OilseedsGenome Mapping and Molecular Breeding in Plants presents the current status of the elucidation and improvement of plant genomes of economic interest. The focus is on genetic and physical mapping, positioning, cloning, monitoring of desirable genes by molecular breeding and the most recent advances in genomics. The series comprises seven volumes: Cereals and Millets; Oilseeds; Pulses, Sugar and Tuber Crops; Fruits and Nuts; Vegetables; Technical Crops; and Forest Trees. Oilseeds is devoted to oil-producing field crops such as soybeans, oilseed rape, peanuts, sunflowers, Indian mustard, Brassica rapa, black mustard and flax. While the grouping of economic plants is conventionally based on their agricultural purposes, several crops covered in this volume have other uses besides yielding oils. Brassica rapa is also used as a vegetable, the sunflower as an ornamental, and flax as a fibre crop. Black mustard, which is used as a condiment but is genetically close to other Brassica species, is also included here. |
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Contents
1 Soybean | 1 |
12 Construction of Soybean Genetic Map | 7 |
123 Integrated Soybean Genetic Maps | 9 |
13 Mapping of Genes in Soybean | 10 |
132 Genes for Herbicide Resistance | 20 |
135 Soybean Sterility Genes | 22 |
137 Genes for Soybean Pigmentation | 23 |
14 QTL Mapping in Soybean | 24 |
References | 172 |
5 Indian Mustard | 178 |
513 Economic Importance | 180 |
514 Breeding Objectives and Progress | 181 |
515 Overcoming Limitations of Classical Endeavours | 183 |
516 Classical Mapping Efforts | 185 |
52 Construction of Genetic Maps | 186 |
523 SecondGeneration Maps | 188 |
142 Tolerance to Abiotic Stresses | 36 |
143 Growth and Development Responses | 37 |
144 Seed Composition | 38 |
15 MarkerAssisted Breeding in Soybean | 40 |
153 MarkerAssisted Introgression | 41 |
154 Gene Pyramiding | 42 |
162 Soybean Transformation | 43 |
17 Future Scope | 44 |
References | 45 |
2 Oilseed Rape | 54 |
212 Botanical Description | 56 |
214 Nutritional and Chemical Composition of Rapeseed Oil | 57 |
22 Breeding of Oilseed Rape | 59 |
223 Improvement of Seed Components | 60 |
224 Hybrid Breeding and Cytoplasmic Male Sterility Systems | 62 |
225 Use of Male Sterility Systems in Oilseed Rape Breeding | 64 |
227 Expanding the Genetic Variability in Oilseed Rape by Interspecific Hybridization | 65 |
23 Cytogenetic Studies of Brassica Crops and Interspecific Hybrids | 67 |
24 Genetic Diversity Studies in Brassica napus | 71 |
Status and Potential of Transgenic Brassica napus | 72 |
252 Genetic Engineering of Fatty Acid Biosynthesis | 73 |
26 Molecular Markers and Genetic Mapping | 77 |
263 Mapping of Genes and QTLs for Morphological and Quality Traits | 88 |
264 Mapping of Genes and QTL for Disease Resistance | 91 |
265 Mapping QTLs for Abiotic Stress | 92 |
266 Towards an Integrated B napus Genetic Map | 93 |
27 Comparative Genomic Studies | 94 |
28 Physical Mapping and Genomics Tools | 98 |
The Multinational Brassica Genome Project | 100 |
29 Outlook | 103 |
3 Peanut | 115 |
313 Crop Production and Uses | 116 |
Reduced Allergenicity and Toxicity | 118 |
322 Cultivated Germplasm | 119 |
33 Appropriate Germplasm and Evaluation Systems for Mapping Economically Important Traits in Peanut | 121 |
332 Germplasm with Beneficial Traits for Mapping and Genetic Enhancement | 126 |
34 Genomic Resources in Peanut | 128 |
342 Molecular Diversity | 131 |
344 Genetic Linkage Map | 132 |
345 Comparative Mapping with Model Genomes | 133 |
35 Successes and Limitations of Conventional Breeding in Peanut | 136 |
36 Biotechnological Applications to Genetic Enhancement in Peanut | 137 |
363 Transgenics | 140 |
37 Conclusions and Future Outlook | 142 |
References | 143 |
4 Sunflower | 153 |
413 Economic Importance | 154 |
414 Conventional Breeding | 155 |
42 Molecular Markers and Genetic Maps | 156 |
43 Genomics and Transcriptomics | 157 |
44 Structural Analysis by in situ Hybridization | 163 |
45 Resistance Genes in Cultivated and Wild Sunflowers | 164 |
46 QTL Analysis for Developmental and Agronomic Traits | 168 |
47 In vitro TissueCultureAided Breeding | 169 |
48 Genetic Transformation | 170 |
524 Comparative Mapping | 193 |
53 Gene Mapping and MarkerAssisted Selection | 195 |
532 Seed Coat Color | 197 |
533 Fatty AcidOil Content | 198 |
534 Glucosinolate Content | 201 |
54 MarkerAssisted Breeding | 202 |
55 TransgeneAssisted Breeding | 203 |
57 Future Scope of Works | 204 |
References | 205 |
6 Brassica Rapa | 211 |
613 Economic Importance | 213 |
62 Construction of Genetic Maps | 215 |
622 Mapping Populations | 216 |
623 Mapping Resources | 217 |
624 Genetic Maps | 218 |
625 Comparative Mapping | 221 |
63 Gene Mapping | 224 |
632 Disease Resistance | 227 |
633 Vernalization Requirements and Flowering Time | 229 |
634 Fatty Acid Content | 231 |
636 Dwarfism | 232 |
637 Markers Linked to Microspore Embryogenic Ability | 233 |
642 Heat Resistance | 236 |
645 Linolenic Acid Content | 237 |
646 Flowering Time | 239 |
Winter Survival and Freezing Tolerance | 240 |
648 Mendelization of QTLs | 242 |
65 MarkerAssisted Breeding | 243 |
653 MarkerAssisted Selection | 246 |
654 MarkerAssisted Introgression | 248 |
655 Gene Pyramiding | 250 |
66 MapBased Cloning | 251 |
662 Genetic Resources and Mapping Populations | 252 |
664 Outlook | 253 |
References | 254 |
7 Black Mustard | 265 |
713 Breeding | 266 |
72 DNA Marker Technology | 267 |
732 Comparative Mapping | 269 |
74 Mapping of FloweringTime Trait in Brassica nigra | 270 |
75 Future Scope of Work | 271 |
272 | |
8 Flax | 275 |
813 Karyotype | 277 |
814 Genome Size | 278 |
816 Breeding Objectives | 280 |
82 Construction of Genetic Maps | 282 |
822 Molecular Maps | 285 |
83 Germplasm Identification | 287 |
832 Molecular Markers for Germplasm Identification | 289 |
833 Inducing New Variability or Traits | 290 |
84 Gene Discovery | 291 |
292 | |
296 | |