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Enables readers to understand core concepts behind organic polymers and their multifunctional applications, focusing on environmental and sustainable applications Organic Polymers in Energy-Environmental Applications provides comprehensive coverage of polymerization and functionalization of organic polymers, followed by innovative approaches, sustainable technologies, and solutions for energy and environmental applications, including environmental remediation, energy storage, corrosion protection, and more. Edited by five highly qualified academics with significant experience in the field, Organic Polymers in Energy-Environmental Applications includes discussion on: Characteristics and emerging trends of organic polymers, and organic polymers in imaging industries and curable coatingsAntifouling technology based on organic polymers and wearable technology featuring multifunctional sensor arrays in biomedicineOrganic bio-adhesive polymers in filter technology, nano-architectured organic polymers, and market dynamics of organic polymer-based technologiesOrganic and inorganic modifications of polymers, pollutant removal via organic polymers, and biodegradable organic polymersLife cycle assessment of organic polymers, applications of organic polymers in agriculture, and future outlooks of the field With complete coverage of organic polymers, a topic of high interest due to their numerous practical applications ranging from membranes to super capacitors, Organic Polymers in Energy-Environmental Applications is an essential resource for polymer and environmental chemists, materials scientists, and all other related researchers and professionals interested in the subject.

This book introduces biomass which is utilized all over the world based on geographical, cultural, and historical background. It covers 18 major biomass types and several specific plants categorized into 3 groups based on their usage. The present and historical background of representative materials from biomass, such as cellulose, lignin, chitin, sugar, molasses, amylose, and other interesting natural biopolymers, such as hyaluronan, gum Arabic, and others are introduced. Furthermore, characteristic features of representative and influential plants, such as rice, eucalyptus, and oil palm are described together with historical episodes. Although physicochemical characteristic properties of each material and plant have been published over many decades, scarcely a comprehensive introduction on biomass together with Asian, European, and Latin American cultural backgrounds. In this book, biomass familiar to everybody's life is introduced based on scientific and cultural viewpoints. It guides readers to gain background knowledge of targeting biomass to be developed as industrial resources. In addition to students, scientists, and lecturers, the book will be useful for industrial engineers, both specialists in polymer science and technology and materials experts.

This book covers lignin, a renewable source of carbonaceous material derived from biomass, which is a subject of research, development and innovation in both academia and industry. From lignin we can obtain chemicals (e.g., aromatics, phenols), materials (e.g., fibres, engineered plastics, modified polymers), specialties (e.g., additives as antioxidant), among other products in diverse levels of technology readiness. However, there are challenges to overcome in terms of chemical structure, industrial yields of conversion processes, and the quality of raw material in order to reach the best uses and applications according to the sustainability vision for products and processes. This book deals with the main biochemical pathways of synthesis; advanced analytical techniques; extraction strategies; chemical, biochemical, biological, and physical processing for chemicals and materials; circularity and sustainability aspects for actual and future production chains, allied to life cycle assessment and industrial ecology.

APPLICATIONS OF BIOPOLYMERS IN SCIENCE, BIOTECHNOLOGY, AND ENGINEERING Single volume resource covering the many different applications of biopolymers, along with foundational knowledge like biodegradability and recent advancements Along with providing in-depth discussions on the fundamentals of biopolymers, such as synthesis, fabrication technologies, and properties, Applications of Biopolymers in Science, Biotechnology, and Engineering covers the applications of biopolymers in various fields such as biotechnology, construction and civil engineering, tissue engineering, dairy technology, packaging, electronics, food, medicine, tissue engineering, and biotechnology. Overall, the text conveys a broad overview of the field, enabling readers to grasp both the fundamentals and applications of the subject. Edited by three highly qualified academics with significant experience in the field, Applications of Biopolymers in Science, Biotechnology, and Engineering covers sample topics such as: Biopolymer blends, IPNs, gels, composites, and nanocomposites, and the properties, fabrication and applications of synthetic biopolymers Role of biopolymers and their composites in sustainable agriculture, covering recent developments and future perspectives Polymers suitable for the fabrication of prosthetics, and polymers'uses in different stages of drug delivery and drug design Life cycle analysis, biodegradability, and advances in the overall field of biopolymers, along with polymers and biopolymers in sensing applications Covering both foundational knowledge and a myriad of applications, Applications of Biopolymers in Science, Biotechnology, and Engineering is an essential resource on the subject for practitioners, researchers, and scientists in polymer science and engineering, materials science, surface science, bioengineering, chemical engineering, and any industry/field interested in biopolymers and/or nanocomposites.

Bio-Based Flame Retardants for Polymeric Materials provides a comprehensive overview of flame retardants derived directly and indirectly from plant sources, drawing on cutting-edge research and covering preparation methods, testing and evaluation techniques, enhanced properties, and end applications. Chapters introduce bio-based materials in the context of additives for flame retardancy, explaining fundamentals and testing methods and analyzing synthetic approaches and the potential advantages of pursuing a bio-based approach. This is followed by detailed coverage of bio-based retardants, with each chapter covering a specific source and guiding the reader systematically through preparation techniques, evaluation methods, properties and applications. Throughout the book, the latest progress in the field is critically reviewed, and there is a continual emphasis on novel approaches to achieve enhanced properties and performant materials. This is an essential guide for all those with an interest in innovative, sustainable flame retardant additives for polymeric materials, including researchers, scientists, advanced students, and more. - Explains innovative techniques for the preparation of bio-based flame retardant mechanisms, analyzing properties, performance and applications - Offers in-depth coverage of a range of sources, including cellulose, lignin, cardanol, chitosan, eugenol, vanillin, furan, alginate and vegetable oils - Presents the latest advances in the field, serving as a novel resource to advanced students, researchers and R&D professionals in academia and industry

The book presents current R&D activities to unravel the physico-chemical properties of diverse “biopolymers”, and their processing towards functionalized, high-performance bio-products with defined applications. The importance of this research becomes obvious by considering the annual plastic production of about 330 Mt, the lion´s share thereof based on the conversion of fossil feedstocks that is highly recalcitrant against biodegradation. Alternative environmentally degradable plastics cover not even 5% of today´s plastic market. Such “biopolymers” encompass various macromolecules of biological origin with diverse monomeric composition, and manifold physico-chemical properties. This structural diversity makes them potential candidates to produce bulk materials, e.g., for packaging purposes, smart functionalized materials in special niches like the biomedical field. Consequently, we witness an increasing trend towards new natural polymers to replace well-established products like plastics. After decades of global R&D developments in this field, and numerous body blows on the way to the anticipated market breakthrough of biopolymers, it is generally recognized that the success of such new materials needs progress in both material performance and production prices. The book Current Advances in Biopolymer Processing & Characterization is dedicated to the current state-of-the-art of production, modification, characterization, and processing of two major biopolymer groups: Firstly, polysaccharides, nature´s most abundant raw materials, are represented by specialized contributions on biomedical applications of starch and its follow-up products. Polysaccharides were also studied for the examples of functionalized thermoplastic starch, molecular and hydrocolloidal characteristics of xanthan in aqueous environments, and by the design of functionalized xylan-based bio-materials. Secondly, the second series of contributions encompasses diverse biopolyesters. Advanced methods to improve the properties of PLA, fine-tune PLA properties by triggering PLA´s crystallization rate during melt processing, and the strongly emerging field of 3D-printing of PLA, PCL, and microbial PHA are described. Finally, the authors familiarize the reader with the application of mixed microbial cultures to produce PHA heteropolyesters with different thermo-mechanical properties in dependence on cultivation strategy and the microbial species'composition. This compilation of new biomaterials with surprising functions and performance, based on these natural polymers will address scientists active in biopolymers production, functionalization, characterization, and processing towards “bio-technomers”. The book is also dedicated to undergraduate students of polymer chemistry and polymer processing, and to representatives of the polymer industry who are interested in developing innovative, sustainable and smart polymeric products. Activities motivated by reading this book shall boost the impatiently desired market penetration of biopolymers and their follow-up products. Such materials definitely display a socioeconomic impact by addressing prevailing ecological concerns such as depleting fossil resources, growing piles of plastic waste, and increasing global warming. The contributions to this book illustrate that “bio-inspired” remedies for prevalent ecological problems are already available, developed by experts in polymer sciences and engineering, or that these solutions are at least in the status of development.

This book introduces the most recent innovations in natural polymer applications in the food, construction, electronics, biomedical, pharmaceutical, and engineering industries. The authors provide perspectives from their respective range of industries covering classification, extraction, modification, and application of natural polymers from various sources in nature. They discuss the techniques used in analysis of natural polymers in various systems incorporating natural polymers as well as their intrinsic properties.

Starch is one of the most widely available natural biomaterials and is commonly used in biodegradable packaging. This book provides a comprehensive overview of recent developments in starch-based materials. The book focuses on the types of starch available from different sources, in particular the various aspects of preparation, structure, processing, morphology, properties and applications of starch materials and their polymer blends, composites and nanocomposites. It is ideal for students and researchers in chemistry, polymer science, materials science, biotechnology and life sciences working in bio-based and biodegradable polymers and composites, well as those interested in its applications.

Global awareness of environmental issues has resulted in the emergence of economically and environmentally friendly bio-based materials free from the traditional side effects of synthetics. This book delivers an overview of the advancements made in the development of biorenewable resources-based materials, including processing methods and potential applications in bio-based green composites. Covering various kinds of cellulosic biofibers, the text provides information on more eco-friendly and sustainable alternatives to synthetic polymers and discusses the present state and growing utility of green materials from natural resources.

The vast array of libraries in the world bear mute witness to the truth of the 3000-year-old observation of King Solomon who stated'... of making many books there is no end, and much study is a weariness of the flesh.'Yet books are an essential written record of our lives and the progress of science and humanity. Here is another book to add to this huge collection, but, hopefully, not just another collection of pages, but rather a book with a specific purpose to aid in alleviating the'weariness of the flesh'that could arise from much studying of other journals and books in order to obtain the basic information contained herein. This book is about polymeric materials and biological activity, as the title notes. Polymeric materials, in the broad view taken here, would include not only synthetic polymers (e.g., polyethylene, polyvinyl chloride, polyesters, polyamides, etc.), but also the natural macromolecules (e.g., proteins, nucleic acids, polysaccharides) which compose natural tissues in humans, animals and plants. In the broad sense used here, biological activity is any type of such action whether it be in medication, pest control, plant-growth regu­ lation, and so on. In short, this book attempts to consider, briefly, the use of any type of polymeric material system with essentially any kind of biological activity.

In the search for sustainable materials, natural polymers present an attractive alternative for many applications compared to their synthetic counterparts derived from petrochemicals. The two volume set, Natural Polymers, covers the synthesis, characterisation and applications of key natural polymeric systems including their morphology, structure, dynamics and properties. Volume one focuses on natural polymer composites, including both natural and protein fibres, and volume two on natural polymer nanocomposites. The first volume examines the characterization, life cycle assessment and new sources of natural fibres and their potential as a replacement for synthetic fibres in industrial applications. It then explores the important advancements in the field of wool, silk, spidersilk and mussel byssus fibres. The second volume looks at the properties and characterization of cellulose, chitosan, furanic, starch, wool and silk nanocomposites and the potential industrial applications of natural polymer nanocomposites. With contributions from leading researchers in natural polymers from around the globe, Natural Polymers provides a valuable reference for material scientists, polymer chemists and polymer engineers.

In the search for sustainable materials, natural polymers present an attractive alternative for many applications compared to their synthetic counterparts derived from petrochemicals. The two volume set, Natural Polymers, covers the synthesis, characterisation and applications of key natural polymeric systems including their morphology, structure, dynamics and properties. Volume one focuses on natural polymer composites, including both natural and protein fibres, and volume two on natural polymer nanocomposites. The first volume examines the characterization, life cycle assessment and new sources of natural fibres and their potential as a replacement for synthetic fibres in industrial applications. It then explores the important advancements in the field of wool, silk, spidersilk and mussel byssus fibres. The second volume looks at the properties and characterization of cellulose, chitosan, furanic, starch, wool and silk nanocomposites and the potential industrial applications of natural polymer nanocomposites. With contributions from leading researchers in natural polymers from around the globe, Natural Polymers provides a valuable reference for material scientists, polymer chemists and polymer engineers.

This book is unique in its focus on market-relevant bio/renewable materials. It is based on comprehensive research projects, during which these materials were systematically analyzed and characterized. For the first time the interested reader will find comparable data not only for biogenic polymers and biological macromolecules such as proteins, but also for engineering materials. The reader will also find valuable information regarding micro-structure, manufacturing, and processing-, application-, and recycling properties of biopolymers.

Dieses Werk konzentriert sich erstmalig auf tatsächlich am Markt verfügbare Werkstoffe und kann dabei auf ganz neue Erkenntnisse aus entsprechenden Forschungsprojekten zurückgreifen, in denen mit hohem Aufwand marktverfügbare Werkstoffe recherchiert, charakterisiert und systematisch untersucht wurden. Zudem beschreibt es insbesondere technische Werkstoffe und nicht die biogenen Rohstoffe oder in der Natur vorkommenden biologischen Makromoleküle wie beispielsweise Proteine.Der Leser findet hier ebenfalls wertvolle Hilfe bei der Suche nach Informationen bezüglich mikrostrukturellem Aufbau, Herstellung und technischer Verarbeitungs-, Gebrauchs- sowie Entsorgungseigenschaften von Biopolymeren.Inhalt:·Begrifflichkeiten im Zusammenhang mit Biopolymeren·Werkstoffklassen·Herstellrouten·Struktureller Aufbau·Umfassende technische Kennwerte·Vergleich der Eigenschaftsprofile der technischen Biopolymer mit denen der konventionellen Kunststoffe·Entsorgungsoptionen·Daten zur Nachhaltigkeit und zur Ökobilanz·Wichtige gesetzliche Rahmenbedingungen·Prüfnormen ·Marktakteure·Handelsnamen·Hersteller·Preise·Aktuelle Verfügbarkeiten und Zukunftsperspektiven·Aktuelle Anwendungsbeispiele·Zukünftige Materialentwicklungen

Used primarily for characterizing polymers and biological systems, vibrational spectroscopy continues to uncover structural information pertinent to a growing number of applications. Vibrational Spectroscopy of Biological and Polymeric Materials compiles the latest developments in advanced infrared and Raman spectroscopic techniques that are