II. İLERİ TEKNOLOJİLER ÇALIŞTAYI (İTÇ 2011) - Bilgesam

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[35] Hatae T., Matsuzaki Y., Yamashita S., Yamazaki, Y., Initial damage to anode microstructure
caused by partial redox cycles during electrochemical oxidation, Journal of
The Electrochemical Society 156, B609–B613, (2009).
[36] Sarantaridis D., Chater R.J., Atkinson A., Changes in physical and mechanical properties
of SOFC Ni–YSZ composites caused by redox cycling, Journal of The Electrochemical
Society 155, B467–B472, (2008).
[37] Young J.L., Birss V.I., Crack severity in relation to non-homogeneous Ni oxidation in
anode-supported solid oxide fuel cells, Journal of Power Sources 196, 7126–7135,
(2011).
[38] Dikwal C.M., Bujalski W., Kendall, K., Characterization of the electrochemical performance
of micro-tubular SOFC in partial reduction and oxidation conditions, Journal
of Power Sources 181, 267–273, (2008).
[39] Sumi H., Kishida R., Kim J.Y., Muroyama H., Matsui T., Eguchi, K., Correlation between
microstructural and electrochemical characteristics during redox cycles for Ni-YSZ
anode of SOFCs, Journal of The Electrochemical Society 157, B1747–B1752, (2010).
[40] Laurencin J., Delette G., Sicardy O., Rosini S., Joud, F.L., Impact of ‘redox’ cycles on
performances of solid oxide fuel cells: Case of the electrolyte supported cells, Journal
of Power Sources 195, 2747–2753, (2010).
[41] Iwanschitz B., Sfeir J., Mai A., Schütze, M., Degradation of SOFC anodes upon redox
cycling: A comparison between Ni/YSZ and Ni/CGO, Journal of The Electrochemical
Society 157, B269–B278, (2010).
[42] Pihlatie M., Kaiser A., Larsen P.H., Mogensen M., Dimensional behavior of Ni–YSZ
composites during redox cycling, Journal of The Electrochemical Society 156, B322–
B329, (2009).
[43] Pihlatie M, Kaiser A., Mogensen, M., Mechanical properties of NiO/Ni–YSZ composites
depending on temperature, porosity and redox cycling, Journal of the European
Ceramic Society 29, 1657–1664, (2009).
[44] Smith B.H., Holler W.C., Gross M.D., Electrical properties and redox stability of tantalumdoped
strontium titanate for SOFC anodes, Solid State Ionics 192, 383–386, (2011).
[45] Blennow P., Hansen K.K., Wallenberg L.R., Mogensen M., Electrochemical characterization
and redox behavior of Nb-doped SrTiO3, Solid State Ionics, 180, 63–70, (2009).
[46] Gross M.D., Carver K.M., Deighan M.A., Schenkel A., Smith B.M., Yee, A.Z., redox
stability of SrNbxTi1−xO3–YSZ for use in SOFC anodes, Journal of The Electrochemical
Society 156, B540–B545, (2009).
[47] Busawon A.N., Sarantaridis D., Atkinson A., Ni infiltration as a possible solution to
the redox problem of SOFC anodes, Electrochemical and Solid-State Letters 11,
B186–B189, (2008).
[48] Waldbillig D., Wood A., Ivey, D.G., Enhancing the redox tolerance of anodesupported
SOFC by microstructural modification, Journal of The Electrochemical Society
154, B133–B138, (2007).
[49] Fujita K., Somekawa T., Horiuchi K., Matsuzaki, Y., Evaluation of the redox stability
of segmented-in-series solid oxide fuel cell stacks, Journal of Power Sources 193, 130–
135, (2009).
[50] Hatae T., Matsuzaki Y., Yamashita S., Yamazaki Y., Destruction modes of anodesupported
SOFC caused by degrees of electrochemical oxidation in redox cycle, Journal
of The Electrochemical Society 157, B650–B654, (2010).
[51] Zhang Y., Liu B, Tu B., Dong Y., Cheng, M., Redox cycling of Ni–YSZ anode investigated
by TPR technique, Solid State Ionics 176, 2193–2199, (2005).