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This book is intended as a reference guide for graduate students, postgraduate students and researchers with a basic knowledge of protein chemistry who would like to know more about the biomedical applications of natural proteins to promote healthier lives. The book is divided into ten chapters, each of which explains different natural proteins and their established biomedical applications. The first chapter extensively deals with protein based natural fibers and provides an overview of all protein based fibers currently available. In turn, chapter two mainly focuses on the biomedical applications of a special class of proteins called Heat Shock Proteins; the biomedical applications of silkworm pupae proteins are dealt in chapter three. Chapter four examines an interesting use of Eri silk fibroin as a biomaterial for Tissue Engineering, while chapter five discusses the key experimental details involved in converting Tasar silk sericin into self-assembled nanoparticles. Chapter six offers brief descriptions of bioactive proteins with respect to their sources, synthesis and applications. Chapter seven is dedicated to Interleukine-8 and its role in human life, while chapter eight addresses the importance of natural proteins in infectious diseases. Chapter nine explores the issue of excess intake of dietary proteins and its adverse effects, and finally, chapter ten discusses the efficiency of drug delivery systems made up of gelatin nanocomposites. The book is above all intended as a valuable resource for students and researchers alike, sparking their curiosity with regard to the applications of natural proteins and motivating them to focus their own energies on the discovery or identification of additional natural proteins for diverse biomedical uses.
Protein-Based Biopolymers: From Source to Biomedical Applications provides an overview on the development and application of protein biopolymers in biomedicine. Protein polymers have garnered increasing focus in the development of biomedical materials, devices and therapeutics due to their intrinsic bioactivity, biocompatibility and biodegradability. This book comprehensively reviews the latest advances on the synthesis, characterization, properties and applications of protein-based biopolymers. Each chapter is dedicated to a single protein class, covering a broad range of proteins including silk, collagen, keratin, fibrin, and more. In addition, the book explores the biomedical potential of these polymers, from tissue engineering, to drug delivery and wound healing. This book offers a valuable resource for academics and researchers in the fields of materials science, biomedical engineering and R&D groups working in pharmaceutical and biomedical industries. Covers a range of protein-based biopolymers, including elastin, collagen, keratin, soy and more Guides the reader through the fabrication, characterization and properties of protein biopolymers Explores the biomedical potential of protein biopolymers, covering applications such as cancer therapy, tissue engineering and drug delivery
Folded peptides - and peptide motifs within proteins - are abundant in living organisms, where they are essential for the biological activities of the peptides and proteins. During the past decades, much research has been dedicated to understanding the rules that govern peptide folding. Simultaneously, a range of strategies have been established for the conformational stabilization of bioactive peptides, as well as for the de novo design of peptides with defined secondary structures. These methods are either based on the chemical modification of the peptide backbone, such as cyclization and stapled peptides, or on the use of a range of non-proteinogenic amino acids that, in a defined sequential arrangement, induce secondary structures peptides. Such building blocks include D- and other non-proteinogenic amino acids, as well as beta- and gamma-amino acids. This Research Topic comprises a collection of papers by an international group of 77 scientists with a background in synthetic, analytical, computational and medicinal chemistry, as well as in biochemistry and pharmacology. Their research is presented here in a total of 11 papers (8 original research reports and 3 reviews), covering diverse aspects of folded synthetic peptides. These studies include the preparation and characterization of new peptide monomers with interesting folding properties, the synthesis and conformational analysis of non-natural peptides, as well as the use of folded peptidomimetics as molecular switches. Additionally, a range of biomedical applications, such as antimicrobial, anti-inflammatory, antiangiogenic and immune-stimulating activities, are also reported. We hope this eBook will be a source of inspiration and knowledge for scientist in various disciplines related to folded peptides and their many applications, as well as for those who want to learn more about this fascinating field of research.
Polymers from natural sources are particularly useful as biomaterials and in regenerative medicine, given their similarity to the extracellular matrix and other polymers in the human body. This important book reviews the wealth of research on both tried and promising new natural-based biomedical polymers, together with their applications as implantable biomaterials, controlled-release carriers or scaffolds for tissue engineering.The first part of the book reviews the sources, processing and properties of natural-based polymers for biomedical applications. Part two describes how the surfaces of polymer-based biomaterials can be modified to improve their functionality. The third part of the book discusses the use of natural-based polymers for biodegradable scaffolds and hydrogels in tissue engineering. Building on this foundation, Part four looks at the particular use of natural-gelling polymers for encapsulation, tissue engineering and regenerative medicine. The penultimate group of chapters reviews the use of natural-based polymers as delivery systems for drugs, hormones, enzymes and growth factors. The final part of the book summarises research on the key issue of biocompatibility.Natural-based polymers for biomedical applications is a standard reference for biomedical engineers, those studying and researching in this important area, and the medical community. Examines the sources, processing and properties of natural based polymers for biomedical applications Explains how the surfaces of polymer based biomaterials can be modified to improve their functionality Discusses the use of natural based polymers for hydrogels in tissue engineering, and in particular natural gelling polymers for encapsulation and regenerative medicine
Natural Polysaccharides in Drug Delivery and Biomedical Applications provides a fundamental overview of natural polysaccharides, their sources, extraction methodologies, and characterizations. It covers specific natural polysaccharides and their effective application in drug delivery and biomedical use. Additionally, chapters in the book discuss key topics including the sources and extraction methodologies of natural polysaccharides, their role in tissue engineering applications, polysaccharide-based nanoparticles in biomedical applications, and their role in the delivery of anticancer drugs. Written by industry leaders and edited by experts, this book emphasizes recent advances made in the field. Natural Polysaccharides in Drug Delivery and Biomedical Applications provides academics, researchers, and pharmaceutical health care professionals with a comprehensive book on polysaccharides in pharmaceutical delivery process. Provides fundamental concepts of natural polysaccharides as it applies to the pharmaceutical, biomedical, and biotechnology industries Includes contributions from global leaders and experts from academia, industry, and regulatory agencies in the application of natural polysaccharides in pharmaceutical products and biomedical utilization Offers practical examples, illustrations, chemical structures, and research case studies to help explain natural polysaccharides concepts in drug delivery and biomedical applications
Biomolecules from Natural Sources An up-to-date exploration of new and novel biomolecules In Biomolecules from Natural Sources: Advances and Applications, a team of accomplished researchers delivers up-to-date information on various bioresources, bioprocessing, production, mechanisms of action for selective bioactivity, biochemistry, targeted therapeutic roles and the advancements made on their bioactive potentials of new and novel biomolecules. The book presents recent trends in new and novel biomolecules and their identification, characterization, and potential applications. The selected contributions canvas a variety of breakthroughs in the understanding and applications of naturally derived biomolecules. Biomolecules from Natural Sources: Advances and Applications is an exhaustive collection of research and information, as well as an insightful and interdisciplinary treatment of a rapidly developing field. Readers will also find: A thorough introduction to phenolics from natural sources and plant-based natural artemisinin and its biomedical applications Comprehensive explorations of protein structure, function, and specificity and the pharmacological potential of pigments Practical discussions of biomolecules obtained through food biotechnology and the biological activities of natural glycosides In-depth examinations of biomolecules from basil and their pharmacological significance Perfect for biotechnologists, food technologists, and plant biologists, Biomolecules from Natural Sources: Advances and Applications will also earn a place in the libraries of bioprocessing engineers, as well as undergraduate and postgraduate students of biochemistry.
Provides insight into biopolymers, their physicochemical properties, and their biomedical and biotechnological applications This comprehensive book is a one-stop reference for the production, modifications, and assessment of biopolymers. It highlights the technical and methodological advancements in introducing biopolymers, their study, and promoted applications. "Biopolymers for Biomedical and Biotechnological Applications" begins with a general overview of biopolymers, properties, and biocompatibility. It then provides in-depth information in three dedicated sections: Biopolymers through Bioengineering and Biotechnology Venues; Polymeric Biomaterials with Wide Applications; and Biopolymers for Specific Applications. Chapters cover: advances in biocompatibility; advanced microbial polysaccharides; microbial cell factories for biomanufacturing of polysaccharides; exploitation of exopolysaccharides from lactic acid bacteria; and the new biopolymer for biomedical application called nanocellulose. Advances in mucin biopolymer research are presented, along with those in the synthesis of fibrous proteins and their applications. The book looks at microbial polyhydroxyalkanoates (PHAs), as well as natural and synthetic biopolymers in drug delivery and tissue engineering. It finishes with a chapter on the current state and applications of, and future trends in, biopolymers in regenerative medicine. * Offers a complete and thorough treatment of biopolymers from synthesis strategies and physiochemical properties to applications in industrial and medical biotechnology * Discusses the most attracted biopolymers with wide and specific applications * Takes a systematic approach to the field which allows readers to grasp and implement strategies for biomedical and biotechnological applications "Biopolymers for Biomedical and Biotechnological Applications" appeals to biotechnologists, bioengineers, and polymer chemists, as well as to those working in the biotechnological industry and institutes.
Recombinant proteins have been used widely in both basic research and biomedical applications including protein therapeutics and biomaterials. Many efforts have been devoted to the investigation of novel synthetic strategies for producing recombinant proteins for various applications, which is the focus of this dissertation. In the first section, a biosynthetic strategy was developed to produce collagenous proteins with post-translational modifications in E. coli. Collagen is the most abundant protein in human, and plays a dominant role in maintaining the biological and structural integrity. Recombinant expression of collagens and fragments of collagens is often difficult as their stability requires appropriate proline hydroxylation. Prolyl 4-hydroxylases (P4H) are ascorbate-dependent oxygenases that play key roles in collagen folding by catalyzing the post-translational hydroxylation of specific proline residues on target proteins to form (2S, 4R)-4-hydroxyproline. Thus far, the study of these post-translational modifications has been limited by the lack of a prokaryotic recombinant expression system for producing hydroxylated proteins. Unlike eukaryotic cells such as yeast and insect cells, bacterial cytoplasm cannot activate P4H, which requires an ascorbate co-factor that bacteria do not produce. By introducing a biosynthetic shunt to produce ascorbate-like molecules in E. coli cells that heterologously express human P4H, we have created a strain of E. coli that produces collagenous proteins with (2S, 4R)-4-hydroxyproline. Different levels of proline hydroxylation can be obtained by tuning culture conditions. We have verified that hydroxylation of collagenous materials produced in the new system leads to an increase in thermostability. Using this new system, we have observed hydroxylation patterns indicative of a processive catalytic mode for P4H that is active even in the absence of ascorbate. Our results provide insights into P4H enzymology, and create a foundation for better understanding how post-translational hydroxylation affects proteins. Further, we applied the novel E. coli expression system to produce a collagenous protein, adiponectin, which has many beneficial effects on obesity-related metabolic and cardiovascular disorders, and reverses insulin insensitivity. By introducing key post-translational modification enzymes to E. coli, we have endowed the expression system with capabilities of making necessary modifications on adiponectin for its correct assembly, and thus obtained biomimetic adiponectins. High-molecular weight (HMW) multimers of adiponectin have been obtained, and their biological activities of suppressing endothelial cell apoptosis have been confirmed with in vitro cell assays. In section 2, modular protein polymers have been created through genetic engineering and enzymatically crosslinked into hydrogels with tunable properties. The many challenges currently faced in regenerative medicine research require the development of new, modular biomaterial systems that can serve as scaffolds for cellular maintenance, expansion and growth, and which can be tuned by the user to mimic any necessary aspects of natural ECM to an optimal degree. Toward this goal, we have created a family of block co-polypeptides comprising amino acid sequence elements that allow mild enzymatic crosslinking into gels. These new families of protein polymers were designed to be linear, random coil, and contain either lysine or glutamine, which have the recognition substrates for transglutaminase (TG) crosslinking, evenly spaced along the protein backbone. Crosslinking occurred within two minutes upon the addition of TG under physiological conditions, as determined by particle tracking microrheology. The material properties of the gel can be tuned with the hydrogel composition to mimic cellular microenvironment of different tissues. Furthermore, in order to introduce biofunctionalities into the hydrogels, a versatile expression vector has been engineered that allows the insertion of bioactive protein domains into these block co-polypeptide. For example, a cell adhesion signal based on the RGD sequence from human fibronectin was incorporated. The RGD-containing hydrogel was successful in enhancing cell adhesion, and were also proven to be compatible with the culture of mesenchymal stem cells. The specific nature of these protein polymer precursors of the modular hydrogel composition allows tailoring of mechanical and biochemical properties, rendering these gels valuable for various tissue engineering applications.
Polymers are important and attractive biomaterials for researchers and clinical applications due to the ease of tailoring their chemical, physical and biological properties for target devices. Due to this versatility they are rapidly replacing other classes of biomaterials such as ceramics or metals. As a result, the demand for biomedical polymers has grown exponentially and supports a diverse and highly monetized research community. Currently worth $1.2bn in 2009 (up from $650m in 2000), biomedical polymers are expected to achieve a CAGR of 9.8% until 2015, supporting a current research community of approximately 28,000+. Summarizing the main advances in biopolymer development of the last decades, this work systematically covers both the physical science and biomedical engineering of the multidisciplinary field. Coverage extends across synthesis, characterization, design consideration and biomedical applications. The work supports scientists researching the formulation of novel polymers with desirable physical, chemical, biological, biomechanical and degradation properties for specific targeted biomedical applications. Combines chemistry, biology and engineering for expert and appropriate integration of design and engineering of polymeric biomaterials Physical, chemical, biological, biomechanical and degradation properties alongside currently deployed clinical applications of specific biomaterials aids use as single source reference on field. 15+ case studies provides in-depth analysis of currently used polymeric biomaterials, aiding design considerations for the future