Mark Anthony Benvenuto - Böcker

Industrial Inorganic Chemistry adds to the previously published graduate level textbooks on Industrial Chemistry by Mark A. Benvenuto. It focuses specifically on inorganic processes, from the largest industrial process for the production of major inorganic chemicals and metals, down to and including smaller niche processes that have become extremely important in maintaining the current quality of life. The book provides a survey on the production of essential elements and compounds, such as sulfuric acid, calcium carbonate, fertilizers as well as numerous metals and alloys. In addition to the fundamental scientific principles each chapter includes discussions on the environmental impacts: mining of raw materials, creation of by-products, pollution, and waste generation, all of which have become key factors for the potential implementation of greener methods. The author also highlights ways in which industry has begun to make industrial inorganic processes more environmentally benign. Examines major inorganic chemistry processes, their effect on every-day life and current efforts to improve processes or adapt „green“ chemical production. Provides didactic links between theoretical lecture contents and current, largescale chemical processes. Valuable for students of Inorganic Chemistry, Industrial Chemistry, Chemical Engineering and Materials Sciences.

Metals and Alloys continues the series of graduate textbooks on Industrial Chemistry by Mark A. Benvenuto. It shows the essential industrial applications, processes and chemistry background for the extraction of metals, as well as the production and applications of alloys. The book discusses how large scale and minor processes affect every-day life, challenges in prevention and removal of waste by-products and illustrates selected chemical processes for which efforts have been made to improve and “green” industrial production of metals and alloys. Sources for metals are sorted by metal and alloy and backed by basic chemical background information and process set up. Overviews on worldwide ore distribution, refined metal and alloy production numbers are another focus of the book. Discusses sources, key processes and applications. Connects what students learn in class to real, large-scale metals chemistry that makes modern life possible. Intended for students, graduate students and beginners in the fiield of Chemistry, Chemical Process Engineering, Chemical Engineering and Materials Science. Visit degruyter.com for more information on books by Mark A. Benvenuto: Industrial Chemistry (2013), Industrial Chemistry: For Advanced Students (2015) and Industrial Inorganic Chemistry (2015). About the Author: Mark Anthony Benvenuto A Fellow of the American Chemical Society, he received his PhD in inorganic chemistry from the University of Virginia. After a post-doctoral fellowship at the Pennsylvania State University, he joined the University of Detroit Mercy, where he is now the Department Chairman and teaches an industrial chemistry course.

This compact textbook book on environmental chemistry written for chemists and engineers covers the most important aspects of the topic: sustainability of processes, proper waste disposal, ethical decision making and green chemistry. Along these lines, the authors discuss issues of earth, water, air, fossil and alternative energy, and environmental toxicity.

The "greening" of industry processes - i.e., making them more sustainable - is a popular and often lucrative trend which has seen increased attention in recent years. Green Chemical Processes, the 2nd volume of Green Chemical Processing, covers the hot topic of sustainability in chemistry with a view to education, as well as considering corporate and environmental interests, e.g. in the context of energy production. The diverse team of authors allows for a balance between these different, but interconnected perspectives. The American Chemical Society’s 12 Principles of Green Chemistry are woven throughout this text as well as the series to which this book belongs.

Industrial Organic Chemistry examines all major industrial manufacturing technologies and reaction types with a focus on organic chemistry in general and petroleum refining in particular. The author takes a systematic approach to introducing the most important classes of organic compounds, from the C1 fraction through to polyaromatics and polymers. The author introduces biological sources for key compounds such as fuel and plastics and compares these bio-based organic materials to the corresponding petroleum-based chemicals. In addition to the chemistry behind processes in the petroleum, pharma, food and agrochemical industries, this book also discusses related topics such as process selectivity, waste management, and product purification.

Industrial Catalysis provides an excellent introduction to catalytic principles and processes, addressing the applications of inorganic-, organic- and biocatalysts in industrial chemistry. Each chapter is focussed on one catalytic process and discusses its life cycle from source materials, catalyst synthesis, the catalytic process, lifetime and recovery. The book also includes a comprehensive overview on industrial processes employing catalysis.

The “greening” of industry processes, i.e. making them more sustainable, is a popular and often lucrative trend which has emerged over recent years. The 3rd volume of Green Chemical Processing considers sustainable chemistry in the context of corporate interests. The American Chemical Society’s 12 Principles of Green Chemistry are woven throughout this text as well as the series to which this book belongs.

The “greening” of industry processes, i.e. making them more sustainable, is a popular and often lucrative trend which has emerged over recent years. The 4th volume of Green Chemical Processing considers sustainable chemistry in the context of education and explores didactic approached. The American Chemical Society’s 12 Principles of Green Chemistry are woven throughout this text as well as the series to which this book belongs.

The 5th volume of Green Chemical Processing considers sustainable chemistry in the context of governmental and corporate interests, explaining how “red tape” can help or hinder the “greening” of industry processes. The American Chemical Society’s 12 Principles of Green Chemistry are woven throughout this text as well as the series to which this book belongs.

The “greening” of industry processes, i.e. making them more sustainable, is a popular and often lucrative trend in Chemical Engineering. The 7th volume of Green Chemical Processing considers the role of water in sustainable chemistry and highlights innovations in the field of water treatment. The American Chemical Society’s 12 Principles of Green Chemistry are woven throughout this text as well as the series to which this book belongs.

The "greening" of industry processes - i.e., making them more sustainable - is a popular and often lucrative trend which has seen increased attention in recent years. Green Chemical Processes, the 2nd volume of Green Chemical Processing, covers the hot topic of sustainability in chemistry with a view to education, as well as considering corporate and environmental interests, e.g. in the context of energy production. The diverse team of authors allows for a balance between these different, but interconnected perspectives. The American Chemical Society’s 12 Principles of Green Chemistry are woven throughout this text as well as the series to which this book belongs.

This book is an introductory work on the broad topics included in Materials Science. It encompasses a number of different materials classes and properties with a focus on the structure-property relationships between them. Each class of materials will include and discuss recycling techniques and other green methods of production. Materials Chemistry: For Scientists and Engineers is ideal for all newcomers to the fi eld as well as for those seeking a knowledge of solid state chemistry.

This book focuses on the processes and materials behind energy technologies. The author details the underlying chemistry of renewable sources, such as biofuels and wind power, as well as the traditionally used coal and gas. Chapters on energy storage technologies and the connection between energy generation and climate change round off this uniquely concise overview of the relationship between chemistry and energy.

The 6th volume of Green Chemical Processing considers sustainable chemistry in the context of innovative and emerging technologies, explaining how they can support the “greening” of industry processes. The American Chemical Society’s 12 Principles of Green Chemistry are woven throughout this text as well as the series to which this book belongs.

Industrial Chemistry examines the chemical processes performed in industry and looks at how they affect our livesby discussing the by-products, pollution/ waste generation, and attempts at making processes more ecologically friendly, or “greener”. The author establishes connections between basic chemistry and the chemical processes that are used in real life. This 2nd Edition includes expanded and revised chapters, e.g. on fuel production.

The continued greening of the energy sector, with inroads being made through numerous sources of materials that can produce energy, is the main focus of this, Green Chemical Processing, Volume 8. It includes contributions from area experts in widely different fields, all involved in energy production, and makes connections to the 12 Principles of Green Chemistry.

This volume includes several perspectives on how to connect the United Nations Sustainable Development Goals with the 12 principles of green chemistry, and green chemistry education.

The "greening" of industry processes—making them more sustainable—is a popular and often lucrative trend. The volume covers green chemical processing in the context of climate change. The impact of catalysis, remediation of pollutants, and sustainable practices in process development on climate change are themes addressed in this volume.　 We also explore the adoption of sustainability and environmental justice in educational curricula.　 The American Chemical Society’s 12 Principles of Green Chemistry are woven throughout this text as well as throughout the series to which this book belongs.

Brings your chemistry curriculum to life. Along with the first volume „Industrial Chemistry“ (978-3-11-067106-3) it explains major chemical processes performed by industry and looks at how transformations affect the quality of our lives. It examines how necessary products are developed and marketed, while also discussing the various types of waste byproducts and shows practices in which many industries have made strides to improve or „green“ specific chemical processes.

A volume that includes examples of the newest ideas and practices how green chemistry and green science can be applied - in the classroom, but also in the connections between classes and the work place. In this volume brings together authors who are making novel strides in bringing green chemistry principles in their teaching and their work.

Industrial Inorganic Chemistry adds to the previously published graduate level textbooks on Industrial Chemistry by Mark A. Benvenuto. It focuses specifically on inorganic processes, from the largest industrial process for the production of major inorganic chemicals and metals, down to and including smaller niche processes that have become extremely important in maintaining the current quality of life. The book provides a survey on the production of essential elements and compounds, such as sulfuric acid, calcium carbonate, fertilizers as well as numerous metals and alloys. In addition to the fundamental scientific principles each chapter includes discussions on the environmental impacts: mining of raw materials, creation of by-products, pollution, and waste generation, all of which have become key factors for the potential implementation of greener methods. The author also highlights ways in which industry has begun to make industrial inorganic processes more environmentally benign. Examines major inorganic chemistry processes, their effect on every-day life and current efforts to improve processes or adapt „green" chemical production. Provides didactic links between theoretical lecture contents and current, largescale chemical processes. Valuable for students of Inorganic Chemistry, Industrial Chemistry, Chemical Engineering and Materials Science.

Industrial Organic Chemistry examines all major industrial manufacturing technologies and reaction types with a focus on organic chemistry in general and petroleum refining in particular. The author takes a systematic approach to introducing the most important classes of organic compounds, from the C1 fraction through to polyaromatics and polymers. The author introduces biological sources for key compounds such as fuel and plastics and compares these bio-based organic materials to the corresponding petroleum-based chemicals. In addition to the chemistry behind processes in the petroleum, pharma, food and agrochemical industries, this book also discusses related topics such as process selectivity, waste management, and product purification. .

The book provides an excellent introduction to industrial biotechnology, addressing the applications of biomolecules and living systems in industrial manufacturing of various products. Each part of the book is devoted to a certain biotech sector, such as biofuels, food, chemicals, pharmaceuticals and materials. The book also covers the environmental aspects of industrial biotechnology and the principles of bio-based economy.

The processes and materials behind energy technologies: The author details the underlying chemistry of renewable sources, such as biofuels and wind power, as well as the traditionally used coal and gas. Chapters on energy storage technologies and the connection between energy generation and climate change round off this uniquely concise overview of the relationship between chemistry and energy.

In the near future, the return to the Moon, and its colonization, will require a large number of chemical processes to be brought together and used so that humans can survive in this harsh environment, and so that profitable operations can begin. This book examines what capabilities currently exist that can be brought to bear to this end. It also examines what advances will have to be made in the near future.

The motivation behind writing this book comes from the growing global concern over environmental degradation due to toxicity of materials and the need for sustainable solutions with greener approach. With the increasing demand for cleaner technologies and eco-friendly materials, there is a pressing need for a comprehensive resource that highlights the latest research and developments in this field. By compiling cutting-edge knowledge and insights from experts in the field, this book aims to bridge the gap between theory and practice and facilitate the adoption of sustainable materials and processes across various industries. One of the key features of this book is its interdisciplinary approach, bringing together contributions from researchers and practitioners across fields such as materials science, green chemistry, environmental engineering, and sustainability studies. This book will provide a comprehensive overview of the latest advancements in green materials science and their potential applications in environmental sustainability. It covers a wide range of topics, including the synthesis of green materials and their utilization in environmental remediation, different process for sustainable innovation, and sustainable manufacturing processes. Additionally, the book explores the role of green materials in environmental risk assessment and promoting circular economy principles. Furthermore, it emphasizes the importance of collaboration between academia, industry, and policymakers in driving innovation and fostering a sustainable future. Overall, the book aims to serve as a valuable reference for scientists, engineers, and students interested in advancing green chemistry and sustainable materials science.