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About:
Genetic recombination between RNA components of a multipartite plant virus
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research paper
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Academic Article
research paper
schema:ScholarlyArticle
isDefinedBy
Covid-on-the-Web dataset
has title
Genetic recombination between RNA components of a multipartite plant virus
Creator
Sobel, R
Immun,
Walker, M
Przybyla, A
Rutter, W
Barr, P
Bhan, A
Blanchette, B
Boulet, A
Chirgwin, J
Colvin, R
Cordell, B
Edlund, T
Kostianovsky, M
Lacy, P
Lally, P
Macdonald, R
Source
Medline; PMC
abstract
Genetic recombination of DNA is one of the fundamental mechanisms underlying the evolution of DNA-based organisms and results in their diversity and adaptability. The importance of the role of recombination is far less evident for the RNA-based genomes that occur in most plant viruses and in many animal viruses. RNA recombination has been shown to promote the evolutionary variation of picornaviruses(1–4), it is involved in the creation of defective interfering (DI) RNAs of positive- and negative-strand viruses(5–9) and is implicated in the synthesis of the messenger RNAs of influenza virus(10) and coronavirus(11). However, RNA recombination has not been found to date in viruses that infect plants. In fact, the lack of DI RNAs and the inability to demonstrate recombination in mixedly infected plants has been regarded as evidence that plants do not support recombination of viral RNAs. Here we provide the first molecular evidence for recombination of plant viral RNA. For brome mosaic virus (BMV), a plus-stranded, tripartite-genome virus of monocots, we show that a deletion in the 3′ end region of a single BMV RNA genomic component can be repaired during the development of infection by recombination with the homologous region of either of the two remaining wild-type BMV RNA components. This result clearly shows that plant viruses have available powerful recombinatory mechanisms that previously were thought to exist only in animal hosts, thus they are able to adapt and diversify in a manner comparable to animal viruses. Moreover, our observation suggests an increased versatility of viruses for use as vectors in introducing new genes into plants.
has issue date
1986-01-01
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bibo:doi
10.1038/321528a0
bibo:pmid
2423879
has license
no-cc
sha1sum (hex)
880f042ae205dad2c31cfc5b6366cb626036191c
schema:url
https://doi.org/10.1038/321528a0
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Genetic recombination between RNA components of a multipartite plant virus
has PubMed Central identifier
PMC7095370
has PubMed identifier
2423879
schema:publication
Nature
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covid:880f042ae205dad2c31cfc5b6366cb626036191c#body_text
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named entity '50%'
named entity 'transgenic'
named entity 'intravenous'
named entity 'serum glucose levels'
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named entity 'cDNA clone'
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named entity 'antigen'
named entity 'insulin'
named entity 'organism'
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named entity 'gene expression'
named entity 'gel electrophoresis'
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named entity 'BMV'
named entity 'blood glucose levels'
named entity 'molecular evidence'
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