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E-grāmata: Plant Breeding in the Omics Era

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  • Izdošanas datums: 16-Sep-2015
  • Izdevniecība: Springer International Publishing AG
  • Valoda: eng
  • ISBN-13: 9783319205328
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  • Formāts: PDF+DRM
  • Izdošanas datums: 16-Sep-2015
  • Izdevniecība: Springer International Publishing AG
  • Valoda: eng
  • ISBN-13: 9783319205328

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The field of plant breeding has grown rapidly in the last decade with breakthrough research in genetics and genomics, inbred development, population improvement, hybrids, clones, self-pollinated crops, polyploidy, transgenic breeding and more. This book discusses the latest developments in all these areas but explores the next generation of needs and discoveries including omics beyond genomics, cultivar seeds and intellectual and property rights. This book is a leading-edge publication of the latest results and forecasts important areas of future needs and applications.

Contents1. Introduction to Plant BreedingPlant Breeding and SocietyGenetics, Omics and Plant BreedingPopulationsGenetic DiversityDistances MeasuresGrouping GermplasmQuantitative VariationMapping TraitsGenotype-by-Environment InteractionPhenotypingPhenomicsReferences2. Plant Genetic Resources for Food and AgricultureCrop Evolution and Plant Species Feeding the WorldGenebanksGene PoolsDescribing Variation and Identifying RedundancyGermplasm EvaluationDescriptorsDocumentation and BioinformaticsGeo-documentation to Identify GermplasmGenebank Sampling and Core SubsetsGenomics of Plant Genetic ResourcesPutting Genes into Usable FormsReferences3. Inbred DevelopmentDNA markers for Mapping Quantitative Trait Loci (QTL) and Aided BreedingInbreeding and Line DevelopmentDoubled HaploidsAdaptability: Learning for Model Plant SystemsBreeding for Stress-prone Environments and Resource-use EfficiencyHost-plant Resistance Breeding

Participatory and Client-driven Plant BreedingReferences4. Population ImprovementRecurrent Selection and Breeding PopulationsGenome-wide Association and Quantitative Trait VariationPlant Genomicsand Marker-assisted SelectionGenomic Selection and Prediction of Breeding ValuesReferences5. Heterosis and Inter-Specific HybridizationHeterotic GroupsHybrid VigorHeterosis in Plant BreedingUnderstanding Hybrid Vigor in Model Plants and CropsOmics Research on HeterosisHybrids in Selfing SpeciesPolyploid HeterosisInterspecific hybridizationReferences6. Mutations and EpigeneticsInduced Mutations and Plant BreedingInduced Mutations and Genomics-led Plant BreedingTargeting Induced Local Lesions IN Genomes (TILLING)EpigeneticsReferences7. Genetic Engineering and Transgenic BreedingPlant Genetic Engineering "Issues"Transgenic Crops "Risks"Transgene FlowPest Resistance and Impacts on Non-target OrganismsDetecting Genetically Modified Orga

nisms and Other Safety AssessmentsTransgenic Agriculture and Co-existencePlant Genetic Engineering ImpactsTransgenic Agriculture OutlookNew Plant Breeding TechniquesReferences8. DNA Sequencing, other Omics and Synthetic Biology DNA SequencingNext Generation SequencingGenotyping-by-SequencingOther Relevant Omics for Plant BreedingBreeding InformaticsCase Study: Omics-led Legume Breedingant Synthetic Biology: Another Tool for Plant Breeding?References9. Breeding Self-fertilizing Plants: From Inbred to Hybrid CultivarsRiceDomesticationGenetic EnhancementGenomicsMarker-aided Selection (MAS)Stress BreedingInterspecific Hybridization and Participatory BreedingHybrid CultivarsPhenotypingGenetic EngineeringWheatEvolution and DiversityGermplasm EnhancementResynthesizing WheatShuttle Breeding and Mega-environmentsGrain Yield PotentialPerennial WheatBiotechnologyEx ante and in silico BreedingTomatoReferences10. Bree

ding Open Pollinated, Hybrid and Transgenic Outcrossing SpeciesMaizeDomestication and DiversityGermplasm EnhancementBreedingInbred Line Development and HybridsDoubled HaploidsGenomics-led Improvement for Enhancing Genetic GainsDeveloping Stress-resilient GermplasmNutritious MaizePrediction of Breeding ValuesGenetic EngineeringCottonCassavaCase Study: Cassava Breeding in sub-Saharan AfricaReferences11. Polyploidy and Plant BreedingPotatoOrigin, Diversity and TaxonomyPloidy ManipulationsGenetic Resources and BreedingTrue Potato Seed Plant Genetic ResourcesThe Question of DerivativesMultinational Private and Public Seed SectorsManaging Agro-biotechnology Intellectual Property RightsReferences
1 Introduction to Plant Breeding
1(18)
Plant Breeding and Society
2(1)
Genetics, Omics, and Plant Breeding
3(1)
Populations
4(1)
Genetic Diversity
5(2)
Distance Measures
7(1)
Grouping Germplasm
8(1)
Quantitative Variation
8(2)
Mapping Traits
10(1)
Genotype-by-Environment Interaction
11(2)
Phenotyping
13(1)
Phenomics
14(1)
References
15(4)
2 Plant Genetic Resources for Food and Agriculture
19(22)
Crop Evolution and Plant Species Feeding the World
20(2)
Genebanks
22(1)
Gene Pools
23(1)
Describing Variation and Identifying Redundancy
24(1)
Germplasm Evaluation
25(1)
Descriptors
26(3)
Documentation and Bioinformatics
29(1)
Geo-documentation to Identify Germplasm
29(1)
Genebank Sampling and Core Subsets
30(2)
Genomics of Plant Genetic Resources
32(2)
Putting Genes into Usable Forms
34(1)
References
35(6)
3 Inbred Development
41(20)
DNA Markers for Mapping Quantitative Trait Loci (QTL) and Aided Breeding
42(3)
Inbreeding and Line Development
45(3)
Doubled Haploids
48(2)
Adaptability: Learning for Model Plant Systems
50(1)
Breeding for Stress-Prone Environments and Resource-Use Efficiency
51(2)
Host Plant Resistance Breeding
53(1)
Participatory and Client-Driven Plant Breeding
54(1)
References
55(6)
4 Population Improvement
61(18)
Recurrent Selection and Breeding Populations
61(2)
Genome-Wide Association and Quantitative Trait Variation
63(4)
Plant Genomics and Marker-Assisted Selection
67(3)
Genomic Selection and Prediction of Breeding Values
70(2)
References
72(7)
5 Heterosis and Interspecific Hybridization
79(14)
Heterotic Groups
80(1)
Hybrid Vigor
81(1)
Heterosis in Plant Breeding
81(1)
Understanding Hybrid Vigor in Model Plants and Crops
82(1)
Omics Research on Heterosis
83(2)
Hybrids in Selfing Species
85(1)
Polyploid Heterosis
86(1)
Interspecific Hybridization
87(1)
References
88(5)
6 Mutations and Epigenetics
93(10)
Induced Mutations and Plant Breeding
93(1)
Induced Mutations and Genomics-Led Plant Breeding
94(1)
Targeting Induced Local Lesions in Genomes (TILLING)
95(2)
Epigenetics
97(2)
References
99(4)
7 Genetic Engineering and Transgenic Breeding
103(22)
Plant Genetic Engineering "Issues"
104(1)
Transgenic Crops "Risks"
105(1)
Transgene Flow
106(2)
Pest Resistance and Impacts on Non-target Organisms
108(2)
Detecting Genetically Modified Organisms and Other Safety Assessments
110(1)
Transgenic Agriculture and Coexistence
111(1)
Plant Genetic Engineering Impacts
112(1)
Transgenic Agriculture Outlook
113(1)
New Plant Breeding Techniques
114(2)
References
116(9)
8 DNA Sequencing, Other Omics and Synthetic Biology
125(16)
DNA Sequencing
126(1)
Next-Generation Sequencing
127(1)
Genotyping-by-Sequencing
128(1)
Other Relevant Omics for Plant Breeding
129(2)
Breeding Informatics
131(1)
Case Study: Omics-Led Legume Breeding
132(2)
Plant Synthetic Biology: Another Tool for Plant Breeding?
134(1)
References
134(7)
9 Breeding Self-Fertilizing Plants: From Inbred to Hybrid Cultivars
141(32)
Rice
141(10)
Wheat
151(8)
Tomato
159(3)
References
162(11)
10 Breeding Open-Pollinated, Hybrid and Transgenic Outcrossing Species
173(28)
Maize
173(12)
Cotton
185(3)
Cassava
188(4)
References
192(9)
11 Polyploidy and Plant Breeding
201(24)
Potato
205(8)
Banana/Plantain
213(4)
References
217(8)
12 Seeds, Clones, and Perennials
225(10)
Seed Development: Learning from a Model Plant System
227(1)
Inbred and Open Pollinated Seed Cultivars
228(1)
Hybrid Seed
228(1)
Rapid Multiplication of Healthy and Improved Planting Material of Vegetatively Propagated Crops
229(1)
Seed Health
230(1)
Apomixis; Procreation Without Recreation
231(1)
Perennial Crops
231(2)
References
233(2)
13 Diversity, Intellectual Property, and Plant Variety Protection
235(12)
Plant Genetic Resources
239(1)
The Question of Derivatives
239(1)
Multinational Private and Public Seed Sectors
240(2)
Managing Agro-biotechnology Intellectual Property Rights
242(1)
References
243(4)
Index 247
Rodomiro Ortiz is Professor of Genetics and Plant Breeding at the Swedish University of Agricultural Sciences (SLU) in Alnarp, Sweden. He worked as geneticist at Universidad Nacional Agraria La Molina (UNALM), Centro Internacional de la Papa (CIP, Lima, Perś), Rutgers University (Chatsworth, New Jersey, USA) and International Institute of Tropical Agriculture (IITA, Ibadan, Nigeria), held a Nordic professorship in plant genetic resources at the Danish Royal Veterinary and Agricultural University (merged now with the University of Copenhagen, Denmark), served as Director at the International Crops Research Institute for the Semi-Arid Tropics (ICRISAT, Patancheru, Telangana, India), IITA, and the Centro Internacional de Mejoramiento de Maķz y Trigo (CIMMYT, El Batįn, México), and independent free-lance consultant for international, regional and national organizations engaged in agricultural research-for-development. CGIAR awarded IITA in 1994 the prestigious King Baudouin Award for the multidisciplinary research of the team working in plantain and banana improvement, in which Ortiz was both a hands-on researcher and program leader. His professional expertise includes genetics, genetic resources, germplasm enhancement, plant breeding, agro-biotechnology, biosafety, intellectual property rights, and developing agro-ecosystem and livelihood system approaches aiming sustainable intensification of agriculture in the developing world. His h-index was 44 accord

ing to Google Scholar at end 2014.