Agronomy · 2020 · 23 citations · 62 references
AgricultureBiotechnologyPlant BreedingCrop ImprovementGenetic EngineeringPlant BiotechnologyCrop GenomicsFiber Quality BreedingGermplasm EnhancementPlant Breeding GeneticsPlant Genetic EngineeringCotton Fiber Quality ImprovementCrispr-cas Systems In PlantsCrispr-cas9 Genome EditingCrop Genetic ResourcesEfficient Resource UseGenome Editing TargetsHigh-yielding VarietiesPlant Resistance Breeding
Empirical cotton breeding was based upon the concept of selecting single and best high-yielding progeny from the segregating populations to develop a cultivar. It helped in releasing of high yielding varieties with superior fibre quality through conventional breeding. Though the production of cotton has been increased manifold in the last decades, but it has also seen enormous ebb and flow of yield uncertainties during the past several years. Therefore, the development of climatic resilient cotton ideotypes through the introduction of wild alleles and using contemporary genetic markers have become inevitable. Emerging genome engineering technologies such as CRISPR/Cas9 system can also potentially exploited to edit the disease susceptible and negative regulators of yield related genes in cotton. In the present review we concentrate on accomplishments and forthcoming of plant breeding and biotechnology to facelift the cotton breeding programs.
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Global impact of mutation-derived varieties
B. S. Ahloowalia, M. Małuszyński, K. Nichterlein · Euphytica · 2004 · 697 citations
Asymmetric subgenome selection and cis-regulatory divergence during cotton domestication
Maojun Wang, Lili Tu, Min Lin et al. · Nature Genetics · 2017 · 503 citations · Full text