Cover; Copyright; Contents; Contributors; Preface; Mikhail I. Temkin, 1908-1991; Chapter 1. Application of Percolation Theory to Describing Kinetic Processes in Porous Solids; I. Introduction; II. Elements of Percolation Theory; III. Desorption from Porous Solids; IV. Mercury Penetration into Porous Solids; V. Catalytic Deactivation by Site Coverage and Pore Blockage; VI. Conclusion; References; Chapter 2. Oscillatory Reactions in Heterogeneous Catalysis; I. Introduction; II. A Survey of Oscillatory Reactions; III. Experimental Methods; IV. Models of Oscillatory Behavior.

V. Synchronization, Spatial Patterns, and ChaosVI. Summary; References; Chapter 3. Zeolite-Supported Transition Metal Catalysts; I. Introduction; II. Preparation of Metal Zeolites; III. Carbon Monoxide-Induced Reorganizations of Metal Atoms; IV. Alloy Particles; V. Metal Redispersion; VI. Metal Particles from Neutral Complexes; VII. Formation of Metal Clusters by the Ship-in-a-Bottle Method; VIII. Metal-Proton Adducts; IX. Catalytic Reactions; X. Prospectives for Future Applications; References.

Chapter 4. Selectivity Control and Catalyst Design in the Fischer-Tropsch Synthesis: Sites, Pellets, and ReactorsI. Introduction; II. Background; III. Experimental Methods; IV. Results and Discussion; V. Design of Fischer-Tropsch Catalysts; VI. Conclusions; VII. Nomenclature; References; Chapter 5. Catalysis by Metal Ions Intercalated in Layer Lattice Silicates; I. Introduction; II. Catalytic Materials; III. Catalytic Activity of Metal Ion-Exchanged Fluorotetrasilicic Mica; IV. Dehydrogenation of Methanol over Copper Ion-Exchanged TSM.

V. Reaction of Methanol over Ti4+-TSM and Related CatalystsVI. Immobilization of Catalyst Solution; VII. Conclusions; References; Chapter 6. Catalytic Synthesis of Chlorofluorocarbon Alternatives; I. Introduction; II. Catalytic Synthesis of Key CFC Alternatives; III. Summary; References; Chapter 7. Molecular Mobility Measurement of Hydrocarbons in Zeolites by NMR Techniques; I. Introduction; II. Basic Principles of NMR Self-Diffusion Studies; III. Principles of NMR Techniques to Detect Molecular Reorientations; IV. Principles of Other Mobility Measurements (Comparison with NMR Data).

V. Combined Application of Different Experimental Techniques to Study Molecular Translations and Rotations of Hydrocarbons in ZeolitesVI. Structure-Related Molecular Self-Diffusion in Zeolites by Pulsed-Field Gradient NMR: Influence of Pore Diameter, Si/AI Ratio, and Concentrations of Internal OH Groups and Cations; Self-Diffusion of Mixtures; VII. Location of Diffusion Obstacles Inside the ZSM-5 Framework by Pulsed-Field Gradient NMR; VIII. Detection of Spatial Distributions of Diffusion Obstacles over the Crystal Size by Pulsed-Field Gradient NMR.