This title examines the history of biotechnology when it was new, especially when synonymous with recombinant DNA technology. It focuses on the academic community in the San Francisco Bay Area where recombinant DNA technology was developed and adopted as the first major commercial technology for genetic engineering at Stanford in the 1970s. The book argues that biotechnology was initially a hybrid creation of academic and commercial institutions held together by the assumption of a positive relationship between private ownership and the public interest.

Recombinant DNA, Third Edition, is an essential text for undergraduate, graduate, and professional courses in Genomics, Cell and Molecular Biology, Recombinant DNA, Genetic Engineering, Human Genetics, Biotechnology, and Bioinformatics. The Third Edition of this landmark text offers an authoritative, accessible, and engaging introduction to modern, genome-centered biology from its foremost practitioners. The new edition explores core concepts in molecular biology in a contemporary inquiry-based context, building its coverage around the most relevant and exciting examples of current research and landmark experiments that redefined our understanding of DNA. As a result, students learn how working scientists make real high-impact discoveries. The first chapters provide an introduction to the fundamental concepts of genetics and genomics, an inside look at the Human Genome Project, bioinformatic and experimental techniques for large-scale genomic studies, and a survey of epigenetics and RNA interference. The final chapters cover the quest to identify disease-causing genes, the genetic basis of cancer, and DNA fingerprinting and forensics. In these chapters the authors provide examples of practical applications in human medicine, and discuss the future of human genetics and genomics projects.

Recombinant DNA Technology is focussed on the current state of knowledge on the recombinant DNA technology and its applications. The book will provide comprehensive knowledge on the principles and concepts of recombinant DNA technology or genetic engineering, protein expression of cloned genes, PCR amplification of DNA, RFLP, AFLP and DNA fingerprinting and finally the most recent siRNA technology. It can be used by post-graduate students studying and teachers teaching in the area of Molecular Biology, Biotechnology, Genetics, Microbiology, Life Science, Pharmacy, Agriculture and Basic Medical Sciences.

Genetic engineering is a rapidly growing field in the area of biological sciences. The driving forces behind this are the challenges encountered by health sectors, agriculture, the environment, and industry. As such, accurate and comprehensive knowledge about the philosophy, principles and application of genetic engineering is indispensable for students and researchers to harness maximum opportunities from this field of science. This volume gathers together comprehensive information regarding genetic engineering from recent studies, and presents it in a coherent manner. As such, it will be of interest to undergraduate and postgraduate students and researchers working in the biological sciences.

Evidence suggests that medical innovation is becoming increasingly dependent on interdisciplinary research and on the crossing of institutional boundaries. This volume focuses on the conditions governing the supply of new medical technologies and suggest that the boundaries between disciplines, institutions, and the private and public sectors have been redrawn and reshaped. Individual essays explore the nature, organization, and management of interdisciplinary R&D in medicine; the introduction into clinical practice of the laser, endoscopic innovations, cochlear implantation, cardiovascular imaging technologies, and synthetic insulin; the division of innovating labor in biotechnology; the government- industry-university interface; perspectives on industrial R&D management; and the growing intertwining of the public and proprietary in medical technology.

"Relying on vast archives of hearings records, correspondence, and extensive personal records and diaries, Dr. Fredrickson recalls the numerous personalities from microbiology, molecular biology, and other scientific disciplines, as well as the leaders among Congress, the administration, and government agencies, environmentalists, and many others, who had a role during this challenging period."--BOOK JACKET.

An overview of recombitant DNA techniques and surveys advances in recombinant molecular genetics, experimental methods and their results.

The second edition explains the principles of recombinant DNA technology as well as other important techniques such as DNA sequencing, the polymerase chain reaction, and the production of monclonal antibodies.

Recombinant DNA Laboratory Manual is a laboratory manual on the fundamentals of recombinant DNA techniques such as gel electrophoresis, in vivo mutagenesis, restriction mapping, and DNA sequencing. Procedures that are useful for studying either prokaryotes or eukaryotes are discussed, and experiments are included to teach the fundamentals of recombinant DNA technology. Hands-on computer sessions are also included to teach students how to enter and manipulate sequence information. Comprised of nine chapters, this book begins with an introduction to bacterial growth parameters, how to measure bacterial cell growth, and how to plot cell growth data. The discussion then turns to the isolation and analysis of chromosomal DNA in bacteria and Drosophila; plasmid DNA isolation and agarose gel analysis; and introduction of DNA into cells. Subsequent chapters deal with Tn5 mutagenesis of pBR329; DNA cloning in M13; DNA sequencing; and DNA gel blotting, probe preparation, hybridization, and hybrid detection. The book concludes with an analysis of lambda phage manipulations. This manual is intended for advanced undergraduate or beginning graduate students and should also be helpful to established investigators who are changing their research focus.

Genetic Alchemy summarizes and clarifies the background of policy and ethical issues, the debates engendered by uncertain risks to researchers and the population at large, and the roles played by scientists involved in one of the most prominent and controversial new technologies, gene splicing. The author, Assistant Professor of Urban and Environmental Policy at Tufts University, brings to the topic his experience on the Cambridge Review Board as it considered the siting of a recombinant DNA research facility, and on the NIH's Recombinant DNA Advisory Committee.