Catalysis is an area of chemical sciences which has fascinated a wide range of academicians, researchers, chemical technologists and industries throughout the world. Progress in this field has been made owing to the thrust provided by this research and commercial interest. The field of catalysis is interdisciplinary by its nature, as it requires knowledge of organic synthesis, coordination and organometallic chemistry, reaction kinetics and mechanisms, stereochemical concepts and materials science. Fundamentals and Prospects of Catalysis highlights many important topics and sub-disciplines in catalysis by presenting 7 chapters on different but varied catalytic processes. This volume presents the following topics: · Organocatalytic Asymmetric Synthesis of Spiroacetals and Bridged Acetals · Design and Development of Bimetallic Enantioselective Salen Co Catalysts for The Hydrolytic Kinetic Resolution of Terminal Epoxides · Recent Trend in Asymmetric Heterogeneous Flow Catalysis · Ball Milling: A Green Tool in Synthetic Organic Chemistry · Recent Advances in the Developments of Enantioselective Electrophilic Fluorination Reactions via Organocatalysis · Green and Sustainable Biocatalytic Routes to Prepare Biobased Polyols as Precursors for Polyurethanes with Comparison of Existing Biobased Polyol Technology · Polymers Used as Catalysts <p> Catalysis: Current and Future Developments is a book series that covers theoretical, experimental and applied research on catalysis and their role in enhancing the rate of chemical reactions. The scope of topics covered by volumes in the series include heterogeneous catalysis, homogeneous catalysis, bio-catalysis, aspects of catalyst preparation, activation, aging, deactivation, rejuvenation, adsorption, synthesis and catalytic functions of new catalysts (which include novel inorganic solids and metal complexes). The series also presents reviews on surface chemistry, and commercially important model catalysts and catalytic processes.

Graphene-Based Nanomaterial Catalysis compiles knowledge about catalytic graphene-based nanomaterials in a single easy-to-read volume. The text serves to familiarize scholars and professionals with the methods of fabrication of both functionalized and non-functionalized graphene nanomaterials suitable for use in a variety of applications such as electrochemical sensors, oxygen and hydrogen production, fuel cells and organic transformations. Key Features - systematic chapters which present the topic in an accessible way that is targeted towards learners - Accessible information about the fabrication of graphene-based catalysts - updated knowledge about catalytic applications of graphene-based nanomaterials in electro- and organic catalysis. - delivers information about recent trends in industry and research. - covers sophisticated green technologies such as carbon dioxide conversion and solar powered water splitting - references for further reading Interested students in material science at undergraduate, graduate and postgraduate levels in the disciplines of chemical engineering and materials science will highly benefit from the information in this reference. The reference also gives researchers in both industry and academia an opportunity to update their knowledge of graphene-based nanomaterials useful for catalysis.

Energy is vital to global prosperity, yet dependence on fossil fuels as our primary energy source contributes to global climate change, environmental degradation, and health problems. Hydrogen offers tremendous potential as a clean, renewable energy currency. It has the highest gravimetric energy density of any known fuel and is compatible with electrochemical and combustion processes for energy conversion without the carbon emissions. This e-book summarizes the current state of the art and progress in biohydrogen production. Biohydrogen has significant economical since biological processes are much less energy intensive compared with electrolysis and thermo-chemical processes. Topics covered in this reference include progress in hydrogen production by light-driven processes, dark fermentation, hydrogen production from waste materials, the role of molecular engineering for enhanced hydrogen production, and post-production processing such as hydrogen purification and storage.

This reference is an accessible update on combustion synthesis and the chemical technology for synthesizing composite materials. Nine chapters offer an overview of the subject with recent references, giving the reader an informed perspective. The book starts with an introduction to thermodynamic models used in combustion synthesis. Subsequent chapters explain the application of combustion synthesis to manufacture different materials such as nanostructured non-ferrous alloys, ceramic powders, functionally graded materials, boron carbide-based superhard materials, shape memory alloys, biomaterials, high-entropy alloys and rare earth phosphates. The range of topics makes this book a useful guide for students, scientists and industrial professionals in the field of chemical engineering, metallurgy and materials science.