Gene/biotechnology and the broad use of genetically modified organisms is rapidly developing into a commercial enterprise. In spite of the pace of scientific progress in this field, a partly emotional debate is still being carried on by the general public and on the part of the consumer about the potential risks linked to this new technology. Especially when genetically modified organisms (GMOs) are tested in the open field, the question of "safety" is controversially discussed among different groups in society. Environmentalists are worried about unforeseeable dangers inherent in the release of a living organism, assuming that special risks are linked to organisms which have been modified by molecular biologists using tools developed in the laboratory. Frequently quoted potential hazards are the phenomena of "gene escape" and "genetic pollution," meaning the very interesting question of natural (horizontal) gene transfer. This phenomenon of horizontal gene transfer is in fact well known to scientists studying prokaryotes. Many prokaryotes are able to exchange DNA readily between individuals of different species or are even able to take up DNA from the extracellular environment by the process of genetic transformation, which has already been known for more than 65 years. For eukaryotes, however, the evidence of natural horizontal gene transfer is very limited.

DNA "fingerprinting," genetic engineering of food, genetic screening, gene therapy, the human genome project...there is no shortage of news these days about the genetic revolution. The purpose of this book is to take the interested reader behind the headlines to explore the fascinating world of molecular biology. Eschewing jargon, author Susan Aldridge gives an accessible account of the world of DNA and also explores its present and future applications. In the first part of the book, she explains what DNA is and how it functions within living organisms. In the second part, she explores genetic engineering and its applications to humans--such as gene therapy, genetic screening, and DNA fingerprinting. In the third, the author looks at the wider world of biotechnology and how genetic engineering can be applied to such problems as producing vegetarian cheese or cleaning up the environment. Finally, she explains how knowledge of the structure and function of genes sheds light on evolution and our place in the world. Aldridge has written with a light touch full of historical references; her achievement will make rewarding reading for anyone who reads popular accounts of the life sciences.

With each species lost to the mass extinction crisis, the natural economy of the nation and of the world is greatly diminished. An endangered animal may hold the cure for cancer; a threatened plant could someday become a major food crop; and even bacteria often provide novel molecular structures in polymer science. As the rainforest is destroyed and habitats are degraded, conservationists are now urgently searching for dramatic new ways to save these economic resources.
In this provocative and important book, Joseph Henry Vogel details one potential solution that has met with increasing interest and popularity: the privatization of genetic information. Vogel cogently makes the case that the world should abandon the doctrine of "the common heritage of mankind" and create private property rights over genes. Landowners, once vested with the genetic resources on their land, will have a newfound financial incentive to protect what they now already control.
Genes for Sale provides an overview of the many complexities inherent in implementing a viable conservation policy. Vogel elaborates both technical issues like the construction of a "gargantuan database" of landtitles and biological inventories, and political issues like legal reform. Clearly written, engaging, and timely, Genes for Sale provides students, scientists, and policy makers alike with the ideal introduction to an exciting and controversial new approach to saving our precious living heritage.

It is now twenty years since Cohen and Boyer's first steps into DNA cloning. In the time since then, there has been an ever increasing acc- eration in the development and application of the cloning methodology. With the recent development of the polymerase chain reaction, a second generation of the technology has been born, enabling the isolation of DNA (and in particular, genes) with little more information than the p- tial knowledge of the sequence. In fact, DNA sequencing is now so advanced that it can almost be carried out on the industrial scale. As a consequence of these advances, it now appears feasible to sequence whole genomes, including one the size of the human. What are we going to do with this information? The future of basic molecular biology must lie in the ability to analyze DNA (and especially the genes within it) starting at the DNA level. It is for these problems that Protocols for Gene Analysis attempts to offer solutions. So you have a piece of DNA, possibly a gene--what do you do next? The first section of this book contains a number of "basic" te- niques that are required for further manipulation of the DNA. This s- tion is not intended to be a comprehensive collection of methods, but merely to serve as an up-to-date set of techniques. I refer you to other volumes in the Methods Molecular Biology series for further rec- binant DNA techniques.

We are poised at the doorway to a future which could surpass the Industrial Revolution in its impact on the world. We are beginning to scrutinize genes in order to read the very history of evolution, and to alter plants and animals in ways undreamed of only a few years ago. As the tools of science have become more sophisticated, scientists have been able to delve deeply into the inner recesses of cells. The fruit of their labor, the new biology, promises us an unprecedented understanding of genes, offering an illuminating view into the most intimate operations of living things from microbes to humans - and with that, the potential to gain increasing control over life itself. Our gene future will soon present us with a cornucopia of products by drawing upon a variety of organisms - plants, animals, and even human cells - that will influence the lives and health of us all. As Thomas Lee, a biologist and author of the acclaimed The Human Genome Project: Cracking the Genetic Code of Life, so vividly shows, the new biology is already beginning to make its mark on our lives. Every week newspapers announce that scientists have found the gene for a disease such as cystic fibrosis or a particular form of cancer, or have seized on a gene therapy to try to combat it. The controversy over using DNA fingerprinting as admissible evidence in court has sparked public concern. The injecting of experimental genes into humans and animals has triggered recent debates. Soon genetically engineered tomatoes and other "transgenic" vegetables will be available on the shelves of our local grocers. As Lee so wisely and eloquently cautions, there may be perils along this pathway as well as miraculous discoveries. Do dangers lurk in this new technological approach to nature? May we unwittingly be doing irreparable harm to individuals, not to mention the biosphere? This perceptive author even-handedly assesses the controversies surrounding the perils that may await us as molecular science m

The 5th edition of this successful Glossary has been completely revised, updated and supplemented by up-to-date terms used in genetic engineering and molecular genetics. Where necessary a short essay explaining an entry in more detail is added to the stated definition. Wherever possible, the author of an entry is mentioned and the respective publication cited. Cross references ease the orientation within the glossary.
"This excellent textbook should serve seasoned scientists as a feast for the mind and as a valuable work for graduate students. It is a true bargain..."(Quarterly Review of Biology) "By the very fact that this Glossary is now in its fifth edition, one can be assured of its usefulness... Highly recommended." (Australasian)

Covers the basic computer analyses used for new DNA sequences and attempts to provide the researcher with the necessary background in order to understand and use efficiently these programs.

Presenting all preclinical and clinical information available on genetically engineered toxins, this unique, single-source reference provides the most up-to-date methods and practical examples for conducting clinical studies in toxin molecular biology.;Reviewing difficult problems and their solutions, Genetically Engineered Toxins discusses techniques for clo;ning, expressing, and purifying recombinant toxins and genetically modified recombinant toxins; documents structure-function relationships in toxins, including comparative information; supplies theory and illustrations of chimeric toxins; delineates the preclinical assessments of new reagents; and summarizes approaches to drug design.;With over 1100 literature citations, Genetically Engineered Toxins is an invaluable resource for biochemists, molecular biologists, biotechnologists, pharmacologists, toxicologists, X-ray crystallographers, enzymologists, oncologists, hematologists, immunologists, rheumatologists, botanists, and graduate-level students in molecular biology, biotechnology, and clinical oncology courses.

'This co-authored book explores how advances in cell biology, CRISPR gene editing and bioengineering might be used to make a live dragon. The result is a gloriously tongue-in-check scientific epic ... How to Build a Dragon or Die Trying is deliberately flamboyant and outrageous. ItaEURO (TM)s also funny and smart. Far from a how-to guide for neaEURO (TM)er-do-wells to weaponize reptiles, it is designed to spark healthy curiosity in anyone who enjoys a ripping good science read.'NatureWhat if you could have your own real dragon? While that might seem like just a fantasy, today cutting-edge science has brought us to the point where it might really be possible. This book looks into the possibilities of making living, fire-breathing dragons. The world has been fascinated with dragons for thousands of years. Fictional dragons still have a firm place in pop culture, such as Smaug from The Hobbit as well as the dragons in Game of Thrones and in the How to Train Your Dragon movies. This new book discusses using powerful technologies such as CRISPR gene editing, stem cells, and bioengineering to make real dragons. It also goes through what useful information we can learn from animals such as Pteranodons and amazing present-day creatures in our quest to build actual dragons. The book goes on to discuss the possibility of building other mythical creatures such as unicorns and mermaids. Overall, How to Build A Dragon is also meant as a satirical look at cutting-edge science, and it pokes fun at science hype. Anyone who is interested in dragons or cutting-edge science will enjoy this book! It is written in a humorous, approachable way making science fun and easy to understand, including for young adults.The author is well-known scientist Paul Knoepfler who is familiar to the public for his science, his blog The Niche, and his frequent contributions to lay stories on new science concepts such as stem cells and CRISPR. He also is known for his TED talk on designer babies with more than 1.3 million views, and his two books - . The co-author, his daughter Julie Knoepfler, is a high school student interested in science and writing. She has her own blog on literary and film analysis, and enjoys taking a humorous look at culture through writing.

** NEW YORK TIMES NUMBER ONE BESTSELLER ** The Gene is the story of one of the most powerful and dangerous ideas in our history from the author of The Emperor of All Maladies. The story begins in an Augustinian abbey in 1856, and takes the reader from Darwin's groundbreaking theory of evolution, to the horrors of Nazi eugenics, to present day and beyond - as we learn to "read" and "write" the human genome that unleashes the potential to change the fates and identities of our children. Majestic in its scope and ambition, The Gene provides us with a definitive account of the epic history of the quest to decipher the master-code that makes and defines humans - and paints a fascinating vision of both humanity's past and future. For fans of Sapiens by Yuval Noah Harari, A Brief History of Time by Stephen Hawking and Being Mortal by Atul Gwande. 'Siddhartha Mukherjee is the perfect person to guide us through the past, present, and future of genome science' Bill Gates 'A thrilling and comprehensive account of what seems certain to be the most radical, controversial and, to borrow from the subtitle, intimate science of our time...Read this book and steel yourself for what comes next' Sunday Times

Summarizing landmark research, Volume 3 of this essential series furnishes information on the availability of germplasm resources that breeders can exploit for producing high-yielding vegetable crop varieties. Written by leading international experts, this volume offers the most comprehensive and up-to-date information on employing genetic resources to increase the yield of those vegetable crops that provide a main source of minerals, vitamins, and antioxidants. In eleven succinct chapters, Genetic Resources, Chromosome Engineering, and Crop Improvement: Vegetable Crops, Volume 3 focuses on potato, tomato, brassicas, okra, capsicum, alliums, cucurbits, lettuce, eggplant, and carrot. An introductory chapter outlines the cytogenetic architecture of vegetable crops, describes the principles and strategies of cytogenetics and breeding, and summarizes landmarks in current research. This sets the stage for the ensuing crop-specific chapters. Each chapter generally provides a comprehensive account of the crop, its origin and taxonomy, wild relatives, exploitation of genetic resources diversity in the primary, secondary, and tertiary gene pools through breeding and cytogenetic manipulation, and genetic enrichment using the tools of molecular genetics and biotechnology. Certain to become the standard reference for improving the yields of these critical vegetable crops, this book is the definitive source of information for plant breeders, gene-bankers, cytogeneticists, taxonomists, molecular biologists, biotechnologists, and graduate students, researchers, agronomists, horticulturists, farmers and consumers in these fields.

In the last few decades, significant advancements in the biology and engineering of stem cells have enabled progress in their clinical application to revascularization therapies. Some strategies involve the mobilization of endogenous stem cell populations, and others employ cell transplantation. However, both techniques have benefited from multidisciplinary efforts to create biomaterials and other biomedical tools that can improve and control the fate of stem cells, and advance our understanding of them. Stem Cells and Revascularization Therapies focuses on the fundamentals and applied studies in stem cell biology, and provides perspectives associated with the development of revascularization strategies. To help readers understand the multidisciplinary issues associated with this topic, this book has been divided into four sections: Section 1: Explores how to define, isolate, and characterize various stem and progenitor cell populations for neovascularization Section 2: Summarizes some especially useful model systems and approaches used to regulate angiogenesis, vasculogenesis, and arteriogenesis, and explores their impact on formation of functional vessels in vivo Section 3: Focuses on stem cell homing to sites of injury and inflammation, as well as strategies to exploit this mobilization phenomenon Section 4: Covers stem cell transplantation topics, including recreating features of endogenous stem cell niches to maintain the multipotency of transplanted cells and combinatorial delivery of cells and molecular factors Intended to inspire new contributions to improve the therapeutic efficacy, Stem Cells and Revascularization Therapies outlines emergent findings and challenges regarding the use of stem cells in revascularization therapies. Overcoming the significant

Das erste Laborhandbuch der Humangenetik. Jedes Kapitel behandelt eine Praxiseinheit. Die Themen reichen von den Grundlagen des menschlichen Erbgutes uber die Genetik von Krankheiten, webbasierte Ressourcen, Bioinformatik und Individualmedizin bis hin zur genetischen Beratung.

With ever-advancing scientific understanding and technological capabilities, humanity stands on the brink of the potential next stage of evolution: evolution engineered by us. Nanotechnology, biotechnology, information technology and cognitive science offer the possibility to enhance human performance, lengthen life-span and reshape our inherited physical, cognitive and emotional identities. But with this promise come huge risks, complex choices and fundamental ethical questions: about evolution; about what it is to be human; and about control over, and the distribution of benefits from, new technology. Written by a range of experts in science, technology, bioethics and social science, Unnatural Selection examines the range of technological innovations offering lives that purport to be longer, stronger, smarter and happier, and asks whether their introduction is likely to lead to more fulfilled individuals and a fairer world. The breadth of approaches and perspectives make important reading for anyone who cares about the implications of humanity engineering its own evolution.

Plant Transformation via Agrobacterium Tumefaciens compiles fundamental and specific information and procedures involving in vitro soybean transformation, which forms the basis for the Agrobacterium-mediated genetic manipulation of soybean using plant tissue culture. This method serves as one of the most preferred, reliable and cost-effective mechanism of transgene expression in both leguminous recalcitrant species and non-legume crops. The technology is favoured due to its simplicity, feasibility and high transformation rates that are so far achieved mostly in monocot plants and a few dicot genotypes. This book provides a comprehensive review of plant transformation which remains necessary for many researchers who are still facing protocol-related hurdles. Among some of the major topics covered in Plant Transformation via Agrobacterium Tumefaciens are the history and discovery of Agrobacterium bacterium, longstanding challenges causing transformation inefficiencies, types and conditions of explants, development of transgenic plants for stress resistance, and the role of transgenic plants on animal/human health, including the environment. Plant Transformation via Agrobacterium Tumefaciens helps the reader to understand how soybean, like many other orphan legume crops, faces the risk of overexploitation which may render the currently available varieties redundant and extinct should its narrow gene pool not improve. Plant transformation serves as a key technique in improving the gene pool, while developing varieties that are drought tolerant, have enhanced nutritional value, pest resistant and reduce the destruction by disease causing microorganims. This book is an essential foundation tool that is available for researchers and students to reinforce the application of Agrobacterium-mediated genetic transformation in soybean.

Global demand for wheat, rice, corn, and other essential grains is expected to steadily rise over the next twenty years. Meeting this demand by increasing production through increased land use is not very likely; and while better crop management may make a marginal difference, most agriculture experts agree that this anticipated deficit must be made up through increased crop yields. The first resource of its kind, Physiology and Biotechnology Integration for Plant Breeding assembles current research in crop plant physiology, plant biotechnology, and plant breeding that is aimed toward improving crop plants genetically while supporting a productive agriculture ecosystem. Highly comprehensive, this reference provides access to the most innovative perspectives in crop physiology - with a special emphasis on molecular approaches - aimed at the formulation of those crop cultivars that offer the greatest potential to increase crop yields in stress environments. Surveys the current state of the field, as well as modern options and avenues for plant breeders and biotechnologists interested in augmenting crop yield and stability With the contributions of plant scientists from all corners of the globe who are actively involved in meeting this important challenge, Physiology and Biotechnology Integration for Plant Breeding provides readers with the background information needed to understand this cutting-edge work, as well as detailed information on present and potential applications. While the first half of the book establishes and fully explains the link between crop physiology and molecular biology, the second part explores the application of biotechnology in the effective delivery of the high yield and environmentally stable crop plants needed to avert the very real possibility of worldwide hunger.

* Six new chapters on vital topics of interest such as multilocus SNP genotyping (SNP chips), RNAi, ChIP-chip, and genomic tiling arrays* New edition responds to reviewers' and users' desire for greater coverage-now the most useful handbook on the market!* Practical, concise summary of everything about genomics and emerging technologies a busy physician or medical student should know* Covers concepts and techniques that are in use in medicine now, as well as those on the cutting-edge of science relevant to medicine, from bioinformatics to DNA diagnostics and proteomics*NEW: Includes chapter-end exercises, enhancing the utility of the new edition as a textbook*NEW: PowerPoint slides of images available at instructor website

Summarizing landmark research, Volume 3 of this essential series furnishes information on the availability of germplasm resources that breeders can exploit for producing high-yielding vegetable crop varieties. Written by leading international experts, this volume offers the most comprehensive and up-to-date information on employing genetic resources to increase the yield of those vegetable crops that provide a main source of minerals, vitamins, and antioxidants. In eleven succinct chapters, Genetic Resources, Chromosome Engineering, and Crop Improvement: Vegetable Crops, Volume 3 focuses on potato, tomato, brassicas, okra, capsicum, alliums, cucurbits, lettuce, eggplant, and carrot. An introductory chapter outlines the cytogenetic architecture of vegetable crops, describes the principles and strategies of cytogenetics and breeding, and summarizes landmarks in current research. This sets the stage for the ensuing crop-specific chapters. Each chapter generally provides a comprehensive account of the crop, its origin and taxonomy, wild relatives, exploitation of genetic resources diversity in the primary, secondary, and tertiary gene pools through breeding and cytogenetic manipulation, and genetic enrichment using the tools of molecular genetics and biotechnology. Certain to become the standard reference for improving the yields of these critical vegetable crops, this book is the definitive source of information for plant breeders, gene-bankers, cytogeneticists, taxonomists, molecular biologists, biotechnologists, and graduate students, researchers, agronomists, horticulturists, farmers and consumers in these fields.

Stem Cell Nanoengineering reviews the applications of nanotechnology in the fields of stem cells, tissue engineering, and regenerative medicine. Topics addressed include various types of stem cells, underlying principles of nanobiotechnology, the making of nano-scaffolds, nano tissue engineering, applications of nanotechnology in stem cell tracking and molecular imaging, nano-devices, as well as stem cell nano-engineering from bench to bedside. Written by renowned experts in their respective fields, chapters describe and explore a wide variety of topics in stem cell nanoengineering, making the book a valuable resource for both researchers and clinicians in biomedical and bioengineering fields.

Genetic Engineering: A Primer presents the growing field of biotechnology to non-science majors and other general interest readers. The author examines the natural forces that change genetic information and the ways in which scientists have learned to engineer these genetic changes. With a wealth of information flooding the popular press, including news and controversy surrounding cloning, Genetic Engineering is a timely volume that provides background information to the reader intent on understanding this fascinating development.

In China, as elsewhere, the debate over genetically modified organisms has become polarized into anti- and pro-GMO camps. Given the size of China's population and market, much is at stake in conflicts over regulation for domestic as well as international actors. In this book, Cong Cao provides an even-handed analysis that illuminates the tensions that have shaped China's policy toward agricultural biotechnology in a global perspective. Cao presents a comprehensive and systematic analysis of how China's policy toward research and commercialization of genetically modified crops has shifted that explains how China's changing GMO stances reflect its evolving position on the world stage. While China's scientific community has set the agenda, it has encountered resistance rooted in concerns over food safety and consumers' rights as well as issues of intellectual property rights and food sovereignty. Although Chinese leaders at first sought to take advantage of the biotech revolution by promoting GMO crop consumption, Cao demonstrates that policy has since become precautionary, as seen in new laws and regulations grounded in concerns over safety and the deferral of commercialization of GM rice. He presents China's policies in light of changing global attitudes toward GM crops: As shifts in China have closely followed global trends, so has domestic activism. Drawing on government and scientific documents as well as interviews with scientists, officials, policy analysts, activists, and journalists, GMO China is an important book for China studies, science and technology studies, policy analysts, and professionals interested in the Chinese biotechnology market.

So long as you have food in your mouth, you have solved all questions for the time being. So begins Good Enough to Eat?, which challenges Kafka's culinary sentiments and proceeds to unravel our complex and deeply personal relationship with food. Including interviews from both sides of the (farmyard) fence; from biologists to farmers and nutritionists to activists, Good Enough to Eat? charts the history of GM foods from the laboratory to the global dinner plate. Equally informative and entertaining, Godwin chronicles the social, political and philosophical arguments for and against GM crops, and the science and knowledge behind the battle for global food security and sustainability.

This book is the first comprehensive assemblage of contemporary knowledge relevant to genomics and other omics in date palm. Volume 2 consists of 11 chapters. Part I, Nutritional and Pharmaceuticals Properties, covers the utilization of date palm as an ingredient of various food products, a source of bioactive compounds and the production of nanomaterials. Part II, Omics Technologies, addresses omics resources, proteomics and metabolomics. Part III, Molecular Breeding and Genome Modification, focuses on genetic improvement technologies based on mutagenesis, quantitative traits loci and genome editing. Part IV, Genomics of Abiotic and Biotic Stress, covers metagenomics of beneficial microbes to enhance tolerance to abiotic stress and the various genomics advances as they apply to insect control. This volume represents the efforts of 34 international scientists from 12 countries and contains 65 figures and 19 tables to illustrate presented concepts. Volume 1 is published under the title: Phylogeny, Biodiversity and Mapping.

Sugarcane is the most important plant source for sugar and alcohol production and is cultivated in more than 80 countries in tropical and subtropical areas. However, environmental factors negatively influence its yield and jeopardize the prospect to meet the increasing demand for sugar, other sugarcane derived by products and bioethanol. The development of stress tolerant plants is fundamental for the maintenance and increase of crop yields. Biotechnology to Enhance Sugarcane Productivity and Stress Tolerance provides a comprehensive account of both theoretical and practical aspects of sugarcane production. It contains extensive coverage of genome mapping and molecular breeding in sugarcane and presents the status of the elucidation and improvement of plant genomes of economic interest. Through 14 chapters written by eminent scientists with global influence, this book examines various methods for sugarcane improvement through biotechnology. The book focuses on genetic and physical mapping, positioning, cloning, and monitoring of desirable genes using biotechnological approaches for high sugarcane productivity and the development of stress tolerance. Additional information includes the bioengineering of sugarcane, procedures to boost productivity, genetics and assessments for resistance to drought and salinity, genetics for high yields, and various topics of research on sugarcane genetics. It serves as a detailed reference source for cane growers, sugar and sugarcane technologists, students, and professors.