6 1/2 X 9 7/16 in An overview of physical adsorption methods for the characterization of f inely divided and porous materials and their application to fluid cracki ng catalysts (FCCs) (J.P. Olivier).
The determination of acidity in fluid cracking catalysts (FCCs) from adsorpt ion microcalorimetry of probe molecules (J. Shen, A. Auroux).
The use of atomic force microscopy (AFM) to stu dy the surface topography of commercial fluid cracking catalysts (FCCs) and pillared interlayered clay (PILC) catalysts (M.L. Occelli, S.A.C. Go uld).
New developments of NMR Spectroscop y applied to zeolites (H. Koller).
New c atalysts may provide insights into role of nonframework alumina in catal ytic cracking catalysis
(R.W. Fowler, R. Hu).
Mechanism of fluid cracking catalysts deactivation by Fe (G. Yaluris et al.).
Simula ting iron-induced FCC accessibility losses in lab-scale deactivation (D. R. Rainer et al.).
Reduction of
The determination of acidity in fluid cracking catalysts (FCCs) from adsorpt ion microcalorimetry of probe molecules (J. Shen, A. Auroux).
The use of atomic force microscopy (AFM) to stu dy the surface topography of commercial fluid cracking catalysts (FCCs) and pillared interlayered clay (PILC) catalysts (M.L. Occelli, S.A.C. Go uld).
New developments of NMR Spectroscop y applied to zeolites (H. Koller).
New c atalysts may provide insights into role of nonframework alumina in catal ytic cracking catalysis
(R.W. Fowler, R. Hu).
Mechanism of fluid cracking catalysts deactivation by Fe (G. Yaluris et al.).
Simula ting iron-induced FCC accessibility losses in lab-scale deactivation (D. R. Rainer et al.).
Reduction of
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