Sustainability: Contributions through Science and Technology – serie

When the Nobel Prize Committee recognized the importance of green chemistry with its 2005 Nobel Prize for Chemistry, this relatively new science came into its own. Although no concerted agreement has been reached yet about the exact content and limits of this interdisciplinary discipline, there seems to be increasing interest in environmental topics that are based on the chemistry embodied in this subject. Linking green chemistry practice to environmental sustainability, Green Chemistry for Environmental Sustainability illustrates the efforts being made to remediate a scathed environment into a pristine one.Links Green Chemistry Practice to Environmental SustainabilityEminent international experts present research on and the application of green chemistry and engineering in addressing current issues of an environmental and social nature. They cover sustainable development and environmental sustainability with chapters on green chemistry and engineering research, the design and synthesis of environmentally benign chemical processes, green approaches to minimize and/or remediate environmental pollution, the development of biomaterials, biofuel, and bioenergy production, biocatalysis, and policies and ethics in green chemistry. The book also explores economics, environmentally benign technologies for greener processes, computational methods and modeling, and green approaches to minimize air and water. Green chemistry has brought a relatively prompt and positive paradigm shift in the overall use and management of natural resources and raw materials for the development of society with a subtle promise to cause far less pronounced harm to the environment. This text provides insight into the chemical and biochemical technologies that are being studied, optimized, and eventually developed to promote environmental sustainability. It provides up-to-date information on selected fields where the principles of green chemistry are being embraced for safeguarding and improving the quality of the environment.

Industries worldwide have been impacted by environmental regulations, economics, and ultimately consumers, which has led to more thought about the development of sustainable products. The textile industry is no exception. The preparation, dyeing, and finishing of textile fibres requires large amounts of water and other chemicals which may be toxic or hazardous. Green chemistry along with other green technologies may now play a leading role in this process. This book emphasises the importance of plasma treatment as a green and sustainable technology. A Novel Green Treatment for Textiles: Plasma Treatment as a Sustainable Technology discusses the plasma treatment of textile fibres and its environmental, economic, and social benefits. The book reviews the general properties of textiles and provides a description of the current treatment methods typically used today. The author then introduces the concept of plasma and its application in treating textile materials. The application of plasma as a pretreatment as well as a treatment in dyeing textiles is discussed. The book summarizes the application of plasma treatment in the printing and finishing of textiles. Also explored is the concept of sustainability and its role in the development of plasma treatments in textile wet processing. The 12 Principles of Green Chemistry are incorporated throughout the book.

Increased environmental consciousness within the scientific community has spurred the search for environmentally friendly processes as alternatives to conventional organic solvents. In the past two decades, numerous advances—including the use of ionic liquids—have made it possible to develop substitutes for some toxic solvents. Ionic liquids are widely recognized as suitable for use in organic reactions and can also improve the control of product distribution, enhanced reactivity, ease of product recovery, catalyst immobilization, and recycling.Environmentally Friendly Syntheses Using Ionic Liquids presents the latest developments in the field. It also reviews the latest applications in a wide range of fields including biotechnology, nuclear science, medicine, pharmaceuticals, environmental science, and organic and inorganic chemistry—all from the standpoint of green sustainable chemistry.Growing interest in the field of ionic liquids will define newer and unexplored areas of applications, expanding possible use of these environmentally friendly chemicals. The information presented in this book will undoubtedly help motivate readers to further explore the field.

The process of photosynthesis is a potential source of energy and bioproducts. Renewable sources of polymeric materials offer an answer to maintaining sustainable development of economically and ecologically attractive technology. The innovations in the development of materials from biopolymers, preservation of fossil-based raw materials, complete biological degradability, reduction in the volume of garbage and compostability in the natural cycle, climate protection through reduction of carbon dioxide released, and the application possibilities of agricultural resources for the production of bio/green materials are some of the reasons why such materials are attracting public interest.FEATURES Discusses waste from urban areas, forestry and agricultural processes, specifically grown crops such as trees, starch crops, sugar crops hydrocarbon plants and oils, and finally aquatic plants such as water seaweeds and algae, which can be used as raw materials for sustainable development. Presents recent advances in the development of some specifically chemical components of biomasses for a sustainable future. Focuses on lignocellulose as a source of bio-based products. Draws upon expertise from various countries. Describes how upgraded and integrated biomass processing may reduce the risks associated with the COVID-19 pandemic.Valentin I. Popa is professor emeritus of Wood Chemistry and Biotechnology at Gheorghe Asachi Technical University of Iasi, Romania.

Nanometre scale cellulose fibres, or nanocellulose, are emerging materials for various advanced applications. Nanocellulose and Sustainability: Production, Properties, Applications, and Case Studies provides a comprehensive overview of nanocellulose production, nanocellulose properties and nanocellulose in selected applications. This book serves as an entry level reference text for undergraduates, graduate students, researchers and professional engineers working in the area of nanocellulose and sustainability.Features:Summarises the surface and bulk properties of various types of nanocelluloseReviews the application of nanocellulose in water purification and optically transparent materialsProvides an overview of nanocellulose as Pickering emulsifier, binder for loose natural fibres to produce non-woven preforms, as well as nanocellulose-based aerogelsPresents a techno-economic analysis of industrial bacterial cellulose productionDiscusses the pilot scale production of cellulose nanocrystals

The process of photosynthesis is a potential source of energy and bioproducts. Renewable sources of polymeric materials offer an answer to maintaining sustainable development of economically and ecologically attractive technology. The innovations in the development of materials from biopolymers, preservation of fossil-based raw materials, complete biological degradability, reduction in the volume of garbage and compostability in the natural cycle, climate protection through reduction of carbon dioxide released, and the application possibilities of agricultural resources for the production of bio/green materials are some of the reasons why such materials are attracting public interest.FEATURES Discusses waste from urban areas, forestry and agricultural processes, specifically grown crops such as trees, starch crops, sugar crops hydrocarbon plants and oils, and finally aquatic plants such as water seaweeds and algae, which can be used as raw materials for sustainable development. Presents recent advances in the development of some specifically chemical components of biomasses for a sustainable future. Focuses on lignocellulose as a source of bio-based products. Draws upon expertise from various countries. Describes how upgraded and integrated biomass processing may reduce the risks associated with the COVID-19 pandemic.Valentin I. Popa is professor emeritus of Wood Chemistry and Biotechnology at Gheorghe Asachi Technical University of Iasi, Romania.

Climate Change and Carbon Recycling: Surface Chemistry Applications describes the application of surface chemistry methods for carbon capture and recycling in relation to climate change and atmospheric CO2 levels. The text is suitable for online education, with both basic and educational descriptions of the climate change process and carbon recycling methods like the adsorption and absorption of CO2 on solids. This book leads to a better understanding of a complex phenomenon and highlight the importance of CO2 capture and sequestration for the future to enable the utilization of fossil fuels without contributing to atmospheric greenhouse gases.FeaturesThis unique volume specifically highlights the surface chemistry aspects of carbon capture and recycling (CCR)Fills the need for an online textbook edition, which provides a basic and educational description of the climate change process and carbon capture/recyclingDescribes the application of surface chemistry methods for carbon capture and recycling, such as adsorption/absorption of CO2Discusses the importance of recycling in reducing and controlling the concentration of carbon dioxide in the air (420 ppm: 0.042%)Describes the importance of the technology related to carbon capture/recycling and sequestration (CCS) from fossil fuel energy plants as a means of CO2 control

Climate Change and Carbon Recycling: Surface Chemistry Applications describes the application of surface chemistry methods for carbon capture and recycling in relation to climate change and atmospheric CO2 levels. The text is suitable for online education, with both basic and educational descriptions of the climate change process and carbon recycling methods like the adsorption and absorption of CO2 on solids. This book leads to a better understanding of a complex phenomenon and highlight the importance of CO2 capture and sequestration for the future to enable the utilization of fossil fuels without contributing to atmospheric greenhouse gases.FeaturesThis unique volume specifically highlights the surface chemistry aspects of carbon capture and recycling (CCR)Fills the need for an online textbook edition, which provides a basic and educational description of the climate change process and carbon capture/recyclingDescribes the application of surface chemistry methods for carbon capture and recycling, such as adsorption/absorption of CO2Discusses the importance of recycling in reducing and controlling the concentration of carbon dioxide in the air (420 ppm: 0.042%)Describes the importance of the technology related to carbon capture/recycling and sequestration (CCS) from fossil fuel energy plants as a means of CO2 control

Nanotechnologies represent a fast-growing market and this unique volume highlights the current studies in applied sciences on sustainability of green science and technology. The chapters include modelling, machine learning, nanotechnology, nanofluids, nanosystems, smart materials and applications and solar and fuel cells technology. The authors cover simulation, additive manufacturing, machine learning and the autonomous system. Various aspects of green science as well as trans-disciplinary topics between fundamental science and engineering are presented.The book is suitable for all postgraduates and researchers working in this rapid growing research area. Features Presenting latest research on green materials and sustainability. Provide in depth discussion on modeling and simulation using latest techniques. Technical exposure for the readers on additive manufacturing principles. Numerous examples on nanofluids and nano technology are presented. Discusses computer modeling, superconductivity, nanotubes and related structures such as graphene.

Nanotechnologies represent a fast-growing market and this unique volume highlights the current studies in applied sciences on sustainability of green science and technology. The chapters include modelling, machine learning, nanotechnology, nanofluids, nanosystems, smart materials and applications and solar and fuel cells technology. The authors cover simulation, additive manufacturing, machine learning and the autonomous system. Various aspects of green science as well as trans-disciplinary topics between fundamental science and engineering are presented.The book is suitable for all postgraduates and researchers working in this rapid growing research area. Features Presenting latest research on green materials and sustainability. Provide in depth discussion on modeling and simulation using latest techniques. Technical exposure for the readers on additive manufacturing principles. Numerous examples on nanofluids and nano technology are presented. Discusses computer modeling, superconductivity, nanotubes and related structures such as graphene.

This volume in our Sustainability: Contributions through Science and Technology series reviews the use of alternative green technologies (pressurized liquid and super-critical fluid extractions) for grape biomass valorization. Environmental sustainability and circular economy are discussed in relation to agro-industrial waste in the winemaking industry. The waste contaminates water and soil and, in large quantities, it has been related to bad odors, a high content of organic matter in water, and greenhouse gas emissions over the entire winemaking industry. Here, the authors illustrate how green extraction of commercially valuable substances can be scaled up at an industrial level.Features :Reports on waste valorization in the winemaking industry and converting the waste into more useful products including oils, antioxidants and other valuable materialsExplores research which contributes to environmental sustainability and circular economy in the winemaking industryDescribes other ways to reduce the ecological footprint of the wine industry such as using less fertilizer, more benign pesticides and reduction of water footprintProposes options for a potential wine waste biorefining. Reviews alternative uses of agro-industrial wine wastes as sources of additives for the food, cosmetic and pharmaceutical industries.

This volume in our Sustainability: Contributions through Science and Technology series reviews the use of alternative green technologies (pressurized liquid and super-critical fluid extractions) for grape biomass valorization. Environmental sustainability and circular economy are discussed in relation to agro-industrial waste in the winemaking industry. The waste contaminates water and soil and, in large quantities, it has been related to bad odors, a high content of organic matter in water, and greenhouse gas emissions over the entire winemaking industry. Here, the authors illustrate how green extraction of commercially valuable substances can be scaled up at an industrial level.Features :Reports on waste valorization in the winemaking industry and converting the waste into more useful products including oils, antioxidants and other valuable materialsExplores research which contributes to environmental sustainability and circular economy in the winemaking industryDescribes other ways to reduce the ecological footprint of the wine industry such as using less fertilizer, more benign pesticides and reduction of water footprintProposes options for a potential wine waste biorefining. Reviews alternative uses of agro-industrial wine wastes as sources of additives for the food, cosmetic and pharmaceutical industries.

As the world struggles with sustainable practices and policies regarding environmental protection, green sustainable energy is a key player. The chemistries involving energy production must be efficient but also must evolve and change to meet new restrictions and footprint guidelines. Rather than only being seen as a necessary evil, energy through green sustainable energy (GSE) must become a key piece in the sustainability puzzle. The green sustainable energies presented in this book will demonstrate that progress in science can and should be leading contributors in discussions on environmental science and chemistry. This book:Explains the necessary role of energy in the sustainability of the world in the 21st centuryRecognizes past practices and future potential, guided by global demand and the four drivers: economic, scientific, regulatory, and environmentalPresents a much-needed multi-dimensional approach to the subjectDemonstrates that green sustainable energies can and should be leading contributors in discussions on environmental science and chemistryHighlights new products, processes, applications, and developments in green sustainable energy, which demonstrates how sustainability is adapting in the new age

As the world struggles with sustainable practices and policies regarding environmental protection, green sustainable energy is a key player. The chemistries involving energy production must be efficient but also must evolve and change to meet new restrictions and footprint guidelines. Rather than only being seen as a necessary evil, energy through green sustainable energy (GSE) must become a key piece in the sustainability puzzle. The green sustainable energies presented in this book will demonstrate that progress in science can and should be leading contributors in discussions on environmental science and chemistry. This book:Explains the necessary role of energy in the sustainability of the world in the 21st centuryRecognizes past practices and future potential, guided by global demand and the four drivers: economic, scientific, regulatory, and environmentalPresents a much-needed multi-dimensional approach to the subjectDemonstrates that green sustainable energies can and should be leading contributors in discussions on environmental science and chemistryHighlights new products, processes, applications, and developments in green sustainable energy, which demonstrates how sustainability is adapting in the new age

Circularity marks a paradigm shift from the traditional linear economy to the necessary circular economy. This volume captures the importance of circularity and its critical role in achieving global sustainability. A sustainable circular economy (SCE) is a model of production and consumption, which involves prolonging the lifecycle of existing materials and products as long as possible. SCE addresses global challenges by implementing three base principles: eliminating waste and pollution, circulating products and materials, and regenerating natural resources. Circular development builds a sustainable society through the conservation and use of environmental resources.Circular economy addresses global challenges such as climate change, biodiversity loss, waste, and pollution.Illustrates how a circular economy can be a way to mitigate society’s challenges, both in an environmental, but also economic and societal perspective.Describes how circular development becomes a model of economic, social, and environmental production and consumption that can help achieve the United Nations Sustainable Development Goals (SDG)Demonstrates that green sustainable chemistries can and should be leading contributors in discussion on environmental science and chemistry.Highlights new models, processes, applications and developments in circular economics and green chemistry, which demonstrates how sustainability is adapting in the new age.

Catalysis for Sustainability: Goals, Challenges, and Impacts explores the intersection between catalytic science and sustainable technologies as a means to addressing current economic, social, and environmental problems. These problems include harnessing alternative energy sources, pollution prevention and remediation, and the manufacturing of commodity products.The book describes the nature of catalysis regarding sustainability and presents challenges to accomplishing sustainability as well as the significance of proven or potential success. The contributors have backgrounds in academia and industry to create a more integrated picture of the issues involving sustainability and catalysis.Broad in scope, the book covers topics such as traditional metal-mediated catalysis, organocatalysis, biocatalysis, biomimicry, and heterogeneous catalysis. It includes chapters dedicated to specific research areas of catalysis as they pertain to their effectiveness, their economic and environmental benefits, and the challenges researchers face in actualizing solutions. It also contains a chapter on the application of life cycle analysis to catalytic processes, demonstrating the need to holistically consider the sustainable impacts of a process. The book can be read in a straightforward fashion or skimmed without forfeiting understanding of the narrative on the strategies and intentions of research and development.Throughout the book the requirements of sustainability are measured by the triple bottom line of environmental, economic, and social impacts. It highlights real-world implementations of catalytic processes in drug development, manufacturing, polymers, and energy. Catalysis for Sustainability: Goals, Challenges, and Impacts is a strong and versatile text. It provides an introduction to the field and the issues with which it is concerned, as well as a detailed and far-reaching discussion on current achievements and future progress.

The last decade has seen a huge interest in green organic chemistry, particularly as chemical educators look to "green" their undergraduate curricula. Detailing published laboratory experiments and proven case studies, this book discusses concrete examples of green organic chemistry teaching approaches from both lecture/seminar and practical perspe

Shorter reaction times, higher product yields, and enhanced selectivity are some of the advantages microwave heating has over conventional methods, causing its use to transition from a curiosity to mainstream, both in industrial and academic settings. Microwave Heating as a Tool for Sustainable Chemistry showcases the application of microwave heati

When the Nobel Prize Committee recognized the importance of green chemistry with its 2005 Nobel Prize for Chemistry, this relatively new science came into its own. Although no concerted agreement has been reached yet about the exact content and limits of this interdisciplinary discipline, there seems to be increasing interest in environmental topic

Nanotechnology has been recognized for its transformative potential across various industries for decades, sparking widespread interest among researchers and innovators seeking to explores its capabilities for sustainable solutions. It remains one of the most dynamic and extensively studied fields in modern science. Nanotechnology involves the manipulation of matter at the nanoscale, where unique properties of materials emerge due to their size and structure. These nanomaterials play a pivotal role in advancing applications in energy, healthcare, environmental remediation and sustainable economic development. In recent years, green nanotechnology, particularly the eco-friendly synthesis of nanomaterials, has gained significant attention for its ability to minimize environmental impact while maximizing efficiency. Nanomaterials exhibit remarkable properties such as enhanced strength, conductivity and reactivity that make them indispensable in addressing global challenges like climate change, water scarcity and healthcare innovation, positioning nanotechnology as a cornerstone of sustainable progress.The book delves into the structural and functional properties of nanomaterials, which are critical for their applications in clean energy production, environmental remediation, water treatment and healthcare. It highlights their environmental significance, including their use in mitigating climate change, enhancing construction materials, and developing fire-retardant solutions. The fundamentals of nanotechnology are thoroughly explored, alongside cutting-edge developments in synthesis, characterization methods, and applications, covering chemical, optical, thermal, and structural properties. Additionally, the book addresses the environmental fate, health hazards, and regulatory frameworks of nanomaterials, offering a balanced perspective on their deployment. With contributions from leading experts, this book serves as an authoritative resource for researchers, policymakers, and industry professionals to drive sustainable economic growth while addressing pressing global challenges.Key Features:Comprehensive Coverage: The book spans a wide range of nanotechnology applications, from energy production and storage to healthcare, environmental remediation and sustainable economic development.Multidisciplinary Approach: Contributions from various experts provide insights into nanotechnology's role in diverse fields, including construction, fire retardancy and climate change mitigation.Focus on Sustainability: Emphasis on eco-friendly and green nanotechnology solutions, such as green synthesis of nanomaterials and sustainable development goals (SDGs).Environmental and Health Perspectives: Detailed exploration of nanomaterials' environmental fate, transport, and health hazards alongside their role in environmental remediation and water treatment.Policy and Regulation Insights: Discussion on policy and regulatory frameworks to support a green economy through nanotechnology.Future-Oriented Outlook: Analysis of current trends and future prospects, particularly in healthcare, clean energy and sustainable economic development.Expert Contributions: Chapters authored by specialists in their respective fields, ensuring authoritative and in-depth content.Lifecycle Thinking: Inclusion of lifecycle perspectives to assess the long-term impacts and sustainability of nanotechnology applications.

Nanotechnology has been recognized for its transformative potential across various industries for decades, sparking widespread interest among researchers and innovators seeking to explores its capabilities for sustainable solutions. It remains one of the most dynamic and extensively studied fields in modern science. Nanotechnology involves the manipulation of matter at the nanoscale, where unique properties of materials emerge due to their size and structure. These nanomaterials play a pivotal role in advancing applications in energy, healthcare, environmental remediation and sustainable economic development. In recent years, green nanotechnology, particularly the eco-friendly synthesis of nanomaterials, has gained significant attention for its ability to minimize environmental impact while maximizing efficiency. Nanomaterials exhibit remarkable properties such as enhanced strength, conductivity and reactivity that make them indispensable in addressing global challenges like climate change, water scarcity and healthcare innovation, positioning nanotechnology as a cornerstone of sustainable progress.The book delves into the structural and functional properties of nanomaterials, which are critical for their applications in clean energy production, environmental remediation, water treatment and healthcare. It highlights their environmental significance, including their use in mitigating climate change, enhancing construction materials, and developing fire-retardant solutions. The fundamentals of nanotechnology are thoroughly explored, alongside cutting-edge developments in synthesis, characterization methods, and applications, covering chemical, optical, thermal, and structural properties. Additionally, the book addresses the environmental fate, health hazards, and regulatory frameworks of nanomaterials, offering a balanced perspective on their deployment. With contributions from leading experts, this book serves as an authoritative resource for researchers, policymakers, and industry professionals to drive sustainable economic growth while addressing pressing global challenges.Key Features:Comprehensive Coverage: The book spans a wide range of nanotechnology applications, from energy production and storage to healthcare, environmental remediation and sustainable economic development.Multidisciplinary Approach: Contributions from various experts provide insights into nanotechnology's role in diverse fields, including construction, fire retardancy and climate change mitigation.Focus on Sustainability: Emphasis on eco-friendly and green nanotechnology solutions, such as green synthesis of nanomaterials and sustainable development goals (SDGs).Environmental and Health Perspectives: Detailed exploration of nanomaterials' environmental fate, transport, and health hazards alongside their role in environmental remediation and water treatment.Policy and Regulation Insights: Discussion on policy and regulatory frameworks to support a green economy through nanotechnology.Future-Oriented Outlook: Analysis of current trends and future prospects, particularly in healthcare, clean energy and sustainable economic development.Expert Contributions: Chapters authored by specialists in their respective fields, ensuring authoritative and in-depth content.Lifecycle Thinking: Inclusion of lifecycle perspectives to assess the long-term impacts and sustainability of nanotechnology applications.

Shorter reaction times, higher product yields, and enhanced selectivity are some of the advantages microwave heating has over conventional methods, causing its use to transition from a curiosity to mainstream, both in industrial and academic settings. Microwave Heating as a Tool for Sustainable Chemistry showcases the application of microwave heating in a number of areas of preparative chemistry as well as in the biosciences. From organic chemistry to materials and biological applicationsThe book begins with an introduction to microwave heating, the physical concepts behind it, its application in synthetic chemistry, and commercially available microwave equipment. It shows how microwave heating can be used to facilitate the clean and sustainable synthesis of organic compounds. The authors examine microwave heating as a tool for sustainable polymer chemistry, with discussions of the use of alternative solvents and feedstocks, the design of degradable polymeric materials, and recycling polymers. They then discuss the significant contribution made by microwave-promoted synthesis in the drug discovery process, with a focus on how the technology has been used to generate discovery chemistry libraries and as a tool for medicinal chemists. Other topics examined in this application-driven text include the use of microwave heating in the preparation of inorganic and organometallic compounds, in the production of inorganic materials, and in the area of biosciences.Academic and industrial settingsThe book examines the scale-up of microwave-promoted chemistry and describes the various approaches and the current commercially available microwave reactors available for scale-up. It also discusses microwave heating as a tool for teaching in the undergraduate organic chemistry laboratory. It explores curriculum, the broad range of reactions that can be performed, and the incorporation of green chemistry principles. The author maintains a website with supplemental information.

The last decade has seen a huge interest in green organic chemistry, particularly as chemical educators look to "green" their undergraduate curricula. Detailing published laboratory experiments and proven case studies, this book discusses concrete examples of green organic chemistry teaching approaches from both lecture/seminar and practical perspectives. The experienced contributors address such topics as the elimination of solvents in the organic laboratory, organic reactions under aqueous conditions, organic reactions in non-aqueous media, greener organic reagents, waste management/recycling strategies, and microwave technology as a greener heating tool. This reference allows instructors to directly incorporate material presented in the text into their courses.Encouraging a stimulating organic chemistry experience, the text emphasizes the need for undergraduate education to: Focus on teaching sustainability principles throughout the curriculumBe flexible in the teaching of green chemistry, from modification of an existing laboratory experiment to development of a brand-new courseReflect modern green research areas such as microwave reactivity, alternative reaction solvents, solvent-free chemistry, environmentally friendly reagents, and waste disposalTrain students in the "green chemistry decision-making" processIntegrating recent research advances in green chemistry research and the Twelve Principles of Organic Chemistry into the lecture and laboratory environments, Green Organic Chemistry in Lecture and Laboratory highlights smaller, more cost-effective experiments with minimized waste disposal and reduced reaction times. This approach develops a fascinating and relevant undergraduate organic laboratory experience while focusing on real-world applications and problem-solving.

Shorter reaction times, higher product yields, and enhanced selectivity are some of the advantages microwave heating has over conventional methods, causing its use to transition from a curiosity to mainstream, both in industrial and academic settings. Microwave Heating as a Tool for Sustainable Chemistry showcases the application of microwave heating in a number of areas of preparative chemistry as well as in the biosciences. From organic chemistry to materials and biological applicationsThe book begins with an introduction to microwave heating, the physical concepts behind it, its application in synthetic chemistry, and commercially available microwave equipment. It shows how microwave heating can be used to facilitate the clean and sustainable synthesis of organic compounds. The authors examine microwave heating as a tool for sustainable polymer chemistry, with discussions of the use of alternative solvents and feedstocks, the design of degradable polymeric materials, and recycling polymers. They then discuss the significant contribution made by microwave-promoted synthesis in the drug discovery process, with a focus on how the technology has been used to generate discovery chemistry libraries and as a tool for medicinal chemists. Other topics examined in this application-driven text include the use of microwave heating in the preparation of inorganic and organometallic compounds, in the production of inorganic materials, and in the area of biosciences.Academic and industrial settingsThe book examines the scale-up of microwave-promoted chemistry and describes the various approaches and the current commercially available microwave reactors available for scale-up. It also discusses microwave heating as a tool for teaching in the undergraduate organic chemistry laboratory. It explores curriculum, the broad range of reactions that can be performed, and the incorporation of green chemistry principles. The author maintains a website with supplemental information.

Shorter reaction times, higher product yields, and enhanced selectivity are some of the advantages microwave heating has over conventional methods, causing its use to transition from a curiosity to mainstream, both in industrial and academic settings. Microwave Heating as a Tool for Sustainable Chemistry showcases the application of microwave heati

When the Nobel Prize Committee recognized the importance of green chemistry with its 2005 Nobel Prize for Chemistry, this relatively new science came into its own. Although no concerted agreement has been reached yet about the exact content and limits of this interdisciplinary discipline, there seems to be increasing interest in environmental topics that are based on the chemistry embodied in this subject. Linking green chemistry practice to environmental sustainability, Green Chemistry for Environmental Sustainability illustrates the efforts being made to remediate a scathed environment into a pristine one.Links Green Chemistry Practice to Environmental SustainabilityEminent international experts present research on and the application of green chemistry and engineering in addressing current issues of an environmental and social nature. They cover sustainable development and environmental sustainability with chapters on green chemistry and engineering research, the design and synthesis of environmentally benign chemical processes, green approaches to minimize and/or remediate environmental pollution, the development of biomaterials, biofuel, and bioenergy production, biocatalysis, and policies and ethics in green chemistry. The book also explores economics, environmentally benign technologies for greener processes, computational methods and modeling, and green approaches to minimize air and water. Green chemistry has brought a relatively prompt and positive paradigm shift in the overall use and management of natural resources and raw materials for the development of society with a subtle promise to cause far less pronounced harm to the environment. This text provides insight into the chemical and biochemical technologies that are being studied, optimized, and eventually developed to promote environmental sustainability. It provides up-to-date information on selected fields where the principles of green chemistry are being embraced for safeguarding and improving the quality of the environment.

When the Nobel Prize Committee recognized the importance of green chemistry with its 2005 Nobel Prize for Chemistry, this relatively new science came into its own. Although no concerted agreement has been reached yet about the exact content and limits of this interdisciplinary discipline, there seems to be increasing interest in environmental topic

Industries worldwide have been impacted by environmental regulations, economics, and ultimately consumers, which has led to more thought about the development of sustainable products. The textile industry is no exception. The preparation, dyeing, and finishing of textile fibres requires large amounts of water and other chemicals which may be toxic or hazardous. Green chemistry along with other green technologies may now play a leading role in this process. This book emphasises the importance of plasma treatment as a green and sustainable technology. A Novel Green Treatment for Textiles: Plasma Treatment as a Sustainable Technology discusses the plasma treatment of textile fibres and its environmental, economic, and social benefits. The book reviews the general properties of textiles and provides a description of the current treatment methods typically used today. The author then introduces the concept of plasma and its application in treating textile materials. The application of plasma as a pretreatment as well as a treatment in dyeing textiles is discussed. The book summarizes the application of plasma treatment in the printing and finishing of textiles. Also explored is the concept of sustainability and its role in the development of plasma treatments in textile wet processing. The 12 Principles of Green Chemistry are incorporated throughout the book.

The last decade has seen a huge interest in green organic chemistry, particularly as chemical educators look to "green" their undergraduate curricula. Detailing published laboratory experiments and proven case studies, this book discusses concrete examples of green organic chemistry teaching approaches from both lecture/seminar and practical perspectives. The experienced contributors address such topics as the elimination of solvents in the organic laboratory, organic reactions under aqueous conditions, organic reactions in non-aqueous media, greener organic reagents, waste management/recycling strategies, and microwave technology as a greener heating tool. This reference allows instructors to directly incorporate material presented in the text into their courses.Encouraging a stimulating organic chemistry experience, the text emphasizes the need for undergraduate education to: Focus on teaching sustainability principles throughout the curriculumBe flexible in the teaching of green chemistry, from modification of an existing laboratory experiment to development of a brand-new courseReflect modern green research areas such as microwave reactivity, alternative reaction solvents, solvent-free chemistry, environmentally friendly reagents, and waste disposalTrain students in the "green chemistry decision-making" processIntegrating recent research advances in green chemistry research and the Twelve Principles of Organic Chemistry into the lecture and laboratory environments, Green Organic Chemistry in Lecture and Laboratory highlights smaller, more cost-effective experiments with minimized waste disposal and reduced reaction times. This approach develops a fascinating and relevant undergraduate organic laboratory experience while focusing on real-world applications and problem-solving.