This authoritative work represents a broad treatment of the field, including the basic principles of membrane reactors, a comparative study of these and conventional fixed-bed reactors or multi-tube reactors, modeling, industrial applications, and emerging applications -- all based on case studies and model reactions with a stringent mathematical framework. The significant progress made over the last few years in this inherently hot multidisciplinary field is summarized in a competent manner, such that the novice can grasp the elementary concepts, while professionals can familiarize themselves with the latest developments in the area. For the industrial practitioner, this practical book covers all important current and potential future applications.

Andreas Seidel-Morgenstern received his PhD in 1987 from the Institute of Physical Chemistry of the Academy of Sciences in Berlin. Between 1991 and 1992 he worked as a postdoctoral fellow at the University of Tennessee in Knoxville. In 1994 he finished the Habilitation at the Technical University in Berlin. He has industrial experience with Schering AG (1995) and has consulted for various companies in the areas of separation science and reaction engineering. Since 1995 he has been Professor of Chemical Process Engineering at the Otto von Guericke University in Magdeburg. He was appointed to the position of Director at the Max Planck Institute for Dynamics of Complex Technical Systems in Magdeburg in 2002 where he leads the department "Physical and Chemical Foundations of Process Engineering". Among his numerous awards, he received the Max Buchner Award of Dechema in 2000, the Otto von Guericke Research Award of the Magdeburg University in 2002 and in 2008 he received an Honoris Causa Doctorate from the Lappeenranta University in Finland. His current research interests include reaction engineering, heterogeneous catalysis, preparative chromatography and Enantioselective crystallization.

Preface BASIC PROBLEMS OF CHEMICAL REACTION ENGINEERING AND POTENTIAL OF MEMBRANE REACTORS Challenges in Chemical Reaction Engineering Concepts of Membrane Reactors Available Membranes Illustration of the Selectivity Problem Reaction Rate, Conversion, Selectivity and Yield Distributed Dosing in Packed-Bed and Membrane Reactors Kinetic Compatibility in Membrane Reactors Current Status of Membrane Reactors of the Distributor Type MODELING OF MEMBRANE REACTORS Introduction Momentum, Mass and Heat Balances Transport Kinetics Reduced Models Solvability, Discretization Methods and Fast Solution Implementation in FLUENT, MooNMD, COMSOL and ProMoT Conclusion CATALYSIS AND REACTION KINETICS OF A MODEL REACTION Introduction The Reaction Network of the Oxidative Dehydrogenation of Ethane Catalysts and Structure-Activity Relations Derivation of a Kinetic Model TRANSPORT PHENOMENA IN POROUS MEMBRANES AND MEMBRANE REACTORS Introduction Aspects of Discretizing Convection-Diffusion Equations Velocity Fields in Membrane Reactors Determination of Transport Coefficients and Validation of Models Analysis of Convective and Diffusive Transport Phenomena in a CMR Parametric Study of a CMR Conclusion PACKED-BED MEMBRANE REACTORS Introduction Principles and Modeling Model-Based Analysis of a Distributed Dosing via Membranes Experimental Results for the Oxidative Dehydrogenation of Ethane to Ethylene Results for the Oxidative Dehydrogenation of Propane Summary and Conclusions FLUIDIZED-BED MEMBRANE REACTORS Introduction Modeling of the Distributed Reactant Dosage in Fluidized Beds Experimental Conclusions SOLID ELECTROLYTE MEMBRANE REACTORS Introduction Operational and Material Aspects in Solid Electrolyte Membrane Reactors Modeling of Solid Electrolyte Membrane Reactors Membrane Reactors Applying Ion-Conducting Materials Conclusions NONLINEAR DYNAMICS OF MEMBRANE REACTORS Introduction Limit of Chemical Equilibrium Pattern Formation Conclusions COMPARISON OF DIFFERENT MEMBRANE REACTORS General Aspects Regarding Membrane Reactors of the Distributor Type Oxidative Dehydrogenation of Ethane in Different Types of Membrane Reactors General Conclusion