Journal of Environment and Sociobiology

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Genetic Improvement Of Banana Plants And Their Future Prospect


Affiliations
1 Department of Biotechnology, Brainware University, Barasat, Kolkata-700125, India
     

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Banana (Musa spp.), a highly nutritious fruit, developes without seed due to sterility and parthenocarpic nature of plant. The main aim of genetic improvements in banana range from improved fruit quality, improved yield, disease resistance, tolerance to different biotic and abiotic stresses, to the biosynthesis of pharmaceutical compounds. Other beneficial characteristics include early flowering and maturity, short stature, photosynthetic efficiency, minimum period between successive harvests, strong roots, cylindrical bunches of fruits and fruits of uniform size. It is very difficult to combine all these traits in a single hybrid through sexual hybridization. In vitro culture based technologies that involve embryo rescue, generation of somaclonal variation, and gene-transfer procedures are the alternative to sexual hybridization. The process of transformation involving Agrobacterium and biolistics mediated gene transfer is highly desirable. Future researches on banana will need more attention towards higher nutritive value, genomics, genetic mapping, low cost micropropagation, and somatic embryogenesis. Development of improved varieties with ideal gene architecture, and more resistance to pathogens and pests would be the goal of future researches on banana.

Keywords

Parthenocarpic, Somaclonal variation, Hybrids, Micropropagation, Agrobacterium.
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  • Genetic Improvement Of Banana Plants And Their Future Prospect

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Authors

Samarjit Ray
Department of Biotechnology, Brainware University, Barasat, Kolkata-700125, India

Abstract


Banana (Musa spp.), a highly nutritious fruit, developes without seed due to sterility and parthenocarpic nature of plant. The main aim of genetic improvements in banana range from improved fruit quality, improved yield, disease resistance, tolerance to different biotic and abiotic stresses, to the biosynthesis of pharmaceutical compounds. Other beneficial characteristics include early flowering and maturity, short stature, photosynthetic efficiency, minimum period between successive harvests, strong roots, cylindrical bunches of fruits and fruits of uniform size. It is very difficult to combine all these traits in a single hybrid through sexual hybridization. In vitro culture based technologies that involve embryo rescue, generation of somaclonal variation, and gene-transfer procedures are the alternative to sexual hybridization. The process of transformation involving Agrobacterium and biolistics mediated gene transfer is highly desirable. Future researches on banana will need more attention towards higher nutritive value, genomics, genetic mapping, low cost micropropagation, and somatic embryogenesis. Development of improved varieties with ideal gene architecture, and more resistance to pathogens and pests would be the goal of future researches on banana.

Keywords


Parthenocarpic, Somaclonal variation, Hybrids, Micropropagation, Agrobacterium.

References