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278                                                     REFERENCES
            264.  G. C.  Kuczynski,  A.  E.  Miller,  and G. A.  Sargent (Editors), Sintering and Heterogeneous
               Catalysis,  Plenum  Press,  New  York  (1984).
            265.  R.  Hughes,  Deactivation  of Catalysts,  Academic,  New  York  (1984).
            266.  1.  T.  Richardson  and  1.  G.  Crump,  Crystallite  Size  Distributions  of  Sintered  Nickel
               Catalysts,1.  Catal.  57,  417  (1979).
            267.  1.  T.  Richardson  and  R.  Koveal,  Influence  of  Crystallite  Size  on  Carbon  Monoxide
               Methanation, 1.  Catal.  98,  559  (1986).
            268.  1.  T.  Richardson  and 1.  L.  Propp,  Pore Size  Effects  on Sintering of Nil AI 20 3  Catalysts,
               1.  Catal.  98,  457  (J 986).
            269.  P.  Desai  and  1.  T.  Richardson,  Support  Effects  During  Sintering  of  Nickel  Catalysts,
               Catalyst Deactivation  (B.  Delmon and G.  F.  Froment, eds.), p.  149,  Elsevier,  Amsterdam
               (1981 ).
            270.  S.  F. Adler and 1. J.  Kearney, The Physical Nature of Supported Platinum, 1.  Phys.  Chern
               64,  208  (1960).
           271.  H.  1.  Maat and  L.  Moscou,  A  Study of the  Int1uence of Platinum Crystallite Size on the
               Selectivity  of Platinum  Reforming  Catalysts,  Third  International Congress  on  Catalysis,
               p.  1277,  North-Holland, Amsterdam  (1965).
           272.  1.  Barbier,  Effect of Poisons on the Activity of Selectivity of Metallic Catalysts,  Deactiva-
               tion  and  Poisoning  of Catalysts  (1.  Oudar  and  H.  Wise,  eds.),  p.  109,  Marcel  Dekker,
               New  York  (1985).
           273.  E.  B.  Maxted, The  Poisoning of Metallic Catalysts,  Ad!'ances in  Catalrsis,  Vol.  3 (W. G.
               Frankenburg,  E.  K.  Rieal,  and  V.  I.  Knmarewsky,  cds.),  p.  129,  Academic,  New  York
               (1951 ).
           274.1.  T.  Richardson, Sulfiding of Nickel  Catalyst  Beds, 1.  Catal.  21,130 (1971).
           275.  L.  L.  Hegedus and  R.  W.  McCabe, Catalyst  Poisoning,  Catal.  Rev.  23,  377  (1981).
           276.  H.  Knozinger,  Specitlc Oising and  Characterization  of Catalystically  Active  Oxide  Sur-
               faces,  Advances  ill  Catal)'s;s,  Vol.  25  (D.  D.  Eley,  H.  Pines,  and  P.  B.  Weisz,  eds.),  p.
               U14,  Academic,  New  York  (1976).
           277.  1.  H.  Sinfelt,  Catalytic  Reforming  of Hydrocarbons,  Catalysis,  Science  and  Techllolo?,)"
               Vol.  1 (1.  R.  Anderson and M.  Boudart, eds.), p.  257, Springer-Verlag,  New  York  (1981).
           278.  E.  E.  Wolf and  F.  Alfani,  Catalyst  Deactivation  by  Coking,  Catal.  Rev.  24,  329  (1982).
           279.  C.  Naccache, Deactivation of Acid Catalysts,  Deactivation and Poisoning or Catalysts  (J.
               Oudar and  H.  Wise,  eds.),  p.  185,  Marcel  Dekker,  New  York  (1985),
           280.  A.  Voorhies, Jr., Carbon Formation in Catalytic Cracking, Ind.  Eng.  Chern. 37, 318 (19451.
           2S t.  D.  M.  Nace, Catalytic Cracking over Crystalline Aluminosilicates,  Ind.  Eng.  Chern.  Prod.
               Res.  Dev.  8,  24 (I969).
           282.  J.  P.  Franck  and  G.  P.  Martino,  Deactivation of Reforming  Catalysts,  Deactivation  and
               Poisonillg  of Catalrsts  (1.  Oudar and  H.  Wise,  eds.),  p.  205,  Marcel  Dekker,  New  York
               ( 1985)
           283.  1.  R.  Rostrup-Nielsen  and  D.  L  Trimm,  Mechanisms  of Carbon  Formation  on  Nickel-
               Containing Catalysh, 1.  Cowl.  48,  155  (1977).
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