Диссертация (1150152), страница 11
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1945. N1386244.59. Yoldas B.E., Partlow D.P. Formation of continuous beta alumina films and coatingsat low temperatures // Amer. Cer. Soc. Bull. 1980, v.59, N6, p.640.60. Кайнарский И.С., Малиновский К.Б. Электрофорез как метод формованиятонкокерамических изделий. // Стекло и керамика. 1958, № 4, с. 23-30.61. Andrews J.M., Collins А.Н., Cornish D.C., Dracass J. The forming of ceramicbodies by electrophoretic deposition. // Proc. Beit.
Ceram. Soc. 1969, v. 12, p. 211229.62. Пат. Франции. 2092845. Method of forming of beta-alumina ceramic. //Xazennek Т., Folly J. опубл. 5.03.72.63. Powrs R.W. The electrophoretic forming of beta-alumina ceramic. // J.Electrochem. Soc. 1975, v.122, N4, p.490-500.9964. Youngblood G.E., Virkar A.V., Cannon W.R., Gordon R.S. Sintering processesand heat treatment schedules for conductive, lithia-stabilized β’’-Al2O3 // Amer. Cer.Soc. Bull.
1977, v.56, N2/3, p.206-210.65. Kato A., Hirata Y. // Memoirs Fac. Eng. (Kyushu Univ.). 1985, v.45, N4, p.251.66. Dellfi.M., Moseley P.T. Beta-alumina electrolyte for use in sodium sulfurbatteries. Part I. Fundamental properties. // J. Power Sources. 1981, N 6, p. 143-160.67. Richman R.H., Tennenhouse G.J. Solid electrolites for sodium sulfur batteries.Part II. A model for electrolitic degradation of ion-conducting ceramics. // J.
Amer.Ceram. Soc. 1975, v. 58, p. 63.68. Gordon R.S., Miller G.R., Hadnegy T.D., МсEntire B.J., Eesmussen J.R.Ceramics in high performance batteries.- In: Energy and Ceramics. Amsterdam,Scientific Publ. Co., 1980, p. 925-949.69. Gordon R.S. Ceramics in high performance batteries. In: "Ceramics in theservice of man", National symposium (June 1976). - Washington, Carneque Inst.,1976. - 30 p.70. US005972533A 26.10.1999 Electrochemical cell comprising a molter saltelectrolyte containing sodium iodide. J.Coetzer, I.I.Vlok .71. Terri C Thermoelectric energy conversion with solid electrolytes.
// Science.1983, v. 221, N 4614, p. 915-920.72. Кингери У.Д. Введение в керамику. М.: Стройиздат, 1967, 500 с.73. Kummer J.T. β -alumina electrolytes. In: Progress in solid state chemistry.Pergamon press, 1972, v. 7, p. 141-175.74. Farrington G.C., Dunn B.S., Briant J.L.
Li and divalent ion conductivity in betaand beta" alumina. // Solid State Ionics. 1981, v. 3-4, p. 405-408.75. Teitsma A., Sayer M., Stanley L. Nicholson P.S. Polycrystalline hydronium β alumina: a ceramic fast proton conductor. // Mat. Res. Bull. 1980, v. 15, p. 16111619.76. Kummer J.T.Substituted β-aluminas. // Inorg. synth. 1979, v. 19, p. 51-58.77. Little J.A., Pray D.J. The preparation and properties of copper beta alumina. //Electrochemica Acta.
1980, v. 25, p. 957-964.10078. Radzilowski R.H., Kummer J.T. The preparation of nitrosonium β-alumina. //Inorgan. Chem. 1969, v. 8, N 11, p. 2531-2533.79. Dunn B., Farrington G.C. Fast divalent ion conduction in Ba2+, Cd2+ and Sr2+beta″ aluminas // Mat. Res. Bull. 1980, v. 15, N12, p. 1773.80.
Whiter J.T., Frey D.J. The preparation and electrical properties ofpolycrystalline calcium β″- alumina // Solid State Ionics. 1985, v.17, N.1, p.1-6.81. Ghosal B., Mangle E.A., Topp M.R. et al Preparation, ion transport, andspectroscopy of Eu (II) and Eu (III) beta″-alumina // Solid State Ionics. 1983, v.9/10,pt.1, p.273-276.82. Whittinngham M.S., Huggins R.A. Beta alumina – Prelude to a revolution insolid state electrochemistry in “Conf. Layered Mater.” Monterey: NBS specialpublication 1972. 364 p.83. Справочник химика. под ред.
Б.П.Никольского-М-Л.:Химия, 1982, т.1, стр.381.84. Briant L., Farrington G.C. Ionic conductivity in Na+, K+, and Ag+ β ″-alumina //J.Solid State Chem. 1980, v. 33, p. 385-390.85. Brophy J. Current noise in silver β ‘alumina ceramics and single crystals // J.Appl. Physics. 1987, v. 61, N. 2, p. 581-584.86. Whittinngham M.S., Huggins R.A. Transport properties of silver beta alumina //J. Electrochem.
Soc. 1971, v.118, N1, p.1-6.87. Куценок И.В., Кауль А.Р., Третьяков Ю.Д. Равновесные условияобразования алюминатов и галатов серебра // Изв. АН СССР. Неорг.материалы 1981, т.17, N1, с. 64-67.88. Kirchnerova J., Bale C. Synthesis and thermal stability of dense polycrystallineAg, Cd and Pb -Al2O3 // Mat. Res. Bull. 1990, v. 25, p. 395-402.89. Schmid C. X-ray characterization of - and ’’-alumina // J. Mater. Sci.
Let.1986, v.5, N3, p.263-266.90. Третьяков Ю.Д., Метлин Ю.Г. Оксидные материалы с ионнойпроводимостью и перспективы их использования // Химия силикатов иоксидов: сб. статей под ред. М.М.Шульца. Л., 1982, с.225-240.10191. Rao N., Sorensen O.T., Schoonman J. and Van den Bleek C.M. ElectrochemicalSOx and NOx sensors with Ag+-beta’’-alumina as solid electrolyte and Ag as solidreference electrode. // Key Engineering Materials.
1991, v.59/60, p.367-380.92. Meng G., Shen G., Rao N., Peng D. and Lin Z. // J. Sensor Techn. 1989, v.2,p.17.93. Rao N., Sorensen O.T., Van den Bleek C.M. and Schoonman J. Ag+-β’’alumina solid electrolyte SOx sensor with metal silver as a solid reference electrode.// Russian Journal of Electrochemistry 1993, v.29, N12, p.1430-1435.94. Kirchnerova J., Bale C., Skeaff J.M. Potentiometric gaseous sulfur sensor basedon silver beta-alumina solid electrolyte. // Solid State Ionics. 1990, v. 91, p.
257264.95. Vangrunderbeek J., Vandecruys F., Kumar R.V. Important materials aspects forsensors based on Na-β-alumina. // Solid State Ionics. 2000, v. 136–137, p. 567-571.96. Seat H.C., Sharp J.H. Er3+ + Yb3+-codoped Al2O3 crystal fibres for hightemperature sensing. // Measurement Science&Technologies. 2003, v. 14, p.
279285.97. Vasiliev A.A., Pavelko R.G., Gogish-Klushin S. Yu., Kharitonov D. Yu.,Gogish-Klushina O.S., Sokolov A.V., Pisliakov A.V., Samotaev N.N. AluminaMEMS platform for impulse semiconductor and IR optic gas sensors. // Sensors andActuators B. v. 132, 2008, p. 216.98. US7704374 27.04.2010 Electrochemical gas sensor. S.Sommer, H.Kiesel,F.Mett.99. Осадчий Е.Г., Лунин С.Е., Коржинский М.А., Ткаченко С.И., Таран Ю.А.Измерения fO2 и fS2 электрохимическими сенсорами в высокотемпературныхфумаролах активных вулканов. // Геохимия.
1997, N1, с.74-81.100. Toshio Oishi, Shinya Tagawa, Soichiro Tanegashima Thermodynamic study ofsolid copper–nickel alloys by use of copper–beta-alumina // Journal of Physics andChemistry of Solids. 2005. v. 66, p. 251.101. Шифрин К.С. Рассеяние света в мутной среде. М.-Л. Гос.
изд. техникотеоретической литературы, 1951, 288с.102102. Bulletin Horiba. Explore the future (HRE-3672B). Japan: ZG-TH (SK) 33. 10p.103. Instruction manual. Kyoto Horiba. 2006. 71 p.104. Мюллер Р.Л. Электропроводность стеклообразных веществ. Сб. трудов.Л., 1968, 251 с.105. Konakov V.G., Kharitonov S.N., Goluveb S.N., Solovyeva E.N. Synthesis ofAg+-conducting membranes based on β-Al2O3 for the development of hightemperature sensors of sulfur containing gases. // The optimization of thecomposition, structure and properties of metals, oxides, composites, nano- andamorphous materials. Proceedings of the tenth Israeli-Russian bi-national workshop2011.
Ed. by M.Zinigrad and L.Leontiev. Jerusalem, Israel 2011, p.192-200.106. Чеботин В.Н., Перфильев М.В. Электрохимия твердых электролитов. М.:Химия. 1978, 312 с.107. Zhu Y., Zhang J., Weppner W. Potentiometric CO2 sensor with Au,Li2CO3/Li+-electrolyte/LiMn2O4 // J. Solid State Electrochemistry.
2013, v.17,p.1473-1478.108. Inaba Y., Tamura S.H., Nobuhito I. New type of sulfur dioxide gas sensorbased on trivalent Al3+ ion conducting solid electrolyte. // Solid State Ionics. 2008,v.179, p.1625-1628.109. Barin I., Knacke O. Thermochemical properties of inorganic substance. 1973,Dusseldorf, 879 p..
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