References
- Advances in Ceramics, Science and Technology of Zirconia, tom 1-5, 1982-1993.
- Kiukola K, Wagner C, Measurements on galvanic cells involving solid oxide electrolytes,104 (1957) pp.379-387.
- Pratt T, Application of solid electrolyte in thermodynamic studies,, 21A, pp. 1990-1223.
- Róg G, Kozłowska-Róg A, Dudek M, The standard Gibbs free energy of calcium chromium (III) oxide in the temperature range (1073-1273)K39 (2007) pp. 275-278.
- Kopyto M, Fitzner K, Gibbs energy of formation of CuLnO(Ln = Yb, Tm, Er, Ho, Dy) and CuGdO,31, (1996), pp.2797-2800.
- Haile S., Materials for fuel cells,6 (2003) pp. 24-29.
- Pluschkell W, Electronic conduction in the solid electrolyte of oxygen concentration,46 (1975) pp. 11-18.
- Ishihara, T., Masuda, H., Takaita, Y., Doped LaGaOperovskite type oxides as a new oxide ion conductors,116 (1994) pp. 3801-3806.
- Manthiram, A., Kuo, J. Goodneough, J.,62(1993) pp. 225-234.
- Kato H, Kudo T, Naito H, Yugami H., Electrical conductivity of Al-doped LaSrScOperovskite-type oxides as electrolyte materials for low-temperature SOFC Solid State Ionics 159(2003) pp.217-222.
- Kutty K V, Mathews C K, Rao C T and Varadaraju UT, Oxide ion conductivity in some substituted rare earth pyrozironiates,80 (1995)pp. 99-110.
- Arikawa H, Nishiguchi H, Ishihara H, Takita Y, Oxide ion conductivity in Srdoped LaGeOapatite oxide Solid State Ionics 136-137(2000) pp.31-37.
- Zhang Y, Huang X, Lu Z, Liu Z, Ge X, Xu J, Xin X, Sha X, Su W, A novel method for fabrication of YO-stabilized ZrOelectrolyte films,89 (2006) pp.2304-2307.
- Gaudon M, Djurado E, Menzler N, Morphology and sintering behaviour of yttria stabilised zirconia (8-YSZ) powders synthesised by spray pyrolysis,30 (2004) pp. 2295-2303.
- Peng R, Xia Ch, Peng D, Meng G, Effect of powder preparation on (CeO)(SmO)thin film properties by screen-printing,58 (2004) pp.604-608.
- Cheng J, Zha S, Huang J, Liu X, Meng G, Sintering behaviour and electrical conductivity of CeGdOpowder prepared by the gel-casting process78 (2003) pp.791-795.
- Shai K, Wagner J., Enhanced ionic conduction in dispersed solid electrolyte systems (DSES) and/or multiphase systems: AgI-AlO, Agl-SiO, AgI-Fly ash, and AgI-AgBr42 (1982) pp.107-119.
- Knauth P, Debierre J, Albient G, Electrical conductivity of model composites of an ionic conductor (CuBr) and an insulator (TiO, AlO): experiments and percolation-type model,121 (1999), pp.101-106.
- Fuijtsu S, Koumoto M, Yanagida H, Kanazawa T, Enhancement of ionic conduction in CaFand BaFby dispersion of AlO,22 (1985) pp. 2103-2109
- Liang C, Conduction characteristic of the lihium iodide-aluminium oxide solid electrolytes,120 (1973) pp.1289-92.
- Jacob, K. T, Shukla, A., Kinetic decomposition of NiSiOin oxygen potential gradients2 (1987) pp.338-342.
- Vaidehi N, Akila R, Shukla A, Jacob K, Enhanced T, ionic conduction in dispersed solid electrolyte systems CaF-AlOand CaF-CeO21(1986) pp. 909-916.
- Bućko M, Róg G; Electrical conductivity in α-AlO- Ca-β- AlOsystem; in Fourth Euro-Ceramics, Proceedings of the Fourth European Ceramic Society Conference, Riccione '95, vol.5 Electroceramics; ed. G. Gusmano, E. Traversa;, 1995, pp. 365-372.
- Bućko M, Róg G; Properties of ZrO- Ca-β-AlOcomposites; in Fourth Euro-Ceramics, Proceedings of the Fourth European Ceramic Society Conference, Riccione '95, vol.5 Electroceramics; ed. G. Gusmano, E. Traversa;, 1995, pp. 421-426.
- Wagner J, Transport in compounds containing a dispersed second phase,, 15 (1980) pp.1690-1701;
- Meier J, Defect chemistry and conductivity effects in heterogeneous solid electrolytes134 (1987) pp.1524-35.
- Jamnik J, Meier J., Defect chemistry and chemical transport involving interfaces,119 (1999) pp. 191-198.
- Dudney N, Effect of interfacial space - charge polarization on the ionic conductivity of composite electrolytes,68 (1985) pp.538-45.
- Bunde A, Dieterich W, Percolation in composites,5(2000) pp. 81-92.
- Knauth P, Ionic Conductor Composites: Theory and Materials,5 (2000) pp.111-125.
- Uvarov N, Iusupov V, Sharama V, Shukla K, Effect of morphology and particle size on the ionic conductivities of composite solid electrolytes,51 (1992) pp.41-52.
- Yahiro H, Baba Y, Eguchi K, Arai H, High temperature fuel cell with ceriayttria solid electrolyte,135(1988) pp. 2077-2081.
- Bi Z, Yi B, Wang Z, Dong Y, Wu H, She Y, Cheng M, A high-performance anode-supported SOFC with LDC-LSGM bilayer electrolytes,7 (2004) pp.105-107.
- Wachsman ED, Functionally gradient bilayer oxide membranes and electrolytes152-153(2002) pp.657-662.
- Peters A, Korte C, Hesse D, Zakharov N, Janek J, Ionic conductivity and activation energy for oxygen ion transport in superlattices -The multilayer system CSZ (ZrO+CaO)/AlO178 (2007) pp. 67-76.
- S. H. Chan X J Chen K A Khor., A simple bilayer electrolyte model for solid oxide fuel cells,158(2003) pp.29-43.
- Jacob K T, Mukhopadhyay S, Shukla A, Gradient solid-electrolyte for use with dissimilar gas electrodes,62 (1993) pp. 27-33;
- Mukhopadhyay S, Jacob KT, Theoretical analysis of the electromotive force of a cell incorporating a composition gradient solid electrolyte142 (1995) pp 161-165.
- Mukhopadhyay S, Jacob KT, Thermodynamic study of mixed anionic solid solutions using gradient solid electrolytes, System KCO-KSO.,140 (1993) pp. 2629-2733.
- Virkar A, Theoretical analysis of solid oxide fuel cells with two-layer composite electrolytes: electrolytes stability,138 (1991) 1481-1487.
- Jacob K T, Dasgupta N, Waseda Y, Composition-graded solid electrolyte for determination of the Gibbs energy of formation of lanthanum zirconate81 (1998) pp.1926-1930.
- Mukhopadhyay S, Jacob KT, Gradient solid electrolytes for thermodynamic measurements: system NaCO-NaSO,25A (1994)pp. 173-181.
- Strickler D, Carlson W, Ionic conductivity of cubic solid solutions in the system CaO-YO-ZrO47 (1964) pp.122-127.
- Mori T, Drennan J, Lee Y, Li J, Ikegami T, Improving the ionic conductivity of yttria-stabilised zirconia electrolyte materials,154-155(2002) pp. 529-533.
- Bartolomeo E, Grilli M, YSZ-based electrochemical sensors: From materials preparation to testing in the exhausts of an engine bench test,25 (2005) pp.2959-2964.
- Kwon O, Choi G, Electrical conductivity of thick film YSZ177 (2006) pp. 3057-3062.
- Minh N, Ceramic fuel cells,76 (1993) pp.563-588.
- Molenda J, High - temperature solid oxide fuel cells. New Trends in materials research,24 (2006) pp.5-11.
- Kharton V, Fiueiredo M, Navarro L, Naumovich E, Kovalevsky A, Yaremchenko A, Viskup A, Carneiro A, Margues A, Frade J, Ceria -based materials for solid oxide fuel cells,36 (2001) pp. 1105-1117.
- Minh N Q., Solid oxide fuel cell technology-features and applications174 (2004) pp. 271-277.
- Besra L, Compson Ch, Liu M, Electrophoretic deposition of YSZ particles on nonconducting porous NiO -YSZ substrate for solid oxide fuel cells applications,89 (2006) pp. 3003-3009.
- Matsuda, M., Hosomi, T., Murata, K., Fukui, T., Miyake, M., Fabrication of bilayered YSZ/SDC electrolyte film by electrophoretic deposition for reduced-temperature operating anode-supported, S. O. F. C.,165 (2007) pp. 102-107.
- Krzystek, K., Rak, M., Z Wytwarzanie ogniw paliwowych stałotlenkowych,84(2004) pp. 307-312.
- Fischer W, Malzbender J, Blass G, Steinbrech R, Residual stresses in planar solid oxide fuel cells150 (2005)pp. 73-77.
- Malzbender J, Steinbrech RW, Fracture test of thin sheet electrolytes for solid oxide fuel cells,27 (2007) pp. 2597-2603.
- Abraham I, Gritzner G, Powder preparation, mechanical and electrical properties of cubic zirconia ceramics16 (1996) pp.71-77.
- Selcuk A, Atkinson A, Elastic properties of ceramic oxides used in solid oxide fuel cells (SOFC)17 (1997) pp.1523-1532.
- Adams J, Ruth R, Mazdiyasni K, Young's modulus, flexural strength, and fracture of yttria-stabilized zirconia versus temperature80 (1997)pp. 903-908.
- Susnik D, Holk J, Hrovat M, Zupancic S, Influence of alumina addition on characteristics of cubic zirconia16 (1997) pp.1118-1121.
- Yuzaki A, Kishimoto A, Effects of alumina dispersion on ionic conduction of toughened zirconia based composite116(1999) pp.47-51.
- Guo X, Tang Ch, Yuan R, Grain boundary ionic conduction in zirconia-based solid electrolyte with alumina addition,15 (1995)pp.25-32.
- Butler E, Drennan J, Microstructural analysis of sintered high-conductivity zirconia with AlOadditions,65 (1982) pp. 474-480.
- Feighery A, Irvine T, Effect of alumina additions upon electrical properties of 8 mol.% yttria-stabilised zirconia,121(1999) 209-216.
- Mori M, Abe T, Itoh H, Yammato O, Takeda Y, Kawahara T, Cubic-stabilized zirconia and alumina composites as electrolytes in planar type solid oxide fuel cells74 (1994) pp. 157-162.
- Kwon N H, Kim G, H, Song H, S, Lee L, H., Synthesis and properties of cubic zirconia-alumina composite by mechanical alloying,A 299 (2001) pp.185-194.
- K. Oe K Kikkawa A Kishimoto Y Nakamura H Yanagida., Toughening of ionic conductive zirconia ceramics utilizing a nonlinear effect,91 (1996) 131-136.
- X. Guo R Yuan, Roles of alumina in zirconia-based solid electrolyte,30 (1995)pp.923-331.
- X. Guo, Roles of alumina in functional ceramics,86(2003) pp. 1867-73.
- Bućko M, Selected aspects of conductivity in heterophase ionic conductors,66 (2001), pp.547-554.
- Bućko M, Ionic conductivity of alumina - zirconia composites,61 (2000), pp. 95-102.
- Bućko M, Pyda W, Effect on inclusion size on mechanical properties of alumina toughened cubic zirconia,40 (2005) pp.5191-5198.
- Chen X, Yang B, A new approach for toughening of ceramics33 (1997) pp. 237-240.
- Liu, X., Chen, X., Toughening of 8Y-FSZ ceramics by neodymium titanate secondary phase88 (2005) pp. 456-558.
- Milliken Ch, Guruswamy, S, Khandkar A, Properties and performance of cation - doped electrolyte materials in solid oxide fuel cell application.85 (2002) pp. 2479-86.
- Lu C, Worell W, Gorte R, Vohs J, SOFCs for direct oxidation of hydrocarbons fuels with samaria - doped ceria electrolyte,150 (2003) pp.354-358.
- Zhu S Xia Ch, Meng G, Effect of Gd (Sm) doping on properties of ceria electrolyte for solid oxide fuel cells,115 (2003) pp. 44-48.
- Mukundan E, Brosha E, Brown D, Garzon F, Ceria-electrolyte-based mixed potential sensors for the detection of hydrocarbons and carbon monoxide,2 (1999) pp. 412-414.
- Dudek M, Molenda J, Preparation and properties of CeO-based electrolytes,84 (2004) pp. 177-182.
- Xiong Y, Yamaji K, Horita T, Sakai N, Yokokawa H, Hole and electron conductivity of 20 % mol ReORe = Yb, Gd, Sm, Y, Nd, La151 (2004), pp. 407-412.
- Xia Ch, Liu M, Low-temperature SOFCs-based on CeGdOfabricated by dry pressing,144 (2001) 249-255.
- Sameshima S, Hirata Y, Ehira Y, Structural change in Sm- and Nd-doped ceria under a low oxygen partial pressure,408-412 (2006) pp. 628-631.
- Abrantes J, Perez - Coll D, Nuntez P, Frade J, Electronic transport in CeSmOsamples,48 (2003) pp. 2761-2766.
- Inaba H, Tagawa H, Ceria -based solid electrolytes,83 (1996)pp.1-16.
- Doshi R, Richards V, Carter J, Wang X, Krumpelt M, Development of solid-oxide fuel cells that operate at 500°C,146 (1999)pp.1273-1278.
- Matsui T, Inaba M, Mineshige A, Ogumi Z, Electrochemical properties of ceriabased oxides for use in intermediate-temperature SOFCs176 (2005) pp.647-654.
- Herle J, Senevirate D, McEvoy A, Lanthanide co-doping of solid electrolytes: AC conductivity behaviour,19 (1999) 837-841.
- Dudek M, Ceramic oxide electrolytes based on CeO-preparation, properties and possibility of application to electrochemical devices,(2008) submitted to print.
- Wang F, Chen S, Cheng S, Gdand Smco-doped ceria based electrolytes for intermediate temperature solid oxide fuel cells,6 (2004) pp. 743-746.
- Maricle D L, Swarm T E, Karavolis S, Enhanced ceria - a low-temperature SOFC electrolyte,52(1992) 173-178.
- Liu Y, He T, Wang J, Shu W, The effect of Pr co-dopant on the performance of solid oxide fuel cells with Sm-doped ceria electrolyte,389 (2005)pp.317-322.
- Dudek M, Ziewiec K, Preparation and the electrolytic properties of CaO-SmO-CeOsystem,6 (2006) pp. 53-58.
- Soral P, Pal U, Worrel W, Comparison of power densities and chemical potential variation in solid oxide fuel cells with multilayer and single layer oxide electrolytes,145 (1998) pp.99-106.
- Hirabayashi D, Tomita A, Teranishi S, Hibinio T, Sano M, Improvement of a reduction-resistant CeSmOelectrolyte by optimizing a thin BaCeSmOlayer for intermediate-temperature SOFCs176 (2005) pp. 881-887.
- Mitsuyasu H, Nonaka Y, Eguchi K, Analysis of solid state reaction at the interface of yttria-doped ceria/yttria-stabilized zirconia,113-115 (1998) pp. 279-284.
- Horita T, Sakai N, Yokokawa H, Dokiya M, Kawada T, Herle J, Sasaki K, Ceria-zirconia composite electrolyte for solid oxide fuel cells,2 (1997) pp. 155-164.
- Park Y, Yoon H, Wachsman E, Fabrication and characterization of high-conductivity bilayer electrolytes for intermediate-temperature solid oxide fuel cells,88 (2005) pp. 2402-2408.
- Wachsman E, Functionally gradient bilayer oxide membranes and electrolytes,152-153 (2002) pp.657-662.
- Wachsman E, Jayaweera P, Jiang N, Lowe D, Pound B, Stable High Conductivity Ceria/Bismuth Bilayered Electrolytes,144 (1997) pp. 233-236.
- Weyl A, Tu S, Janke D, Sensors based on new oxide electrolyte and oxygen reference materials for on-line measurements in steel research,65 (1994) pp.167-172.
- Subbarao E, Sutter P, Hrizo J, Defect structure and electrical conductivity of ThO-YOsolid solutions,48 (1965) pp. 443-446.
- Ramanarayanan T, Worell W, Limitation in the use of solid state electrochemical cells for high - temperature equilibrium measurements,13 (1974) pp. 325-329.
- Fischer W, Janke D, Schulenberg M, Calciumzirkonat als Festelektrolyt bei Temperaturen um 1600°C Archiv das Eissenhütenwesen 47 (1976) pp. 525-530.
- Janke D, Oxygen probes based on calcia-doped hafnia or calcium zirconate for use in metallic melts,13B (1982) pp. 227-235.
- Pandit S, Weyl A, Janke D., High-temperature ionic and electronic conduction in zirconate and hafnate compounds,69(1994) pp. 93-99.
- Dudek M, Bućko M, Electrical properties of stoichiometric and nonstoichiometric CaZrO,157(2003) pp. 183-187.
- Dudek M, Właściwości elektryczne i mechaniczne elektrolitów ceramicznych cyrkonian wapnia - regularny roztwór stały tlenku wapnia w dwutlenku cyrkonu.3 (2002) pp. 11-18.
- Dudek M, Róg G, Bogusz W, Kozłowska-Róg A, Bućko M, Zych Ł., Calcium zirconate as a solid electrolyte for electrochemical devices applied in metallurgy,24 (2006) pp 253-260.
- Tien TY, Electrical conductivity in the system CaZrO-ZrO,11(1964) pp.430-433;
- Janke D, Richter H, Low oxygen activities in steel melts - Possibilities and limits of the solid electrolyte measuring technique,50 (1979) pp.93-100.
- Liu Q, The development of high temperature electrochemical sensors for metallurgical processes,86-88 (1996) 1037-1043.
- Dudek M, Róg G, Bogusz W, Bućko M, Kozłowska -Róg A, Kompozytowe elektrolity stałe zawierające CaZrOjako elementy ogniw elektrochemicznych stosowanych w metalurgii Kompozyty/Composites 4 (2005) pp. 14-19.
- Dudek M, Bogusz W, Elektrolity stałe z układu CaO-ZrOjako elementy sond elektrochemicznych stosowanych w metalurgii,91(2005) pp. 159-166.
- Fergus J, Using chemical sensors to control molten metal processing, The Minerals,52 (2000) pp. 221-230.
- Worrel W, Liu Q, Development of an extended - life oxygen sensor for iron and steel melts40-41(1990) pp. 760-763.
- Knauth P, Tuller H, Solid State Ionics: Roots, Status and Future Prospects,85 (2002) pp. 1654-80.
- Fergus JW, Electrolytes for solid oxide fuel cells,162(2006)pp. 30-40.
Language: English, Polish
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Published on: Sep 23, 2008
Published by: Gdansk University of Technology
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