Nick Serpone – författare

This textbook serves as a comprehensive English translation of the sixth edition of Fondamenti di Chimica and has been significantly expanded to introduce undergraduate students to the fundamental principles of chemistry. In addition to core topics, it also addresses chemical kinetics, electrochemistry, nuclear and organic chemistry, biochemistry, the chemistry of main-group elements, and transition-metal complexes with their applications in medicinal chemistry. Importantly, the text also provides an extensive discussion of chemistry and the environment, as well as the relevance of symmetry properties in chemistry. Significantly, the contents highlight the connections between chemistry and such fields as medicine, industry, and environmental science. Chapters are so structured to also support use in advanced courses. Through clear writing, detailed illustrations, and solved examples, the authors present the material in an accessible and practical manner. The book fosters problem-solving skills and enhances students’ understanding of the significance of chemistry in daily life and scientific advancement.

A comprehensive overview covering the principles and preparation of catalysts, as well as reactor technology and applications in the field of organic synthesis, energy production, and environmental catalysis.Edited and authored by renowned and experienced scientists, this reference focuses on successful reaction procedures for applications in industry. Topics include catalyst preparation, the treatment of waste water and air, biomass and waste valorisation, hydrogen production, oil refining as well as organic synthesis in the presence of heterogeneous and homogeneous catalysts and continuous-flow reactions. With its practical relevance and successful methodologies, this is a valuable guide for chemists at universities working in the field of catalysis, organic synthesis, pharmaceutical or green chemistry, as well as researchers and engineers in the chemical industry.

Ever since the oil crisis of 1973, researchers in various fields of chemistry have proposed various schemes to conserve energy, as well to convert the sun's abundant and limitless supply of energy to produce chemical fuels (e. g. , hydrogen from water, . •. ). The enthusiasm had no previous parallel in the mid-1970's. Unfortunately, despite the several good proposals, the results have proven - in retrospect - somewhat disappointing from an economic viable point of view. The reasons for the meagre results are manyfold not the least of which are the experimental difficulties encountered in storage systems. Moreover, the lack of a concerted, well orchestrated interdisciplinary approach has been significant. By contrast, the chemical advances made in the understanding of the processes involved in such schemes have been phenomenal. A recent book on this issue ( M. Gratzel, Energy Resources through Photochemistry and Catalysis, 1983) is witness to the various efforts and approaches taken by researchers. In the recent years, many more groups have joined in these efforts, and the number of papers in the lit~rature is staggering ! One of the motives for organizing this NATO Advanced Research Workshop stemmed from our view that it was time to take stock of the accomplishments and rather than propose new schemes, it was time to consider seriously avenues that are most promising.

Ever since the oil crisis of 1973, researchers in various fields of chemistry have proposed various schemes to conserve energy, as well to convert the sun's abundant and limitless supply of energy to produce chemical fuels (e. g. , hydrogen from water, . •. ). The enthusiasm had no previous parallel in the mid-1970's. Unfortunately, despite the several good proposals, the results have proven - in retrospect - somewhat disappointing from an economic viable point of view. The reasons for the meagre results are manyfold not the least of which are the experimental difficulties encountered in storage systems. Moreover, the lack of a concerted, well orchestrated interdisciplinary approach has been significant. By contrast, the chemical advances made in the understanding of the processes involved in such schemes have been phenomenal. A recent book on this issue ( M. Gratzel, Energy Resources through Photochemistry and Catalysis, 1983) is witness to the various efforts and approaches taken by researchers. In the recent years, many more groups have joined in these efforts, and the number of papers in the lit~rature is staggering ! One of the motives for organizing this NATO Advanced Research Workshop stemmed from our view that it was time to take stock of the accomplishments and rather than propose new schemes, it was time to consider seriously avenues that are most promising.

The principal aim of this book is to introduce chemists through a tutorial approach to the use of microwaves by examining several experiments of microwave chemistry and materials processing.

This is a specialized book for researchers and technicians of universities and companies who are interested in the fundamentals of RF power semiconductors, their applications and market penetration.Looking around, we see that products using vacuum tube technology are disappearing.

This is a specialized book for researchers and technicians of universities and companies who are interested in the fundamentals of RF power semiconductors, their applications and market penetration.Looking around, we see that products using vacuum tube technology are disappearing.

This book describes innovative agricultural methods using thermal and non-thermal microwave or plasma energies. The innovative new agriculture explained in this book is based on the use of microwaves and plasma that do not rely on chemicals and genetic modification.

This book describes innovative agricultural methods using thermal and non-thermal microwave or plasma energies. The innovative new agriculture explained in this book is based on the use of microwaves and plasma that do not rely on chemicals and genetic modification.

This is the second volume of a two-volume set book, Electromagnetic Wave Innovations for Sustainability, which explores advancements in electromagnetic technologies like photocatalysis and microwave chemistry for sustainable energy production, recycling, and environmental remediation, within the framework of the SDGs and circular economy.The second volume focuses on applications of electromagnetic-wave–based technologies that address pressing environmental and energy challenges. It opens with a historical overview of microwave technologies for environmental protection and hybrid microwave–photocatalysis systems for wastewater treatment. The next section explore innovations in recycling technologies, including polymer degradation, plastic-to-monomer conversion, biomass–plastic co-recycling for hydrogen and carbon nanomaterials, and microwave-induced pyrolysis for metal recovery from e‑waste. Further chapters cover advancements in hydrogen production, solar cell development, and CO2 conversion, followed by microwave- and radiation-based water treatment and environmental remediation strategies. Together with the first volume, this volume provides an integrated perspective on how electromagnetic-wave technologies can accelerate progress toward a sustainable and circular society.

This is the first volume of a two-volume set book, Electromagnetic Wave Innovations for Sustainability, which explores advancements in electromagnetic technologies like photocatalysis and microwave chemistry for sustainable energy production, recycling, and environmental remediation, within the framework of sustainable development goals (SDGs) and the circular economy. It is followed by a second volume, Electromagnetic Wave Innovations for Sustainability II: Recycling and Environmental Remediation. The first volume introduces the fundamental principles that connect sustainability with electromagnetic-wave science. It begins by outlining the concepts of the circular economy, sustainable development, and green chemistry, followed by core theories of electromagnetic waves. Subsequent chapters highlight the role of photocatalysis in pollutant decomposition, wastewater purification, and the advancement of sustainable environmental technologies. The volume concludes with theoretical and industrial perspectives on microwave chemistry, including reactor simulations, extraction technologies, and the contributions of microwaves to sustainable chemical processes.

This book adds remarkable advances in microwave chemistry, methods, equipment, and practical examples since the first edition was published in 2018. Moreover, practical examples of the use of microwave energy have been upgraded. It also includes how to easily predict microwave heating using material constants. In addition, coupling analysis simulation with electromagnetic fields and heat transfer which greatly support researchers' experiments is covered.The principal aim of this book hasn’t changed: to introduce chemists through a tutorial approach to the use of microwaves by examining several experiments of microwave chemistry and materials processing. It subsequently enables chemists to fashion their own experiments in microwave chemistry or materials processing. This book helps chemists who take an interest in the use of microwave radiation to overcome difficulties to understand the nature of electromagnetism, microwave engineering, and thermodynamics.