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Population Genetics and Evolutionary Genomics

 Population Genetics and Evolutionary Genomics


Population Genetics and Evolutionary Genomics investigate how genetic variation is generated, maintained, and shaped by evolutionary forces across populations and species. This field integrates genome sequencing, molecular evolution, bioinformatics, and mathematical models to analyze mutation rates, natural selection, genetic drift, gene flow, recombination, and demographic history. By comparing genomes across individuals and species, researchers reveal patterns of adaptation, identify evolutionary pressures, reconstruct ancestral lineages, and understand mechanisms of speciation. These insights contribute to understanding human evolution, biodiversity, disease susceptibility, conservation strategies, and the genetic response to environmental change.

Population genetics, Evolutionary genomics, Genetic variation, Natural selection, Genetic drift, Gene flow, Mutation and recombination, Speciation, Adaptive evolution, Phylogenomics, Comparative genomics, Genomic diversity, Human evolution, Molecular evolution

PopulationGenetics, #EvolutionaryGenomics, #GeneticVariation, #NaturalSelection, #GeneticDrift, #GeneFlow, #MutationBiology, #Recombination, #Speciation, #AdaptiveEvolution, #GenomicDiversity, #ComparativeGenomics, #Phylogenomics, #MolecularEvolution, #HumanEvolution, #EvolutionaryBiology, #ConservationGenetics, #GenomeScience, #BioinformaticsResearch, #GeneticsResearch

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