Неравновесные состояния и гистерезис сорбции-десорбции водорода в водородаккумулирующих материалах, страница 39

Shilov A.L., Kost M.E., Kuznetsov N.T. The system LaNi5-H2. J. Less Common Metals.1988. V. 144. P 23-30.158. Buckley C.E., Gray E.M., Kisi E.H. Stability of the hydrogen absorption and desorptionplateaux in LaNi5-H. Part 4: thermal history effects // J. Alloys Compounds. 1995. V 231.P. 460-466.159. Goodell P.D., Sandrock G.D., Huston E.L. The effect of activation process parameters oninitial formation rates of FeTiHx // J. Less Common Met.

1980. V. 73. P. 135-142.160. Schefer J., Fischer P., Halg W. Structural phase transitions of FeTi-deuterides // Mat. Res.Bull. 1979. V. 14. N 10. P. 1281-1294.161. Reilly J.J., Johnson J.R, Reidinger F., et al. Lattice expansion as a measure of surfacesegregation and the solubility of hydrogen in α-FeTiHx // J. Less Common Met. 1980.V. 73. P. 175-182.228162. Reidinger F., Lynch J.F., Reilly J.J. An X-ray diffraction examination of the FeTi-H2system // J. Phys. F. 1982. V.

12. P. L49-L55.163. Reilly J.J., Johnson J.R, Lynch J.F., Reidinger F. Irreversible effects in the FeTi-H system// J. Less Common Met. 1983. V. 893. P. 505-512.164. Flanagan T.B., Majorowski S., Clewley J.D., Park C.N.. The thermodynamiccharacterization of the LaCo5-H system // J. Less Common Met. 1984. V. 103.

P. 93-102.165. Van Mal H.H., Busсhow K.H.J., Kuijpers F.A. Hydrogen absorption and magneticproperties of LaCo5xNi5-5x compounds // J. Less Common Metals. 1973. V. 32. N 2.P. 289-296.166. Andrievski R.A. Hydrogen in metallic nanostructures // Mater. Sci. Forum. 2007. V. 555.P. 327-334.167.

Андриевский Р.А. Водород в металлических наноматериалах // Успехи химии. 2011.Т. 80. №9. С. 890-904.168. Wicke E., Otto K. Uber das System Uran-Wasserstoff und die Kinetik derUranhydridbildung // Z. Phys. Chem. 1962. V. 31. N 3-4. P. 222-248.169. Wicke E., Nernst G.H. Zustandsdiagramm und thermodynamisches Verhalten der SystemePd/H2 und Pd/D2 bei normalen Temperaturen; H/D-Trenneffekte // Ber. Bunsenges. Phys.Chem.

1964. V. 68. P. 224-235.170. Everett D.H., Sermon P.A. Crystallite size effects in the palladium/hydrogen system: asimultaneous sorption and X-ray study // Z. Phys. Chem. 1979. V. 114. P. 109-122.171. Frazier G.A, Glosser R. Characterization of thin films of the palladium-hydrogen system //J. Less Common Met. 1980. V. 74. N 1. P.

89-96.172. Feenstra R., de Bruin-Hordijk G.J., Bakker H.L.M, et al. Critical point lowering in thinPdHx films // J. Phys. F. 1983. V. 13. N 2. P. L13-L18.173. Salomons E.M., Feenstra R., De Groot D.G., et al. Pressure-composition isotherms of thinPdHc films // J. Less Common Mets. 1987. V.

130. P. 415-420.174. Tal-Gutelmacher E., Gemma R., Pundt A., Kirchheim R. Hydrogen behavior innanocrystalline titanium thin films // Acta Mater. 2010. V. 58. P. 3042-3049.175. Tal-Gutelmacher E., Pundt A., Kirchheim R. The influence of films thickness onhydrogenation behavior of titanium thin films // J. Mater. Sci. 2010. V. 45. P. 6389-6394.229176. Pundt A., Suleiman M., Bahtz C., et. al. Hydrogen and Pd-clusters // Mater. Sci.

Eng. B.2004. V. 108. P. 19-23.177. Vons V.A., Leegwater H., Legerstee W.J., et al. Hydrogen storage properties of sparkgenerated palladium nanoparticles // Int. J. Hydrogen Energy. 2010. V. 35. P. 5479-5489.178. Vogel W., He W., Huang Q.-H., et al. Palladium nanoparticles “breathe” hydrogen; asurgical view with X-ray diffraction // Int. J. Hydrogen Energy. 2010. V. 35. P. 8609-8620.179. Lebouin C., Soldo Y., Grigoriev S.A., et al.

Kinetics of hydrogen sorption by palladiumnanoparticles // Int. J. Hydrogen Energy. 2013. V. 38. P. 966-972.180. Zlotea C., Cuevas F., Paul-Boncour V., et al. Size-dependent hydrogen sorption inultrasmall Pd clusters embedded in a mesoporous carbon template // J. Am. Chem. Soc.2010. V. 132. P. 7720-7729.181. Kuji T., Matsumura Y., Uchida H., Aizawa T. Hydrogen absorption of nanocrystallinepalladium // J.

Alloys Compounds. 2002. V. 330-332. P. 718-722.182. Zaluski L., Zaluska A., Strom-Olsen J.O. Nanocrystalline metal hydrides // J. AlloysCompounds. 1997. V. 253-254. P. 70-79.183. Zaluska A., Zaluski L., Strom-Olsen J.O. Structure, catalysis and atomic reactions on thenano-scale: a systematic approach to metal hydrides for hydrogen storage // Appl. Phys. A.2001.

V. 72. P. 157-165.184. Andrievski R. A., Tarasov B. P., Korobov I. I., et al. Hydrogen absorption andelectrocatalytic properties of ultrafine LaNi5 powders // Iht. J. Hydrogen Energy. 1995.V. 21. N 11-12. P. 949-954.185. Degtyareva V.F., Antonov V.E., Belash I.T., Ponyatovskii E.G. Distortions of the f.c.c.crystal lattice of Pd60Cu40 alloy hydrogenated under high pressure // Phys. Status Solidi A.1981.

V. 66. P. 77-86.186. Antonov V.E., Antonova T.E., Belash I.T., et al. The Pd-Ni-H system at high pressure //Phys. Status Solidi A. 1983. V. 77. P. 71-79.187. Antonov V.E., Antonova T.E., Belash I.T., et al. The Pd-Pt-H system: Phasetransformations at high pressure and superconductivity // Phys. Status Solidi A. 1983.V.

78. P. 137-146.188. Irodova A.V., Glazkov V.P., Somenkov V.A., et al. Hydrogen caused ordering in PdAgalloy // Z. Phys. Chem. 1989. V. 163. P. 53-57.230189. Noh H., Flanagan T.B., Ransick M.H. An illustration of phase diagram determination usingh-induced lattice mobility // Scripta Met. Mat. 1992. V. 26. P.

353-358.190. Noh H., Flanagan T.B., Sakamoto Y. Hydrogen-induced segregation in Pd-Pt alloys //Scripta Met. Mat. 1993. V. 29. P. 445-450.191. Flanagan T.B., Noh H. A possible role for hydrogen-induced lattice migration in alloymaterials processing // J. Alloys Compounds. 1995. V. 231. P. 1-9.192. Flanagan T.B., Clewley J.D., Noh H.

Hydrogen-induced lattice migration in Pd-Pt alloys //Scripta Materialia. 1996. V. 34. N 4. P. 665-668.193. Flanagan T.B., Clewley J.D., Noh H., Craft A.P. Hydrogen-induced phase separation inPd-Rh alloys // J. Alloys Compounds. 1996. V. 240. P. 235-248.194. Flanagan T.B. The thermodynamics of hydrogen solution in "perfect" and defective metalsand alloys // in: Progress in hydrogen treatment of materials.

Ed. Goltsov V.A. 2001.Donetsk - Coral Gables. P. 37-64.195. Flanagan T.B., Craft A.P., Kuji T. Hydrogen induced disorder-order transition in Pd3Mn //Scripta Metal. 1986. V. 20. P. 1745-1750.196. K. Baba, Y. Niki, Y. Sakamoto, et al. Reversible transitions between ordered structures inthe Pd3Mn-hydrogen system // Scripta Metal. 1987. V. 21. P. 1147-1151.197. Flanagan T.B., Craft A.P., Niki Y., et al.

Hydrogen-induced metal atom rearrangements inPd3+xMnl-x alloys with x≥0 using transmission electron microscopy, electrical resistivitiesand H2 solubilities // J. Alloys Compounds. 1992. V. 184. P. 69-85.198. Ревкевич Г.П., Миткова М.К., Кацнельсон А.А. Явление восходящей диффузии внасыщаемых водородом сплавах палладий-самарий // Вестник МГУ.

Серия 3.Физика. Астрономия. 1997. № 2. С. 30-33.199. Авдюхина В.М., Кацнельсон А.А., Прокофьев Н.А., Ревкевич Г.П. ОсобенностирелаксациимикронапряженийвдеформированномсплавеPd-Erпослеэлектролитического насыщения водородом // Вестник МГУ. Серия 3. Физика.Астрономия. 1998.

№ 2. С. 70-72.200. Авдюхина В.М., Кацнельсон А.А., Ревкевич Г.П. Осциллирующие фазовыепревращения на начальной стадии релаксации в насыщенном водородом сплаве PdEr // Кристаллография. 1999. Т. 44. № 1. С. 49-54.231201. Avdyukhina V.M., Katsnelson A.A., Revkevich G.P. Structural changes and their kineticsin hydrogen-containing palladium systems // Platinum Metals Review. 2002. V. 46. N 4.P.169-179.202. Авдюхина В.М., Анищенко А.А., Кацнельсон А.А., Ревкевич Г.П.

Роль вакансий вструктурной релаксации сплавов Pd-Mo после гидрогенизации // Физика твердоготела. 2004. Т. 46. № 2. С. 259-264.203. Авдюхина В.М., Ревкевич Г.П., Кацнельсон А.А. Эволюция структурныххарактеристи сплава Pd-Er после повторного гидрирования // Int. Sci. J. AlternativeEnergy Ecology. 2005. № 7. P. 20-26.204. Авдюхина В.М., Кацнельсон А.А., Ревкевич Г.П. Изучение кинетики дегазациисплава Pd-Ta-H при циклировании // Заводская лаборатория. Диагностикаматериалов. 2005. Т.