Transgenic plants present enormous potential to become one of the most cost-effective and safe systems for large-scale production of proteins for industrial, pharmaceutical, veterinary, and agricultural uses. Over the past decade, much progress has been made with respect to the development of vaccines, antibodies, and other therapeutic proteins. Bi

Describing recent developments in the engineering and generation of plants as production platforms for biopharmaceuticals, this book includes both vaccines and monoclonal antibodies. It has a particular emphasis on targeting diseases which predominate in less developed countries, encompassing the current state of technologies and describing expression systems and applications. This book also includes a variety of vaccine case studies, protecting against pervasive infectious diseases such as rabies, influenza and HIV.

Comprising 26 chapters, this volume deals with the genetic transformation of medicinal plants. It describes methods to obtain plants resistant to insects, diseases, herbicides, and plants with an increased production of compounds of medicinal and pharmaceutical importance. The plant species included are Ajuga reptans, Anthemis nobilis, Astragalus spp., Atropa belladonna, Catharanthus roseus, Datura spp., Duboisia leichhardtii, Fagopyrum spp., Glycyrrhiza uralensis, Lobelia spp., Papaver somniferum, Panax ginseng, Peganum hamala, Perezia spp., Pimpinella anisum, Phyllanthus niruri, Salvia miltiorrhiza, Scoparia dulcis, Scutellaria baicalesis, Serratula tinctoria, Solanum aculeatissimum, Solanum commersonii, Swainsona galegifolia, tobacco, and Vinca minor. The book is of special interest to advanced students, teachers, and researchers in the fields of pharmacy, plant tissue culture, phytochemistry, molecular biology, biomedical engineering, and plant biotechnology in general.

Modern Applications of Plant Biotechnology in Pharmaceutical Sciences explores advanced techniques in plant biotechnology, their applications to pharmaceutical sciences, and how these methods can lead to more effective, safe, and affordable drugs. The book covers modern approaches in a practical, step-by-step manner, and includes illustrations, examples, and case studies to enhance understanding. Key topics include plant-made pharmaceuticals, classical and non-classical techniques for secondary metabolite production in plant cell culture and their relevance to pharmaceutical science, edible vaccines, novel delivery systems for plant-based products, international industry regulatory guidelines, and more. Readers will find the book to be a comprehensive and valuable resource for the study of modern plant biotechnology approaches and their pharmaceutical applications. Builds upon the basic concepts of cell and plant tissue culture and recombinant DNA technology to better illustrate the modern and potential applications of plant biotechnology to the pharmaceutical sciences Provides detailed yet practical coverage of complex techniques, such as micropropogation, gene transfer, and biosynthesis Examines critical issues of international importance and offers real-life examples and potential solutions

A recently established technique termed pharming uses genetically modified plants and animals for the production of biopharmaceuticals. The present interdisciplinary study comprises an extended overview of the state of the art of pharming, as well as in depth analyses of the environmental risks and other ethical and legal issues of pharming. Public attitudes to pharming are investigated on the basis of an original survey in 15 countries worldwide. The study concludes with specific recommendations addressed towards science, industry and politics.

This second edition of a very successful book is thoroughly updated with existing chapters completely rewritten while the content has more than doubled from 16 to 36 chapters. As with the first edition, the focus is on industrial pharmaceutical research, written by a team of industry experts from around the world, while quality and safety management, drug approval and regulation, patenting issues, and biotechnology fundamentals are also covered. In addition, this new edition now not only includes biotech drug development but also the use of biopharmaceuticals in diagnostics and vaccinations. With a foreword by Robert Langer, Kenneth J Germeshausen Professor of Chemical and Biomedical Engineering at MIT and member of the National Academy of Engineering and the National Academy of Sciences.

Biopharmaceuticals are derived from biological sources, either live organisms or their active components; nowadays, they are mainly produced by biotechnologies. Biopharmaceuticals are extensively used in the treatment of various diseases such as cardiovascular, metabolic, neurological diseases, cancer, and others for which there are no available therapeutic methods. With the advance of science, biopharmaceuticals have revolutionized the treatment, prevention, and diagnosis of many patients with disabling and life-threatening diseases. Innovative biopharmaceuticals definitely improve the life quality of patients and enhance the effectiveness of the healthcare system. This book encompasses the discovery, production, application, and regulation of biopharmaceuticals to demonstrate their research achievement, prospects, and challenges. We expect the significance of biopharmaceuticals to be revealed and emphasized by this book.

Here, authors from academia and industry provide an exciting overview of current production technologies and the fascinating possibilities for future applications. Topics include chloroplast-derived antibodies, biopharmaceuticals and edible vaccines, production of antibodies in plants and plant cell suspension cultures, production of spider silk proteins in plants, and glycosylation of plant produced proteins. The whole is rounded off by chapters on the demands and expectations made on molecular farming by pharmaceutical corporations and the choice of crop species in improving recombinant protein levels. Of interest to biotechnologists, gene technologists, molecular biologists and protein biochemists in university as well as the biotechnological and pharmaceutical industries.

Contains case studies illustrating the cell culture production of pigments, flavors, and antineoplastic compounds Plant Biotechnology and Transgenic Plants covers topics that range from food to fragrances to fuel. It includes discussions of technologies and research on the engineering, synthesis, utilization, and control of primary and secondary plant metabolites such as carbohydrates, amino acids, lipids, polymers, proteins, and phytochemicals for industrial, pharmaceutical, and food and feed applications. The editors put the emphasis on recent methods in farming, plant propagation, and breeding and modern procedures to formulate more effective biopharmaceuticals.

Pharmaceutical Biotechnology offers students taking Pharmacy and related Medical and Pharmaceutical courses a comprehensive introduction to the fast-moving area of biopharmaceuticals. With a particular focus on the subject taken from a pharmaceutical perspective, initial chapters offer a broad introduction to protein science and recombinant DNA technology- key areas that underpin the whole subject. Subsequent chapters focus upon the development, production and analysis of these substances. Finally the book moves on to explore the science, biotechnology and medical applications of specific biotech products categories. These include not only protein-based substances but also nucleic acid and cell-based products. introduces essential principles underlining modern biotechnology- recombinant DNA technology and protein science an invaluable introduction to this fast-moving subject aimed specifically at pharmacy and medical students includes specific ‘product category chapters’ focusing on the pharmaceutical, medical and therapeutic properties of numerous biopharmaceutical products. entire chapter devoted to the principles of genetic engineering and how these drugs are developed. includes numerous relevant case studies to enhance student understanding no prior knowledge of protein structure is assumed