Maps for Cereals Millets and Sugarcane, Molecular map, Maize, Millets, Graminaceous Crops, Bread wheat, Emmer wheat, Cereal genomes

Scholarships Dictionary Visa Details Study Abroad Exam Results Online Test Jobs

	Home
Construction of Molecular Maps and Synteny (Collinearity) Construction of Molecular Maps and Synteny (Collinearity) Introduction Preparation of Genetic Maps Mapping Populations and near Isogenic Lines (NILs) Different Molecular Marker Systems Polymorphic Markers and Genotyping the Maping Population Preparation of Map Using the Software Mapmaker Molecular Genetic Maps (Low/Moderate Density) Details of Molecular Maps in Some Crops Maps for Cereals Millets and Sugarcane Maps in Legumes ( Soybean, Pea, Common, Bean,Alfalfa,Chickpea,Lentil) Maps in Brassicsa Maps in Cotton Maps for Sunflower Maps for Solanaceous Crops Maps for Forest Trees and Fruit Trees Molecular Genetics Maps (High Density) Integrated Genetic Maps Resolution Gap Differs in Maps with Genomes of Different Sizes Uses of Molecular Genetic Maps Mapping of Major Genes of Economic Value Using Moecular Markers Use of Near Isogenic Lines (NILs) for Gene Tagging Some Examples of Initial RELP Linked Mapping of Major Genes of Economic Value in Some Crops Identification and Mapping of Quantitative Trait Loci (QTLs) using Molecular Markers Simple Interval Mapping (SIM) Marker Aided Selection (MAS) in Plant Breeding Identification of Breeding Lines and Varieties using Markers Characterization of Genetic Resources and Estimation of Genetic Diversity using Markers

Home >> Plant Biotechnology and Genomics >>Construction of Molecular Maps and Synteny (Collinearity) >>Maps for Cereals Millets and Sugarcane

Your Ad Here	Maps for cereals, millets and sugarcane (grass family) Molecular maps have been prepared in all major cereals, millets and other graminaceous crops including maize, bread wheat, emmer wheat, oats, barley, rice. sorghum, pearl millet, sugarcane, etc. The most extensive maps among cereal genomes, however, are available in case of rice, which has become a model for all graminaceous crops and has therefore been the first food crop to be used for genomics research (due to its small genome size of 430 Mb). As many as about 2300 marker loci spanning a genetic distance of 1800 cM, have been mapped in this crop.
Sorghum is another important crop that has been targeted for plant genomics research, because it is adapted to harsh environments, and is represented by diverse germplasm and a small genome (750 Mbp). In this crop about ten molecular genetic maps with moderate density of RFLP and SSR markers spreading over a genetic distance of up to ~ 1800 cM were prepared during 1990s (for" high density maps in rice and sorghum, see next section). In bread wheat, RFLP maps were initially prepared by joint efforts of different laboratories, which were co-ordinated by the International Triticeae Mapping - Initiative (ITMI). Subsequently, micro satellite (SSR) maps in bread wheat were also prepared by several laboratories in different parts of the world.
Molecular maps with low to moderate density were also prepared in barley, rye, oats, pearl millet, sugarcane, etc. For instance, barley genetic maps were prepared independently in Europe and USA. An SSR map of barley was also prepared in the year 2000, using 242 of more than 600 SSR primers that were available in the public domain at that time. Molecular maps based on RFLPs and AFLPs have also been prepared for diploid and hexaploid oats. In sugarcane, both cultivated and wild species of Saccharumwere used for preparation of molecular maps involving RFLPs and RAPDs. Detailed information on majority of cereal molecular maps is available on GrainGene and Gramene sites, although web sites are also available for individual crops (e.g. for maize, maizeDB:<www.agron.missouri.edu> and for sorghum, <http://sorghumgenome.tamu.edu>).

	Home
Study of Phylogenetic Relationships using Molecular Markers Identification of Somatic Hybrids Molecular Cytogenetic Maps using Cytogenetic Stocks Molecular Physical Maps Genome-wide Physical Maps using Large Insert YACs,BACs and BIBACs Intergrated Physical Map of Arabidopsis Thaliana Genomic-wide Physical Map in Indica Rice Physical Map of Maize Physical Maps in Barley Physical Maps Using in Situ Hybridization (ISH) Molecular Maps in Yeast and Other Fungi Physical Sizes of Chromosomes that were Separated by PFGE,in Budding Yeast and Aspergillus Nidutans Comparative Genomics and Collinearity/Synteny in Maps Microcollinearity in DNA Sequences of Small Genomic Regions Large Genomic Fragements Sequenced in Some Cereal Species Molecular Transcripr (EST) Maps Genomics for Evolutionary Studies

Language >> English | Français | Español | Deutsch | Italiano | Portugues | Japanese | Korean | Sim-Chinese