1 - 2 |
Calorimetry in catalysis - Introductory comments of guest editor Phillips J |
3 - 16 |
Adsorption calorimetry on filaments, vacuum-evaporated films and single crystals of metals Cerny S |
17 - 25 |
Surface equilibration in adsorption microcalorimetry of bases on H-USY Babitz SM, Williams BA, Kuehne MA, Kung HH, Miller JT |
27 - 32 |
Processes of ammonia adsorption in gallium zeolites as studied by microcalorimetry Ducourty B, Occelli ML, Auroux A |
33 - 45 |
Microcalorimetric and spectroscopic studies of the acidic- and physisorption characteristics of MCM-41 and zeolites Janchen J, Stach H, Busio M, van Wolput JHMC |
47 - 61 |
Effect of catalyst deactivation on the acid properties of zeolites used for isobutane/butene alkylation Diaz-Mendoza FA, Pernett-Bolano L, Cardona-Martinez N |
63 - 77 |
Surface acidity of metal oxides. Combined microcalorimetric and IR-spectroscopic studies of variously dehydrated systems Bolis V, Cerrato G, Magnacca G, Morterra C |
79 - 86 |
On the use of calorimetric techniques for the characterization of carbons : A brief review Menendez JA |
87 - 93 |
Calorimetric study of oxygen adsorption on activated carbon Phillips J, Xia B, Menendez JA |
95 - 104 |
Applications of adsorption microcalorimetry for the characterization of metal-based catalysts Spiewak BE, Dumesic JA |
105 - 114 |
Hydrogen adsorption states on silica-supported Ru-Ag and Ru-Cu bimetallic catalysts investigated via microcalorimetry Narayan RL, King TS |
115 - 124 |
Energetics of H-2 and O-2 adsorption on Ir/gamma-Al2O3 and Ir/SiO2 catalysts, dependence on support and on metal particle size Guil JM, Masia AP, Paniego AR, Menayo JMT |
125 - 132 |
Design parameters for the construction and operation of heat-flow calorimeters Parrillo DJ, Gorte RJ |
133 - 143 |
Flow adsorption microcalorimetry Groszek AJ |