv/hr. As the results, after 1 week from shutdown, close maintenance work 8 cm to the Li loop is possible. Also, after 1 month, hands-on maintenance becomes possible.
Yamauchi, Michinori*; Takemura, Morio*; Nakamura, Hiroo; Fischer, U.*; Ida, Mizuho*; Mori, Seiji*; Sato, Satoshi; Nishitani, Takeo; Simakov, S. P.*; Sugimoto, Masayoshi
Fusion Science and Technology, 47(4), p.1008 - 1011, 2005/05
Times Cited Count:1 Percentile:10.17(Nuclear Science & Technology)no abstracts in English
Kawamura, Hiroshi; Takahashi, Heishichiro*; Yoshida, Naoaki*; Mishima, Yoshinao*; Ishida, Kiyohito*; Iwadachi, Takaharu*; Cardella, A.*; Van der Laan, J. G.*; Uchida, Munenori*; Munakata, Kenzo*; et al.
Journal of Nuclear Materials, 329-333(1), p.112 - 118, 2004/08
Times Cited Count:39 Percentile:89.73(Materials Science, Multidisciplinary)no abstracts in English
Kawamura, Hiroshi; Tanaka, Satoru*; Ishitsuka, Etsuo
Nihon Genshiryoku Gakkai-Shi, 46(8), p.578 - 579, 2004/08
IEA 6th International Workshop on Beryllium Technology for Fusion(BeWS-6) was held at World Convention Center SUMMIT, Miyazaki city from Dec.2 2004 to Dec.5 2004. This is an outline of meeting report of BeWS-6.
IFMIF International Team
JAERI-Tech 2003-005, 559 Pages, 2003/03
The International Fusion Materials Irradiation Facility (IFMIF) is an accelerator-based D-Li neutron source designed to produce an intense neutron field that will simulate the neutron environment of a D-T fusion reactor. IFMIF will provide a neutron flux equivalent to 2 MW/m, 20 dpa/y in Fe, in a volume of 500 cm
and will be used in the development and qualification of materials for fusion systems. The design activities of IFMIF are performed under an IEA collaboration which began in 1995. In 2000, a three-year Key Element Technology Phase (KEP) of IFMIF was undertaken to reduce the key technology risk factors. This KEP report describes the results of the three-year KEP activities in the major project areas of accelerator, target, test facilities and design integration.
Department of Fusion Engineering Research; Department of Materials Science
JAERI-Conf 2001-007, 526 Pages, 2001/03
no abstracts in English
Enoeda, Mikio; Ohara, Yoshihiro; Roux, N.*; Ying, A.*; Pizza, J.*; Malang, J.*
Fusion Technology, 39(No.2 Part.2), p.612 - 616, 2001/03
no abstracts in English
Von-Moellendorff, U.*; Maekawa, Fujio; Giese, H.*; Wilson, P. P. H.*
Fusion Engineering and Design, 51-52(Part.B), p.919 - 924, 2000/11
Times Cited Count:4 Percentile:32.08(Nuclear Science & Technology)no abstracts in English
; Shiba, Kiyoyuki; Hishinuma, Akimichi
JAERI-Tech 97-061, 46 Pages, 1997/11
no abstracts in English
Shiba, Kiyoyuki; Hishinuma, Akimichi; ;
JAERI-Tech 97-038, 110 Pages, 1997/08
no abstracts in English
JAERI-Conf 96-012, 394 Pages, 1996/08
no abstracts in English
Amano, Hikaru
Hoken Butsuri, 27(2), p.174 - 175, 1992/00
no abstracts in English
Nakajima, Hajime
Kaku Yugoro Zairyo Foramu, 6, p.123 - 136, 1992/00
no abstracts in English
Ono, Hideo
Nihon Genshiryoku Gakkai-Shi, 32(11), p.1099 - 1100, 1990/11
no abstracts in English
Nihon Genshiryoku Gakkai-Shi, 30(3), p.207 - 211, 1988/00
Times Cited Count:0 Percentile:0.00(Nuclear Science & Technology)no abstracts in English
; ; Hiyama, Tadao; ; ; ; ; ; ; ; et al.
IEEE Transactions on Magnetics, 17(5), p.1734 - 1737, 1981/00
no abstracts in English
Journal of Nuclear Science and Technology, 10(10), p.619 - 625, 1973/10
no abstracts in English