ᵐᵎᵏᵔ ࠰ᴾ ؾཋឋܖᅹᴾ
ܖᘐᛯ૨ሁᴾ
ⴭ ᭩ 1. டᓥḠ୍㸪すᮏಇ㸪୕Ꮿ㏻༤㸭ᒙ≧」Ỉ㓟≀㸦LDH㸧ࢆ⏝ࡋࡓ⎔ቃίᮦᩱ 㸭᭱᪂↓ᶵ㧗ศᏊࡢ⏝㏵㛤Ⓨ㸪ࢩ࣮࢚࣒ࢩ࣮ฟ∧㸭2016 ᖺ 12 ᭶㸦ฟ∧ணᐃ㸧 2. ᚋభᩯ, ᮧୖ⠊Ṋ, ▼ᮏᐶః㸪⏣ᔱᬛஅ㸪㧗ཱྀ㇏㸭ࢼࣀⅣ⣲ᮦᩱࢆ⏝࠸ࡓỈࡽ ࡢỈ⣲〇㐀㸭⏕ྍ⬟࢚ࢿࣝࢠ࣮ࡼࡿỈ⣲〇㐀㸪S㸤T ฟ∧㸪➨㸱⠇㸪p135-142. 㸭2016 ᖺ 10 ᭶ ཎⴭㄽᩥ1. C. Oki, G. Sajiki, S. Sakida, Y. Benino, T. Nanba㸭Investigation of electronic structure of amorphous niobium oxide based on the DFT calculation of crystalline niobium pentoxide polymorphs㸭Journal of the Ceramic Society of Japan, 124(12) 1221-1225.㸭᪥ᮏࢭ࣑ࣛ ࢵࢡࢫ༠㸭2016 ᖺ
2. A. Mukunoki, T. Chiba, Y. Benino, T. Sakuragi㸭Microscopic structural analysis of lead borate-based glass㸭Progress in Nuclear Energy, 9 339̽344.㸭Elsevier㸭2016 ᖺ
3. S. Kohara, K. Ohara, H. Tajiri, C. Song, O. Sakata, T. Usuki, Y. Benino, A. Mizuno, A. Masuno, J.T. Okada, T. Ishikawa, S. Hosokawa㸭Synchrotron X-ray scattering measure- ments of disordered materials㸭Zeitschrift für Physikalische Chemie, 230, 339-368.㸭DE GRUYTER㸭2016 ᖺ
4. ୕℩༓ᬡ, ∦᱒క, すᮏಇ, டᓥḠ୍, ୕Ꮿ㏻༤㸭␆⋇㦵ṧ´ࡽศ㞳ࡋࡓỈ
㓟ࣃࢱࢺࡼࡾ㞴⁐ࡋࡓᅵተ୰࢝ࢻ࣑࣒࢘ࡢゎᯒ㸭᪥ᮏᅵተ⫧ᩱᏛㄅ, 87, 9-14.㸭᪥ᮏᅵተ⫧ᩱᏛ㸭2016 ᖺ
5. M. Miyake, S. Matsumoto, M. Iwami, S. Nishimoto, Y. Kameshima㸭Electrochemical performances of Ni1-xCux/SDC cermet anodes for intermediate-temperature SOFCs using syngas fuel㸭Int. J. Hydrogen Energy, 41, 13625-13631.㸭Elsevier㸭2016 ᖺ
6. M. Miyake, M. Iwami, K. Goto, K. Iwamoto, K. Morimoto, M. Shiraishi, K. Takatori, M. Takeuchi, S. Nishimoto, Y. Kameshima㸭Intermediate-temperature solid oxide fuel cell employing reformed effective biogas: Power generation and inhibition of carbon deposition 㸭J. Power Sources, in press.㸭Elsevier㸭2016 ᖺ
ferrocenylthiocarbonyl groups㸭Chem. Lett. DOI: 10.1246/cl.160866.㸭᪥ᮏᏛ㸭 2016 ᖺ
8. H. Shirai, T. Tajima, K. Kubo, T. Nishihama, H. Miyake, Y. Takaguchi㸭Synthesis and crystal structure of a [70]fullerene̽pentacene monoadduct㸭Bull. Chem. Soc. Jpn., 89, 437-443.㸭᪥ᮏᏛ㸭2016 ᖺ
9. H. Goto, T. Tajima, K. Kobayashi, Y. Takaguchi, K. Nueangnoraj, H. Nishihara㸭Synthesis and photoproperties of edge-functionalized zeolite-templated carbon with bromine or carbazole groups㸭Chem. Lett., 45, 601-603.㸭᪥ᮏᏛ㸭2016 ᖺ
10. H. Suda, Md. A. Uddin, Y. Kato㸭Chlorine removal from incinerator bottom ash by superheated steam㸭Fuel, 184,753-760.㸭2016 ᖺ
11. K. Yoshitomi, M. Nagase, Md. A. Uddin, Y. Kato㸭Fluid mixing in ladle of RH degasser induced by down flow㸭ISIJ INt., 56, 1119-1123.㸭2016 ᖺ
12. Ⱚ❳ኴ㑻, Md. A. Uddin, ຍ⸨ⱥ㸭ᶵᲔᨩᢾࡢᅛᾮ㛫ΰྜࣃࢱ࣮ࣥࡑࡢᾮᾮ
⣔ࡢẚ㍑, Solid/liquid mixing pattern and its comparison with liquid/liquid one in a mechanically-stirred vessel㸭㕲㗰, 102, 196-201.㸭2016 ᖺ
13. Y. Kawabe, Md. A. Uddin, Y. Kato, M. O. Seok, S. B. Lee㸭Correlation between liquid/liquid nass transfers in a top/bottom blowing converter㸭ISIJ INt., in press.㸭2016 ᖺ
14. G. Takeuchi, H. Tamaki, Md. A. Uddin, Y. Kato, E. Kiso, K. Takahashi㸭Mutual effect of steedmaking srag laler depth and diameter on alkali elution rate in open channel vessels with straitened seawater flow㸭J. Sustain. Metall., in press.㸭2016 ᖺ
15. T. Shimanouchi, S. Fujioka, Y. Kataoka, T. Tanifuji, Y. Kimura㸭Chemical conversion and liquid-liquid extraction of 5-hydroxymethylfurfural from fructose by slug flow microreactor㸭AIChE J., 62, 2135-2143㸭AIChE㸭2016 ᖺ
16. Y. Yokoyama, S. Aoyagi, T. Shimanouchi, M. Iwamura, H. Iwai㸭ToF-SIMS analysis of amyloid beta aggregation on different lipid membranes㸭Biointerphases, 11, 02A314㸭AIP Publishing, LLC㸭2016 ᖺ
17. S. Aoyagi, M. Iwamura, T. Shimanouchi, Y. Yokoyama, H. Iwai㸭The structural evaluation of amyloid beta on lipid membranes㸭Surf. Interface Anal., DOI: 10.1002/sia.6086.㸭⾲㠃 ⛉Ꮫ㸭2016 ᖺ
18. T. Shimanouchi, S. Fukuma, Y. Kimura㸭Molecular recognition/transformation based on membrane dynamics㸭Membrane, 41(5), 244-249.㸭᪥ᮏ⭷Ꮫ㸭2016 ᖺ
19. S. Mikawa, C. Mizuguchi, K. Nishitsuji, T. Baba, A. Shigenaga, T. Shimanouchi, N. Sakashita, A. Otaka, K. Akaji, H. Saito㸭Heparin promotes fibril formation by the N-terminal fragment of amyloidogenic apolipoprotein A-I 㸭 FEBS Lett., DOI: 10.1002/1873-3468.12426.㸭Elsevier㸭2016 ᖺ
20. K. Hayashi, H. Iwai, T. Kamei, K. Iwamoto, T. Shimanouchi, S. Fujita, H. Nakamura, H. Umakoshi 㸭 Tailor-made drug carrier: Comparison of formation-dependent physico- chemical properties within self-assembled aggregates for an optimal drug carrier㸭Coll. Surf. B, in press.㸭Elsevier㸭2016 ᖺ
2,5-furandicarboxylic acid via nucleophilic aromatic substitution polymerization㸭J. Polym. Sci. Part A: Polym. Chem., 54, 3094-3101.㸭2016 ᖺ
22. T. Ohnishi, M. Nakagawa, K. Wakabayashi, T. Uchida, S. Yamazaki, K. Kimura㸭 Preparation of helical crystals of aromatic poly(ester-imide) and on-off switching of helix formation㸭Polymer, 98, 378-386.㸭2016 ᖺ
23. Y. Kanetaka, S. Yamazaki, K. Kimura㸭Preparation of Poly(ether ketone)s Derived from 2,5-Furandicarboxylic Acid by Polymerization in Ionic Liquid㸭Macromolecules, 49, 1252-1258.㸭2016 ᖺ
24. Y. Kanetaka, S. Yamazaki, K. Kimura 㸭 Synthesis of Poly(ether ketone)s from 2,5-Thiophenedicarboxylic Acid㸭J. Photopolym. Sci. Technol., 29, 243-246.㸭2016 ᖺ
⥲ㄝ➼ 1. 㞴Ἴᚨ㑻, ᓮ⏣┿୍, ⣚㔝Ᏻᙪ㸭ࢫࣛࢢࡽࡢࣜࣥ㈨※ࡢᅇ㸭Phosphorus Letter, 86, 40-46㸭᪥ᮏ↓ᶵࣜࣥᏛ㸭2016 ᖺ ᣍᚅㅮ₇ࡲࡓࡣᇶㄪㅮ₇ 1. すᮏಇ㸭㓟ࢳࢱࣥ⾲㠃ࡢỈ୰࠾ࡅࡿ᧕Ἔᛶࡢホ౯⎔ቃㄪᢏ⾡ࡢᛂ⏝ 㸭᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠ 2016 ᖺᖺࢧࢸࣛࢺࣉࣟࢢ࣒ࣛࠕ➨㸱ᅇ㈨※࣭⎔ቃ㛵 㐃ࢭ࣑ࣛࢵࢡࢫᮦᩱ࣭ᢏ⾡◊✲ㅮ₇ࠖ㸭2016 ᖺ 3 ᭶
2. Y. Kameshima 㸭 ENHANCEMENT OF THE PHOTOCATALYTIC ACTIVITY OF NITROGEN DOPED TITANIUM OXIDE / CLAY COMPOSITE BY A BLACKENING TREATMENT㸭The 3rd Asian Clay Conference 2016㸭2016 ᖺ 11 ᭶
3. ⏣ᔱᬛஅ㸭⟄≧࣐ࢡࣟᏍ㓄ิࢆᣢࡘ㓟ࢫࢬࡢྜᡂ⼥ྜ࣐ࢸࣜࣝࡢᒎ㛤
㸭➨ 11 ᅇ᭷ᶵඖ⣲Ꮫࢭ࣑ࢼ࣮㸭2016 ᖺ 6 ᭶
4. ᓥෆᑑᚨ㸭⭷ࡢືⓗ≉ᛶࢆ⏝ࡋࡓศᏊㄆ㆑/ศᏊኚ㸭⭷Ꮫ 38 ᖺ㸭2016 ᖺ 5
᭶
5. ᓥෆᑑᚨ㸭Growth Behavior of Amyloid Fibrils on Membrane Interfaces of Lipid Membranes㸭Annual Meetings of AIChE㸭2016 ᖺ 11 ᭶
6. ᓥෆᑑᚨ㸭ࣝࢶࣁ࣐࣮㛵㐃ࢱࣥࣃࢡ㉁ࡢ᳨▱Ⓨᢚไྥࡅࡓྲྀࡾ⤌ࡳ 㸭ࡗὶ㸭2016 ᖺ 6 ᭶ ◊✲ㅮ₇࣭Ⓨ⾲ 1. ⥙⏣ྜྷఙ㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭㒔ᕷࡈࡳ⁐⼥ࢫࣛࢢࡢᵓᡂඖ⣲ࡢ⁐ฟ ᣲືㄪᰝ㸭᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠ࢭ࣑ࣛࢵࢡࢫᇶ♏⛉Ꮫウㄽ㸭2016 ᖺ 1 ᭶ 2. ᐑᮏ⿱ኴ㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭Ag+1D+㟁⏺࢜ࣥࡼࡾࢸࣝࣛ ࢺ࢞ࣛࢫ୰⏕ᡂࡍࡿ㖟ᚤᏊࡢ≧ែ㸭᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠ࢭ࣑ࣛࢵࢡࢫᇶ♏ ⛉Ꮫウㄽ㸭2016 ᖺ 1 ᭶ 3. ᯇ㑳ஓ㸪ᑠ㔝ᘺ㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭࢝ࣝࢩ࣒࢘ࣜࣥ㓟ሷ⣔ఙ㛗
࢞ࣛࢫࡢศᏊືຊᏛᵓ㐀ࣔࢹࣝ㸭᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠ 2016 ᖺ㸭2016 ᖺ 3 ᭶ 4. ᮾᙪ㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭㔠ᒓ㟁ᴟ㈏ධక࠺࢞ࣛࢫࡢ⤖ᬗ㸭᪥ ᮏࢭ࣑ࣛࢵࢡࢫ༠ 2016 ᖺ㸭2016 ᖺ 3 ᭶ 5. 㧗℩㝧㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭࢞ࢫ⁐⼥ἲࡼࡾㄪ〇ࡉࢀࡓࢫࣛࢢ ࡢᵓᡂඖ⣲ࡢ⁐ฟᣲື㛵ࡍࡿ◊✲㸭᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠ 2016 ᖺ㸭2016 ᖺ 3 ᭶ 6. ඖୗ▱Ꮨ㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸪ᑠཎ┿ྖ㸭X ⥺␗ᖖᩓࡼࡿࢸࣝࣛ ࢺ࢞ࣛࢫࡢᵓ㐀ゎᯒ㸭᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠⛅Ꮨࢩ࣏ࣥࢪ࣒࢘㸭2016 ᖺ 9 ᭶ 7. ሷ⏣ᑗ㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭SnO ࢻ࣮ࣉ ZnO-P2O5 ⣔࢞ࣛࢫࡢⓎග ≉ᛶ㸭᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠⛅Ꮨࢩ࣏ࣥࢪ࣒࢘㸭2016 ᖺ 9 ᭶ 8. ᮌከⱥᩯ㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭㑏ඖ⁐⼥࠾ࡅࡿ⬺ࣜࣥࢫࣛࢢࡢᵓ ᡂඖ⣲ࡢศ㓄ᣲື㸭᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠⛅Ꮨࢩ࣏ࣥࢪ࣒࢘㸭2016 ᖺ 9 ᭶ 9. ⸨ᮏెᜨ㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭᪂ࡓ࡞ሷᇶᗘホ౯ᡭἲࡢ㛤Ⓨ㸭᪥ᮏࢭ ࣑ࣛࢵࢡࢫ༠ࣖࣥࢢࢭ࣑ࣛࢫࢺ࣑࣮ࢸࣥࢢ in ୰ᅄᅜ㸭2016 ᖺ 12 ᭶ 10. ࣇ࣐ࣛࣜࢼ ࣅࣥࢸ࢝ࣝࢽࢨ㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭㒔ᕷࡈࡳ⁐ ⼥ࢫࣛࢢࡢᵓᡂඖ⣲ฟᣲື㸭᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠ࣖࣥࢢࢭ࣑ࣛࢫࢺ࣑࣮ࢸࣥ ࢢ in ୰ᅄᅜ㸭2016 ᖺ 12 ᭶ 11. 㟷◒⨾✑㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭ࣜࢳ࣒࢘࢜ࣥ㟁ụࡢᨺ㟁క࠺㠀 ᬗ㉁ࣇ࢙ࣁࢻࣛࢺࡢᵓ㐀ኚ㸭᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠ࣖࣥࢢࢭ࣑ࣛࢫࢺ࣑࣮ࢸ ࣥࢢ in ୰ᅄᅜ㸭2016 ᖺ 12 ᭶ 12. ᳃ᕝᑦ⨾㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭ᾮᬗ࢞ࣛࢫࡢࣜࢧࢡࣝᡭἲࡢ㛤Ⓨ㸭 ᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠ࣖࣥࢢࢭ࣑ࣛࢫࢺ࣑࣮ࢸࣥࢢ in ୰ᅄᅜ㸭2016 ᖺ 12 ᭶ 13. ᑠᯘᙬ⳹㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭␗᪉ᛶ࢞ࣛࢫࡢస〇ホ౯㸭᪥ᮏࢭࣛ ࣑ࢵࢡࢫ༠ࣖࣥࢢࢭ࣑ࣛࢫࢺ࣑࣮ࢸࣥࢢ in ୰ᅄᅜ㸭2016 ᖺ 12 ᭶ 14. ⸨ᮏᜨ㔛ⰼ㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭࣑ࣝࣀ࣍࢘㓟ሷ⣔࢞ࣛࢫࡢ㸲㓄 ࣍࢘⣲⏕ᡂࡢᨭ㓄ᅉᏊ㸭᪥ᮏࢭ࣑ࣛࢵࢡࢫ༠ࣖࣥࢢࢭ࣑ࣛࢫࢺ࣑࣮ࢸࣥࢢ in ୰ᅄᅜ㸭2016 ᖺ 12 ᭶ 15. ཎ⨾Ꮨ㸪ᓮ⏣┿୍㸪⣚㔝Ᏻᙪ㸪㞴Ἴᚨ㑻㸭SnO-P2O5⣔࢞ࣛࢫࡢᵓ㐀ゎᯒ㸭᪥ᮏࢭࣛ ࣑ࢵࢡࢫ༠ࣖࣥࢢࢭ࣑ࣛࢫࢺ࣑࣮ࢸࣥࢢ in ୰ᅄᅜ㸭2016 ᖺ 12 ᭶
16. Y. Takaguchi㸭Fabrication and Photosensiting Property of Coaxial Nanowires Having Carbon Nanotube Core㸭CATALYSIS at Okayama University Brainstorming Session㸭 2016 ᖺ 1 ᭶
17. Y. Takaguchi㸭Carbon Nanotube Hybrids Having Well-controlled Interface Structures㸭 International Workshop for Interplay between Nanocarbon, Supramolecule, and Biochemistry㸭2016 ᖺ 3 ᭶
18. T. Tajima㸭Fabrication of Novel Core-shell Microspheres Consisting of Single-walled Carbon Nanotubes and CaCO3 through Biomimetic Mineralization 㸭 International Workshop for Interplay between Nanocarbon, Supramolecule, and Biochemistry㸭2016 ᖺ 3 ᭶
19. ⓑோኈ㸪⏣ᔱᬛஅ㸪ஂಖኴ㑻㸪すཎඞဢ㸪㧗ཱྀ㇏㸭6,13-ࢪࣄࢻࣟ࣌ࣥࢱࢭࣥࢆ
Ꮨᖺ㸭2016 ᖺ 3 ᭶ 20. ᚋ⸨ⰋᏊ㸪⏣ᔱᬛஅ㸪ோ⛉ຬኴ㸪㧗ཱྀ㇏㸭ࢰࣝࢤࣝἲࢆ⏝ࡋࡓ SnO2-ࢢࣛࣇ࢙ࣥ ࢜࢟ࢩࢻࣁࣈࣜࢵࢻࡢྜᡂගゐ፹⬟㸭᪥ᮏᏛ➨ 96 Ꮨᖺ㸭2016 ᖺ 3 ᭶ 21. ᚋభᩯ㸪ᮧୖ⠊Ṋ㸪⏣ᔱᬛஅ㸪ஂಖ㝧♸㸪ࢡࣝࢽ࣡ࣥ ࢟࢟㸪୕Ꮿ⚽᫂㸪㧗ཱྀ ㇏㸭(6,5)༢ᒙ࣮࢝࣎ࣥࢼࣀࢳ࣮ࣗࣈࢆࢥᣢࡘྠ㍈࣮࣡ࣖ≧㉸ศᏊගቑឤࢩ ࢫࢸ࣒ࢆ⏝࠸ࡓỈ⣲Ⓨ⏕㸭᪥ᮏᏛ➨ 96 Ꮨᖺ㸭2016 ᖺ 3 ᭶ 22. ᮧୖ⠊Ṋ㸪⏣ᔱᬛஅ㸪ᚋభᩯ㸪ஂಖ㝧♸㸪ࢡࣝࢽ࣡ࣥ ࢟࢟㸪୕Ꮿ⚽᫂㸪㧗ཱྀ ㇏㸭(6,5)-enriched SWCNT/ࣇࣛࣟࢹࣥࢻࣟࣥ/Pt(II)㉸ศᏊ」ྜయࢆගቑឤࡋ࡚ ⏝࠸ࡓỈ⣲Ⓨ⏕㸭᪥ᮏᏛ➨ 96 Ꮨᖺ㸭2016 ᖺ 3 ᭶ 23. ୕Ꮿ⚽᫂㸪⏣ᔱᬛஅ㸪㧗ཱྀ㇏㸭ࢳ࢜࢝ࣝ࣎ࢽࣝᇶࢆ᭷ࡍࡿȧඹᙺ⣔ྜ≀ࡢྜᡂ ࣮࢝࣎ࣥࢼࣀࢳ࣮ࣗࣈࡢෆໟ㸭᪥ᮏᏛ➨ 96 Ꮨᖺ㸭2016 ᖺ 3 ᭶ 24. ▼ᮏᐶః㸪⏣ᔱᬛஅ㸪୕Ꮿ⚽᫂㸪㧗ཱྀ㇏㸭1,10-ࣅࢫ(ࢹࢩࣟ࢟ࢩ)ࢹ࢝ࣥࢆࢥᣢ ࡘ࣏࣑ࣜࢻ࣑ࣥࢹࣥࢻ࣐࣮ࣜ༢ᒙ࣮࢝࣎ࣥࢼࣀࢳ࣮ࣗࣈࡽ࡞ࡿྠ㍈ࢼࣀ ࣮࣡ࣖࡢྜᡂගቑឤᶵ⬟㸭➨ 65 ᅇ㧗ศᏊᏛᖺḟ㸭2016 ᖺ 5 ᭶ 25. ᮧୖ⠊Ṋ㸪⏣ᔱᬛஅ㸪ᚋభᩯ㸪ஂಖ㝧♸㸪ࢡࣝࢽ࣡ࣥ ࢟࢟㸪୕Ꮿ⚽᫂㸪㧗ཱྀ ㇏㸭(8,3)SWCNT/ࣇࣛࣟࢹࣥࢻࣟࣥ㉸ศᏊ」ྜయࢆගቑឤࡋ࡚⏝࠸ࡓỈ⣲Ⓨ⏕ 㸭➨ 65 ᅇ㧗ศᏊᏛᖺḟ㸭2016 ᖺ 5 ᭶ 26. すཎඞဢ㸪ⓑோኈ㸪ஂಖኴ㑻㸪⏣ᔱᬛஅ㸪㧗ཱྀ㇏㸭6,13-ࢪࣄࢻࣟ࣌ࣥࢱࢭࣥࢆ ẕ㦵᱁ࡍࡿࢸࢺࣛ࢝ࣝ࣎ࣥ㓟ࢪ࣑ࢻㄏᑟయࡢྜᡂᛶ㉁㸭➨ 65 ᅇ㧗ศᏊᏛ ᖺḟ㸭2016 ᖺ 5 ᭶ 27. ⏣ᔱᬛஅ㸭⟄≧࣐ࢡࣟᏍ㓄ิࢆᣢࡘ㓟ࢫࢬࡢྜᡂ⼥ྜ࣐ࢸࣜࣝࡢᒎ㛤 㸭➨ 11 ᅇ᭷ᶵඖ⣲Ꮫࢭ࣑ࢼ࣮㸭2016 ᖺ 6 ᭶ 28. ୕⏣㢗㸪୰ᒇᬛ㈗㸪⏣ᔱᬛஅ㸪㧗ཱྀ㇏㸭(MeN)4[Cd10S4(SPh)]16ࢪࣇ࢙ࢽࣝࢪࢭࣞ ࢽࢻࡢ㓄Ꮚᛂ㸭➨ 11 ᅇ᭷ᶵඖ⣲Ꮫࢭ࣑ࢼ࣮㸭2016 ᖺ 6 ᭶
29. K. Kurniawan, T. Tajima, Y. Kubo, H. Miyake, Y. Takaguchi㸭Photosensitized Hydrogen Evolution from Water Using a Single-Walled Carbon Nanotube/Fullerodendron/TiO2 Coaxial Nanohybrids㸭➨ 11 ᅇ᭷ᶵඖ⣲Ꮫࢭ࣑ࢼ࣮㸭2016 ᖺ 6 ᭶ 30. ᮧୖ⠊Ṋ㸪⏣ᔱᬛஅ㸪ᚋభᩯ㸪すᕝ⩧㸪୕Ꮿ⚽᫂㸪㧗ཱྀ㇏㸭(8,3)SWCNT/ࣇࣛࣟ ࢹࣥࢻࣟࣥ㉸ศᏊ」ྜయࢆගቑឤࡋ࡚⏝࠸ࡓỈ⣲Ⓨ⏕㸭➨ 27 ᅇᇶ♏᭷ᶵᏛ ウㄽ㸭2016 ᖺ 9 ᭶ 31. ▼ᮏᐶః㸪⏣ᔱᬛஅ㸪ὠ⿱㈗㸪୕Ꮿ⚽᫂㸪㧗ཱྀ㇏㸭༢ᒙ࣮࢝࣎ࣥࢼࣀࢳ࣮ࣗࣈ/ ࣏ࣜ(࣑ࢻ࣑ࣥ)ࢹࣥࢻ࣐࣮ࣜ㉸ศᏊ」ྜయࡢྜᡂගቑឤస⏝㸭➨ 27 ᅇᇶ♏ ᭷ᶵᏛウㄽ㸭2016 ᖺ 9 ᭶ 32. ⏣ᔱᬛஅ㸪ᚋ⸨ⰋᏊ㸪ᑠᯘṇ㸪㧗ཱྀ㇏㸪K. Nueangnoraj㸪すཎὒ▱㸭⮯⣲ࡲࡓࡣ ࢝ࣝࣂࢰ࣮ࣝᇶࢆ࢚ࢵࢪಟ㣭ࡋࡓࢮ࢜ࣛࢺ㗪ᆺⅣ⣲ᮦᩱࡢྜᡂග≀ᛶ㸭➨ 27 ᅇᇶ♏᭷ᶵᏛウㄽ㸭2016 ᖺ 9 ᭶ 33. ᖹᒣ㝯ኴ㑻㸪⏣ᔱᬛஅ㸪㧗ཱྀ㇏㸭SnO2/㓟ࢢࣛࣇ࢙ࣥࢼࣀࣁࣈࣜࢵࢻࡢྜᡂ ගᛂ㸭2016 ගᏛウㄽ㸭2016 ᖺ 9 ᭶ 34. ᮧୖ⠊Ṋ㸪⏣ᔱᬛஅ㸪ᚋభᩯ㸪୕Ꮿ⚽᫂㸪㧗ཱྀ㇏㸭(8,3)SWCNT/ࣇࣛࣟࢹࣥࢻࣟ ࣥ㉸ศᏊ」ྜయࢆගቑឤࡋ࡚⏝࠸ࡓỈ⣲Ⓨ⏕㸭2016 ගᏛウㄽ㸭2016 ᖺ 9 ᭶
35. ஂಖኴ㑻㸪⏣ᔱᬛஅ㸪ⓑோኈ㸪す℈ᣅஓ㸪㧗ཱྀ㇏㸭[60]ࣇ࣮ࣛࣞࣥ-࣌ࣥࢱࢭࣥ ຍయࡢ⮬ᕫྜ࠾ࡼࡧ⺯ගᣲື㸭2016 ගᏛウㄽ㸭2016 ᖺ 9 ᭶ 36. ᖹᒣ㝯ኴ㑻㸪⏣ᔱᬛஅ㸪㧗ཱྀ㇏㸭ࢹࣥࢻ࣐࣮ࣜᆺศᩓ MoS2ࡽ࡞ࡿ㉸ศᏊ」 ྜయࡢගㄏ㉳㟁Ꮚ⛣ື㸭2016 ගᏛウㄽ㸭2016 ᖺ 9 ᭶ 37. ⏣ᔱᬛஅ㸪࢟࢟ ࢡࣝࢽ࣡ࣥ㸪ஂಖ㝧♸㸪୕Ꮿ⚽᫂㸪㧗ཱྀ㇏㸭༢ᒙ࣮࢝࣎ࣥࢼࣀ ࢳ࣮ࣗࣈ/ࣇࣛࣟࢹࣥࢻࣟࣥ/TiO2 ㉸ศᏊගቑឤࢆ⏝ࡋࡓỈ⣲⏕ᡂ㸭➨ 65 ᅇ㧗 ศᏊウㄽ㸭2016 ᖺ 9 ᭶ 38. 㧗ཱྀ㇏㸪⏣୰ᬛ❶㸪すᮧಇ୍㸪⏣ᔱᬛஅ㸪୕Ꮿ⚽᫂㸪㔠᪥㱟㸪ᵳ⛯㸭࣏࣑ࣜ ࢻ࣑ࣥࢹࣥࢻ࣐࣮ࣜࢆ⏝ࡋࡓ࣮࢝࣎ࣥࢼࣀࢳ࣮ࣗࣈ/ࣄࢻࣟ࢟ࢩࣃࢱࢺ⼥ ྜ࣐ࢸࣜࣝࡢྜᡂ㸭➨ 65 ᅇ㧗ศᏊウㄽ㸭2016 ᖺ 9 ᭶ 39. 㧗ཱྀ㇏㸪ᮧୖ⠊Ṋ㸪▼ᮏᐶః㸪ᚋభᩯ㸪⏣ᔱᬛஅ㸪୕Ꮿ⚽᫂㸭༢ᒙ࣮࢝࣎ࣥࢼࣀ ࢳ࣮ࣗࣈࢆࢥᣢࡘࢼࣀྠ㍈࣮࣡ࣖࢆගቑឤ⏝࠸ࡓỈ⣲⏕ᡂᛂ㸭➨ 65 ᅇ㧗ศᏊウㄽ㸭2016 ᖺ 9 ᭶ 40. ⏣୰ᬛ❶㸪すᮧಇ୍㸪⏣ᔱᬛஅ㸪୕Ꮿ⚽᫂㸪㔠᪥㱟㸪ᵳ⛯㸪㧗ཱྀ㇏㸭ࢹࣥࢻࣜ ࣐࣮ࢆ⏝࠸ࡓఝయᾮ୰࡛ࡢ࣮࢝࣎ࣥࢼࣀࢳ࣮ࣗࣈ/ࣄࢻࣟ࢟ࢩࣃࢱࢺࢼࣀࣁ ࣈࣜࢵࢻ⏕ᡂ㸭➨ 65 ᅇ㧗ศᏊウㄽ㸭2016 ᖺ 9 ᭶ 41. すᮧಇ୍㸪⏣୰ᬛ❶㸪⏣ᔱᬛஅ㸪୕Ꮿ⚽᫂㸪㧗ཱྀ㇏㸭ᾐₕἲࢆ⏝࠸ࡓࢹࣥࢻࣜ ࣐࣮ಟ㣭ࣂࢵ࣮࣮࢟࣌ࣃ࣮ࡢࣃࢱࢺࢥ࣮ࢸࣥࢢ㸭➨ 65 ᅇ㧗ศᏊウㄽ㸭 2016 ᖺ 9 ᭶ 42. ୕Ꮿ⚽᫂㸪▼ᮏᐶః㸪ᮧୖ⠊Ṋ㸪⏣ᔱᬛஅ㸪㧗ཱྀ㇏㸭ࢳ࢜࢝ࣝ࣎ࢽࣝⰍ⣲ࢆෆໟ ࡋࡓ࣮࢝࣎ࣥࢼࣀࢳ࣮ࣗࣈࡢ㛤Ⓨ࠾ࡼࡧගゐ፹ࡢᛂ⏝㸭➨ 43 ᅇ᭷ᶵᆺඖ⣲ Ꮫウㄽ㸭2016 ᖺ 12 ᭶ 43. ▼ᮏᐶః㸪ὠ⿱㈗㸪⏣ᔱᬛஅ㸪୕Ꮿ⚽᫂㸪㧗ཱྀ㇏㸭༢ᒙ࣮࢝࣎ࣥࢼࣀࢳ࣮ࣗࣈ ෆໟࡉࢀࡓࢳ࢜࢝ࣝ࣎ࢽࣝⰍ⣲ࡢගቑឤᶵ⬟㸭➨ 43 ᅇ᭷ᶵᆺඖ⣲Ꮫウㄽ 㸭2016 ᖺ 12 ᭶ 44. ᮧ ୖ ⠊ Ṋ , す ᕝ ⩧ , ⏣ ᔱ ᬛ அ , ୕ Ꮿ ⚽ ᫂ , 㧗ཱྀ㇏㸭ࢳ࢜࢝ࣝ࣎ࢽࣝⰍ ⣲ ෆ ໟ SWCNT/ࣇࣛࣟࢹࣥࢻࣟࣥ㉸ศᏊ」ྜయࡢྜᡂගቑឤస⏝㸭➨ 43 ᅇ᭷ᶵᆺඖ ⣲Ꮫウㄽ㸭2016 ᖺ 12 ᭶ 45. ᓥෆᑑᚨ, ㏆⸨᫂ᗈ, ᮌᮧᖾᩗ㸭ள⮫⏺Ỉ᮲௳࣐ࢡࣟ࢟ࣕࣆ࣮ࣛࣜࢆ⤌ࡳྜࢃ ࡏࡓ O/W ࢚࣐ࣝࢩࣙࣥᙧᡂ㐣⛬ࡢ᳨ウ㸭➨ 35 ᅇ⁐፹ᢳฟウㄽ㸭2016 ᖺ 11 ᭶ 46. ᒣᮏኴ, ᓥෆᑑᚨ, ᮌᮧᖾᩗ㸭ࢫࣛࢢὶ࡛ࡢ≀㉁⛣ື≉ᛶཬࡰࡍ⏺㠃ࡺࡽࡂࡢ ᙳ㡪㸭➨ 35 ᅇ⁐፹ᢳฟウㄽ㸭2016 ᖺ 11 ᭶ 47. ᓥෆᑑᚨ, ⓑ㧨ຬᏘ, ᮌᮧᖾᩗ㸭࣏ࣜࢯ࣮࣒⭷ࡢືⓗ⏺㠃ࢆ⏝ࡍࡿࣜࢰࢳ࣒࢘⤖ ᬗไᚚ㸭ᏛᕤᏛ➨ 48 ᅇ⛅Ꮨ㸭2016 ᖺ 9 ᭶ 48. ᓥෆᑑᚨ, ᒾᮧ⨾ᶞ, ᮌᮧᖾᩗ㸭⦪᪉ྥᦂࡽࡂᶓ᪉ྥᦂࡽࡂᇶ࡙ࡃ⬡㉁⭷⏺㠃 ࡢືⓗᵓ㐀ࡢホ౯㸭ᏛᕤᏛ➨ 48 ᅇ⛅Ꮨ㸭2016 ᖺ 9 ᭶
49. T. Shimanouchi, M. Iwamura, S. Deguchi, Y. Kimura㸭Polymer-based Membrane as Biosensor for Detection of Amyloid E Protein㸭KJF-ICOMEP 2016㸭2016 ᖺ 9 ᭶
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Shinji Kohara, Koji Ohara, Hiroo Tajiri, Chulho Song, Osami Sakata, Takeshi Usuki, Yasuhiko Benino, Akitoshi Mizuno, Atsunobu Masuno, Junpei T. Okada, Takehiko Ishikawa, Shinya Hosokawa ··· 116 3. Microscopic structural analysis of lead borate-based glass
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ᒸᒣᏛ⎔ቃ⌮ᕤᏛ㒊◊✲ሗ࿌Vol.22 ⎔ቃ≀㉁ᕤᏛ⛉
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Recovery of Phosphorous from Slags
㞴Ἴᚨ㑻1)㸪ᓮ⏣┿୍2)㸪⣚㔝Ᏻᙪ3)
Tokuro Nanba1)㸪Shinichi Sakida2)㸪Yasuhiko Benino3) ڦ ᴫ せ ڦ ᐙᗞࡈࡳ࡞ࡢ୍⯡ᗫᲠ≀ࡢ↝༷⅊ࡸ⁐⼥ࢫࣛࢢ㸪⏘ᴗࡽฟࡉࢀࡿ㖔ࡉ࠸ࡸởἾ࡞ࡣ㸪SiO2㸪 CaO㸪Al2O3 ࡞ࡢ↓ᶵ⣔ࡢᏛᡂศࢆከࡃྵࡳ㸪◁ࡸ▼ఝࡓᛶ≧ࢆᣢࡘࡇࡀ▱ࡽࢀ࡚࠸ࡿࠋᏛ ⓗࡶᏳᐃ࡛࠶ࡿࡓࡵ㸪◁ࡸ◁ࡢ௦᭰ࡋ࡚⏝ࡉࢀ࡚ࡁࡓࠋࡋࡋ㸪ᇙࡵ❧࡚ฎศࡉࢀࡿ㔞ࡶᑡ ࡞ࡃ࡞࠸ࡇຍ࠼㸪ࣜࣥࡸࢳࢱࣥ࡞㈨※ࡋ࡚౯್ࢆ᭷ࡍࡿᡂศࡀྵࡲࢀ࡚࠸ࡿࡶ㛵ࢃࡽࡎ㸪ࣜ ࣥ㈨※࡞ࡋ࡚ࡢ⏝ࡸά⏝ࡣ࡞ࡉࢀ࡚࠸࡞࠸ࡢࡀ⌧≧࡛࠶ࡿࠋᙜ◊✲ᐊ࡛ࡣ↓ᶵ⣔㈨※≀ ࡢᏛ⤌ᡂࡀ࢞ࣛࢫ㢮ఝࡋ࡚࠸ࡿࡇ╔┠ࡋ㸪࢞ࣛࢫࡢᛶ㉁ࢆ⏝ࡋࡓࣜࢧࢡࣝࣉࣟࢭࢫࡢ㛤Ⓨ ྲྀࡾ⤌ࢇ࡛ࡁࡓࠋ ◊✲㛤ጞᙜึࡣ㸪࢞ࣛࢫࡢ┦ศ㞳⌧㇟ࢆ⏝ࡋࡓ᭷⏝㈨※ࡢ㑅ᢥⓗᅇࢆᅗࡋࡓࡓࡵ㸪ศ┦ಁ㐍 ࡋ࡚ B2O3 ࢆ㈨※≀ῧຍࡋ࢞ࣛࢫࡉࡏ㸪⇕ฎ⌮࣭㓟ฎ⌮ࢆ⤒࡚ᵓᡂᡂศࢆᅛ┦ᾮ┦ศ㞳 ࡉࡏࡓࠋ㧗⅔Ỉ○ࢫࣛࢢࡸᐙᗞࡈࡳ⁐⼥ࢫࣛࢢࢆ⏝࠸࡚ᐇ㦂ࢆ⾜ࡗࡓࡇࢁ㸪SiO2 ྵ᭷㔞ࡢ㧗࠸↓Ⰽ㏱ ᫂࡞࢞ࣛࢫᅛయࢆᚓࡿࡇᡂຌࡍࡿࡶ㸪ࡑࡢ㝿ࣜࣥࡸࢳࢱࣥࡀ࢞ࣛࢫᅛయ㑅ᢥⓗྲྀࡾ ㎸ࡲࢀࡿࡇࢆぢ࠸ࡔࡋࡓࠋࡇࢀࡼࡾ㸪┦ศ㞳ࡢ㝿ࣜࣥࡸࢳࢱࣥࡀ SiO2 ࣜࢵࢳ࡞࢞ࣛࢫ┦ྲྀࡾ㎸ ࡲࢀࡓ⪃ᐹࡋࡓࠋᐙᗞࡈࡳ⁐⼥ࢫࣛࢢࡘ࠸࡚ࡣࡑࡢᚋ㸪┦ศ㞳ࡣ㉳ࡇࡗ࡚࠾ࡽࡎ㸪㓟ฎ⌮ࡢ⁐ゎ ᯒฟࡼࡾ࢞ࣛࢫᅛయࡀ⏕ᡂࡋ࡚࠸ࡿࡇ࡞㸪᪂ࡓ࡞▱ぢࢆᚓ࡚࠸ࡿࠋࡲࡓ᭱㏆࡛ࡣ㸪⁐⼥㑏ඖ ࡼࡿࣜࢧࢡࣝࣉࣟࢭࢫࡢ㛤Ⓨࡶྲྀࡾ⤌ࢇ࡛࠸ࡿࠋᮏ✏࡛ࡣ㸪ᐙᗞࡈࡳ⁐⼥ࢫࣛࢢ⬺ࣜࣥࢫࣛࢢ ୰ࡢࣜࣥࡢࣜࢧࢡࣝࢆ┠ⓗࡋࡓ᭱㏆ࡢ◊✲ᡂᯝࢆ⤂ࡋࡓࠋ 0 20 40 60 80 100 6 7 8 9 10 Mg P Ca Ti Mn Fe Di str ibuti o n r a te i n to gl a s s ph as e ( % ) Flour dosage (g) (a) B1 crucible 0 20 40 60 80 100 6 7 8 9 10 Mg P Ca Ti Mn Fe Di str ibuti o n r a te i n to gl a s s ph as e ( % ) Flour dosage (g) (b) C1 crucible ᅗ 8 㑏ඖ⁐⼥ฎ⌮ࡼࡿ⬺ࣜࣥࢫࣛࢢᵓᡂᡂศࡢ࢞ࣛࢫ┦ࡢศ㓄⋡ ⬺ࣜࣥࢫࣛࢢᑠ㯏⢊㸪SiO2 Na2CO3 ࢆῧຍࡋ࡚⁐⼥ࡋࡓࡇࢁ㸪ࡿࡘࡰᗏ㒊 Fe ࢆᡂศ ࡍࡿ⌫≧ࡢ㔠ᒓࡀ☜ㄆࡉࢀࡓࠋࢫࣛࢢᵓᡂᡂศࡀ⁐⼥ᚋࡢ࢞ࣛࢫ┦ศ㓄ࡉࢀࡓྜ㸦ᅗ 8㸧 ࡼࡾ㸪እᚄࡢᑠࡉ࡞ C1 ᆺࡿࡘࡰࡢ᪉ࡀ Fe ᡂศࢆࡼࡾከࡃ㑏ඖࡍࡿࡇࡀ࡛ࡁࡿ࠸࠼ࡿࠋࡲࡓ P ᡂศࡢྵ᭷㔞ࡘ࠸࡚ࡣ㸪C1 ᆺࡿࡘࡰ࡛ࡣࡰࢮࣟ࡞ࡗ࡚࠸ࡓࠋ ڦ࣮࣮࢟࣡ࢻڦ ᐙᗞࡈࡳ⁐⼥ࢫࣛࢢ㸪⬺ࣜࣥࢫࣛࢢ㸪ࣜࣥᅇࣉࣟࢭࢫ㸪㑏ඖ⁐⼥ἲ ڦ ᡤ ᒓ ڦ 1)Ꮫ㝔⎔ቃ⏕⛉Ꮫ◊✲⛉ ᩍᤵ㸪2)⎔ቃ⟶⌮ࢭࣥࢱ࣮ ຓᩍ㸪3) Ꮫ㝔⎔ቃ⏕⛉Ꮫ◊✲⛉ ᩍᤵ ڦ ᥖ㍕ඛ ڦ
᪥ᮏ↓ᶵࣜࣥᏛⓎ⾜㸪Phosphorus Letter, Vol.86, pp.40-46, 2016.
ᒸᒣᏛ⎔ቃ⌮ᕤᏛ㒊◊✲ሗ࿌Vol.22 ⎔ቃ≀㉁ᕤᏛ⛉
Synchrotron X-ray Scattering Measurements of Disordered Materials
Shinji Kohara1,2,3,4), Koji Ohara4), Hiroo Tajiri4), Chulho Song2), Osami Sakata1,2), Takeshi Usuki5), Yasuhiko Benino6), Akitoshi Mizuno7), Atsunobu Masuno8), Junpei T. Okada9), Takehiko Ishikawa9), Shinya Hosokawa10)
ڦSummary ڦ
With the advent of third-generation synchrotron sources and the development of light source techniques, X-ray scattering techniques have become feasible, leading to new approaches for studying the structures of disordered materials in a quantitative manner. We introduce a dedicated diffractometer for high-energy total X-ray scattering measurement and a newly developed anomalous X-ray spectrometer at SPring-8. As advanced methodologies for the measurement of liquids, we now offer three state-of-art levitation instruments for aerodynamic levitation, electrostatic levitation, and acoustic levitation at the SPring-8 beamlines, covering a wide temperature range of í40-3000qC. Furthermore, scientific investigations of glasses, liquids, and amorphous materials reported in the last five years at SPring-8 are reviewed.
Figure 6: D 'LIIHUHQWLDOVWUXFWXUHIDFWRUVǻܵ(ܳ) for Nb in 25BaO-50Nb2O5-25P2O5glass together with the total structure factor ܵ(ܳ) obtained by HEXTS measurement and (b) total correlation functions ܶ(ݎ) for 25BaO-50Nb2O5-25P2O5 glass. ܵ(ܳ) and ܶ(ݎ) for HEXTS are displaced upward by 3 and 5 units, respectively, for clarity. The solid and dashed curves of ܶ(ݎ) were obtained by Fourier transformation with ܳmax = 9.9 Åí1and 25 Åí1, respectively.
ڦ Key word ڦ
High-energy X-ray Scattering, Anomalous X-ray Scattering, Glass, Liquid, Amorphous Materials. ڦAffiliation ڦ
1) Quantum Beam Unit, National Institute for Materials Science (NIMS) 2) Synchrotron X-ray Station at SPring-8, NIMS
3) Information Integrated Materials Research Unit, Research Center For Information Integrated Materials, NIMS 4) Research & Utilization Division, Japan Synchrotron Radiation Research Institute
5) Graduate School of Science and Engineering, Yamagata University 6) Graduate School of Environmental and Life Science, Okayama University 7) Department of Physics, Gakushuin University
8) Institute of Industrial Science, The University of Tokyo
9) Institute of Space and Astronautical Science (ISAS), Japan Aerospace Exploration Agency (JAXA) 10) Department of Physics, Graduate School of Science and Technology, Kumamoto University ڦ P r i n t i n g ڦ
Zeitschrift für Physikalische Chemie, 2016; Vol. 230(3), pp.339-368, 2016.3, doi: 10.1515/zpch-2015-0654. Peer-reviewed, Language: English
ᒸᒣᏛ⎔ቃ⌮ᕤᏛ㒊◊✲ሗ࿌Vol.22 ⎔ቃ≀㉁ᕤᏛ⛉
Microscopic structural analysis of lead borate-based glass
Atsushi Mukunoki1), Tamotsu Chiba1), Yasuhiko Benino2), Tomofumi Sakuragi3)ڦSummary ڦ
The development of an iodine immobilization technique that can retain radioactive iodine in a waste form for a long period and constrain its leaching into pore water is necessary in order to secure the long term safety of geological disposal of transuranic waste. Lead borate glass vitrified at a low temperature is regarded as a promising material for immobilizing the Iodine-129 that is recovered from spent AgI filters used in reprocessing plants in Japan.
Structural models of lead borate-based glass were constructed by the Reverse Monte Carlo (RMC) method based on experimental information from such sources as neutron and high-energy X-ray diffraction, XAFS, and 11B MAS NMR spectroscopic analyses.
The neutron structure factors [SN(Q)] and X-ray structure factors [SX(Q)] that were calculated by RMC and measured by J-PARC/MLF-BL20 and SPring-8/BL04B2 suggest that RMC results are consistent with experimental measurements and reveal that structural information of neutrons is indispensable for analyzing the surrounding boron structures.
Fig. 7. Comparison of structure factors between RMC calculations and experimental results.
Fig. 8 (left). A typical structure of Pb
coordination with shared corners and edges.
Fig. 9 (right). Pb-I binding in the structural
model of BPI vitrified glass ڦ Key word ڦ
Iodine, Lead borate glass, Reverse Monte Carlo method, Neutron structure factor ڦAffiliation ڦ
1) JGC Corporation
2) Graduate School of Environmental and Life Science, Okayama University, 3) Radioactive Waste Management Funding and Research Center
ڦ P r i n t i n g ڦ
Progress in Nuclear Energy, 2016, Vol. 91, pp.339-344, 2016.8. , doi: 10.1016/j.pnucene.2016.05.008
ᒸᒣᏛ⎔ቃ⌮ᕤᏛ㒊◊✲ሗ࿌Vol.22 ⎔ቃ≀㉁ᕤᏛ⛉
Investigation of electronic structure of amorphous niobium oxide based on the
density functional theory calculation of crystalline niobium pentoxide polymorphs
Chinatsu Oki1), Go Sajiki2), Shinichi Sakida3), Yasuhiko Benino4), Tokuro Nanba5)ڦSummary ڦ
Electronic structure of amorphous niobium oxide prepared by a sputtering method was investigated based on optical absorption and photoelectron spectroscopies. In the valence band photoelectron spectra, broad peaks without any characteristic components were observed. Then, theoretical calculations based on a density functional theory were performed to interpret the experimental spectra by using three Nb2O5 polymorphs. Among the polymorphs, M-phase with tetragonal structure showed better reproducibility than the other B- and R-phases with monoclinic structure. It was finally concluded that the amorphous niobium oxide had a similar electronic structure to M-Nb2O5, and it was supposed that the broad feature in the photoelectron spectra was due to the broad distribution of NbO bonds in NbO6polyhedra, which was characteristic in M-Nb2O5.
(a) XPS (b) UPS
Fig. 5. (a) XPS and (b) UPS of B-, R-, and M-phases of Nb2O5 obtained from DFT calculations and experimental spectra of amorphous NbOx.
ڦ Key word ڦ
Niobium oxide, Electronic structure, Photoelectron spectrum, Optical absorption spectrum, Density functional theory calculation
ڦAffiliation ڦ
1) Student, Graduate School of Environmental and Life Science
2) Technical Personnel, National Institute of Technology, Kagawa College 3) Assistant Professor, Environmental Management Center
4) Associate Professor, Graduate School of Environmental and Life Science 5) Professor, Graduate School of Environmental and Life Science
ڦ P r i n t i n g ڦ
Journal of the Ceramic Society of Japan, 2016, Vol. 124(12), pp.1221-1225, 2016.12, .doi:10.2109/jcersj2.16180. Peer-reviewed, Language: English
ҡಅᛯ૨ᴾ
ࢭ࣑ࣛࢵࢡࢫᮦᩱᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸㞴Ἴᚨ㑻࣭⣚㔝Ᏻᙪ࣭ᓮ⏣┿୍㸧 1. ࣉ࣮ࣟࣈ࢜ࣥࢆ⏝࠸ࡓ࢞ࣛࢫࡢሷᇶᗘホ౯ 2. ࢣ⣲ࠊࣜࣥ⨨㠀ᬗ㉁ࣇ࢙ࣜࣁࢻࣛࢺࡢᵓ㐀ࣔࢹࣜࣥࢢ 3. 㑏ඖ⁐⼥ἲࡼࡿ㈨※≀ࡽࡢࣜࣥᅇࣉࣟࢭࢫࡢ㛤Ⓨ 4. SnO-ZnO-P2O5⣔࢞ࣛࢫࡢⓎග≉ᛶ 5. X ⥺␗ᖖᩓ࠾ࡅࡿᙉᗘ⿵ṇᡭἲࡢ☜❧ ↓ᶵᶵ⬟ᮦᩱᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸டᓥḠ୍࣭すᮏಇ㸧 6. TiO2 ගゐ፹⾲㠃ࢩࣜࣝᇶࢆᑟධࡋࡓ」ྜⷧ⭷ࡢస〇ࢭࣝࣇࢡ࣮ࣜࢽࣥࢢ≉ᛶ ホ౯ 7. Fe ࢆྵࢇࡔᒙ≧」Ỉ㓟≀ (LDH) ࡼࡿ㐣㓟Ỉ⣲ศゎ 8. Ỉ୰࡛㉸᧕Ἔᛶࢆ♧ࡍ㓟ࢳࢱࣥࢳ࣮ࣗࣈࡽࡢᚤᑠἜࡢศὀ 9. CH4ࢆ⇞ᩱ⏝࠸ࡓ SOFC ࠾ࡅࡿࣀ࣮ࢻࡢ᳨ウ 10. ࢻࣛࢤࣝࢥࣥࣂ࣮ࢪࣙࣥἲࡼࡿⅣࢣ⣲ᇶᯈୖࡢ ZSM-5 ࡢᡂ⭷ 11. ࢮ࢜ࣛࢺࢆཎᩱ⏝࠸ࡓࢪ࣏࣐࣮࢜ࣜࡢస〇 12. 㓟ࢳࢱࣥ⾲㠃࠾ࡅࡿ✀ࠎࡢ⬡⫫㓟ࡢࢀᣲື ᭷ᶵᶵ⬟ᮦᩱᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸㧗ཱྀ㇏࣭⏣ᔱᬛஅ㸧 13. ༢ᒙ࣮࢝࣎ࣥࢼࣀࢳ࣮ࣗࣈ/ࣇࣛࣟࢹࣥࢻࣟࣥ/TiO2ྠ㍈ࢼࣀ࣮࣡ࣖࡢస〇᮲௳᭱ 㐺Ỉ⣲Ⓨ⏕ගቑឤࡢᛂ⏝ 14. 1,10-ࣅࢫ(ࢹࢩࣟ࢟ࢩ)ࢹ࢝ࣥࢆࢥᣢࡘࢹࣥࢻ࣐࣮ࣜࢆ⏝࠸ࡓⰍ⣲ෆໟ࣮࢝࣎ ࣥࢼࣀࢳ࣮ࣗࣈࡢ⾲㠃ಟ㣭ගቑឤᶵ⬟ 15. 1,10-ࣅࢫ(ࢹࢩࣟ࢟ࢩ)ࢹ࢝ࣥࢆࢥᣢࡘࢹࣥࢻ࣐࣮ࣜࢆ⏝࠸ࡓ࣮࢝࣎ࣥࢼࣀࢳ ࣮ࣗࣈ/ࣄࢻࣟ࢟ࢩࣃࢱࢺࢼࣀࣁࣈࣜࢵࢻࡢస〇 16. N,N̓-ࣅࢫ(2-࢚ࢳࣝ࣊࢟ࢩࣝ)⨨ 6,13-ࢪࣄࢻࣟ࣌ࣥࢱࢭࣥࣅࢫ࣑ࢻࡢྜᡂᛶ ㉁ 17. ࣥࢺࣜࣝࢹࣥࢻࣟࣥࢆ⏝࠸ࡓ MoS2ࡢ≀⌮ಟ㣭⺯ගᾘගᣲື 18. (8,3), (7,5), ࠾ࡼࡧ (6,5)༢ᒙ࣮࢝࣎ࣥࢼࣀࢳ࣮ࣗࣈගゐ፹ࡢⓑ㔠㘒యᢸᣢάᛶ ホ౯ ⎔ቃ㧗ศᏊᮦᩱᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸ᮌᮧ㑥⏕࣭ᒣᓮៅ୍㸧 19. 㔜ྜ┦ኚࢆ⏝ࡋࡓ࣑ࣛࢻ୰✵ᚤ⢏Ꮚࡢ⢏ᚄไᚚ 20. ࡏࢇ᩿ὶືሙ࡛ࡢ࢜ࣜࢦ࣐࣮⤖ᬗࢆ⏝ࡋࡓ࣏ࣜங㓟ࡢගᏛศ㔜ྜ 21. ୧ᮎ➃ᇶࡢࡉ㧗ࡉࡀ␗࡞ࡿࢸࣞࢣࣜࢵࢡ࣏࢚ࣜࢳࣞࣥࡢࣈࣞࣥࢻ⣔ࡢ᰾⏕ᡂᣲ ື 22. 2,5-ࣇࣛࣥࢪ࢝ࣝ࣎ࣥ㓟࢝ࣝࢻᆺࢪ࣮࢜ࣝࡼࡿ㧗ᛶ⬟ⰾ㤶᪘࣏࢚ࣜࢫࢸࣝࡢㄪ 〇23. ⎔≧࣏ࣜங㓟ࡢ࢚ࢫࢸࣝᛂࡼࡿศᏊ㔞ࡢኚ⤖ᬗ᰾ࡋ࡚ࡢ᭷⏝ ᛶࡢ᳨ウ ⎔ቃࣉࣟࢭࢫᕤᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸ᮌᮧᖾᩗ࣭ᓥෆᑑᚨ㸧 24. ࢜ࢡࢳࣝ㓟ࢫࢬ」ྜ࣏ࣜࢯ࣮࣒ࢆᛂሙࡍࡿ࣏ࣜங㓟㔜ྜᛂ 25. ࣑ࣟࢻᛶࢱࣥࣃࢡ㉁ࡢ⭷⾲㠃ࡢ✚⏺㠃ࡺࡽࡂࡢ㛵ಀ 26. ࣋ࢩࢡࣝ/࣑ࣟࢻ」ྜయࢆ⏝࠸ࡓ᪂つ࡞㉸ศᏊ࣐ࢩࢼ࣮ࣜࡢ〇 27. ᪂つ࡞ᛂศ㞳ᮦࢆ┠ᣦࡋࡓ⬡㉁/㧗ศᏊ/ゐ፹」ྜ㛵ࡍࡿᇶ♏ⓗ᳨ウ 28. ࣑ࣟࢻᙧᡂไᚚࢆ┠ᣦࡋࡓ࣏ࣜங㓟ࣂ࢜ࣥࢱ࣮ࣇ࢙࣮ࢫࡢ㛤Ⓨ 29. ᕪࣝࢻ࣮ࣝᛂࡼࡿࢪࣕࢫ࣑ࣥࣝࢹࣄࢻࡢྜᡂཬࡰࡍ࣏ࣜࢯ࣮࣒ࡢῧ ຍຠᯝ 30. ள⮫⏺Ỉஙἲ⁐፹ᣑᩓἲࢆ⏝࠸ࡓ࣋ࢩࢡࣝㄪ〇ἲࡢ㛤Ⓨ ⎔ቃᛂᕤᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸ຍ⸨ⱥ࣭ࢬࣁ࢘ࢵࢹࣥ㸧 31. ㉸㡢Ἴ↷ᑕࡼࡿᾮ㸫ᾮ⣔ศᩓ┦ࡢᚤ⣽ᣲື 32. ✀ࠎࡢ᧠ᢾ᧯స࠾ࡅࡿᾮ୰ᚤ⢏Ꮚࡢจ㞟࣭ྜయ㏿ᗘ 33. 3 ᡂศ⣔㔠ᒓ㓟≀ࡼࡿ▼Ⅳ࢞ࢫ࢞ࢫ୰ࡽࡢỈ㖟㝖ཤ 34. Fischer-Tropsch ྜᡂ⏝ Co/E-zeolite ゐ፹ࡢㄪ〇ἲࡢ᳨ウ 35. ࣂ࢞ࢫࡢ࢞ࢫ࡛⏕ࡌࡿࢱ࣮ࣝࡢศゎ⏝ゐ፹ࡢ㛤Ⓨ 36. 㓟ฎ⌮ࡼࡿᗫኴ㝧㟁ụࣔࢪ࣮ࣗࣝ⏤᮶ࡢ⢊యࡽࡢࢩࣜࢥࣥ⣧
̲ٟᛯ૨ᴾ
ࢭ࣑ࣛࢵࢡࢫᮦᩱᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸㞴Ἴᚨ㑻࣭⣚㔝Ᏻᙪ࣭ᓮ⏣┿୍㸧 1. 㒔ᕷࡈࡳ⁐⼥ࢫࣛࢢࡢᵓᡂඖ⣲ࡢ⁐ฟᣲື 2. 㔠ᒓࣆࣥ㈏ධక࠺࢞ࣛࢫࡢ⤖ᬗ 3. ィ⟬ᶵࢩ࣑࣮ࣗࣞࢩࣙࣥࡼࡿ㠀ᬗ㉁ NbOxⷧ⭷ࡢᵓ㐀㟁Ꮚ≧ែゎᯒ 4. Ag+-Na+㟁⏺࢜ࣥࡼࡾࢸࣝࣛࢺ࢞ࣛࢫ୰⏕ᡂࡍࡿ㖟ᚤ⢏Ꮚࡢ≧ែග ᑟἼ≉ᛶ ↓ᶵᶵ⬟ᮦᩱᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸டᓥḠ୍࣭すᮏಇ㸧 5. Ni0.8Cu0.2/㟁ゎ㉁ࢧ࣮࣓ࢵࢺࡽ࡞ࡿ SOFC ⏝ከᒙࣀ࣮ࢻࡢホ౯ 6. ࢮ࢜ࣛࢺࣂࣝࢡయࢆᢸయ⏝ࡋࡓ࣓ࢱࣥࡽࡢ࣋ࣥࢮࣥྜᡂ 7. Si/Al ẚࡢ␗࡞ࡿࢮ࢜ࣛࢺࣂࣝࢡయࡢస〇ࡑࡢศ㞳ᛶ⬟ࡢホ౯ 8. ㉸㡢Ἴฎ⌮ࡀ␗࡞ࡿ⾲㠃ᙧែࡢ㓟ࢳࢱࣥ⾲㠃ࡢỈ୰࠾ࡅࡿἜࡢࢀᛶ࠼ ࡿᙳ㡪 9. Mg/Al ẚࡢ␗࡞ࡿᒙ≧」Ỉ㓟≀㸦LDH㸧ศᩓࢤࣝࢆ⏝ࡋࡓ LDH ᅛయࡢస〇 ᭷ᶵᶵ⬟ᮦᩱᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸㧗ཱྀ㇏࣭⏣ᔱᬛஅ㸧 10. SnO2/㓟ࢢࣛࣇ࢙ࣥࢼࣀࣁࣈࣜࢵࢻࡢྜᡂ࣮ࣟࢲ࣑ࣥ B ྍどගศゎᛂࡢ ᛂ⏝ 11. N,N'-ࢪࢺࣜࢹࢩࣝ⨨ 6,13-ࢪࣄࢻࣟ࣌ࣥࢱࢭࣥࣅࢫ࣑ࢻࡢྜᡂᛶ㉁ ⎔ቃ㧗ศᏊᮦᩱᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸ᮌᮧ㑥⏕࣭ᒣᓮៅ୍㸧 12. PET ᶞ⬡ࡢࢵࣉࢢ࣮ࣞࢻᆺࣜࢧࢡࣝἲࡢ㛤Ⓨ 13. 㧗ศᏊ」ྜᮦᩱࡢ࣏࣡ࣥࢵࢺྜᡂࢆ┠ᣦࡋࡓ࣏࢚ࣜࢳࣞࣥࡢ୰࡛ࡢ࣏࣑ࣜࢻ⤖ ᬗࡢㄪ〇 14. 㙐୍ᐃྜ࡛࣓ࢳࣝᇶࡀᑟධࡉࢀࡓ⎔≧ཬࡧ┤㙐≧࣏࣓ࣜࢳࣞࣥࡢ⤖ᬗ ཬࡰࡍࢺ࣏ࣟࢪ࣮ຠᯝ 15. పศᏊ㔞⎔≧࣏࢚ࣜࢳࣞࣥࡢ⤖ᬗཬࡰࡍᢡࡾࡓࡓࡳࡢຠᯝ┤㙐㢮ఝయࡢ ࣈࣞࣥࢻࡼࡿ⤖ᬗไᚚ ⎔ቃࣉࣟࢭࢫᕤᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸ᮌᮧᖾᩗ࣭ᓥෆᑑᚨ㸧 16. ࢱࣥࣃࢡ㉁ࡢ␗ᖖ✚࣭⤖ᬗࢆไᚚྍ⬟࡞ᮦᩱ⏺㠃ࡢタィ 17. ள⮫⏺Ỉஙἲࡼࡿࢼࣀ࢚࣐ࣝࢩࣙࣥᙧᡂᶵᵓࡢゎ᫂ 18. ⢾ಟ㣭⬡㉁⭷⏺㠃ࡢ≉ᛶホ౯ศᏊㄆ㆑ᶵ⬟ࡢᙳ㡪㹼࣑ࣟࢻᙧᡂࢆ 㹼 19. ᭷⏝࡞ࣂ࣐࢜ࢫኚᛂཬࡰࡍ࣏ࣜࢯ࣮࣒ࡢಁ㐍ຠᯝ 20. ள⮫⏺Ỉஙἲࡼࡿ㧗ศᏊྵ᭷࢚࣐ࣝࢩࣙࣥࡢㄪ〇⾲㠃ᨵ㉁ᢏ⾡ࡢᛂ⏝⎔ቃᛂᕤᏛ◊✲ᐊ㸦ᣦᑟᩍဨ㸸ຍ⸨ⱥ࣭ࢬࣁ࢘ࢵࢹࣥ㸧 21. ప⃰ᗘ࣋ࣥࢮࣥࡢ㓟㐺ࡋࡓ㓟㖡୍㓟ࢥࣂࣝࢺ⣔ゐ፹ࡢㄪ〇ホ౯ 22. ὶ㏻ᘧᐜჾࡼࡿ〇㗰ࢫࣛࢢࡽᾏỈ୰ࡢࣝ࢝ࣜ⁐ฟᣲື 23. ࢮࣟ౯㕲⢊ࢆ⏝࠸ࡓỈ୰ள㖄࢜ࣥࡢ㝖ཤ㏿ᗘ 24. ගࣇࣂ⾲㠃ࡢ ZSM-5 ⭷ྜᡂ
