Page 38 - High Temperature Solid Oxide Fuel Cells Fundamentals, Design and Applications
P. 38

Introduction to SOFCs  19


             Similar arguments apply to truck cabs which have to be heated.
             Smaller, portable SOFC power units which can replace batteries are also being
           considered. These can deliver power in the range from 20 We to 10 kWe and can
           run directly on a wide range of fuels from natural gas, to propane, methanol and
           isooctane. If the cells are small to avoid thermal shock, then the start-up can be
           quick [45]. The other application for such units is in residential cogeneration
           using pipeline gas. Installing SOFCs in every home will cut residential carbon
           dioxide emissions by up to 50%.



           1 .I 3 SQFC-Related  Publications

           SOFC technology has been advancing at a rapid rate over the past years since
          Minh and Takahashi published their excellent monograph [46]. Large numbers
           of new developments have occurred and many more scientists and engineers are
          working in this field. Bringing all the research  and development information
           together in this one volume should help to unify the subject and produce further
          breakthroughs.
             Several conference proceedings are published each year containing material
           on  SOFCs but  these tend  to be  collections of  individual  research papers  at  a
          particular time rather than a complete compendium of  the technology. These
           include  The Electrochemical Society Proceedings series on  SOFCs which  has
          been edited by Singhal et a1 [47-541,  and the Proceedings of the European SOFC
           Forums [55-591.
            It is believed that the publication of  this volume will provide detailed up-to-
          date information for the researchers who are about to make SOFCs commercial
          in the near future.



           Kef e rences
                 W. Nernst, Z. Elektrochem., 6 (1899) 41.
                 W.Nernst,DRP 104872,1897.
                 W. Nernst, US Patent 685 730,1899.
                 K. Mendelssohn, The World of  Walther Nernst, the Rise and Fall of German
                 Science, 1864-1 941, Macmillan, London, 1973.
                 E. Baur andH. Preis, ZElektrochem., 43 (1937) 727.
                 H. Peters andH.  H. Mobius, ZPhysik. Chern., 209 (1958) 298.
                 A.  H. Heuer  and L W.  Hobbs  (eds), Science  and  Technology of  Zirconia,
                 American Ceramic Society, Columbus, Ohio, 1981; see also Science and
                 Technology of  Zirconia, vols 11-V,  American Ceramic Society, Columbus,
                 Ohio, 1984-1 993.
                 D.  H.  Archer, L.  Elikan and R.  L.  Zahradnik, in Hydrocarbon Fuel  Cell
                 Technologies,  ed. B. S. Baker,AcademicPress, New York, 1965. p. 51.
                 A. 0. Isenberg, SolidStateIonics, 3 (1981) 431.
                 U. €3.  PalandS. C. Singha1,J. Electrochern. SOC., 137 (1990) 2937-2941.
   33   34   35   36   37   38   39   40   41   42   43