Global ETD Search

331	An Investigation of Capacity Fading of Manganese Spinels Stored at Elevated Temperature Sano, Mitsuru, Inoue, Takao January 1998 (has links) No description available. high-temperature effects solid structure dissolving electrolytes electrochemistry lithium compounds manganese compounds
332	Comparative Performance of Anode-Supported SOFCs Using a Thin Ce0.9Gd0.1O1.95 Electrolyte with an Incorporated BaCe0.8Y0.2O3 − α Layer in Hydrogen and Methane Sano, Mitsuru, Hibino, Takashi, Nagao, Masahiro, Teranishi, Shinya, Tomita, Atsuko January 2006 (has links) No description available. hydrogen nickel tape casting barium compounds cerium compounds electrolytes solid oxide fuel cells electrochemical electrodes
333	Performance of an Intermediate-Temperature Fuel Cell Using a Proton-Conducting Sn0.9In0.1P2O7 Electrolyte Sano, Mitsuru, Hibino, Takashi, Nagao, Masahiro, Shibata, Hidetaka, Heo, Pilwon January 2006 (has links) No description available. catalysts proton exchange membrane fuel cells electrochemical electrodes electrolytes ionic conductivity indium compounds tin compounds
334	Design of a Reduction-Resistant Ce0.8Sm0.2 O 1.9 Electrolyte Through Growth of a Thin BaCe1−xSmxO3−α Layer over Electrolyte Surface Sano, Mitsuru, Nagao, Masahiro, Hibino, Takashi, Tomita, Atsuko, Hirabayashi, Daisuke January 2004 (has links) No description available. ionic conductivity reduction (chemical) solid oxide fuel cells solid electrolytes samarium compounds barium compounds cerium compounds
335	Single-Chamber SOFCs with a Ce0.9Gd0.1 O 1.95 Electrolyte Film for Low-Temperature Operation Sano, Mitsuru, Nagao, Masahiro, Hibino, Takashi, Hirabayashi, Daisuke, Tomita, Atsuko January 2005 (has links) No description available. oxidation catalysis electric potential electrochemical electrodes solid electrolytes solid oxide fuel cells
336	Intermediate-Temperature NOx Sensor Based on an In^3+ -Doped SnP2O7 Proton Conductor Tomita, Atsuko, Sano, Mitsuru, Hibino, Takashi, Namekata, Yousuke, Nagao, Masahiro January 2006 (has links) No description available. electrochemical electrodes electrolytes ionic conductivity electrochemical sensors indium compounds tin compounds nitrogen compounds
337	A Proton-Conducting In^3+ -Doped SnP2O7 Electrolyte for Intermediate-Temperature Fuel Cells Tomita, Atsuko, Sano, Mitsuru, Hibino, Takashi, Heo, Pilwon, Takeuchi, Akihiko, Nagao, Masahiro January 2006 (has links) No description available. thermal stability fuel cells ionic conductivity solid electrolytes tin compounds indium
338	Electrochemical Reduction of NOx at Intermediate Temperatures Using a Proton-Conducting In^3+ -Doped SnP2O7 Electrolyte Tomita, Atsuko, Sano, Mitsuru, Hibino, Takashi, Yoshii, Takeshi, Nagao, Masahiro January 2006 (has links) No description available. adsorption catalysis ionic conductivity reduction (chemical) electrolytes nitrogen compounds tin compounds indium
339	A thermodynamic study of the system sodium sulfite-sodium bisulfite-water at at 25°C Morgan, Robert S. 01 January 1960 (has links) see pdf Sodium sulfite pulping Sulfur dioxide Activity coefficient Electrolytes Sulfite liquors Paper industry
340	Quasi-solid state electrolytes of Ionic liquid crystal apply in Dye-Sensitized Solar Cell. Guo, Tai-lin 17 July 2010 (has links) A novel ionic liquid crystal (ILC) system (C18IMCNBr) with a liquid crystal alignment used as an electrolyte for a dye-sensitized solar cell (DSSC) showed the higher short-circuit current density (Jsc) and the higher light-to-electricity conversion efficiency than the system using the non- alignment liquid crystalline ionic liquid (C18IMCNBr),due to the higher conductivity of liquid crystal alignment. The larger Jsc and efficiency value of liquid crystal alignment supported that the higher conductivity of liquid crystal alignment is attributed to the enhancement of the exchange reaction between iodide species. As a result of formation of the two-dimensional electron conductive pathways organized by the localized I3- and I- at liquid crystal alignment layers, the concentration of polyiodide species exemplified by Im- (m =5,7, ...) was higher in alignment C18IMCNBr. However, in the two-dimensional electron conductive pathways of C18IMCNBr, more collision frequencies between iodide species (I-,I3-, and Im-) could be achieved than that in the three-dimensional space of C18IMCNBr, which could lead to the promotion of the exchange reaction between iodide species, the contribution of a two-dimensional structure of the conductive pathway through the increase of collision frequency between iodide species was proposed. Quasi-solid state electrolytes Dye-Sensitized Solar Cell Ionic liquid crystal

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