Genetics (non-medical) Books

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Book SynopsisTrade Review“I read The Biology of Belief when it first came out. It was a pioneering book and gave a much needed scientific framework for the mind/body/spirit connection. Bruce’s insights and research created the basis of the epigenetic revolution that is now laying the foundation for a consciousness-based understanding of biology. We are all indebted to him.”— Deepak Chopra, M.D., F.A.C.P., co-author with Rudolph Tanzi of Super Genes: Unlock the Astonishing Power of Your DNA for Optimum Health and Well-Being“Bruce Lipton’s book is the definitive summary of the new biology and all it implies. It is magnificent, profound beyond words, and a delight to read. It synthesizes an encyclopedia of critical new information into a brilliant yet simple package. These pages contain a genuine revolution in thought and understanding, one so radical that it can change the world.”— Joseph Chilton Pearce, Ph.D., author of Magical Child and Evolution’s End“Bruce Lipton’s delightfully written The Biology of Belief is a much-needed antidote to the ‘bottom-up’ materialism of today’s society. The idea that DNA encodes all of life’s development is being successfully employed in genetic engineering. At the same time, the shortfall of this approach is becoming evident. The Biology of Belief is a review of a quarter-century of pioneering results in Epigenetics, heralded by The Wall Street Science Journal in mid-2004 as an important new field. Its personal style makes it eminently readable and enjoyable.”— Karl H. Pribram, M.D., Ph.D., (Hon. Multi), professor emeritus, Stanford University“Dr. Lipton is a genius. His breakthrough discoveries give us tools for regaining the sovereignty over our lives. I recommend this book to anyone who is ready and willing to take full responsibility for themselves and the destiny of our planet.”— LeVar Burton, actor and director“Bruce Lipton offers new insights and understanding into the interface between biological organisms, the environment—and the influence of thought, perception, and subconscious awareness—on the expression of one’s body healing potential. Well-referenced explanations and examples make this book a refreshing ‘must read’ for the student of the biological, social, and health care sciences. Yet the clarity of the author’s presentation makes it an enjoyable read for a general audience.”— Carl Cleveland III, D.C., President, Cleveland Chiropractic College“Dr. Lipton’s revolutionary research has uncovered the missing connections between biology, psychology, and spirituality. If you want to understand the deepest mysteries of life, this is one of the most important books you will ever read.”—Dennis Perman, D.C., co-founder, The Master’s Circle“In this paradigm-busting book, Bruce Lipton delivers a TKO to Old Biology. With a left to Darwinian dogma and a right to allopathic medicine, he breaks out of the physicalist box into enlightenment on the mind/body (belief/biology) system. Must read, much fun.”— Ralph Abraham, Ph.D., professor of mathematics, University of California; author of Chaos, Gaia, Eros“Powerful! Elegant! Simple! In a style that is as accessible as it is meaningful, Dr. Bruce Lipton offers nothing less than the long-sought–after ‘missing link’ between life and consciousness. In doing so, he answers the oldest questions and solves the deepest mysteries of our past. I have no doubt that The Biology of Belief will become a cornerstone for the science of the new millennium.”— Gregg Braden, best-selling author of The God Code and The Divine Matrix“I finished reading this book with the same sense of profound respect I have when I am with Bruce Lipton—that I have been touched by a revolutionary sense of the truth. He is both a scientist and a philosopher; a scientist in that he provides us with tools toalter cultural consciousness and a philosopher because he challenges our beliefs about the very nature of our perceived reality. He is helping us create our own futures.”— Guy F. Riekeman, D.C., President, Life University and College of Chiropractic“The Biology of Belief is a milestone for evolving humanity. Dr. Bruce Lipton has provided, through his amazing research and in this inspiring book, a new, more awakened science of human growth and transformation. Instead of being limited by the genetic or biological constraints that humanity has been programmed to live by, humanity now has before it a way of unleashing its true spiritual potential with the help of simply transformed beliefs guided by ‘the gentle and loving hand of God.’ A definite must read for those dedicated to the mind/body movement and to the true essence of healing.”— Dr. John F. Demartini, best-selling author of Count Your Blessings and The Breakthrough Experience“In a world of chaos, Dr. Lipton brings clarity to mankind. His work is thought-provoking, insightful, and will hopefully lead people to ask better quality questions in their lives and to make better decisions.One of the most exciting books I have read, this is a must read.”— Brian Kelly, D.C., President, New Zealand College of Chiropractic; President, Australian Spinal Research Foundation“Finally, a compelling and easy-to-understand explanation of how your emotions regulate your genetic expression! You need to read this book to truly appreciate that you are not a victim of your genes but instead have unlimited capacity to live a life overflowing with peace, happiness, and love.”— Joseph Mercola, D.O., Founder of mercola.com, the world’s most visited natural-health site“This book is an absolute must-read if you want to know, from a scientific viewpoint, that your lifestyle is in control of your health rather than your genetics. From a scientific viewpoint, Lipton demonstrates that the mind is more powerful than drugs to regain our health. The information reveals that your health is more your responsibility than just being a victim of your genes. When I started reading this book, I could not stop until it was finished.”— M. T. Morter, Jr., D.C., founder, Morter Health System; developer of the B.E.S.T. Technique“This is a courageous and visionary book that provides solid evidence from quantum biology to dispel the myth of genetic determinism—and implicitly, victimhood. Dr. Bruce Lipton brings a solid scientific mind to not only inform but to transform and empower the reader with the realization that our beliefs create every aspect ofour personal reality. A provocative and inspiring read!”— Lee Pulos, Ph.D., A.B.P.P., professor emeritus, University of British Columbia; author of Miracles and Other Realities and Beyond Hypnosis“History will record The Biology of Belief as one of the most important writings of our time. Bruce Lipton has delivered the missing link between the understandings of biomedicine of the past and the essentials of energetic healing of the future. His complex insights are expressed in a readily understandable fashion with a style that welcomes the scientist and the nonscientist on an equal footing. For anyone interested in health, the well-being of the species, and the future of human life, The Biology of Belief is a must-read. The implications of the perspectives outlined have the potential to change the world as we know it. Bruce Lipton’s understandings—and his concise expression of them—are sheer genius.”— Gerard W. Clum, D.C., President, Life Chiropractic College West

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Book SynopsisSince not only professional scientists, but also thousands of future scientists/students as well as amateur breeders around the world contribute heavily to the field of ornamental breeding, an introductory section dealing with the basics of molecular and classical genetics and the evolution of floral diversity is included.Table of ContentsPreface. Section one: Introduction to Classical and Molecular Genetics Evolution of Sexual Reproduction and Floral Diversity; R.J. Griesbach. Transmission Genetics; A. Ashri. Molecular Genetics: Gene Isolation, Characterization and Manipulation; B.R. Glick, D.M. Penrose. Section two: Classical Breeding. Breeding Methods and Breeding Researh; W. Horn. Interspecific Hybridization and Introgression; J.M. Van Tuyl, et al. Mutation Breeding of Vegetatively Propagated Ornamentals; A.M. Van Harten. Introduction of New Cut Flowers: Domestications of New Species and Introduction of New Traits Not Found in Commercial Varieties; D. Weiss. Tissue Culture for Ornamental Breeding; A.C. Cassells. Section three: Genetic Manipulation at the DNA Level. Gene Transfer to Plants; S.C. Deroles, et al. Molecular Approaches for Increasing Plant Resistance to Biotic and Abiotic Stresses; M. Lorito, et al. Molecular Control of Light Sensing in Plant Development; A. Samach, M. Pineiro. Molecular Control of Flower Development; M. Vishnevetsky, E.M. Meyerowitz. Molecular Control of Floral Pigmentation: Anthocyanins; H. Ben-Meir, et al. Molecular Control of Floral Pigmentation: Carotenoids; F.X. Cunningsham, Jr., E. Gantt. Molecular Control of Floral Fragrance; N. Dudareva. Molecular Genetics of Flower Senescence; J.E. Thompson, T.-W. Wang. Molecular Markers as a Tool for Analyses of Genetic Relatedness and Selection in Ornamentals; T. Debener. Plant-Specific Intellectual Property Rights; S. Berman. Index.

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Book SynopsisGenes, Culture, and Human Evolution: A Synthesisis a textbook on human evolution that offers students a unique combination of cultural anthropology and genetics. Written by two geneticistsincluding a world-renowned scientist and founder of the Human Genome Diversity Projectand a socio-cultural anthropologist. Based on recent findings in genetics and anthropology that indicate the analysis of human culture and evolution demands an integration of these fields of study. Focuses on evolutionor, rather, co-evolutionviewed from the standpoint of genes and culture, and their inescapable interactions. Unifies cultural and genetic concepts rather than rehashing nonempirical sociobiological musings. Demonstrates that empirical genetic evidence, based on modern DNA analysis and population studies, provides an excellent foundation for understanding human cultural diversity. Trade Review"This book lives up to its title. It provides an invigorating and well-informed overview of human genetic and cultural evolution, one that transcends the disciplinary boundaries that become an irrelevance to a full understanding of where we come from, out nature and origins." (Anthropos, 2009) "The important branch of evolutionary anthropology that concentrates on the co-evolution of genes and culture has been in need of its definitive textbook. Here it has found its perfect expression in one of those rare texts that is also a grand synthesis and a contribution in its own right."—Robin Fox, University Professor of Social Theory, Rutgers University "Stone and Lurquin have integrated what we know about bones, genes, and languages to produce a uniquely valuable account. By focusing on the science of human evolution, the authors avoid the stultifying debates about what is culture and does it evolve. With this volume, evolutionary anthropology becomes a coherent discipline accessible to all students and scholars in the human sciences."—Marc Feldman, Stanford University "The first textbook that uses evolutionary theory to combine the study of human culture and genetics." (Australian Journal of Anthropology)Table of ContentsFigures. Plates. Preface. Introduction by L. Luca Cavalli-Sforza. 1. Genetic and Cultural Theory: A Brief Overview. 2. Human Descent and Paleoanthropology. 3. Foundations of Classical and Molecular Genetics. 4. Genetics as a Key to Human Origins and Prehistory. 5. Fundamentals of Human Evolution: Mutation and Natural Selection. 6. Fundamentals of Human Evolution: Drift, Migration, and Quantitative Analysis of Human Genetic Diversity. 7. Cultural Evolution. 8. Geography of Human Genes and Correlation with Languages. 9. The Prehistory of Human Genes. 10. Voyages: Prehistoric Human Expansions. 11. The Neolithic Transition in Europe and the Peopling of the Americas. 12. Genes, Kinship, and Identity. 13. Cultural Clines, Clades, Cycles, and Waves: The Process of Cultural Evolution. 14. Genes and Culture in Medicine. General Conclusion. Appendix 1. The Denaturing High Performance Liquid Chromatography (DHPLC) Technique. Appendix 2. The Hardy–Weinberg Theorem. Appendix 3. A Simulation of Drift. Appendix 4. The Diversification of Languages. Notes. Key References. Glossary. Index.

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Book SynopsisStructure and Composition.- Development and Maturation.- Synthesis of Storage Reserves.- Germination.- Mobilization of Stored Reserves.- Dormancy and the Control of Germination.- Environmental Regulation of Dormancy and Germination.- Longevity, Storage and Deterioration.Table of ContentsChapter 1Structure and Composition1.1. Introduction1.2. Seed structure1.2.1. Embryo1.2.2. Non-embryonic storage tissues1.2.3. Testa – seed coat1.3. Seed storage reserves1.3.1. Carbohydrates1.3.2. Oils (Neutral lipids)1.3.3. Proteins1.3.4. Phytin1.3.5. Other constituentsChapter 2Development and Maturation2.1. Fertilization2.2. Embryogeny and storage tissue formation 2.2.1. Embryonic tissues 2.2.2. Endosperm 2.2.3. Testa (seed coat)2.3. Regulation of seed development 2.3.1. Plant hormones 2.3.2. Embryo polarity and patterning 2.3.3. ABA content and sensitivity to ABA during development 2.3.4. Regulation of the seed maturation program 2.3.5. Epigenetic control of endosperm development 2.3.6. Testa development and its interaction with the endosperm and embryo 2.3.7. Somatic embryogenesis and apomixis2.4. Germinability during development 2.4.1. Ability to germinate during development 2.4.2. Precocious germination: Vivipary and preharvest sprouting 2.4.3. Role of preharvest drying in development of germinability2.5. Maturation drying and the ‘switch’ to germination 2.5.1. The acquisition of desiccation tolerance 2.5.2. Protective mechanisms associated with drying 2.5.2.1. Membranes, proteins and water replacement 2.5.2.2. Gene expression and protein synthesis 2.5.2.3. Other changes in metabolism associated with drying 2.5.3. Gene expression changes upon rehydration2.6. Late maturation events and seed drying 2.6.1. Physiological maturity versus harvest maturity 2.6.2. Seed development and seed quality 2.6.3. Maturation drying and biophysical aspects of dry seedsChapter 3Synthesis of Storage Reserves3.1. Assimilates for grain and seed filling 3.1.1. Source of nutrients for storage reserve synthesis 3.1.2. Import of nutrients into the developing seed 3.1.3. Factors affecting seed production and quality3.2. Deposition of reserves within storage tissues 3.2.1. Starch synthesis 3.2.1.1. Uses and modifications of starch 3.2.2. Synthesis of polymeric carbohydrates other than starch 3.2.3. Oil (triacylglycerol) synthesis 3.2.3.1. Uses and modifications of fatty acids 3.2.4. Storage protein synthesis 3.2.4.1. Synthesis, processing and deposition of storage proteins 3.2.4.2. Uses and modifications of storage proteins 3.2.4.3. Regulation of storage protein synthesis 3.2.5. Phytin synthesis 3.2.6. Modifications of non-storage compounds to improve nutritional quality Chapter 4Germination4.1. Seed germination – definition and general features4.2. Measurement of germination4.3. Imbibition 4.3.1. Uptake of water from the soil 4.3.2. Phase I, imbibition and imbibitional damage 4.3.3. Phase II, the lag phase 4.3.4. Phase III, completion of germination 4.3.5. Kinetics of imbibition4.4. Respiration – oxygen consumption and mitochondrial development 4.4.1. Pathways and products 4.4.2. Respiration during imbibition and germination 4.4.3. Mitochondrial development and oxidative phosphorylation 4.4.4. Respiration under low oxygen conditions4.5. RNA and protein synthesis 4.5.1. Transcriptomes of dry and germinating seeds 4.5.2. Proteomes of germinating seeds4.6. The completion of germination 4.6.1. Embryo growth potential verses enclosing tissue constraints in radicle emergence 4.6.2. DNA synthesis and cell division (cell cycle)4.7. Priming and the enhancement of germinationChapter 5Mobilization of Stored Reserves5.1. Seedling growth patterns5.2. Mobilization of stored reserves5.3. Stored oligosaccharide catabolism5.4. Pathways of starch catabolism 5.4.1. Synthesis of sucrose5.5. Mobilization of stored starch in cereal grains 5.5.1. Synthesis and release of -amylase and other hydrolases from the aleurone layer 5.5.2. Starch breakdown and the fate of the products of hydrolysis 5.5.3. Hormonal control of starch mobilization 5.5.4. Programmed cell death (PCD) of the aleurone layer and other tissues5.6. Mobilization of stored carbohydrate reserves in dicots 5.6.1. Starch-storing non-endospermic legumes 5.6.2. Hemicellulose-storing endospermic legumes 5.6.3. Hemicellulose-containing seeds other than legumes5.7. Stored triacylglycerol (TAG) mobilization 5.7.1. Mobilization of TAGs from oil bodies 5.7.2. Role and formation of the glyoxysome 5.7.3. Utilization of the products of TAG catabolism5.8. Storage protein mobilization 5.8.1. Protein mobilization during germination 5.8.2. Protein mobilization following germination of cereals 5.8.2.1. Uptake of amino acids and peptides into the embryo 5.8.3. Protein mobilization following germination of dicots5.8.4. Protease inhibitors5.8.5. Utilization of liberated amino acids in dicot seedlings5.9. Phytin mobilization5.10. Control of reserve mobilization in dicots 5.10.1. Regulation in endospermic dicots 5.10.2. Regulation in non-endospermic dicots 5.10.2.1. Mode of regulation by the axisChapter 6Dormancy and the Control of Germination6.1. Dormancy - its biological role 6.2. Categories of dormancy6.3. Mechanisms of dormancy 6.3.1. Blocks to germination within the embryo 6.3.1.1. Undifferentiated embryo 6.3.1.2. Immature embryo 6.3.1.3. Chemical inhibitors 6.3.1.4. Regulatory and metabolic constraints 6.3.2. Blocks to germination by the covering layers 6.3.2.1. Interference with water uptake 6.3.2.2. Interference with gas exchange 6.4.2.3. Prevention of exit of inhibitors from the embryo 6.4.2.4. Mechanical restraint6.4. Embryonic inadequacy – the causes 6.4.1. Energy metabolism of dormant seeds6.4.2. Genetic aspects of dormancy6.5. The environment in dormancy perception 6.6. The release from dormancy6.6.1. Perception, signaling and role of hormones with respect to dormancy and germination 6.6.1.1. Regulation by ABA 6.6.1.2. Regulation by GA 6.6.1.3. Regulation by ethylene and brassinosteroids 6.6.1.4. ABA/GA balance and hormonal cross-talk in the regulation of dormancy6.6.2. After-ripening6.6.3. Low temperatures (chilling)6.6.4. Other effects of temperature on dormancy6.6.5. Light 6.6.5.1. Phytochrome: action spectra 6.6.5.2. Phytochrome: photoequilibria 6.6.5.3. Phytochrome: multiple forms 6.6.5.4. Phytochrome: downstream signaling 6.6.6. Dormancy release of seeds with impermeable coats 6.6.7. Breaking of dormancy by chemicals 6.6.7.1. Breaking of dormancy by nitrate 6.6.7.2. Breaking of dormancy by nitric oxide 6.6.7.3. Breaking of dormancy by smokeChapter7Environmental Regulation of Dormancy and Germination7.1. Seed dispersal and burial 7.1.1. The soil seed bank7.2. Environmental control of germination 7.2.1. Water 7.2.1.1. Hydrotime model of germination 7.2.1.2. Hydrotime and dormancy 7.2.1.3. Ecological applications of the hydrotime model 7.2.2. Temperature7.2.2.1. Cardinal temperatures for seed germination 7.2.2.2. Thermal time models 7.2.2.3. Temperature and water interactions: hydrothermal time models 7.2.3. Light 7.2.3.1. Phytochrome responses 7.2.4. Nitrate 7.2.5. Oxygen and other gases 7.2.6. Other chemicals7.3. Secondary dormancy and seasonal variation 7.3.1. Dormancy cycling 7.3.2. Dormancy cycling: mechanisms and modeling7.4. Influences of plant life cycle, distribution and origin on germination 7.4.1. Plant distribution 7.4.2. Seasonal and flowering interactions affecting dormancyChapter 8Longevity, Storage and Deterioration8.1. Ancient seeds8.2. Longevity of seeds in storage 8.2.1. Patterns of seed viability loss during storage 8.2.2. Temperature, moisture content and seed longevity 8.2.3. Other factors that affect seed viability during storage8.3. Seed storage and conservation 8.3.1. Short-term storage 8.3.2. Long-term genetic conservation—ex situ seed gene banks 8.3.3. Long-term genetic conservation—in situ Centers of Diversity8.4. Mechanisms and consequences of deterioration in seeds 8.4.1. Deterioration mechanisms in stored seeds 8.4.2. Consequences of storage on germination8.5. Mechanisms of after-ripening in dry seeds8.6. Recalcitrant seeds

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Book SynopsisIn the late nineteenth and the early twentieth century, it was widely assumed that society ought to foster the breeding of those who possessed favorable traits and discourage the breeding of those who did not. Controlled human breeding, or "eugenics" as it was called, was a movement with broad support that lasted into the 1930s. In this concise historical account, the author answers the questions of why eugenics, the search for means to propage only "good genes," was so attractive earlier in the twentieth century, why it then fell into disrepute, and whether it has returned today in the new guise of genetic counseling.Trade Review""This is an excellent book and deserves a wide readership.”-Journal of the History of the Behavioral Sciences

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Book SynopsisFew avenues of scientific inquiry raise more thorny ethical questions than the cloning of human beings, a radical way to control our DNA. In August 2001, in conjunction with his decision to permit limited federal funding for stem-cell research, President George W. Bush created the President's Council on Bioethics to address the ethical ramifications of biomedical innovation. Over the past year the Council, whose members comprise an All-Star team of leading scientists, doctors, ethicists, lawyers, humanists, and theologians, has discussed and debated the pros and cons of cloning, whether to produce children or to aid in scientific research. This book is its insightful and thought-provoking report. The questions the Council members confronted do not have easy answers, and they did not seek to hide their differences behind an artificial consensus. Rather, the Council decided to allow each side to make its own best case, so that the American people can think about and debate these questions, which go to the heart of what it means to be a human being. Just as the dawn of the atomic age created ethical dilemmas for the United States, cloning presents us with similar quandaries that we are sure to wrestle with for decades to come.

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Book SynopsisAfter the generation of genome sequence data from a wide variety of plants, databases are filled with sequence information of genes with no known biological function, and while bioinformatics tools can help analyze genome sequences and predict gene structures, experimental approaches to discover gene functions need to be widely implemented. In Plant Reverse Genetics: Methods and Protocols, leading researchers in the field describe cutting-edge methods, both high-throughput and genome-wide, involving the models Arabidopsis and rice as well as several other plants to provide comparative functional genomics information. With chapters on the analysis of high-throughput genome sequence data, the identification of non-coding RNA from sequence information, the comprehensive analysis of gene expression by microarrays, and metabolomic analysis, the thorough methods of the book are fully supported by scripts to aid their computational use. Written in the highly successful Methods in Molecular Biology™ series format, the chapters contain introductions to their respective topics, lists of the necessary materials, step-by-step, readily reproducible laboratory protocols, and notes on troubleshooting and avoiding known pitfalls. Authoritative and essential, Plant Reverse Genetics: Methods and Protocols is an ideal guide for researchers seeking an understanding of how the complex web of plant genes work together in a systems biology view.Trade ReviewFrom the reviews:“This book includes a compendium of methods and protocols derived from functional genomics that have been developed during the last decade … . The book is organized in chapters written by leading researchers from different groups … . Large scale phenotyping is also described with protocols suitable for application in different lab conditions. … Gramene database is presented as an example of integrated information … derived from different species, providing details of the information gathered in it as well as available tools for sequence comparisons.” (Ruth Heinz and Norma Paniego, Boletin de Bibleoteca del IMYZA-INTA, Issue 26, June, 2011)Table of Contents1. Analysis of High-Throughput Sequencing Data Shrinivasrao P. Mane, Thero Modise, and Bruno W. Sobral 2. Identification of Plant MicroRNAs Using Expressed Sequence Tag Analysis Taylor P. Frazier and Baohong Zhang 3. Microarray Data Analysis Saroj K. Mohapatra and Arjun Krishnan 4. Setting Up Reverse Transcription Quantitative-PCR Experiments Madana M.R. Ambavaram and Andy Pereira 5. Virus-Induced Gene Silencing in Nicotiana benthamiana and Other Plant Species Andrew Hayward, Meenu Padmanabhan, and S. P. Dinesh-Kumar 6. Agroinoculation and Agroinfiltration: Simple Tools for Complex Gene Function Analyses Zarir Vaghchhipawala, Clemencia M. Rojas, Muthappa Senthil-Kumar, and Kirankumar S. Mysore 7. Full-Length cDNA Overexpressor Gene Hunting System (FOX Hunting System) Mieko Higuchi, Youichi Kondou, Takanari Ichikawa, and Minami Matsui 8. Activation Tagging with En/Spm-I/dSpm Transposons in Arabidopsis Nayelli Marsch-Martínez and Andy Pereira 9. Activation Tagging and Insertional Mutagenesis in Barley Michael A. Ayliffe and Anthony J. Pryor 10. Methods for Rice Phenomics Studies Chyr-Guan Chern, Ming-Jen Fan, Sheng-Chung Huang, Su-May Yu, Fu-Jin Wei, Cheng-Chieh Wu, Arunee Trisiriroj, Ming-Hsing Lai, Shu Chen, and Yue-Ie C. Hsing 11. Development of an Efficient Inverse PCR Method for Isolating Gene Tags from T-DNA Insertional Mutants in Rice Sung-Ryul Kim, Jong-Seong Jeon, and Gynheung An 12. Transposon Insertional Mutagenesis in Rice Narayana M. Upadhyaya, Qian-Hao Zhu, and Ramesh S. Bhat 13. Reverse Genetics in Medicago truncatula Using Tnt1 Insertion Mutants Xiaofei Cheng, Jiangqi Wen, Million Tadege, Pascal Ratet, and Kirankumar S. Mysore 14. Screening Arabidopsis Genotypes for Drought Stress Resistance Amal Harb and Andy Pereira 15. Protein Tagging for Chromatin Immunoprecipitation (ChIP) from Arabidopsis Stefan de Folter 16. Yeast One-Hybrid Screens for Detection of Transcription Factor DNA Interactions Pieter B.F. Ouwerkerk and Annemarie H. Meijer 17. Plant Metabolomics by GC-MS and Differential Analysis Joel L. Shuman, Diego F. Cortes, Jenny M. Armenta, Revonda M. Pokrzywa, Pedro Mendes, and Vladimir Shulaev 18. Gramene Database: A Hub for Comparative Plant Genomics Pankaj Jaiswal

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