Shape Selective Catalysis in Industrial Applications, Second Edition, / Edition 2

Shape Selective Catalysis in Industrial Applications, Second Edition, / Edition 2

by N.Y. Chen
ISBN-10:
0367401290
ISBN-13:
9780367401290
Pub. Date:
09/05/2019
Publisher:
Taylor & Francis
ISBN-10:
0367401290
ISBN-13:
9780367401290
Pub. Date:
09/05/2019
Publisher:
Taylor & Francis
Shape Selective Catalysis in Industrial Applications, Second Edition, / Edition 2

Shape Selective Catalysis in Industrial Applications, Second Edition, / Edition 2

by N.Y. Chen
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Overview

"Examines all known industrial processes using shape selective zeolites. Second Edition contains new, up-to-date information on the specific features that make zeolites shape selective, the role shape selective catalysis can play providing environmentally clean fuels, 12-membered oxygen ring systems, mesopore systems, and more."

Product Details

ISBN-13: 9780367401290
Publisher: Taylor & Francis
Publication date: 09/05/2019
Series: Chemical Industries , #65
Edition description: 2nd ed.
Pages: 304
Product dimensions: 6.00(w) x 9.00(h) x (d)

About the Author

N. Y. Chen was a Senior Scientist and Research Advisor at the Mobil Research and Development Corporation, Princeton, New Jersey, before retiring in 1993. He has been serving as a Consultant to Mobil and also as a Visiting Professor in the Department of Chemical Engineering of the National University of Singapore. The holder of over 125 U.S. patents, Dr. Chen is the coauthor of four books and has published numerous articles in leading technical journals. Dr. Chen received the B.S. degree (1947) in chemistry from the University of Shanghai, People's Republic of China, the M.S. degree (1954) in chemical engineering from Louisiana State University, Baton Rouge, and the Sc.D. degree (1959) in chemical engineering from the Massachusetts Institute of Technology, Cambridge.

William E. Garwood is a Consultant for the Mobil Technology Company (formerly, the Mobil Research and Development Corporation), Paulsboro, New Jersey, where he previously served for 44 years and retired as a Senior Scientist. An Adjunct Professor at Rowan College, Glassboro, New Jersey, Mr. Garwood has published numerous articles in leading technical journals and holds over 100 U.S. patents. He is a member of the American Chemical Society and the Philadelphia Catalysis Club. He received the B.A. degree (1942) in chemistry from the University of North Carolina at Chapel Hill and did graduate studies in chemistry at Temple University in Philadelphia. Pennsylvania, after service in the Navy in World War II.

Francis G. Dwyer was a Senior Scientist/Manager of Catalyst Research and Development for Mobil Research and Development Corporation, Paulsboro, New Jersey, until his recent retirement in 1993 after 40 years of service. An industrial consultant in catalysis and catalytic processing, Dr. Dwyer has authored and edited numerous articles for leading technical journals in the U.S. and abroad and holds over 50 U.S. patents. Inducted into the National Academy of Engineering in 1993, he received the B.Ch.E. degree (1953) from Villanova University, Pennsylvania, and the M.S. (1963) and Ph.D. (1966) degrees in chemical engineering from the University of Pennsylvania, Philadelphia.

Table of Contents

Preface to the Second Edition iii

Preface to the First Edition v

1 Introduction 1

References 3

2 Relation Between Zeolite Structure and Its Catalytic Activity 5

I Zeolites 6

II Pore/Channel Systems 7

A 8-Membered Oxygen Ring Systems 7

B 10-Membered Oxygen Ring Systems 10

C Dual Pore Systems 13

D 12-Membered Oxygen Ring Systems 14

E Mesopore Systems 14

III Structural Features of Zeolites and the Quantitation of Acidic Framework Aluminum Sites 14

IV Distribution and Location of Acid Sites 21

V Structural Effect on Acid Sites 23

A Constraint Index 23

B Other Catalytic Characterization Tests 25

C Para Selectivity 28

VI Enhanced Acid Sites 29

VII Acid Sites in Isomorphous Substituted Zeolites 30

References 31

3 Principal Methods of Achieving Molecular Shape Selectivity 37

I Size Exclusion 38

II Coulombic Field Effects 43

III Configurational Diffusion 46

IV Spatiospecificity, or Transition State Selectivity 54

V Traffic Control 57

VI Confinement Effect 58

References 59

4 Shape Selective Catalysis 62

I Reactants of Interest 63

II Reactions Catalyzed by Zeolites 64

A Olefin Reactions 64

B Paraffin Reactions 76

C Reactions of Aromatic Compounds 85

D Naphthene Reactions 108

E Reactions of Oxygen-Containing Compounds 108

F Reactions of Nitrogen-Containing Compounds 129

G Reactions of Other Nonhydrocarbons 135

H Acid Catalyzed Hydrogenation Activity 136

III Selective Oxidation with Titanium Zeolites 136

References 137

5 Applications in Petroleum Processing 145

I Goals of Improvement for Environmentally Clean Fuels 146

II Catalytic Cracking of Gas Oils 148

III Octane Boosting 150

A Reforming of Naphthas 150

B Postreforming of Reformates 154

IV Light Olefins Upgrading Processes 166

V Clean Fuels from Light Olefins 168

VI Dewaxing of Distillate Fuels and Lube Basestocks 172

A Introduction 172

B Mobil Distillate Dewaxing Process 174

C Jet Fuel Dewaxing 182

D Mobil Lube Dewaxing Process 185

E Development of Bifunctional Catalytic Dewaxing Process 190

References 192

6 Applications in Aromatics Processing 197

I BTX Synthesis 198

A M2-Forming 198

B Xylene Isomerization 201

C Xylene Synthesis 204

D Xylene by Alkylation of Toluene with Methanol 207

II Ethylbenzene and Para-Ethyltoluene 208

A Ethylbenzene Synthesis 208

B Para-Ethyltoluene Synthesis 209

III Spin-Off to Other Chemicals 209

References 210

7 Applications in Alternate Fuels and Light Olefins 212

I Methanol to-Gasoline Process 213

A Commercial Fixed-Bed Plant 214

B Fluid-Bed Development 217

II Methanol to-Light Olefins Process 222

III Synthesis of Ethers 226

IV Synthesis Gas Conversion 228

A Composite Catalysts for Direct Synthesis Gas Conversion 228

B Mobil Two-Stage Slurry Fischer-Tropsch/ZSM-5 Process 230

References 235

8 New Opportunities in Shape Selective Catalysis 238

I Upgrading Waxy Crudes 239

II Upgrading Shale Oils 240

III Dewaxing Hydrogen Donor Solvent for Coal Liquefaction 242

IV Converting Natural Gas to Liquid Hydrocarbons 243

V Pre-Engine Converter 245

VI Liquid Fuel from Biomass 247

A Direct Conversion of Carbohydrates 247

B Biomass Pyrolysis 248

VII Applications in Other Industries 250

A Fermentation 250

B Zeolitic Membrane Reactors 250

C Chemicals 251

D Environmental Applications 252

E In Vivo Applications 253

References 257

9 Conclusions 261

Author Index 263

Subject Index 269

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