Mapping of Major Genes of Economic Value Using Moecular Markers, Plant Breeding, Gene tagging, Gene clusters, Cloning

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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

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Uses of Molecular Genetic Maps

Mapping of major genes of economic value using molecular markers (tagging)
Molecular markers can be used to map positions of genes for simple traits as well as those for polygenic traits (alo described as quantitative trait loci or QTLs). Once these genes are mapped the molecular markers linked to specific genes or gene clusters (gene tagging) can be used in selection schemes for plant breeding (see later for details). Molecular markers mapped very close to important genes can also be used for isolation of these genes through map based cloning.

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