Genetic engineering Books

Book SynopsisVery Short Introductions: Brilliant, Sharp, Inspiring In this exploration of the concept of the gene, Jonathan Slack looks at the discovery, nature, and role of genes in both evolution and development. By explaining the nature of genetic variation in the human population, how hereditary factors were identified as molecules of DNA, and how certain specific mutations can lead to disease, Slack highlights how DNA variants are used to trace human ancestry and migration, and can also be used by forensic scientists to identify individuals in crime. He also explores issues such as the role of genetic heritability and IQ as well as the changes that occur in the genes of populations during evolution.An ideal guide for anyone curious about what genes are and how genetics can be put to use, this Very Short Introduction demonstrates the ways in which the gene concept has been understood and used by molecular biologists, population biologists, and social scientists around the world. This second edition has been fully updated and contains new sections on the CRISPR method for targeted genetic modification, on DNA profiling, and developments in our understanding of human ancestry using ancient DNA.ABOUT THE SERIES: The Very Short Introductions series from Oxford University Press contains hundreds of titles in almost every subject area. These pocket-sized books are the perfect way to get ahead in a new subject quickly. Our expert authors combine facts, analysis, perspective, new ideas, and enthusiasm to make interesting and challenging topics highly readable.Trade ReviewThis is a concise and accurate account of genes and what they are in a readable and convenient format. * Sir Paul Nurse, Director, Francis Crick Institute *Unlike the genetic material itself, this book is short, sharp, and to the point. * Steve Jones, University College London *We all need to know what genes are. Slack tells us with authority, clarity and grace. * Armand Leroi, Imperial College, London *The essential guide for getting up to speed with the ever-changing and crazily complex science of genetics. * Adam Rutherford, University College London *With more heat than light in many areas surrounding genetics, it is refreshing to have such a concise, precise and matter-of-fact introduction to the field. This is strongly recommended to anyone with even a passing interest in a field set to dominate our lives. * Laurence Hurst, Director of The Milner Centre for Evolution, University of Bath *Table of ContentsPreface List of illustrations 1: Genes before 1944 2: Genes as DNA 3: Mutations and gene variants 4: Genes as markers 5: Genes of small effect 6: Genes in evolution Conclusion: the varied concepts of the gene Further reading Glossary Index

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Book SynopsisCytogenetics is the study of chromosome morphology, structure, pathology, function, and behavior. The field has evolved to embrace molecular cytogenetic changes, now termed cytogenomics. Cytogeneticists utilize an assortment of procedures to investigate the full complement of chromosomes and/or a targeted region within a specific chromosome in metaphase or interphase. Tools include routine analysis of G-banded chromosomes, specialized stains that address specific chromosomal structures, and molecular probes, such as fluorescence in situ hybridization (FISH) and chromosome microarray analysis, which employ a variety of methods to highlight a region as small as a single, specific genetic sequence under investigation. The AGT Cytogenetics Laboratory Manual, Fourth Edition offers a comprehensive description of the diagnostic tests offered by the clinical laboratory and explains the science behind them. One of the most valuable assets is its rich compilation of laboraTable of ContentsContributing authors xxvii Preface xxix Acknowledgments xxxi 1 The cell and cell division 1Margaret J. Barch and Helen J. Lawce 1.1 The cell 1 1.2 The cell cycle 14 1.3 Recombinant DNA techniques 19 1.4 The human genome 21 References 22 2 Cytogenetics: an overview 25Helen J. Lawce and Michael G. Brown 2.1 Introduction 25 2.2 History of human cytogenetics 25 2.3 Cytogenetics methods 29 2.4 Slide‐making 49 2.5 Chromosome staining 58 2.6 Chromosome microscopy/analysis 59 2.7 Laboratory procedure manual 69 References 70 Contributed protocols 75 Protocol 2.1 Slide‐making 75 Protocol 2.2 Slide‐making 76 Protocol 2.3 Making wet slides for chromosome analysis 78 Protocol 2.4 Slide‐making 82 Protocol 2.5 Slide preparation 82 Protocol 2.6 Slide preparation procedure 84 3 Peripheral blood cytogenetic methods 87Helen J. Lawce and Michael G. Brown 3.1 Using peripheral blood for cytogenetic analysis 87 3.2 Special uses of peripheral blood cultures 88 3.3 Peripheral blood constituents 89 3.4 Specimen handling 91 3.5 Cell culture equipment and supplies 93 3.6 Harvesting peripheral blood cultures 95 3.7 Chromosome analysis of peripheral blood 95 3.8 Storage of fixed specimens 95 Acknowledgments 95 References 95 Contributed protocols 98 Protocol 3.1 Blood culture and harvest procedure 98 Protocol 3.2 High‐resolution peripheral blood method 100 Protocol 3.3 Constitutional cytogenetic studies on peripheral blood 108 Protocol 3.4 Blood culture and harvest procedure for microarray confirmation studies 115 4 General cell culture principles and fibroblast culture 119Debra F. Saxe, Kristin M. May and Jean H. Priest 4.1 Definitions of a culture 119 4.2 Basic considerations in cell culture 121 4.3 Fibroblast culture 128 4.4 Lymphoblastoid cell lines 132 Glossary 132 Reference 133 Additional readings 133 Contributed protocols section 134 Protocol 4.1 Solid tissue collection for establishing cultures 134 Protocol 4.2 Solid tissue transport and sendout media 135 Protocol 4.3 Tissue culture reagents 138 Protocol 4.4 Phosphate buffer solution deficient in Ca2+ and Mg2+ 141 Protocol 4.5 Solid tissue and fibroblast culture setup 141 Protocol 4.6 Solid tissue setup and processing 142 Protocol 4.7 Flask and coverslip setup for POC/fibroblast cultures 145 Protocol 4.8 Coverslip setup for solid tissue biopsy specimens 147 Protocol 4.9 Solid tissue (fibroblast) culturing and harvesting 150 Protocol 4.10 Fibroblast culture maintenance: media feeding and changing 154 Protocol 4.11 Routine subculture of fibroblast cultures 155 Protocol 4.12 Manual harvest for flasks 157 Protocol 4.13 Treated media for contamination 158 Protocol 4.14 Fungizone–mycostatin solution for treatment of fungus/yeast contaminated cultures 158 Protocol 4.15 Mycoplasma testing 159 Protocol 4.16 Plating efficiency of serum 160 Protocol 4.17 Routine replication plating for human diploid cells 160 Protocol 4.18 Cell counting chamber method 161 Protocol 4.19 Cell viability by dye exclusion 161 Protocol 4.20 Mitotic index 161 Protocol 4.21 Growth rate‐estimation of mean population doubling time during logarithmic growth 162 Protocol 4.22 Maintenance of fibroblast cultures as non‐mitotic population 163 Protocol 4.23 Synchronization at S‐phase with BrdU 163 Protocol 4.24 Making direct FISH preparations from abortus tissue 164 Protocol 4.25 Cryopreservation 165 Protocol 4.26 Cryopreservation with Nalgene cryogenic container 166 Protocol 4.27 Lymphoblastoid lines 167 Protocol 4.28 Freezing tissue cultures (cryopreservation) 171 5 Prenatal chromosome diagnosis 173Kristin M. May, Debra F. Saxe and Jean H. Priest 5.1 Introduction 173 5.2 Amniotic fluid 173 5.3 Culture of amniotic fluid 175 5.4 Analysis of amniotic fluid 178 5.5 Chorionic villus sampling 180 5.6 Analysis of chorionic villi 184 References 186 Contributed protocols section 188 Protocol 5.1 Amniotic fluid culture setup and routine maintenance 188 Protocol 5.2 Coverslip (in situ) harvest procedure for chromosome preparations from amniotic fluid, CVS, or tissues (manual method) 191 Protocol 5.3 Harvest of flask amniocyte cultures 193 Protocol 5.4 Amniotic fluid culturing, subculturing, and harvesting (flask method) 195 Protocol 5.5 Criteria for interpreting mosaic amniotic fluid cultures 198 Protocol 5.6 Chorionic villi sampling – setup, direct harvest, and culture 199 Protocol 5.7 Chorionic villus sampling 204 Protocol 5.8 G‐Banding with Leishman’s stain (GTL) 208 Protocol 5.9 Cystic hygroma fluid protocol 209 6 Chromosome stains 213Helen J. Lawce 6.1 Introduction 213 6.2 Chromosome banding methods 220 6.3 5-bromo-2′-deoxyuridine methodologies 246 6.4 T‐banding/CT‐banding 252 6.5 Antibody banding and restriction endonuclease banding 252 6.6 Destaining slides 252 6.7 FISH DAPI bands 252 6.8 Sequential staining 253 Acknowledgments 253 References 253 Contributed protocols section 266 Protocol 6.1 Conventional Giemsa staining (unbanded) 266 Protocol 6.2 Leishman’s stain 266 Protocol 6.3 Quinacrine mustard chromosome staining (Q‐bands) 266 Protocol 6.4 C‐banding 268 Protocol 6.5 C‐banding 270 Protocol 6.6 C‐banding 271 Protocol 6.7 C‐banding of blood slides 272 Protocol 6.8 Giemsa‐11 staining technique 274 Protocol 6.9 Distamycin A/DAPI staining 275 Protocol 6.10 Chromomycin/methyl green and chromomycin/distamycin fluorescent R‐banding method 277 Protocol 6.11 Bone marrow and cancer blood G‐banding 278 Protocol 6.12 Trypsin G‐banding 280 Protocol 6.13 Giemsa‐trypsin banding with Wright stain (GTW) for suspension culture slides and in situ culture coverslips 281 Protocol 6.14 G‐banding blood lymphocyte slides 284 Protocol 6.15 Cd staining 285 Protocol 6.16 CREST/CENP antibody staining 286 Protocol 6.17 AgNOR (silver staining) 287 Protocol 6.18 Sister chromatid exchange blood culture and staining 289 Protocol 6.19 Sister chromatid exchange fibroblast culture and staining 291 Protocol 6.20 T‐banding by thermal denaturation 294 Protocol 6.21 CT‐banding 295 Protocol 6.22 Lymphocyte culture and staining procedures for late replication analysis 295 Protocol 6.23 Destaining and sequential staining of slides 298 Protocol 6.24 Restaining permanently mounted slides 299 7 Human chromosomes: identification and variations 301Helen J. Lawce and Luke Boyd 7.1 Understanding the basics 301 7.2 Description of human chromosome shapes 302 7.3 Determination of G‐banded chromosome resolution 355 8 ISCN: the universal language of cytogenetics 359Marilyn S. Arsham and Lisa G. Shaffer 8.1 Introduction 359 8.2 Language 359 8.3 Karyotype 364 8.4 Numerical events 378 8.5 Structural events 380 8.6 Derivative chromosomes (der) 394 8.7 Symbols of uncertainty 397 8.8 Random versus reportable 403 8.9 Multiple cell lines and clones 8.10 Fluorescence in situ hybridization 408 8.11 Microarray (arr) and region‐specific assay (rsa) 420 8.12 Conclusion 422 Acknowledgments 422 Addendum for ISCN 2016 updates 426 References 426 9 Constitutional chromosome abnormalities 429Kathleen Kaiser‐Rogers 9.1 Numerical abnormalities 429 9.2 Structural rearrangements 444 References 472 10 Genomic imprinting 481R. Ellen Magenis 10.1 Introduction 481 10.2 Human genomic disease and imprinting 488 10.3 Germ cell tumors – UPD and imprinting 493 Glossary 494 References 496 11 Cytogenetic analysis of hematologic malignant diseases 499Nyla A. Heerema 11.1 Introduction 499 11.2 Myeloid leukemias 508 11.3 Myelodysplastic syndromes 514 11.4 Myeloproliferative neoplasms 515 11.5 B‐ and T‐cell lymphoid neoplasms 517 11.6 Lymphomas 522 11.7 Laboratory practices 525 Acknowledgments 533 Glossary of hematopoietic malignancies 533 References 535 Contributed protocols section 553 Protocol 11.1 Cancer cytogenetics procedure 553 Protocol 11.2 Bone marrow/leukemic peripheral blood setup and harvest procedure 558 Protocol 11.3 Bone marrow and leukemic blood culture and harvest procedure using DSP30 CPG oligonucleotide/interleukin‐2 for B‐cell mitogenic stimulation 560 Protocol 11.4 Culture of CpG‐stimulated peripheral blood and bone marrow in chroniclymphocytic leukemia 562 Protocol 11.5 Plasma cell separation and harvest procedure for FISH analysis 567 Protocol 11.6 Plasma cell separation and harvest procedure for FISH 569 Protocol 11.7 Bone marrow GTG‐banding 571 Protocol 11.8 GTW banding procedure (G‐bands by trypsin using Wright stain) 573 12 Cytogenetic methods and findings in human solid tumors 577Marilu Nelson 12.1 Introduction 577 12.2 Processing tumor specimens 579 12.3 Recurrent cytogenetic abnormalities 592 12.4 Molecular genetic and cytogenetic techniques 608 12.5 Conclusion 612 Glossary 612 References 613 Contributed protocol section 631 Protocol 12.1 Solid tumor cell culture and harvest 631 Protocol 12.2 Solid tumor cell culture and harvest 637 Protocol 12.3 Solid tumor culture 643 Protocol 12.4 Solid tumor harvest: monolayer and flask methods 644 Protocol 12.5 Solid tumor culturing and harvesting 646 13 Chromosome instability syndromes 653Yassmine Akkari 13.1 Introduction 653 13.2 Fanconi anemia 656 13.3 Bloom syndrome 658 13.4 Ataxia–telangiectasia 658 13.5 Nijmegen breakage syndrome 659 13.6 Immunodeficiency, centromeric instability, and facial anomalies syndrome 660 13.7 Roberts syndrome 661 13.8 Werner syndrome 661 13.9 Rothmund–Thomson syndrome 662 13.10 Proficiency testing 662 Glossary 662 References 667 Contributed protocol section 671 Protocol 13.1 Fanconi anemia chromosome breakage procedure for whole blood 671 Protocol 13.2 Supplemental procedure; Ficoll separation of whole blood 675 Protocol 13.3 Fanconi anemia fibroblast set up, culture, subculture, and harvest procedure 676 Protocol 13.4 Fanconi anemia chromosome breakage analysis policy 681 Protocol 13.5 Table for breakage studies result interpretation 682 Protocol 13.6 Fanconi anemia 684 14 Microscopy and imaging 687Margaret J. Barch and Helen J. Lawce 14.1 The standard microscope 687 14.2 Brightfield microscopy 695 14.3 Fluorescence microscopy 697 14.4 Specialized microscopy 699 14.5 Capturing the microscopic image 701 References 703 15 Computer imaging 705Christine E. Haessig 15.1 Introduction 705 15.2 Techniques to improve karyogram image quality 705 15.3 Metaphase preparation 706 15.4 Microscopy 706 15.5 Image capture 707 15.6 Enhancement 710 15.7 Advanced contrast 710 15.8 Macro programming 712 15.9 FISH imaging 713 15.10 Printing 715 15.11 Quality control 715 15.12 Archiving 715 Acknowledgments 715 References 715 16 Fluorescence in situ hybridization (FISH) 717Helen J. Lawce and Jeffrey S. Sanford 16.1 Introduction 717 16.2 Clinical applications of FISH probes 722 16.3 Deletion/duplication probes for constitutional abnormalities 730 16.4 Hematology/oncology and solid tumor probes 734 16.5 Sources and characteristics of probes available to the clinical cytogenetics laboratory 736 16.6 Special uses of probes 738 16.7 Important FISH probe adjuvants 739 16.8 Principles of FISH 741 16.9 FISH methods – an overview 744 16.10 FISH analysis and reporting 757 16.11 FISH probe testing and validation 765 16.12 FISH for special investigation 768 16.13 Preimplantation genetic FISH 771 16.14 Other applications 776 16.15 Variants in FISH signal patterns 777 16.16 Conclusion 777 Acknowledgments 778 Glossary 778 References 780 Contributed protocols 790 Protocol 16.1 FISH (fluorescence in situ hybridization) methods 790 Protocol 16.2 LSI, CEP, and paint probe protocol 796 Protocol 16.3 FISH protocol for multiprobe® FISH panels 799 Protocol 16.4 Slide pretreatment with pepsin for FISH 800 Protocol 16.5 Interphase FISH for amniotic fluid specimen aneuploidy 801 Protocol 16.6 FISH on direct preparations from abortus tissue 803 Protocol 16.7 FISH on cultured non‐mitotic abortus tissue 804 Protocol 16.8 FISH on smears 806 Protocol 16.9 FISH on very small samples 808 Protocol 16.10 Paraffin‐embedded tissue FISH method 810 Protocol 16.11 VP2000 automated slide processor method for FFPE FISH 811 Protocol 16.12 Plasma cell targeted FISH 814 Protocol 16.13 Plasma cell separation for interphase FISH using easy SEP magnet method 815 Protocol 16.14 Preimplantation genetic testing (PGD) for aneuploidy 818 Protocol 16.15 Preimplantation genetic testing (PGD) FISH for translocations 821 Protocol 16.16 Post‐FISH BrdU antibody detection 823 Protocol 16.17 Same‐day HER2 IQ‐FISH pharmDx™ for breast tissue 824 17 Multicolor FISH (SKY and M‐FISH) and CGH 833Turid Knutsen 17.1 Introduction 833 17.2 Multicolor FISH (SKY/M‐FISH) 834 17.3 Comparative genomic hybridization 849 17.4 Conclusion 859 Acknowledgments 859 References 859 Contributed protocols section 864 Protocol 17.1 Spectral karyotyping (SKY) 864 Protocol 17.2 Spectral karyotyping (SKY) 877 Protocol 17.3 DNA spectral karyotyping 878 Protocol 17.4 Multicolor‐FISH method (M‐FISH) I 881 Protocol 17.5 Multicolor FISH (M‐FISH) or 24‐color FISH II 884 Protocol 17.6 Multicolor FISH (M‐FISH) III 888 Protocol 17.7 Comparative genomic hybridization I 891 Protocol 17.8 Comparative genomic hybridization II 898 18 Genomic microarray technologies for the cytogenetics laboratory 903Bhavana J. Davé and Warren G. Sanger 18.1 Introduction 903 18.2 Applications 907 18.3 Genomic microarray in a cytogenetics laboratory 913 18.4 Conclusion 922 Acknowledgment 922 Authors’ note 923 References 923 19 Mathematics for the cytogenetic technologist 937Patricia K. Dowling 19.1 General concepts 937 19.2 Solutions 942 19.3 Statistical tools 956 19.4 Using a hemacytometer 968 19.5 Quantification and purity determination of DNA using spectroscopy 973 Reference 974 Additional readings 974 20 Selected topics on safety, equipment maintenance, and compliance for the cytogenetics laboratory 975Helen Jenks and Janet Krueger 20.1 Introduction 975 20.2 Biological hazard safety 975 20.3 Chemical safety 980 20.4 Fire safety 986 20.5 Electrical safety 987 20.6 Disaster plan 988 20.7 Equipment operation, maintenance, and safety 988 20.8 Ergonomics 996 20.9 Regulatory considerations 998 Acknowledgments 1001 References 1001 Contributed protocols section 1003 Protocol 20.1 Autoclave sterilization, liquid nitrogen, pro‐par 1003 Protocol 20.2 Dishwashing procedure 1003 Protocol 20.3 Eppendorf pipette calibration 1004 Protocol 20.4 NIST thermometer calibration 1006 Protocol 20.5 Thermometer calibration 1008 Protocol 20.6 Timer calibration 1008 21 A system approach to quality 1011Peggy J. Stupca and Sheryl A. Tran 21.1 Quality system 1011 21.2 Process management 1013 21.3 Documents and records 1015 21.4 Assessments 1018 21.5 Continual improvement 1022 21.6 Summary 1023 References 1023 Contributed protocols section 1025 Protocol 21.1 Quality control overview document 1025 Protocol 21.2 Monitoring specimen quality from off‐hill sites 1030 22 Laboratory management 1031Mervat S. Ayad and Adam Sbeiti 22.1 Introduction 1031 22.2 Management concepts and functions 1032 22.3 Personnel management 1033 22.4 Quality management and control 1036 22.5 Budget development and monitoring 1039 22.6 Conclusion 1043 References 1043 Suggested reading 1043 23 Laboratory information system 1045Peining Li and Richard Van Rheeden 23.1 Historical perspective 1045 23.2 General description of LIS 1045 23.3 LIS in cytogenetics laboratories 1048 23.4 Trends for the future LIS 1051 Acknowledgments 1052 References 1052 24 Animal cytogenetics 1055Marlys L. Houck, Teri L. Lear and Suellen J. Charter 24.1 Introduction 1055 24.2 Domestic animal fertility 1056 24.3 Captive management 1057 24.4 Wildlife conservation 1059 24.5 General sample collection considerations 1060 24.6 Fibroblast cell culture 1062 24.7 Peripheral blood culture 1063 24.8 Chromosome analysis 1064 24.9 Molecular and comparative cytogenetics 1070 Acknowledgments 1071 Glossary 1072 References 1072 Contributed protocol section 1078 Protocol 24.1 Blood feather collection 1078 Protocol 24.2 Avian lymphocyte culture (for large birds) 1078 Protocol 24.3 Lymphocyte culture using whole blood 1084 Protocol 24.4 Lymphocyte culture using autologous plasma/buffy coat (AP/BC) 1085 Protocol 24.5 Horse lymphocyte culture method 1087 Protocol 24.6 Rhino blood culture 1089 Protocol 24.7 Organ tissue collection protocol from carcass 1090 Protocol 24.8 Skin biopsy procedure 1090 Protocol 24.9 Placenta biopsy procedure 1091 Protocol 24.10 Freezing of fibroblast cell cultures 1092 Protocol 24.11 Freezing tissue biopsy samples for later initiation of cell culture (tissue piecing) 1094 Protocol 24.12 Preparation of primary cultures from feather pulp 1095 Protocol 24.13 Preparation of primary cultures from solid tissue (explants) 1096 Protocol 24.14 Preparation of primary cultures using enzyme digestion 1097 Protocol 24.15 Harvesting of fibroblast cell cultures 1098 Protocol 24.16 Preparation of competitor DNA for FISH hybridization 1099 Protocol 24.17 In situ hybridization of BAC clones labeled with spectrum fluorochromes: probe and slide preparation 1100 Protocol 24.18 Labeling DNA with spectrum fluorochromes 1102 25 Online genetic resources and references 1103Wahab A. Khan 25.1 Introduction 1103 25.2 Resource information 1103 Index 1113

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Book SynopsisIn 2001 the Human Genome Project succeeded in mapping the DNA of humans. This landmark accomplishment launched the field of genomics, the integrated study of all the genes in the human body and the related biomedical interventions that can be tailored to benefit a person''s health. Today genomics, part of a larger movement toward personalized medicine, is poised to revolutionize health care. By cross-referencing an individual''s genetic sequence -- their genome -- against known elements of Big Data, elements of genomics are already being incorporated on a widespread basis, including prenatal disease screening and targeted cancer treatments. With more innovations soon to arrive at the bedside, the promise of the genomics revolution is limitless. This entry in the What Everyone Needs to Know series offers an authoritative resource on the prospects and realities of genomics and personalized medicine. As this science continues to alter traditional medical paradigms, consumers are faced with additional options and more complicated decisions regarding their health care. This book provides the essential information everyone needs.Trade Review"Michael Snyder's Personalized Medicine: What Everyone Needs to Know is a very readable introduction to current developments in science, illustrated with multiple examples of individual cases." - European Journal of Health LawTable of ContentsAcknowledgements Introduction 1: Personalized Medicine What is personalized medicine? What personal factors impact your health? 2: Genome Fundamentals What is DNA? What is a genome? What does the genome do? How does one person's genome differ from another person's genome? How do genomes of men and women differ? How is the genome decoded? 3: An Introduction to Cancer Genetics What is cancer and how does it arise? How do the BRCA1 and BRCA2 genes cause cancer? What are examples of other genes implicated in cancer? How does genetic information help us treat cancer? 4: Genomics and Cancer Treatment What has been learned from genome sequencing of cancer? How can genome sequencing advance cancer treatment? If I have cancer should I get my tumor genome sequenced? Why do anticancer drugs fail and how might genomic approaches help address this issue? Can genetics and genomics help detect early cancer and monitor treatment effectiveness? A new approach: What is immunotherapy? How can genomics be used to harness the patient's own immune system to fight their cancer? 5: Solving Mystery Diseases What is a mystery genetic disease? How many Mendelian diseases are there? How are genes responsible for genetic disorders identified? How useful are genomic approaches to solving mystery genetic diseases? Why can't most Mendelian diseases be solved? 6: Complex genetic diseases What is a complex genetic disease? How do complex genetics affect neurological diseases? How does complex genetics affect metabolic diseases? Can some diseases be both monogenic and complex? 7: Pharmacogenomics How can your genome directly help guide drug treatments for treating disease? What are other ways your DNA can guide drug treatments Are there sex differences in drug effects? 8: Genomics for the Healthy Person How can getting your genome sequence improve your health? Can genome sequencing affect the drugs someone take? Can genetic testing be used to predict sports performance and injuries? Will sequencing my genome affect my children and my relatives? 9: Prenatal Testing How are genome sequencing technologies changing prenatal testing? Can genome sequencing be used to identify other mutations, beyond chromosomal abnormalities, that might cause disease? Can genetic testing be useful for choosing healthier embryos and producing designer babies? 10: Effects of the environment on the genome and epigenetics How does the environment contribute to health? When did people first begin to study environmental effects? When do environmental effects begin? Can environmental factors directly impact the genome? What is epigenetics? What are some examples of environmental effects on physiology that are mediated through epigenetics? What is the role of epigenetics in disease? How will increased understanding of epigenetics impact health care? 11: Other 'Omes What other 'omes are useful for medicine? How can the transcriptome and proteome be useful? How can the metabolome be useful? How deeply can a person be analyzed? 12: The personal microbiome What is the microbiome? How is the microbiome studied? How does the microbiome affect health? How does diet affect the microbiome? Can the microbiome affect other aspects of our lives? Can the microbiome be altered to improve human health? 13: Your Immune System and Infectious Diseases How does your immune system protect you? How does the immune system vary among people and affect our health? How can we analyze infectious diseases? 14: How does age affect your health? Are there genetic factors underlying longevity? Are there environmental factors that affect aging and longevity? Does epigenetics control aging? Will we someday be able to control our aging? 15: Wearable Health Devices What other types of personal health information can be readily collected? How will this information be made available to, and used by, the individual? 16: Big Data and medicine How much data can be gathered about a single person? How much data can be gathered about a group of people? How can a large database assist in medical care? How can Big Data guide lifestyle decisions? What are the opportunities for industry in Big Data Medicine? 17: Delivery of genomic information Who controls your genomic and other health information? Who will deliver genomic information to you? What is the role of the physician? What are the implications of direct-to-consumer genomic testing? 18: Ethics Can your genetic information be used against you? What are the concerns surrounding routine (or even mandated) genetic screening? What is a possible solution? 19: Education Can we educate people to understand genomic information? How do we educate physicians to understand genomic information Who else should we educate? What is the role of health care providers, insurers and policy makers? 20: Privacy: Identifying people from their sequences. Can people be identified solely from the genome sequence? Will getting my genome sequenced affect my family members? 21: Paying for personalized medicine Who pays for genome sequencing in treating disease? Who pays for genome sequencing in preventive medicine? Will genome sequencing make health care cheaper? Will people act on genomic information? 22: The future of personalized medicine What other technologies will be prevalent in the personalized medicine space? What will the future look like? Index

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Book SynopsisThis two-volume textbook provides a comprehensive overview on the broad field of Animal Biotechnology with a special focus on livestock reproduction and breeding. The reader will be introduced to a variety of state-of-the-art technologies and emerging genetic tools and their applications in animal production. Also, ethics and legal aspects of animal biotechnology will be discussed and new trends and developments in the field will be critically assessed. The two-volume work is a must-have for graduate students, advanced undergraduates and researchers in the field of veterinary medicine, genetics and animal biotechnology.This first volume mainly focuses on artificial insemination, embryo transfer technologies in diverse animal species and cryopreservation of oocytes and embryos. Trade Review“This book is of interest to academicians and researchers in the various disciplines of life sciences, agricultural sciences, medicine, and biotechnology in universities, research institutions, and biotechnology industries. … the book achieves its goal of providing an overview of the new developments in assisted reproductive technologies.” (Juanmahel Davila, Doody's Book Reviews, July 05, 2019)Table of Contents1. Evolution of animal breeding and animal biotechnology H. Niemann and R.F. Seamark 2. Future Agricultural Animals: The Need for Biotechnology G. Seidel 3. Artificial insemination in domestic and wild animal species D. Waberski 4. Technique and Application of Sex Sorted Sperm in Domestic Farm Animals D. Rath and C. Maxwell 5. ET-technologies in domestic cattle G. Bo and R Mapletoft6. ET-technology in small ruminants S. Ledda and A. Gonzalez-Bulnes7. ET-technology in domestic pigs C. Youngs 8. ET-technologies in horses H. Sieme, J. Rau, D. Tiedemann, H. Oldenhof, L. Barros, R. Sanchez, M. Blanco, G.Martinsson, C. Herrera, D. Burger9. Endoscopy in Cattle Reproduction V. Havlicek, G. Brem, U. Besenfelder10. Transvaginal ultrasound-guided oocyte retrieval (OPU: Ovum Pick-Up) in cows and mares P. Bols and T. Stout11. Preservation of Gametes and Embryos A. Arav and J. Saragusty12. In vitro production of farm animal embryos C. Wrenzycki

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Book SynopsisThe increasing integration between gene manipulation and genomics is embraced in this new book, Principles of Gene Manipulation and Genomics, which brings together for the first time the subjects covered by the best-selling books Principles of Gene Manipulation and Principles of Genome Analysis & Genomics. Comprehensively revised, updated and rewritten to encompass within one volume, basic and advanced gene manipulation techniques, genome analysis, genomics, transcriptomics, proteomics and metabolomics Includes two new chapters on the applications of genomics An accompanying website - www.blackwellpublishing.com/primrose - provides instructional materials for both student and lecturer use, including multiple choice questions, related websites, and all the artwork in a downloadable format. An essential reference for upper level undergraduate and graduate students of genetics, genomics, molecular biology and recombinant DNA technoTrade Review"Principles of Gene Manipulation and Genomics is well written and clearly illustrated throughout, as would be expected from these authors who have considerable experience in this subject." Genetical ResearchTable of ContentsPreface. 1. Gene Manipulation in the Post-Genomics Era. Part I: Fundamental Techniques of Gene Manipulation:. 2. Basic Techniques. 3. Cutting and Joining DNA Molecules. 4. Basic Biology of Plasmid and Phage Vectors. 5. Cosmids, Phasmids and Other Advanced Vectors. 6. Gene Cloning Strategies. 7. Sequencing Genes and Short Stretches of DNA. 8. Changing Genes: Site-directed Mutagenesis and Protein Engineering. 9. Bioinformatics. Part II: Manipulating DNA in Microbes, Plants and Animals:. 10. Cloning in Bacteria Other Than Escherichia coli. 11. Cloning in Saccharomyces cerevisiaea and Other Fungi. 12. Gene Transfer to Animal Cells. 13. Genetic Manipulation of Animals. 14. Gene Transfer to Plants. 15. Advanced Transgenic Technology. Part III: Genome Analysis, Genomics and Beyond:. 16. The Organization and Structure of Genomes. 17. Mapping and Sequencing Genomes. 18. Comparative Genomics. 19. Large-Scale Mutagenesis and Interference. 20. Analysis of the Transcriptome. 21. Proteomics I – Expression Analysis and Characterization of Proteins. 22. Proteomics II – Analysis of Protein Structures. 23. Proteomics III – Protein Interactions. 24. Metabolomics and Global Biochemical Networks. Part IV: Applications of Gene Manipulation and Genomics:. 25. Applications of Genomics: Understanding the Basis of Polygenic Disorders and Identifying Quantitative Trait Loci. 26. Applications of Recombinant DNA Technology. Index

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Book SynopsisGenetic breakthroughs present us with a predicament: is it wrong to re-engineer our nature? Sandel explores the moral quandaries surrounding the quest to perfect ourselves and our children. He concludes that the pursuit of perfection is flawed for reasons beyond safety and fairness; it also suggests a failure to appreciate human achievements.Trade ReviewThe Case against Perfection by Michael Sandel is a brief, concise, and dazzling argument by one of America’s foremost moral and political thinkers that brings you up to speed on the core ethical issues informing current debates about genetic engineering and stem cell research. -- Gabriel Gbadamosi * BBC Radio *Sandel’s arguments ultimately speak to our gut-level qualms about enhancement; and his aim in fact is to give these qualms a coherent moral basis… His book in the end is more a lyrical plea for reverence and humility than a lawyer’s watertight ‘case against.’… The ethicist Michael Sandel wants us at least to think about the line [between health and enhancement], however imaginary—and to think about where, in a hyper-competitive world, re-engineering our natures will ultimately lead. -- Michele Pridmore-Brown * Times Literary Supplement *Michael Sandel‘s dive into the sea of genetic engineering provides a great tasty gulp of contemporary ethical controversy. Quickly read, The Case against Perfection is nonetheless dense with challenging quandaries, loaded with moral puzzles and filled with facts. An inveterate highlighter, I underlined half the book. -- John F. Kavanaugh * America *In the future, genetic manipulation of embryos is expected to have the potential to go beyond the treatment of diseases to improvements: children who are taller, more athletic, and have higher IQs… In The Case against Perfection, Michael Sandel argues that the unease many people feel about such manipulations have a basis in reason… This beautifully crafted little book…quickly and clearly lays out the key issues at stake. -- Gregory M. Lamb * Christian Science Monitor *Given the vast gulf between progressive and conservative thinking, the time is ripe for a philosopher to take on the issues of biotechnology. And in The Case against Perfection Harvard’s Michael Sandel does just that, attempting to develop a new position on biotechnology, one that, like Sandel himself, is not easily identified as either left or right. A former member of the President’s Council on Bioethics, Sandel is uniquely well suited for this task, and to challenge the left to get its bearings on the brave new biology… Sandel poses an important challenge to contemporary progressives who have failed to grasp the importance of the emerging biopolitics. -- Jonathan Moreno * Democracy *In a highly readable, wise and little book titled The Case against Perfection: Ethics in the Age of Genetic Engineering, Michael Sandel argues that parents’ quest to create the ideal child reflects a drive for mastery and domination over life. -- Douglas Todd * Vancouver Sun *Anyone who thinks our culture is too competitive and consumer-driven should find that Sandel’s diagnosis resonates. He provides not only a warning about the shape of the future, but equally an indictment of—or at least a call to examine—our individual moral lives and our contemporary social values. Those who support the practice of genetic enhancement argue that the technology is not substantially different from other forms of ‘enhancement’ we use to improve our lives and the lives of our children. Sandel agrees, but he does not base his argument on any particular distinction about the means of enhancement; rather he is deeply concerned about the underlying impetus of mastery and dominion. -- Debra Greenfield * Bioethics Forum *For many years I have been ambivalent about reproductive innovations, from surrogate gestation to preimplantation screening for gender selection. After reading Sandel’s exceedingly elegant little book, The Case against Perfection: Ethics in the Age of Genetic Engineering, I could finally put satisfactory names to core values implicit in my hesitation: acceptance and solidarity. I encountered Sandel’s book as a participant in the intellectual discourse about parenting. But the book’s greatest value to me was its validation of the commitments of solidarity expressed in my volunteer work on behalf of poor mothers and of acceptance implicit in my determination to mother a child with catastrophic mental illness. -- Anita L. Allen * Chronicle of Higher Education *[Sandel] makes the compelling case that gentic engineering to gain advantage for ourselves and our children is deeply disempowering, because it turns us away from the communal good, toward self-centered striving. -- Anne Harding * The Lancet *[A] graceful and intelligent new book. -- Carl Elliott * New England Journal of Medicine *Nobody’s perfect, and Mr. Sandel’s book makes an instructive and engaging case that that nobody should be. -- Yuval Levin * New York Sun *In this short and provocative treatise, Sandel, who is professor of government at Harvard and a member of the President’s Council on Bioethics, takes on the question of why certain kinds of newly available genetic technologies make us uneasy…[his] book reminds us that the proper starting point for bioethics is not, ‘what should we do?’ but rather, ‘what kind of society do we want?’ And ‘what kind of people are we?’ -- Faith McLellan * The Scientist *An illuminating ethical analysis of stem-cell research concludes this stellar work of public philosophy. -- Ray Olson * Booklist *This rather small book presents, in very succinct fashion, many of the arguments against proposals to bioengineer human life. Sandel…argues with care and clarity not only against the more extreme cases such as human cloning, but also against the more modest proposals of gene modification. As the title suggests, the arguments are almost exclusively negative, although Sandel’s most interesting and creative suggestion is the idea that such human bioengineering will cause human beings to lose the sense of life as a ‘gift,’ and that this will have a serious morally negative effect upon the entire social structure. -- P. A. Streveler * Choice *Sandel explores a paramount question of our era: how to extend the power and promise of biomedical science to overcome debility without compromising our humanity. His arguments are acute and penetrating, melding sound logic with compassion. We emerge from this book feeling edified and inspired. -- Jerome Groopman, Harvard Medical School, author of How Doctors ThinkWe live in a world, says Michael Sandel, where ‘science moves faster than moral understanding.’ But thanks to Sandel, moral understanding is catching up. Cloning, stem cell research, performance-enhancing drugs, pills that make you stronger or taller: if some scientific development bothers you, but you can’t explain why, Michael Sandel will help you to figure out why you’re troubled. And then he’ll tell you whether you should be. -- Michael KinsleyTable of Contents1. The Ethics of Enhancement 2. Bionic Athletes 3. Designer Children, Designing Parents 4. The Old Eugenics and the New 5. Mastery and Gift Epilogue. Embryo Ethics: The Stem Cell Debate Notes Index

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Book SynopsisFundamental to any livestock improvement programme by animal scientists, is the prediction of genetic merit in the offspring generation for desirable production traits such as increased growth rate, or superior meat, milk and wool production. Covering the foundational principles on the application of linear models for the prediction of genetic merit in livestock, this new edition is fully updated to incorporate recent advances in genomic prediction approaches, genomic models for multi-breed and crossbred performance, dominance and epistasis. It provides models for the analysis of main production traits as well as functional traits and includes numerous worked examples. For the first time, R codes for key examples in the textbook are provided online. The book covers: - The relationship between the genome and the phenotype. - BLUP models for various livestock data and structure. - Incorporation of related ancestral parents and metafounders in prediction models. - Models for survival analysis and social interaction. - Advancements in genomic prediction approaches and selection. - Genomic models for multi-breed and crossbred performance. - Models for non-additive genetic effects including dominance and epistasis. - Estimation of genetic parameters including Gibbs sampling approaches. - Computation methods for solving linear mixed model equations. Suitable for graduate and postgraduate students, researchers and lecturers of animal breeding, genetics and genomics, this established textbook provides a thorough grounding in both the basics and in new developments of linear models and animal genetics.Table of Contents1: The Genome and phenotypes 2: Genetic evaluation with different sources of records 3: Genetic covariance between relatives 4: Best linear unbiased prediction of breeding value: univariate models with one random effect 5: Best linear unbiased prediction of breeding value: Models with random environmental effects 6: Best Linear unbiased prediction of breeding value: Multivariate models 7: Methods to reduce the dimension of multivariate models 8: Maternal traits models: Animal and reduced animal Models 9: Social interaction models 10: Analysis of longitudinal data 11: Genomic prediction and selection 12: Single-step approaches to genomics 13: Non-additive animal models 14: Genetic and genomic models for multibreed and crossbred analyses 15: Analysis of ordered categorical traits 16: Survival analysis 17: Estimation of genetic parameters 18: Use of Gibbs sampling in variance component estimation and breeding value prediction 19: Solving linear equations

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Book SynopsisDNA, once the exclusive domain of scientists in research labs, is now the darling of popular and social media. With personal genetic testing kits in homes and GMO foods in stores, DNA is an increasingly familiar term. Unfortunately, what people know, or think they know, about DNA and genetics is often confused or incorrect. Contrary to popular belief, for instance, genes don''t skip a generation and, no, human DNA is not different from DNA of other species. With popular misconceptions proliferating in the news and on the internet, how can anyone sort fact from fiction? DNA Demystified satisfies the public appetite for and curiosity about DNA and genetics. Alan McHughen, an accomplished academic and public science advocate, brings the reader up-to-speed on what we know, what we don''t, and where genetic technologies are taking us. The book begins with the basic groundwork and a brief history of DNA and genetics. Chapters then cover newsworthy topics, including DNA fingerprinting, using DNA in forensic analyses, and identifying cold-case criminals. For readers intrigued by the proliferation of at-home DNA tests, the text includes fascinating explorations of genetic genealogy and family tree construction-crucial for people seeking their biological ancestry. Other chapters describe genetic engineering in medicine and pharmaceuticals, and the use of those same technologies in creating the far more controversial GMOs in food and agriculture. Throughout, the book raises provocative ethical and privacy issues arising from DNA and genetic technologies.With the author''s comprehensive expertise, DNA Demystified offers an informal yet authoritative guide to the genetic marvel of DNA.Trade ReviewThis will be a handy review for graduate students preparing for their qualifying oral exams and the author takes the time to understand the opposing views to DNA in agricultural, pharmaceutical, medical, or other applications of DNA in our lives. * Elof Axel Carlson, Biochemistry & Cell Biology, Stony Brook University, The Quarterly Review of Biology *DNA Demystified is perfect for the amateur science enthusiast who is fascinated by everything that touches on DNA, from forensics to genetic disease markers to family genealogy. Full of detail fascinating stories, this is ultimately an absorbing read. * Nina Fedoroff, Penn State University *Alan McHughen has superbly explained everything we know about DNA, the beautiful and ingenious coding device at the heart of life. This is a very useful book for all those who fear they cannot understand the science of DNA: they will soon find that they can and it's fascinating. * Matt Ridley, author of Genome: The Autobiography of a Species in 23 Chapters *A highly engaging book that explains the basic process of how genes work and the impact that current advances in DNA research has had on medicine, agriculture, and law, in simple and elegant terms. This wonderful book is designed for those who want to understand what DNA is and how it is changing our lives, with much promise and peril along the way. I found reading Alan McHughen's book a delightful and informative journey into the world of DNA. * Bob Goldberg, UCLA and Member of US National Academy of Sciences *Table of ContentsDedication Acknowledgements Preface Introduction Chapter 1 Foundations Chapter 2 DNA 101 Chapter 3 Human DNA Chapter 4 Practical Applications Chapter 5 Personal DNA and Genomics Chapter 6 Medical and Health applications Chapter 7 Genetic Genealogy Chapter 8 DNA Tests for Genealogy Chapter 9 Which company? Chapter 10 Genetic Engineering and GMOs Chapter 11 Ethical dilemmas Chapter 12 Fighting Mother Nature? Endnotes Glossary

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Book SynopsisA comprehensive introduction to modern applied statistical genetic data analysis, accessible to those without a background in molecular biology or genetics.Human genetic research is now relevant beyond biology, epidemiology, and the medical sciences, with applications in such fields as psychology, psychiatry, statistics, demography, sociology, and economics. With advances in computing power, the availability of data, and new techniques, it is now possible to integrate large-scale molecular genetic information into research across a broad range of topics. This book offers the first comprehensive introduction to modern applied statistical genetic data analysis that covers theory, data preparation, and analysis of molecular genetic data, with hands-on computer exercises. It is accessible to students and researchers in any empirically oriented medical, biological, or social science discipline; a background in molecular biology or genetics is not required.The book first pro

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Book SynopsisFinally meeting the need for a laboratory manual on human genetics, this practical guide is the perfect companion title to all major standard textbooks on the subject. The authors all have a high-level research background and are actively involved in teaching and counseling. Based on a standard curriculum in human genetics, each chapter equals one practical unit of the course and topics range from basics in human inheritance to genetics in major disease clusters and from bioinformatics and personalized medicine to genetic counseling.Table of ContentsAbout the Authors xi Introduction xv 1 Exploring Online Genetics Sources 1 Background 1 Human Genome Project 2 National Center for Biotechnology Information (NCBI) 2 UCSC Genome Browser 3 The Encyclopedia of DNA Elements (ENCODE) 3 Roadmap Epigenomic Project 5 References 5 Exercise Questions 6 Additional Exercise Questions 11 2 Observation of Human Inheritance 13 Background 13 Mendelian Genetics 13 The Transmission of Hereditary Characteristics 16 Mendelian Disorders 19 References 20 Exercise Questions 21 Additional Exercise Questions 22 3 Reading, Understanding, and Constructing Human Pedigrees 25 Background 25 Basic Pedigree Nomenclature 26 Modes of Inheritance 26 Autosomal Recessive Inheritance 28 Pedigrees Representing Autosomal Recessive Inheritance 28 Autosomal Dominant Inheritance 29 Pedigrees Representing Autosomal Dominant Inheritance 30 X-Linked Recessive Inheritance 30 Pedigrees Representing X-Linked Recessive Inheritance 31 X-Linked Dominant Inheritance 32 Pedigrees Representing X-Linked Dominant Inheritance 32 Y-Linked Inheritance 34 Pedigrees Representing Y-Linked Inheritance 34 Non-Mendelian Patterns of Inheritance 35 Confounding Factors in Pedigree Generation and Interpretation 36 References 36 Exercise Questions 38 Additional Exercise Questions 39 4 Cytogenetics 43 Background 43 Generation of Karyograms/Chromosome Banding 45 FISH, Fluorescent In Situ Hybridization 47 Comparative Genomic Hybridization (CGH) and Array-Based CGH Technology 48 Chromosomal Abnormalities 48 Numerical Chromosomal Abnormalities 49 Structural Chromosomal Abnormalities 50 References 51 Exercise Questions 52 Additional Exercise Questions 54 5 Exploring DNA, RNA, and Protein Sequence Databases and Genome Browsers 55 Background 55 General Biological Databases 57 RNA-Specific Databases 59 Protein-Specific Databases 61 Regulatory DNA Database 62 Genome Browsers 65 References 67 Exercise Questions 67 Additional Exercise Questions 68 6 Exploring Online Bioinformatics Tools 71 Background 71 BLAST 71 ExPASy 72 Clustal Omega 74 Reactome 76 References 77 Exercise Questions 77 Additional Exercise Questions 79 7 Multifactorial Inheritance and Common Complex Diseases 81 Background 81 Polygenic Complex Diseases 82 Investigating Complex Traits 82 Obesity as a Complex Disease 83 Diabetes Mellitus Type 2 as a Complex Disease 84 Coronary Artery Diseases as Complex Diseases 85 References 86 Exercise Questions 88 Additional Exercise Questions 88 8 Neurogenetics and Behavioral Genetics 91 Background 91 Genetic Regulation of Neural Development 91 Structure and Function of the Nervous System 92 Understanding the Genetics of Neurological Disease 94 Examples of Neurogenetic Disorders 94 Huntington’s Disease 94 Parkinson’s Disease 95 Rett Syndrome 95 Behavioral Genetics 96 Genetics of Depression 97 Genetics of Drug Addiction 97 Genetics of Schizophrenia 98 References 99 Exercise Questions 100 Additional Exercise Questions 101 9 Cancer Genetics 103 Background 103 Cell Cycle and Its Regulation 104 Oncogenes and Tumor Suppressor Genes 105 Carcinogens/Environmental Factors in Cancer 107 Breast Cancer 108 Role of Molecular Medicine in Breast Cancer Treatment 110 Recent Advances in Cancer Diagnosis and Treatment 111 References 112 Exercise Questions 113 Additional Exercise Questions 114 10 Genetic Counseling 115 Background 115 References 117 Exercise Questions 117 Additional Exercise Questions 119 11 Evolving Tools in Genome Editing: CRISPR-Cas 121 Background 121 Mechanism of CRISPR-Cas9 System 123 Applications of CRISPR-Cas9 System 123 Generation of Animal Models and Engineering Cells 123 Somatic Genome Editing 124 Repair of Genetic Disorders 124 Functional Genomic Screening 124 Treatment of Infectious Diseases 125 Other Applications of CRISPR-Cas9 System 125 References 126 Acknowledgment 127 Exercise Questions 127 Additional Exercise Questions 128 Glossary 129 Index 139

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Book SynopsisCharlie Gordon, IQ 68, is a floor sweeper and the gentle butt of everyone''s jokes - until an experiment in the enhancement of human intelligence turns him into a genius. But then Algernon, the mouse whose triumphal experimental transformation preceded his, fades and dies, and Charlie has to face the possibility that his salvation was only temporary.Winner of the 1960 Hugo Award for Best Short Story, and subsequently expanded into a Hugo-nominated novel, Flowers for Algernon earned Daniel Keyes the honour of SFWA Author Emeritus in 2000 for his contribution to Science Fiction and Fantasy.''Heartbreaking and beautiful. Required reading, as far as I am concerned'' - Wil Wheaton''A masterpiece of poignant brilliance . . . heartbreaking, and utterly, completely brilliant'' - The Guardian''Excellent . . . extremely moving'' - The Encyclopedia of Science FictionWelcome to The Best Of The Masterworks: a selection ofTrade ReviewThis is one of the greats: a story and a central character that have stayed with me for thirty years, from the first moment I picked it up * Conn Iggulden *A masterpiece of poignant brilliance . . . heartbreaking, and utterly, completely brilliant * Guardian *A timeless tearjerker * Independent *Excellent . . . extremely moving * The Encyclopedia of Science Fiction *Unflinchingly honest . . . it will make you reflect on your own life . . . and completely and utterly break your heart * Guardian Online *A narrative tour de force, very moving, beautiful and remorseless in its simple logic * Science Fiction, 100 Best Novels *Strikingly original * Publishers Weekly *A tale that is convincing, suspectful and touching * New York Times *

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Book SynopsisThe Anthropocene defines the here-and-now time period on Earth of indelible (and possibly irreversible) human disturbance to the natural world, from habitat destruction and mass extinction to global climate change. To ameliorate and repair the damage that threatens the world''s dwindling resources and our very existence, humanity is enacting massive interventions to fuse modern technologies with long established natural processes. Advances in genetic engineering have put us on the cusp of directly shaping the DNA of every living organism (including ourselves), as well as determining the evolution of completely novel species. The author invites the reader to explore how humans have manipulated the ancient forces of evolution and the future possibilities of genetic engineering for conservation and rewilding, de-extinction, and even the creation of viable populations of entirely new species. To entertain such possibilities of synthetic biology, he forces us to wrestle with the threats and ethical conundrums that surround the unintended consequences, as well as the values that humanity places on authenticity in nature. In so doing, this accessible and thought-provoking book explores the potential future of life on planet Earth.Trade ReviewCutter presents us with a wonderfully stimulating book, elegantly weaving in personal narratives, natural history examples, and inspiring thought experiments. * Mohamed Noor, Professor of Biology and Interim Vice Provost for Academic Affairs, Duke University *This book is a must-read for anyone curious about the potential of genetic technologies to control the very fate of nature, itself. And if you happen to be someone who wants to build a dragon from scratch, then it's a good book for you, too! * Daniel Riskin, Adjunct Professor, University of Toronto Mississauga, TV Host, and Producer *An excellent primer for anyone hoping to understand how today's biotechnologies - and the way we choose to use them - have the power to change all of life on Earth. * Beth Shapiro, Professor, University of California, Santa Cruz. Author of How to Clone a Mammoth and Life As We Made It *A highly enjoyable and thought-provoking book about the ways in which timeless biological processes and ever more powerful human tinkering are, together, shaping the evolutionary future. * Rob Dunn, Professor, North Carolina State University *Very well written, this book contributes to the understanding of genetic editing and the significant changes that may result from it. Essential. All readership levels. * Choice *Table of ContentsPreface Part 1: The Hearts of Nature 1: Nature in the raw, and cooked 2: Selection, naturally and otherwise 3: Ancient forces 4: Evolution's racetracks 5: Evolutionary accelerants and speed bumps 6: Carjacking genetics 7: Genetic welding 8: On the origin of species 9: Do-it-yourself speciation 10: Ongoing evolutionary outcomes Part 2: Evolutionary Futures 11: How to evolve a dragon 12: Evolutionary engineering in the flesh 13: Nature, rewilded 14: When nature comes to call 15: Inspection by the department of health, safety, and ethics 16: When we become dragons 17: A midnight coterie of transcendent fauna

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Book SynopsisIf you could bring back just one animal from the past, what would you choose?It can be anyone or anything from history, from the King of the Dinosaurs, T. rex, to the King of Rock n' Roll, Elvis Presley, and beyond. De-extinction the ability to bring extinct species back to life is fast becoming reality. Around the globe, scientists are trying to de-extinct all manner of animals, including the woolly mammoth, the passenger pigeon and a bizarre species of flatulent frog. But de-extinction is more than just bringing back the dead. It's a science that can be used to save species, shape evolution and sculpt the future of life on our planet.In Bring Back the King, scientist and comedy writer Helen Pilcher goes on a quest to identify the perfect de-extinction candidate. Along the way, she asks if Elvis could be recreated from the DNA inside a pickled wart, investigates whether it's possible to raise a pet dodo, and considers the odds of a 21st century Neanderthal turning headTrade ReviewPilcher's wit shines through ... You will be left with a newfound respect for conservationists' hands-on methods of preserving genetic material. * Sunday Times *A friendly tour of genetics and cloning, with a bit of history thrown in. * Wall Street Journal *Science at its funniest! -- Sara Pascoe, writer and comedianIs likely to make you think and chuckle in equal measure. * How it Works *A fluid and witty writer; up there with Bill Bryson. -- Dr Karl Kruszelnicki, science commentator, author and presenterBlending the very latest de-extinction technology with cloning, and hard-core popular science with levity, this charming book will generate a lot of thoughtful discussion and a chuckle or two. * Forbes.com *Leaping off the page are insights into many charismatic and neglected species, and the amazing humans who fight to preserve our future. This revolution will inspire our generation the way that voyages of the Beagle and Apollo have before it. -- George Church, Professor of Genetics at Harvard Medical School and Director of PersonalGenomes.orgPilcher asks provocative questions about both the nature of science and what it means to be human. * Publisher's Weekly *Table of ContentsPreface Introduction: Bringin' It Back 1. King of the Dinosaurs 2. King of the Cavemen 3. King of the Ice Age 4. King of the Birds 5. King of Down Under 6. King of Rock 'n' Roll 7. Blue Christmas 8. I Just Can't Help Believing 9. Now You See It ... Key References: A Little Less Conversation a Little More Reading Acknowledgements Index

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Book SynopsisThe recent research into using the CRISPR gene-editing technology to change genetic coding in an organism’s DNA has generated tremendous public interest, but where is this technology going? In this issue of The Reference Shelf we look at gene editing and genetic engineering, drawing from periodicals, medical reports, and politics to see how this debate is progressing within popular culture. Issues investigated will include engineering new organisms, the potential for medical breakthroughs, the ethics of altering the human genome, and the campaign to bring back the dinosaurs.

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Book Synopsis'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. It’s also funny and smart. Far from a how-to guide for ne’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.

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Book SynopsisThis book won the INDIEFAB 2015 Bronze Award for Science (Adult nonfiction).Genetically modified organisms (GMOs) including plants and the foods made from them, are a hot topic of debate today, but soon related technology could go much further and literally change what it means to be human. Scientists are on the verge of being able to create people who are GMOs.Should they do it? Could we become a healthier and 'better' species or might eugenics go viral leading to a real, new world of genetic dystopia? GMO Sapiens tackles such questions by taking a fresh look at the cutting-edge biotech discoveries that have made genetically modified people possible.Bioengineering, genomics, synthetic biology, and stem cells are changing sci-fi into reality before our eyes. This book will capture your imagination with its clear, approachable writing style. It will draw you into the fascinating discussion of the life-changing science of human genetic modification.Table of ContentsIntroduction: GMO OMG; The History of GMOs; GMO People; The Possible Risks of GMO People; The Potential Benefits of Human Genetic Modification; The Cloning Connection; Stem Cells and GMOs; GMO Sapien Economics; Gene Therapy; GMO People in Pop Culture; GMO Myths; Big Green Men: Designer People and Eugenics; The Ethics of Human Genetic Modification;

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Book SynopsisEarly characterization of toxicity and efficacy would significantly impact the overall productivity of pharmaceutical R&D and reduce drug candidate attrition and failure.Trade Review?This book is highly recommended to active researchers in genomics and to the comparative and veterinary clinician or researchers looking for a focused review of the emerging discipline.? (The Veterinary Journal , August 2009) ?Overall, it provides excellent, up-to-date coverage of the application of genomics in drug development.? (Doody's Reviews, June 2009)Table of ContentsPreface xiii 1. Introduction: Genomics and Personalized Medicine 1Dimitri Semizarov 1.1. Fundamentals of Genomics 1 1.2. The Concept of Personalized Medicine 5 1.3. Genomics Technologies in Drug Discovery 8 1.4. Scope of This Book 13 References 20 2. Genomics Technologies as Tools in Drug Discovery 25Dimitri Semizarov 2.1. Introduction to Genomics Technologies 25 2.2. Gene Expression Microarrays: Technology 27 2.2.1. Standard Microarray Protocol 27 2.2.2. Monitoring the Quality of Input RNA for Microarray Experiments 29 2.2.3. Specialized Microarray Protocols for Archived and Small Samples 31 2.2.4. Quality of Microarray Data and Technical Parameters of Microarrays 33 2.2.5. Reproducibility of Expression Microarrays and Cross-Platform Comparisons 35 2.2.6. Microarray Databases and Annotation of Microarray Data 38 2.2.6.1. Target Identification 39 2.2.6.2. Disease Classification 39 2.2.6.3. Compound Assessment 40 2.3. Gene Expression Microarrays: Data Analysis 47 2.3.1. Identification of Significant Gene Expression Changes 47 2.3.2. Sample Classification and Class Prediction with Expression Microarrays 48 2.3.3. Pathway Analysis with Gene Expression Microarrays 49 2.3.4. Common Problems Affecting the Validity of Microarray Studies 56 2.4. Comparative Genomic Hybridization: Technology 57 2.5. Comparative Genomic Hybridization: Data Analysis 69 2.6. Microarray-Based DNA Methylation Profiling 76 2.7. Microarray-Based MicroRNA Profiling 80 2.8. Technical Issues in Genomics Experiments and Regulatory Submissions of Microarray Data 86 2.8.1. Study of a Drug’s Mechanism of Action by Gene Expression Profiling 87 2.8.2. Early Assessment of Drug Toxicity in Model Systems 88 2.8.3. Biomarker Identification in Discovery and Early Development 89 2.8.4. Patient Stratification in Clinical Trials with Gene Expression Signatures 90 2.8.5. Genotyping of Patients in Clinical Studies to Predict Drug Response 91 2.9. Conclusion 92 References 93 3. Genomic Biomarkers 105Dimitri Semizarov 3.1. Introduction to Genomic Biomarkers 105 3.2. DNA Biomarkers 109 3.2.1. DNA Copy Number Alterations 110 3.2.1.1. DNA Copy Number Alterations in Cancer 110 3.2.1.2. DNA Copy Number Alterations in Other Diseases 118 3.2.1.3. Identification of DNA Copy Number Biomarkers in Drug Discovery 119 3.2.2. Mutations 123 3.2.2.1. p53 Mutations 124 3.2.2.2. K-ras Mutations 125 3.2.2.3. EGFR Mutations 127 3.2.2.4. Bcr-abl and KIT Mutations 129 3.2.3. Epigenetic Markers 131 3.3. RNA Biomarkers 137 3.3.1. Gene Expression Biomarkers Validated as Diagnostic Tests 138 3.3.2. Other Examples of Gene Expression Biomarkers 142 3.4. Clinical Validation of Genomic Biomarkers 148 References 156 4. Fundamental Principles of Toxicogenomics 167Eric Blomme 4.1. Introduction 167 4.2. Fundamentals of Toxicogenomics 168 4.2.1. Principle of Toxicogenomics 169 4.2.2. Technical Reproducibility 170 4.2.3. Biological Reproducibility 174 4.2.4. Species Extrapolation 175 4.3. Analysis of Toxicogenomics Data 176 4.3.1. Compound-Induced Gene Expression Changes 177 4.3.2. Visualization Tools 181 4.3.3. Class Prediction 184 4.3.4. Network and Pathway Analysis 188 4.4. Practical and Logistic Aspects of Toxicogenomics 191 4.4.1. Species Considerations 191 4.4.2. Toxicogenomics Studies 194 4.4.2.1. Sample Considerations 194 4.4.2.2. Experimental Design in Toxicogenomics Studies 196 4.5. Toxicogenomics Reference Databases 199 4.5.1. Utility of Reference Databases in Toxicogenomics 199 4.5.2. Design and Development of Toxicogenomics Reference Databases 200 4.5.3. Existing Toxicogenomics Databases 203 4.5.3.1. Chemical Effects in Biological Systems (CEBS) 204 4.5.3.2. ArrayTrack® 206 4.5.3.3. Gene Expression Omnibus 206 4.5.3.4. ArrayExpress 207 4.5.3.5. DbZach 207 4.5.3.6. ToxExpress® 208 4.5.3.7. DrugMatrix® 208 4.6. Conclusion 208 References 209 5. Toxicogenomics: Applications to In Vivo Toxicology 219Eric Blomme 5.1. The Value of Toxicogenomics in Drug Discovery and Development 219 5.2. Basic Principles of Toxicology in Drug Discovery and Development 221 5.2.1. Preclinical Safety Assessment 221 5.2.1.1. Genetic Toxicology 222 5.2.1.2. Single-Dose Toxicity 223 5.2.1.3. Repeat-Dose Toxicity 223 5.2.1.4. Reproductive Toxicity 224 5.2.1.5. Carcinogenicity 225 5.2.2. Discovery Toxicology 226 5.3. Toxicogenomics in Predictive Toxicology 227 5.3.1. Prediction of Hepatotoxicity 229 5.3.1.1. Hepatotoxicity: an Important Toxicology Problem in Drug Discovery and Development 229 5.3.1.2. Predictive Genomic Models of Hepatotoxicity 230 5.3.1.3. Additional Toxicogenomics Approaches to Predict Hepatotoxicity 233 5.3.2. Prediction of Nephrotoxicity 235 5.3.2.1. Kidney as a Target Organ of Toxicity 235 5.3.2.2. Predictive Genomic Models of Nephrotoxicity 236 5.3.3. Prediction of In Vivo Carcinogenicity 237 5.3.3.1. Value Created by Toxicogenomics in the Assessment of Carcinogenicity 237 5.3.3.2. Predictive Genomic Models of Carcinogenicity 238 5.3.4. Gene Expression-Based Biomarkers in Other Tissues and the Promise of Hemogenomics 242 5.3.5. Integration of Toxicogenomics in Discovery Toxicology 244 5.4. Toxicogenomics in Mechanistic Toxicology 246 5.4.1. Toxicogenomics to Investigate Mechanisms of Hepatoxicity 250 5.4.2. Intestinal Toxicity and Notch Signaling 253 5.4.3. Cardiac Toxicity 256 5.4.4. Testicular Toxicity 260 5.5. Toxicogenomics and Target-Related Toxicity 265 5.5.1. Target Expression in Normal Tissues 266 5.5.2. Target Modulation 267 5.5.2.1. Genetically Modified Animals 268 5.5.2.2. Tool Compounds 268 5.5.2.3. Gene Silencing 269 5.6. Predicting Species-Specific Toxicity 271 5.7. Evaluation of Idiosyncratic Toxicity with Toxicogenomics 273 5.8. Conclusion 277 References 279 6. Toxicogenomics: Applications in In Vitro Systems 293Eric Blomme 6.1. Introductory Remarks on In Vitro Toxicology 293 6.2. Overview of Current Approaches to In Vitro Toxicology 294 6.3. Toxicogenomics in In Vitro Systems: Technical Considerations 300 6.3.1. Reproducibility 300 6.3.2. Genomic Classifiers 300 6.3.3. Testing Concentrations 301 6.3.4. Throughput and Cost 302 6.4. Proof-of-Concept Studies using Primary Rat Hepatocytes 303 6.5. Use of Gene Expression Profiling to Assess Genotoxicity 306 6.5.1. Toxicogenomics Can Differentiate Genotoxic Carcinogens from Nongenotoxic Carcinogens 307 6.5.2. Toxicogenomics Can Differentiate DNA-Reactive from Non-DNA-Reactive Compounds Positive in In Vitro Mammalian Cell-Based Genotoxicity Assays 307 6.5.3. Toxicogenomics Assays May Be Less Sensitive than the Standard Battery of In Vitro Genetic Toxicity Tests 308 6.6. Application of Gene Expression Profiling for In Vitro Detection of Phospholipidosis 309 6.7. Toxicogenomics in Assessment of Idiosyncratic Hepatotoxicity 312 6.8. Do Peripheral Blood Mononuclear Cells Represent a Useful Alternative In Vitro Model? 314 6.9. Current and Future Use of In Vitro Toxicogenomics 316 6.9.1. Improved Gene Expression Platforms 316 6.9.2. Standardization of Protocols and Experimental Approaches 316 6.9.3. Performance Accuracy 317 6.9.4. Battery of Gene Expression Signatures 317 6.9.5. Clear, Actionable Data Points 318 6.10. Conclusions 319 References 321 7. Germ Line Polymorphisms and Drug Response 329Dimitri Semizarov 7.1. Introduction to Germ Line Polymorphisms 329 7.2. Polymorphisms and Drug Response in Oncology 332 7.2.1. UGT1A1 Polymorphism and Response to Irinotecan 333 7.2.2. FGFR4 Polymorphism and Response to Chemotherapy 334 7.2.3. Mdr-1 Polymorphism and Response to Paclitaxel 335 7.2.4. DPD Polymorphisms and Response to 5-Fluorouracil 336 7.2.5. TPMT Variants and Response to Thiopurines 337 7.2.6. MTHFR Polymorphisms and Response to Chemotherapy 339 7.2.7. Tandem Repeat Polymorphisms in the TS Gene and Response to Drugs Targeting Thymidylate Synthase 340 7.2.8. Use of Cancer Cell Lines to Identify Predictive SNPs 342 7.3. Polymorphisms and Response to Anticoagulants 343 7.4. Polymorphisms in Neuroscience 345 7.5. Polymorphisms and Drug Response in Immunology 347 7.6. Polymorphisms and Response to Antiviral Agents 353 7.6.1. Anti-HIV Drugs 353 7.6.2. Interferon Therapy in Hepatitis B Treatment 356 7.7. Gene Copy Number Polymorphisms 357 7.8. Conclusion: Approaches to Identification of Polymorphisms as Predictors of Drug Response 360 7.8.1. Candidate Gene Approach 360 7.8.2. Genome-wide Approach 363 7.8.3. Pathway Approach 366 7.8.4. Use of Model Systems in Identification of Predictive Pharmacogenetic Markers 369 7.8.5. Comparison of Methodologies in the Context of Drug Discovery 373 References 375 8. Pharmacogenetics of Drug Disposition 385Anahita Bhathena 8.1. Introduction 385 8.2. Genes and Polymorphisms Affecting Drug Disposition 387 8.2.1. Drug-Metabolizing Enzymes 391 8.2.1.1. Cytochrome P450s 391 8.2.1.2. Flavin-Containing Monooxygenases 396 8.2.1.3. Arylamine N-Acetyltransferases 397 8.2.1.4. UDP-Glucuronosyltransferases 397 8.2.1.5. Sulfotransferases 399 8.2.2. Drug Transport Proteins 400 8.2.2.1. SLC Transporters 401 8.2.2.2. ABC Transporters 402 8.3. Genomic Biomarkers for PK Studies 403 8.3.1. Warfarin, CYP2C9, and VKORC1 403 8.3.2. Irinotecan and UGT1A1 404 8.4. Utility of PG-PK Studies in Early Clinical Trials 405 8.5. Limitations of PG-PK Studies 408 8.6. Genotyping Technologies 408 8.7. Conclusion 409 References 411 9. Overview of Regulatory Developments and Initiatives Related to the Use of Genomic Technologies in Drug Discovery and Development 423Eric Blomme 9.1. Introduction to Recent Regulatory Developments in the Genomic Area 423 9.2. FDA Guidance on Pharmacogenomic Data Submission 428 9.2.1. Voluntary Genomic Data Submission (VGDS) 428 9.2.2. Pharmacogenomic Data Submission 431 9.2.3. International Harmonization 432 9.3. Pharmacogenomic Data Submissions: Draft Companion Guidance 434 9.4. Drug-Diagnostic Co-development Concept Paper 436 9.5. Regulations for In Vitro Diagnostic Assays 439 9.5.1. General Overview of Regulatory Pathways for Devices in the U.S. 439 9.5.2. Draft Guidance for Industry, Clinical Laboratories, and FDA Staff on In Vitro Diagnostic Multivariate Index Assays 440 9.6. Biomarker Qualification 442 9.7. Current Initiatives Relevant to Pharmacogenomics 443 9.8. Future Impact of Genomic Data on Drug Development 444 References 447 Index 449

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Book Synopsis 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 coveragenow 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 Table of ContentsPreface. 1 Introduction to Molecular Genetics. The Principles of Inheritance. Genes Are Made of DNA. DNA Structure. The Central Dogma. References. 2 Molecular Biology Technology. Cut, Copy, and Paste. Restriction Enzymes. DNA Cloning Is Copying. PCR Is Cloning without the Bacteria. DNA Sequencing. References. 3 Genome Databases. Genome Sequencing. Entrez. BLAST. Genome Annotation. Genome Browser. Human Genetic Diseases. A System for Naming Genes. Model Organisms (Comparative Genomics). Sequencing Other Genomes. References. 4 Bioinformatics Tools. Patterns and Tools. Sequence Comparison. Multiple Alignment. Pattern Finding. Phylogenetics. Biotechnology Exercise. References. 5 Human Genetic Variation. Mutation. Single-Nucleotide Polymorphisms. Linkage. Multigene Diseases. Genetic Testing. SNP Chips. The HapMap Project. Research Uses of SNP Markers. Ethnicity and Genome Diversity. References. 6 Genetic Testing for the Practitioner (Harry Ostrer). Clinical Applications of Genetic Testing. Methods of Genetic Testing. Adequacy of Genetic Testing. Informed Consent. Genetic Counseling. Clinical Vignettes. References. 7 Gene Therapy (John G. Hay). Historical Perspective. Strategies of Gene Therapy. DNA Elements for Gene Expression. Gene Delivery Systems. Targeting Gene Delivery. Formative Years and Initial Clinical Approaches. The Problems. The Future. References. 8 Microarrays. Spotting versus Synthesis on the Chip. Other Types of Arrays. Differential Gene Expression. Error and Reliability. Evolutionary Perspectives. References. 9 Analysis of Microarray Data. Experimental Design. Data Analysis Workflow. Functional Analysis. Validation. References. 10 Pharmacogenomics and Toxicogenomics. Pharmacogenomics. Environmental Chemicals. Toxicogenomics for Drug Development. References. 11 Clinical Research Informatics. Clinical Databases. Clinical Trials Management. Data Standards and Ontologies. Tissue Banks. Application to Medical Practice. References. 12 RNA Interference and MicroRNAs. Antisense RNA. RNA Interference. Ribozymes. References. 13 Alternative Splicing. Exon Arrays. Medical Applications of Alternative Splicing. References. 14 Genome Tiling Chips. Genome Chips. Resequencing Chips. Whole-Genome Transcription Profilig. ChIP-chip. ArrayCGH. References. 15 Cancer Genomics. Understanding Cancer Genomics. Copy Number Mutations. Gene Expression Signatures. Cancer Genome Atlas. References. 16 Proteomics. Protein Modifications. Quantitative Approaches. Biomarkers. Protein Databases. Protein–Protein Interactions. DNA-Binding Proteins. Structural Proteomics. Drug Targets. References. 17 Consumer Genomics and Genealogy. Genealogy. Nutrigenomics. Privacy Concerns. References. 18 The Ethics of Medical Genomics. Eugenics. Human Genome Diversity Project and Population Genetics. Genetic Discrimination. Impact on Physicians and Researchers. Clinical Research. References. Appendix: Genetic Testing: Scientific Background for Policymakers (Amanda K. Sarata). Glossary. Index.

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Book SynopsisThis volume provides basic guidelines concerning quality assurance and its responsibilities for biopharmaceuticals manufactured by either recombinant, monoclonal antibody or other biotechnological methodologies. Insight is given on the safety, purity and efficacy of the products produced.Table of ContentsOrganization of Quality Assurance (J. Huxsoll). Coming into GMP Compliance (C. Orelli). Documentation Systems (C. Brochard). Validation (D. Colton). Quality Assurance (QA) of Production Materials for Biotechnology(D. Miller). Quality Assurance (QA) of Analytical Methods--Biochemical (F.Bogdansky). Applied Data Analysis, Sampling Methodologies, and StatisticalValidation Techniques (G. Swartz). Environmental and Safety Programs for Biotechnology (M.Sigourney). Regulatory Issues--United States (C. Spencer). Regulatory Issues--Europe (R. Wikberg-Leonardi & D.Mulder). Regulatory Issues--Japan (R. Rousell & E. Greene). Abbreviations. Appendices. Index.

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Book SynopsismRNA METABOLISM & POST-TRANSCRIPTIONAL GENE REGULATION Edited by Joe B. Harford and David R. Morris Gene expression is a process that begins with the transcription ofDNA to an RNA messenger (mRNA), which is then translated into aprotein. Historically, attention has been focused on the regulationof RNA synthesis (transcription); however, there is a growingrecognition of and appreciation for the importance of the manyregulatory mechanisms that take place after RNA synthesis has beencompleted. mRNA Metabolism and Post-Transcriptional Gene Regulation is thefirst comprehensive overview of the various modes of generegulation that exist post-transcriptionally. Collecting studies bysome of the top researchers in the field, this volume provides bothan up-to-date review of the complex life of an mRNA molecule andan introduction to current work on the diversity of mechanisms ofpost-transcriptional reactions. Topics covered include: * RNA structure * MamTable of ContentsPartial table of contents: RNA Structure (E. Puglisi & J. Puglisi). Transcription and Transcriptional Control: An Overview (I. Olave,et al.). Constitutive and Alternative mRNA Splicing (S. Bernstein & D.Hodges). mRNA Polyadenylation: Functional Implications (E. Baker). RNA Export from the Nucleus (L. Maquat). The Intracellular mRNA Sorting System: Postal Codes, Zip Codes,Mail Bags and Mail Boxes (O. Steward & R. Singer). The Fundamentals of Translation Initiation (H. Huang & T.Donahue). Mechanisms of mRNA Turnover in Eukaryotic Cells (S. Tharun & R.Parker). Control of mRNA Decay in Plants (A. van Hoof & P. Green). mRNA Metabolism and Cancer (M. Korth & M. Katze). Translational Regulation in Animal Virus-Infected Cells (R.Schneider). RNA Decay by the Interferon-Regulated 2-5A System as a Host DefenseAgainst Viruses (R. Silverman & N. Cirino). Control of mRNA Stability During Herpes Simplex Virus Infection (G.Read). Regulation of mRNA Expression in HIV-1 and Other Retroviruses (B.Felber). Index.

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Book SynopsisIn this state-of-the-art guide to applied molecular genetics, well-known teacher and author Roger L. Miesfeld presents a clear, no-nonsense approach to the principles underlying molecular genetics and its applications in biological and biomedical research.Trade Review"This book has a number of strengths, including the author's clear writing style and the large number of informative two-color line drawings which make the book easy to read." --Choice, 10/99Table of ContentsLABORATORY TECHNIQUES. Biochemical Basis of Applied Molecular Genetics. Laboratory Tools for Molecular Genetic Applications. Overview of Gene Analysis Methods. CORE METHODS. Characterization of Genomic DNA. Isolation and Characterization of Gene Transcripts. The Polymerase Chain Reaction. SPECIALIZED APPLICATIONS. Expression of Cloned Genes in Cultured Cells. Construction of Transgenic Multicellular Organisms. Contemporary Applied Molecular Genetics. Appendices.

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Book SynopsisThe past decade has seen tremendous advances in the study of G protein-coupled receptors (GPCRs), including the molecular cloning and identification of more than 100 hundred GPCR genes. But while GPCRs serve as targets for more than 300 medicines in the modern pharmacopoeia, the shrinking pool of known ligands and the continuing discovery of orphan GPCR genes have underscored the need for new approaches to ligand identification. Identification and Expression of G Protein-Coupled Receptors addresses this new direction in GPCR biochemistry-offering a definitive laboratory bench manual that emphasizes expression over primary cloning strategies. In a series of expert contributions by well-known researchers, this book provides detailed protocols for various expression systems-from bacteria to mammalian cells-as well as straightforward opinions on the advantages and shortcomings of each approach. Topics covered include: * Homology screening and the polymerase chain reaction in tTable of ContentsCloning of G Protein-Coupled Receptor Genes: The Use of Homology Screening and the Polymerase Chain Reaction (A. Marchese, et al.). Practical Approaches for Cloning G Protein-Coupled Receptors Using Mammalian Cell Expression (T. Murphy). G Protein-Coupled Receptor Informatics and the Orphan Problem (K. Lynch). The Use of Xenopus laevis Oocytes for the Study of G Protein-Coupled Receptors (A. Lee & M. Durieux). Stable Expression of G Protein-Coupled Receptors in Mammalian Cells (K. Neve & R. Neve). Heterologous Expression in Primary Cell Cultures (R. Leonard). Expression of G Protein-Coupled Receptors in Escherichia coli (R. Grisshammer). Large-Scale Expression/Purification of G Protein-Coupled Receptors Mammalian Cells (A. Robeva & J. Linden). High-Level Expression of G Protein-Coupled Receptors in the Baculovirus/SF9 Cell Expression System (N. Rondeau, et al.). Expression of G Protein-Coupled Receptors in Drosophila Schneider 2 Cells (M. Graziano, et al.). Heterologous G Protein-Coupled Receptors Expressed in Saccharomyces cerevisiae: Methods for Genetic Analysis and Ligand Identification (M. Pausch, et al.). Index.

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Book SynopsisIn the past decade, a number of advances have been made in genetic engineering as applied to farmed animals. This book has been developed from invited presentations at a conference held in California in August 1997 to address this issue. It is written by representatives from the leading laboratories involved in attempts to improve agriculturally important mammals, poultry and fish. Current knowledge, methodology, technical improvements and successes in the applications of transgenic technology to a range of animals which are important in agriculture are brought together for the first time under one cover. This book is essential reading for research workers in animal genetics, breeding and biotechnology.Table of Contents1: Transgenic Farm Animals, C A Pinkert, University of Alabama at Birmingham, USA and J D Murray, University of California, USA 2: Development of Genetic Tools for Transgenic Animals, P B Hackett, University of Minnesota, USA 3: One Gene is Not Enough: Transgene Detection, Expression and Control, K D Wells and R J Wall, Agricultural Research Service, US Department of Agriculture, Beltsville, USA 4: Embryonic Stem Cells in Agricultural Species, G B Anderson, University of California, USA 5: Nuclear Transfer in the Production of Transgenic Farm Animals,I Wilmut, Roslin Institute, Roslin, UK et al. 6: Embryonic Stem Cell Chimaeras and Somatic Cell Nuclear Transplantation for Production of Transgenic Cattle, J M Robl, University of Massachusetts, USA et al. 7: Status of Sperm-mediated Delivery Methods for Gene Transfer, E J Squires, University of Guelph, Ontario, Canada 8: Understanding the Origin of Avian Primordial Germ Cells: Implications for Germ Cell Culture and Transgenesis in Poultry, J N Petitte, North Carolina State University, Davis, USA et al. 9: Generation of Transgenic Poultry by Transfection of Primordial Germ Cells, E A Wong, Virginia Polytechnic Institute and State University, Blacksburg, USA 10: Expression of Insulin-like Growth Factor-I in Skeletal Muscle of Transgenic Swine, V G Pursel, US Department of Agriculture, Beltsville, USA et al. 11: Production and Analysis of Transgenic Pigs Containing a Metallothionein Porcine Growth Hormone Gene Construct, M B Nottle, BresaGen Ltd., Adelaide, Australia 12: The Utilization of Bacterial Genes to Modify Domestic Animal Biochemistry, K A Ward CSIRO, NSW, Australia et al. 13: Production of Transgenic Cattle expressing a Recombinant Protein in Milk, W H Eyestone, PPL Therapeutics Inc., Blacksburg, USA 14: Changing the Composition and Properties of Milk, J D Murray et al 15: Comparison of Traditional Breeding and Transgenesis in Farmed Fish with Implications for Growth Enhancement and Fitness, R A Dunham, Auburn University, USA et al. 16: Direct and Correlated Responses to Short-term Selection of 8-week Body Weight in Lines of Transgenic (oMt1a-oGH) Mice, F Siewerdt, North Carolina State University, Raleigh, USA 17: Ethics, Animal Welfare and Transgenic Farm Animals, J A Mench, University of California, Davis, USA 18: The Future of Transgenic Farm Animals, G E Seidel Jr, Colorado State University, Fort Collins, Colorado, USA

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Book SynopsisThis comprehensive research book represents the first complete integration of current knowledge in this area. It addresses issues associated with poultry breeding particularly by examining quantitative and molecular genetics and the uses of transgenic technology. A special section covers the important area of disease resistance and transmission.Table of Contents1: Part I: Problems and Issues associated with Poultry Breeding 2: Industrial Perspective on Problems & Issues Associated with Poultry Breeding, J Arthur, Hy-Line International, Dallas Center, USA & G Albers, Nutreco Agriculture Research & Development, The Netherlands 3: Growth & Reproduction Problems Associated with Selection for Increased Broiler Meat Production, E Ducuypere, V Bruggeman, Catholic Uni Leuven, G Barbato, Pennsylvania Uni,& J Buyse, Catholic Uni Leuven, 4: Skeletal Problems Associated with Selection for Increased Production, C Whitehead, R Fleming, Bone Biology Group, Roslin Institute, R Julian, Ontario Veterinary College & P Sørensen, DIAS 5: Meat Quality Problems Associated with Selection for Increased Production, H Remignon, ENSAT, France and E Le Bihan-Duval, Station de Recherches Avicoles, INRA Centre de Tours, France 6: Behaviour Problems Associated with Selection for Increased Production, J B Kjaer, Danish Institute of Agricultural Sciences, Tjele, Denmark and J A Mench, University of California, USA 7: Problems with Genotype-Environment Interactions Associated with Selection for Increased Production, P K Mathur, Canadian Center for Swine Improvement Inc, Ottawa, Ontario, Canada 8: Part II: Breeding Strategies and Objectives 9: Breeding Objectives and Selection Strategies for Layer Production, A E Groen, Wageningen University, The Netherlands 10: Breeding Objectives and Selection Strategies for Broiler Production, D Emmerson, Aviagens, AL, USA 11: Use of Mixed Model Methodology in Breeding Strategies for Meat Type Birds, 12: B Besbes, Hubbard-ISA (Layer Division), Chateaubourg, France and V Ducrocq, Station de Genetique Quantitative et Appliquee, INRA, France 13: Application of Mixed Model Methodology in Breeding Strategies for Meat Type Birds, S Wezyk, Krowoderskich Zuchow, Poland and J Jankowski, University of Warmia and Mazury, Poland 14: Use of Mixed Model Methodology in Poultry Breeding: Estimation of Genetic Parameters, T Szwaczkowski, August Cieszkowski Agricultural University of Poznan, Poland 15: Use of Mixed Model Methodology in Poultry Breeding: Assumptions, limitations, and concerns of BLUP based selection programs, M Quinton, University of Guelph, Canada 16: Direct Selection for Improvement of Animal Well-Being, J Faure, Station de Recherches Avicoles, INRA Centre de Tours, France, W Bessei, Universitat Hohenheim, Germany & R Jones, Roslin Institute, Edinburgh 17: Indirect Selection for Improvement of Animal Well-Being, W M Muir 18: Genetic Diversity and Conservation of Poultry, M E Delany, University of California, USA 19: Part III: Disease Resistance and Transmission 20: Progress and Prospects in Resistance to Disease, U Kuhnlein, McGill University, Canada, S E Aggrey and A Zadworny, McGill University, Canada 21: Genetics of the Immune System, J Plachy, Academy of Sciences of the Czech Republic, P Kaiser, Institute of Animal Health, Compton Lab & K Hala, Institute of Pathophysiology, University of Innsbruck Medical School 22: Genetic Resistance and Transmission of Avian Bacteria and Viruses, N Bumstead, Institute of Animal Health, Compton Laboratory, Berkshire, UK 23: Genetic Resistance and Transmission of Avian Parasites, M-H Pinard van der Laan, Laboratoire de Genetique Factorille, INRA, France, H S Lillehoj and James J Zhu, USDA, Agricultural Research Service, USA 24: Selection for Disease Resistance: Conventional Breeding for Resistance to Bacteria and Viruses, C Beaumont, Station de Recherches Avicoles, G Dambrine, A Chausse, INRA & D Flock, Akazienweg, 25: Selection for Disease Resistance: Molecular Genetic Techniques, H H Cheng, USDA-ARS, Avian Diseases and Oncology Lab, MI, USA 26: Selection for Disease Resistance: Direct Selection on the Immune Response, S Lamont, Iowa Uni, M Pinard-van der Laan, A Cahaner, Hebrew Uni Jerusalem, J van der Poel & H Parmentier, Wageningen Uni 27: Part IV: The Use of Genomics and Bioinformatics in Poultry 28: Genetic Markers: Prospects and Applications in Genetic Analysis, S E Aggrey and R Okimoto, University of Arkansas, Fayetteville, USA 29: Designs and Methods to Detect QTL for Production Traits based on Mapped Genetic Markers, J A M Van Arendonk, and H Bovenhuis, Wageningen University, The Netherlands 30: Designs and Methods to Detect QTL for Production Traits based on Random Genetic Models, Yi Nengjun and S Xu, University of California, Riverside, USA 31: Structural Genomics: Integrating Linkage, Physical and Sequence Maps, M A M Groenen and R P M A Crooijmans, Wageningen University, The Netherlands 32: Incorporating Molecular Information in Breeding Programs: Methodology, R Fernando and L R Totir, Iowa State University, Ames, USA 33: Incorporating Molecular Information in Breeding Programs: Applications and Limitations, W M Muir 34: Comparative Genomics, D W Burt, Roslin Institute, Edinburgh, UK 35: Functional Genomics: Development and Gene Regulation, J Killefer, University of Illinois, Urbana, USA and H Kocamis, College of Agriculture, Morgantown, WV, USA 36: Expressed Sequence Tags, DNA Chip Technology and Gene Expression Profiling, L A Cogburn, R Morgan and J Burnside, University of Delaware, Newark, USA 37: DNA Polymorphisms in Functional Genes, U Kuhnlein, McGill University, Quebec, Canada, S E Aggrey, N Kansaku, Azabu University, Sagamihara, Japan and D Zadworny, McGill University, Quebec, Canada 38: Strategies for the Production of Transgenic Chickens, J N Petitte, North Carolina State University, Raleigh, USA 39: The Future of Molecular Genetics in Poultry Breeding, J Dodgson, Michigan State University, East Lansing, USA

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Book Synopsisaeo combines an understanding of the composition of biological units in fishery management with a discussion of the potential advantages and limitations of molecular genetic techniques for describing population structures. aeo discusses tools and arrangements for the management of genetic diversity.Table of ContentsContributors;. Preface;. Introduction;. Biological units in fishery management;. Marine genetic resources and sustainable fisheries;. Framework for conservation and management of genetic resources of marine fish;. Freshwater fish genetic resources and conservation approaches;. Genome manipulation in fishery management;. Gene transfer in fisheries;. Genetic factors in production;. Introgressive hybridization of introduced peled with the native whitefish;. Microsatellite DNA markers for monitoring genetic change in hatchery stock for release and net-cage culture of red sea bream;. Index

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Book SynopsisINTEGRATION OF BIOMATERIALS FOR GENE THERAPY Brings industrial practitioners and researchers together to discuss how the deeper integration of biomaterial platforms could play a significant role in enabling breakthroughs in the application of gene editing for the treatment of human disease. This book comprises research and review articles from leading researchers with multidisciplinary experience. It discusses many broad topics, including nanoparticle-enabled gene therapy, inorganic nanocarrier-based gene delivery, non-viral delivery of nucleic acid, biocompatible hydrogels, silk, and polysaccharides-based gene delivery. Other gene delivery topics discussed include the use of smart and engineered biomaterials, combined therapy with growth factors and cell transportation, and the prospects and challenges in the treatment of different diseases, including cancer. This book bridges the knowledge of pharmaceutics, engineering, basic science, and clinical research fields in a way that will hTable of ContentsForeword xvii Preface xix Acknowledgment xxi 1 Biocompatible Hydrogels for Gene Therapy: Advancement and Applications 1Ankita Gupta and Swatantra K.S. Kushwaha 1.1 Introduction 2 1.2 Hydrogels Classification 3 1.3 Fabrication of Hydrogels and Its Desirable Technical Features 4 1.4 Factors to be Tuned for Gene Encapsulation in Hydrogels 4 1.5 Recent Advances on Hydrogels for Gene Delivery 6 1.6 Conclusion 9 2 Use of Polysaccharides: Novel Delivery System for Genetic Material 13Prashant Kumar, Swatantra K.S. Kushwaha, Neelottama Kushwaha, Abhishek Singh and Surya Nath Pandey 2.1 Introduction 14 2.2 Cross-Linking Techniques for Engineering Polysaccharides-Based Biomaterials 23 2.3 Approaches to Design Polysaccharide-Derived Biomaterials 26 2.4 Biomedical Applications of Polysaccharide-Derived Biomaterials 29 2.5 Advanced Biomaterials for Wound Dressings 30 2.6 Scaffolds for Tissue Engineering and Development of Bioinks for 3D Bioprinting 30 2.7 Recent Utilization of Polysaccharides 31 2.8 Toxicity Concerns of Polysaccharide-Derived Biomaterials 33 2.9 Preclinical and Clinical Studies on Gene Delivery Using Polysaccharide-Based Biomaterials 33 2.10 Challenges and Future Directions 34 2.11 Future Prospects 35 2.12 Conclusion 35 3 Polysaccharide-Based Biomaterials for Gene Delivery 47Ankita Moharana, Abhitav Tiwari, Shalini Perada, Shivlal Yadav and Om Prakash Kumar 3.1 Background 48 3.2 Introduction 49 3.3 Gene Therapy 51 3.4 Gene Delivery Systems Based on Polysaccharides 53 3.5 Practical Application of Gene Delivery Systems 56 3.6 Polysaccharide-Based Nanoparticles 57 3.7 DNA Delivery 63 3.7.1 siRNA Delivery 65 3.8 Conclusion 70 4 Hydrogel-Based Gene Therapy 77Shweta Kumari, Dipti Jena, Vedant Kumar Prajapati, Shashi Ranjan Singh and Garima Tripathi 4.1 Introduction 78 4.2 Gene Therapy 83 4.3 In Vivo Gene Therapy Using Hydrogels 86 4.4 Encapsulating Cells in Hydrogels for Gene Therapy Delivery 87 4.5 Hydrogels for Integrative Tissue Engineering and Cell Delivery 89 4.6 Biocompatible Hydrogels for Transferring Cells 91 4.7 Using Hydrogels for Gene Therapy in Tissue Engineering-Based Drug 93 4.8 Human Gene Therapy that Uses Hydrogel as an Alternative Method of Delivering Genetic Material to Patients 94 4.9 Recent Advancement in Biocompatible Hydrogel 96 4.10 Applications of Hydrogel 99 4.11 Current Hydrogels in Clinical Trials 104 4.12 Conclusions 106 5 Progress and Prospects for Non-Viral Gene Therapy 117Shashimala Tiwari 5.1 Introduction 118 5.2 Definition 118 5.3 Technology Overview for Non-Viral Gene Delivery 119 5.4 Chemical Carriers for Gene Transfer: Establishing Effective In Vivo Gene Delivery 121 5.5 Types of Gene Delivery 122 5.6 Reduction of Immunological Responses Through Alteration of Delivery Method or DNA Structure 124 5.7 To Enable Long-Lasting Gene Expression, Self-Replicating, Tissue-Specific, and Integrating Plasmid Expression Systems are Designed 124 5.8 Hybrid Vector Systems to Improve Transfection and Lessen Cytotoxicity 125 5.9 Vehicle Material 127 5.10 Further Effects 129 5.11 Challenges and Prospects 130 5.12 Conclusion 132 6 Nanoparticles for Tumor Gene Therapy: Recent Advances and Perspective 139R. Shivhare, V. Sabale, A. Ingole and Neelam Jain 6.1 Introduction 140 6.2 Technologies for Gene Delivery 142 6.3 Cancer Treatment with Gene Therapy 147 6.4 Gene Therapy Using Nanotechnology 147 6.5 Challenges and Future Aspects 160 7 Effective Gene Transfer with Non-Viral Vectors 183Anil Kumar Mavi, Sonal Gaur, Neelesh Kumar, Avanish Kumar Shrivastav, Sankha Bhattacharya,Sateesh Belemkar, Saurabh Maru and Dhruv Kumar 7.1 Introduction 184 7.2 System Development for Delivering Genes 186 7.3 Methods for Non-Viral Vector for Delivery of Genes 186 7.4 Delivery System 203 7.5 Current Methods for Nonviral Gene Delivery: Benefits and Drawbacks 209 7.6 Current Barriers for Non-Viral Vectors 210 7.7 Possibilities for Enhancing the Non-Viral Vector Delivery System 212 7.8 Conclusion 212 7.9 Future Relevance 213 8 Utilization of Chitosan for Gene Delivery 223Johnson Olaleye Oladele 8.1 Introduction 224 8.2 Cationic Polymers-Based Gene Delivery Systems 225 8.3 Chitosan and Its Derivatives in Gene Delivery Systems 228 8.4 Chitosan as Chemotherapeutic Drugs 234 8.5 Conclusion 236 9 Nanoparticles as Gene Vectors in Tumor Therapy 247 Efstathia Triantafyllopoulou, Orestis Kontogiannis, Nefeli Lagopati, Natassa Pippa and Maria Gazouli 9.1 Introduction 248 9.2 Polymer-Based Nanocarriers: Their Technology and Recent Advances 249 9.3 Conclusions 271 10 Progress in Non-Viral Delivery of Nucleic Acid: Advancement in Biomedical Technology 281Anil Kumar Mavi, Manmohan Kumar, Amarjeet Singh, Mahendra Kumar Prajapati, Rakhi Khabiya, Saurabh Maru and Dhruv Kumar 10.1 Introduction 282 10.2 Physical Methods of Non-Viral Nucleic Acid Delivery System 285 10.3 Advantages and Disadvantages of Physical Transfection 296 10.4 Chemical Methods of Non-Viral Nucleic Acid Delivery System 296 10.5 Advantages and Disadvantages of Chemical Transfection 308 10.6 Cellular Barriers for Nucleic Acid Delivery Faced by Non-Viral Vectors 309 10.7 Challenges and Limitations of Non-Viral Nucleic Acid Delivery System 311 10.8 Conclusion 311 11 The Junction of Biomaterials and Gene Therapy -- Current Strategies and Future Directions 323Ranjan Kumar Singh, Sunita Panchawat, Chennu M.M. Prasada Rao, Joohee Pradhan, Rajeswari Tanniru, Deepika Bairagee and Ajay Kumar Garg 11.1 Introduction 324 11.2 Viral Gene Therapy 327 11.3.1 Adenoviral Vectors 329 11.4 Adeno-Associated Viral Vectors 330 11.5 Non-Viral Gene Therapy 331 11.6 Recent Advances in the Development of Gene Delivery Systems 334 11.7 Development of Gene Delivery Systems 335 11.8 Viral Vectors Based on DNA for Gene Delivery Systems 336 11.9 Viral Vectors Based on RNA for Gene Delivery Systems 337 11.10 Oncolytic Viral Vectors for Gene Delivery Systems 337 11.11 Practical Application of Gene Delivery Methods 343 11.12 Conclusion 347 12 Utilization of Silk for Gene Delivery 349Swatantra K. S. Kushwaha, Shruti Khare and Neelottama Kushwaha 12.1 Introduction 350 12.2 Dimensional Structure of Silk 350 12.3 Properties of Silk 351 12.4 Extraction of Fibroin from Silk Worm 352 12.5 Fabrication of Silk in Different Therapeutics Carriers 353 12.6 Utilization of Silk for Gene Therapy 354 12.7 Properties of Silk Fibroin as Biomaterial 355 12.8 Summary of Silk-Based Formulations for Gene Delivery 357 12.9 Examples of Some Delivery Approaches which Utilizes Silk as a Biomaterial for Gene Delivery 358 12.10 Some Highlights of Silk Fibroin 360 12.11 Conclusion 360 13 Challenges and Emerging Problems in Nanomedicine Mediated Gene Therapy 367Shalini Bhatt, Neha Faridi, Rakshit Pathak, Vinay Deep Punetha and Mayank Punetha 13.1 Introduction 368 13.2 Why Nanomedicine Over Traditional Drugs? 369 13.3 Nanomedicine for Gene Therapy 373 13.4 Complications in Nanomedicine-Mediated Gene Therapy 384 13.5 Challenges in the Clinical Translation of Nanomedicines 391 13.6 Conclusion 396 14 Biomaterials-Based Vaccination in Cancer Therapy 417Rishav Sharma, Rishabha Malviya and Sonali Sundram 14.1 Introduction 417 14.2 Tumor-Associated Antigens 418 14.3 Vaccine Delivery 419 14.4 Dendritic Cells 420 14.5 In Vitro Generation of Dendritic Cells 421 14.6 Usage of RNA 422 14.7 RNA-Pulsed DCs as Vaccines 422 14.8 RNA Vaccines 425 14.9 Optimization of Immunotherapy 426 14.10 Cancer Treatment Through RNA Interference 427 14.11 Conclusion 428 References 429 Index 435

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Book SynopsisSo 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.Trade ReviewIan Godwin has done that rare thing - written a book about science which is informal but informed, readable but authoritative, and sparkling with wit. I highly recommend it for anyone interested in the GM foods and crops issue. -- Mark Lynas, Journalist and author of Seeds of Science: Why We Got It So Wrong on GMOsGodwin’s book presents an authoritative account of the history of GM crops going back to their beginnings, including the science behind the technology and the first products that came to market. A wonderful story is woven of science, discovery and anecdote, with Australian directness and humour. Godwin explains and entertains. Information is drawn from many quarters from biologists, farmers, nutritionists and activists and from Godwin’s direct experiences over 30 years. . -- Dr Matthew Paul, Rothamsted Research UK * The Journal of the Institute of Food Science & Technology *This book is easy reading and highly commendable, providing very useful information in a simple style; 'greenish' people should read it! -- Jose I. Cubero; The Journal of Agricultural ScienceTable of ContentsFood, Glorious Food; A Kind of Magic; Revolution; Chemical Heart; Wide Open Spaces; Bad Moon Rising; Paint It Black; Not Ready to Make Nice; O Fortuna!; New Kid in Town; For a Better Day

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Book SynopsisObjective Genetics book is meant for scholars and students who involved in preparation of ICAR-JRF, SRF, SAUs entrance examination of B.Sc. (Agri.) and M.Sc. Genetics and Plant Breeding.Table of Contentso Generic Term, o Cell, o Cell Division, o Cell Cycle, o Life Cycle of Plants, o Chromosome Morphology, o History of Development of Mendelian Gene Concept, o Pre-Mendelian Hybridization, o Mendelian Inheritance, o Lethal Genes, o Intergenic Gene Interaction, o Chi-Square Test, o Polygenic Inheritance, o Multiple Alleles, o Chromosome Theory of Inheritance, o Crossing Over, o Linkage, o Sex Determination, o Sex Linked, Sex Limited and Sex Influenced Genes, o Cytoplasmic Inheritance, o DNA - the Genetic Material, o Structure of DNA, o DNA Replication, o Protein Synthesis, o Genetic Code, o Gene Regulation, o Modern Concepts of Gene, o Chromosome and Chromatid Organisatio, o Special Chromosomes, o Variation in Chromosome Structure - Changes in the Number of Gene Loci, o Variation in Chromosome Structure-Changes Involving the Arrangement of Gene Loci, o Variation in Chromosome Number - Euploidy-Auto and Allopolyploids, o Variation in Chromosome Number-Aneuploids, o Missing Link

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Book SynopsisEfforts to improve food security in the developing world have been hampered due to myths surrounding GM agriculture. This book explores the theory, evidence and rhetoric of the impact of food production on the environment, and the impact of the environment on food production. The chapters address: food security and technology; expertise and opportunism; the promise of technology; the politicization of risk; industrial agriculture; the meaning of 'natural'; the potential of the local food movement; food labelling; genetic diversity in the agro-industrial era; sustainability and chemical application; plant vitality; and future prospects for food security. Each chapter includes a personal introduction from the authors about the issues at hand, followed by a detailed analysis with further references. The book considers the origins of concerns and then examines the evidence around the issues, and the impacts in terms of policy, regulation and agricultural practice. It also: - Refutes common consumer and environmental organization myths about biotechnology. - Highlights the importance of food security in both the developing and developed world. - Provides a pro-science approach to increasing food security. This book will be of interest to students and researchers in biotechnology, food security and public understanding of science, and also to policy makers, regulators and industry managers.Table of ContentsChapter 1: Food Security and Technology: Fear Trumps Hope Chapter 2: Expertise and Opportunism: Who Should We Listen To? Chapter 3: The Technology Promise: How Can We Feed a World of More Than 9 Billion? Chapter 4: The Politicization of Risk: Is It Safe? Chapter 5: Industrial Agriculture: Who Is the Real Winner? Chapter 6: The Nature of Natural: Whose Preferences Should Dominate? Chapter 7: The Local Food Movement: Can We Be Self-Sufficient? Chapter 8: Food Labelling: What Do People Want? Chapter 9: Genetic Diversity in the Agro-Industrial Era: What Is at Risk? Chapter 10: The Sustainability Challenge: Are We Facing a Chemical Armageddon? Chapter 11: Plant Vitality: Will ‘Superweeds’ Strangle Our Future? Chapter 12: The Future of Food Security: Where to From Here?

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Book SynopsisThe central purpose of this combination lecture/laboratory manual is to present detailed protocols for the multi-step process involved in isolating a gene, cloning and characterizing it, expressing the encoded protein, purifying the protein, and characterizing rudimentary aspects of its basic physical properties. The manual includes 20 experiments designed to train students to prepare, manipulate, and analyse plasmids, to produce fusion proteins in bacteria, and to purify these proteins based on unique chemical properties or substrate affinities. Electrophoresis, Southern and Western blotting and cominatorial techniques are emphasized. Radioisotopes, fluorophores and solvent effects on protein structure are discussed. (No radioisotopes are required.) The experiments included have been selected because of their high success rate and because they emphasize a project-oriented approach. Sufficient detail and background are provided such that the intended audience includes advanced undergrTable of ContentsINTRODUCTORY UNIT; PART I - NCULEIC ACIDS & CLONING; UNIT 1; UNIT 2; UNIT 3; UNIT 4; UNIT 5; UNIT 6; PART 2 - PROTEIN PURIFICATION; UNIT 7; UNIT 8; UNIT 9; UNIT 10; APPENDICES; INDEX

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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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 SynopsisEfforts to improve food security in the developing world have been hampered due to myths surrounding GM agriculture. This book explores the theory, evidence and rhetoric of the impact of food production on the environment, and the impact of the environment on food production. The chapters address: food security and technology; expertise and opportunism; the promise of technology; the politicization of risk; industrial agriculture; the meaning of 'natural'; the potential of the local food movement; food labelling; genetic diversity in the agro-industrial era; sustainability and chemical application; plant vitality; and future prospects for food security. Each chapter includes a personal introduction from the authors about the issues at hand, followed by a detailed analysis with further references. The book considers the origins of concerns and then examines the evidence around the issues, and the impacts in terms of policy, regulation and agricultural practice. It also: - Refutes common consumer and environmental organization myths about biotechnology. - Highlights the importance of food security in both the developing and developed world. - Provides a pro-science approach to increasing food security. This book will be of interest to students and researchers in biotechnology, food security and public understanding of science, and also to policy makers, regulators and industry managers.Table of ContentsChapter 1: Food Security and Technology: Fear Trumps Hope Chapter 2: Expertise and Opportunism: Who Should We Listen To? Chapter 3: The Technology Promise: How Can We Feed a World of More Than 9 Billion? Chapter 4: The Politicization of Risk: Is It Safe? Chapter 5: Industrial Agriculture: Who Is the Real Winner? Chapter 6: The Nature of Natural: Whose Preferences Should Dominate? Chapter 7: The Local Food Movement: Can We Be Self-Sufficient? Chapter 8: Food Labelling: What Do People Want? Chapter 9: Genetic Diversity in the Agro-Industrial Era: What Is at Risk? Chapter 10: The Sustainability Challenge: Are We Facing a Chemical Armageddon? Chapter 11: Plant Vitality: Will ‘Superweeds’ Strangle Our Future? Chapter 12: The Future of Food Security: Where to From Here?

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Book SynopsisA vision of the future where the latest Silicon Valley tech meets cutting-edge genetics.Decoding the World is a buddy adventure about the quest to live meaningfully in a world with such uncertainty. It starts with Po Bronson coming to IndieBio.Arvind Gupta created IndieBio as a laboratory for early biotech startups trying to solve major world problems. Glaciers melting. Dying bees. Infertility. Cancer. Ocean plastic. Pandemics.As they travel around the world, finding scientists to join their cause, the authors bring their first-hand experience to the great mysteries that haunt our future. Natural resource depletion. Job-taking robots. China''s global influence.Decoding the World is the kind of book you get when you give two guys $40 million, a world full of messy big problems, a genetics laboratory to play in, and a set of Borges'' collected works. After looking through their lens, you''ll never see the world the same.

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